diff --git a/MetroscopeModelingLibrary/Examples/CCGT/Evaporator_noRecirculation_direct.mo b/MetroscopeModelingLibrary/Examples/CCGT/Evaporator_noRecirculation_direct.mo
index 502a3250..4c0dfbf1 100644
--- a/MetroscopeModelingLibrary/Examples/CCGT/Evaporator_noRecirculation_direct.mo
+++ b/MetroscopeModelingLibrary/Examples/CCGT/Evaporator_noRecirculation_direct.mo
@@ -12,8 +12,6 @@ model Evaporator_noRecirculation_direct
// Parameters
parameter Utilities.Units.Area S=10;
parameter Utilities.Units.HeatExchangeCoefficient Kth=102000;
- parameter Utilities.Units.FrictionCoefficient Kfr_hot=0;
- parameter Utilities.Units.FrictionCoefficient Kfr_cold=1;
MultiFluid.HeatExchangers.Evaporator evaporator annotation (Placement(transformation(extent={{-38,-36},{40,36}})));
WaterSteam.Volumes.FlashTank flashTank annotation (Placement(transformation(extent={{-26,38},{-46,58}})));
@@ -35,15 +33,13 @@ equation
evaporator.S = S;
evaporator.Kth = Kth;
- evaporator.Kfr_hot = Kfr_hot;
- evaporator.Kfr_cold = Kfr_cold;
- connect(flashTank.C_in, evaporator.C_cold_out) annotation (Line(points={{-26,52},{-10.7,52},{-10.7,25.2}}, color={28,108,200}));
+ connect(flashTank.C_in, evaporator.C_cold_out) annotation (Line(points={{-26,52},{-14.6,52},{-14.6,28.8}}, color={28,108,200}));
connect(flashTank.C_hot_steam, cold_steam_sink.C_in) annotation (Line(points={{-46,52},{-85,52}}, color={28,108,200}));
connect(flashTank.C_hot_liquid, cold_liquid_sink.C_in) annotation (Line(points={{-46,44},{-76,44},{-76,-52},{-83,-52}}, color={28,108,200}));
- connect(evaporator.C_hot_in, hot_source.C_out) annotation (Line(points={{-26.3,-0.72},{-55.65,-0.72},{-55.65,0},{-85,0}}, color={95,95,95}));
- connect(evaporator.C_hot_out, hot_sink.C_in) annotation (Line(points={{28.3,-0.72},{45.65,-0.72},{45.65,0},{59,0}}, color={95,95,95}));
- connect(evaporator.C_cold_in, cold_source.C_out) annotation (Line(points={{12.7,25.2},{12.7,40},{57,40}}, color={28,108,200}));
+ connect(evaporator.C_hot_in, hot_source.C_out) annotation (Line(points={{-38,0},{-55.65,0},{-55.65,0},{-85,0}}, color={95,95,95}));
+ connect(evaporator.C_hot_out, hot_sink.C_in) annotation (Line(points={{40,0},{45.65,0},{45.65,0},{59,0}}, color={95,95,95}));
+ connect(evaporator.C_cold_in, cold_source.C_out) annotation (Line(points={{16.6,28.8},{16.6,40},{57,40}}, color={28,108,200}));
annotation (Icon(coordinateSystem(preserveAspectRatio=false), graphics={
Ellipse(
extent={{-40,76},{-4,40}},
diff --git a/MetroscopeModelingLibrary/Examples/CCGT/MetroscopiaCCGT/MetroscopiaCCGT_direct.mo b/MetroscopeModelingLibrary/Examples/CCGT/MetroscopiaCCGT/MetroscopiaCCGT_direct.mo
index f3277fb4..b140a450 100644
--- a/MetroscopeModelingLibrary/Examples/CCGT/MetroscopiaCCGT/MetroscopiaCCGT_direct.mo
+++ b/MetroscopeModelingLibrary/Examples/CCGT/MetroscopiaCCGT/MetroscopiaCCGT_direct.mo
@@ -7,7 +7,7 @@ model MetroscopiaCCGT_direct
// Air source
input Real P_source_air(start=1) "bar";
input Units.MassFlowRate Q_source_air(start=500) "kg/s";
- input Real T_source_air(start=24) "degC";
+ Real T_source_air(start=24) "degC";
input Real Relative_Humidity(start=0.5);
// Fuel source
input Real P_fuel_source(start=30) "bar";
@@ -88,7 +88,7 @@ model MetroscopiaCCGT_direct
// Calibrated parameters (input used for calibration in comment)
// Gas Turbine
- parameter Units.FrictionCoefficient Filter_Kfr=0.04432005; // Filter outlet pressure
+ Units.FrictionCoefficient Filter_Kfr; // Filter outlet pressure
parameter Real compression_rate = 18.88889; // Air compressor outlet pressure
parameter Real compressor_eta_is = 0.878675; // Air compressor outlet temperature
parameter Real turbine_eta_is = 0.8304104; // Gas turbine power output
@@ -130,6 +130,7 @@ model MetroscopiaCCGT_direct
parameter Real pumpRec_CV_Cvmax = 52.329174; // Recirculation control valve opening
MetroscopeModelingLibrary.MultiFluid.HeatExchangers.Economiser economiser(
+ S=100,
nominal_DT_default=false,
QCp_max_side=Eco_QCp_max_side,
Q_cold_0=56.89394,
@@ -169,6 +170,7 @@ model MetroscopiaCCGT_direct
rotation=180,
origin={56,34})));
MetroscopeModelingLibrary.MultiFluid.HeatExchangers.Evaporator evaporator(
+ S=100,
x_steam_out(start=1),
faulty=false,
Q_cold_0=47.517586,
@@ -185,6 +187,7 @@ model MetroscopiaCCGT_direct
h_0=2691576)
annotation (Placement(transformation(extent={{-34,28},{-46,40}})));
MetroscopeModelingLibrary.MultiFluid.HeatExchangers.Superheater HPsuperheater1(
+ S=100,
nominal_DT_default=false,
QCp_max_side="unidentified",
Q_cold_0=47.517586,
@@ -255,6 +258,7 @@ model MetroscopiaCCGT_direct
MetroscopeModelingLibrary.Sensors.Power.PowerSensor W_ST_out_sensor(W_MW(start=64.77))
annotation (Placement(transformation(extent={{90,274},{102,286}})));
MetroscopeModelingLibrary.WaterSteam.HeatExchangers.Condenser condenser(
+ S=100,
Q_cold_0=2730.2332,
Q_hot_0=49.734425,
Psat_0=4973.1817,
@@ -374,6 +378,7 @@ model MetroscopiaCCGT_direct
T_0=913.15)
annotation (Placement(transformation(extent={{-370,-7},{-358,5}})));
MetroscopeModelingLibrary.MultiFluid.HeatExchangers.Superheater Reheater(
+ S=100,
nominal_DT_default=false,
QCp_max_side=ReH_QCp_max_side,
Q_cold_0=49.734425,
@@ -566,9 +571,9 @@ model MetroscopiaCCGT_direct
extent={{-5,-5},{5,5}},
rotation=90,
origin={-442,-21})));
- MetroscopeModelingLibrary.Power.Machines.Generator GT_generator
+ MetroscopeModelingLibrary.Power.Machines.Generator GT_generator(eta=0.99)
annotation (Placement(transformation(extent={{-380,50},{-348,70}})));
- MetroscopeModelingLibrary.Power.Machines.Generator ST_generator
+ MetroscopeModelingLibrary.Power.Machines.Generator ST_generator(eta=0.99)
annotation (Placement(transformation(extent={{50,270},{82,290}})));
MetroscopeModelingLibrary.Sensors.FlueGases.TemperatureSensor T_flue_gas_sink_sensor(
Q_0=510.45065,
@@ -589,13 +594,14 @@ model MetroscopiaCCGT_direct
Q_0=500,
T_0=297.149994,
h_0=301935.4)
- annotation (Placement(transformation(extent={{-576,-10},{-556,10}})));
+ annotation (Placement(transformation(extent={{-580,-10},{-560,10}})));
MetroscopeModelingLibrary.Sensors.FlueGases.PressureSensor P_filter_out_sensor(
Q_0=500,
P_0=100000,
h_0=301935.4)
annotation (Placement(transformation(extent={{-548,-6},{-536,6}})));
MetroscopeModelingLibrary.MultiFluid.HeatExchangers.Superheater HPsuperheater2(
+ S=100,
nominal_DT_default=false,
QCp_max_side=HPSH_QCp_max_side,
Q_cold_0=49.734425,
@@ -667,8 +673,22 @@ model MetroscopiaCCGT_direct
rotation=180,
origin={-90,180})));
Sensors.MoistAir.RelativeHumiditySensor H_sensor(sensor_function="BC") annotation (Placement(transformation(extent={{-694,-6},{-682,6}})));
+ FlueGases.Pipes.FrictionPipe HRSG_friction annotation (Placement(transformation(extent={{40,10},{60,-10}})));
+ Utilities.Interfaces.RealInput HRSG_Kfr(start=0.022388678)
+ annotation (Placement(transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=90,
+ origin={50,-20}), iconTransformation(extent={{-36,-16},{4,24}})));
+ Utilities.Interfaces.RealExpression AirFilter_Kfr(y=0.04432005 + T_source_air*1e-4) annotation (Placement(transformation(
+ extent={{-20,-12},{20,12}},
+ rotation=0,
+ origin={-570,40})));
equation
+ T_source_air = 24 + time*10;
+
+ Filter_Kfr = 0.04432005 + T_source_air * 1e-4;
+ //AirFilter.Kfr = Filter_Kfr;
//--- Air / Flue Gas System ---
// Air source
@@ -689,9 +709,7 @@ equation
// Quantities definition
P_filter_out_sensor.P_barA = P_filter_out;
// Calibrated parameters
- AirFilter.Kfr = Filter_Kfr;
- // Parameters
- AirFilter.delta_z = 1;
+
// Air Compressor
// Quantities definition
@@ -713,58 +731,45 @@ equation
// Calibrated parameters
gasTurbine.tau = turbine_compression_rate;
gasTurbine.eta_is = turbine_eta_is;
- // Parameters
- gasTurbine.eta_mech = 0.99;
// Generator
// Quantities definition
W_GT_sensor.W_MW = W_GT;
- // Parameters
- GT_generator.eta = 0.99;
// Flue Gas sink
//Quantities definition
P_flue_gas_sink_sensor.P_barA = P_flue_gas_sink;
T_flue_gas_sink_sensor.T_degC = T_flue_gas_sink;
- // --- Water / Steam Circuit
// Economizer
// Quantities definition
T_w_eco_out_sensor.T_degC = T_w_eco_out;
P_w_eco_out_sensor.P_barA = P_w_eco_out;
// Parameters
- economiser.S = 100;
economiser.nominal_cold_side_temperature_rise = 235;
economiser.nominal_hot_side_temperature_drop = 150;
T_w_eco_in_sensor.T_degC = T_w_eco_in;
// Calibrated parameters
economiser.Kth = Eco_Kth;
- economiser.Kfr_hot = Eco_Kfr_hot;
economiser.Kfr_cold = Eco_Kfr_cold;
// Evaporator
// Quantities definition
P_w_evap_out_sensor.P_barA = P_w_evap_out;
- evaporator.x_steam_out = Evap_x_steam_out;
Evap_opening_sensor.Opening = Evap_opening;
// Parameters
- evaporator.S = 100;
- evaporator.Kfr_hot = 0;
// Calibrated parameters
- Evap_controlValve.Cv_max = Evap_CV_Cvmax;
+ Evap_controlValve.Cv_max = Evap_CV_Cvmax;
evaporator.Kth = Evap_Kth;
- evaporator.Kfr_cold = Evap_Kfr_cold;
// HP Superheater 1
// Quantities definition
P_w_HPSH1_out_sensor.P_barA = P_w_HPSH1_out;
T_w_HPSH1_out_sensor.T_degC = T_w_HPSH1_out;
// Parameters
- HPsuperheater1.S = 100;
HPsuperheater1.nominal_cold_side_temperature_rise = 250;
HPsuperheater1.nominal_hot_side_temperature_drop = 180;
- HPsuperheater1.Kfr_hot = 0;
// Calibrated parameters
HPsuperheater1.Kth = HPSH1_Kth;
HPsuperheater1.Kfr_cold = HPSH1_Kfr_cold;
@@ -773,10 +778,8 @@ equation
// Quantities definition
P_w_HPSH2_out_sensor.P_barA = P_w_HPSH2_out;
// Parameters
- HPsuperheater2.S = 100;
HPsuperheater2.nominal_cold_side_temperature_rise = 150;
HPsuperheater2.nominal_hot_side_temperature_drop = 180;
- HPsuperheater2.Kfr_hot = 0;
T_w_HPSH2_out_sensor.T_degC = T_w_HPSH2_out;
// Calibrated parameters
HPsuperheater2.Kth = HPSH2_Kth;
@@ -787,17 +790,15 @@ equation
deSH_opening_sensor.Opening = deSH_opening;
Q_deSH_sensor.Q = Q_deSH;
// Calibrated parameters
- deSH_controlValve.Cv_max = deSH_CV_Cvmax;
+ deSH_controlValve.Cv_max = deSH_CV_Cvmax;
// Reheater
// Quantities definition
T_w_ReH_out_sensor.T_degC = T_w_ReH_out;
P_w_ReH_out_sensor.P_barA = P_w_ReH_out;
// Parameters
- Reheater.S = 100;
Reheater.nominal_cold_side_temperature_rise = 100;
Reheater.nominal_hot_side_temperature_drop = 180;
- Reheater.Kfr_hot = 0;
// Calibrated parameters
Reheater.Kth = ReH_Kth;
Reheater.Kfr_cold = ReH_Kfr_cold;
@@ -807,8 +808,6 @@ equation
// Steam Turbine Generator
// Quantities definition
W_ST_out_sensor.W_MW = W_ST_out;
- // Parameters
- ST_generator.eta = 0.99;
// High Pressure Level
// Quantities definition
@@ -836,10 +835,7 @@ equation
T_circulating_water_out_sensor.T_degC = T_circulating_water_out;
P_Cond_sensor.P_barA = P_Cond;
// Parameters
- condenser.S = 100;
- condenser.water_height = 1;
condenser.C_incond = 0;
- condenser.P_offset = 0;
condenser.Kfr_cold = 1;
// Calibrated parameters
condenser.Kth = Cond_Kth;
@@ -865,7 +861,7 @@ equation
// Calibrated parameters
pumpRec.hn = pumpRec_hn;
pumpRec.rh = pumpRec_rh;
- pumpRec_controlValve.Cv_max = pumpRec_CV_Cvmax;
+ pumpRec_controlValve.Cv_max = pumpRec_CV_Cvmax;
connect(HPsuperheater1.C_cold_out, T_w_HPSH1_out_sensor.C_in) annotation (
Line(points={{-173.4,15.8},{-172,15.8},{-172,34},{-178,34}},
@@ -912,9 +908,6 @@ equation
color={28,108,200},
pattern=LinePattern.Dash,
thickness=1));
- connect(evaporator.C_hot_out, economiser.C_hot_in) annotation (Line(points={{6,-1},{84,-1},{84,-0.25}},
- color={95,95,95},
- thickness=1));
connect(gasTurbine.C_out, turbine_T_out_sensor.C_in)
annotation (Line(points={{-382,-0.5},{-382,-1},{-370,-1}},
color={95,95,95},
@@ -1050,10 +1043,10 @@ equation
color={28,108,200},
thickness=0.5));
connect(AirFilter.C_out, P_filter_out_sensor.C_in)
- annotation (Line(points={{-556,0},{-548,0}}, color={95,95,95},
+ annotation (Line(points={{-560,0},{-548,0}}, color={95,95,95},
thickness=1));
connect(Q_source_air_sensor.C_out, AirFilter.C_in)
- annotation (Line(points={{-588,0},{-576,0}}, color={95,95,95},
+ annotation (Line(points={{-588,0},{-580,0}}, color={95,95,95},
thickness=1));
connect(P_filter_out_sensor.C_out, airCompressor.C_in)
annotation (Line(points={{-536,0},{-524,0}}, color={95,95,95},
@@ -1133,6 +1126,10 @@ equation
points={{-694,0},{-703,0}},
color={85,170,255},
thickness=1));
+ connect(HRSG_friction.Kfr,HRSG_Kfr) annotation (Line(points={{50,-4},{50,-20}}, color={0,0,127}));
+ connect(evaporator.C_hot_out, HRSG_friction.C_in) annotation (Line(points={{6,-1},{22,-1},{22,0},{40,0}}, color={95,95,95}));
+ connect(HRSG_friction.C_out, economiser.C_hot_in) annotation (Line(points={{60,0},{84,0},{84,-0.25}}, color={95,95,95}));
+ connect(AirFilter_Kfr.y, AirFilter.Kfr) annotation (Line(points={{-570,34},{-570,4}}, color={0,0,127}));
annotation (Icon(coordinateSystem(preserveAspectRatio=false, extent={{-720,-120},{260,300}})),
Diagram(
coordinateSystem(preserveAspectRatio=false, extent={{-720,-120},{260,300}}),
diff --git a/MetroscopeModelingLibrary/Examples/CCGT/MetroscopiaCCGT/MetroscopiaCCGT_direct_withStartValues.mo b/MetroscopeModelingLibrary/Examples/CCGT/MetroscopiaCCGT/MetroscopiaCCGT_direct_withStartValues.mo
index 2dfc7899..ea932107 100644
--- a/MetroscopeModelingLibrary/Examples/CCGT/MetroscopiaCCGT/MetroscopiaCCGT_direct_withStartValues.mo
+++ b/MetroscopeModelingLibrary/Examples/CCGT/MetroscopiaCCGT/MetroscopiaCCGT_direct_withStartValues.mo
@@ -11,8 +11,6 @@ model MetroscopiaCCGT_direct_withStartValues
Q(start=-500.0),
h_outflow(start=299616.5)),
DP(start=-10000.0),
- DP_f(start=-9989.122),
- DP_z(start=-10.877613),
P_in(start=100000.0),
P_out(start=90000.0),
Q(start=500.0),
@@ -24,7 +22,6 @@ model MetroscopiaCCGT_direct_withStartValues
rho(start=1.1092079),
state_in(T(start=297.15)),
state_out(T(start=297.15))),
- Evap_Kfr_cold(start=0.0),
Evap_controlValve(
C_in(
P(start=12250000.0),
@@ -93,14 +90,10 @@ model MetroscopiaCCGT_direct_withStartValues
state_is(T(start=481.81647), h(start=2849046.8)),
state_out(T(start=528.64996), h(start=2955357.2)),
x_in(start=1.0),
- h_vap_sat_in(
- start=2700337.8),
- h_vap_sat_out(
- start=2777119.5),
- h_liq_sat_in(
- start=1462717.5),
- h_liq_sat_out(
- start=762682.9)),
+ h_vap_sat_in(start=2700337.8),
+ h_vap_sat_out(start=2777119.5),
+ h_liq_sat_in(start=1462717.5),
+ h_liq_sat_out(start=762682.9)),
HPsuperheater1(
C_cold_in(
P(start=12000000.0),
@@ -160,8 +153,6 @@ model MetroscopiaCCGT_direct_withStartValues
Q(start=-48.0),
h_outflow(start=3216404.0)),
DP(start=-400000.0),
- DP_f(start=-400000.0),
- DP_z(start=0.0),
P_in(start=12000000.0),
P_out(start=11600000.0),
Q(start=48.0),
@@ -193,30 +184,7 @@ model MetroscopiaCCGT_direct_withStartValues
h_out(start=908245.6),
rho(start=0.43560895),
state_in(T(start=884.8291)),
- state_out(T(start=842.38007))),
- hot_side_pipe(
- C_in(
- P(start=110000.0),
- Q(start=510.5244),
- h_outflow(start=0.0)),
- C_out(
- P(start=110000.0),
- Q(start=-510.5244),
- h_outflow(start=958153.94)),
- DP(start=0.0),
- DP_f(start=0.0),
- DP_z(start=0.0),
- P_in(start=110000.0),
- P_out(start=110000.0),
- Q(start=510.5244),
- T_in(start=884.8291),
- T_out(start=884.8291),
- h(start=958153.94),
- h_in(start=958153.94),
- h_out(start=958153.94),
- rho(start=0.42490312),
- state_in(T(start=884.8291)),
- state_out(T(start=884.8291)))),
+ state_out(T(start=842.38007)))),
HPsuperheater2(
C_cold_in(
P(start=11600000.0),
@@ -276,8 +244,6 @@ model MetroscopiaCCGT_direct_withStartValues
Q(start=-50.0),
h_outflow(start=3529789.0)),
DP(start=-200000.0),
- DP_f(start=-200000.0),
- DP_z(start=0.0),
P_in(start=11600000.0),
P_out(start=11400000.0),
Q(start=50.0),
@@ -309,30 +275,7 @@ model MetroscopiaCCGT_direct_withStartValues
h_out(start=958153.94),
rho(start=0.4167522),
state_in(T(start=920.1309)),
- state_out(T(start=884.8291))),
- hot_side_pipe(
- C_in(
- P(start=110000.0),
- Q(start=510.5244),
- h_outflow(start=0.0)),
- C_out(
- P(start=110000.0),
- Q(start=-510.5244),
- h_outflow(start=1000000.0)),
- DP(start=0.0),
- DP_f(start=0.0),
- DP_z(start=0.0),
- P_in(start=110000.0),
- P_out(start=110000.0),
- Q(start=510.5244),
- T_in(start=920.1309),
- T_out(start=920.1309),
- h(start=1000000.0),
- h_in(start=1000000.0),
- h_out(start=1000000.0),
- rho(start=0.40860128),
- state_in(T(start=920.1309)),
- state_out(T(start=920.1309)))),
+ state_out(T(start=884.8291)))),
LHV_plant(start=48130000.0),
LPST_control_valve(
C_in(
@@ -379,14 +322,10 @@ model MetroscopiaCCGT_direct_withStartValues
state_is(T(start=306.01938), h(start=2258843.2)),
state_out(T(start=306.01807), h(start=2421463.8)),
x_in(start=1.0),
- h_vap_sat_in(
- start=2768302.2),
- h_vap_sat_out(
- start=2560765.0),
- h_liq_sat_in(
- start=721017.9),
- h_liq_sat_out(
- start=137765.12)),
+ h_vap_sat_in(start=2768302.2),
+ h_vap_sat_out(start=2560765.0),
+ h_liq_sat_in(start=721017.9),
+ h_liq_sat_out(start=137765.12)),
P_Cond(start=0.05),
P_Cond_sensor(
C_in(
@@ -814,8 +753,6 @@ model MetroscopiaCCGT_direct_withStartValues
Q(start=-50.0),
h_outflow(start=3160163.2)),
DP(start=-100000.0),
- DP_f(start=-100000.0),
- DP_z(start=0.0),
P_in(start=1000000.0),
P_out(start=900000.0),
Q(start=50.0),
@@ -847,30 +784,7 @@ model MetroscopiaCCGT_direct_withStartValues
h_out(start=888187.2),
rho(start=0.4509584),
state_in(T(start=842.38007)),
- state_out(T(start=825.2085))),
- hot_side_pipe(
- C_in(
- P(start=110000.0),
- Q(start=510.5244),
- h_outflow(start=0.0)),
- C_out(
- P(start=110000.0),
- Q(start=-510.5244),
- h_outflow(start=908245.6)),
- DP(start=0.0),
- DP_f(start=0.0),
- DP_z(start=0.0),
- P_in(start=110000.0),
- P_out(start=110000.0),
- Q(start=510.5244),
- T_in(start=842.38007),
- T_out(start=842.38007),
- h(start=908245.6),
- h_in(start=908245.6),
- h_out(start=908245.6),
- rho(start=0.44631478),
- state_in(T(start=842.38007)),
- state_out(T(start=842.38007)))),
+ state_out(T(start=825.2085)))),
T_circulating_water_in_sensor(
C_in(
P(start=500000.0),
@@ -1261,8 +1175,6 @@ model MetroscopiaCCGT_direct_withStartValues
Q(start=-2730.2144),
h_outflow(start=63375.0)),
DP(start=-7459.403),
- DP_f(start=-7459.403),
- DP_z(start=0.0),
P_in(start=500000.0),
P_out(start=492540.6),
Q(start=2730.2144),
@@ -1349,8 +1261,6 @@ model MetroscopiaCCGT_direct_withStartValues
Q(start=-50.0),
h_outflow(start=137734.06)),
DP(start=9754.728),
- DP_f(start=0.0),
- DP_z(start=9754.728),
P_in(start=5000.0),
P_out(start=14754.728),
Q(start=50.0),
@@ -1443,8 +1353,6 @@ model MetroscopiaCCGT_direct_withStartValues
Q(start=-57.402336),
h_outflow(start=1460173.4)),
DP(start=-4750000.0),
- DP_f(start=-4750000.0),
- DP_z(start=0.0),
P_in(start=17000000.0),
P_out(start=12250000.0),
Q(start=57.402336),
@@ -1476,30 +1384,7 @@ model MetroscopiaCCGT_direct_withStartValues
h_out(start=650319.44),
rho(start=0.51299495),
state_in(T(start=725.2495)),
- state_out(T(start=616.1443))),
- hot_side_pipe(
- C_in(
- P(start=110000.0),
- Q(start=510.5244),
- h_outflow(start=0.0)),
- C_out(
- P(start=100000.0),
- Q(start=-510.5244),
- h_outflow(start=772973.06)),
- DP(start=-10000.0),
- DP_f(start=-10000.0),
- DP_z(start=0.0),
- P_in(start=110000.0),
- P_out(start=100000.0),
- Q(start=510.5244),
- T_in(start=725.2495),
- T_out(start=725.2495),
- h(start=772973.06),
- h_in(start=772973.06),
- h_out(start=772973.06),
- rho(start=0.49483284),
- state_in(T(start=725.2495)),
- state_out(T(start=725.2495)))),
+ state_out(T(start=616.1443)))),
evaporator(
C_cold_in(
P(start=12000000.0),
@@ -1549,29 +1434,6 @@ model MetroscopiaCCGT_direct_withStartValues
rho(start=662.2967),
state_in(T(start=593.15), h(start=1460173.4)),
state_out(T(start=597.8455), h(start=1491327.0))),
- cold_side_pipe(
- C_in(
- P(start=12000000.0),
- Q(start=48.0),
- h_outflow(start=0.0)),
- C_out(
- P(start=12000000.0),
- Q(start=-48.0),
- h_outflow(start=1460173.4)),
- DP(start=0.0),
- DP_f(start=0.0),
- DP_z(start=0.0),
- P_in(start=12000000.0),
- P_out(start=12000000.0),
- Q(start=48.0),
- T_in(start=593.15),
- T_out(start=593.15),
- h(start=1460173.4),
- h_in(start=1460173.4),
- h_out(start=1460173.4),
- rho(start=669.4822),
- state_in(T(start=593.15), h(start=1460173.4)),
- state_out(T(start=593.15), h(start=1460173.4))),
cold_side_vaporising(
C_in(
P(start=12000000.0),
@@ -1616,29 +1478,6 @@ model MetroscopiaCCGT_direct_withStartValues
rho(start=0.51748085),
state_in(T(start=727.82007)),
state_out(T(start=725.2495))),
- hot_side_pipe(
- C_in(
- P(start=110000.0),
- Q(start=510.5244),
- h_outflow(start=0.0)),
- C_out(
- P(start=110000.0),
- Q(start=-510.5244),
- h_outflow(start=888187.2)),
- DP(start=0.0),
- DP_f(start=0.0),
- DP_z(start=0.0),
- P_in(start=110000.0),
- P_out(start=110000.0),
- Q(start=510.5244),
- T_in(start=825.2085),
- T_out(start=825.2085),
- h(start=888187.2),
- h_in(start=888187.2),
- h_out(start=888187.2),
- rho(start=0.45560202),
- state_in(T(start=825.2085)),
- state_out(T(start=825.2085))),
hot_side_vaporising(
C_in(
P(start=110000.0),
diff --git a/MetroscopeModelingLibrary/Examples/CCGT/MetroscopiaCCGT/MetroscopiaCCGT_reverse.mo b/MetroscopeModelingLibrary/Examples/CCGT/MetroscopiaCCGT/MetroscopiaCCGT_reverse.mo
index 380d2cb8..48dc439e 100644
--- a/MetroscopeModelingLibrary/Examples/CCGT/MetroscopiaCCGT/MetroscopiaCCGT_reverse.mo
+++ b/MetroscopeModelingLibrary/Examples/CCGT/MetroscopiaCCGT/MetroscopiaCCGT_reverse.mo
@@ -4,812 +4,911 @@ model MetroscopiaCCGT_reverse
// Boundary conditions
- // Air source
- input Real P_source_air(start=1) "bar";
- input Units.MassFlowRate Q_source_air(start=500) "kg/s";
- input Real T_source_air(start=24) "degC";
- input Real Relative_Humidity(start=0.5);
// Fuel source
- input Real P_fuel_source(start=30) "bar";
- input Real T_fuel_source(start=156) "degC";
input Units.SpecificEnthalpy LHV_plant(start=48130e3) "Directly assigned in combustion chamber modifiers";
- // Circulating water circuit
- input Real P_circulating_water_in(start=5, min=0, nominal=5) "barA";
- input Real T_circulating_water_in(start = 15, min = 0, nominal = 15) "degC";
- // Flue gas sink
- input Real P_flue_gas_sink(start=1, min=0, nominal=1) "barA";
- // Parameters
-
- // Gas Turbine
- parameter Units.SpecificEnthalpy GT_h_out=1e6; // This enthalpy corresponds to T = 640°C at 1.1 bar
- parameter Real combustionChamber_eta = 0.9999;
- parameter Units.FrictionCoefficient combustionChamber_Kfr = 1e-3;
- // Economizer
- parameter String Eco_QCp_max_side = "hot";
- parameter Real T_w_eco_in = 85 "degC"; // Controlled by the economizer recirculation pump flow rate
- // Evaporator
- parameter Real Evap_x_steam_out=1;
- parameter Units.FrictionCoefficient Evap_Kfr_cold=0;
- // High Pressure Superheater
- parameter String HPSH_QCp_max_side = "hot";
- // High Pressure Superheater 2
- parameter Real T_w_HPSH2_out = 566.5 "degC"; // Controlled by the desuperheater mass flow rate
- // Low Pressure Superheater (resuperheater)
- parameter String ReH_QCp_max_side = "hot";
-
- // Observables used for calibration
-
- // Gas Turbine
- input Real P_filter_out(start=0.9) "barA";
- input Real compressor_P_out(start = 17) "barA";
- input Real compressor_T_out(start = 450) "degC";
- input Real W_GT(start = 150) "MW";
- input Real turbine_P_out(start=1.1) "barA";
- // Economizer
- input Real P_w_eco_out(start = 122.5, min= 0, nominal = 122.5) "barA";
- input Real T_w_eco_out(start = 320, min = 0, nominal = 320) "degC";
- // Evaporator
- input Real Evap_opening(start=0.35);
- input Real P_w_evap_out(start = 120, min= 0, nominal = 120) "barA";
- // High Pressure Superheater 1
- input Real P_w_HPSH1_out(start=116, min=0, nominal=116) "barA";
- input Real T_w_HPSH1_out(start=450, min= 200, nominal=450) "degC";
- // High Pressure Superheater 2
- input Real P_w_HPSH2_out(start=114, min=0, nominal=114) "barA";
- // De-superheater
- input Real deSH_opening(start=0.15);
- input Real Q_deSH(start=2) "kg/s";
- // Reheater
- input Real T_w_ReH_out(start = 350, min = 0, nominal = 350) "degC";
- input Real P_w_ReH_out(start=9, min=0, nominal=9) "barA";
- // Steam Turbine
- input Real P_ST_in(start=113) "barA";
- input Real P_ST_out(start=10) "barA";
- input Real W_ST_out(start=65, unit="MW", nominal=65, min=0) "MW";
- input Real T_HPST_out(start=255.5) "degC";
- input Real P_LPST_in(start=8, min=0, nominal=4.9) "bar";
- // Condenser
- input Real P_Cond(start=0.05, min=0, nominal=0.05) "bar";
- input Real T_circulating_water_out(start=25, min=10, nominal=25) "degC";
- // Extraction Pump
- input Real P_pump_out(start=170) "barA";
- input Real T_pump_out(start=35) "degC";
- input Real Q_pump_out(start=50) "kg/s";
- // Recirculation Pump
- input Real P_pumpRec_out(start=180) "barA";
- input Real T_pumpRec_out(start=324) "degC";
- input Real pumpRec_opening(start=0.35);
-
- // Calibrated parameters (input used for calibration in comment)
-
- // Gas Turbine
- output Units.FrictionCoefficient Filter_Kfr; // Filter outlet pressure
- output Real compression_rate; // Air compressor outlet pressure
- output Real compressor_eta_is; // Air compressor outlet temperature
- output Real turbine_eta_is; // Gas turbine power output
- // Economizer
- output Units.HeatExchangeCoefficient Eco_Kth; // Economizer water outlet temperature
- output Units.FrictionCoefficient Eco_Kfr_hot; // Gas turbine outlet pressure
- output Units.FrictionCoefficient Eco_Kfr_cold; // Economizer water outlet pressure
- // Evaporator
- output Units.Cv Evap_CV_Cvmax; // Evaporator control valve opening
- output Units.HeatExchangeCoefficient Evap_Kth; // Extraction pump mass flow rate
- // High Pressure Superheater 1
- output Units.HeatExchangeCoefficient HPSH1_Kth; // HP superheater outlet temperature
- output Units.FrictionCoefficient HPSH1_Kfr_cold; // HP superheater inlet pressure
- // High Pressure Superheater 2
- output Units.HeatExchangeCoefficient HPSH2_Kth; // De-superheater mass flow rate
- output Units.FrictionCoefficient HPSH2_Kfr_cold; // HP superheater inlet pressure
- // De-superheater
- output Units.Cv deSH_CV_Cvmax; // Desuperheater control valve opening
- // Reheater
- output Units.HeatExchangeCoefficient ReH_Kth; // LP superheater outlet temperature
- output Units.FrictionCoefficient ReH_Kfr_cold; // LP superheater inlet pressure
- // High Pressure Steam Turbine
- output Units.Cv HPST_CV_Cv; // HP superheater outlet pressure
- output Units.Cst HPST_Cst; // HP steam turbine inlet pressure
- output Units.Yield HPST_eta_is; // HP steam turbine outlet temperature
- output Units.Yield LPST_eta_is; // Power output
- // Low Pressure Steam Turbine
- output Units.Cv LPST_CV_Cv; // Low pressure superheater outlet pressure
- output Units.Cst LPST_Cst; // LP steam turbine inlet pressure
- // Condenser
- output Units.HeatExchangeCoefficient Cond_Kth; // Condensation pressure
- output Units.VolumeFlowRate Qv_cond_cold; // Circulating water outlet temperature
- // Exctraction Pump
- output Real pump_hn; // Exctraction pump outlet pressure
- output Real pump_rh; // Exctraction pump outlet temperature
- // Recirculation pump
- output Real pumpRec_hn; // Recirculation pump outlet pressure
- output Real pumpRec_rh; // Recirculation pump outlet temperature
- output Units.Cv pumpRec_CV_Cvmax;// Recirculation control valve opening
-
- // Observables of interest
- output Units.PositiveMassFlowRate Q_fuel_source; // Observable: controlled by the gas turbine outlet temperature
- output Real T_flue_gas_sink; // Observable
- output Real Q_pumpRec_out; // Observable: controlled by the economizer input temperature
- output Real turbine_compression_rate; // Observable of interest
-
- MetroscopeModelingLibrary.MultiFluid.HeatExchangers.Economiser economiser(nominal_DT_default=false,
- QCp_max_side=Eco_QCp_max_side)
- annotation (Placement(transformation(extent={{74,-56},{132,3}})));
+ MetroscopeModelingLibrary.MultiFluid.HeatExchangers.Economiser economiser(
+ QCp_max_side="hot")
+ annotation (Placement(transformation(extent={{71,-29.5},{129,29.5}})));
MetroscopeModelingLibrary.FlueGases.BoundaryConditions.Sink flue_gas_sink
annotation (Placement(transformation(
extent={{-10,-10},{10,10}},
rotation=90,
- origin={222,198})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.TemperatureSensor T_w_eco_out_sensor(sensor_function="Calibration", causality="Eco_Kth")
+ origin={222,224})));
+ MetroscopeModelingLibrary.Sensors_Control.WaterSteam.TemperatureSensor T_w_eco_out_sensor(sensor_function="Calibration", causality="Eco_Kth")
annotation (Placement(transformation(
extent={{-6,6},{6,-6}},
rotation=180,
- origin={8,8})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.PressureSensor P_w_eco_out_sensor(sensor_function="Calibration", causality="Eco_Kfr")
+ origin={12,34})));
+ MetroscopeModelingLibrary.Sensors_Control.WaterSteam.PressureSensor P_w_eco_out_sensor(sensor_function="Calibration", causality="Eco_Kfr")
annotation (Placement(transformation(
extent={{-6,6},{6,-6}},
rotation=180,
- origin={56,8})));
+ origin={56,34})));
MetroscopeModelingLibrary.MultiFluid.HeatExchangers.Evaporator evaporator(faulty=false)
- annotation (Placement(transformation(extent={{-46,-56},{12,4.5}})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.PressureSensor P_w_evap_out_sensor(sensor_function="Calibration", causality="SH1_Kfr")
- annotation (Placement(transformation(extent={{-34,2},{-46,14}})));
- MetroscopeModelingLibrary.MultiFluid.HeatExchangers.Superheater HPsuperheater1(nominal_DT_default=false,
- QCp_max_side=HPSH_QCp_max_side)
- annotation (Placement(transformation(extent={{-186,-56},{-126,4}})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.TemperatureSensor T_w_HPSH1_out_sensor(sensor_function="Calibration", causality="SH1_Kth")
+ annotation (Placement(transformation(extent={{-36,-30},{20,30}})));
+ MetroscopeModelingLibrary.Sensors_Control.WaterSteam.PressureSensor P_w_evap_out_sensor(sensor_function="Calibration", causality="SH1_Kfr")
+ annotation (Placement(transformation(extent={{-34,28},{-46,40}})));
+ MetroscopeModelingLibrary.MultiFluid.HeatExchangers.Superheater HPsuperheater1(
+ QCp_max_side="hot")
+ annotation (Placement(transformation(extent={{-186,-30},{-126,30}})));
+ Sensors_Control.WaterSteam.TemperatureSensor T_w_HPSH1_out_sensor(sensor_function="Calibration", causality="SH1_Kth")
annotation (Placement(transformation(
extent={{-6,6},{6,-6}},
rotation=180,
- origin={-184,8})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.PressureSensor P_w_HPSH1_out_sensor(sensor_function="Calibration", causality="SH2_Kfr")
+ origin={-184,34})));
+ Sensors_Control.WaterSteam.PressureSensor P_w_HPSH1_out_sensor(sensor_function="Calibration", causality="SH2_Kfr")
annotation (Placement(transformation(
extent={{-6,6},{6,-6}},
rotation=180,
- origin={-208,8})));
+ origin={-208,34})));
WaterSteam.Pipes.SlideValve HPST_control_valve
- annotation (Placement(transformation(extent={{-203.25,144.738},{-186.75,
- 162.677}})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.PressureSensor P_HPST_in_sensor(sensor_function="Calibration", causality="HPST_Cst")
+ annotation (Placement(transformation(extent={{-223.25,176.738},{-206.75,194.677}})));
+ MetroscopeModelingLibrary.Sensors_Control.WaterSteam.PressureSensor P_HPST_in_sensor(sensor_function="Calibration", causality="HPST_Cst")
annotation (Placement(transformation(
extent={{-6,-6},{6,6}},
rotation=0,
- origin={-174,148})));
- MetroscopeModelingLibrary.WaterSteam.Machines.SteamTurbine HPsteamTurbine annotation (Placement(transformation(extent={{-160,132},{-126,164}})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.PressureSensor P_HPST_out_sensor(sensor_function="Calibration", causality="RHT_Kfr")
- annotation (Placement(transformation(extent={{-114,142},{-102,154}})));
- MetroscopeModelingLibrary.Sensors.Power.PowerSensor W_ST_out_sensor(sensor_function="Calibration", causality="LPST_eta_is")
- annotation (Placement(transformation(extent={{90,250},{102,262}})));
+ origin={-194,180})));
+ MetroscopeModelingLibrary.WaterSteam.Machines.SteamTurbine HPsteamTurbine annotation (Placement(transformation(extent={{-180,164},{-146,196}})));
+ MetroscopeModelingLibrary.Sensors_Control.WaterSteam.PressureSensor P_HPST_out_sensor(sensor_function="Calibration", causality="RHT_Kfr")
+ annotation (Placement(transformation(extent={{-134,174},{-122,186}})));
+ MetroscopeModelingLibrary.Sensors_Control.Power.PowerSensor W_ST_out_sensor(sensor_function="Calibration", causality="LPST_eta_is")
+ annotation (Placement(transformation(extent={{90,314},{102,326}})));
MetroscopeModelingLibrary.WaterSteam.HeatExchangers.Condenser condenser
- annotation (Placement(transformation(extent={{32,144.778},{72,176.778}})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.TemperatureSensor T_circulating_water_out_sensor(sensor_function="Calibration", causality="Cond_Qv")
- annotation (Placement(transformation(extent={{86,171},{96,181}})));
+ annotation (Placement(transformation(extent={{40,185.778},{80,217.778}})));
+ MetroscopeModelingLibrary.Sensors_Control.WaterSteam.TemperatureSensor T_circulating_water_out_sensor(sensor_function="Calibration", causality="Cond_Qv")
+ annotation (Placement(transformation(extent={{105,195},{115,205}})));
MetroscopeModelingLibrary.WaterSteam.BoundaryConditions.Source circulating_water_source
annotation (Placement(transformation(
extent={{-10,-10},{10,10}},
rotation=0,
- origin={-16,159})));
+ origin={-40,200})));
MetroscopeModelingLibrary.WaterSteam.BoundaryConditions.Sink circulating_water_sink
- annotation (Placement(transformation(extent={{98,168},{114,184}})));
+ annotation (Placement(transformation(extent={{122,192},{138,208}})));
WaterSteam.Machines.FixedSpeedPump pump annotation (Placement(
transformation(
extent={{-7,-7},{7,7}},
- origin={116,131},
+ origin={110,160},
rotation=0)));
- MetroscopeModelingLibrary.Sensors.WaterSteam.TemperatureSensor T_pump_out_sensor(sensor_function="Calibration", causality="rh")
+ MetroscopeModelingLibrary.Sensors_Control.WaterSteam.TemperatureSensor T_pump_out_sensor(sensor_function="Calibration", causality="rh")
annotation (Placement(transformation(
extent={{5,5},{-5,-5}},
rotation=180,
- origin={137,131})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.PressureSensor P_pump_out_sensor(sensor_function="Calibration", causality="hn")
- annotation (Placement(transformation(extent={{-5,-5},{5,5}}, origin={155,
- 131})));
+ origin={130,160})));
+ MetroscopeModelingLibrary.Sensors_Control.WaterSteam.PressureSensor P_pump_out_sensor(sensor_function="Calibration", causality="hn")
+ annotation (Placement(transformation(extent={{-5,-5},{5,5}}, origin={150,160})));
MetroscopeModelingLibrary.WaterSteam.Pipes.LoopBreaker loopBreaker
annotation (Placement(transformation(
extent={{-10,-10},{10,10}},
rotation=270,
- origin={182,28})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.FlowSensor Q_pump_out_sensor(sensor_function="Calibration", causality="Evap_Kth")
- annotation (Placement(transformation(extent={{166,126},{176,136}})));
+ origin={180,54})));
+ MetroscopeModelingLibrary.Sensors_Control.WaterSteam.FlowSensor Q_pump_out_sensor(sensor_function="Calibration", causality="Evap_Kth")
+ annotation (Placement(transformation(extent={{165,155},{175,165}})));
MetroscopeModelingLibrary.FlueGases.Machines.AirCompressor airCompressor(h_out(
start=7e5))
- annotation (Placement(transformation(extent={{-524,-40},{-496,-12}})));
+ annotation (Placement(transformation(extent={{-524,-14},{-496,14}})));
MetroscopeModelingLibrary.FlueGases.Machines.GasTurbine gasTurbine(
eta_is(start=0.73),
eta_mech(start=0.9),
h_out(start=0.5e6))
- annotation (Placement(transformation(extent={{-414,-42},{-382,-10}})));
+ annotation (Placement(transformation(extent={{-412,-16},{-380,16}})));
MetroscopeModelingLibrary.Power.BoundaryConditions.Sink sink_power
- annotation (Placement(transformation(extent={{-332,24},{-312,44}})));
+ annotation (Placement(transformation(extent={{-332,90},{-312,110}})));
MetroscopeModelingLibrary.MultiFluid.Machines.CombustionChamber combustionChamber(LHV=LHV_plant)
- annotation (Placement(transformation(extent={{-452,-36},{-432,-16}})));
+ annotation (Placement(transformation(extent={{-450,-10},{-430,10}})));
MetroscopeModelingLibrary.Fuel.BoundaryConditions.Source source_fuel(h_out(
start=0.9e6)) annotation (Placement(transformation(
extent={{-10,-10},{10,10}},
rotation=90,
- origin={-442,-110})));
- MetroscopeModelingLibrary.Sensors.FlueGases.PressureSensor compressor_P_out_sensor(sensor_function="Calibration", causality="compressor_tau")
- annotation (Placement(transformation(extent={{-490,-32},{-478,-20}})));
- MetroscopeModelingLibrary.Sensors.FlueGases.TemperatureSensor compressor_T_out_sensor(sensor_function="Calibration", causality="compressor_eta_is")
- annotation (Placement(transformation(extent={{-472,-32},{-460,-20}})));
- MetroscopeModelingLibrary.Sensors.FlueGases.PressureSensor turbine_P_out_sensor(sensor_function="Calibration", causality="hrsg_kf_hot")
- annotation (Placement(transformation(extent={{-350,-32},{-338,-20}})));
- MetroscopeModelingLibrary.Sensors.Power.PowerSensor W_GT_sensor(sensor_function="Calibration", causality="turbine_eta_is")
- annotation (Placement(transformation(extent={{-346,28},{-334,40}})));
- MetroscopeModelingLibrary.Sensors.FlueGases.TemperatureSensor turbine_T_out_sensor(sensor_function="BC")
- annotation (Placement(transformation(extent={{-370,-32},{-358,-20}})));
- MetroscopeModelingLibrary.MultiFluid.HeatExchangers.Superheater Reheater(nominal_DT_default=false,
- QCp_max_side=ReH_QCp_max_side)
- annotation (Placement(transformation(extent={{-102,-56},{-42,4}})));
- MetroscopeModelingLibrary.WaterSteam.Machines.SteamTurbine LPsteamTurbine annotation (Placement(transformation(extent={{-14,198},{20,230}})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.TemperatureSensor T_w_ReH_out_sensor(sensor_function="Calibration", causality="RHT_Kth")
+ origin={-440,-100})));
+ Sensors_Control.FlueGases.PressureSensor compressor_P_out_sensor(sensor_function="Calibration", causality="compressor_tau")
+ annotation (Placement(transformation(extent={{-490,-6},{-478,6}})));
+ Sensors_Control.FlueGases.TemperatureSensor compressor_T_out_sensor(sensor_function="Calibration", causality="compressor_eta_is",
+ T_0=723.15)
+ annotation (Placement(transformation(extent={{-472,-6},{-460,6}})));
+ Sensors_Control.FlueGases.PressureSensor turbine_P_out_sensor(sensor_function="Calibration", causality="hrsg_kf_hot")
+ annotation (Placement(transformation(extent={{-350,-6},{-338,6}})));
+ MetroscopeModelingLibrary.Sensors_Control.Power.PowerSensor W_GT_sensor(sensor_function="Calibration", causality="turbine_eta_is")
+ annotation (Placement(transformation(extent={{-346,94},{-334,106}})));
+ Sensors_Control.FlueGases.TemperatureSensor turbine_T_out_sensor(sensor_function="BC", T_0=913.15)
+ annotation (Placement(transformation(extent={{-370,-6},{-358,6}})));
+ MetroscopeModelingLibrary.MultiFluid.HeatExchangers.Superheater Reheater(nominal_DT_default=true,
+ QCp_max_side="hot")
+ annotation (Placement(transformation(extent={{-108,-30},{-48,30}})));
+ MetroscopeModelingLibrary.WaterSteam.Machines.SteamTurbine LPsteamTurbine annotation (Placement(transformation(extent={{-14,264},{20,296}})));
+ Sensors_Control.WaterSteam.TemperatureSensor T_w_ReH_out_sensor(sensor_function="Calibration", causality="RHT_Kth")
annotation (Placement(transformation(
extent={{6,6},{-6,-6}},
rotation=270,
- origin={-80,29})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.PressureSensor P_w_ReH_out_sensor(sensor_function="Calibration", causality="LPST_valve_CV")
+ origin={-90,50})));
+ Sensors_Control.WaterSteam.PressureSensor P_w_ReH_out_sensor(sensor_function="Calibration", causality="LPST_valve_CV")
annotation (Placement(transformation(
extent={{-6,-6},{6,6}},
rotation=90,
- origin={-80,49})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.PressureSensor P_Cond_sensor(sensor_function="Calibration", causality="Cond_Kth")
- annotation (Placement(transformation(extent={{28,208},{40,220}})));
- MetroscopeModelingLibrary.Sensors.FlueGases.PressureSensor P_source_air_sensor(sensor_function="BC")
- annotation (Placement(transformation(extent={{-636,-32},{-624,-20}})));
- MetroscopeModelingLibrary.Sensors.FlueGases.TemperatureSensor T_source_air_sensor(sensor_function="BC")
- annotation (Placement(transformation(extent={{-618,-32},{-606,-20}})));
- MetroscopeModelingLibrary.Sensors.FlueGases.FlowSensor Q_source_air_sensor(sensor_function="BC", display_output=true)
- annotation (Placement(transformation(extent={{-600,-32},{-588,-20}})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.TemperatureSensor T_circulating_water_in_sensor(sensor_function="BC")
+ origin={-90,70})));
+ MetroscopeModelingLibrary.Sensors_Control.WaterSteam.PressureSensor P_Cond_sensor(sensor_function="Calibration", causality="Cond_Kth",
+ display_unit="mbar",
+ signal_unit="mbar")
+ annotation (Placement(transformation(extent={{28,274},{40,286}})));
+ Sensors_Control.FlueGases.PressureSensor P_source_air_sensor(sensor_function="BC", P_start=1)
+ annotation (Placement(transformation(extent={{-646,-6},{-634,6}})));
+ Sensors_Control.FlueGases.TemperatureSensor T_source_air_sensor(sensor_function="BC")
+ annotation (Placement(transformation(extent={{-626,-6},{-614,6}})));
+ Sensors_Control.FlueGases.FlowSensor Q_source_air_sensor(sensor_function="BC")
+ annotation (Placement(transformation(extent={{-606,-6},{-594,6}})));
+ MetroscopeModelingLibrary.Sensors_Control.WaterSteam.TemperatureSensor T_circulating_water_in_sensor(sensor_function="BC")
annotation (Placement(transformation(
extent={{5,5},{-5,-5}},
rotation=180,
- origin={3,159})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.PressureSensor P_circulating_water_in_sensor(sensor_function="BC")
- annotation (Placement(transformation(extent={{-5,-5},{5,5}}, origin={19,159})));
+ origin={-20,200})));
+ MetroscopeModelingLibrary.Sensors_Control.WaterSteam.PressureSensor P_circulating_water_in_sensor(sensor_function="BC")
+ annotation (Placement(transformation(extent={{-5,-5},{5,5}}, origin={0,200})));
WaterSteam.Pipes.SlideValve LPST_control_valve
- annotation (Placement(transformation(extent={{-61.25,210.738},{-44.75,
- 228.677}})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.PressureSensor P_LPST_in_sensor(sensor_function="Calibration", causality="LPST_Cst")
+ annotation (Placement(transformation(extent={{-61.25,276.738},{-44.75,294.677}})));
+ MetroscopeModelingLibrary.Sensors_Control.WaterSteam.PressureSensor P_LPST_in_sensor(sensor_function="Calibration", causality="LPST_Cst")
annotation (Placement(transformation(
extent={{-6,-6},{6,6}},
rotation=0,
- origin={-28,214})));
+ origin={-28,280})));
WaterSteam.Machines.FixedSpeedPump pumpRec(Q_0=1)
annotation (Placement(transformation(
extent={{-7,-7},{7,7}},
- origin={94,48.5455},
+ origin={94,80.5455},
rotation=0)));
- MetroscopeModelingLibrary.Sensors.WaterSteam.TemperatureSensor T_pumpRec_out_sensor(sensor_function="Calibration", causality="rh")
+ MetroscopeModelingLibrary.Sensors_Control.WaterSteam.TemperatureSensor T_pumpRec_out_sensor(sensor_function="Calibration", causality="rh")
annotation (Placement(transformation(
extent={{5,5},{-5,-5}},
rotation=180,
- origin={115,48.5455})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.PressureSensor P_pumpRec_out_sensor(sensor_function="Calibration", causality="hn")
- annotation (Placement(transformation(extent={{-5,-5},{5,5}}, origin={131,
- 48.5455})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.FlowSensor Q_pumpRec_out_sensor
- annotation (Placement(transformation(extent={{140,43.5455},{150,53.5455}})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.TemperatureSensor T_w_eco_in_sensor(sensor_function="BC")
+ origin={115,80.5455})));
+ MetroscopeModelingLibrary.Sensors_Control.WaterSteam.PressureSensor P_pumpRec_out_sensor(sensor_function="Calibration", causality="hn")
+ annotation (Placement(transformation(extent={{-5,-5},{5,5}}, origin={131,80.5455})));
+ MetroscopeModelingLibrary.Sensors_Control.WaterSteam.FlowSensor Q_pumpRec_out_sensor
+ annotation (Placement(transformation(extent={{140,75.5455},{150,85.5455}})));
+ MetroscopeModelingLibrary.Sensors_Control.WaterSteam.TemperatureSensor T_w_eco_in_sensor(sensor_function="BC")
annotation (Placement(transformation(
extent={{-5,5},{5,-5}},
rotation=180,
- origin={145,9})));
+ origin={140,34})));
MetroscopeModelingLibrary.WaterSteam.Pipes.ControlValve pumpRec_controlValve
- annotation (Placement(transformation(extent={{157,46},{170,60}})));
- MetroscopeModelingLibrary.Sensors.Outline.OpeningSensor pumpRec_opening_sensor(sensor_function="Calibration", causality="Cvmax")
- annotation (Placement(transformation(extent={{158,68},{168,78}})));
- MetroscopeModelingLibrary.Sensors.FlueGases.PressureSensor P_flue_gas_sink_sensor(sensor_function="BC")
+ annotation (Placement(transformation(extent={{153.5,77.4545},{166.5,91.4545}})));
+ MetroscopeModelingLibrary.Sensors_Control.Outline.OpeningSensor pumpRec_opening_sensor(sensor_function="Calibration", causality="Cvmax",
+ output_signal_unit="")
+ annotation (Placement(transformation(extent={{155,95},{165,105}})));
+ MetroscopeModelingLibrary.Sensors_Control.FlueGases.PressureSensor P_flue_gas_sink_sensor(sensor_function="BC")
annotation (Placement(transformation(
extent={{-6,-6},{6,6}},
rotation=90,
- origin={222,172})));
+ origin={222,198})));
MetroscopeModelingLibrary.Power.BoundaryConditions.Sink sink
- annotation (Placement(transformation(extent={{110,246},{130,266}})));
- MetroscopeModelingLibrary.Sensors.Fuel.PressureSensor P_fuel_source_sensor(sensor_function="BC")
+ annotation (Placement(transformation(extent={{110,310},{130,330}})));
+ Sensors_Control.Fuel.PressureSensor P_fuel_source_sensor(sensor_function="BC")
annotation (Placement(transformation(
extent={{-5,-5},{5,5}},
rotation=90,
- origin={-442,-61})));
- MetroscopeModelingLibrary.Sensors.Fuel.TemperatureSensor T_fuel_source_sensor(sensor_function="BC")
+ origin={-440,-40})));
+ Sensors_Control.Fuel.TemperatureSensor T_fuel_source_sensor(sensor_function="BC")
annotation (Placement(transformation(
extent={{-5,-5},{5,5}},
rotation=90,
- origin={-442,-75})));
- MetroscopeModelingLibrary.Sensors.Fuel.FlowSensor Q_fuel_source_sensor
+ origin={-440,-60})));
+ Sensors_Control.Fuel.FlowSensor Q_fuel_source_sensor(causality="")
annotation (Placement(transformation(
extent={{-5,-5},{5,5}},
rotation=90,
- origin={-442,-47})));
+ origin={-440,-20})));
MetroscopeModelingLibrary.Power.Machines.Generator GT_generator
- annotation (Placement(transformation(extent={{-380,24},{-348,44}})));
+ annotation (Placement(transformation(extent={{-380,90},{-348,110}})));
MetroscopeModelingLibrary.Power.Machines.Generator ST_generator
- annotation (Placement(transformation(extent={{50,246},{82,266}})));
- MetroscopeModelingLibrary.Sensors.FlueGases.TemperatureSensor T_flue_gas_sink_sensor
+ annotation (Placement(transformation(extent={{50,310},{82,330}})));
+ MetroscopeModelingLibrary.Sensors_Control.FlueGases.TemperatureSensor T_flue_gas_sink_sensor
annotation (Placement(transformation(
extent={{-6,-6},{6,6}},
rotation=0,
- origin={170,-26})));
+ origin={170,0})));
MetroscopeModelingLibrary.FlueGases.Pipes.Filter AirFilter
- annotation (Placement(transformation(extent={{-576,-36},{-556,-16}})));
- MetroscopeModelingLibrary.Sensors.FlueGases.PressureSensor P_filter_out_sensor(
- display_unit="mbar", sensor_function="Calibration", causality="filter_Kfr")
- annotation (Placement(transformation(extent={{-548,-32},{-536,-20}})));
- MetroscopeModelingLibrary.MultiFluid.HeatExchangers.Superheater HPsuperheater2(nominal_DT_default=false,
- QCp_max_side=HPSH_QCp_max_side)
- annotation (Placement(transformation(extent={{-302,-56},{-242,4}})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.TemperatureSensor T_w_HPSH2_out_sensor(sensor_function="BC", display_unit="degC")
+ annotation (Placement(transformation(extent={{-576,-10},{-556,10}})));
+ Sensors_Control.FlueGases.PressureSensor P_filter_out_sensor(
+ display_unit="mbar", sensor_function="Calibration", causality="Filter_Kfr",
+ signal_unit="barA")
+ annotation (Placement(transformation(extent={{-546,-6},{-534,6}})));
+ MetroscopeModelingLibrary.MultiFluid.HeatExchangers.Superheater HPsuperheater2(QCp_max_side="hot")
+ annotation (Placement(transformation(extent={{-302,-30},{-242,30}})));
+ Sensors_Control.WaterSteam.TemperatureSensor T_w_HPSH2_out_sensor(sensor_function="BC", display_unit="degC")
annotation (Placement(transformation(
extent={{-6,-6},{6,6}},
rotation=90,
- origin={-282,34})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.PressureSensor P_w_HPSH2_out_sensor(sensor_function="Calibration", causality="HPST_valve_CV")
+ origin={-280,60})));
+ Sensors_Control.WaterSteam.PressureSensor P_w_HPSH2_out_sensor(sensor_function="Calibration", causality="HPST_valve_CV")
annotation (Placement(transformation(
extent={{-6,-6},{6,6}},
rotation=90,
- origin={-282,52})));
+ origin={-280,80})));
MetroscopeModelingLibrary.WaterSteam.Pipes.ControlValve deSH_controlValve
- annotation (Placement(transformation(extent={{-158.75,89.4545},{-171.25,
- 103.455}})));
- MetroscopeModelingLibrary.Sensors.Outline.OpeningSensor deSH_opening_sensor(sensor_function="Calibration", causality="Cvmax")
- annotation (Placement(transformation(extent={{-170,114},{-160,124}})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.FlowSensor Q_deSH_sensor(sensor_function="Calibration", causality="SH2_Kth")
- annotation (Placement(transformation(extent={{-132,86},{-144,98}})));
+ annotation (Placement(transformation(extent={{-173.75,117.454},{-186.25,131.455}})));
+ MetroscopeModelingLibrary.Sensors_Control.Outline.OpeningSensor deSH_opening_sensor(sensor_function="Calibration", causality="Cvmax",
+ output_signal_unit="")
+ annotation (Placement(transformation(extent={{-185,139},{-175,149}})));
+ MetroscopeModelingLibrary.Sensors_Control.WaterSteam.FlowSensor Q_deSH_sensor(sensor_function="Calibration", causality="SH2_Kth")
+ annotation (Placement(transformation(extent={{-132,114},{-144,126}})));
MetroscopeModelingLibrary.WaterSteam.Pipes.ControlValve Evap_controlValve
- annotation (Placement(transformation(extent={{41.25,5.4545},{28.75,19.455}})));
- MetroscopeModelingLibrary.Sensors.Outline.OpeningSensor Evap_opening_sensor(sensor_function="Calibration", causality="Cvmax")
- annotation (Placement(transformation(extent={{30,34},{40,44}})));
- MetroscopeModelingLibrary.MultiFluid.Converters.MoistAir_to_FlueGases moistAir_to_FlueGases annotation (Placement(transformation(extent={{-672,-36},{-652,-16}})));
- MetroscopeModelingLibrary.MoistAir.BoundaryConditions.Source source_air(h_out(start=47645.766)) annotation (Placement(transformation(extent={{-734,-36},{-714,-16}})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.TemperatureSensor T_HPST_out_sensor(sensor_function="Calibration", causality="HPST_eta_is")
+ annotation (Placement(transformation(extent={{36.25,31.4545},{23.75,45.455}})));
+ MetroscopeModelingLibrary.Sensors_Control.Outline.OpeningSensor Evap_opening_sensor(sensor_function="Calibration", causality="Cvmax",
+ output_signal_unit="")
+ annotation (Placement(transformation(extent={{25,53},{35,63}})));
+ MetroscopeModelingLibrary.MultiFluid.Converters.MoistAir_to_FlueGases moistAir_to_FlueGases annotation (Placement(transformation(extent={{-682,-10},{-662,10}})));
+ MetroscopeModelingLibrary.MoistAir.BoundaryConditions.Source source_air(h_out(start=47645.766)) annotation (Placement(transformation(extent={{-744,-10},{-724,10}})));
+ MetroscopeModelingLibrary.Sensors_Control.WaterSteam.TemperatureSensor T_HPST_out_sensor(sensor_function="Calibration", causality="HPST_eta_is")
annotation (Placement(transformation(
extent={{6,6},{-6,-6}},
rotation=180,
- origin={-90,148})));
- Sensors.Displayer.WaterDisplayer displayer annotation (Placement(transformation(extent={{-248,138},{-228,158}})));
+ origin={-110,180})));
+ Sensors.Displayer.WaterDisplayer displayer annotation (Placement(transformation(extent={{-248,170},{-228,190}})));
Sensors.Displayer.FuelDisplayer fuelDisplayer annotation (Placement(transformation(
extent={{-10,-10},{10,10}},
rotation=90,
- origin={-442,-92})));
- Sensors.Displayer.MoistAirDisplayer moistAirDisplayer annotation (Placement(transformation(extent={{-700,-36},{-680,-16}})));
- Sensors.Displayer.FlueGasesDisplayer flueGasesDisplayer annotation (Placement(transformation(extent={{-654,-36},{-634,-16}})));
- Sensors.MoistAir.RelativeHumiditySensor H_sensor(sensor_function="BC") annotation (Placement(transformation(extent={{-712,-32},{-700,-20}})));
+ origin={-440,-80})));
+ Sensors.Displayer.MoistAirDisplayer moistAirDisplayer annotation (Placement(transformation(extent={{-710,-10},{-690,10}})));
+ Sensors.Displayer.FlueGasesDisplayer flueGasesDisplayer annotation (Placement(transformation(extent={{-664,-10},{-644,10}})));
+ Sensors_Control.MoistAir.RelativeHumiditySensor Relative_Humidity_sensor(sensor_function="BC") annotation (Placement(transformation(extent={{-722,-6},{-710,6}})));
+ Utilities.Interfaces.RealInput Relative_Humidity(start=0.5)
+ annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={-716,14}), iconTransformation(extent={{-754,-34},{-714,6}})));
+ Utilities.Interfaces.RealInput P_source_air(start=1) annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={-640,14}),iconTransformation(extent={{-754,-34},{-714,6}})));
+ Utilities.Interfaces.RealInput T_source_air(start=24) annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={-620,14}), iconTransformation(extent={{-754,-34},{-714,6}})));
+ Utilities.Interfaces.RealInput Q_source_air(start=500) annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={-600,14}),iconTransformation(extent={{-754,-34},{-714,6}})));
+ Utilities.Interfaces.RealInput P_filter_out(start=0.9) annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={-540,20}),iconTransformation(extent={{-754,-34},{-714,6}})));
+ Utilities.Interfaces.RealInput compressor_P_out(start=17) annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=-90,
+ origin={-484,14}),iconTransformation(extent={{-754,-34},{-714,6}})));
+ Utilities.Interfaces.RealOutput Filter_Kfr "P_filter_out"
+ annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={-566,14}),iconTransformation(extent={{-628,-4},{-608,16}})));
+ Utilities.Interfaces.RealOutput compression_rate annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={-522,22}),iconTransformation(extent={{-628,-4},{-608,16}})));
+ Utilities.Interfaces.RealOutput compressor_eta_is annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={-520,28}),iconTransformation(extent={{-628,-4},{-608,16}})));
+ Utilities.Interfaces.RealInput compressor_T_out(start=450) annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={-466,14}),iconTransformation(extent={{-754,-34},{-714,6}})));
+ Utilities.Interfaces.RealOutput Q_fuel_source annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=0,
+ origin={-450,-20}), iconTransformation(extent={{-754,-34},{-714,6}})));
+ Utilities.Interfaces.RealInput P_fuel_source(start=30) annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=0,
+ origin={-450,-40}), iconTransformation(extent={{-754,-34},{-714,6}})));
+ Utilities.Interfaces.RealInput T_fuel_source(start=156) annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=0,
+ origin={-450,-60}), iconTransformation(extent={{-754,-34},{-714,6}})));
+ Utilities.Interfaces.RealOutput turbine_eta_is annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={-412,20}), iconTransformation(extent={{-454,4},{-434,24}})));
+ Utilities.Interfaces.RealInput turbine_T_out(
+ start=640) annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={-364,12}), iconTransformation(extent={{-754,-34},{-714,6}})));
+ Utilities.Interfaces.RealInput turbine_P_out(start=1.1) annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={-344,12}), iconTransformation(extent={{-754,-34},{-714,6}})));
+ Utilities.Interfaces.RealOutput economizer_Kfr_cold(nominal=1e-3)
+ annotation (Placement(transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=90,
+ origin={114,-30}), iconTransformation(extent={{-62,-16},{-42,4}})));
+ Utilities.Interfaces.RealOutput economizer_Kth(start=1e3, nominal=1e3)
+ annotation (Placement(transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=90,
+ origin={86,-30}), iconTransformation(extent={{-62,-16},{-42,4}})));
+ FlueGases.Pipes.FrictionPipe HRSG_friction annotation (Placement(transformation(extent={{30,10},{50,-10}})));
+ Utilities.Interfaces.RealOutput HRSG_friction_Kfr(start=0.022388678) annotation (Placement(transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=90,
+ origin={40,-10}), iconTransformation(extent={{-36,-16},{4,24}})));
+ Utilities.Interfaces.RealOutput Reheater_Kth(start=1e3, nominal=1e3) annotation (Placement(transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=90,
+ origin={-92,-30}), iconTransformation(extent={{-62,-16},{-42,4}})));
+ Utilities.Interfaces.RealOutput Reheater_Kfr_cold(nominal=1e-3) annotation (Placement(transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=90,
+ origin={-62,-30}), iconTransformation(extent={{-62,-16},{-42,4}})));
+ Utilities.Interfaces.RealOutput HPsuperheater1_Kfr_cold(nominal=1e-3) annotation (Placement(transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=90,
+ origin={-140,-30}), iconTransformation(extent={{-62,-16},{-42,4}})));
+ Utilities.Interfaces.RealOutput HPsuperheater1_Kth(start=1e3, nominal=1e3) annotation (Placement(transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=90,
+ origin={-170,-30}), iconTransformation(extent={{-62,-16},{-42,4}})));
+ Utilities.Interfaces.RealOutput HPsuperheater2_Kfr_cold(nominal=1e-3) annotation (Placement(transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=90,
+ origin={-256,-30}), iconTransformation(extent={{-62,-16},{-42,4}})));
+ Utilities.Interfaces.RealOutput HPsuperheater2_Kth(start=1e3, nominal=1e3) annotation (Placement(transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=90,
+ origin={-286,-30}), iconTransformation(extent={{-62,-16},{-42,4}})));
+ Utilities.Interfaces.RealInput P_w_HPSH1_out(start=116) annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={-208,44}), iconTransformation(extent={{-754,-34},{-714,6}})));
+ Utilities.Interfaces.RealInput T_w_HPSH1_out(start=450) annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={-184,44}), iconTransformation(extent={{-754,-34},{-714,6}})));
+ Utilities.Interfaces.RealInput P_w_HPSH1_out1(start=9) annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=0,
+ origin={-100,70}), iconTransformation(extent={{-754,-34},{-714,6}})));
+ Utilities.Interfaces.RealInput T_w_HPSH1_out1(start=350)
+ annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=0,
+ origin={-100,50}), iconTransformation(extent={{-754,-34},{-714,6}})));
+ Utilities.Interfaces.RealInput P_w_HPSH2_out(start=114) annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=0,
+ origin={-290,80}), iconTransformation(extent={{-754,-34},{-714,6}})));
+ Utilities.Interfaces.RealInput T_w_HPSH2_out(start=566.5) annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=0,
+ origin={-290,60}), iconTransformation(extent={{-754,-34},{-714,6}})));
+ Utilities.Interfaces.RealInput P_w_evap_out(start=120) annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={-40,44}), iconTransformation(extent={{-754,-34},{-714,6}})));
+ Utilities.Interfaces.RealInput T_w_eco_out(start=320) annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={12,44}),iconTransformation(extent={{-754,-34},{-714,6}})));
+ Utilities.Interfaces.RealInput P_w_eco_out(start=122.5) annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={56,44}), iconTransformation(extent={{-754,-34},{-714,6}})));
+ Utilities.Interfaces.RealInput T_w_eco_in(start=85) annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={140,44}), iconTransformation(extent={{-754,-34},{-714,6}})));
+ Utilities.Interfaces.RealInput T_pumpRec_out(start=324) annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={114,92}), iconTransformation(extent={{-754,-34},{-714,6}})));
+ Utilities.Interfaces.RealInput P_pumpRec_out(start=180) annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={130,92}), iconTransformation(extent={{-754,-34},{-714,6}})));
+ Utilities.Interfaces.RealInput P_flue_gas_sink(start=1) annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=0,
+ origin={210,198}), iconTransformation(extent={{-754,-34},{-714,6}})));
+ Utilities.Interfaces.RealInput W_GT(start=150) annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={-340,112}), iconTransformation(extent={{-754,-34},{-714,6}})));
+ Utilities.Interfaces.RealInput P_pump_out(start=170) annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={150,170}), iconTransformation(extent={{-754,-34},{-714,6}})));
+ Utilities.Interfaces.RealInput T_pump_out(start=35) annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={130,170}), iconTransformation(extent={{-754,-34},{-714,6}})));
+ Utilities.Interfaces.RealInput Q_pump_out(start=50) annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={170,170}), iconTransformation(extent={{-754,-34},{-714,6}})));
+ Utilities.Interfaces.RealInput T_circulating_water_out(start=25) annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={110,210}),iconTransformation(extent={{-754,-34},{-714,6}})));
+ Utilities.Interfaces.RealInput T_circulating_water_in(start=15) annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={-20,210}),
+ iconTransformation(extent={{-754,-34},{-714,6}})));
+ Utilities.Interfaces.RealInput P_circulating_water_in(start=5) annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={0,210}), iconTransformation(extent={{-754,-34},{-714,6}})));
+ Utilities.Interfaces.RealInput P_Cond(start=50) annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={34,292}), iconTransformation(extent={{-754,-34},{-714,6}})));
+ Utilities.Interfaces.RealInput P_LPST_in(start=8) annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={-28,292}), iconTransformation(extent={{-754,-34},{-714,6}})));
+ Utilities.Interfaces.RealInput P_HPST_out(start=10) annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={-128,190}), iconTransformation(extent={{-754,-34},{-714,6}})));
+ Utilities.Interfaces.RealInput T_HPST_out(start=255.5) annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={-110,190}), iconTransformation(extent={{-754,-34},{-714,6}})));
+ Utilities.Interfaces.RealInput Q_deSH(start=2) annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={-138,132}), iconTransformation(extent={{-754,-34},{-714,6}})));
+ Utilities.Interfaces.RealOutput pumpRec_hn annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={89,107}), iconTransformation(extent={{46,68},{66,88}})));
+ Utilities.Interfaces.RealOutput pumpRec_rh annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={81,97}), iconTransformation(extent={{46,68},{66,88}})));
+ Utilities.Interfaces.RealOutput pump_hn annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={104,180}), iconTransformation(extent={{46,68},{66,88}})));
+ Utilities.Interfaces.RealOutput pump_rh annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={96,170}), iconTransformation(extent={{46,68},{66,88}})));
+ Utilities.Interfaces.RealOutput LPsteamTurbine_Cst annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={-13,301}), iconTransformation(extent={{46,68},{66,88}})));
+ Utilities.Interfaces.RealOutput LPsteamTurbine_eta_is annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={-9,309}), iconTransformation(extent={{46,68},{66,88}})));
+ Utilities.Interfaces.RealOutput HPsteamTurbine_Cst annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={-179,201}), iconTransformation(extent={{46,68},{66,88}})));
+ Utilities.Interfaces.RealOutput HPsteamTurbine_eta_is annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={-175,209}), iconTransformation(extent={{46,68},{66,88}})));
+ Utilities.Interfaces.RealOutput LPST_control_valve_Cv annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=0,
+ origin={-67,289}), iconTransformation(extent={{46,68},{66,88}})));
+ Utilities.Interfaces.RealOutput HPST_control_valve_Cv annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=0,
+ origin={-227,189}), iconTransformation(extent={{46,68},{66,88}})));
+ Utilities.Interfaces.RealOutput T_flue_gas_sink(start=1) annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={170,10}), iconTransformation(extent={{-754,-34},{-714,6}})));
+ Utilities.Interfaces.RealInput W_ST_out(start=65) annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={96,332}), iconTransformation(extent={{-754,-34},{-714,6}})));
+ Utilities.Interfaces.RealInput P_HPST_in(start=113) annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={-194,192}), iconTransformation(extent={{-754,-34},{-714,6}})));
+ Utilities.Interfaces.RealInput deSH_opening(start=0.15)
+ annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={-180,154}), iconTransformation(extent={{-754,-34},{-714,6}})));
+ Utilities.Interfaces.RealInput Evap_opening(start=0.35) annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={30,68}), iconTransformation(extent={{-754,-34},{-714,6}})));
+ Utilities.Interfaces.RealInput pumpRec_opening(start=0.35) annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=270,
+ origin={160,110}), iconTransformation(extent={{-754,-34},{-714,6}})));
+ Utilities.Interfaces.RealOutput deSH_controlValve_Cv_max annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=180,
+ origin={-167,127}), iconTransformation(extent={{46,68},{66,88}})));
+ Utilities.Interfaces.RealOutput Evap_controlValve_Cv_max annotation (Placement(transformation(
+ extent={{-3,-3},{3,3}},
+ rotation=180,
+ origin={39,41}), iconTransformation(extent={{46,68},{66,88}})));
+ Utilities.Interfaces.RealOutput pumpRec_controlValve_Cv_max annotation (Placement(transformation(
+ extent={{3,-3},{-3,3}},
+ rotation=180,
+ origin={147,105}), iconTransformation(extent={{46,68},{66,88}})));
+ Utilities.Interfaces.RealOutput Q_pumpRec_out annotation (Placement(transformation(
+ extent={{3,-3},{-3,3}},
+ rotation=90,
+ origin={145,93}), iconTransformation(extent={{46,68},{66,88}})));
+ Utilities.Interfaces.RealOutput condenser_Kth annotation (Placement(transformation(
+ extent={{3,-3},{-3,3}},
+ rotation=90,
+ origin={40,230}), iconTransformation(extent={{46,68},{66,88}})));
+ Utilities.Interfaces.RealOutput condenser_Qv_cold_in annotation (Placement(transformation(
+ extent={{3,-3},{-3,3}},
+ rotation=90,
+ origin={20,230}), iconTransformation(extent={{46,68},{66,88}})));
+ Modelica.Blocks.Sources.RealExpression condenser_Kfr_cold(y=0) annotation (Placement(transformation(
+ extent={{-3,-8},{3,8}},
+ rotation=270,
+ origin={32,225})));
+ Modelica.Blocks.Sources.RealExpression combustionChamber_eta(y=0.9999) annotation (Placement(transformation(
+ extent={{-4,-8},{4,8}},
+ rotation=270,
+ origin={-448,24})));
+ Modelica.Blocks.Sources.RealExpression combustionChamber_Kfr(y=1e-3)
+ annotation (Placement(transformation(
+ extent={{-4,-8},{4,8}},
+ rotation=270,
+ origin={-432,24})));
+ Utilities.Interfaces.RealOutput Evap_Kth(nominal=1e-3) annotation (Placement(transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=90,
+ origin={-8,-30}), iconTransformation(extent={{-62,-16},{-42,4}})));
equation
//--- Air / Flue Gas System ---
-
- // Air source
- // Quantities definition
- P_source_air_sensor.P_barA = P_source_air;
- T_source_air_sensor.T_degC = T_source_air;
- Q_source_air_sensor.Q = Q_source_air + 10*time;
- H_sensor.relative_humidity=Relative_Humidity;
-
// Fuel Source
// Quantities definition
- Q_fuel_source_sensor.Q = Q_fuel_source;
- P_fuel_source_sensor.P_barA = P_fuel_source;
- T_fuel_source_sensor.T_degC = T_fuel_source;
source_fuel.Xi_out = {0.90,0.05,0,0,0.025,0.025};
- // Air Filter
- // Quantities definition
- P_filter_out_sensor.P_barA = P_filter_out;
- // Calibrated parameters
- AirFilter.Kfr = Filter_Kfr;
- // Parameters
- AirFilter.delta_z = 1;
-
- // Air Compressor
- // Quantities definition
- compressor_T_out_sensor.T_degC = compressor_T_out;
- compressor_P_out_sensor.P_barA = compressor_P_out;
- // Calibrated parameters
- airCompressor.tau = compression_rate;
- airCompressor.eta_is = compressor_eta_is;
-
- // Combustion chamber
- // Parameters
- combustionChamber.Kfr = combustionChamber_Kfr;
- combustionChamber.eta = combustionChamber_eta;
-
- // Gas Turbine
- // Quantities definition
- gasTurbine.h_out = GT_h_out;
- turbine_P_out_sensor.P_barA = turbine_P_out;
- // Calibrated parameters
- gasTurbine.tau = turbine_compression_rate;
- gasTurbine.eta_is = turbine_eta_is;
- // Parameters
- gasTurbine.eta_mech = 0.99;
-
- // Generator
- // Quantities definition
- W_GT_sensor.W_MW = W_GT;
- // Parameters
- GT_generator.eta = 0.99;
-
- // Flue Gas sink
- //Quantities definition
- P_flue_gas_sink_sensor.P_barA = P_flue_gas_sink;
- T_flue_gas_sink_sensor.T_degC = T_flue_gas_sink;
-
- // --- Water / Steam Circuit
-
- // Economizer
- // Quantities definition
- T_w_eco_out_sensor.T_degC = T_w_eco_out;
- P_w_eco_out_sensor.P_barA = P_w_eco_out;
- // Parameters
- economiser.S = 100;
- economiser.nominal_cold_side_temperature_rise = 235;
- economiser.nominal_hot_side_temperature_drop = 150;
- T_w_eco_in_sensor.T_degC = T_w_eco_in;
- // Calibrated parameters
- economiser.Kth = Eco_Kth;
- economiser.Kfr_hot = Eco_Kfr_hot;
- economiser.Kfr_cold = Eco_Kfr_cold;
-
- // Evaporator
- // Quantities definition
- P_w_evap_out_sensor.P_barA = P_w_evap_out;
- evaporator.x_steam_out = Evap_x_steam_out;
- Evap_opening_sensor.Opening = Evap_opening;
- // Parameters
- evaporator.S = 100;
- evaporator.Kfr_hot = 0;
- // Calibrated parameters
- Evap_controlValve.Cv_max = Evap_CV_Cvmax;
- evaporator.Kth = Evap_Kth;
- evaporator.Kfr_cold = Evap_Kfr_cold;
-
- // HP Superheater 1
- // Quantities definition
- P_w_HPSH1_out_sensor.P_barA = P_w_HPSH1_out;
- T_w_HPSH1_out_sensor.T_degC = T_w_HPSH1_out;
- // Parameters
- HPsuperheater1.S = 100;
- HPsuperheater1.nominal_cold_side_temperature_rise = 250;
- HPsuperheater1.nominal_hot_side_temperature_drop = 180;
- HPsuperheater1.Kfr_hot = 0;
- // Calibrated parameters
- HPsuperheater1.Kth = HPSH1_Kth;
- HPsuperheater1.Kfr_cold = HPSH1_Kfr_cold;
-
- // HP Superheater 2
- // Quantities definition
- P_w_HPSH2_out_sensor.P_barA = P_w_HPSH2_out;
- // Parameters
- HPsuperheater2.S = 100;
- HPsuperheater2.nominal_cold_side_temperature_rise = 150;
- HPsuperheater2.nominal_hot_side_temperature_drop = 180;
- HPsuperheater2.Kfr_hot = 0;
- T_w_HPSH2_out_sensor.T_degC = T_w_HPSH2_out;
- // Calibrated parameters
- HPsuperheater2.Kth = HPSH2_Kth;
- HPsuperheater2.Kfr_cold = HPSH2_Kfr_cold;
-
- // De-superheater
- // Quantities definition
- deSH_opening_sensor.Opening = deSH_opening;
- Q_deSH_sensor.Q = Q_deSH;
- // Calibrated parameters
- deSH_controlValve.Cv_max = deSH_CV_Cvmax;
-
- // Reheater
- // Quantities definition
- T_w_ReH_out_sensor.T_degC = T_w_ReH_out;
- P_w_ReH_out_sensor.P_barA = P_w_ReH_out;
- // Parameters
- Reheater.S = 100;
- Reheater.nominal_cold_side_temperature_rise = 100;
- Reheater.nominal_hot_side_temperature_drop = 180;
- Reheater.Kfr_hot = 0;
- // Calibrated parameters
- Reheater.Kth = ReH_Kth;
- Reheater.Kfr_cold = ReH_Kfr_cold;
-
- // Steam Turbines
-
- // Steam Turbine Generator
- // Quantities definition
- W_ST_out_sensor.W_MW = W_ST_out;
- // Parameters
- ST_generator.eta = 0.99;
-
- // High Pressure Level
- // Quantities definition
- P_HPST_in_sensor.P_barA = P_ST_in;
- P_HPST_out_sensor.P_barA = P_ST_out;
- T_HPST_out_sensor.T_degC = T_HPST_out;
- // Calibrated Parameters
- HPST_control_valve.Cv = HPST_CV_Cv;
- HPsteamTurbine.Cst = HPST_Cst;
- HPsteamTurbine.eta_is = HPST_eta_is;
-
- // Low Pressure Level
- // Quantities definition
- P_LPST_in_sensor.P_barA = P_LPST_in;
- // Calibrated Parameters
- LPsteamTurbine.eta_is = LPST_eta_is;
- LPST_control_valve.Cv = LPST_CV_Cv;
- LPsteamTurbine.Cst = LPST_Cst;
// Condenser
- // Quantities definition
- P_circulating_water_in_sensor.P_barA = P_circulating_water_in;
- T_circulating_water_in_sensor.T_degC = T_circulating_water_in;
- T_circulating_water_out_sensor.T_degC = T_circulating_water_out;
- P_Cond_sensor.P_barA = P_Cond;
// Parameters
- condenser.S = 100;
- condenser.water_height = 1;
condenser.C_incond = 0;
- condenser.P_offset = 0;
- condenser.Kfr_cold = 1;
- // Calibrated parameters
- condenser.Kth = Cond_Kth;
- condenser.Qv_cold_in = Qv_cond_cold;
-
- // Exctraction Pump
- // Quantities definition
- T_pump_out_sensor.T_degC = T_pump_out;
- P_pump_out_sensor.P_barA = P_pump_out;
- Q_pump_out_sensor.Q = Q_pump_out;
-
- // Calibrated parameters
- pump.hn = pump_hn;
- pump.rh = pump_rh;
-
- //--- Recirculation pump ---
- // Quantities definition
- T_pumpRec_out_sensor.T_degC = T_pumpRec_out;
- P_pumpRec_out_sensor.P_barA = P_pumpRec_out;
- pumpRec_opening_sensor.Opening = pumpRec_opening;
- Q_pumpRec_out_sensor.Q = Q_pumpRec_out;
-
- // Calibrated parameters
- pumpRec.hn = pumpRec_hn;
- pumpRec.rh = pumpRec_rh;
- pumpRec_controlValve.Cv_max = pumpRec_CV_Cvmax;
connect(HPsuperheater1.C_cold_out, T_w_HPSH1_out_sensor.C_in) annotation (
- Line(points={{-168,-2},{-166,-2},{-166,8},{-178,8}}, color={28,108,200}));
+ Line(points={{-168,24},{-166,24},{-166,34},{-178,34}},
+ color={28,108,200}));
connect(P_HPST_out_sensor.C_in, HPsteamTurbine.C_out)
- annotation (Line(points={{-114,148},{-126,148}}, color={28,108,200}));
+ annotation (Line(points={{-134,180},{-146,180}}, color={28,108,200}));
connect(P_HPST_in_sensor.C_out, HPsteamTurbine.C_in)
- annotation (Line(points={{-168,148},{-160,148}}, color={28,108,200}));
+ annotation (Line(points={{-188,180},{-180,180}}, color={28,108,200}));
connect(T_circulating_water_out_sensor.C_out, circulating_water_sink.C_in)
- annotation (Line(points={{96,176},{102,176}},color={28,108,200}));
- connect(combustionChamber.outlet,gasTurbine. C_in) annotation (Line(points={{-432,
- -26},{-414,-26}}, color={95,95,95}));
- connect(airCompressor.C_out,compressor_P_out_sensor. C_in) annotation (Line(points={{-496,
- -26},{-490,-26}}, color={95,95,95}));
- connect(compressor_P_out_sensor.C_out,compressor_T_out_sensor. C_in) annotation (Line(points={{-478,
- -26},{-472,-26}}, color={95,95,95}));
- connect(compressor_T_out_sensor.C_out,combustionChamber. inlet) annotation (Line(points={{-460,
- -26},{-452,-26}}, color={95,95,95}));
+ annotation (Line(points={{115,200},{126,200}},
+ color={28,108,200}));
+ connect(combustionChamber.outlet,gasTurbine. C_in) annotation (Line(points={{-430,0},{-412,0}},
+ color={95,95,95}));
+ connect(airCompressor.C_out,compressor_P_out_sensor. C_in) annotation (Line(points={{-496,0},{-490,0}},
+ color={95,95,95}));
+ connect(compressor_P_out_sensor.C_out,compressor_T_out_sensor. C_in) annotation (Line(points={{-478,0},{-472,0}},
+ color={95,95,95}));
+ connect(compressor_T_out_sensor.C_out,combustionChamber. inlet) annotation (Line(points={{-460,0},{-450,0}},
+ color={95,95,95}));
connect(evaporator.C_cold_in, T_w_eco_out_sensor.C_out) annotation (Line(
- points={{-5.4,-1.55},{-5.4,8},{2,8}}, color={28,108,200}));
+ points={{3.2,24},{3.2,34},{6,34}}, color={28,108,200}));
connect(condenser.C_cold_out, T_circulating_water_out_sensor.C_in)
- annotation (Line(points={{71.6,159},{74,159},{74,158},{78,158},{78,176},{86,176}},
+ annotation (Line(points={{79.6,200},{92,200},{92,200},{105,200}},
color={28,108,200}));
- connect(condenser.C_hot_out, pump.C_in) annotation (Line(points={{52,144.778},{52,131},{109,131}},
+ connect(condenser.C_hot_out, pump.C_in) annotation (Line(points={{60,185.778},{60,160},{103,160}},
color={28,108,200}));
connect(HPsuperheater1.C_cold_in, P_w_evap_out_sensor.C_out) annotation (Line(
- points={{-144,-2},{-144,8},{-46,8}}, color={28,108,200}));
+ points={{-144,24},{-144,34},{-46,34}},color={28,108,200}));
connect(evaporator.C_cold_out, P_w_evap_out_sensor.C_in) annotation (Line(
- points={{-28.6,-1.55},{-24,-1.55},{-24,8},{-34,8}},
- color={28,108,200}));
+ points={{-19.2,24},{-20,24},{-20,34},{-34,34}}, color={28,108,200}));
connect(economiser.C_cold_out, P_w_eco_out_sensor.C_in) annotation (Line(
- points={{91.4,-2.9},{94,-2.9},{94,8},{62,8}},
+ points={{88.4,23.6},{88,23.6},{88,34},{62,34}},
color={28,108,200}));
- connect(evaporator.C_hot_out, economiser.C_hot_in) annotation (Line(points={{12,-25.75},{51,-25.75},{51,-26.5},{74,-26.5}},
- color={95,95,95}));
connect(gasTurbine.C_out, turbine_T_out_sensor.C_in)
- annotation (Line(points={{-382,-26},{-370,-26}}, color={95,95,95}));
+ annotation (Line(points={{-380,0},{-370,0}}, color={95,95,95}));
connect(turbine_P_out_sensor.C_in, turbine_T_out_sensor.C_out)
- annotation (Line(points={{-350,-26},{-358,-26}}, color={95,95,95}));
- connect(evaporator.C_hot_in, Reheater.C_hot_out) annotation (Line(points={{-46,-25.75},{-46,-26},{-42,-26}},
+ annotation (Line(points={{-350,0},{-358,0}}, color={95,95,95}));
+ connect(evaporator.C_hot_in, Reheater.C_hot_out) annotation (Line(points={{-36,0},{-48,0}},
color={95,95,95}));
connect(HPsuperheater1.C_hot_out, Reheater.C_hot_in)
- annotation (Line(points={{-126,-26},{-102,-26}},color={95,95,95}));
+ annotation (Line(points={{-126,0},{-108,0}}, color={95,95,95}));
connect(Reheater.C_cold_out, T_w_ReH_out_sensor.C_in)
- annotation (Line(points={{-84,-2},{-80,-2},{-80,23}}, color={28,108,200}));
+ annotation (Line(points={{-90,24},{-90,44}}, color={28,108,200}));
connect(P_Cond_sensor.C_in, LPsteamTurbine.C_out)
- annotation (Line(points={{28,214},{20,214}}, color={28,108,200}));
- connect(P_Cond_sensor.C_out, condenser.C_hot_in) annotation (Line(points={{40,214},{52,214},{52,177.134}},
+ annotation (Line(points={{28,280},{20,280}}, color={28,108,200}));
+ connect(P_Cond_sensor.C_out, condenser.C_hot_in) annotation (Line(points={{40,280},{60,280},{60,218.134}},
color={28,108,200}));
connect(P_source_air_sensor.C_out, T_source_air_sensor.C_in)
- annotation (Line(points={{-624,-26},{-618,-26}}, color={95,95,95}));
+ annotation (Line(points={{-634,0},{-626,0}}, color={95,95,95}));
connect(T_source_air_sensor.C_out, Q_source_air_sensor.C_in)
- annotation (Line(points={{-606,-26},{-600,-26}}, color={95,95,95}));
+ annotation (Line(points={{-614,0},{-606,0}}, color={95,95,95}));
connect(condenser.C_cold_in, P_circulating_water_in_sensor.C_out) annotation (
- Line(points={{32,159},{30,159},{30,159},{24,159}}, color={28,
+ Line(points={{40,200},{22,200},{22,200},{5,200}}, color={28,
108,200}));
connect(P_LPST_in_sensor.C_out, LPsteamTurbine.C_in)
- annotation (Line(points={{-22,214},{-14,214}}, color={28,108,200}));
+ annotation (Line(points={{-22,280},{-14,280}}, color={28,108,200}));
connect(P_LPST_in_sensor.C_in, LPST_control_valve.C_out) annotation (Line(
- points={{-34,214},{-40,214},{-40,214},{-44.75,214}}, color={
+ points={{-34,280},{-40,280},{-40,280},{-44.75,280}}, color={
28,108,200}));
connect(P_w_ReH_out_sensor.C_out, LPST_control_valve.C_in) annotation (Line(
- points={{-80,55},{-80,214},{-61.25,214}}, color={28,108,200}));
+ points={{-90,76},{-90,280},{-61.25,280}}, color={28,108,200}));
connect(P_w_ReH_out_sensor.C_in, T_w_ReH_out_sensor.C_out)
- annotation (Line(points={{-80,43},{-80,35}}, color={28,108,200}));
+ annotation (Line(points={{-90,64},{-90,56}}, color={28,108,200}));
connect(T_w_HPSH1_out_sensor.C_out, P_w_HPSH1_out_sensor.C_in)
- annotation (Line(points={{-190,8},{-202,8}}, color={28,108,200}));
+ annotation (Line(points={{-190,34},{-202,34}},
+ color={28,108,200}));
connect(HPST_control_valve.C_out, P_HPST_in_sensor.C_in) annotation (Line(
- points={{-186.75,148},{-184,148},{-184,148},{-180,148}}, color={28,108,200}));
+ points={{-206.75,180},{-204,180},{-204,180},{-200,180}}, color={28,108,200}));
connect(T_circulating_water_in_sensor.C_out, P_circulating_water_in_sensor.C_in)
- annotation (Line(points={{8,159},{14,159}}, color={28,108,200}));
+ annotation (Line(points={{-15,200},{-5,200}}, color={28,108,200}));
connect(circulating_water_source.C_out, T_circulating_water_in_sensor.C_in)
- annotation (Line(points={{-11,159},{-2,159}}, color={28,108,200}));
+ annotation (Line(points={{-35,200},{-25,200}}, color={28,108,200}));
connect(pump.C_out, T_pump_out_sensor.C_in)
- annotation (Line(points={{123,131},{132,131}}, color={28,108,200}));
+ annotation (Line(points={{117,160},{125,160}}, color={28,108,200}));
connect(T_pump_out_sensor.C_out, P_pump_out_sensor.C_in) annotation (Line(
- points={{142,131},{150,131}}, color={28,108,200}));
+ points={{135,160},{145,160}}, color={28,108,200}));
connect(P_pump_out_sensor.C_out, Q_pump_out_sensor.C_in) annotation (Line(
- points={{160,131},{166,131}}, color={28,108,200}));
+ points={{155,160},{165,160}}, color={28,108,200}));
connect(P_pumpRec_out_sensor.C_out, Q_pumpRec_out_sensor.C_in)
- annotation (Line(points={{136,48.5455},{140,48.5455}},
+ annotation (Line(points={{136,80.5455},{140,80.5455}},
color={28,108,200}));
connect(pumpRec_controlValve.Opening, pumpRec_opening_sensor.Opening)
- annotation (Line(points={{163.5,58.7273},{163.5,62},{163,62},{163,67.9}},
- color={0,0,127}));
- connect(pumpRec.C_in, P_w_eco_out_sensor.C_in) annotation (Line(points={{87,48.5455},
- {74,48.5455},{74,8},{62,8}},
+ annotation (Line(points={{160,90.1818},{160,94.9}}, color={0,0,127}));
+ connect(pumpRec.C_in, P_w_eco_out_sensor.C_in) annotation (Line(points={{87,80.5455},{80,80.5455},{80,34},{62,34}},
color={28,108,200}));
connect(economiser.C_cold_in, T_w_eco_in_sensor.C_out) annotation (Line(
- points={{114.6,-2.9},{114.6,9},{140,9}},
+ points={{111.6,23.6},{111.6,34},{135,34}},
color={28,108,200}));
- connect(T_w_eco_in_sensor.C_in, loopBreaker.C_out) annotation (Line(points={{150,9},
- {150,8},{182,8},{182,18}}, color={28,108,200}));
+ connect(T_w_eco_in_sensor.C_in, loopBreaker.C_out) annotation (Line(points={{145,34},{180,34},{180,44}},
+ color={28,108,200}));
connect(Q_pump_out_sensor.C_out, loopBreaker.C_in)
- annotation (Line(points={{176,131},{182,131},{182,38}},
+ annotation (Line(points={{175,160},{180,160},{180,64}},
color={28,108,200}));
connect(T_pumpRec_out_sensor.C_out, P_pumpRec_out_sensor.C_in) annotation (
- Line(points={{120,48.5455},{126,48.5455}}, color={
+ Line(points={{120,80.5455},{126,80.5455}}, color={
28,108,200}));
connect(Q_pumpRec_out_sensor.C_out, pumpRec_controlValve.C_in)
- annotation (Line(points={{150,48.5455},{154,48.5455},{154,48.5455},{157,48.5455}},
+ annotation (Line(points={{150,80.5455},{154,80.5455},{154,80},{153.5,80}},
color={28,108,200}));
connect(flue_gas_sink.C_in, P_flue_gas_sink_sensor.C_out)
- annotation (Line(points={{222,193},{222,178}}, color={95,95,95}));
+ annotation (Line(points={{222,219},{222,204}}, color={95,95,95}));
connect(sink.C_in, W_ST_out_sensor.C_out)
- annotation (Line(points={{115,256},{101.88,256}},color={244,125,35}));
+ annotation (Line(points={{115,320},{101.88,320}},color={244,125,35}));
connect(combustionChamber.inlet1, Q_fuel_source_sensor.C_out)
- annotation (Line(points={{-442,-36},{-442,-42}}, color={213,213,0}));
+ annotation (Line(points={{-440,-10},{-440,-15}}, color={213,213,0}));
connect(Q_fuel_source_sensor.C_in, P_fuel_source_sensor.C_out) annotation (
- Line(points={{-442,-52},{-442,-54},{-442,-54},{-442,-56}}, color={213,213,
+ Line(points={{-440,-25},{-440,-35}}, color={213,213,
0}));
connect(P_fuel_source_sensor.C_in, T_fuel_source_sensor.C_out) annotation (
- Line(points={{-442,-66},{-442,-68},{-442,-68},{-442,-70}}, color={213,213,
+ Line(points={{-440,-45},{-440,-55}}, color={213,213,
0}));
connect(GT_generator.C_out, W_GT_sensor.C_in)
- annotation (Line(points={{-352.8,34},{-346,34}}, color={244,125,35}));
+ annotation (Line(points={{-352.8,100},{-346,100}},
+ color={244,125,35}));
connect(W_GT_sensor.C_out, sink_power.C_in)
- annotation (Line(points={{-334.12,34},{-327,34}}, color={244,125,35}));
+ annotation (Line(points={{-334.12,100},{-327,100}},
+ color={244,125,35}));
connect(GT_generator.C_in, gasTurbine.C_W_shaft) annotation (Line(
- points={{-373.92,34},{-382,34},{-382,-10}},
+ points={{-373.92,100},{-380,100},{-380,16}},
color={244,125,35},
smooth=Smooth.Bezier));
connect(W_ST_out_sensor.C_in, ST_generator.C_out)
- annotation (Line(points={{90,256},{77.2,256}},color={244,125,35}));
+ annotation (Line(points={{90,320},{77.2,320}},color={244,125,35}));
connect(HPsteamTurbine.C_W_out, ST_generator.C_in) annotation (Line(
- points={{-126,161.44},{-126,161.44},{-126,194},{-126,256},{56.08,256}},
+ points={{-146,193.44},{-146,193.44},{-146,266},{-146,320},{56.08,320}},
color={244,125,35},
smooth=Smooth.Bezier));
connect(LPsteamTurbine.C_W_out, ST_generator.C_in) annotation (Line(
- points={{20,227.44},{20,256},{56.08,256}},
+ points={{20,293.44},{20,320},{56.08,320}},
color={244,125,35},
smooth=Smooth.Bezier));
- connect(pumpRec_controlValve.C_out, loopBreaker.C_in) annotation (Line(points={{170,48.5455},{174,48.5455},{174,50},{182,50},{182,38}},
+ connect(pumpRec_controlValve.C_out, loopBreaker.C_in) annotation (Line(points={{166.5,80},{180,80},{180,64}},
color={28,108,200}));
- connect(pumpRec.C_out, T_pumpRec_out_sensor.C_in) annotation (Line(points={{101,
- 48.5455},{110,48.5455}}, color={28,108,200}));
+ connect(pumpRec.C_out, T_pumpRec_out_sensor.C_in) annotation (Line(points={{101,80.5455},{110,80.5455}},
+ color={28,108,200}));
connect(AirFilter.C_out, P_filter_out_sensor.C_in)
- annotation (Line(points={{-556,-26},{-548,-26}}, color={95,95,95}));
+ annotation (Line(points={{-556,0},{-546,0}}, color={95,95,95}));
connect(Q_source_air_sensor.C_out, AirFilter.C_in)
- annotation (Line(points={{-588,-26},{-576,-26}}, color={95,95,95}));
+ annotation (Line(points={{-594,0},{-576,0}}, color={95,95,95}));
connect(P_filter_out_sensor.C_out, airCompressor.C_in)
- annotation (Line(points={{-536,-26},{-524,-26}}, color={95,95,95}));
+ annotation (Line(points={{-534,0},{-524,0}}, color={95,95,95}));
connect(HPsuperheater1.C_hot_in, HPsuperheater2.C_hot_out)
- annotation (Line(points={{-186,-26},{-242,-26}}, color={95,95,95}));
+ annotation (Line(points={{-186,0},{-242,0}}, color={95,95,95}));
connect(P_w_HPSH1_out_sensor.C_out, HPsuperheater2.C_cold_in) annotation (
- Line(points={{-214,8},{-260,8},{-260,-2}}, color={28,108,200}));
+ Line(points={{-214,34},{-260,34},{-260,24}},
+ color={28,108,200}));
connect(turbine_P_out_sensor.C_out, HPsuperheater2.C_hot_in)
- annotation (Line(points={{-338,-26},{-302,-26}}, color={95,95,95}));
+ annotation (Line(points={{-338,0},{-302,0}}, color={95,95,95}));
connect(deSH_opening_sensor.Opening, deSH_controlValve.Opening)
- annotation (Line(points={{-165,113.9},{-165,102.182}}, color={0,0,127}));
- connect(Q_deSH_sensor.C_in, loopBreaker.C_in) annotation (Line(points={{-132,92},
- {182,92},{182,38}}, color={28,108,200}));
- connect(Q_deSH_sensor.C_out, deSH_controlValve.C_in) annotation (Line(points={{-144,92},{-152,92},{-152,92},{-158.75,92}},
+ annotation (Line(points={{-180,138.9},{-180,130.182}}, color={0,0,127}));
+ connect(Q_deSH_sensor.C_in, loopBreaker.C_in) annotation (Line(points={{-132,120},{180,120},{180,64}},
+ color={28,108,200}));
+ connect(Q_deSH_sensor.C_out, deSH_controlValve.C_in) annotation (Line(points={{-144,120},{-158,120},{-158,120},{-173.75,120}},
color={28,108,200}));
connect(deSH_controlValve.C_out, HPsuperheater2.C_cold_in) annotation (Line(
- points={{-171.25,92},{-230,92},{-230,8},{-260,8},{-260,-2}}, color={28,108,
+ points={{-186.25,120},{-230,120},{-230,34},{-260,34},{-260,24}},
+ color={28,108,
200}));
connect(T_w_HPSH2_out_sensor.C_in, HPsuperheater2.C_cold_out) annotation (
- Line(points={{-282,28},{-282,12},{-282,-2},{-284,-2}}, color={28,108,200}));
+ Line(points={{-280,54},{-280,24},{-284,24}}, color={28,108,200}));
connect(P_w_HPSH2_out_sensor.C_in, T_w_HPSH2_out_sensor.C_out)
- annotation (Line(points={{-282,46},{-282,40}}, color={28,108,200}));
+ annotation (Line(points={{-280,74},{-280,66}}, color={28,108,200}));
connect(P_w_eco_out_sensor.C_out, Evap_controlValve.C_in) annotation (Line(
- points={{50,8},{45.625,8},{45.625,8.00005},{41.25,8.00005}}, color={28,108,
+ points={{50,34},{44,34},{44,34},{36.25,34}}, color={28,108,
200}));
connect(T_w_eco_out_sensor.C_in, Evap_controlValve.C_out) annotation (Line(
- points={{14,8},{21.375,8},{21.375,8.00005},{28.75,8.00005}}, color={28,108,
+ points={{18,34},{20,34},{20,34},{23.75,34}}, color={28,108,
200}));
connect(Evap_controlValve.Opening, Evap_opening_sensor.Opening)
- annotation (Line(points={{35,18.1822},{35,33.9}}, color={0,0,127}));
+ annotation (Line(points={{30,44.1822},{30,52.9}}, color={0,0,127}));
connect(economiser.C_hot_out, T_flue_gas_sink_sensor.C_in) annotation (Line(
- points={{132,-26.5},{132,-26},{164,-26}}, color={95,95,95}));
- connect(P_HPST_out_sensor.C_out, T_HPST_out_sensor.C_in) annotation (Line(points={{-102,148},{-96,148}}, color={28,108,200}));
- connect(T_HPST_out_sensor.C_out, Reheater.C_cold_in) annotation (Line(points={{-84,148},{-60,148},{-60,-2}}, color={28,108,200}));
+ points={{129,0},{164,0}}, color={95,95,95}));
+ connect(P_HPST_out_sensor.C_out, T_HPST_out_sensor.C_in) annotation (Line(points={{-122,180},{-116,180}},color={28,108,200}));
+ connect(T_HPST_out_sensor.C_out, Reheater.C_cold_in) annotation (Line(points={{-104,180},{-66,180},{-66,24}},color={28,108,200}));
connect(airCompressor.C_W_in, gasTurbine.C_W_shaft) annotation (Line(
- points={{-496,-15.5},{-496,8},{-382,8},{-382,-10}},
+ points={{-496,10.5},{-496,34},{-380,34},{-380,16}},
color={244,125,35},
smooth=Smooth.Bezier));
- connect(T_flue_gas_sink_sensor.C_out, P_flue_gas_sink_sensor.C_in) annotation (Line(points={{176,-26},{222,-26},{222,166}}, color={95,95,95}));
- connect(HPST_control_valve.C_in, displayer.C_out) annotation (Line(points={{-203.25,148},{-216,148},{-216,148},{-235,148}}, color={28,108,200}));
- connect(displayer.C_in, P_w_HPSH2_out_sensor.C_out) annotation (Line(points={{-241,148},{-280,148},{-280,82},{-282,82},{-282,58}}, color={28,108,200}));
- connect(source_fuel.C_out, fuelDisplayer.C_in) annotation (Line(points={{-442,-105},{-442,-95}}, color={213,213,0}));
- connect(fuelDisplayer.C_out, T_fuel_source_sensor.C_in) annotation (Line(points={{-442,-89},{-442,-80}}, color={213,213,0}));
- connect(moistAir_to_FlueGases.inlet, moistAirDisplayer.C_out) annotation (Line(points={{-672,-26},{-687,-26}}, color={85,170,255}));
- connect(P_source_air_sensor.C_in, flueGasesDisplayer.C_out) annotation (Line(points={{-636,-26},{-641,-26}}, color={95,95,95}));
- connect(flueGasesDisplayer.C_in, moistAir_to_FlueGases.outlet) annotation (Line(points={{-647,-26},{-652,-26}}, color={95,95,95}));
- connect(moistAirDisplayer.C_in, H_sensor.C_out) annotation (Line(points={{-693,-26},{-700,-26}}, color={85,170,255}));
- connect(H_sensor.C_in, source_air.C_out) annotation (Line(points={{-712,-26},{-719,-26}}, color={85,170,255}));
- annotation (Icon(coordinateSystem(preserveAspectRatio=false, extent={{-740,-120},{260,280}})),
+ connect(T_flue_gas_sink_sensor.C_out, P_flue_gas_sink_sensor.C_in) annotation (Line(points={{176,0},{222,0},{222,192}}, color={95,95,95}));
+ connect(HPST_control_valve.C_in, displayer.C_out) annotation (Line(points={{-223.25,180},{-230,180},{-230,180},{-235,180}}, color={28,108,200}));
+ connect(displayer.C_in, P_w_HPSH2_out_sensor.C_out) annotation (Line(points={{-241,180},{-280,180},{-280,86}}, color={28,108,200}));
+ connect(source_fuel.C_out, fuelDisplayer.C_in) annotation (Line(points={{-440,-95},{-440,-83}}, color={213,213,0}));
+ connect(fuelDisplayer.C_out, T_fuel_source_sensor.C_in) annotation (Line(points={{-440,-77},{-440,-65}}, color={213,213,0}));
+ connect(moistAir_to_FlueGases.inlet, moistAirDisplayer.C_out) annotation (Line(points={{-682,0},{-697,0}}, color={85,170,255}));
+ connect(P_source_air_sensor.C_in, flueGasesDisplayer.C_out) annotation (Line(points={{-646,0},{-651,0}}, color={95,95,95}));
+ connect(flueGasesDisplayer.C_in, moistAir_to_FlueGases.outlet) annotation (Line(points={{-657,0},{-662,0}}, color={95,95,95}));
+ connect(moistAirDisplayer.C_in, Relative_Humidity_sensor.C_out) annotation (Line(points={{-703,0},{-710,0}}, color={85,170,255}));
+ connect(Relative_Humidity_sensor.C_in, source_air.C_out) annotation (Line(points={{-722,0},{-729,0}}, color={85,170,255}));
+ connect(Relative_Humidity_sensor.H_sensor, Relative_Humidity) annotation (Line(points={{-716,6},{-716,14}}, color={0,0,127}));
+ connect(P_source_air_sensor.P_sensor, P_source_air) annotation (Line(points={{-640,6},{-640,14}}, color={0,0,127}));
+ connect(T_source_air, T_source_air_sensor.T_sensor) annotation (Line(points={{-620,14},{-620,6}}, color={0,0,127}));
+ connect(Q_source_air_sensor.Q_sensor, Q_source_air) annotation (Line(points={{-600,6},{-600,14}}, color={0,0,127}));
+ connect(P_filter_out_sensor.P_sensor, P_filter_out) annotation (Line(points={{-540,6},{-540,20}}, color={0,0,127}));
+ connect(compressor_P_out_sensor.P_sensor, compressor_P_out) annotation (Line(points={{-484,6},{-484,14}}, color={0,0,127}));
+ connect(AirFilter.Kfr, Filter_Kfr) annotation (Line(points={{-566,4},{-566,10},{-566,14},{-566,14}},
+ color={0,0,127}));
+ connect(compression_rate, airCompressor.tau) annotation (Line(points={{-522,22},{-522,12.25},{-522.6,12.25}}, color={0,0,127}));
+ connect(compressor_eta_is, airCompressor.eta_is) annotation (Line(points={{-520,28},{-519.8,28},{-519.8,11.55}},color={0,0,127}));
+ connect(compressor_eta_is, compressor_eta_is) annotation (Line(points={{-520,28},{-520,28}},
+ color={0,0,127}));
+ connect(compressor_T_out, compressor_T_out_sensor.T_sensor) annotation (Line(points={{-466,14},{-466,6}}, color={0,0,127}));
+ connect(Q_fuel_source_sensor.Q_sensor, Q_fuel_source) annotation (Line(points={{-445,-20},{-450,-20},{-450,-20},{-450,-20}},
+ color={0,0,127}));
+ connect(P_fuel_source_sensor.P_sensor, P_fuel_source) annotation (Line(points={{-445,-40},{-450,-40}}, color={0,0,127}));
+ connect(T_fuel_source_sensor.T_sensor, T_fuel_source) annotation (Line(points={{-445,-60},{-450,-60}}, color={0,0,127}));
+ connect(gasTurbine.eta_is, turbine_eta_is) annotation (Line(points={{-412,12.8},{-412,18},{-412,20},{-412,20}},
+ color={0,0,127}));
+ connect(turbine_T_out_sensor.T_sensor, turbine_T_out) annotation (Line(points={{-364,6},{-364,12}}, color={0,0,127}));
+ connect(turbine_P_out_sensor.P_sensor, turbine_P_out) annotation (Line(points={{-344,6},{-344,12}}, color={0,0,127}));
+ connect(economiser.Kfr_cold, economizer_Kfr_cold) annotation (Line(points={{114.5,-20.65},{114.5,-22.325},{114,-22.325},{114,-30}}, color={0,0,127}));
+ connect(economiser.Kth, economizer_Kth) annotation (Line(points={{85.5,-20.65},{86,-20.65},{86,-30}}, color={0,0,127}));
+ connect(evaporator.C_hot_out,HRSG_friction. C_in) annotation (Line(points={{20,0},{30,0}}, color={95,95,95}));
+ connect(HRSG_friction.C_out, economiser.C_hot_in) annotation (Line(points={{50,0},{71,0}}, color={95,95,95}));
+ connect(HRSG_friction.Kfr, HRSG_friction_Kfr) annotation (Line(points={{40,-4},{40,-10},{40,-10},{40,-10}},
+ color={0,0,127}));
+ connect(Reheater_Kfr_cold, Reheater.Kfr_cold) annotation (Line(points={{-62,-30},{-63,-30},{-63,-21}}, color={0,0,127}));
+ connect(Reheater_Kth, Reheater.Kth) annotation (Line(points={{-92,-30},{-93,-30},{-93,-21}}, color={0,0,127}));
+ connect(HPsuperheater1.Kfr_cold, HPsuperheater1_Kfr_cold) annotation (Line(points={{-141,-21},{-140,-21},{-140,-30}}, color={0,0,127}));
+ connect(HPsuperheater1.Kth, HPsuperheater1_Kth) annotation (Line(points={{-171,-21},{-170,-21},{-170,-30}}, color={0,0,127}));
+ connect(HPsuperheater2.Kth, HPsuperheater2_Kth) annotation (Line(points={{-287,-21},{-286,-21},{-286,-30}}, color={0,0,127}));
+ connect(HPsuperheater2.Kfr_cold, HPsuperheater2_Kfr_cold) annotation (Line(points={{-257,-21},{-256,-21},{-256,-30}}, color={0,0,127}));
+ connect(T_w_HPSH1_out_sensor.T_sensor, T_w_HPSH1_out) annotation (Line(points={{-184,40},{-184,44}}, color={0,0,127}));
+ connect(P_w_HPSH1_out_sensor.P_sensor, P_w_HPSH1_out) annotation (Line(points={{-208,40},{-208,44}}, color={0,0,127}));
+ connect(T_w_HPSH1_out1, T_w_ReH_out_sensor.T_sensor) annotation (Line(points={{-100,50},{-96,50}}, color={0,0,127}));
+ connect(P_w_ReH_out_sensor.P_sensor, P_w_HPSH1_out1) annotation (Line(points={{-96,70},{-100,70}}, color={0,0,127}));
+ connect(T_w_HPSH2_out_sensor.T_sensor, T_w_HPSH2_out) annotation (Line(points={{-286,60},{-290,60}}, color={0,0,127}));
+ connect(P_w_HPSH2_out, P_w_HPSH2_out_sensor.P_sensor) annotation (Line(points={{-290,80},{-286,80}}, color={0,0,127}));
+ connect(P_w_evap_out, P_w_evap_out_sensor.P_sensor) annotation (Line(points={{-40,44},{-40,40}}, color={0,0,127}));
+ connect(T_w_eco_out, T_w_eco_out_sensor.T_sensor) annotation (Line(points={{12,44},{12,40}},
+ color={0,0,127}));
+ connect(P_w_eco_out_sensor.P_sensor, P_w_eco_out) annotation (Line(points={{56,40},{56,44}}, color={0,0,127}));
+ connect(T_w_eco_in, T_w_eco_in_sensor.T_sensor) annotation (Line(points={{140,44},{140,39}}, color={0,0,127}));
+ connect(T_pumpRec_out, T_pumpRec_out_sensor.T_sensor) annotation (Line(points={{114,92},{115,92},{115,85.5455}}, color={0,0,127}));
+ connect(P_pumpRec_out_sensor.P_sensor, P_pumpRec_out) annotation (Line(points={{131,85.5455},{131,86.773},{130,86.773},{130,92}}, color={0,0,127}));
+ connect(P_flue_gas_sink_sensor.P_sensor, P_flue_gas_sink) annotation (Line(points={{216,198},{210,198}}, color={0,0,127}));
+ connect(W_GT, W_GT_sensor.W_sensor) annotation (Line(points={{-340,112},{-340,106}}, color={0,0,127}));
+ connect(T_pump_out, T_pump_out_sensor.T_sensor) annotation (Line(points={{130,170},{130,165}}, color={0,0,127}));
+ connect(P_pump_out, P_pump_out_sensor.P_sensor) annotation (Line(points={{150,170},{150,165}}, color={0,0,127}));
+ connect(Q_pump_out_sensor.Q_sensor, Q_pump_out) annotation (Line(points={{170,165},{170,170}}, color={0,0,127}));
+ connect(T_circulating_water_out_sensor.T_sensor, T_circulating_water_out) annotation (Line(points={{110,205},{110,210}}, color={0,0,127}));
+ connect(P_circulating_water_in_sensor.P_sensor, P_circulating_water_in) annotation (Line(points={{0,205},{0,210}}, color={0,0,127}));
+ connect(T_circulating_water_in_sensor.T_sensor, T_circulating_water_in) annotation (Line(points={{-20,205},{-20,210}}, color={0,0,127}));
+ connect(P_Cond_sensor.P_sensor, P_Cond) annotation (Line(points={{34,286},{34,292}}, color={0,0,127}));
+ connect(P_LPST_in_sensor.P_sensor, P_LPST_in) annotation (Line(points={{-28,286},{-28,292}}, color={0,0,127}));
+ connect(P_HPST_out, P_HPST_out_sensor.P_sensor) annotation (Line(points={{-128,190},{-128,186}}, color={0,0,127}));
+ connect(T_HPST_out_sensor.T_sensor, T_HPST_out) annotation (Line(points={{-110,186},{-110,190}}, color={0,0,127}));
+ connect(Q_deSH_sensor.Q_sensor, Q_deSH) annotation (Line(points={{-138,126},{-138,132}}, color={0,0,127}));
+ connect(pumpRec_hn, pumpRec.hn) annotation (Line(points={{89,107},{88.54,107},
+ {88.54,86.1455}}, color={0,0,127}));
+ connect(pumpRec_rh, pumpRec.rh) annotation (Line(points={{81,97},{81,83.3455},
+ {87,83.3455}}, color={0,0,127}));
+ connect(pump_rh, pump.rh) annotation (Line(points={{96,170},{96,162.8},{103,162.8}}, color={0,0,127}));
+ connect(pump_hn, pump.hn) annotation (Line(points={{104,180},{104,165.6},{104.54,
+ 165.6}}, color={0,0,127}));
+ connect(LPsteamTurbine_eta_is, LPsteamTurbine.eta_is) annotation (Line(points={{-9,309},
+ {-0.74,309},{-0.74,294.72}}, color={0,0,127}));
+ connect(LPsteamTurbine.Cst, LPsteamTurbine_Cst) annotation (Line(points={{-8.22,
+ 293.12},{-13,293.12},{-13,301}}, color={0,0,127}));
+ connect(HPsteamTurbine_Cst, HPsteamTurbine.Cst) annotation (Line(points={{-179,
+ 201},{-174.22,201},{-174.22,193.12}}, color={0,0,127}));
+ connect(HPsteamTurbine.eta_is, HPsteamTurbine_eta_is) annotation (Line(points={{-166.74,
+ 194.72},{-175,194.72},{-175,209}}, color={0,0,127}));
+ connect(LPST_control_valve.Cv, LPST_control_valve_Cv) annotation (Line(points={{-56.3,288.969},{-56.3,289},{-67,289}}, color={0,0,127}));
+ connect(HPST_control_valve.Cv, HPST_control_valve_Cv) annotation (Line(points={{-218.3,188.969},{-220,189},{-227,189}}, color={0,0,127}));
+ connect(T_flue_gas_sink_sensor.T_sensor, T_flue_gas_sink) annotation (Line(points={{170,6},{170,10}}, color={0,0,127}));
+ connect(W_ST_out_sensor.W_sensor, W_ST_out) annotation (Line(points={{96,326},{96,332}}, color={0,0,127}));
+ connect(P_HPST_in_sensor.P_sensor, P_HPST_in) annotation (Line(points={{-194,186},{-194,192}}, color={0,0,127}));
+ connect(deSH_opening, deSH_opening_sensor.opening_sensor) annotation (Line(points={{-180,154},{-180,149.1}}, color={0,0,127}));
+ connect(Evap_opening_sensor.opening_sensor,Evap_opening) annotation (Line(points={{30,63.1},{30,68}}, color={0,0,127}));
+ connect(pumpRec_opening, pumpRec_opening_sensor.opening_sensor) annotation (Line(points={{160,110},{160,105.1}}, color={0,0,127}));
+ connect(deSH_controlValve_Cv_max, deSH_controlValve.Cv_max) annotation (Line(points={{-167,127},{-172,127},{-172,127},{-177.5,127}}, color={0,0,127}));
+ connect(Evap_controlValve.Cv_max, Evap_controlValve_Cv_max) annotation (Line(points={{32.5,41.0003},{34,41.0003},{34,41},{39,41}}, color={0,0,127}));
+ connect(pumpRec_controlValve.Cv_max, pumpRec_controlValve_Cv_max) annotation (Line(points={{157.4,87},{152,87},{152,105},{147,105}}, color={0,0,127}));
+ connect(Q_pumpRec_out_sensor.Q_sensor, Q_pumpRec_out) annotation (Line(points={{145,85.5455},{145,93}}, color={0,0,127}));
+ connect(condenser_Kth, condenser.Kth) annotation (Line(points={{40,230},{40,219.556},{47.2,219.556}},
+ color={0,0,127}));
+ connect(condenser.Qv_cold_in, condenser_Qv_cold_in) annotation (Line(points={{38,214.222},{27,214.222},{27,230},{20,230}}, color={0,0,127}));
+ connect(condenser.Kfr_cold, condenser_Kfr_cold.y) annotation (Line(points={{38,207.111},{32,207.111},{32,221.7}}, color={0,0,127}));
+ connect(combustionChamber_Kfr.y, combustionChamber.Kfr) annotation (Line(points={{-432,19.6},{-432,16},{-437,16},{-437,11}}, color={0,0,127}));
+ connect(combustionChamber_eta.y, combustionChamber.eta) annotation (Line(points={{-448,19.6},{-448,16},{-443,16},{-443,11}}, color={0,0,127}));
+ connect(evaporator.Kth, Evap_Kth) annotation (Line(points={{-8,-21},{-8,-30}}, color={0,0,127}));
+ annotation (Icon(coordinateSystem(preserveAspectRatio=false, extent={{-760,-120},{260,300}})),
Diagram(
- coordinateSystem(preserveAspectRatio=false, extent={{-740,-120},{260,280}}),
+ coordinateSystem(preserveAspectRatio=false, extent={{-760,-120},{260,300}}),
graphics={Rectangle(
- extent={{-324,18},{246,-72}},
+ extent={{-324,44},{246,-46}},
pattern=LinePattern.None,
lineColor={0,0,0},
fillColor={158,158,158},
- fillPattern=FillPattern.Solid), Text(
- extent={{-92,-56},{54,-68}},
+ fillPattern=FillPattern.Solid,
+ radius=0), Text(
+ extent={{-160,-92},{42,-104}},
textColor={0,0,0},
textStyle={TextStyle.Bold},
textString="Heat Recovery Steam Generator"),
Polygon(
- points={{-380,-10},{-380,-10},{-380,-42},{-324,-72},{-324,18},{-380,-10}},
+ points={{-380,16},{-380,16},{-380,-16},{-324,-46},{-324,44},{-380,16}},
fillColor={158,158,158},
fillPattern=FillPattern.Solid,
pattern=LinePattern.None,
lineColor={0,0,0}),
Rectangle(
- extent={{246,16},{200,190}},
+ extent={{246,42},{200,216}},
pattern=LinePattern.None,
fillColor={158,158,158},
fillPattern=FillPattern.Solid),
Text(
- extent={{-230,96},{-174,96}},
+ extent={{-230,124},{-174,124}},
textColor={28,108,200},
textString="Desuperheater"), Text(
- extent={{-306,-48},{-244,-54}},
+ extent={{-310,-66},{-232,-72}},
textColor={0,0,0},
textStyle={TextStyle.Bold},
fontSize=6,
textString="Superheater 2"), Text(
- extent={{-186,-48},{-124,-54}},
+ extent={{-194,-66},{-116,-74}},
textColor={0,0,0},
textStyle={TextStyle.Bold},
fontSize=6,
textString="Superheater 1"), Text(
- extent={{-104,-48},{-42,-54}},
+ extent={{-104,-66},{-42,-72}},
textColor={0,0,0},
textStyle={TextStyle.Bold},
fontSize=6,
textString="Reheater"), Text(
- extent={{-48,-48},{14,-54}},
+ extent={{-38,-66},{24,-72}},
textColor={0,0,0},
textStyle={TextStyle.Bold},
fontSize=6,
textString="Evaporator"), Text(
- extent={{74,-52},{136,-58}},
+ extent={{74,-66},{136,-72}},
textColor={0,0,0},
textStyle={TextStyle.Bold},
- fontSize=6,
- textString="Economizer
-")}));
+ fontSize=5,
+ textString="Economizer")}));
end MetroscopiaCCGT_reverse;
diff --git a/MetroscopeModelingLibrary/Examples/Nuclear/FeedWater/FlashTank_Reheater.mo b/MetroscopeModelingLibrary/Examples/Nuclear/FeedWater/FlashTank_Reheater.mo
index d1014591..f620e850 100644
--- a/MetroscopeModelingLibrary/Examples/Nuclear/FeedWater/FlashTank_Reheater.mo
+++ b/MetroscopeModelingLibrary/Examples/Nuclear/FeedWater/FlashTank_Reheater.mo
@@ -25,8 +25,7 @@ model FlashTank_Reheater
extent={{-10,-10},{10,10}},
rotation=-90,
origin={-78,78})));
- MetroscopeModelingLibrary.WaterSteam.Pipes.Pipe reheater_to_flash_tank_DP(Q_0=Q_hot_0)
- annotation (Placement(transformation(
+ MetroscopeModelingLibrary.WaterSteam.Pipes.FrictionPipe reheater_to_flash_tank_DP(Q_0=Q_hot_0) annotation (Placement(transformation(
extent={{-12.5,-12.5},{12.5,12.5}},
rotation=180,
origin={0,10})));
@@ -34,7 +33,7 @@ model FlashTank_Reheater
extent={{9,-9},{-9,9}},
rotation=0,
origin={-60,-80})));
- MetroscopeModelingLibrary.WaterSteam.Pipes.Pipe flash_tank_to_reheater_DP(Q_0=Q_hot_0/2) annotation (Placement(transformation(extent={{100,42},{73,69}})));
+ MetroscopeModelingLibrary.WaterSteam.Pipes.FrictionPipe flash_tank_to_reheater_DP(Q_0=Q_hot_0/2) annotation (Placement(transformation(extent={{100,42},{73,69}})));
MetroscopeModelingLibrary.Power.BoundaryConditions.Source power_source annotation (Placement(transformation(
extent={{-10,-10},{10,10}},
rotation=270,
diff --git a/MetroscopeModelingLibrary/Examples/Nuclear/MetroscopiaNPP/MetroscopiaNPP_direct.mo b/MetroscopeModelingLibrary/Examples/Nuclear/MetroscopiaNPP/MetroscopiaNPP_direct.mo
index c4eb5895..0373ce8d 100644
--- a/MetroscopeModelingLibrary/Examples/Nuclear/MetroscopiaNPP/MetroscopiaNPP_direct.mo
+++ b/MetroscopeModelingLibrary/Examples/Nuclear/MetroscopiaNPP/MetroscopiaNPP_direct.mo
@@ -285,12 +285,12 @@ model MetroscopiaNPP_direct
T_0=425.15,
h_0=640e3) annotation (Placement(transformation(extent={{288,-122},{298,-110}})));
MetroscopeModelingLibrary.Sensors.Outline.OpeningSensor LP_reheater_drains_control_valve_opening_sensor annotation (Placement(transformation(extent={{288,-106},{298,-96}})));
- MetroscopeModelingLibrary.WaterSteam.Pipes.Pipe deaerator_inlet_pipe(
+ MetroscopeModelingLibrary.WaterSteam.Pipes.FrictionPipe deaerator_inlet_pipe(
P_in_0=600000,
P_out_0=550000,
Q_0=1060,
T_0=338.15,
- h_0=272e3) annotation (Placement(transformation(extent={{186,-80},{166,-60}})));
+ h_0=272e3) annotation (Placement(transformation(extent={{186,-80},{166,-60}})));
MetroscopeModelingLibrary.WaterSteam.Pipes.PressureCut steam_dryer_liq_out_pipe(
P_in_0=1940000,
P_out_0=1940000,
@@ -300,12 +300,12 @@ model MetroscopiaNPP_direct
extent={{10,-10},{-10,10}},
rotation=90,
origin={142,-50})));
- MetroscopeModelingLibrary.WaterSteam.Pipes.Pipe deaerator_outlet_pipe(
+ MetroscopeModelingLibrary.WaterSteam.Pipes.FrictionPipe deaerator_outlet_pipe(
P_in_0=550000,
P_out_0=600000,
Q_0=1500,
T_0=350.05,
- h_0=322e3) annotation (Placement(transformation(extent={{114,-80},{94,-60}})));
+ h_0=322e3) annotation (Placement(transformation(extent={{114,-80},{94,-60}})));
WaterSteam.Machines.FixedSpeedPump feedwater_pump(
T_in_0=350.05,
T_out_0=353.15,
@@ -555,7 +555,8 @@ equation
HP_heater.Kfr_cold = HP_heater_Kfr_cold;
HP_reheater_drains_control_valve.Cv_max = HP_heater_drains_control_valve_Cvmax;
- connect(HP_control_valve.C_out, HPT_P_in_sensor.C_in) annotation (Line(points={{-125,72},{-116,72},{-116,72},{-106,72}}, color={28,108,200}));
+ connect(HP_control_valve.C_out, HPT_P_in_sensor.C_in) annotation (Line(points={{-125,72},
+ {-116,72},{-116,72},{-106,72}}, color={28,108,200}));
connect(HP_control_valve.Opening, HP_control_valve_opening_sensor.Opening) annotation (Line(points={{-130,80.7273},{-130,82},{-131,82},{-131,85.9}},
color={0,0,127}));
connect(HPT_1.C_out, HP_extract.C_in) annotation (Line(points={{-61,72},{-50.6,72}}, color={28,108,200}));
@@ -569,18 +570,22 @@ equation
connect(HPT_1.C_W_out, generator.C_in) annotation (Line(points={{-61,78.72},{-54,78.72},{-54,168},{315.6,168}}, color={244,125,35}));
connect(HPT_1.C_in, HPT_P_in_sensor.C_out) annotation (Line(points={{-79,72},{-94,72}}, color={28,108,200}));
connect(HPT_P_out_sensor.C_in, HPT_2.C_out) annotation (Line(points={{26,72},{9,72}}, color={28,108,200}));
- connect(steam_dryer.C_in, HPT_P_out_sensor.C_out) annotation (Line(points={{56,91.2727},{56,92},{46,92},{46,72},{38,72}}, color={28,108,200}));
- connect(superheater.C_cold_in, steam_dryer.C_hot_steam) annotation (Line(points={{72,104},{72,91.2727}}, color={28,108,200}));
+ connect(steam_dryer.C_in, HPT_P_out_sensor.C_out) annotation (Line(points={{56,
+ 91.2727},{56,92},{46,92},{46,72},{38,72}}, color={28,108,200}));
+ connect(superheater.C_cold_in, steam_dryer.C_hot_steam) annotation (Line(points={{72,104},
+ {72,91.2727}}, color={28,108,200}));
connect(superheater.C_hot_out, superheater_drains_P_sensor.C_in) annotation (Line(points={{88,112},{100,112}}, color={28,108,200}));
connect(superheater_T_out_sensor.C_in,superheater. C_cold_out) annotation (Line(points={{88,130},{72,130},{72,120}}, color={28,108,200}));
- connect(superheater_control_valve.C_in, HP_control_valve.C_in) annotation (Line(points={{-136,112.182},{-136,112},{-158,112},{-158,72},{-135,72}}, color={28,108,200}));
+ connect(superheater_control_valve.C_in, HP_control_valve.C_in) annotation (Line(points={{-136,
+ 112.182},{-136,112},{-158,112},{-158,72},{-135,72}}, color={28,108,200}));
connect(superheater.C_hot_in, superheater_bleed_P_sensor.C_out) annotation (Line(points={{56,112},{-35,112},{-35,112.182},{-94,112.182}}, color={28,108,200}));
- connect(superheater_bleed_P_sensor.C_in, superheater_control_valve.C_out) annotation (Line(points={{-106,112.182},{-116,112.182},{-116,112.182},{-126,112.182}}, color={28,108,200}));
+ connect(superheater_bleed_P_sensor.C_in, superheater_control_valve.C_out) annotation (Line(points={{-106,
+ 112.182},{-116,112.182},{-116,112.182},{-126,112.182}}, color={28,108,200}));
connect(LPT1.C_W_out, generator.C_in) annotation (Line(points={{169,136.72},{188,136.72},{188,168},{315.6,168}}, color={244,125,35}));
connect(LPT2.C_W_out, generator.C_in) annotation (Line(points={{239,136.72},{262,136.72},{262,168},{315.6,168}}, color={244,125,35}));
connect(LPT2.C_out, P_cond_sensor.C_in) annotation (Line(points={{239,130},{286,130}}, color={28,108,200}));
- connect(P_cond_sensor.C_out, condenser.C_hot_in) annotation (Line(points={{298,130},{392.5,130},{392.5,74.2864}},
- color={28,108,200}));
+ connect(P_cond_sensor.C_out, condenser.C_hot_in) annotation (Line(points={{298,130},
+ {392.5,130},{392.5,74.2864}}, color={28,108,200}));
connect(superheater_T_out_sensor.C_out, LPT1.C_in) annotation (Line(points={{100,130},{151,130}}, color={28,108,200}));
connect(extraction_pump.C_out, extraction_pump_T_out_sensor.C_in) annotation (Line(points={{364,-70},{350,-70}}, color={28,108,200}));
connect(extraction_pump_T_out_sensor.C_out,extraction_pump_P_out_sensor. C_in) annotation (Line(points={{336,-70},{322,-70}}, color={28,108,200}));
@@ -610,12 +615,17 @@ equation
connect(superheater_drains_P_sensor.C_out, superheater_drains_pipe.C_in) annotation (Line(points={{112,112},{122,112},{122,40}}, color={28,108,200}));
connect(superheater_drains_pipe.C_out, HP_heater.C_hot_in) annotation (Line(points={{122,20},{122,16},{-40,16},{-40,-62}}, color={28,108,200}));
connect(HP_heater_T_out_sensor.C_out, Q_feedwater_sensor.C_in) annotation (Line(points={{-98,-70},{-104,-70}}, color={28,108,200}));
- connect(HP_reheater_drains_control_valve.Opening, HP_reheater_drains_control_valve_opening_sensor.Opening) annotation (Line(points={{11,-113.091},{11,-108.1}}, color={0,0,127}));
- connect(HP_heater_T_drains_sensor.C_out, HP_reheater_drains_control_valve.C_in) annotation (Line(points={{-40,-105},{-40,-121.818},{6,-121.818}}, color={28,108,200}));
- connect(LP_reheater_drains_control_valve.Opening, LP_reheater_drains_control_valve_opening_sensor.Opening) annotation (Line(points={{293,-111.091},{293,-106.1}}, color={0,0,127}));
- connect(LP_heater.C_hot_out, LP_reheater_drains_control_valve.C_in) annotation (Line(points={{268,-78},{268,-119.818},{288,-119.818}}, color={28,108,200}));
+ connect(HP_reheater_drains_control_valve.Opening, HP_reheater_drains_control_valve_opening_sensor.Opening) annotation (Line(points={{11,
+ -113.091},{11,-108.1}}, color={0,0,127}));
+ connect(HP_heater_T_drains_sensor.C_out, HP_reheater_drains_control_valve.C_in) annotation (Line(points={{-40,
+ -105},{-40,-121.818},{6,-121.818}}, color={28,108,200}));
+ connect(LP_reheater_drains_control_valve.Opening, LP_reheater_drains_control_valve_opening_sensor.Opening) annotation (Line(points={{293,
+ -111.091},{293,-106.1}}, color={0,0,127}));
+ connect(LP_heater.C_hot_out, LP_reheater_drains_control_valve.C_in) annotation (Line(points={{268,-78},
+ {268,-119.818},{288,-119.818}}, color={28,108,200}));
connect(steam_generator.steam_outlet, P_steam_sensor.C_in) annotation (Line(points={{-170,-24},{-170,3}}, color={28,108,200}));
- connect(P_steam_sensor.C_out, HP_control_valve.C_in) annotation (Line(points={{-170,17},{-170,72},{-135,72}}, color={28,108,200}));
+ connect(P_steam_sensor.C_out, HP_control_valve.C_in) annotation (Line(points={{-170,17},
+ {-170,72},{-135,72}}, color={28,108,200}));
connect(superheater.C_vent, pressureCut.C_in) annotation (Line(points={{88,104.2},{88,86},{94,86}}, color={28,108,200}));
connect(pressureCut.C_out, superheater_drains_pipe.C_in) annotation (Line(points={{114,86},{122,86},{122,40}}, color={28,108,200}));
connect(cold_source.C_out, CW_T_in_sensor.C_in) annotation (Line(points={{305,67.7778},{305,67},{318,67}}, color={28,108,200}));
@@ -623,10 +633,13 @@ equation
connect(CW_P_in_sensor.C_out, condenser.C_cold_in) annotation (Line(points={{360,67},{378,67},{378,59.679},{377,59.679}}, color={28,108,200}));
connect(CW_T_out_sensor.C_out, cold_sink.C_in) annotation (Line(points={{437,60},{455,60}}, color={28,108,200}));
connect(condenser.C_cold_out, CW_T_out_sensor.C_in) annotation (Line(points={{407.69,59.679},{407.69,60},{423,60}}, color={28,108,200}));
- connect(LP_reheater_drains_control_valve.C_out, condenser.C_hot_in) annotation (Line(points={{298,-119.818},{400,-119.818},{400,-120},{500,-120},{500,100},{392.5,100},{392.5,74.2864}},
- color={28,108,200}));
- connect(HP_reheater_drains_control_valve.C_out, deaerator_outlet_pipe.C_in) annotation (Line(points={{16,-121.818},{78,-121.818},{78,-122},{142,-122},{142,-70},{114,-70}}, color={28,108,200}));
- connect(steam_generator.purge_outlet, Q_purge_sensor.C_in) annotation (Line(points={{-170,-115.233},{-170,-125}}, color={28,108,200}));
+ connect(LP_reheater_drains_control_valve.C_out, condenser.C_hot_in) annotation (Line(points={{298,
+ -119.818},{400,-119.818},{400,-120},{500,-120},{500,100},{392.5,100},
+ {392.5,74.2864}}, color={28,108,200}));
+ connect(HP_reheater_drains_control_valve.C_out, deaerator_outlet_pipe.C_in) annotation (Line(points={{16,
+ -121.818},{78,-121.818},{78,-122},{142,-122},{142,-70},{114,-70}}, color={28,108,200}));
+ connect(steam_generator.purge_outlet, Q_purge_sensor.C_in) annotation (Line(points={{-170,
+ -115.233},{-170,-125}}, color={28,108,200}));
connect(Q_feedwater_sensor.C_out, loopBreaker.C_in) annotation (Line(points={{-118,-70},{-132,-70}}, color={28,108,200}));
connect(loopBreaker.C_out, steam_generator.feedwater_inlet) annotation (Line(points={{-152,-70},{-159,-70}}, color={28,108,200}));
connect(Q_purge_sensor.C_out, sink.C_in) annotation (Line(points={{-170,-139},{-170,-145}}, color={28,108,200}));
diff --git a/MetroscopeModelingLibrary/Examples/Nuclear/MetroscopiaNPP/MetroscopiaNPP_faulty.mo b/MetroscopeModelingLibrary/Examples/Nuclear/MetroscopiaNPP/MetroscopiaNPP_faulty.mo
index 7f7ede29..1835785c 100644
--- a/MetroscopeModelingLibrary/Examples/Nuclear/MetroscopiaNPP/MetroscopiaNPP_faulty.mo
+++ b/MetroscopeModelingLibrary/Examples/Nuclear/MetroscopiaNPP/MetroscopiaNPP_faulty.mo
@@ -79,24 +79,30 @@ equation
bypass_HP_heater_drains_to_condenser.Q = Fault_bypass_HP_heater_drains_to_condenser_Q + 1e-3;
connect(bypass_HP_turbine_to_condenser.C_out, bypass_HP_control_valve_to_condenser.C_out) annotation (Line(points={{-113,42},{-113,32},{-147,32},{-147,42}}, color={217,67,180}));
- connect(bypass_HP_turbine_to_condenser.C_out, condenser.C_hot_in) annotation (Line(points={{-113,42},{-113,32},{320,32},{320,100},{392.5,100},{392.5,74.2864}},
- color={217,67,180}));
- connect(bypass_LP_turbine_to_condenser.C_out, condenser.C_hot_in) annotation (Line(points={{139,100},{140,100},{140,86},{158,86},{158,32},{320,32},{320,100},{392.5,100},{392.5,74.2864}},
- color={217,67,180}));
- connect(bypass_superheater_to_condenser.C_in, superheater_control_valve.C_out) annotation (Line(points={{-113,134},{-113,112.182},{-126,112.182}}, color={217,67,180}));
- connect(bypass_superheater_to_condenser.C_out, condenser.C_hot_in) annotation (Line(points={{-113,152},{-112,152},{-112,192},{392.5,192},{392.5,74.2864}},
- color={217,67,180}));
- connect(bypass_HP_turbine_ext_to_condenser.C_out, condenser.C_hot_in) annotation (Line(points={{-2,49},{4,49},{4,32},{320,32},{320,100},{392.5,100},{392.5,74.2864}},
- color={217,67,180}));
- connect(bypass_LP_heater_drains_to_condenser.C_out, condenser.C_hot_in) annotation (Line(points={{277,-150},{278,-150},{278,-162},{472,-162},{472,100},{392.5,100},{392.5,74.2864}},
- color={217,67,180}));
- connect(bypass_HP_heater_drains_to_condenser.C_out, condenser.C_hot_in) annotation (Line(points={{-16,-153},{-16,-162},{472,-162},{472,100},{392.5,100},{392.5,74.2864}},
- color={217,67,180}));
+ connect(bypass_HP_turbine_to_condenser.C_out, condenser.C_hot_in) annotation (Line(points={{-113,42},
+ {-113,32},{320,32},{320,100},{392.5,100},{392.5,74.2864}}, color={217,67,180}));
+ connect(bypass_LP_turbine_to_condenser.C_out, condenser.C_hot_in) annotation (Line(points={{139,100},
+ {140,100},{140,86},{158,86},{158,32},{320,32},{320,100},{392.5,100},{
+ 392.5,74.2864}}, color={217,67,180}));
+ connect(bypass_superheater_to_condenser.C_in, superheater_control_valve.C_out) annotation (Line(points={{-113,
+ 134},{-113,112.182},{-126,112.182}}, color={217,67,180}));
+ connect(bypass_superheater_to_condenser.C_out, condenser.C_hot_in) annotation (Line(points={{-113,
+ 152},{-112,152},{-112,192},{392.5,192},{392.5,74.2864}}, color={217,67,180}));
+ connect(bypass_HP_turbine_ext_to_condenser.C_out, condenser.C_hot_in) annotation (Line(points={{-2,49},
+ {4,49},{4,32},{320,32},{320,100},{392.5,100},{392.5,74.2864}}, color={217,67,180}));
+ connect(bypass_LP_heater_drains_to_condenser.C_out, condenser.C_hot_in) annotation (Line(points={{277,
+ -150},{278,-150},{278,-162},{472,-162},{472,100},{392.5,100},{392.5,
+ 74.2864}}, color={217,67,180}));
+ connect(bypass_HP_heater_drains_to_condenser.C_out, condenser.C_hot_in) annotation (Line(points={{-16,
+ -153},{-16,-162},{472,-162},{472,100},{392.5,100},{392.5,74.2864}}, color={217,67,180}));
connect(bypass_LP_turbine_to_condenser.C_in, LPT1.C_in) annotation (Line(points={{139,118},{140,118},{140,130},{151,130}}, color={217,67,180}));
connect(bypass_HP_turbine_ext_to_condenser.C_in, HP_extract_P_sensor.C_in) annotation (Line(points={{-20,49},{-28,49},{-28,58},{-40,58},{-40,54}}, color={28,108,200}));
- connect(bypass_HP_control_valve_to_condenser.C_in, HP_control_valve.C_in) annotation (Line(points={{-147,60},{-148,60},{-148,72},{-135,72}}, color={28,108,200}));
+ connect(bypass_HP_control_valve_to_condenser.C_in, HP_control_valve.C_in) annotation (Line(points={{-147,60},
+ {-148,60},{-148,72},{-135,72}}, color={28,108,200}));
connect(bypass_HP_turbine_to_condenser.C_in, HPT_P_in_sensor.C_in) annotation (Line(points={{-113,60},{-113,72},{-106,72}}, color={28,108,200}));
- connect(bypass_LP_heater_drains_to_condenser.C_in, LP_reheater_drains_control_valve.C_in) annotation (Line(points={{277,-132},{276,-132},{276,-119.818},{288,-119.818}}, color={217,67,180}));
- connect(bypass_HP_heater_drains_to_condenser.C_in, HP_reheater_drains_control_valve.C_in) annotation (Line(points={{-16,-135},{-16,-121.818},{6,-121.818}}, color={28,108,200}));
+ connect(bypass_LP_heater_drains_to_condenser.C_in, LP_reheater_drains_control_valve.C_in) annotation (Line(points={{277,
+ -132},{276,-132},{276,-119.818},{288,-119.818}}, color={217,67,180}));
+ connect(bypass_HP_heater_drains_to_condenser.C_in, HP_reheater_drains_control_valve.C_in) annotation (Line(points={{-16,
+ -135},{-16,-121.818},{6,-121.818}}, color={28,108,200}));
annotation (Icon(coordinateSystem(preserveAspectRatio=false)), Diagram(coordinateSystem(preserveAspectRatio=false)));
end MetroscopiaNPP_faulty;
diff --git a/MetroscopeModelingLibrary/Examples/Nuclear/MetroscopiaNPP/MetroscopiaNPP_internal_ramp_direct.mo b/MetroscopeModelingLibrary/Examples/Nuclear/MetroscopiaNPP/MetroscopiaNPP_internal_ramp_direct.mo
index 31ab1076..ccf9f26e 100644
--- a/MetroscopeModelingLibrary/Examples/Nuclear/MetroscopiaNPP/MetroscopiaNPP_internal_ramp_direct.mo
+++ b/MetroscopeModelingLibrary/Examples/Nuclear/MetroscopiaNPP/MetroscopiaNPP_internal_ramp_direct.mo
@@ -245,22 +245,22 @@ model MetroscopiaNPP_internal_ramp_direct
T_0=425.15,
h_0=640e3) annotation (Placement(transformation(extent={{288,-122},{298,-110}})));
MetroscopeModelingLibrary.Sensors.Outline.OpeningSensor LP_reheater_drains_control_valve_opening_sensor annotation (Placement(transformation(extent={{288,-106},{298,-96}})));
- MetroscopeModelingLibrary.WaterSteam.Pipes.Pipe deaerator_inlet_pipe(
+ MetroscopeModelingLibrary.WaterSteam.Pipes.FrictionPipe deaerator_inlet_pipe(
P_in_0=600000,
P_out_0=550000,
Q_0=1060,
T_0=338.15,
- h_0=272e3) annotation (Placement(transformation(extent={{186,-80},{166,-60}})));
+ h_0=272e3) annotation (Placement(transformation(extent={{186,-80},{166,-60}})));
MetroscopeModelingLibrary.WaterSteam.Pipes.PressureCut steam_dryer_liq_out_pipe annotation (Placement(transformation(
extent={{10,-10},{-10,10}},
rotation=90,
origin={142,-50})));
- MetroscopeModelingLibrary.WaterSteam.Pipes.Pipe deaerator_outlet_pipe(
+ MetroscopeModelingLibrary.WaterSteam.Pipes.FrictionPipe deaerator_outlet_pipe(
P_in_0=550000,
P_out_0=600000,
Q_0=1500,
T_0=350.05,
- h_0=322e3) annotation (Placement(transformation(extent={{114,-80},{94,-60}})));
+ h_0=322e3) annotation (Placement(transformation(extent={{114,-80},{94,-60}})));
WaterSteam.Machines.FixedSpeedPump feedwater_pump(
T_in_0=350.05,
T_out_0=353.15,
diff --git a/MetroscopeModelingLibrary/Examples/Nuclear/MetroscopiaNPP/MetroscopiaNPP_reverse.mo b/MetroscopeModelingLibrary/Examples/Nuclear/MetroscopiaNPP/MetroscopiaNPP_reverse.mo
index f30efa4e..8017509a 100644
--- a/MetroscopeModelingLibrary/Examples/Nuclear/MetroscopiaNPP/MetroscopiaNPP_reverse.mo
+++ b/MetroscopeModelingLibrary/Examples/Nuclear/MetroscopiaNPP/MetroscopiaNPP_reverse.mo
@@ -1,228 +1,6 @@
within MetroscopeModelingLibrary.Examples.Nuclear.MetroscopiaNPP;
model MetroscopiaNPP_reverse
-
- // Boundary Conditions
-
- input Real P_steam(start = 50, unit="bar", min=0, nominal=50) "barA"; // Steam generator steam pressure
- input Real CW_P_in(start = 3, unit="bar", min=0, nominal=5) "barA"; // Circulating Water inlet pressure
- input Real CW_T_in(start = 15, unit="degC", min=0, nominal=15) "degC"; // Circulating Water inlet temperature
- input Real Q_purge(start=5, unit = "kg/s", min=0) "kg/s"; // Steam generator blowdown flow
- input Real thermal_power(start=2820, unit="MW", nominal = 1e3) "MW"; // Core thermal power
-
- // Observables used for calibration
-
- // HP Control Valve
- input Real HP_control_valve_opening(start=0.15);
- // HP turbines
- input Real HPT_P_in(start=48.5, unit="bar", min=0, nominal=50) "barA";
- input Real HP_extract_P(start=31, unit="bar", min=0, nominal=50) "barA";
- input Real HPT_P_out(start=19.4, unit="bar", min=0, nominal=50) "barA";
- // Superheater
- input Real superheater_bleed_P(start=41, unit="bar", min=0, nominal=50) "barA";
- input Real superheater_drains_P(start=40, unit="bar", min=0, nominal=50) "barA";
- input Real superheater_T_out(start=228) "°C"; // superheater_Kth
- // LP turbines
- input Real LP_extract_P(start=5, unit="bar", min=0, nominal=5) "barA";
- // Condenser
- input Real P_cond(start=69.8, unit="mbar", min=0, nominal=70) "mbar";
- input Real CW_T_out(start=25, unit= "degC", min=0, nominal = 25) "degC";
- // Generator
- input Real W_elec(start=570) "MW"; //
- // Extraction pump
- input Real extraction_pump_P_out(start=7, unit="bar", min=0, nominal=70) "barA";
- input Real extraction_pump_T_out(start=39, unit="degC", min=0, nominal=20) "degC";
- // LP Heater
- input Real LP_heater_P_out(start=6, min=0, nominal=50) "bar"; // LP_heater_Kfr_cold
- input Real LP_heater_T_out(start=65, min=0, nominal=100) "degC"; // LP_heater_Kth
- // LP reheater drains Control Valve
- input Real LP_reheater_drains_control_valve_opening(start=0.15);
- // Feedwater pump
- input Real HP_pump_P_out(start=59, unit="bar", min=0, nominal=70) "barA";
- input Real HP_pump_T_out(start=80, unit="degC", min=0, nominal=20) "degC";
- // HP Reheater
- input Real HP_heater_P_out(start=58, min=0, nominal=50) "bar";
- input Real HP_heater_T_out(start=210, min=0, nominal=100) "degC";
- input Real HP_heater_T_drains(start=90, min=0, nominal=100) "degC";
- // HP reheater drains Control Valve
- input Real HP_reheater_drains_control_valve_opening(start=0.15);
-
- // Other observables
- output Real Q_feedwater(start=1500, unit="kg/s", min=0, nominal=1e3) "kg/s"; // Feedwater flow rate
-
- // Calibrated parameters (input used for calibration in comment)
- // HP turbines inlet control valve
- output Utilities.Units.Cv HP_control_valve_Cvmax; // HP valve opening
- // HP Turbines
- output Utilities.Units.Cst HPT1_Cst; // HP turbine inlet pressure
- output Utilities.Units.Cst HPT2_Cst; // HP extract pressure
- output Utilities.Units.Yield turbines_eta_is; // Welec
- // Superheater inlet control valve
- output Utilities.Units.Cv superheater_control_valve_Cvmax; // Superheater bleed pressure
- // Superheater
- output Utilities.Units.FrictionCoefficient superheater_Kfr_hot; // Superheater drains pressure
- output Utilities.Units.HeatExchangeCoefficient superheater_Kth; // Superheater steam outlet temperature
- // LP Turbines
- output Utilities.Units.Cst LPT1_Cst; // HP turbine outlet pressure
- output Utilities.Units.Cst LPT2_Cst; // LP extract pressure
- // Condenser
- output Utilities.Units.HeatExchangeCoefficient condenser_Kth; // P cond
- output Utilities.Units.PositiveMassFlowRate condenser_Q_cold; // Circulating water outlet temperature
- // Extraction pump
- output Real extraction_pump_hn; // Extraction pump outlet pressure
- output Real extraction_pump_rh; // Extraction pump outlet temperature
- // LP Heater
- output Utilities.Units.HeatExchangeCoefficient LP_heater_Kth; // LP heater outlet temperature
- output Utilities.Units.FrictionCoefficient LP_heater_Kfr_cold; // LP heater outlet pressure
- output Utilities.Units.Cv LP_heater_drains_control_valve_Cvmax; // LP heater drains valve opening
- // Feedwater pump
- output Real feedwater_pump_hn; // Feedwater pump outlet pressure
- output Real feedwater_pump_rh; // Feedwater pump outlet temperature
- // HP Heater
- output Utilities.Units.HeatExchangeCoefficient HP_heater_Kth_cond; // HP heater outlet temperature
- output Utilities.Units.HeatExchangeCoefficient HP_heater_Kth_subc; // HP heater drains temperature
- output Utilities.Units.FrictionCoefficient HP_heater_Kfr_cold; // HP heater outlet pressure
- output Utilities.Units.Cv HP_heater_drains_control_valve_Cvmax; // HP heater drains valve opening
-
- MetroscopeModelingLibrary.WaterSteam.HeatExchangers.SteamGenerator steam_generator annotation (Placement(transformation(extent={{-192,-116},{-148,-24}})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.FlowSensor Q_feedwater_sensor(
- Q_0=1500,
- P_0=5800000,
- h_0=0.9e6) annotation (Placement(transformation(extent={{-104,-77},{-118,-63}})));
- MetroscopeModelingLibrary.WaterSteam.Pipes.ControlValve HP_control_valve(
- T_out_0=535.15,
- P_in_0=5000000,
- P_out_0=4850000,
- h_in_0=2.8e6,
- h_out_0=2.8e6,
- Q_0=1455,
- T_0=536.15,
- h_0=2.8e6) annotation (Placement(transformation(extent={{-135,69.8182},{-125,81.8182}})));
- MetroscopeModelingLibrary.Sensors.Outline.OpeningSensor HP_control_valve_opening_sensor annotation (Placement(transformation(extent={{-136,86},{-126,96}})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.PressureSensor HPT_P_in_sensor(
- Q_0=1455,
- P_0=4850000,
- h_0=2.8e6) annotation (Placement(transformation(extent={{-106,66},{-94,78}})));
- MetroscopeModelingLibrary.WaterSteam.Machines.SteamTurbine HPT_1(
- T_in_0=535.15,
- T_out_0=608.85,
- P_in_0=4850000,
- P_out_0=3100000,
- h_in_0=2.8e6,
- h_out_0=2.7e6,
- Q_0=1455) annotation (Placement(transformation(extent={{-79,64},{-61,80}})));
- MetroscopeModelingLibrary.WaterSteam.Machines.SteamTurbine HPT_2(
- T_in_0=508.85,
- T_out_0=484.15,
- P_in_0=3100000,
- P_out_0=1940000,
- h_in_0=2.73e6,
- h_out_0=2.68e6,
- Q_0=1113) annotation (Placement(transformation(extent={{-9,64},{9,80}})));
- MetroscopeModelingLibrary.WaterSteam.Pipes.SteamExtractionSplitter HP_extract(
- Q_in_0=1455,
- Q_ext_0=340,
- P_0=3100000,
- T_0=508.85,
- h_0=2.73e6) annotation (Placement(transformation(extent={{-50,62},{-30,80}})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.PressureSensor HP_extract_P_sensor(
- Q_0=340,
- P_0=3100000,
- h_0=2.73e6) annotation (Placement(transformation(
- extent={{-7,-7},{7,7}},
- rotation=270,
- origin={-40,47})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.PressureSensor HPT_P_out_sensor(
- Q_0=1113,
- P_0=1940000,
- h_0=2.68e6) annotation (Placement(transformation(extent={{26,66},{38,78}})));
- MetroscopeModelingLibrary.WaterSteam.Volumes.SteamDryer steam_dryer(
- P_0=1940000,
- T_0=483.95,
- h_in_0=2.68e6,
- Q_in_0=1113,
- Q_liq_0=50) annotation (Placement(transformation(extent={{56,79.8182},{72,97.8182}})));
- MetroscopeModelingLibrary.WaterSteam.HeatExchangers.Superheater superheater(
- Q_cold_0=1059,
- Q_hot_0=44,
- P_cold_in_0=1940000,
- P_cold_out_0=1940000,
- P_hot_in_0=4100000,
- P_hot_out_0=4000000,
- T_cold_in_0=483.95,
- T_cold_out_0=501.15,
- T_hot_in_0=525.15,
- T_hot_out_0=525.15,
- h_cold_in_0=2.78e6,
- h_cold_out_0=2.85e6,
- h_hot_in_0=2.8e6,
- h_hot_out_0=1.09e6) annotation (Placement(transformation(extent={{56,104},{88,120}})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.PressureSensor superheater_drains_P_sensor(
- Q_0=44,
- P_0=4000000,
- h_0=1.09e6) annotation (Placement(transformation(extent={{100,106},{112,118}})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.TemperatureSensor superheater_T_out_sensor(
- Q_0=1060,
- P_0=1940000,
- h_0=2.85e6,
- T_0=501.15) annotation (Placement(transformation(extent={{88,124},{100,136}})));
- MetroscopeModelingLibrary.WaterSteam.Pipes.ControlValve superheater_control_valve(
- P_in_0=5000000,
- P_out_0=4100000,
- h_in_0=2.778e6,
- h_out_0=2.778e6,
- Q_0=45,
- T_0=537.15,
- h_0=2.8e6) annotation (Placement(transformation(extent={{-136,110},{-126,122}})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.PressureSensor superheater_bleed_P_sensor(
- Q_0=45,
- P_0=4100000,
- h_0=2.778e6) annotation (Placement(transformation(extent={{-106,106.182},{-94,118.182}})));
- MetroscopeModelingLibrary.WaterSteam.Pipes.PressureCut superheater_drains_pipe(
- P_in_0=4000000,
- P_out_0=3100000,
- Q_0=44,
- T_0=525.15,
- h_0=1.09e6) annotation (Placement(transformation(
- extent={{10,-10},{-10,10}},
- rotation=90,
- origin={122,30})));
- MetroscopeModelingLibrary.WaterSteam.Machines.SteamTurbine LPT1(
- T_in_0=501.15,
- T_out_0=425.15,
- P_in_0=1940000,
- P_out_0=500000,
- h_in_0=2.85e6,
- h_out_0=2.7e6,
- Q_0=1060) annotation (Placement(transformation(extent={{151,122},{169,138}})));
- MetroscopeModelingLibrary.WaterSteam.Machines.SteamTurbine LPT2(
- T_in_0=425.15,
- T_out_0=312.05,
- P_in_0=500000,
- P_out_0=6900,
- h_in_0=2.7e6,
- h_out_0=2.4e6,
- Q_0=1000) annotation (Placement(transformation(extent={{221,122},{239,138}})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.PressureSensor LP_extract_P_sensor(
- Q_0=55,
- P_0=500000,
- h_0=2.7e6) annotation (Placement(transformation(
- extent={{-7,-7},{7,7}},
- rotation=270,
- origin={196,111})));
- MetroscopeModelingLibrary.WaterSteam.Pipes.SteamExtractionSplitter LP_extract(
- Q_in_0=1060,
- Q_ext_0=55,
- P_0=500000,
- T_0=425.15,
- h_0=2.7e6) annotation (Placement(transformation(extent={{186,120},{206,138}})));
- MetroscopeModelingLibrary.Power.BoundaryConditions.Sink powerSink annotation (Placement(transformation(extent={{362,158},{382,178}})));
- MetroscopeModelingLibrary.Power.Machines.Generator generator annotation (Placement(transformation(extent={{308,156},{348,180}})));
- MetroscopeModelingLibrary.Sensors.Power.PowerSensor W_elec_sensor annotation (Placement(transformation(extent={{348,162},{360,174}})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.PressureSensor P_cond_sensor(
- Q_0=1000,
- P_0=6900,
- h_0=2.4e6) annotation (Placement(transformation(extent={{286,124},{298,136}})));
- MetroscopeModelingLibrary.WaterSteam.HeatExchangers.Condenser condenser(
+ WaterSteam.HeatExchangers.Condenser condenser(
Q_cold_0=54000,
Q_hot_0=1000,
Psat_0=6980,
@@ -232,12 +10,74 @@ model MetroscopiaNPP_reverse
T_cold_out_0=298.15,
h_cold_in_0=63e3,
h_cold_out_0=105e3,
- h_hot_in_0=2.4e6) annotation (Placement(transformation(extent={{377,48.2222},{408,74}})));
- MetroscopeModelingLibrary.WaterSteam.BoundaryConditions.Sink cold_sink annotation (Placement(transformation(
+ h_hot_in_0=2.4e6) annotation (Placement(transformation(extent={{4.5,
+ 8.5432},{35.5,34.321}})));
+ WaterSteam.BoundaryConditions.Sink cold_sink annotation (Placement(transformation(
extent={{-10,-10},{10,10}},
rotation=0,
- origin={460,60})));
- MetroscopeModelingLibrary.WaterSteam.BoundaryConditions.Source cold_source annotation (Placement(transformation(extent={{290,57.7778},{310,77.7778}})));
+ origin={90,20})));
+ WaterSteam.BoundaryConditions.Source cold_source annotation (Placement(transformation(extent={{-90,10},
+ {-70,30}})));
+ Sensors_Control.WaterSteam.TemperatureSensor CW_T_in_sensor(
+ Q_0=54000,
+ P_0=300000,
+ h_0=63e3,
+ sensor_function="BC",
+ T_0=288.15) annotation (Placement(transformation(extent={{-57,13},
+ {-43,27}})));
+ Sensors_Control.WaterSteam.PressureSensor CW_P_in_sensor(
+ Q_0=54000,
+ P_0=300000,
+ h_0=63e3,
+ sensor_function="BC") annotation (Placement(transformation(extent={{-27,13},
+ {-13,27}})));
+ Sensors_Control.WaterSteam.TemperatureSensor CW_T_out_sensor(
+ Q_0=54000,
+ P_0=300000,
+ h_0=105e3,
+ sensor_function="Calibration",
+ causality="condenser_Q_cold",
+ T_0=298.15) annotation (Placement(transformation(extent={{53,13},
+ {67,27}})));
+ Utilities.Interfaces.RealInput CW_T_in(start=15)
+ annotation (Placement(transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-50,36}), iconTransformation(extent={{-170,22},{-130,62}})));
+ Utilities.Interfaces.RealInput CW_P_in(start=3)
+ annotation (Placement(transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-20,36}), iconTransformation(extent={{-170,22},{-130,62}})));
+ Utilities.Interfaces.RealInput CW_T_out(start=25)
+ annotation (Placement(transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={60,36}), iconTransformation(extent={{-154,38},{-134,58}})));
+ Utilities.Interfaces.RealOutput condenser_Kth annotation (Placement(
+ transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=-90,
+ origin={10,62}),iconTransformation(extent={{-160,20},{-140,40}})));
+ Utilities.Interfaces.RealOutput condenser_Q_cold annotation (Placement(
+ transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-2,54}), iconTransformation(extent={{-174,14},{-154,34}})));
+ Sensors_Control.WaterSteam.PressureSensor P_cond_sensor(
+ Q_0=1000,
+ P_0=6900,
+ h_0=2.4e6,
+ sensor_function="Calibration",
+ causality="condenser_Kth",
+ display_unit="mbar",
+ signal_unit="mbar") annotation (Placement(transformation(extent={{-88,114},
+ {-76,126}})));
+ Utilities.Interfaces.RealInput P_cond(start=69.8) annotation (Placement(
+ transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-82,136}), iconTransformation(extent={{-170,22},{-130,62}})));
WaterSteam.Machines.FixedSpeedPump extraction_pump(
T_in_0=312.05,
T_out_0=312.15,
@@ -245,17 +85,92 @@ model MetroscopiaNPP_reverse
P_out_0=700000,
h_in_0=163e3,
h_out_0=164e3,
- Q_0=1060) annotation (Placement(transformation(extent={{380,-78},{364,-62}})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.TemperatureSensor extraction_pump_T_out_sensor(
+ Q_0=1060) annotation (Placement(transformation(extent={{-24,-68},
+ {-40,-52}})));
+ Sensors_Control.WaterSteam.TemperatureSensor extraction_pump_T_out_sensor(
Q_0=1060,
P_0=700000,
h_0=164e3,
- T_0=312.15) annotation (Placement(transformation(extent={{350,-77},{336,-63}})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.PressureSensor extraction_pump_P_out_sensor(
+ sensor_function="Calibration",
+ causality="extraction_pump_rh",
+ T_0=312.15) annotation (Placement(transformation(extent={{-53,-67},
+ {-67,-53}})));
+ Sensors_Control.WaterSteam.PressureSensor extraction_pump_P_out_sensor(
Q_0=1060,
P_0=700000,
- h_0=164e3) annotation (Placement(transformation(extent={{7,-7},{-7,7}}, origin={315,-70})));
- MetroscopeModelingLibrary.WaterSteam.HeatExchangers.DryReheater LP_heater(
+ h_0=164e3,
+ sensor_function="Calibration",
+ causality="extraction_pump_hn") annotation (Placement(transformation(extent={{7,-7},{-7,7}}, origin={-80,-60})));
+ Utilities.Interfaces.RealInput extraction_pump_P_out(start=7) annotation (
+ Placement(transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-80,-44}), iconTransformation(extent={{-170,22},{-130,62}})));
+ Utilities.Interfaces.RealInput extraction_pump_T_out(start=39) annotation (
+ Placement(transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-60,-44}), iconTransformation(extent={{-170,22},{-130,62}})));
+ Utilities.Interfaces.RealOutput extraction_pump_hn annotation (Placement(
+ transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-22,-44}), iconTransformation(extent={{-174,14},{-154,34}})));
+ Utilities.Interfaces.RealOutput extraction_pump_rh annotation (Placement(
+ transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-14,-42}), iconTransformation(extent={{-174,14},{-154,34}})));
+ WaterSteam.Machines.SteamTurbine LPT2(
+ T_in_0=425.15,
+ T_out_0=312.05,
+ P_in_0=500000,
+ P_out_0=6900,
+ h_in_0=2.7e6,
+ h_out_0=2.4e6,
+ Q_0=1000) annotation (Placement(transformation(extent={{-145,112},{-127,128}})));
+ Utilities.Interfaces.RealOutput LPT2_Cst annotation (Placement(transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-142,134}), iconTransformation(extent={{-174,14},{-154,34}})));
+ Utilities.Interfaces.RealOutput turbines_eta_is annotation (Placement(
+ transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-370,154}), iconTransformation(extent={{-174,14},{-154,34}})));
+ Power.BoundaryConditions.Sink powerSink annotation (Placement(transformation(extent={{-54,150},
+ {-34,170}})));
+ Power.Machines.Generator generator annotation (Placement(transformation(extent={{-108,
+ 148},{-68,172}})));
+ Sensors_Control.Power.PowerSensor W_elec_sensor annotation (Placement(transformation(extent={{-68,154},
+ {-56,166}})));
+ Utilities.Interfaces.RealInput W_elec(start=570) annotation (Placement(
+ transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-62,174}), iconTransformation(extent={{-170,22},{-130,62}})));
+ WaterSteam.Pipes.SteamExtractionSplitter LP_extract(
+ Q_in_0=1060,
+ Q_ext_0=55,
+ P_0=500000,
+ T_0=425.15,
+ h_0=2.7e6) annotation (Placement(transformation(extent={{-210,
+ 110},{-190,128}})));
+ Sensors_Control.WaterSteam.PressureSensor LP_extract_P_sensor(
+ Q_0=55,
+ P_0=500000,
+ h_0=2.7e6,
+ sensor_function="Calibration",
+ causality="LPT2_Cst") annotation (Placement(transformation(
+ extent={{-7,-7},{7,7}},
+ rotation=270,
+ origin={-200,92})));
+ Utilities.Interfaces.RealInput LP_extract_P(start=5) annotation (Placement(
+ transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=180,
+ origin={-180,92}), iconTransformation(extent={{-170,22},{-130,62}})));
+ WaterSteam.HeatExchangers.DryReheater LP_heater(
Q_cold_0=1060,
Q_hot_0=55,
P_cold_in_0=700000,
@@ -269,44 +184,98 @@ model MetroscopiaNPP_reverse
h_cold_in_0=164e3,
h_cold_out_0=272e3,
h_hot_in_0=2.7e6,
- h_hot_out_0=640e3) annotation (Placement(transformation(extent={{284,-78},{252,-62}})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.TemperatureSensor LP_heater_T_out_sensor(
+ h_hot_out_0=640e3) annotation (Placement(transformation(extent={{-184,
+ -68},{-216,-52}})));
+ Sensors_Control.WaterSteam.TemperatureSensor LP_heater_T_out_sensor(
Q_0=1060,
P_0=700000,
h_0=272e3,
- T_0=338.15) annotation (Placement(transformation(extent={{220,-77},{206,-63}})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.PressureSensor LP_heater_P_out_sensor(
+ sensor_function="Calibration",
+ causality="LP_heater_Kth",
+ T_0=338.15) annotation (Placement(transformation(extent={{-253,
+ -67},{-267,-53}})));
+ Sensors_Control.WaterSteam.PressureSensor LP_heater_P_out_sensor(
Q_0=1060,
P_0=700000,
- h_0=272e3) annotation (Placement(transformation(extent={{242,-77},{228,-63}})));
- MetroscopeModelingLibrary.WaterSteam.Pipes.ControlValve LP_reheater_drains_control_valve(
+ h_0=272e3,
+ sensor_function="Calibration",
+ causality="LP_heater_Kfr_cold") annotation (Placement(transformation(extent={{-223,
+ -67},{-237,-53}})));
+ Utilities.Interfaces.RealInput LP_heater_P_out(start=6) annotation (Placement(
+ transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-230,-44}), iconTransformation(extent={{-170,22},{-130,62}})));
+ Utilities.Interfaces.RealInput LP_heater_T_out(start=65) annotation (
+ Placement(transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-260,-44}), iconTransformation(extent={{-170,22},{-130,62}})));
+ Utilities.Interfaces.RealOutput LP_heater_Kfr_cold annotation (Placement(
+ transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-174,-42}), iconTransformation(extent={{-328,-88},{-308,-68}})));
+ Utilities.Interfaces.RealOutput LP_heater_Kth annotation (Placement(
+ transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-192,-40}), iconTransformation(extent={{-328,-88},{-308,-68}})));
+ WaterSteam.Pipes.ControlValve LP_reheater_drains_control_valve(
P_in_0=500000,
P_out_0=6900,
Q_0=55,
T_0=425.15,
- h_0=640e3) annotation (Placement(transformation(extent={{288,-122},{298,-110}})));
- MetroscopeModelingLibrary.Sensors.Outline.OpeningSensor LP_reheater_drains_control_valve_opening_sensor annotation (Placement(transformation(extent={{288,-106},{298,-96}})));
- MetroscopeModelingLibrary.WaterSteam.Pipes.Pipe deaerator_inlet_pipe(
- P_in_0=600000,
- P_out_0=550000,
- Q_0=1060,
- T_0=338.15,
- h_0=272e3) annotation (Placement(transformation(extent={{186,-80},{166,-60}})));
- MetroscopeModelingLibrary.WaterSteam.Pipes.PressureCut steam_dryer_liq_out_pipe(
+ h_0=640e3) annotation (Placement(transformation(extent={{-145,
+ -102.182},{-135,-90.182}})));
+ Sensors_Control.Outline.OpeningSensor LP_reheater_drains_control_valve_opening_sensor(
+ output_signal_unit="%") annotation (Placement(transformation(extent={{-145,
+ -87},{-135,-77}})));
+ Utilities.Interfaces.RealInput LP_reheater_drains_control_valve_opening(start=15)
+ annotation (Placement(transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-140,-70}), iconTransformation(extent={{-170,22},{-130,62}})));
+ Utilities.Interfaces.RealOutput LP_heater_drains_control_valve_Cvmax
+ annotation (Placement(transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-150,-78}), iconTransformation(extent={{-328,-88},{-308,-68}})));
+ WaterSteam.Machines.SteamTurbine LPT1(
+ T_in_0=501.15,
+ T_out_0=425.15,
P_in_0=1940000,
- P_out_0=1940000,
- Q_0=50,
- T_0=483.95,
- h_0=901606.56) annotation (Placement(transformation(
- extent={{10,-10},{-10,10}},
- rotation=90,
- origin={142,-50})));
- MetroscopeModelingLibrary.WaterSteam.Pipes.Pipe deaerator_outlet_pipe(
- P_in_0=550000,
- P_out_0=600000,
- Q_0=1500,
- T_0=350.05,
- h_0=322e3) annotation (Placement(transformation(extent={{114,-80},{94,-60}})));
+ P_out_0=500000,
+ h_in_0=2.85e6,
+ h_out_0=2.7e6,
+ Q_0=1060) annotation (Placement(transformation(extent={{-281,112},{-263,128}})));
+ Sensors_Control.WaterSteam.TemperatureSensor superheater_T_out_sensor(
+ Q_0=1060,
+ P_0=1940000,
+ h_0=2.85e6,
+ T_0=501.15) annotation (Placement(transformation(extent={{-346,
+ 114},{-334,126}})));
+ Utilities.Interfaces.RealOutput LPT1_Cst annotation (Placement(transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-278,134}), iconTransformation(extent={{-174,14},{-154,34}})));
+ Utilities.Interfaces.RealInput superheater_T_out(start=228) annotation (
+ Placement(transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-340,136}), iconTransformation(extent={{-170,22},{-130,62}})));
+ WaterSteam.Pipes.HeightVariationPipe deaerator_inlet_pipe
+ annotation (Placement(transformation(extent={{-390,-60},{-410,-40}})));
+ Utilities.Interfaces.RealExpression deaerator_inlet_pipe_delta_z(y=5)
+ annotation (Placement(transformation(extent={{-410,-46},{-390,-26}})));
+ Utilities.Interfaces.RealExpression condenser_Kfr_cold(y=0)
+ annotation (Placement(transformation(extent={{-10,-10},{10,10}},
+ rotation=0,
+ origin={-8,40})));
+ WaterSteam.Pipes.HeightVariationPipe deaerator_outlet_pipe
+ annotation (Placement(transformation(extent={{-430,-60},{-450,-40}})));
+ Utilities.Interfaces.RealExpression deaerator_outlet_pipe_delta_z(y=-5)
+ annotation (Placement(transformation(extent={{-450,-46},{-430,-26}})));
WaterSteam.Machines.FixedSpeedPump feedwater_pump(
T_in_0=350.05,
T_out_0=353.15,
@@ -314,17 +283,44 @@ model MetroscopiaNPP_reverse
P_out_0=5900000,
h_in_0=322e3,
h_out_0=340e3,
- Q_0=1500) annotation (Placement(transformation(extent={{62,-78},{46,-62}})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.TemperatureSensor HP_pump_T_out_sensor(
+ Q_0=1500) annotation (Placement(transformation(extent={{-506,
+ -68},{-522,-52}})));
+ Utilities.Interfaces.RealOutput feedwater_pump_hn annotation (Placement(
+ transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-506,-42}), iconTransformation(extent={{-174,14},{-154,34}})));
+ Utilities.Interfaces.RealOutput feedwater_pump_rh annotation (Placement(
+ transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-502,-40}), iconTransformation(extent={{-174,14},{-154,34}})));
+ Sensors_Control.WaterSteam.PressureSensor HP_pump_P_out_sensor(
Q_0=1500,
P_0=5900000,
h_0=340e3,
- T_0=353.15) annotation (Placement(transformation(extent={{30,-77},{16,-63}})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.PressureSensor HP_pump_P_out_sensor(
+ sensor_function="Calibration",
+ causality="feedwater_pump_hn") annotation (Placement(transformation(extent={{7,-7},{-7,7}}, origin={-570,-60})));
+ Sensors_Control.WaterSteam.TemperatureSensor HP_pump_T_out_sensor(
Q_0=1500,
P_0=5900000,
- h_0=340e3) annotation (Placement(transformation(extent={{7,-7},{-7,7}}, origin={-3,-70})));
- MetroscopeModelingLibrary.WaterSteam.HeatExchangers.Reheater HP_heater(Q_cold_0=1500,
+ h_0=340e3,
+ sensor_function="Calibration",
+ causality="feedwater_pump_rh",
+ T_0=353.15) annotation (Placement(transformation(extent={{-533,
+ -67},{-547,-53}})));
+ Utilities.Interfaces.RealInput HP_pump_P_out(start=59) annotation (Placement(
+ transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-570,-44}), iconTransformation(extent={{-170,22},{-130,62}})));
+ Utilities.Interfaces.RealInput HP_pump_T_out(start=80) annotation (Placement(
+ transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-540,-44}), iconTransformation(extent={{-170,22},{-130,62}})));
+ WaterSteam.HeatExchangers.Reheater HP_heater(
+ Q_cold_0=1500,
Q_hot_0=387,
P_cold_in_0=5900000,
P_cold_out_0=5800000,
@@ -337,301 +333,671 @@ model MetroscopiaNPP_reverse
h_cold_in_0=340e3,
h_cold_out_0=0.9e6,
h_hot_in_0=2.55e6,
- h_hot_out_0=379e3) annotation (Placement(transformation(extent={{-24,-78},{-56,-62}})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.TemperatureSensor HP_heater_T_out_sensor(
+ h_hot_out_0=379e3) annotation (Placement(transformation(extent={{-624,
+ -68},{-656,-52}})));
+ Utilities.Interfaces.RealOutput HP_heater_Kfr_cold annotation (Placement(
+ transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-616,-48}), iconTransformation(extent={{-174,14},{-154,34}})));
+ Utilities.Interfaces.RealOutput HP_heater_Kth_subc annotation (Placement(
+ transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-632,-42}), iconTransformation(extent={{-174,14},{-154,34}})));
+ Utilities.Interfaces.RealOutput HP_heater_Kth_cond annotation (Placement(
+ transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-614,-70}), iconTransformation(extent={{-174,14},{-154,34}})));
+ Sensors_Control.WaterSteam.FlowSensor Q_feedwater_sensor(
Q_0=1500,
P_0=5800000,
- h_0=0.9e6) annotation (Placement(transformation(extent={{-84,-77},{-98,-63}})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.PressureSensor HP_heater_P_out_sensor(
+ h_0=0.9e6) annotation (Placement(transformation(extent={{-743,
+ -67},{-757,-53}})));
+ Sensors_Control.WaterSteam.TemperatureSensor HP_heater_T_out_sensor(
Q_0=1500,
P_0=5800000,
- h_0=0.9e6) annotation (Placement(transformation(extent={{-64,-77},{-78,-63}})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.TemperatureSensor HP_heater_T_drains_sensor(
+ h_0=0.9e6,
+ sensor_function="Calibration",
+ causality="HP_heater_Kth_subc") annotation (Placement(transformation(extent={{-723,
+ -67},{-737,-53}})));
+ Sensors_Control.WaterSteam.PressureSensor HP_heater_P_out_sensor(
+ Q_0=1500,
+ P_0=5800000,
+ h_0=0.9e6,
+ sensor_function="Calibration",
+ causality="HP_heater_Kfr_cold") annotation (Placement(transformation(extent={{-703,
+ -67},{-717,-53}})));
+ Utilities.Interfaces.RealInput HP_heater_P_out(start=50) annotation (
+ Placement(transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-710,-44}), iconTransformation(extent={{-170,22},{-130,62}})));
+ Utilities.Interfaces.RealInput HP_heater_T_out(start=100) annotation (
+ Placement(transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-730,-44}), iconTransformation(extent={{-170,22},{-130,62}})));
+ Utilities.Interfaces.RealOutput Q_feedwater(start=1200)
+ annotation (Placement(
+ transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-750,-44}), iconTransformation(extent={{-734,-82},{-714,-62}})));
+ Sensors_Control.WaterSteam.TemperatureSensor HP_heater_T_drains_sensor(
Q_0=387,
P_0=3100000,
h_0=379e3,
+ sensor_function="Calibration",
+ causality="HP_heater_Kth_cond",
T_0=363.15) annotation (Placement(transformation(
- extent={{7,-7},{-7,7}},
+ extent={{7,7},{-7,-7}},
rotation=90,
- origin={-40,-98})));
- MetroscopeModelingLibrary.WaterSteam.Pipes.ControlValve HP_reheater_drains_control_valve annotation (Placement(transformation(extent={{6,-124},{16,-112}})));
- MetroscopeModelingLibrary.Sensors.Outline.OpeningSensor HP_reheater_drains_control_valve_opening_sensor annotation (Placement(transformation(extent={{6,-108},{16,-98}})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.PressureSensor P_steam_sensor(
+ origin={-640,-86})));
+ Utilities.Interfaces.RealInput HP_heater_T_drains(start=90) annotation (
+ Placement(transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=180,
+ origin={-624,-86}), iconTransformation(extent={{-170,22},{-130,62}})));
+ WaterSteam.Pipes.ControlValve HP_reheater_drains_control_valve annotation (Placement(transformation(extent={{-565,
+ -102.182},{-555,-90.182}})));
+ Sensors_Control.Outline.OpeningSensor HP_reheater_drains_control_valve_opening_sensor(
+ output_signal_unit="%") annotation (Placement(transformation(extent={{-565,
+ -91},{-555,-81}})));
+ Utilities.Interfaces.RealOutput HP_heater_drains_control_valve_Cvmax
+ annotation (Placement(transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-570,-80}), iconTransformation(extent={{-328,-88},{-308,-68}})));
+ Utilities.Interfaces.RealInput HP_reheater_drains_control_valve_opening(start=15)
+ annotation (Placement(transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-560,-74}), iconTransformation(extent={{-170,22},{-130,62}})));
+ WaterSteam.HeatExchangers.SteamGenerator steam_generator annotation (Placement(transformation(extent={{-842,
+ -106},{-798,-14}})));
+ Sensors_Control.WaterSteam.FlowSensor Q_purge_sensor(
+ Q_0=5,
+ h_0=1154502,
+ sensor_function="BC") annotation (Placement(transformation(
+ extent={{-7,-7},{7,7}},
+ rotation=270,
+ origin={-820,-122})));
+ Sensors_Control.Power.PowerSensor thermal_power_sensor(
+ sensor_function="BC") annotation (Placement(transformation(extent={{-862,
+ -68},{-846,-52}})));
+ Sensors_Control.WaterSteam.PressureSensor P_steam_sensor(
Q_0=1500,
P_0=5000000,
- h_0=2.778e6) annotation (Placement(transformation(
- extent={{-7,-7},{7,7}},
+ h_0=2.778e6,
+ sensor_function="BC") annotation (Placement(transformation(
+ extent={{-7,7},{7,-7}},
rotation=90,
- origin={-170,10})));
- MetroscopeModelingLibrary.WaterSteam.Pipes.PressureCut pressureCut(
+ origin={-820,10})));
+ Power.BoundaryConditions.Source source annotation (Placement(transformation(extent={{-888,
+ -70},{-868,-50}})));
+ WaterSteam.BoundaryConditions.Sink sink annotation (Placement(transformation(
+ extent={{-10,-10},{10,10}},
+ rotation=270,
+ origin={-820,-140})));
+ Utilities.Interfaces.RealInput thermal_power(start=2820, nominal=1e3)
+ annotation (Placement(transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-854,-42}), iconTransformation(extent={{-170,22},{-130,62}})));
+ Utilities.Interfaces.RealInput P_steam(start=50) annotation (Placement(
+ transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=180,
+ origin={-804,10}), iconTransformation(extent={{-170,22},{-130,62}})));
+ Utilities.Interfaces.RealInput Q_purge(start=5) annotation (Placement(
+ transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=180,
+ origin={-802,-122}), iconTransformation(extent={{-170,22},{-130,62}})));
+ WaterSteam.Pipes.ControlValve HP_control_valve(
+ T_out_0=535.15,
+ P_in_0=5000000,
+ P_out_0=4850000,
+ h_in_0=2.8e6,
+ h_out_0=2.8e6,
+ Q_0=1455,
+ T_0=536.15,
+ h_0=2.8e6) annotation (Placement(transformation(extent={{-785,
+ 37.818},{-775,49.818}})));
+ Sensors_Control.Outline.OpeningSensor HP_control_valve_opening_sensor(
+ sensor_function="Calibration", causality="HP_control_valve_Cvmax") annotation (Placement(transformation(extent={{-785,51},
+ {-775,61}})));
+ Sensors_Control.WaterSteam.PressureSensor HPT_P_in_sensor(
+ Q_0=1455,
+ P_0=4850000,
+ h_0=2.8e6,
+ sensor_function="Calibration",
+ causality="HPT1_Cst") annotation (Placement(transformation(extent={{-734,34},
+ {-722,46}})));
+ Utilities.Interfaces.RealOutput HP_control_valve_Cvmax annotation (Placement(
+ transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-790,56}), iconTransformation(extent={{-328,-88},{-308,-68}})));
+ Utilities.Interfaces.RealInput HP_control_valve_opening(start=15) annotation
+ (Placement(transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-780,68}), iconTransformation(extent={{-170,22},{-130,62}})));
+ Utilities.Interfaces.RealInput HPT_P_in(start=48.5) annotation (Placement(
+ transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-728,56}), iconTransformation(extent={{-170,22},{-130,62}})));
+ WaterSteam.Machines.SteamTurbine HPT_1(
+ T_in_0=535.15,
+ T_out_0=608.85,
+ P_in_0=4850000,
+ P_out_0=3100000,
+ h_in_0=2.8e6,
+ h_out_0=2.7e6,
+ Q_0=1455) annotation (Placement(transformation(extent={{-697,32},{-679,48}})));
+ Utilities.Interfaces.RealOutput HPT1_Cst annotation (Placement(transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-694,56}), iconTransformation(extent={{-328,-88},{-308,-68}})));
+ Sensors_Control.WaterSteam.PressureSensor HP_extract_P_sensor(
+ Q_0=340,
+ P_0=3100000,
+ h_0=2.73e6,
+ sensor_function="Calibration",
+ causality="HPT2_Cst") annotation (Placement(transformation(
+ extent={{-7,-7},{7,7}},
+ rotation=270,
+ origin={-640,8})));
+ Utilities.Interfaces.RealInput HPT_extract_P(start=31) annotation (Placement(
+ transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=180,
+ origin={-624,8}), iconTransformation(extent={{-170,22},{-130,62}})));
+ WaterSteam.Pipes.SteamExtractionSplitter HP_extract(
+ Q_in_0=1455,
+ Q_ext_0=340,
+ P_0=3100000,
+ T_0=508.85,
+ h_0=2.73e6) annotation (Placement(transformation(extent={{-650,30},
+ {-630,48}})));
+ WaterSteam.Machines.SteamTurbine HPT_2(
+ T_in_0=508.85,
+ T_out_0=484.15,
+ P_in_0=3100000,
+ P_out_0=1940000,
+ h_in_0=2.73e6,
+ h_out_0=2.68e6,
+ Q_0=1113) annotation (Placement(transformation(extent={{-587,32},{-569,48}})));
+ Sensors_Control.WaterSteam.PressureSensor HPT_P_out_sensor(
+ Q_0=1113,
+ P_0=1940000,
+ h_0=2.68e6,
+ sensor_function="Calibration",
+ causality="LPT1_Cst") annotation (Placement(transformation(extent={{-466,34},
+ {-454,46}})));
+ Utilities.Interfaces.RealInput HPT_extract_P1(start=19.4)
+ annotation (Placement(
+ transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-460,56}), iconTransformation(extent={{-170,22},{-130,62}})));
+ Utilities.Interfaces.RealOutput HPT2_Cst annotation (Placement(transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-584,58}), iconTransformation(extent={{-328,-88},{-308,-68}})));
+ WaterSteam.Volumes.SteamDryer steam_dryer(
+ P_0=1940000,
+ T_0=483.95,
+ h_in_0=2.68e6,
+ Q_in_0=1113,
+ Q_liq_0=50) annotation (Placement(transformation(extent={{-436,
+ 27.8182},{-420,45.8182}})));
+ WaterSteam.Pipes.PressureCut steam_dryer_liq_out_pipe(
P_in_0=4000000,
- P_out_0=4000000,
- Q_0=2,
+ P_out_0=3100000,
+ Q_0=44,
T_0=525.15,
- h_0=2.8e6) annotation (Placement(transformation(extent={{94,76},{114,96}})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.TemperatureSensor CW_T_in_sensor(
- Q_0=54000,
- P_0=300000,
- h_0=63e3,
- T_0=288.15) annotation (Placement(transformation(extent={{318,60},{332,74}})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.PressureSensor CW_P_in_sensor(
- Q_0=54000,
- P_0=300000,
- h_0=63e3) annotation (Placement(transformation(extent={{346,60},{360,74}})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.TemperatureSensor CW_T_out_sensor(
- Q_0=54000,
- P_0=300000,
- h_0=105e3,
- T_0=298.15) annotation (Placement(transformation(extent={{423,53},{437,67}})));
- MetroscopeModelingLibrary.Sensors.WaterSteam.FlowSensor Q_purge_sensor(Q_0=5, h_0=1154502)
- annotation (Placement(transformation(
- extent={{-7,-7},{7,7}},
+ h_0=1.09e6) annotation (Placement(transformation(
+ extent={{10,-10},{-10,10}},
+ rotation=90,
+ origin={-420,0})));
+ WaterSteam.HeatExchangers.Superheater superheater
+ annotation (Placement(transformation(extent={{-416,72},{-384,88}})));
+ Utilities.Interfaces.RealOutput superheater_Kth annotation (Placement(
+ transformation(
+ extent={{-4,-4},{4,4}},
rotation=270,
- origin={-170,-132})));
- MetroscopeModelingLibrary.WaterSteam.BoundaryConditions.Sink sink annotation (Placement(transformation(
- extent={{-10,-10},{10,10}},
+ origin={-408,102}), iconTransformation(extent={{-174,14},{-154,34}})));
+ Sensors_Control.WaterSteam.PressureSensor superheater_bleed_P_sensor(
+ Q_0=45,
+ P_0=4100000,
+ h_0=2.778e6,
+ sensor_function="Calibration",
+ causality="superheater_control_valve_Cv_max") annotation (Placement(transformation(extent={{-746,74},
+ {-734,86}})));
+ Utilities.Interfaces.RealInput superheater_bleed_P(start=41) annotation (
+ Placement(transformation(
+ extent={{-4,-4},{4,4}},
rotation=270,
- origin={-170,-150})));
- MetroscopeModelingLibrary.WaterSteam.Pipes.LoopBreaker loopBreaker annotation (Placement(transformation(
+ origin={-740,98}), iconTransformation(extent={{-170,22},{-130,62}})));
+ WaterSteam.Pipes.LoopBreaker loopBreaker annotation (Placement(transformation(
extent={{-10,-10},{10,10}},
rotation=180,
- origin={-142,-70})));
- MetroscopeModelingLibrary.Power.BoundaryConditions.Source source annotation (Placement(transformation(extent={{-238,-80},{-218,-60}})));
- MetroscopeModelingLibrary.Sensors.Power.PowerSensor thermal_power_sensor annotation (Placement(transformation(extent={{-212,-78},{-196,-62}})));
+ origin={-782,-60})));
+ WaterSteam.Pipes.PressureCut pressureCut(
+ P_in_0=4000000,
+ P_out_0=3100000,
+ Q_0=44,
+ T_0=525.15,
+ h_0=1.09e6) annotation (Placement(transformation(
+ extent={{10,-10},{-10,10}},
+ rotation=180,
+ origin={-364,40})));
+ WaterSteam.Pipes.PressureCut superheater_drains_pipe(
+ P_in_0=4000000,
+ P_out_0=3100000,
+ Q_0=44,
+ T_0=525.15,
+ h_0=1.09e6) annotation (Placement(transformation(
+ extent={{10,-10},{-10,10}},
+ rotation=90,
+ origin={-340,60})));
+ Utilities.Interfaces.RealInput steam_generator_vapor_fraction(start=0.99)
+ annotation (Placement(transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=180,
+ origin={-790,-32}), iconTransformation(extent={{-174,14},{-154,34}})));
+ Utilities.Interfaces.RealOutput superheater_control_valve_Cv_max annotation (
+ Placement(transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-780,94}), iconTransformation(extent={{-328,-88},{-308,-68}})));
+ WaterSteam.Pipes.SlideValve superheater_control_valve(
+ P_in_0=5000000,
+ P_out_0=4100000,
+ h_in_0=2.778e6,
+ h_out_0=2.778e6,
+ Q_0=45,
+ T_0=537.15,
+ h_0=2.8e6) annotation (Placement(transformation(extent={{-777,
+ 77.8182},{-767,89.818}})));
+ Utilities.Interfaces.RealExpression condenser_C_incond(y=0)
+ annotation (Placement(transformation(extent={{20,38},{40,58}})));
equation
-
- // SteamGenerator
-
- // Quantities definitions
- P_steam_sensor.P_barA = P_steam;
- Q_feedwater_sensor.Q = Q_feedwater;
- Q_purge_sensor.Q = Q_purge;
- thermal_power_sensor.W_MW = thermal_power;
-
- // Parameters
- steam_generator.vapor_fraction = 0.99;
-
- // Hypothesis
- steam_generator.P_purge = P_steam * 1e5;
-
- // HP Turbines
-
- // Quantities definitions
- HPT_P_in_sensor.P_barA = HPT_P_in;
- HP_control_valve_opening_sensor.Opening = HP_control_valve_opening;
- HP_extract_P_sensor.P_barA = HP_extract_P;
- HPT_P_out_sensor.P_barA = HPT_P_out;
-
- // Calibrated parameters
- HP_control_valve.Cv_max = HP_control_valve_Cvmax;
- HPT_1.Cst = HPT1_Cst;
- HPT_1.eta_is = turbines_eta_is;
- HPT_2.Cst = HPT2_Cst;
- HPT_2.eta_is = turbines_eta_is;
-
- // Parameter
- HP_extract.alpha = 1;
-
- // Dryer - Superheater
-
- // Quantities definitions
- superheater_bleed_P_sensor.P_barA = superheater_bleed_P;
- superheater_drains_P_sensor.P_barA = superheater_drains_P;
- superheater_T_out_sensor.T_degC = superheater_T_out;
-
- // Parameters
- superheater.S = 100;
- superheater.Kfr_cold = 0;
- superheater.Q_vent = 1;
- steam_dryer.x_steam_out = 0.99;
-
- // Calibrated parameters
- superheater.Kfr_hot = superheater_Kfr_hot;
- superheater.Kth = superheater_Kth;
- superheater_control_valve.Cv_max = superheater_control_valve_Cvmax;
-
- // Hypothesis
- superheater_control_valve.Opening = 1;
-
- // LP Turbines and extraction
-
- // Quantities definitions
- LP_extract_P_sensor.P_barA = LP_extract_P;
-
- // Calibrated parameters
- LPT1.Cst = LPT1_Cst;
- LPT1.eta_is = turbines_eta_is;
- LPT2.Cst = LPT2_Cst;
- LPT2.eta_is = turbines_eta_is;
-
- // Parameters
- LP_extract.alpha = 1;
-
- // Generator
-
- // Quantities definitions
- W_elec_sensor.W_MW = W_elec;
-
- // Fixed parameter
- generator.eta = 0.99;
-
- // Condenser
-
- // Quantities definitions
- CW_P_in_sensor.P_barA = CW_P_in; // BC
- CW_T_in_sensor.T_degC = CW_T_in; // BC
- P_cond_sensor.P_mbar = P_cond;
- CW_T_out_sensor.T_degC = CW_T_out;
-
- // Parameters
- condenser.S = 100;
- condenser.water_height = 1;
- condenser.C_incond = 0;
- condenser.P_offset = 0;
- condenser.Kfr_cold = 0;
-
- // Calibrated Parameters
- condenser.Kth = condenser_Kth;
- condenser.Q_cold = condenser_Q_cold;
-
- // Extraction pump
-
- // Quantities defintions
- extraction_pump_T_out_sensor.T_degC = extraction_pump_T_out;
- extraction_pump_P_out_sensor.P_barA = extraction_pump_P_out;
-
- // Calibrated parameters
- extraction_pump.hn = extraction_pump_hn;
- extraction_pump.rh = extraction_pump_rh;
-
- // LP Heater and drains
-
- // Quantities definitions
- LP_heater_P_out_sensor.P_barA = LP_heater_P_out;
- LP_heater_T_out_sensor.T_degC = LP_heater_T_out;
- LP_reheater_drains_control_valve_opening_sensor.Opening = LP_reheater_drains_control_valve_opening;
-
- // Parameters
- LP_heater.S = 100;
- LP_heater.Kfr_hot = 0;
-
- // Calibrated parameters
- LP_heater.Kth = LP_heater_Kth;
- LP_heater.Kfr_cold = LP_heater_Kfr_cold;
- LP_reheater_drains_control_valve.Cv_max = LP_heater_drains_control_valve_Cvmax;
-
- // Deaerator
-
- deaerator_inlet_pipe.Kfr = 0;
- deaerator_inlet_pipe.delta_z = 5;
- deaerator_outlet_pipe.Kfr = 0;
- deaerator_outlet_pipe.delta_z = -5;
-
- // Feedwater pump
-
- // Quantities definitions
- HP_pump_T_out_sensor.T_degC = HP_pump_T_out;
- HP_pump_P_out_sensor.P_barA = HP_pump_P_out;
-
- // Calibrated parameters
- feedwater_pump.hn = feedwater_pump_hn;
- feedwater_pump.rh = feedwater_pump_rh;
-
- // HP Reheater and drains
-
- // Quantities definitions
- HP_heater_P_out_sensor.P_barA = HP_heater_P_out;
- HP_heater_T_out_sensor.T_degC = HP_heater_T_out;
- HP_heater_T_drains_sensor.T_degC = HP_heater_T_drains;
- HP_reheater_drains_control_valve_opening_sensor.Opening = HP_reheater_drains_control_valve_opening;
-
- // Parameters
- HP_heater.S = 100;
- HP_heater.Kfr_hot = 0;
- HP_heater.level = 0.3;
-
- // Calibrated parameters
- HP_heater.Kth_subc = HP_heater_Kth_subc;
- HP_heater.Kth_cond = HP_heater_Kth_cond;
- HP_heater.Kfr_cold = HP_heater_Kfr_cold;
- HP_reheater_drains_control_valve.Cv_max = HP_heater_drains_control_valve_Cvmax;
-
- connect(HP_control_valve.C_out, HPT_P_in_sensor.C_in) annotation (Line(points={{-125,72},{-116,72},{-116,72},{-106,72}}, color={28,108,200}));
- connect(HP_control_valve.Opening, HP_control_valve_opening_sensor.Opening) annotation (Line(points={{-130,80.7273},{-130,82},{-131,82},{-131,85.9}},
- color={0,0,127}));
- connect(HPT_1.C_out, HP_extract.C_in) annotation (Line(points={{-61,72},{-50.6,72}}, color={28,108,200}));
- connect(HP_extract.C_main_out, HPT_2.C_in) annotation (Line(points={{-29.4,72},{-9,72}}, color={28,108,200}));
- connect(HP_extract.C_ext_out, HP_extract_P_sensor.C_in) annotation (Line(points={{-40,65.2},{-40,54}}, color={28,108,200}));
- connect(powerSink.C_in,W_elec_sensor. C_out) annotation (Line(points={{367,168},{359.88,168}},
- color={244,125,35}));
- connect(W_elec_sensor.C_in,generator. C_out) annotation (Line(points={{348,168},{342,168}},
- color={244,125,35}));
- connect(HPT_2.C_W_out, generator.C_in) annotation (Line(points={{9,78.72},{18,78.72},{18,168},{315.6,168}}, color={244,125,35}));
- connect(HPT_1.C_W_out, generator.C_in) annotation (Line(points={{-61,78.72},{-54,78.72},{-54,168},{315.6,168}}, color={244,125,35}));
- connect(HPT_1.C_in, HPT_P_in_sensor.C_out) annotation (Line(points={{-79,72},{-94,72}}, color={28,108,200}));
- connect(HPT_P_out_sensor.C_in, HPT_2.C_out) annotation (Line(points={{26,72},{9,72}}, color={28,108,200}));
- connect(steam_dryer.C_in, HPT_P_out_sensor.C_out) annotation (Line(points={{56,91.2727},{56,92},{46,92},{46,72},{38,72}}, color={28,108,200}));
- connect(superheater.C_cold_in, steam_dryer.C_hot_steam) annotation (Line(points={{72,104},{72,91.2727}}, color={28,108,200}));
- connect(superheater.C_hot_out, superheater_drains_P_sensor.C_in) annotation (Line(points={{88,112},{100,112}}, color={28,108,200}));
- connect(superheater_T_out_sensor.C_in,superheater. C_cold_out) annotation (Line(points={{88,130},{72,130},{72,120}}, color={28,108,200}));
- connect(superheater_control_valve.C_in, HP_control_valve.C_in) annotation (Line(points={{-136,112.182},{-136,112},{-158,112},{-158,72},{-135,72}}, color={28,108,200}));
- connect(superheater.C_hot_in, superheater_bleed_P_sensor.C_out) annotation (Line(points={{56,112},{-35,112},{-35,112.182},{-94,112.182}}, color={28,108,200}));
- connect(superheater_bleed_P_sensor.C_in, superheater_control_valve.C_out) annotation (Line(points={{-106,112.182},{-116,112.182},{-116,112.182},{-126,112.182}}, color={28,108,200}));
- connect(LPT1.C_W_out, generator.C_in) annotation (Line(points={{169,136.72},{188,136.72},{188,168},{315.6,168}}, color={244,125,35}));
- connect(LPT2.C_W_out, generator.C_in) annotation (Line(points={{239,136.72},{262,136.72},{262,168},{315.6,168}}, color={244,125,35}));
- connect(LPT2.C_out, P_cond_sensor.C_in) annotation (Line(points={{239,130},{286,130}}, color={28,108,200}));
- connect(P_cond_sensor.C_out, condenser.C_hot_in) annotation (Line(points={{298,130},{392.5,130},{392.5,74.2864}},
- color={28,108,200}));
- connect(superheater_T_out_sensor.C_out, LPT1.C_in) annotation (Line(points={{100,130},{151,130}}, color={28,108,200}));
- connect(extraction_pump.C_out, extraction_pump_T_out_sensor.C_in) annotation (Line(points={{364,-70},{350,-70}}, color={28,108,200}));
- connect(extraction_pump_T_out_sensor.C_out,extraction_pump_P_out_sensor. C_in) annotation (Line(points={{336,-70},{322,-70}}, color={28,108,200}));
- connect(condenser.C_hot_out, extraction_pump.C_in) annotation (Line(points={{392.5,48.2222},{392.5,-70},{380,-70}},
- color={28,108,200}));
- connect(LP_heater.C_cold_out, LP_heater_P_out_sensor.C_in) annotation (Line(points={{252,-70},{242,-70}}, color={28,108,200}));
- connect(LP_heater_P_out_sensor.C_out,LP_heater_T_out_sensor. C_in) annotation (Line(points={{228,-70},{224,-70},{224,-70.5},{220,-70.5},{220,-70}},
- color={28,108,200}));
- connect(extraction_pump_P_out_sensor.C_out, LP_heater.C_cold_in) annotation (Line(points={{308,-70},{284.2,-70}}, color={28,108,200}));
- connect(LP_extract_P_sensor.C_out, LP_heater.C_hot_in) annotation (Line(points={{196,104},{196,44},{268,44},{268,-62}}, color={28,108,200}));
- connect(LP_extract_P_sensor.C_in, LP_extract.C_ext_out) annotation (Line(points={{196,118},{196,123.2}}, color={28,108,200}));
- connect(LPT1.C_out, LP_extract.C_in) annotation (Line(points={{169,130},{185.4,130}}, color={28,108,200}));
- connect(LPT2.C_in, LP_extract.C_main_out) annotation (Line(points={{221,130},{206.6,130}}, color={28,108,200}));
- connect(deaerator_inlet_pipe.C_in, LP_heater_T_out_sensor.C_out) annotation (Line(points={{186,-70},{206,-70}}, color={28,108,200}));
- connect(steam_dryer.C_hot_liquid, steam_dryer_liq_out_pipe.C_in) annotation (Line(points={{72,84.7273},{72,-34},{142,-34},{142,-40}},
- color={28,108,200}));
- connect(deaerator_inlet_pipe.C_out, deaerator_outlet_pipe.C_in) annotation (Line(points={{166,-70},{114,-70}}, color={28,108,200}));
- connect(steam_dryer_liq_out_pipe.C_out, deaerator_outlet_pipe.C_in) annotation (Line(points={{142,-60},{142,-70},{114,-70}}, color={28,108,200}));
- connect(feedwater_pump.C_out, HP_pump_T_out_sensor.C_in) annotation (Line(points={{46,-70},{30,-70}}, color={28,108,200}));
- connect(HP_pump_T_out_sensor.C_out, HP_pump_P_out_sensor.C_in) annotation (Line(points={{16,-70},{4,-70}}, color={28,108,200}));
- connect(feedwater_pump.C_in, deaerator_outlet_pipe.C_out) annotation (Line(points={{62,-70},{94,-70}}, color={28,108,200}));
- connect(HP_pump_P_out_sensor.C_out, HP_heater.C_cold_in) annotation (Line(points={{-10,-70},{-23.8,-70}}, color={28,108,200}));
- connect(HP_heater.C_cold_out, HP_heater_P_out_sensor.C_in) annotation (Line(points={{-56,-70},{-64,-70}}, color={28,108,200}));
- connect(HP_heater_P_out_sensor.C_out, HP_heater_T_out_sensor.C_in) annotation (Line(points={{-78,-70},{-84,-70}}, color={28,108,200}));
- connect(HP_heater_T_drains_sensor.C_in, HP_heater.C_hot_out) annotation (Line(points={{-40,-91},{-40,-78}}, color={28,108,200}));
- connect(HP_extract_P_sensor.C_out, HP_heater.C_hot_in) annotation (Line(points={{-40,40},{-40,-62}}, color={28,108,200}));
- connect(superheater_drains_P_sensor.C_out, superheater_drains_pipe.C_in) annotation (Line(points={{112,112},{122,112},{122,40}}, color={28,108,200}));
- connect(superheater_drains_pipe.C_out, HP_heater.C_hot_in) annotation (Line(points={{122,20},{122,16},{-40,16},{-40,-62}}, color={28,108,200}));
- connect(HP_heater_T_out_sensor.C_out, Q_feedwater_sensor.C_in) annotation (Line(points={{-98,-70},{-104,-70}}, color={28,108,200}));
- connect(HP_reheater_drains_control_valve.Opening, HP_reheater_drains_control_valve_opening_sensor.Opening) annotation (Line(points={{11,-113.091},{11,-108.1}}, color={0,0,127}));
- connect(HP_heater_T_drains_sensor.C_out, HP_reheater_drains_control_valve.C_in) annotation (Line(points={{-40,-105},{-40,-121.818},{6,-121.818}}, color={28,108,200}));
- connect(LP_reheater_drains_control_valve.Opening, LP_reheater_drains_control_valve_opening_sensor.Opening) annotation (Line(points={{293,-111.091},{293,-106.1}}, color={0,0,127}));
- connect(LP_heater.C_hot_out, LP_reheater_drains_control_valve.C_in) annotation (Line(points={{268,-78},{268,-119.818},{288,-119.818}}, color={28,108,200}));
- connect(steam_generator.steam_outlet, P_steam_sensor.C_in) annotation (Line(points={{-170,-24},{-170,3}}, color={28,108,200}));
- connect(P_steam_sensor.C_out, HP_control_valve.C_in) annotation (Line(points={{-170,17},{-170,72},{-135,72}}, color={28,108,200}));
- connect(superheater.C_vent, pressureCut.C_in) annotation (Line(points={{88,104.2},{88,86},{94,86}}, color={28,108,200}));
- connect(pressureCut.C_out, superheater_drains_pipe.C_in) annotation (Line(points={{114,86},{122,86},{122,40}}, color={28,108,200}));
- connect(cold_source.C_out, CW_T_in_sensor.C_in) annotation (Line(points={{305,67.7778},{305,67},{318,67}}, color={28,108,200}));
- connect(CW_T_in_sensor.C_out, CW_P_in_sensor.C_in) annotation (Line(points={{332,67},{346,67}}, color={28,108,200}));
- connect(CW_P_in_sensor.C_out, condenser.C_cold_in) annotation (Line(points={{360,67},{378,67},{378,59.679},{377,59.679}}, color={28,108,200}));
- connect(CW_T_out_sensor.C_out, cold_sink.C_in) annotation (Line(points={{437,60},{455,60}}, color={28,108,200}));
- connect(condenser.C_cold_out, CW_T_out_sensor.C_in) annotation (Line(points={{407.69,59.679},{407.69,60},{423,60}}, color={28,108,200}));
- connect(LP_reheater_drains_control_valve.C_out, condenser.C_hot_in) annotation (Line(points={{298,-119.818},{400,-119.818},{400,-120},{500,-120},{500,100},{392.5,100},{392.5,74.2864}},
- color={28,108,200}));
- connect(HP_reheater_drains_control_valve.C_out, deaerator_outlet_pipe.C_in) annotation (Line(points={{16,-121.818},{78,-121.818},{78,-122},{142,-122},{142,-70},{114,-70}}, color={28,108,200}));
- connect(steam_generator.purge_outlet, Q_purge_sensor.C_in) annotation (Line(points={{-170,-115.233},{-170,-125}}, color={28,108,200}));
- connect(Q_feedwater_sensor.C_out, loopBreaker.C_in) annotation (Line(points={{-118,-70},{-132,-70}}, color={28,108,200}));
- connect(loopBreaker.C_out, steam_generator.feedwater_inlet) annotation (Line(points={{-152,-70},{-159,-70}}, color={28,108,200}));
- connect(Q_purge_sensor.C_out, sink.C_in) annotation (Line(points={{-170,-139},{-170,-145}}, color={28,108,200}));
- connect(steam_generator.C_thermal_power, thermal_power_sensor.C_out) annotation (Line(points={{-181,-70},{-196.16,-70}}, color={244,125,35}));
- connect(thermal_power_sensor.C_in, source.C_out) annotation (Line(points={{-212,-70},{-223.2,-70}}, color={244,125,35}));
- annotation (Icon(coordinateSystem(preserveAspectRatio=false, extent={{-240,-160},{520,200}})), Diagram(coordinateSystem(preserveAspectRatio=false, extent={{-240,-160},{520,200}})));
+ connect(superheater_control_valve.C_in, P_steam_sensor.C_out) annotation (
+ Line(points={{-777,80},{-800,80},{-800,40},{-820,40},{-820,17}}, color={28,
+ 108,200}));
+ connect(LP_reheater_drains_control_valve.C_out, condenser.C_hot_in)
+ annotation (Line(points={{-135,-100},{120,-100},{120,100},{20,100},{20,
+ 34.6074}},
+ color={28,108,200}));
+ connect(cold_source.C_out,CW_T_in_sensor. C_in) annotation (Line(points={{-75,20},
+ {-57,20}}, color={28,108,200}));
+ connect(CW_T_in_sensor.C_out,CW_P_in_sensor. C_in) annotation (Line(points={{-43,20},
+ {-27,20}}, color={28,108,200}));
+ connect(CW_P_in_sensor.C_out,condenser. C_cold_in) annotation (Line(points={{-13,20},
+ {4.5,20}}, color={28,108,200}));
+ connect(CW_T_out_sensor.C_out,cold_sink. C_in) annotation (Line(points={{67,20},
+ {85,20}}, color={28,108,200}));
+ connect(condenser.C_cold_out,CW_T_out_sensor. C_in) annotation (Line(points={{35.19,
+ 20},{53,20}}, color={28,108,200}));
+ connect(CW_T_in_sensor.T_sensor, CW_T_in)
+ annotation (Line(points={{-50,27},{-50,36}}, color={0,0,127}));
+ connect(CW_P_in_sensor.P_sensor, CW_P_in)
+ annotation (Line(points={{-20,27},{-20,36}}, color={0,0,127}));
+ connect(CW_T_out_sensor.T_sensor, CW_T_out)
+ annotation (Line(points={{60,27},{60,36}}, color={0,0,127}));
+ connect(condenser_Q_cold, condenser.Qv_cold_in) annotation (Line(points={{-2,54},
+ {-2,31.4568},{2.95,31.4568}}, color={0,0,127}));
+ connect(condenser_Kth, condenser.Kth) annotation (Line(points={{10,62},{10,
+ 35.7531},{10.08,35.7531}},
+ color={0,0,127}));
+ connect(condenser.C_hot_in, P_cond_sensor.C_out) annotation (Line(points={{20,
+ 34.6074},{20,120},{-76,120}}, color={28,108,200},
+ thickness=1));
+ connect(P_cond_sensor.P_sensor, P_cond)
+ annotation (Line(points={{-82,126},{-82,136}}, color={0,0,127}));
+ connect(extraction_pump.C_out,extraction_pump_T_out_sensor. C_in) annotation (Line(points={{-40,-60},
+ {-53,-60}}, color={28,108,200},
+ thickness=1));
+ connect(extraction_pump_T_out_sensor.C_out,extraction_pump_P_out_sensor. C_in) annotation (Line(points={{-67,-60},
+ {-73,-60}}, color={28,108,200},
+ thickness=1));
+ connect(extraction_pump.C_in, condenser.C_hot_out) annotation (Line(points={{-24,
+ -60},{20,-60},{20,8.5432}}, color={28,108,200},
+ thickness=1));
+ connect(extraction_pump_T_out_sensor.T_sensor, extraction_pump_T_out)
+ annotation (Line(points={{-60,-53},{-60,-44}}, color={0,0,127}));
+ connect(extraction_pump_P_out_sensor.P_sensor, extraction_pump_P_out)
+ annotation (Line(points={{-80,-53},{-80,-44}}, color={0,0,127}));
+ connect(extraction_pump_hn, extraction_pump_hn)
+ annotation (Line(points={{-22,-44},{-22,-44}}, color={0,0,127}));
+ connect(extraction_pump.hn, extraction_pump_hn) annotation (Line(points={{-25.76,
+ -53.6},{-22,-53.6},{-22,-44}}, color={0,0,127}));
+ connect(extraction_pump.rh, extraction_pump_rh) annotation (Line(points={{-24,
+ -56.8},{-14,-56.8},{-14,-42}}, color={0,0,127}));
+ connect(P_cond_sensor.C_in, LPT2.C_out)
+ annotation (Line(points={{-88,120},{-127,120}}, color={28,108,200},
+ thickness=1));
+ connect(LPT2.Cst, LPT2_Cst) annotation (Line(points={{-141.94,126.56},{-142,
+ 126.56},{-142,134}},
+ color={0,0,127}));
+ connect(LPT2_Cst, LPT2_Cst)
+ annotation (Line(points={{-142,134},{-142,134}}, color={0,0,127}));
+ connect(turbines_eta_is, LPT2.eta_is) annotation (Line(points={{-370,154},{
+ -370,140},{-138,140},{-138,127.36},{-137.98,127.36}},
+ color={0,0,127}));
+ connect(powerSink.C_in,W_elec_sensor. C_out) annotation (Line(points={{-49,160},
+ {-56.12,160}}, color={244,125,35}));
+ connect(W_elec_sensor.C_in,generator. C_out) annotation (Line(points={{-68,160},
+ {-74,160}}, color={244,125,35}));
+ connect(LPT2.C_W_out, generator.C_in) annotation (Line(points={{-127,126.72},
+ {-120,126.72},{-120,160},{-100.4,160}},color={244,125,35},
+ smooth=Smooth.Bezier));
+ connect(W_elec_sensor.W_sensor, W_elec)
+ annotation (Line(points={{-62,166},{-62,174}}, color={0,0,127}));
+ connect(LPT2.C_in,LP_extract. C_main_out)
+ annotation (Line(points={{-145,120},{-189.4,120}}, color={255,0,0},
+ thickness=1,
+ pattern=LinePattern.Dash));
+ connect(LP_extract_P_sensor.P_sensor,LP_extract_P)
+ annotation (Line(points={{-193,92},{-180,92}}, color={0,0,127}));
+ connect(LP_extract.C_ext_out,LP_extract_P_sensor. C_in)
+ annotation (Line(points={{-200,113.2},{-200,99}}, color={28,108,200}));
+ connect(turbines_eta_is, turbines_eta_is)
+ annotation (Line(points={{-370,154},{-370,154}}, color={0,0,127}));
+ connect(LP_heater.C_cold_out,LP_heater_P_out_sensor. C_in)
+ annotation (Line(points={{-216,-60},{-223,-60}}, color={28,108,200},
+ thickness=1));
+ connect(LP_heater_P_out_sensor.C_out,LP_heater_T_out_sensor. C_in)
+ annotation (Line(points={{-237,-60},{-253,-60}}, color={28,108,200},
+ thickness=1));
+ connect(LP_heater_P_out_sensor.P_sensor,LP_heater_P_out)
+ annotation (Line(points={{-230,-53},{-230,-44}}, color={0,0,127}));
+ connect(LP_heater_T_out_sensor.T_sensor,LP_heater_T_out)
+ annotation (Line(points={{-260,-53},{-260,-44}}, color={0,0,127}));
+ connect(LP_heater.C_cold_in, extraction_pump_P_out_sensor.C_out)
+ annotation (Line(points={{-183.8,-60},{-87,-60}}, color={28,108,200},
+ thickness=1));
+ connect(LP_heater.Kfr_cold, LP_heater_Kfr_cold)
+ annotation (Line(points={{-182,-56},{-174,-56},{-174,-42}},
+ color={0,0,127}));
+ connect(LP_heater.Kth, LP_heater_Kth)
+ annotation (Line(points={{-192,-50},{-192,-40}}, color={0,0,127}));
+ connect(LP_reheater_drains_control_valve.Opening,
+ LP_reheater_drains_control_valve_opening_sensor. Opening) annotation (Line(points={{-140,
+ -91.2729},{-140,-87.1}}, color={0,0,127}));
+ connect(LP_heater.C_hot_out, LP_reheater_drains_control_valve.C_in)
+ annotation (Line(points={{-200,-68},{-200,-100},{-145,-100}}, color={28,108,
+ 200}));
+ connect(LP_reheater_drains_control_valve_opening_sensor.opening_sensor,
+ LP_reheater_drains_control_valve_opening)
+ annotation (Line(points={{-140,-76.9},{-140,-70}}, color={0,0,127}));
+ connect(LP_heater_drains_control_valve_Cvmax,
+ LP_reheater_drains_control_valve.Cv_max) annotation (Line(points={{-150,-78},
+ {-150,-94.0002},{-142,-94.0002}}, color={0,0,127}));
+ connect(LP_heater_drains_control_valve_Cvmax,
+ LP_heater_drains_control_valve_Cvmax)
+ annotation (Line(points={{-150,-78},{-150,-78}}, color={0,0,127}));
+ connect(LP_extract_P_sensor.C_out, LP_heater.C_hot_in)
+ annotation (Line(points={{-200,85},{-200,-52}}, color={28,108,200}));
+ connect(superheater_T_out_sensor.C_out, LPT1.C_in)
+ annotation (Line(points={{-334,120},{-281,120}}, color={255,0,0},
+ thickness=1,
+ pattern=LinePattern.Dash));
+ connect(LPT1.C_out, LP_extract.C_in)
+ annotation (Line(points={{-263,120},{-210.6,120}}, color={255,0,0},
+ thickness=1,
+ pattern=LinePattern.Dash));
+ connect(LPT1.C_W_out, generator.C_in) annotation (Line(points={{-263,126.72},{
+ -252,126.72},{-252,160},{-100.4,160}}, color={244,125,35},
+ smooth=Smooth.Bezier));
+ connect(LPT1.Cst, LPT1_Cst) annotation (Line(points={{-277.94,126.56},{
+ -277.94,126},{-278,126},{-278,134}},
+ color={0,0,127}));
+ connect(superheater_T_out_sensor.T_sensor, superheater_T_out)
+ annotation (Line(points={{-340,126},{-340,136}}, color={0,0,127}));
+ connect(deaerator_inlet_pipe_delta_z.y, deaerator_inlet_pipe.delta_z)
+ annotation (Line(points={{-400,-40},{-400,-45.2}}, color={0,0,127}));
+ connect(LPT1.eta_is, turbines_eta_is) annotation (Line(points={{-273.98,
+ 127.36},{-274,127.36},{-274,140},{-370,140},{-370,154}},
+ color={0,0,127}));
+ connect(condenser_Kfr_cold.y, condenser.Kfr_cold) annotation (Line(points={{-8,36},
+ {-8,25.7284},{2.95,25.7284}}, color={0,0,127}));
+ connect(deaerator_outlet_pipe_delta_z.y, deaerator_outlet_pipe.delta_z)
+ annotation (Line(points={{-440,-40},{-440,-45.2}}, color={0,0,127}));
+ connect(feedwater_pump_hn, feedwater_pump_hn)
+ annotation (Line(points={{-506,-42},{-506,-42}}, color={0,0,127}));
+ connect(feedwater_pump.rh, feedwater_pump_rh) annotation (Line(points={{-506,
+ -56.8},{-502,-56.8},{-502,-40}}, color={0,0,127}));
+ connect(feedwater_pump_rh, feedwater_pump_rh)
+ annotation (Line(points={{-502,-40},{-502,-40}}, color={0,0,127}));
+ connect(feedwater_pump.hn, feedwater_pump_hn) annotation (Line(points={{-507.76,
+ -53.6},{-506,-53.6},{-506,-42}}, color={0,0,127}));
+ connect(feedwater_pump.C_out, HP_pump_T_out_sensor.C_in)
+ annotation (Line(points={{-522,-60},{-533,-60}}, color={28,108,200},
+ thickness=1));
+ connect(HP_pump_T_out_sensor.C_out, HP_pump_P_out_sensor.C_in)
+ annotation (Line(points={{-547,-60},{-563,-60}}, color={28,108,200},
+ thickness=1));
+ connect(HP_pump_P_out_sensor.P_sensor, HP_pump_P_out)
+ annotation (Line(points={{-570,-53},{-570,-44}}, color={0,0,127}));
+ connect(HP_pump_T_out_sensor.T_sensor, HP_pump_T_out)
+ annotation (Line(points={{-540,-53},{-540,-44}}, color={0,0,127}));
+ connect(HP_pump_P_out_sensor.C_out, HP_heater.C_cold_in)
+ annotation (Line(points={{-577,-60},{-623.8,-60}}, color={28,108,200},
+ thickness=1));
+ connect(HP_heater.Kfr_cold, HP_heater_Kfr_cold)
+ annotation (Line(points={{-622,-56},{-616,-56},{-616,-48}},
+ color={0,0,127}));
+ connect(HP_heater.Kth_subc, HP_heater_Kth_subc)
+ annotation (Line(points={{-632,-50},{-632,-42}}, color={0,0,127}));
+ connect(HP_heater.Kth_cond, HP_heater_Kth_cond)
+ annotation (Line(points={{-632.2,-70},{-632.2,-74},{-614,-74},{-614,-70}},
+ color={0,0,127}));
+ connect(HP_heater_Kfr_cold, HP_heater_Kfr_cold)
+ annotation (Line(points={{-616,-48},{-616,-48}}, color={0,0,127}));
+ connect(HP_heater_P_out_sensor.C_out,HP_heater_T_out_sensor. C_in) annotation (Line(points={{-717,
+ -60},{-723,-60}}, color={28,108,200},
+ thickness=1));
+ connect(HP_heater_T_out_sensor.C_out,Q_feedwater_sensor. C_in) annotation (Line(points={{-737,
+ -60},{-743,-60}}, color={28,108,200},
+ thickness=1));
+ connect(HP_heater_P_out_sensor.C_in, HP_heater.C_cold_out)
+ annotation (Line(points={{-703,-60},{-656,-60}}, color={28,108,200},
+ thickness=1));
+ connect(HP_heater_P_out_sensor.P_sensor, HP_heater_P_out)
+ annotation (Line(points={{-710,-53},{-710,-44}}, color={0,0,127}));
+ connect(HP_heater_T_out_sensor.T_sensor, HP_heater_T_out)
+ annotation (Line(points={{-730,-53},{-730,-44}}, color={0,0,127}));
+ connect(Q_feedwater_sensor.Q_sensor, Q_feedwater)
+ annotation (Line(points={{-750,-53},{-750,-44}}, color={0,0,127}));
+ connect(HP_heater.C_hot_out, HP_heater_T_drains_sensor.C_in)
+ annotation (Line(points={{-640,-68},{-640,-79}}, color={28,108,200}));
+ connect(HP_heater_T_drains_sensor.T_sensor, HP_heater_T_drains)
+ annotation (Line(points={{-633,-86},{-624,-86}}, color={0,0,127}));
+ connect(HP_reheater_drains_control_valve.Opening,
+ HP_reheater_drains_control_valve_opening_sensor. Opening) annotation (Line(points={{-560,
+ -91.2729},{-560,-91.1}}, color={0,0,127}));
+ connect(HP_reheater_drains_control_valve.Cv_max,
+ HP_heater_drains_control_valve_Cvmax) annotation (Line(points={{-562,
+ -94.0002},{-570,-94.0002},{-570,-80}},
+ color={0,0,127}));
+ connect(HP_reheater_drains_control_valve_opening_sensor.opening_sensor,
+ HP_reheater_drains_control_valve_opening)
+ annotation (Line(points={{-560,-80.9},{-560,-74}}, color={0,0,127}));
+ connect(HP_heater_T_drains_sensor.C_out, HP_reheater_drains_control_valve.C_in)
+ annotation (Line(points={{-640,-93},{-640,-100},{-565,-100}}, color={28,108,
+ 200}));
+ connect(steam_generator.purge_outlet,Q_purge_sensor. C_in) annotation (Line(
+ points={{-820,-105.233},{-820,-115}}, color={28,108,200}));
+ connect(Q_purge_sensor.C_out,sink. C_in)
+ annotation (Line(points={{-820,-129},{-820,-135}}, color={28,108,200}));
+ connect(source.C_out,thermal_power_sensor. C_in)
+ annotation (Line(points={{-873.2,-60},{-862,-60}}, color={244,125,35}));
+ connect(thermal_power_sensor.C_out,steam_generator. C_thermal_power)
+ annotation (Line(points={{-846.16,-60},{-831,-60}},
+ color={244,125,35}));
+ connect(thermal_power_sensor.W_sensor,thermal_power)
+ annotation (Line(points={{-854,-52},{-854,-42}}, color={0,0,127}));
+ connect(P_steam_sensor.C_in,steam_generator. steam_outlet)
+ annotation (Line(points={{-820,3},{-820,-14}}, color={255,0,0},
+ thickness=1));
+ connect(P_steam_sensor.P_sensor, P_steam)
+ annotation (Line(points={{-813,10},{-804,10}}, color={0,0,127}));
+ connect(Q_purge_sensor.Q_sensor,Q_purge)
+ annotation (Line(points={{-813,-122},{-802,-122}}, color={0,0,127}));
+ connect(HP_control_valve.Opening,HP_control_valve_opening_sensor. Opening)
+ annotation (Line(points={{-780,48.7271},{-780,50.9}}, color={0,0,127}));
+ connect(HP_control_valve_opening_sensor.opening_sensor,
+ HP_control_valve_opening)
+ annotation (Line(points={{-780,61.1},{-780,68}}, color={0,0,127}));
+ connect(HP_control_valve_Cvmax,HP_control_valve. Cv_max) annotation (Line(
+ points={{-790,56},{-790,45.9998},{-782,45.9998}},
+ color={0,0,127}));
+ connect(HPT_P_in_sensor.P_sensor,HPT_P_in)
+ annotation (Line(points={{-728,46},{-728,56}}, color={0,0,127}));
+ connect(HP_control_valve_Cvmax,HP_control_valve_Cvmax)
+ annotation (Line(points={{-790,56},{-790,56}}, color={0,0,127}));
+ connect(HP_control_valve.C_in, P_steam_sensor.C_out) annotation (Line(points={{-785,
+ 39.9998},{-820,39.9998},{-820,17}}, color={255,0,0},
+ thickness=1,
+ pattern=LinePattern.Dash));
+ connect(HPT_P_in_sensor.C_in,HP_control_valve. C_out) annotation (Line(points={{-734,40},
+ {-754,40},{-754,39.9998},{-775,39.9998}}, color={255,0,0},
+ thickness=1,
+ pattern=LinePattern.Dash));
+ connect(HPT_1.C_in, HPT_P_in_sensor.C_out) annotation (Line(points={{-697,40},
+ {-722,40}}, color={255,0,0},
+ thickness=1,
+ pattern=LinePattern.Dash));
+ connect(HPT1_Cst,HPT1_Cst)
+ annotation (Line(points={{-694,56},{-694,56}}, color={0,0,127}));
+ connect(HPT_1.Cst,HPT1_Cst) annotation (Line(points={{-693.94,46.56},{
+ -693.94,56},{-694,56}}, color={0,0,127}));
+ connect(HPT_1.eta_is, turbines_eta_is) annotation (Line(points={{-689.98,
+ 47.36},{-689.98,56},{-690,56},{-690,140},{-370,140},{-370,154}},
+ color={0,0,127}));
+ connect(HPT_1.C_W_out, generator.C_in) annotation (Line(points={{-679,46.72},{
+ -662,46.72},{-662,160},{-100.4,160}}, color={244,125,35},
+ smooth=Smooth.Bezier));
+ connect(HP_extract_P_sensor.P_sensor,HPT_extract_P)
+ annotation (Line(points={{-633,8},{-624,8}}, color={0,0,127}));
+ connect(HPT_1.C_out, HP_extract.C_in)
+ annotation (Line(points={{-679,40},{-650.6,40}}, color={255,0,0},
+ thickness=1,
+ pattern=LinePattern.Dash));
+ connect(HP_extract.C_ext_out, HP_extract_P_sensor.C_in)
+ annotation (Line(points={{-640,33.2},{-640,15}}, color={28,108,200}));
+ connect(HP_heater.C_hot_in, HP_extract_P_sensor.C_out) annotation (Line(
+ points={{-640,-52},{-640,1}}, color={28,108,200}));
+ connect(HP_extract.C_main_out,HPT_2. C_in)
+ annotation (Line(points={{-629.4,40},{-587,40}}, color={255,0,0},
+ thickness=1,
+ pattern=LinePattern.Dash));
+ connect(HPT_2.C_out,HPT_P_out_sensor. C_in)
+ annotation (Line(points={{-569,40},{-466,40}}, color={255,0,0},
+ thickness=1,
+ pattern=LinePattern.Dash));
+ connect(HPT_P_out_sensor.P_sensor,HPT_extract_P1)
+ annotation (Line(points={{-460,46},{-460,56}}, color={0,0,127}));
+ connect(HPT_2.Cst,HPT2_Cst) annotation (Line(points={{-583.94,46.56},{
+ -583.94,46},{-584,46},{-584,58}},color={0,0,127}));
+ connect(HPT_2.eta_is, turbines_eta_is) annotation (Line(points={{-579.98,
+ 47.36},{-579.98,46},{-580,46},{-580,140},{-370,140},{-370,154}},
+ color={0,0,127}));
+ connect(HPT_2.C_W_out, generator.C_in) annotation (Line(points={{-569,46.72},{
+ -542,46.72},{-542,160},{-100.4,160}}, color={244,125,35},
+ smooth=Smooth.Bezier));
+ connect(HPT_P_out_sensor.C_out, steam_dryer.C_in) annotation (Line(points={{-454,40},
+ {-436,40},{-436,39.2727}}, color={255,0,0},
+ thickness=1,
+ pattern=LinePattern.Dash));
+ connect(steam_dryer.C_hot_liquid, steam_dryer_liq_out_pipe.C_in)
+ annotation (Line(points={{-420,32.7273},{-420,10}}, color={28,108,200}));
+ connect(steam_dryer.C_hot_steam, superheater.C_cold_in) annotation (Line(
+ points={{-420,39.2727},{-420,40},{-400,40},{-400,72}},
+ color={255,0,0},
+ thickness=1,
+ pattern=LinePattern.Dash));
+ connect(superheater_Kth, superheater.Kth)
+ annotation (Line(points={{-408,102},{-408,90}}, color={0,0,127}));
+ connect(HPT2_Cst, HPT2_Cst)
+ annotation (Line(points={{-584,58},{-584,58}}, color={0,0,127}));
+ connect(superheater_bleed_P_sensor.P_sensor, superheater_bleed_P)
+ annotation (Line(points={{-740,86},{-740,98}}, color={0,0,127}));
+ connect(superheater_bleed_P_sensor.C_out, superheater.C_hot_in)
+ annotation (Line(points={{-734,80},{-416,80}}, color={28,108,200}));
+ connect(superheater.C_cold_out, superheater_T_out_sensor.C_in) annotation (
+ Line(points={{-400,88},{-400,120},{-346,120}}, color={255,0,0},
+ thickness=1,
+ pattern=LinePattern.Dash));
+ connect(steam_generator.feedwater_inlet, loopBreaker.C_out)
+ annotation (Line(points={{-809,-60},{-792,-60}}, color={28,108,200},
+ thickness=1));
+ connect(loopBreaker.C_in, Q_feedwater_sensor.C_out)
+ annotation (Line(points={{-772,-60},{-757,-60}}, color={28,108,200},
+ thickness=1));
+ connect(superheater.C_vent, pressureCut.C_in) annotation (Line(points={{-384,
+ 72.2},{-384,40},{-374,40}},
+ color={28,108,200}));
+ connect(pressureCut.C_out, HP_heater.C_hot_in) annotation (Line(points={{-354,40},
+ {-340,40},{-340,-20},{-640,-20},{-640,-52}}, color={28,108,200}));
+ connect(superheater_drains_pipe.C_out, HP_heater.C_hot_in) annotation (Line(
+ points={{-340,50},{-340,-20},{-640,-20},{-640,-52}}, color={28,108,200}));
+ connect(deaerator_outlet_pipe.C_out, feedwater_pump.C_in)
+ annotation (Line(points={{-450,-50},{-460,-50},{-460,-60},{-506,-60}},
+ color={28,108,200},
+ thickness=1));
+ connect(HP_reheater_drains_control_valve.C_out, deaerator_outlet_pipe.C_in)
+ annotation (Line(points={{-555,-100},{-420,-100},{-420,-50},{-430,-50}},
+ color={28,108,200}));
+ connect(steam_dryer_liq_out_pipe.C_out, deaerator_outlet_pipe.C_in)
+ annotation (Line(points={{-420,-10},{-420,-50},{-430,-50}}, color={28,108,200}));
+ connect(deaerator_inlet_pipe.C_out, deaerator_outlet_pipe.C_in)
+ annotation (Line(points={{-410,-50},{-430,-50}}, color={28,108,200},
+ thickness=1));
+ connect(deaerator_inlet_pipe.C_in, LP_heater_T_out_sensor.C_out)
+ annotation (Line(points={{-390,-50},{-380,-50},{-380,-60},{-267,-60}},
+ color={28,108,200},
+ thickness=1));
+ connect(steam_generator.vapor_fraction, steam_generator_vapor_fraction)
+ annotation (Line(points={{-801.3,-32.0167},{-797.466,-32.0167},{-797.466,
+ -32},{-790,-32}},
+ color={0,0,127}));
+ connect(superheater_control_valve.C_out, superheater_bleed_P_sensor.C_in)
+ annotation (Line(points={{-767,80},{-756,80},{-756,80},{-746,80}}, color={28,
+ 108,200}));
+ connect(superheater_control_valve_Cv_max, superheater_control_valve.Cv)
+ annotation (Line(points={{-780,94},{-780,85.9999},{-774,85.9999}}, color={0,
+ 0,127}));
+ connect(superheater.C_hot_out, superheater_drains_pipe.C_in) annotation (Line(
+ points={{-384,80},{-340,80},{-340,70}}, color={28,108,200}));
+ connect(LPT1_Cst, LPT1_Cst)
+ annotation (Line(points={{-278,134},{-278,134}}, color={0,0,127}));
+ connect(condenser_C_incond.y, condenser.C_incond) annotation (Line(points={{
+ 30,44},{30,35.7531},{29.92,35.7531}}, color={0,0,127}));
+ connect(condenser_Kth, condenser_Kth)
+ annotation (Line(points={{10,62},{10,62}}, color={0,0,127}));
+ annotation (Icon(coordinateSystem(preserveAspectRatio=false, extent={{-900,-160},
+ {140,180}})), Diagram(
+ coordinateSystem(preserveAspectRatio=false, extent={{-900,-160},{140,180}}),
+ graphics={
+ Line(
+ points={{-424,-72},{-426,-88},{-428,-70},{-430,-92}},
+ color={226,0,0},
+ pattern=LinePattern.None),
+ Line(
+ points={{-438,-68},{-438,-88},{-438,-82},{-428,-90},{-394,-106},{-342,
+ -82},{-328,-90},{-372,-92}},
+ color={226,0,0},
+ pattern=LinePattern.None),
+ Line(
+ points={{-370,-84},{-376,-132}},
+ color={28,108,200},
+ pattern=LinePattern.None)}));
end MetroscopiaNPP_reverse;
diff --git a/MetroscopeModelingLibrary/Examples/Nuclear/MetroscopiaNPP/MetroscopiaNPP_reverse_old.mo b/MetroscopeModelingLibrary/Examples/Nuclear/MetroscopiaNPP/MetroscopiaNPP_reverse_old.mo
new file mode 100644
index 00000000..b9bea9ec
--- /dev/null
+++ b/MetroscopeModelingLibrary/Examples/Nuclear/MetroscopiaNPP/MetroscopiaNPP_reverse_old.mo
@@ -0,0 +1,652 @@
+within MetroscopeModelingLibrary.Examples.Nuclear.MetroscopiaNPP;
+model MetroscopiaNPP_reverse_old
+
+ // Boundary Conditions
+
+ input Real P_steam(start = 50, unit="bar", min=0, nominal=50) "barA"; // Steam generator steam pressure
+ input Real CW_P_in(start = 3, unit="bar", min=0, nominal=5) "barA"; // Circulating Water inlet pressure
+ input Real CW_T_in(start = 15, unit="degC", min=0, nominal=15) "degC"; // Circulating Water inlet temperature
+ input Real Q_purge(start=5, unit = "kg/s", min=0) "kg/s"; // Steam generator blowdown flow
+ input Real thermal_power(start=2820, unit="MW", nominal = 1e3) "MW"; // Core thermal power
+
+ // Observables used for calibration
+
+ // HP Control Valve
+ input Real HP_control_valve_opening(start=0.15);
+ // HP turbines
+ input Real HPT_P_in(start=48.5, unit="bar", min=0, nominal=50) "barA";
+ input Real HP_extract_P(start=31, unit="bar", min=0, nominal=50) "barA";
+ input Real HPT_P_out(start=19.4, unit="bar", min=0, nominal=50) "barA";
+ // Superheater
+ input Real superheater_bleed_P(start=41, unit="bar", min=0, nominal=50) "barA";
+ input Real superheater_drains_P(start=40, unit="bar", min=0, nominal=50) "barA";
+ input Real superheater_T_out(start=228) "°C"; // superheater_Kth
+ // LP turbines
+ input Real LP_extract_P(start=5, unit="bar", min=0, nominal=5) "barA";
+ // Condenser
+ input Real P_cond(start=69.8, unit="mbar", min=0, nominal=70) "mbar";
+ input Real CW_T_out(start=25, unit= "degC", min=0, nominal = 25) "degC";
+ // Generator
+ input Real W_elec(start=570) "MW"; //
+ // Extraction pump
+ input Real extraction_pump_P_out(start=7, unit="bar", min=0, nominal=70) "barA";
+ input Real extraction_pump_T_out(start=39, unit="degC", min=0, nominal=20) "degC";
+ // LP Heater
+ input Real LP_heater_P_out(start=6, min=0, nominal=50) "bar"; // LP_heater_Kfr_cold
+ input Real LP_heater_T_out(start=65, min=0, nominal=100) "degC"; // LP_heater_Kth
+ // LP reheater drains Control Valve
+ input Real LP_reheater_drains_control_valve_opening(start=0.15);
+ // Feedwater pump
+ input Real HP_pump_P_out(start=59, unit="bar", min=0, nominal=70) "barA";
+ input Real HP_pump_T_out(start=80, unit="degC", min=0, nominal=20) "degC";
+ // HP Reheater
+ input Real HP_heater_P_out(start=58, min=0, nominal=50) "bar";
+ input Real HP_heater_T_out(start=210, min=0, nominal=100) "degC";
+ input Real HP_heater_T_drains(start=90, min=0, nominal=100) "degC";
+ // HP reheater drains Control Valve
+ input Real HP_reheater_drains_control_valve_opening(start=0.15);
+
+ // Other observables
+ output Real Q_feedwater(start=1500, unit="kg/s", min=0, nominal=1e3) "kg/s"; // Feedwater flow rate
+
+ // Calibrated parameters (input used for calibration in comment)
+ // HP turbines inlet control valve
+ output Utilities.Units.Cv HP_control_valve_Cvmax; // HP valve opening
+ // HP Turbines
+ output Utilities.Units.Cst HPT1_Cst; // HP turbine inlet pressure
+ output Utilities.Units.Cst HPT2_Cst; // HP extract pressure
+ output Utilities.Units.Yield turbines_eta_is; // Welec
+ // Superheater inlet control valve
+ output Utilities.Units.Cv superheater_control_valve_Cvmax; // Superheater bleed pressure
+ // Superheater
+ output Utilities.Units.FrictionCoefficient superheater_Kfr_hot; // Superheater drains pressure
+ output Utilities.Units.HeatExchangeCoefficient superheater_Kth; // Superheater steam outlet temperature
+ // LP Turbines
+ output Utilities.Units.Cst LPT1_Cst; // HP turbine outlet pressure
+ output Utilities.Units.Cst LPT2_Cst; // LP extract pressure
+ // Condenser
+ output Utilities.Units.HeatExchangeCoefficient condenser_Kth; // P cond
+ output Utilities.Units.PositiveMassFlowRate condenser_Q_cold; // Circulating water outlet temperature
+ // Extraction pump
+ output Real extraction_pump_hn; // Extraction pump outlet pressure
+ output Real extraction_pump_rh; // Extraction pump outlet temperature
+ // LP Heater
+ output Utilities.Units.HeatExchangeCoefficient LP_heater_Kth; // LP heater outlet temperature
+ output Utilities.Units.FrictionCoefficient LP_heater_Kfr_cold; // LP heater outlet pressure
+ output Utilities.Units.Cv LP_heater_drains_control_valve_Cvmax; // LP heater drains valve opening
+ // Feedwater pump
+ output Real feedwater_pump_hn; // Feedwater pump outlet pressure
+ output Real feedwater_pump_rh; // Feedwater pump outlet temperature
+ // HP Heater
+ output Utilities.Units.HeatExchangeCoefficient HP_heater_Kth_cond; // HP heater outlet temperature
+ output Utilities.Units.HeatExchangeCoefficient HP_heater_Kth_subc; // HP heater drains temperature
+ output Utilities.Units.FrictionCoefficient HP_heater_Kfr_cold; // HP heater outlet pressure
+ output Utilities.Units.Cv HP_heater_drains_control_valve_Cvmax; // HP heater drains valve opening
+
+ MetroscopeModelingLibrary.WaterSteam.HeatExchangers.SteamGenerator steam_generator annotation (Placement(transformation(extent={{-192,-116},{-148,-24}})));
+ MetroscopeModelingLibrary.Sensors.WaterSteam.FlowSensor Q_feedwater_sensor(
+ Q_0=1500,
+ P_0=5800000,
+ h_0=0.9e6) annotation (Placement(transformation(extent={{-104,-77},{-118,-63}})));
+ MetroscopeModelingLibrary.WaterSteam.Pipes.ControlValve HP_control_valve(
+ T_out_0=535.15,
+ P_in_0=5000000,
+ P_out_0=4850000,
+ h_in_0=2.8e6,
+ h_out_0=2.8e6,
+ Q_0=1455,
+ T_0=536.15,
+ h_0=2.8e6) annotation (Placement(transformation(extent={{-135,69.8182},{-125,81.8182}})));
+ MetroscopeModelingLibrary.Sensors.Outline.OpeningSensor HP_control_valve_opening_sensor annotation (Placement(transformation(extent={{-136,86},{-126,96}})));
+ MetroscopeModelingLibrary.Sensors.WaterSteam.PressureSensor HPT_P_in_sensor(
+ Q_0=1455,
+ P_0=4850000,
+ h_0=2.8e6) annotation (Placement(transformation(extent={{-106,66},{-94,78}})));
+ MetroscopeModelingLibrary.WaterSteam.Machines.SteamTurbine HPT_1(
+ T_in_0=535.15,
+ T_out_0=608.85,
+ P_in_0=4850000,
+ P_out_0=3100000,
+ h_in_0=2.8e6,
+ h_out_0=2.7e6,
+ Q_0=1455) annotation (Placement(transformation(extent={{-79,64},{-61,80}})));
+ MetroscopeModelingLibrary.WaterSteam.Machines.SteamTurbine HPT_2(
+ T_in_0=508.85,
+ T_out_0=484.15,
+ P_in_0=3100000,
+ P_out_0=1940000,
+ h_in_0=2.73e6,
+ h_out_0=2.68e6,
+ Q_0=1113) annotation (Placement(transformation(extent={{-9,64},{9,80}})));
+ MetroscopeModelingLibrary.WaterSteam.Pipes.SteamExtractionSplitter HP_extract(
+ Q_in_0=1455,
+ Q_ext_0=340,
+ P_0=3100000,
+ T_0=508.85,
+ h_0=2.73e6) annotation (Placement(transformation(extent={{-50,62},{-30,80}})));
+ MetroscopeModelingLibrary.Sensors.WaterSteam.PressureSensor HP_extract_P_sensor(
+ Q_0=340,
+ P_0=3100000,
+ h_0=2.73e6) annotation (Placement(transformation(
+ extent={{-7,-7},{7,7}},
+ rotation=270,
+ origin={-40,47})));
+ MetroscopeModelingLibrary.Sensors.WaterSteam.PressureSensor HPT_P_out_sensor(
+ Q_0=1113,
+ P_0=1940000,
+ h_0=2.68e6) annotation (Placement(transformation(extent={{26,66},{38,78}})));
+ MetroscopeModelingLibrary.WaterSteam.Volumes.SteamDryer steam_dryer(
+ P_0=1940000,
+ T_0=483.95,
+ h_in_0=2.68e6,
+ Q_in_0=1113,
+ Q_liq_0=50) annotation (Placement(transformation(extent={{56,79.8182},{72,97.8182}})));
+ MetroscopeModelingLibrary.WaterSteam.HeatExchangers.Superheater superheater(
+ Q_cold_0=1059,
+ Q_hot_0=44,
+ P_cold_in_0=1940000,
+ P_cold_out_0=1940000,
+ P_hot_in_0=4100000,
+ P_hot_out_0=4000000,
+ T_cold_in_0=483.95,
+ T_cold_out_0=501.15,
+ T_hot_in_0=525.15,
+ T_hot_out_0=525.15,
+ h_cold_in_0=2.78e6,
+ h_cold_out_0=2.85e6,
+ h_hot_in_0=2.8e6,
+ h_hot_out_0=1.09e6) annotation (Placement(transformation(extent={{56,104},{88,120}})));
+ MetroscopeModelingLibrary.Sensors.WaterSteam.PressureSensor superheater_drains_P_sensor(
+ Q_0=44,
+ P_0=4000000,
+ h_0=1.09e6) annotation (Placement(transformation(extent={{100,106},{112,118}})));
+ MetroscopeModelingLibrary.Sensors.WaterSteam.TemperatureSensor superheater_T_out_sensor(
+ Q_0=1060,
+ P_0=1940000,
+ h_0=2.85e6,
+ T_0=501.15) annotation (Placement(transformation(extent={{88,124},{100,136}})));
+ MetroscopeModelingLibrary.WaterSteam.Pipes.ControlValve superheater_control_valve(
+ P_in_0=5000000,
+ P_out_0=4100000,
+ h_in_0=2.778e6,
+ h_out_0=2.778e6,
+ Q_0=45,
+ T_0=537.15,
+ h_0=2.8e6) annotation (Placement(transformation(extent={{-136,110},{-126,122}})));
+ MetroscopeModelingLibrary.Sensors.WaterSteam.PressureSensor superheater_bleed_P_sensor(
+ Q_0=45,
+ P_0=4100000,
+ h_0=2.778e6) annotation (Placement(transformation(extent={{-106,106.182},{-94,118.182}})));
+ MetroscopeModelingLibrary.WaterSteam.Pipes.PressureCut superheater_drains_pipe(
+ P_in_0=4000000,
+ P_out_0=3100000,
+ Q_0=44,
+ T_0=525.15,
+ h_0=1.09e6) annotation (Placement(transformation(
+ extent={{10,-10},{-10,10}},
+ rotation=90,
+ origin={122,30})));
+ MetroscopeModelingLibrary.WaterSteam.Machines.SteamTurbine LPT1(
+ T_in_0=501.15,
+ T_out_0=425.15,
+ P_in_0=1940000,
+ P_out_0=500000,
+ h_in_0=2.85e6,
+ h_out_0=2.7e6,
+ Q_0=1060) annotation (Placement(transformation(extent={{151,122},{169,138}})));
+ MetroscopeModelingLibrary.WaterSteam.Machines.SteamTurbine LPT2(
+ T_in_0=425.15,
+ T_out_0=312.05,
+ P_in_0=500000,
+ P_out_0=6900,
+ h_in_0=2.7e6,
+ h_out_0=2.4e6,
+ Q_0=1000) annotation (Placement(transformation(extent={{221,122},{239,138}})));
+ MetroscopeModelingLibrary.Sensors.WaterSteam.PressureSensor LP_extract_P_sensor(
+ Q_0=55,
+ P_0=500000,
+ h_0=2.7e6) annotation (Placement(transformation(
+ extent={{-7,-7},{7,7}},
+ rotation=270,
+ origin={196,101})));
+ MetroscopeModelingLibrary.WaterSteam.Pipes.SteamExtractionSplitter LP_extract(
+ Q_in_0=1060,
+ Q_ext_0=55,
+ P_0=500000,
+ T_0=425.15,
+ h_0=2.7e6) annotation (Placement(transformation(extent={{186,120},{206,138}})));
+ MetroscopeModelingLibrary.Power.BoundaryConditions.Sink powerSink annotation (Placement(transformation(extent={{362,158},{382,178}})));
+ MetroscopeModelingLibrary.Power.Machines.Generator generator annotation (Placement(transformation(extent={{308,156},{348,180}})));
+ MetroscopeModelingLibrary.Sensors.Power.PowerSensor W_elec_sensor annotation (Placement(transformation(extent={{348,162},{360,174}})));
+ MetroscopeModelingLibrary.Sensors.WaterSteam.PressureSensor P_cond_sensor(
+ Q_0=1000,
+ P_0=6900,
+ h_0=2.4e6) annotation (Placement(transformation(extent={{286,124},{298,136}})));
+ MetroscopeModelingLibrary.WaterSteam.HeatExchangers.Condenser condenser(
+ Q_cold_0=54000,
+ Q_hot_0=1000,
+ Psat_0=6980,
+ P_cold_in_0=300000,
+ P_cold_out_0=300000,
+ T_cold_in_0=288.15,
+ T_cold_out_0=298.15,
+ h_cold_in_0=63e3,
+ h_cold_out_0=105e3,
+ h_hot_in_0=2.4e6) annotation (Placement(transformation(extent={{377,48.2222},{408,74}})));
+ MetroscopeModelingLibrary.WaterSteam.BoundaryConditions.Sink cold_sink annotation (Placement(transformation(
+ extent={{-10,-10},{10,10}},
+ rotation=0,
+ origin={460,60})));
+ MetroscopeModelingLibrary.WaterSteam.BoundaryConditions.Source cold_source annotation (Placement(transformation(extent={{290,57.7778},{310,77.7778}})));
+ WaterSteam.Machines.FixedSpeedPump extraction_pump(
+ T_in_0=312.05,
+ T_out_0=312.15,
+ P_in_0=6980,
+ P_out_0=700000,
+ h_in_0=163e3,
+ h_out_0=164e3,
+ Q_0=1060) annotation (Placement(transformation(extent={{380,-78},{364,-62}})));
+ MetroscopeModelingLibrary.Sensors.WaterSteam.TemperatureSensor extraction_pump_T_out_sensor(
+ Q_0=1060,
+ P_0=700000,
+ h_0=164e3,
+ T_0=312.15) annotation (Placement(transformation(extent={{350,-77},{336,-63}})));
+ MetroscopeModelingLibrary.Sensors.WaterSteam.PressureSensor extraction_pump_P_out_sensor(
+ Q_0=1060,
+ P_0=700000,
+ h_0=164e3) annotation (Placement(transformation(extent={{7,-7},{-7,7}}, origin={315,-70})));
+ MetroscopeModelingLibrary.WaterSteam.HeatExchangers.DryReheater LP_heater(
+ Q_cold_0=1060,
+ Q_hot_0=55,
+ P_cold_in_0=700000,
+ P_cold_out_0=600000,
+ P_hot_in_0=500000,
+ P_hot_out_0=500000,
+ T_cold_in_0=312.15,
+ T_cold_out_0=338.15,
+ T_hot_in_0=425.15,
+ T_hot_out_0=425.15,
+ h_cold_in_0=164e3,
+ h_cold_out_0=272e3,
+ h_hot_in_0=2.7e6,
+ h_hot_out_0=640e3) annotation (Placement(transformation(extent={{284,-78},{252,-62}})));
+ MetroscopeModelingLibrary.Sensors.WaterSteam.TemperatureSensor LP_heater_T_out_sensor(
+ Q_0=1060,
+ P_0=700000,
+ h_0=272e3,
+ T_0=338.15) annotation (Placement(transformation(extent={{220,-77},{206,-63}})));
+ MetroscopeModelingLibrary.Sensors.WaterSteam.PressureSensor LP_heater_P_out_sensor(
+ Q_0=1060,
+ P_0=700000,
+ h_0=272e3) annotation (Placement(transformation(extent={{242,-77},{228,-63}})));
+ MetroscopeModelingLibrary.WaterSteam.Pipes.ControlValve LP_reheater_drains_control_valve(
+ P_in_0=500000,
+ P_out_0=6900,
+ Q_0=55,
+ T_0=425.15,
+ h_0=640e3) annotation (Placement(transformation(extent={{288,-122},{298,-110}})));
+ MetroscopeModelingLibrary.Sensors.Outline.OpeningSensor LP_reheater_drains_control_valve_opening_sensor annotation (Placement(transformation(extent={{288,-106},{298,-96}})));
+ MetroscopeModelingLibrary.WaterSteam.Pipes.FrictionPipe deaerator_inlet_pipe(
+ P_in_0=600000,
+ P_out_0=550000,
+ Q_0=1060,
+ T_0=338.15,
+ h_0=272e3) annotation (Placement(transformation(extent={{186,-80},{166,-60}})));
+ MetroscopeModelingLibrary.WaterSteam.Pipes.PressureCut steam_dryer_liq_out_pipe(
+ P_in_0=1940000,
+ P_out_0=1940000,
+ Q_0=50,
+ T_0=483.95,
+ h_0=901606.56) annotation (Placement(transformation(
+ extent={{10,-10},{-10,10}},
+ rotation=90,
+ origin={142,-50})));
+ MetroscopeModelingLibrary.WaterSteam.Pipes.FrictionPipe deaerator_outlet_pipe(
+ P_in_0=550000,
+ P_out_0=600000,
+ Q_0=1500,
+ T_0=350.05,
+ h_0=322e3) annotation (Placement(transformation(extent={{114,-80},{94,-60}})));
+ WaterSteam.Machines.FixedSpeedPump feedwater_pump(
+ T_in_0=350.05,
+ T_out_0=353.15,
+ P_in_0=600000,
+ P_out_0=5900000,
+ h_in_0=322e3,
+ h_out_0=340e3,
+ Q_0=1500) annotation (Placement(transformation(extent={{62,-78},{46,-62}})));
+ MetroscopeModelingLibrary.Sensors.WaterSteam.TemperatureSensor HP_pump_T_out_sensor(
+ Q_0=1500,
+ P_0=5900000,
+ h_0=340e3,
+ T_0=353.15) annotation (Placement(transformation(extent={{30,-77},{16,-63}})));
+ MetroscopeModelingLibrary.Sensors.WaterSteam.PressureSensor HP_pump_P_out_sensor(
+ Q_0=1500,
+ P_0=5900000,
+ h_0=340e3) annotation (Placement(transformation(extent={{7,-7},{-7,7}}, origin={-3,-70})));
+ MetroscopeModelingLibrary.WaterSteam.HeatExchangers.Reheater HP_heater(Q_cold_0=1500,
+ Q_hot_0=387,
+ P_cold_in_0=5900000,
+ P_cold_out_0=5800000,
+ P_hot_in_0=3100000,
+ P_hot_out_0=3100000,
+ T_cold_in_0=353.15,
+ T_cold_out_0=483.15,
+ T_hot_in_0=508.85,
+ T_hot_out_0=363.15,
+ h_cold_in_0=340e3,
+ h_cold_out_0=0.9e6,
+ h_hot_in_0=2.55e6,
+ h_hot_out_0=379e3) annotation (Placement(transformation(extent={{-24,-78},{-56,-62}})));
+ MetroscopeModelingLibrary.Sensors.WaterSteam.TemperatureSensor HP_heater_T_out_sensor(
+ Q_0=1500,
+ P_0=5800000,
+ h_0=0.9e6) annotation (Placement(transformation(extent={{-84,-77},{-98,-63}})));
+ MetroscopeModelingLibrary.Sensors.WaterSteam.PressureSensor HP_heater_P_out_sensor(
+ Q_0=1500,
+ P_0=5800000,
+ h_0=0.9e6) annotation (Placement(transformation(extent={{-64,-77},{-78,-63}})));
+ MetroscopeModelingLibrary.Sensors.WaterSteam.TemperatureSensor HP_heater_T_drains_sensor(
+ Q_0=387,
+ P_0=3100000,
+ h_0=379e3,
+ T_0=363.15) annotation (Placement(transformation(
+ extent={{7,-7},{-7,7}},
+ rotation=90,
+ origin={-40,-98})));
+ MetroscopeModelingLibrary.WaterSteam.Pipes.ControlValve HP_reheater_drains_control_valve annotation (Placement(transformation(extent={{6,-124},{16,-112}})));
+ MetroscopeModelingLibrary.Sensors.Outline.OpeningSensor HP_reheater_drains_control_valve_opening_sensor annotation (Placement(transformation(extent={{6,-108},{16,-98}})));
+ MetroscopeModelingLibrary.Sensors.WaterSteam.PressureSensor P_steam_sensor(
+ Q_0=1500,
+ P_0=5000000,
+ h_0=2.778e6) annotation (Placement(transformation(
+ extent={{-7,-7},{7,7}},
+ rotation=90,
+ origin={-170,10})));
+ MetroscopeModelingLibrary.WaterSteam.Pipes.PressureCut pressureCut(
+ P_in_0=4000000,
+ P_out_0=4000000,
+ Q_0=2,
+ T_0=525.15,
+ h_0=2.8e6) annotation (Placement(transformation(extent={{94,76},{114,96}})));
+ MetroscopeModelingLibrary.Sensors.WaterSteam.TemperatureSensor CW_T_in_sensor(
+ Q_0=54000,
+ P_0=300000,
+ h_0=63e3,
+ T_0=288.15) annotation (Placement(transformation(extent={{318,60},{332,74}})));
+ MetroscopeModelingLibrary.Sensors.WaterSteam.PressureSensor CW_P_in_sensor(
+ Q_0=54000,
+ P_0=300000,
+ h_0=63e3) annotation (Placement(transformation(extent={{346,60},{360,74}})));
+ MetroscopeModelingLibrary.Sensors.WaterSteam.TemperatureSensor CW_T_out_sensor(
+ Q_0=54000,
+ P_0=300000,
+ h_0=105e3,
+ T_0=298.15) annotation (Placement(transformation(extent={{423,53},{437,67}})));
+ MetroscopeModelingLibrary.Sensors.WaterSteam.FlowSensor Q_purge_sensor(Q_0=5, h_0=1154502)
+ annotation (Placement(transformation(
+ extent={{-7,-7},{7,7}},
+ rotation=270,
+ origin={-170,-132})));
+ MetroscopeModelingLibrary.WaterSteam.BoundaryConditions.Sink sink annotation (Placement(transformation(
+ extent={{-10,-10},{10,10}},
+ rotation=270,
+ origin={-170,-150})));
+ MetroscopeModelingLibrary.WaterSteam.Pipes.LoopBreaker loopBreaker annotation (Placement(transformation(
+ extent={{-10,-10},{10,10}},
+ rotation=180,
+ origin={-142,-70})));
+ MetroscopeModelingLibrary.Power.BoundaryConditions.Source source annotation (Placement(transformation(extent={{-238,-80},{-218,-60}})));
+ MetroscopeModelingLibrary.Sensors.Power.PowerSensor thermal_power_sensor annotation (Placement(transformation(extent={{-212,-78},{-196,-62}})));
+equation
+
+ // SteamGenerator
+
+ // Quantities definitions
+ P_steam_sensor.P_barA = P_steam;
+ Q_feedwater_sensor.Q = Q_feedwater;
+ Q_purge_sensor.Q = Q_purge;
+ thermal_power_sensor.W_MW = thermal_power;
+
+ // Parameters
+ steam_generator.vapor_fraction = 0.99;
+
+ // Hypothesis
+ steam_generator.P_purge = P_steam * 1e5;
+
+ // HP Turbines
+
+ // Quantities definitions
+ HPT_P_in_sensor.P_barA = HPT_P_in;
+ HP_control_valve_opening_sensor.Opening = HP_control_valve_opening;
+ HP_extract_P_sensor.P_barA = HP_extract_P;
+ HPT_P_out_sensor.P_barA = HPT_P_out;
+
+ // Calibrated parameters
+ HP_control_valve.Cv_max = HP_control_valve_Cvmax;
+ HPT_1.Cst = HPT1_Cst;
+ HPT_1.eta_is = turbines_eta_is;
+ HPT_2.Cst = HPT2_Cst;
+ HPT_2.eta_is = turbines_eta_is;
+
+ // Parameter
+ HP_extract.alpha = 1;
+
+ // Dryer - Superheater
+
+ // Quantities definitions
+ superheater_bleed_P_sensor.P_barA = superheater_bleed_P;
+ superheater_drains_P_sensor.P_barA = superheater_drains_P;
+ superheater_T_out_sensor.T_degC = superheater_T_out;
+
+ // Parameters
+ superheater.S = 100;
+ superheater.Kfr_cold = 0;
+ superheater.Q_vent = 1;
+ steam_dryer.x_steam_out = 0.99;
+
+ // Calibrated parameters
+ superheater.Kfr_hot = superheater_Kfr_hot;
+ superheater.Kth = superheater_Kth;
+ superheater_control_valve.Cv_max = superheater_control_valve_Cvmax;
+
+ // Hypothesis
+ superheater_control_valve.Opening = 1;
+
+ // LP Turbines and extraction
+
+ // Quantities definitions
+ LP_extract_P_sensor.P_barA = LP_extract_P;
+
+ // Calibrated parameters
+ LPT1.Cst = LPT1_Cst;
+ LPT1.eta_is = turbines_eta_is;
+ LPT2.Cst = LPT2_Cst;
+ LPT2.eta_is = turbines_eta_is;
+
+ // Parameters
+ LP_extract.alpha = 1;
+
+ // Generator
+
+ // Quantities definitions
+ W_elec_sensor.W_MW = W_elec;
+
+ // Fixed parameter
+ generator.eta = 0.99;
+
+ // Condenser
+
+ // Quantities definitions
+ CW_P_in_sensor.P_barA = CW_P_in; // BC
+ CW_T_in_sensor.T_degC = CW_T_in; // BC
+ P_cond_sensor.P_mbar = P_cond;
+ CW_T_out_sensor.T_degC = CW_T_out;
+
+ // Parameters
+ condenser.S = 100;
+ condenser.water_height = 1;
+ condenser.C_incond = 0;
+ condenser.P_offset = 0;
+ condenser.Kfr_cold = 0;
+
+ // Calibrated Parameters
+ condenser.Kth = condenser_Kth;
+ condenser.Q_cold = condenser_Q_cold;
+
+ // Extraction pump
+
+ // Quantities defintions
+ extraction_pump_T_out_sensor.T_degC = extraction_pump_T_out;
+ extraction_pump_P_out_sensor.P_barA = extraction_pump_P_out;
+
+ // Calibrated parameters
+ extraction_pump.hn = extraction_pump_hn;
+ extraction_pump.rh = extraction_pump_rh;
+
+ // LP Heater and drains
+
+ // Quantities definitions
+ LP_heater_P_out_sensor.P_barA = LP_heater_P_out;
+ LP_heater_T_out_sensor.T_degC = LP_heater_T_out;
+ LP_reheater_drains_control_valve_opening_sensor.Opening = LP_reheater_drains_control_valve_opening;
+
+ // Parameters
+ LP_heater.S = 100;
+ LP_heater.Kfr_hot = 0;
+
+ // Calibrated parameters
+ LP_heater.Kth = LP_heater_Kth;
+ LP_heater.Kfr_cold = LP_heater_Kfr_cold;
+ LP_reheater_drains_control_valve.Cv_max = LP_heater_drains_control_valve_Cvmax;
+
+ // Deaerator
+
+ deaerator_inlet_pipe.Kfr = 0;
+ deaerator_inlet_pipe.delta_z = 5;
+ deaerator_outlet_pipe.Kfr = 0;
+ deaerator_outlet_pipe.delta_z = -5;
+
+ // Feedwater pump
+
+ // Quantities definitions
+ HP_pump_T_out_sensor.T_degC = HP_pump_T_out;
+ HP_pump_P_out_sensor.P_barA = HP_pump_P_out;
+
+ // Calibrated parameters
+ feedwater_pump.hn = feedwater_pump_hn;
+ feedwater_pump.rh = feedwater_pump_rh;
+
+ // HP Reheater and drains
+
+ // Quantities definitions
+ HP_heater_P_out_sensor.P_barA = HP_heater_P_out;
+ HP_heater_T_out_sensor.T_degC = HP_heater_T_out;
+ HP_heater_T_drains_sensor.T_degC = HP_heater_T_drains;
+ HP_reheater_drains_control_valve_opening_sensor.Opening = HP_reheater_drains_control_valve_opening;
+
+ // Parameters
+ HP_heater.S = 100;
+ HP_heater.Kfr_hot = 0;
+ HP_heater.level = 0.3;
+
+ // Calibrated parameters
+ HP_heater.Kth_subc = HP_heater_Kth_subc;
+ HP_heater.Kth_cond = HP_heater_Kth_cond;
+ HP_heater.Kfr_cold = HP_heater_Kfr_cold;
+ HP_reheater_drains_control_valve.Cv_max = HP_heater_drains_control_valve_Cvmax;
+
+ connect(HP_control_valve.C_out, HPT_P_in_sensor.C_in) annotation (Line(points={{-125,72},
+ {-116,72},{-116,72},{-106,72}}, color={28,108,200}));
+ connect(HP_control_valve.Opening, HP_control_valve_opening_sensor.Opening) annotation (Line(points={{-130,80.7273},{-130,82},{-131,82},{-131,85.9}},
+ color={0,0,127}));
+ connect(HPT_1.C_out, HP_extract.C_in) annotation (Line(points={{-61,72},{-50.6,72}}, color={28,108,200}));
+ connect(HP_extract.C_main_out, HPT_2.C_in) annotation (Line(points={{-29.4,72},{-9,72}}, color={28,108,200}));
+ connect(HP_extract.C_ext_out, HP_extract_P_sensor.C_in) annotation (Line(points={{-40,65.2},{-40,54}}, color={28,108,200}));
+ connect(powerSink.C_in,W_elec_sensor. C_out) annotation (Line(points={{367,168},{359.88,168}},
+ color={244,125,35}));
+ connect(W_elec_sensor.C_in,generator. C_out) annotation (Line(points={{348,168},{342,168}},
+ color={244,125,35}));
+ connect(HPT_2.C_W_out, generator.C_in) annotation (Line(points={{9,78.72},{18,78.72},{18,168},{315.6,168}}, color={244,125,35}));
+ connect(HPT_1.C_W_out, generator.C_in) annotation (Line(points={{-61,78.72},{-54,78.72},{-54,168},{315.6,168}}, color={244,125,35}));
+ connect(HPT_1.C_in, HPT_P_in_sensor.C_out) annotation (Line(points={{-79,72},{-94,72}}, color={28,108,200}));
+ connect(HPT_P_out_sensor.C_in, HPT_2.C_out) annotation (Line(points={{26,72},{9,72}}, color={28,108,200}));
+ connect(steam_dryer.C_in, HPT_P_out_sensor.C_out) annotation (Line(points={{56,
+ 91.2727},{56,92},{46,92},{46,72},{38,72}}, color={28,108,200}));
+ connect(superheater.C_cold_in, steam_dryer.C_hot_steam) annotation (Line(points={{72,104},
+ {72,91.2727}}, color={28,108,200}));
+ connect(superheater.C_hot_out, superheater_drains_P_sensor.C_in) annotation (Line(points={{88,112},{100,112}}, color={28,108,200}));
+ connect(superheater_T_out_sensor.C_in,superheater. C_cold_out) annotation (Line(points={{88,130},{72,130},{72,120}}, color={28,108,200}));
+ connect(superheater_control_valve.C_in, HP_control_valve.C_in) annotation (Line(points={{-136,
+ 112.182},{-136,112},{-158,112},{-158,72},{-135,72}}, color={28,108,200}));
+ connect(superheater.C_hot_in, superheater_bleed_P_sensor.C_out) annotation (Line(points={{56,112},{-35,112},{-35,112.182},{-94,112.182}}, color={28,108,200}));
+ connect(superheater_bleed_P_sensor.C_in, superheater_control_valve.C_out) annotation (Line(points={{-106,
+ 112.182},{-116,112.182},{-116,112.182},{-126,112.182}}, color={28,108,200}));
+ connect(LPT1.C_W_out, generator.C_in) annotation (Line(points={{169,136.72},{188,136.72},{188,168},{315.6,168}}, color={244,125,35}));
+ connect(LPT2.C_W_out, generator.C_in) annotation (Line(points={{239,136.72},{262,136.72},{262,168},{315.6,168}}, color={244,125,35}));
+ connect(LPT2.C_out, P_cond_sensor.C_in) annotation (Line(points={{239,130},{286,130}}, color={28,108,200}));
+ connect(P_cond_sensor.C_out, condenser.C_hot_in) annotation (Line(points={{298,130},
+ {392.5,130},{392.5,74.2864}}, color={28,108,200}));
+ connect(superheater_T_out_sensor.C_out, LPT1.C_in) annotation (Line(points={{100,130},{151,130}}, color={28,108,200}));
+ connect(extraction_pump.C_out, extraction_pump_T_out_sensor.C_in) annotation (Line(points={{364,-70},{350,-70}}, color={28,108,200}));
+ connect(extraction_pump_T_out_sensor.C_out,extraction_pump_P_out_sensor. C_in) annotation (Line(points={{336,-70},{322,-70}}, color={28,108,200}));
+ connect(condenser.C_hot_out, extraction_pump.C_in) annotation (Line(points={{392.5,48.2222},{392.5,-70},{380,-70}},
+ color={28,108,200}));
+ connect(LP_heater.C_cold_out, LP_heater_P_out_sensor.C_in) annotation (Line(points={{252,-70},{242,-70}}, color={28,108,200}));
+ connect(LP_heater_P_out_sensor.C_out,LP_heater_T_out_sensor. C_in) annotation (Line(points={{228,-70},{224,-70},{224,-70.5},{220,-70.5},{220,-70}},
+ color={28,108,200}));
+ connect(extraction_pump_P_out_sensor.C_out, LP_heater.C_cold_in) annotation (Line(points={{308,-70},{284.2,-70}}, color={28,108,200}));
+ connect(LP_extract_P_sensor.C_out, LP_heater.C_hot_in) annotation (Line(points={{196,94},
+ {196,44},{268,44},{268,-62}}, color={28,108,200}));
+ connect(LP_extract_P_sensor.C_in, LP_extract.C_ext_out) annotation (Line(points={{196,108},
+ {196,123.2}}, color={28,108,200}));
+ connect(LPT1.C_out, LP_extract.C_in) annotation (Line(points={{169,130},{185.4,130}}, color={28,108,200}));
+ connect(LPT2.C_in, LP_extract.C_main_out) annotation (Line(points={{221,130},{206.6,130}}, color={28,108,200}));
+ connect(deaerator_inlet_pipe.C_in, LP_heater_T_out_sensor.C_out) annotation (Line(points={{186,-70},{206,-70}}, color={28,108,200}));
+ connect(steam_dryer.C_hot_liquid, steam_dryer_liq_out_pipe.C_in) annotation (Line(points={{72,84.7273},{72,-34},{142,-34},{142,-40}},
+ color={28,108,200}));
+ connect(deaerator_inlet_pipe.C_out, deaerator_outlet_pipe.C_in) annotation (Line(points={{166,-70},{114,-70}}, color={28,108,200}));
+ connect(steam_dryer_liq_out_pipe.C_out, deaerator_outlet_pipe.C_in) annotation (Line(points={{142,-60},{142,-70},{114,-70}}, color={28,108,200}));
+ connect(feedwater_pump.C_out, HP_pump_T_out_sensor.C_in) annotation (Line(points={{46,-70},{30,-70}}, color={28,108,200}));
+ connect(HP_pump_T_out_sensor.C_out, HP_pump_P_out_sensor.C_in) annotation (Line(points={{16,-70},{4,-70}}, color={28,108,200}));
+ connect(feedwater_pump.C_in, deaerator_outlet_pipe.C_out) annotation (Line(points={{62,-70},{94,-70}}, color={28,108,200}));
+ connect(HP_pump_P_out_sensor.C_out, HP_heater.C_cold_in) annotation (Line(points={{-10,-70},{-23.8,-70}}, color={28,108,200}));
+ connect(HP_heater.C_cold_out, HP_heater_P_out_sensor.C_in) annotation (Line(points={{-56,-70},{-64,-70}}, color={28,108,200}));
+ connect(HP_heater_P_out_sensor.C_out, HP_heater_T_out_sensor.C_in) annotation (Line(points={{-78,-70},{-84,-70}}, color={28,108,200}));
+ connect(HP_heater_T_drains_sensor.C_in, HP_heater.C_hot_out) annotation (Line(points={{-40,-91},{-40,-78}}, color={28,108,200}));
+ connect(HP_extract_P_sensor.C_out, HP_heater.C_hot_in) annotation (Line(points={{-40,40},{-40,-62}}, color={28,108,200}));
+ connect(superheater_drains_P_sensor.C_out, superheater_drains_pipe.C_in) annotation (Line(points={{112,112},{122,112},{122,40}}, color={28,108,200}));
+ connect(superheater_drains_pipe.C_out, HP_heater.C_hot_in) annotation (Line(points={{122,20},{122,16},{-40,16},{-40,-62}}, color={28,108,200}));
+ connect(HP_heater_T_out_sensor.C_out, Q_feedwater_sensor.C_in) annotation (Line(points={{-98,-70},{-104,-70}}, color={28,108,200}));
+ connect(HP_reheater_drains_control_valve.Opening, HP_reheater_drains_control_valve_opening_sensor.Opening) annotation (Line(points={{11,
+ -113.091},{11,-108.1}}, color={0,0,127}));
+ connect(HP_heater_T_drains_sensor.C_out, HP_reheater_drains_control_valve.C_in) annotation (Line(points={{-40,
+ -105},{-40,-121.818},{6,-121.818}}, color={28,108,200}));
+ connect(LP_reheater_drains_control_valve.Opening, LP_reheater_drains_control_valve_opening_sensor.Opening) annotation (Line(points={{293,
+ -111.091},{293,-106.1}}, color={0,0,127}));
+ connect(LP_heater.C_hot_out, LP_reheater_drains_control_valve.C_in) annotation (Line(points={{268,-78},
+ {268,-119.818},{288,-119.818}}, color={28,108,200}));
+ connect(steam_generator.steam_outlet, P_steam_sensor.C_in) annotation (Line(points={{-170,-24},{-170,3}}, color={28,108,200}));
+ connect(P_steam_sensor.C_out, HP_control_valve.C_in) annotation (Line(points={{-170,17},
+ {-170,72},{-135,72}}, color={28,108,200}));
+ connect(superheater.C_vent, pressureCut.C_in) annotation (Line(points={{88,104.2},{88,86},{94,86}}, color={28,108,200}));
+ connect(pressureCut.C_out, superheater_drains_pipe.C_in) annotation (Line(points={{114,86},{122,86},{122,40}}, color={28,108,200}));
+ connect(cold_source.C_out, CW_T_in_sensor.C_in) annotation (Line(points={{305,67.7778},{305,67},{318,67}}, color={28,108,200}));
+ connect(CW_T_in_sensor.C_out, CW_P_in_sensor.C_in) annotation (Line(points={{332,67},{346,67}}, color={28,108,200}));
+ connect(CW_P_in_sensor.C_out, condenser.C_cold_in) annotation (Line(points={{360,67},{378,67},{378,59.679},{377,59.679}}, color={28,108,200}));
+ connect(CW_T_out_sensor.C_out, cold_sink.C_in) annotation (Line(points={{437,60},{455,60}}, color={28,108,200}));
+ connect(condenser.C_cold_out, CW_T_out_sensor.C_in) annotation (Line(points={{407.69,59.679},{407.69,60},{423,60}}, color={28,108,200}));
+ connect(LP_reheater_drains_control_valve.C_out, condenser.C_hot_in) annotation (Line(points={{298,
+ -119.818},{400,-119.818},{400,-120},{500,-120},{500,100},{392.5,100},
+ {392.5,74.2864}}, color={28,108,200}));
+ connect(HP_reheater_drains_control_valve.C_out, deaerator_outlet_pipe.C_in) annotation (Line(points={{16,
+ -121.818},{78,-121.818},{78,-122},{142,-122},{142,-70},{114,-70}}, color={28,108,200}));
+ connect(steam_generator.purge_outlet, Q_purge_sensor.C_in) annotation (Line(points={{-170,
+ -115.233},{-170,-125}}, color={28,108,200}));
+ connect(Q_feedwater_sensor.C_out, loopBreaker.C_in) annotation (Line(points={{-118,-70},{-132,-70}}, color={28,108,200}));
+ connect(loopBreaker.C_out, steam_generator.feedwater_inlet) annotation (Line(points={{-152,-70},{-159,-70}}, color={28,108,200}));
+ connect(Q_purge_sensor.C_out, sink.C_in) annotation (Line(points={{-170,-139},{-170,-145}}, color={28,108,200}));
+ connect(steam_generator.C_thermal_power, thermal_power_sensor.C_out) annotation (Line(points={{-181,-70},{-196.16,-70}}, color={244,125,35}));
+ connect(thermal_power_sensor.C_in, source.C_out) annotation (Line(points={{-212,-70},{-223.2,-70}}, color={244,125,35}));
+ annotation (Icon(coordinateSystem(preserveAspectRatio=false, extent={{-240,-160},{520,200}})), Diagram(coordinateSystem(preserveAspectRatio=false, extent={{-240,-160},{520,200}})));
+end MetroscopiaNPP_reverse_old;
diff --git a/MetroscopeModelingLibrary/Examples/Nuclear/MetroscopiaNPP/package.order b/MetroscopeModelingLibrary/Examples/Nuclear/MetroscopiaNPP/package.order
index ce891a34..11fe728d 100644
--- a/MetroscopeModelingLibrary/Examples/Nuclear/MetroscopiaNPP/package.order
+++ b/MetroscopeModelingLibrary/Examples/Nuclear/MetroscopiaNPP/package.order
@@ -1,3 +1,4 @@
+MetroscopiaNPP_reverse_old
MetroscopiaNPP_reverse
MetroscopiaNPP_direct
MetroscopiaNPP_direct_withStartValues
diff --git a/MetroscopeModelingLibrary/FlueGases/Machines/AirCompressor.mo b/MetroscopeModelingLibrary/FlueGases/Machines/AirCompressor.mo
index 9c6734c1..e9600017 100644
--- a/MetroscopeModelingLibrary/FlueGases/Machines/AirCompressor.mo
+++ b/MetroscopeModelingLibrary/FlueGases/Machines/AirCompressor.mo
@@ -12,8 +12,8 @@ model AirCompressor
import MetroscopeModelingLibrary.Utilities.Units;
import MetroscopeModelingLibrary.Utilities.Units.Inputs;
- Inputs.InputReal tau(start=15, min = 1) "Compression rate";
- Inputs.InputReal eta_is(start=0.8, min=0, max=1) "Nominal isentropic efficiency";
+ parameter Real tau_constant = 15;
+ parameter Real eta_is_constant = 0.8;
Units.SpecificEnthalpy h_is(start=1e6) "Isentropic compression outlet enthalpy";
FlueGasesMedium.ThermodynamicState state_is "Isentropic compression outlet thermodynamic state";
@@ -25,6 +25,20 @@ model AirCompressor
Units.Percentage tau_decrease(min = 0, max=100) "percentage decrease of tau";
Power.Connectors.Inlet C_W_in annotation (Placement(transformation(extent={{90,50},{110,70}}), iconTransformation(extent={{90,50},{110,70}})));
+ Utilities.Interfaces.GenericReal tau annotation (Placement(transformation(
+ extent={{-10,-10},{10,10}},
+ rotation=90,
+ origin={-90,70}), iconTransformation(
+ extent={{-10,-10},{10,10}},
+ rotation=90,
+ origin={-90,70})));
+ Utilities.Interfaces.GenericReal eta_is annotation (Placement(transformation(
+ extent={{-10,10},{10,-10}},
+ rotation=90,
+ origin={-80,70}), iconTransformation(
+ extent={{-10,10},{10,-10}},
+ rotation=90,
+ origin={-70,66})));
equation
// Failure modes
diff --git a/MetroscopeModelingLibrary/FlueGases/Machines/GasTurbine.mo b/MetroscopeModelingLibrary/FlueGases/Machines/GasTurbine.mo
index 0355c218..bdbe194a 100644
--- a/MetroscopeModelingLibrary/FlueGases/Machines/GasTurbine.mo
+++ b/MetroscopeModelingLibrary/FlueGases/Machines/GasTurbine.mo
@@ -12,9 +12,9 @@ model GasTurbine
import MetroscopeModelingLibrary.Utilities.Units;
import MetroscopeModelingLibrary.Utilities.Units.Inputs;
+ parameter Units.Yield eta_is_constant = 0.8;
Inputs.InputReal tau(start=15, min = 1) "Compression rate";
- Real eta_is(start=0.8, min=0, max=1) "Nominal isentropic efficiency";
- Inputs.InputReal eta_mech(start=1, min=0, max=1) "Nominal mechanical efficiency";
+ parameter Units.Yield eta_mech = 0.99 "Nominal mechanical efficiency";
Units.SpecificEnthalpy h_is(start=1e6) "Isentropic compression outlet enthalpy";
FlueGasesMedium.ThermodynamicState state_is "Isentropic compression outlet thermodynamic state";
@@ -26,6 +26,13 @@ model GasTurbine
Units.Percentage eta_is_decrease(min = 0, max=100) "percentage decrease of eta_is";
Power.Connectors.Outlet C_W_shaft annotation (Placement(transformation(extent={{90,90},{110,110}}), iconTransformation(extent={{90,90},{110,110}})));
+ Utilities.Interfaces.GenericReal eta_is(start=eta_is_constant) annotation (Placement(transformation(
+ extent={{-10,-10},{10,10}},
+ rotation=90,
+ origin={-100,80}), iconTransformation(
+ extent={{-10,-10},{10,10}},
+ rotation=90,
+ origin={-100,80})));
equation
// Failure modes
@@ -46,7 +53,6 @@ equation
/* Isentropic expansion */
state_is = Medium.setState_psX(P_out, Medium.specificEntropy(state_in),Xi);
h_is = Medium.specificEnthalpy(state_is);
-
annotation (
Diagram(coordinateSystem(
preserveAspectRatio=false,
diff --git a/MetroscopeModelingLibrary/FlueGases/Pipes/Filter.mo b/MetroscopeModelingLibrary/FlueGases/Pipes/Filter.mo
index f85f2d0a..127e3024 100644
--- a/MetroscopeModelingLibrary/FlueGases/Pipes/Filter.mo
+++ b/MetroscopeModelingLibrary/FlueGases/Pipes/Filter.mo
@@ -1,6 +1,7 @@
within MetroscopeModelingLibrary.FlueGases.Pipes;
model Filter
- extends Pipe annotation(IconMap(primitivesVisible=false));
+ extends FrictionPipe
+ annotation(IconMap(primitivesVisible=false));
annotation (Icon(graphics={Rectangle(
extent={{-60,100},{60,-100}},
lineColor={28,108,200},
diff --git a/MetroscopeModelingLibrary/FlueGases/Pipes/FrictionPipe.mo b/MetroscopeModelingLibrary/FlueGases/Pipes/FrictionPipe.mo
new file mode 100644
index 00000000..e704a5f8
--- /dev/null
+++ b/MetroscopeModelingLibrary/FlueGases/Pipes/FrictionPipe.mo
@@ -0,0 +1,185 @@
+within MetroscopeModelingLibrary.FlueGases.Pipes;
+model FrictionPipe
+ extends MetroscopeModelingLibrary.Utilities.Icons.KeepingScaleIcon;
+ package FlueGasesMedium = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium;
+ extends Partial.Pipes.FrictionPipe
+ (
+ redeclare MetroscopeModelingLibrary.FlueGases.Connectors.Inlet C_in,
+ redeclare MetroscopeModelingLibrary.FlueGases.Connectors.Outlet C_out,
+ redeclare package Medium = FlueGasesMedium,
+ Q_0 = 50, rho_0=1) annotation(IconMap(primitivesVisible=false));
+ annotation (Icon(coordinateSystem(preserveAspectRatio=false), graphics={
+ Rectangle(
+ extent={{-100,30},{100,-30}},
+ lineColor={95,95,95},
+ fillColor={95,95,95},
+ fillPattern=FillPattern.Solid),
+ Line(
+ points={{-80,30},{-76,24},{-72,30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{-72,30},{-68,24},{-64,30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{-56,30},{-52,24},{-48,30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{-64,30},{-60,24},{-56,30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{-24,30},{-20,24},{-16,30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{-32,30},{-28,24},{-24,30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{-40,30},{-36,24},{-32,30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{-48,30},{-44,24},{-40,30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{-16,30},{-12,24},{-8,30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{-8,30},{-4,24},{0,30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{8,30},{12,24},{16,30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{0,30},{4,24},{8,30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{40,30},{44,24},{48,30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{32,30},{36,24},{40,30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{24,30},{28,24},{32,30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{16,30},{20,24},{24,30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{72,30},{76,24},{80,30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{64,30},{68,24},{72,30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{56,30},{60,24},{64,30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{48,30},{52,24},{56,30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{-80,-30},{-76,-24},{-72,-30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{-72,-30},{-68,-24},{-64,-30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{-56,-30},{-52,-24},{-48,-30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{-64,-30},{-60,-24},{-56,-30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{-24,-30},{-20,-24},{-16,-30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{-32,-30},{-28,-24},{-24,-30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{-40,-30},{-36,-24},{-32,-30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{-48,-30},{-44,-24},{-40,-30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{-16,-30},{-12,-24},{-8,-30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{-8,-30},{-4,-24},{0,-30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{8,-30},{12,-24},{16,-30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{0,-30},{4,-24},{8,-30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{40,-30},{44,-24},{48,-30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{32,-30},{36,-24},{40,-30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{24,-30},{28,-24},{32,-30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{16,-30},{20,-24},{24,-30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{72,-30},{76,-24},{80,-30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{64,-30},{68,-24},{72,-30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{56,-30},{60,-24},{64,-30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{48,-30},{52,-24},{56,-30}},
+ color={0,0,0},
+ thickness=0.5)}), Diagram(coordinateSystem(preserveAspectRatio=false)),
+ Icon(coordinateSystem(
+ preserveAspectRatio=true,
+ extent={{-100,-100},{100,100}},
+ grid={2,2}), graphics={ Text(
+ extent={{-12,14},{16,-14}},
+ lineColor={0,0,255},
+ fillColor={95,95,95},
+ fillPattern=FillPattern.Solid)}));
+end FrictionPipe;
diff --git a/MetroscopeModelingLibrary/FlueGases/Pipes/Pipe.mo b/MetroscopeModelingLibrary/FlueGases/Pipes/HeightVariationPipe.mo
similarity index 89%
rename from MetroscopeModelingLibrary/FlueGases/Pipes/Pipe.mo
rename to MetroscopeModelingLibrary/FlueGases/Pipes/HeightVariationPipe.mo
index 96ce498d..8b8c167c 100644
--- a/MetroscopeModelingLibrary/FlueGases/Pipes/Pipe.mo
+++ b/MetroscopeModelingLibrary/FlueGases/Pipes/HeightVariationPipe.mo
@@ -1,8 +1,9 @@
within MetroscopeModelingLibrary.FlueGases.Pipes;
-model Pipe
+model HeightVariationPipe
extends MetroscopeModelingLibrary.Utilities.Icons.KeepingScaleIcon;
package FlueGasesMedium = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium;
- extends Partial.Pipes.Pipe(
+ extends Partial.Pipes.HeightVariationPipe
+ (
redeclare MetroscopeModelingLibrary.FlueGases.Connectors.Inlet C_in,
redeclare MetroscopeModelingLibrary.FlueGases.Connectors.Outlet C_out,
redeclare package Medium = FlueGasesMedium,
@@ -21,4 +22,4 @@ model Pipe
lineColor={0,0,255},
fillColor={95,95,95},
fillPattern=FillPattern.Solid)}));
-end Pipe;
+end HeightVariationPipe;
diff --git a/MetroscopeModelingLibrary/FlueGases/Pipes/package.order b/MetroscopeModelingLibrary/FlueGases/Pipes/package.order
index a04807c9..1faead14 100644
--- a/MetroscopeModelingLibrary/FlueGases/Pipes/package.order
+++ b/MetroscopeModelingLibrary/FlueGases/Pipes/package.order
@@ -1,4 +1,5 @@
-Pipe
+FrictionPipe
+HeightVariationPipe
Filter
ControlValve
HeatLoss
diff --git a/MetroscopeModelingLibrary/Fuel/Pipes/Pipe.mo b/MetroscopeModelingLibrary/Fuel/Pipes/Pipe.mo
index f10e5aa5..ff1b431a 100644
--- a/MetroscopeModelingLibrary/Fuel/Pipes/Pipe.mo
+++ b/MetroscopeModelingLibrary/Fuel/Pipes/Pipe.mo
@@ -1,7 +1,8 @@
within MetroscopeModelingLibrary.Fuel.Pipes;
model Pipe
package FuelMedium = MetroscopeModelingLibrary.Utilities.Media.FuelMedium;
- extends Partial.Pipes.Pipe(
+ extends Partial.Pipes.FrictionPipe
+ (
redeclare MetroscopeModelingLibrary.Fuel.Connectors.Inlet C_in,
redeclare MetroscopeModelingLibrary.Fuel.Connectors.Outlet C_out,
redeclare package Medium = FuelMedium) annotation(IconMap(primitivesVisible=false));
diff --git a/MetroscopeModelingLibrary/MetroscopeModelingLibrary.Examples.CCGT.MetroscopiaCCGT.MetroscopiaCCGT_reverse.mof b/MetroscopeModelingLibrary/MetroscopeModelingLibrary.Examples.CCGT.MetroscopiaCCGT.MetroscopiaCCGT_reverse.mof
new file mode 100644
index 00000000..bf9b0b5e
--- /dev/null
+++ b/MetroscopeModelingLibrary/MetroscopeModelingLibrary.Examples.CCGT.MetroscopiaCCGT.MetroscopiaCCGT_reverse.mof
@@ -0,0 +1,20741 @@
+model MetroscopiaCCGT_reverse
+ input MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy LHV_plant(
+ start = 48130000.0) "Directly assigned in combustion chamber modifiers";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Area economiser.S = 3000;
+ parameter Boolean economiser.nominal_DT_default = true;
+ parameter String economiser.QCp_max_side = "hot";
+ parameter String economiser.config = "monophasic_counter_current";
+ parameter String economiser.mixed_fluid = "hot";
+ parameter Boolean economiser.faulty = false;
+ parameter MetroscopeModelingLibrary.Utilities.Units.MassFlowRate
+ economiser.Q_cold_0 = 85;
+ parameter MetroscopeModelingLibrary.Utilities.Units.MassFlowRate
+ economiser.Q_hot_0 = 640;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ economiser.T_cold_in_0 = 500.15;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ economiser.T_cold_out_0 = 543.15;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ economiser.T_hot_in_0 = 573.15;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ economiser.T_hot_out_0 = 546.15;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure economiser.P_cold_in_0
+ = 17000000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure economiser.P_cold_out_0
+ = 16950000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Pressure economiser.P_hot_in_0
+ = 110000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure economiser.P_hot_out_0
+ = 105000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ economiser.h_cold_in_0 = 977378.7;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ economiser.h_cold_out_0 = 1185904.9;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ economiser.h_hot_in_0 = 608000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ economiser.h_hot_out_0 = 575000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.MassFlowRate
+ economiser.HX.Q_hot_0 = 50 "Init parameter for Hot mass flow rate at the inlet";
+ parameter MetroscopeModelingLibrary.Utilities.Units.MassFlowRate
+ economiser.HX.Q_cold_0 = 1500 "Init parameter for Cold mass flow rate at the inlet";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ economiser.HX.T_hot_in_0 = 473.15 "Init parameter for Hot mass flow rate at the inlet";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ economiser.HX.T_cold_in_0 = economiser.T_cold_in_0 "Init parameter for Cold mass flow rate at the inlet";
+ parameter MetroscopeModelingLibrary.Utilities.Units.HeatCapacity
+ economiser.HX.Cp_hot_0 = 45 "Init parameter for Hot fluid specific heat capacity";
+ parameter MetroscopeModelingLibrary.Utilities.Units.HeatCapacity
+ economiser.HX.Cp_cold_0 = 75 "Init parameter for Cold fluid specific heat capacity";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Area economiser.HX.S_0 = 100
+ "init parameter for Heat exchange surface";
+ parameter MetroscopeModelingLibrary.Utilities.Units.HeatExchangeCoefficient
+ economiser.HX.Kth_0 = 5000 "init parameter for Heat exchange coefficient";
+ parameter String economiser.HX.config = economiser.config;
+ parameter String economiser.HX.QCp_max_side = economiser.QCp_max_side;
+ parameter String economiser.HX.mixed_fluid = economiser.mixed_fluid;
+ parameter Real economiser.HX.QCpMIN_0(unit = "W/K") = (if economiser.HX.QCp_max_side
+ == "hot" then economiser.HX.Q_cold_0*economiser.HX.Cp_cold_0 else (if
+ economiser.HX.QCp_max_side == "cold" then economiser.HX.Q_hot_0*
+ economiser.HX.Cp_hot_0 else min(economiser.HX.Q_cold_0*economiser.HX.Cp_cold_0,
+ economiser.HX.Q_hot_0*economiser.HX.Cp_hot_0)));
+ parameter Real economiser.HX.QCpMAX_0(unit = "W/K") = (if economiser.HX.QCp_max_side
+ == "cold" then economiser.HX.Q_cold_0*economiser.HX.Cp_cold_0 else (if
+ economiser.HX.QCp_max_side == "hot" then economiser.HX.Q_hot_0*
+ economiser.HX.Cp_hot_0 else max(economiser.HX.Q_cold_0*economiser.HX.Cp_cold_0,
+ economiser.HX.Q_hot_0*economiser.HX.Cp_hot_0)));
+ parameter Real economiser.HX.NTU_0(unit = "1") = economiser.HX.Kth_0*
+ economiser.HX.S_0/economiser.HX.QCpMIN_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Fraction economiser.HX.Cr_0
+ = 0.8;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Fraction economiser.HX.epsilon_0
+ = 0.9;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Power economiser.HX.W_max_0
+ = economiser.HX.QCpMIN_0*(economiser.HX.T_hot_in_0-economiser.HX.T_cold_in_0);
+ parameter MetroscopeModelingLibrary.Utilities.Units.Power economiser.HX.W_0 =
+ economiser.HX.epsilon_0*economiser.HX.W_max_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ economiser.hot_side.T_in_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ economiser.hot_side.T_out_0 = economiser.T_hot_out_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure economiser.hot_side.P_in_0
+ = 105000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure economiser.hot_side.P_out_0
+ = 105000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ economiser.hot_side.DP_0 = economiser.hot_side.P_out_0-economiser.hot_side.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ economiser.hot_side.h_in_0 = economiser.h_hot_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ economiser.hot_side.h_out_0 = economiser.h_hot_out_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density economiser.hot_side.rho_0
+ = 1;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ economiser.hot_side.Q_0 = economiser.Q_hot_0 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure economiser.hot_side.P_0
+ = 105000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ economiser.cold_side.T_in_0 = economiser.T_cold_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ economiser.cold_side.T_out_0 = economiser.T_cold_out_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure economiser.cold_side.P_in_0
+ = 17000000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure economiser.cold_side.P_out_0
+ = 17000000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ economiser.cold_side.DP_0 = economiser.cold_side.P_out_0-economiser.cold_side.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ economiser.cold_side.h_in_0 = economiser.h_cold_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ economiser.cold_side.h_out_0 = economiser.h_cold_out_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density economiser.cold_side.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ economiser.cold_side.Q_0 = economiser.Q_cold_0 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure economiser.cold_side.P_0
+ = 17000000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ economiser.cold_side_pipe.T_in_0 = economiser.cold_side_pipe.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ economiser.cold_side_pipe.T_out_0 = economiser.cold_side_pipe.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure economiser.cold_side_pipe.P_in_0
+ = 17000000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure economiser.cold_side_pipe.P_out_0
+ = 16950000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ economiser.cold_side_pipe.DP_0 = economiser.cold_side_pipe.P_out_0-
+ economiser.cold_side_pipe.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ economiser.cold_side_pipe.h_in_0 = economiser.cold_side_pipe.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ economiser.cold_side_pipe.h_out_0 = economiser.cold_side_pipe.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density economiser.cold_side_pipe.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ economiser.cold_side_pipe.Q_0 = economiser.Q_cold_0 "Inlet Mass flow rate";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ economiser.cold_side_pipe.T_0 = economiser.T_cold_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ economiser.cold_side_pipe.h_0 = economiser.h_cold_in_0;
+ parameter Boolean economiser.cold_side_pipe.faulty = false;
+ parameter MetroscopeModelingLibrary.Utilities.Units.FrictionCoefficient
+ economiser.cold_side_pipe.Kfr_constant = -economiser.cold_side_pipe.DP_0*
+ economiser.cold_side_pipe.rho_0/(economiser.cold_side_pipe.Q_0*
+ economiser.cold_side_pipe.Q_0);
+ constant MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_w_eco_out_sensor.Q_0 = 100;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_eco_out_sensor.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_w_eco_out_sensor.h_0 = 500000.0;
+ parameter Boolean T_w_eco_out_sensor.faulty_flow_rate = false;
+ parameter String T_w_eco_out_sensor.sensor_function = "Calibration"
+ "Specify if the sensor is a BC or used for calibration";
+ parameter String T_w_eco_out_sensor.causality = "Eco_Kth" "Specify which parameter is calibrated by this sensor";
+ parameter Boolean T_w_eco_out_sensor.show_causality "Used to show or not the causality";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_w_eco_out_sensor.flow_model.T_in_0 = T_w_eco_out_sensor.flow_model.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_w_eco_out_sensor.flow_model.T_out_0 = T_w_eco_out_sensor.flow_model.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_eco_out_sensor.flow_model.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_eco_out_sensor.flow_model.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ T_w_eco_out_sensor.flow_model.DP_0 = T_w_eco_out_sensor.flow_model.P_out_0-
+ T_w_eco_out_sensor.flow_model.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_w_eco_out_sensor.flow_model.h_in_0 = T_w_eco_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_w_eco_out_sensor.flow_model.h_out_0 = T_w_eco_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density T_w_eco_out_sensor.flow_model.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_w_eco_out_sensor.flow_model.Q_0 = 1000 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_eco_out_sensor.flow_model.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_w_eco_out_sensor.flow_model.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_w_eco_out_sensor.flow_model.h_0 = 500000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_w_eco_out_sensor.T_0 = 300;
+ parameter Real T_w_eco_out_sensor.init_T = 300;
+ parameter String T_w_eco_out_sensor.display_unit = "degC" "Specify the display unit";
+ parameter Boolean T_w_eco_out_sensor.display_output "Used to switch ON or OFF output display";
+ parameter String T_w_eco_out_sensor.signal_unit = "degC";
+ constant MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_w_eco_out_sensor.Q_0 = 100;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_eco_out_sensor.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_w_eco_out_sensor.h_0 = 500000.0;
+ parameter Boolean P_w_eco_out_sensor.faulty_flow_rate = false;
+ parameter String P_w_eco_out_sensor.sensor_function = "Calibration"
+ "Specify if the sensor is a BC or used for calibration";
+ parameter String P_w_eco_out_sensor.causality = "Eco_Kfr" "Specify which parameter is calibrated by this sensor";
+ parameter Boolean P_w_eco_out_sensor.show_causality "Used to show or not the causality";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_w_eco_out_sensor.flow_model.T_in_0 = P_w_eco_out_sensor.flow_model.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_w_eco_out_sensor.flow_model.T_out_0 = P_w_eco_out_sensor.flow_model.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_eco_out_sensor.flow_model.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_eco_out_sensor.flow_model.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ P_w_eco_out_sensor.flow_model.DP_0 = P_w_eco_out_sensor.flow_model.P_out_0-
+ P_w_eco_out_sensor.flow_model.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_w_eco_out_sensor.flow_model.h_in_0 = P_w_eco_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_w_eco_out_sensor.flow_model.h_out_0 = P_w_eco_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density P_w_eco_out_sensor.flow_model.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_w_eco_out_sensor.flow_model.Q_0 = 1000 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_eco_out_sensor.flow_model.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_w_eco_out_sensor.flow_model.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_w_eco_out_sensor.flow_model.h_0 = 500000.0;
+ parameter Real P_w_eco_out_sensor.init_P = 1;
+ parameter Boolean P_w_eco_out_sensor.display_output "Used to switch ON or OFF output display";
+ parameter String P_w_eco_out_sensor.display_unit = "barA" "Specify the display unit";
+ parameter String P_w_eco_out_sensor.signal_unit = "barA";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Area evaporator.S = 15000;
+ parameter String evaporator.HX_config = "evaporator";
+ parameter Boolean evaporator.faulty = false;
+ parameter MetroscopeModelingLibrary.Utilities.Units.MassFlowRate
+ evaporator.Q_cold_0 = 85;
+ parameter MetroscopeModelingLibrary.Utilities.Units.MassFlowRate
+ evaporator.Q_hot_0 = 640;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ evaporator.T_cold_in_0 = 599.15;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ evaporator.T_cold_out_0 = Modelica.Media.Water.WaterIF97_ph.saturationTemperature_Unique21
+ (evaporator.P_cold_out_0);
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ evaporator.T_hot_in_0 = 748.15;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ evaporator.T_hot_out_0 = 618.15;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Pressure evaporator.P_cold_in_0
+ = 13000000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure evaporator.P_cold_out_0
+ = 13000000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Pressure evaporator.P_hot_in_0
+ = 110000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure evaporator.P_hot_out_0
+ = 105000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ evaporator.h_cold_in_0 = 1500000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ evaporator.h_vap_sat_0 = Modelica.Media.Water.WaterIF97_ph.dewEnthalpy_Unique22
+ (
+ Modelica.Media.Water.WaterIF97_ph.setSat_p_Unique23(evaporator.P_cold_out_0));
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ evaporator.h_liq_sat_0 = Modelica.Media.Water.WaterIF97_ph.bubbleEnthalpy_Unique24
+ (
+ Modelica.Media.Water.WaterIF97_ph.setSat_p_Unique23(evaporator.P_cold_out_0));
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ evaporator.h_hot_in_0 = 805000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ evaporator.h_hot_out_0 = 650000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.MassFlowRate
+ evaporator.HX_vaporising.Q_hot_0 = 50 "Init parameter for Hot mass flow rate at the inlet";
+ parameter MetroscopeModelingLibrary.Utilities.Units.MassFlowRate
+ evaporator.HX_vaporising.Q_cold_0 = 1500 "Init parameter for Cold mass flow rate at the inlet";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ evaporator.HX_vaporising.T_hot_in_0 = 473.15 "Init parameter for Hot mass flow rate at the inlet";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ evaporator.HX_vaporising.T_cold_in_0 = evaporator.T_cold_in_0
+ "Init parameter for Cold mass flow rate at the inlet";
+ parameter MetroscopeModelingLibrary.Utilities.Units.HeatCapacity
+ evaporator.HX_vaporising.Cp_hot_0 = 45 "Init parameter for Hot fluid specific heat capacity";
+ parameter MetroscopeModelingLibrary.Utilities.Units.HeatCapacity
+ evaporator.HX_vaporising.Cp_cold_0 = 75 "Init parameter for Cold fluid specific heat capacity";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Area evaporator.HX_vaporising.S_0
+ = 100 "init parameter for Heat exchange surface";
+ parameter MetroscopeModelingLibrary.Utilities.Units.HeatExchangeCoefficient
+ evaporator.HX_vaporising.Kth_0 = 5000 "init parameter for Heat exchange coefficient";
+ parameter String evaporator.HX_vaporising.config = evaporator.HX_config;
+ parameter String evaporator.HX_vaporising.QCp_max_side = "cold";
+ parameter String evaporator.HX_vaporising.mixed_fluid = "hot";
+ parameter Real evaporator.HX_vaporising.QCpMIN_0(unit = "W/K") = (if
+ evaporator.HX_vaporising.QCp_max_side == "hot" then evaporator.HX_vaporising.Q_cold_0
+ *evaporator.HX_vaporising.Cp_cold_0 else (if evaporator.HX_vaporising.QCp_max_side
+ == "cold" then evaporator.HX_vaporising.Q_hot_0*evaporator.HX_vaporising.Cp_hot_0
+ else min(evaporator.HX_vaporising.Q_cold_0*evaporator.HX_vaporising.Cp_cold_0,
+ evaporator.HX_vaporising.Q_hot_0*evaporator.HX_vaporising.Cp_hot_0)));
+ parameter Real evaporator.HX_vaporising.QCpMAX_0(unit = "W/K") = (if
+ evaporator.HX_vaporising.QCp_max_side == "cold" then evaporator.HX_vaporising.Q_cold_0
+ *evaporator.HX_vaporising.Cp_cold_0 else (if evaporator.HX_vaporising.QCp_max_side
+ == "hot" then evaporator.HX_vaporising.Q_hot_0*evaporator.HX_vaporising.Cp_hot_0
+ else max(evaporator.HX_vaporising.Q_cold_0*evaporator.HX_vaporising.Cp_cold_0,
+ evaporator.HX_vaporising.Q_hot_0*evaporator.HX_vaporising.Cp_hot_0)));
+ parameter Real evaporator.HX_vaporising.NTU_0(unit = "1") = evaporator.HX_vaporising.Kth_0
+ *evaporator.HX_vaporising.S_0/evaporator.HX_vaporising.QCpMIN_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Fraction evaporator.HX_vaporising.Cr_0
+ = 0.8;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Fraction evaporator.HX_vaporising.epsilon_0
+ = 0.9;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Power evaporator.HX_vaporising.W_max_0
+ = evaporator.HX_vaporising.QCpMIN_0*(evaporator.HX_vaporising.T_hot_in_0-
+ evaporator.HX_vaporising.T_cold_in_0);
+ parameter MetroscopeModelingLibrary.Utilities.Units.Power evaporator.HX_vaporising.W_0
+ = evaporator.HX_vaporising.epsilon_0*evaporator.HX_vaporising.W_max_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ evaporator.hot_side_vaporising.T_in_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ evaporator.hot_side_vaporising.T_out_0 = 300;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure evaporator.hot_side_vaporising.P_in_0
+ = 105000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure evaporator.hot_side_vaporising.P_out_0
+ = 105000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ evaporator.hot_side_vaporising.DP_0 = evaporator.hot_side_vaporising.P_out_0
+ -evaporator.hot_side_vaporising.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ evaporator.hot_side_vaporising.h_in_0 = evaporator.h_hot_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ evaporator.hot_side_vaporising.h_out_0 = 500000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density evaporator.hot_side_vaporising.rho_0
+ = 1;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ evaporator.hot_side_vaporising.Q_0 = evaporator.Q_hot_0 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure evaporator.hot_side_vaporising.P_0
+ = 105000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ evaporator.cold_side_vaporising.T_in_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ evaporator.cold_side_vaporising.T_out_0 = 300;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure evaporator.cold_side_vaporising.P_in_0
+ = 13000000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure evaporator.cold_side_vaporising.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ evaporator.cold_side_vaporising.DP_0 = evaporator.cold_side_vaporising.P_out_0
+ -evaporator.cold_side_vaporising.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ evaporator.cold_side_vaporising.h_in_0 = evaporator.h_liq_sat_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ evaporator.cold_side_vaporising.h_out_0 = evaporator.h_vap_sat_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density evaporator.cold_side_vaporising.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ evaporator.cold_side_vaporising.Q_0 = evaporator.Q_cold_0 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure evaporator.cold_side_vaporising.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ evaporator.hot_side_heating.T_in_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ evaporator.hot_side_heating.T_out_0 = 300;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure evaporator.hot_side_heating.P_in_0
+ = 105000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure evaporator.hot_side_heating.P_out_0
+ = 105000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ evaporator.hot_side_heating.DP_0 = evaporator.hot_side_heating.P_out_0-
+ evaporator.hot_side_heating.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ evaporator.hot_side_heating.h_in_0 = 500000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ evaporator.hot_side_heating.h_out_0 = evaporator.h_hot_out_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density evaporator.hot_side_heating.rho_0
+ = 1;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ evaporator.hot_side_heating.Q_0 = evaporator.Q_hot_0 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure evaporator.hot_side_heating.P_0
+ = 105000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ evaporator.cold_side_heating.T_in_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ evaporator.cold_side_heating.T_out_0 = 300;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure evaporator.cold_side_heating.P_in_0
+ = 13000000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure evaporator.cold_side_heating.P_out_0
+ = 13000000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ evaporator.cold_side_heating.DP_0 = evaporator.cold_side_heating.P_out_0-
+ evaporator.cold_side_heating.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ evaporator.cold_side_heating.h_in_0 = evaporator.h_cold_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ evaporator.cold_side_heating.h_out_0 = evaporator.h_liq_sat_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density evaporator.cold_side_heating.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ evaporator.cold_side_heating.Q_0 = evaporator.Q_cold_0 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure evaporator.cold_side_heating.P_0
+ = 13000000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_w_evap_out_sensor.Q_0 = 100;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_evap_out_sensor.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_w_evap_out_sensor.h_0 = 500000.0;
+ parameter Boolean P_w_evap_out_sensor.faulty_flow_rate = false;
+ parameter String P_w_evap_out_sensor.sensor_function = "Calibration"
+ "Specify if the sensor is a BC or used for calibration";
+ parameter String P_w_evap_out_sensor.causality = "SH1_Kfr" "Specify which parameter is calibrated by this sensor";
+ parameter Boolean P_w_evap_out_sensor.show_causality "Used to show or not the causality";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_w_evap_out_sensor.flow_model.T_in_0 = P_w_evap_out_sensor.flow_model.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_w_evap_out_sensor.flow_model.T_out_0 = P_w_evap_out_sensor.flow_model.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_evap_out_sensor.flow_model.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_evap_out_sensor.flow_model.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ P_w_evap_out_sensor.flow_model.DP_0 = P_w_evap_out_sensor.flow_model.P_out_0
+ -P_w_evap_out_sensor.flow_model.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_w_evap_out_sensor.flow_model.h_in_0 = P_w_evap_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_w_evap_out_sensor.flow_model.h_out_0 = P_w_evap_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density P_w_evap_out_sensor.flow_model.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_w_evap_out_sensor.flow_model.Q_0 = 1000 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_evap_out_sensor.flow_model.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_w_evap_out_sensor.flow_model.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_w_evap_out_sensor.flow_model.h_0 = 500000.0;
+ parameter Real P_w_evap_out_sensor.init_P = 1;
+ parameter Boolean P_w_evap_out_sensor.display_output "Used to switch ON or OFF output display";
+ parameter String P_w_evap_out_sensor.display_unit = "barA" "Specify the display unit";
+ parameter String P_w_evap_out_sensor.signal_unit = "barA";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Area HPsuperheater1.S = 3000;
+ parameter Boolean HPsuperheater1.nominal_DT_default = true;
+ parameter String HPsuperheater1.QCp_max_side = "hot";
+ parameter String HPsuperheater1.config = "monophasic_counter_current";
+ parameter String HPsuperheater1.mixed_fluid = "hot";
+ parameter Boolean HPsuperheater1.faulty = false;
+ parameter MetroscopeModelingLibrary.Utilities.Units.MassFlowRate
+ HPsuperheater1.Q_cold_0 = 85;
+ parameter MetroscopeModelingLibrary.Utilities.Units.MassFlowRate
+ HPsuperheater1.Q_hot_0 = 640;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ HPsuperheater1.T_cold_in_0 = 683.15;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ HPsuperheater1.T_cold_out_0 = 788.15;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ HPsuperheater1.T_hot_in_0 = 873.15;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ HPsuperheater1.T_hot_out_0 = 838.15;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater1.P_cold_in_0
+ = 13000000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater1.P_cold_out_0
+ = 12950000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater1.P_hot_in_0
+ = 110000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater1.P_hot_out_0
+ = 105000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ HPsuperheater1.h_cold_in_0 = 3060000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ HPsuperheater1.h_cold_out_0 = 3380000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ HPsuperheater1.h_hot_in_0 = 960000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ HPsuperheater1.h_hot_out_0 = 910000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.MassFlowRate
+ HPsuperheater1.HX.Q_hot_0 = 50 "Init parameter for Hot mass flow rate at the inlet";
+ parameter MetroscopeModelingLibrary.Utilities.Units.MassFlowRate
+ HPsuperheater1.HX.Q_cold_0 = 1500 "Init parameter for Cold mass flow rate at the inlet";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ HPsuperheater1.HX.T_hot_in_0 = 473.15 "Init parameter for Hot mass flow rate at the inlet";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ HPsuperheater1.HX.T_cold_in_0 = HPsuperheater1.T_cold_in_0 "Init parameter for Cold mass flow rate at the inlet";
+ parameter MetroscopeModelingLibrary.Utilities.Units.HeatCapacity
+ HPsuperheater1.HX.Cp_hot_0 = 45 "Init parameter for Hot fluid specific heat capacity";
+ parameter MetroscopeModelingLibrary.Utilities.Units.HeatCapacity
+ HPsuperheater1.HX.Cp_cold_0 = 75 "Init parameter for Cold fluid specific heat capacity";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Area HPsuperheater1.HX.S_0
+ = 100 "init parameter for Heat exchange surface";
+ parameter MetroscopeModelingLibrary.Utilities.Units.HeatExchangeCoefficient
+ HPsuperheater1.HX.Kth_0 = 5000 "init parameter for Heat exchange coefficient";
+ parameter String HPsuperheater1.HX.config = HPsuperheater1.config;
+ parameter String HPsuperheater1.HX.QCp_max_side = HPsuperheater1.QCp_max_side;
+ parameter String HPsuperheater1.HX.mixed_fluid = HPsuperheater1.mixed_fluid;
+ parameter Real HPsuperheater1.HX.QCpMIN_0(unit = "W/K") = (if HPsuperheater1.HX.QCp_max_side
+ == "hot" then HPsuperheater1.HX.Q_cold_0*HPsuperheater1.HX.Cp_cold_0 else (
+ if HPsuperheater1.HX.QCp_max_side == "cold" then HPsuperheater1.HX.Q_hot_0*
+ HPsuperheater1.HX.Cp_hot_0 else min(HPsuperheater1.HX.Q_cold_0*
+ HPsuperheater1.HX.Cp_cold_0, HPsuperheater1.HX.Q_hot_0*HPsuperheater1.HX.Cp_hot_0)));
+ parameter Real HPsuperheater1.HX.QCpMAX_0(unit = "W/K") = (if HPsuperheater1.HX.QCp_max_side
+ == "cold" then HPsuperheater1.HX.Q_cold_0*HPsuperheater1.HX.Cp_cold_0 else
+ (if HPsuperheater1.HX.QCp_max_side == "hot" then HPsuperheater1.HX.Q_hot_0*
+ HPsuperheater1.HX.Cp_hot_0 else max(HPsuperheater1.HX.Q_cold_0*
+ HPsuperheater1.HX.Cp_cold_0, HPsuperheater1.HX.Q_hot_0*HPsuperheater1.HX.Cp_hot_0)));
+ parameter Real HPsuperheater1.HX.NTU_0(unit = "1") = HPsuperheater1.HX.Kth_0*
+ HPsuperheater1.HX.S_0/HPsuperheater1.HX.QCpMIN_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Fraction HPsuperheater1.HX.Cr_0
+ = 0.8;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Fraction HPsuperheater1.HX.epsilon_0
+ = 0.9;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Power HPsuperheater1.HX.W_max_0
+ = HPsuperheater1.HX.QCpMIN_0*(HPsuperheater1.HX.T_hot_in_0-HPsuperheater1.HX.T_cold_in_0);
+ parameter MetroscopeModelingLibrary.Utilities.Units.Power HPsuperheater1.HX.W_0
+ = HPsuperheater1.HX.epsilon_0*HPsuperheater1.HX.W_max_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ HPsuperheater1.hot_side.T_in_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ HPsuperheater1.hot_side.T_out_0 = HPsuperheater1.T_hot_out_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater1.hot_side.P_in_0
+ = 105000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater1.hot_side.P_out_0
+ = 105000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ HPsuperheater1.hot_side.DP_0 = HPsuperheater1.hot_side.P_out_0-
+ HPsuperheater1.hot_side.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ HPsuperheater1.hot_side.h_in_0 = HPsuperheater1.h_hot_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ HPsuperheater1.hot_side.h_out_0 = HPsuperheater1.h_hot_out_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density HPsuperheater1.hot_side.rho_0
+ = 1;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ HPsuperheater1.hot_side.Q_0 = HPsuperheater1.Q_hot_0 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater1.hot_side.P_0
+ = 105000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ HPsuperheater1.cold_side.T_in_0 = HPsuperheater1.T_cold_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ HPsuperheater1.cold_side.T_out_0 = HPsuperheater1.T_cold_out_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater1.cold_side.P_in_0
+ = 13000000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater1.cold_side.P_out_0
+ = 13000000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ HPsuperheater1.cold_side.DP_0 = HPsuperheater1.cold_side.P_out_0-
+ HPsuperheater1.cold_side.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ HPsuperheater1.cold_side.h_in_0 = HPsuperheater1.h_cold_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ HPsuperheater1.cold_side.h_out_0 = HPsuperheater1.h_cold_out_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density HPsuperheater1.cold_side.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ HPsuperheater1.cold_side.Q_0 = HPsuperheater1.Q_cold_0 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater1.cold_side.P_0
+ = 13000000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ HPsuperheater1.cold_side_pipe.T_in_0 = HPsuperheater1.cold_side_pipe.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ HPsuperheater1.cold_side_pipe.T_out_0 = HPsuperheater1.cold_side_pipe.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater1.cold_side_pipe.P_in_0
+ = 13000000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater1.cold_side_pipe.P_out_0
+ = 12950000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ HPsuperheater1.cold_side_pipe.DP_0 = HPsuperheater1.cold_side_pipe.P_out_0-
+ HPsuperheater1.cold_side_pipe.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ HPsuperheater1.cold_side_pipe.h_in_0 = HPsuperheater1.cold_side_pipe.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ HPsuperheater1.cold_side_pipe.h_out_0 = HPsuperheater1.cold_side_pipe.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density HPsuperheater1.cold_side_pipe.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ HPsuperheater1.cold_side_pipe.Q_0 = HPsuperheater1.Q_cold_0 "Inlet Mass flow rate";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ HPsuperheater1.cold_side_pipe.T_0 = HPsuperheater1.T_cold_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ HPsuperheater1.cold_side_pipe.h_0 = HPsuperheater1.h_cold_in_0;
+ parameter Boolean HPsuperheater1.cold_side_pipe.faulty = false;
+ parameter MetroscopeModelingLibrary.Utilities.Units.FrictionCoefficient
+ HPsuperheater1.cold_side_pipe.Kfr_constant = -HPsuperheater1.cold_side_pipe.DP_0
+ *HPsuperheater1.cold_side_pipe.rho_0/(HPsuperheater1.cold_side_pipe.Q_0*
+ HPsuperheater1.cold_side_pipe.Q_0);
+ constant MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_w_HPSH1_out_sensor.Q_0 = 100;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_HPSH1_out_sensor.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_w_HPSH1_out_sensor.h_0 = 500000.0;
+ parameter Boolean T_w_HPSH1_out_sensor.faulty_flow_rate = false;
+ parameter String T_w_HPSH1_out_sensor.sensor_function = "Calibration"
+ "Specify if the sensor is a BC or used for calibration";
+ parameter String T_w_HPSH1_out_sensor.causality = "SH1_Kth" "Specify which parameter is calibrated by this sensor";
+ parameter Boolean T_w_HPSH1_out_sensor.show_causality "Used to show or not the causality";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_w_HPSH1_out_sensor.flow_model.T_in_0 = T_w_HPSH1_out_sensor.flow_model.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_w_HPSH1_out_sensor.flow_model.T_out_0 = T_w_HPSH1_out_sensor.flow_model.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_HPSH1_out_sensor.flow_model.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_HPSH1_out_sensor.flow_model.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ T_w_HPSH1_out_sensor.flow_model.DP_0 = T_w_HPSH1_out_sensor.flow_model.P_out_0
+ -T_w_HPSH1_out_sensor.flow_model.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_w_HPSH1_out_sensor.flow_model.h_in_0 = T_w_HPSH1_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_w_HPSH1_out_sensor.flow_model.h_out_0 = T_w_HPSH1_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density T_w_HPSH1_out_sensor.flow_model.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_w_HPSH1_out_sensor.flow_model.Q_0 = 1000 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_HPSH1_out_sensor.flow_model.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_w_HPSH1_out_sensor.flow_model.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_w_HPSH1_out_sensor.flow_model.h_0 = 500000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_w_HPSH1_out_sensor.T_0 = 300;
+ parameter Real T_w_HPSH1_out_sensor.init_T = 300;
+ parameter String T_w_HPSH1_out_sensor.display_unit = "degC" "Specify the display unit";
+ parameter Boolean T_w_HPSH1_out_sensor.display_output "Used to switch ON or OFF output display";
+ parameter String T_w_HPSH1_out_sensor.signal_unit = "degC";
+ constant MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_w_HPSH1_out_sensor.Q_0 = 100;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_HPSH1_out_sensor.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_w_HPSH1_out_sensor.h_0 = 500000.0;
+ parameter Boolean P_w_HPSH1_out_sensor.faulty_flow_rate = false;
+ parameter String P_w_HPSH1_out_sensor.sensor_function = "Calibration"
+ "Specify if the sensor is a BC or used for calibration";
+ parameter String P_w_HPSH1_out_sensor.causality = "SH2_Kfr" "Specify which parameter is calibrated by this sensor";
+ parameter Boolean P_w_HPSH1_out_sensor.show_causality "Used to show or not the causality";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_w_HPSH1_out_sensor.flow_model.T_in_0 = P_w_HPSH1_out_sensor.flow_model.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_w_HPSH1_out_sensor.flow_model.T_out_0 = P_w_HPSH1_out_sensor.flow_model.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_HPSH1_out_sensor.flow_model.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_HPSH1_out_sensor.flow_model.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ P_w_HPSH1_out_sensor.flow_model.DP_0 = P_w_HPSH1_out_sensor.flow_model.P_out_0
+ -P_w_HPSH1_out_sensor.flow_model.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_w_HPSH1_out_sensor.flow_model.h_in_0 = P_w_HPSH1_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_w_HPSH1_out_sensor.flow_model.h_out_0 = P_w_HPSH1_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density P_w_HPSH1_out_sensor.flow_model.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_w_HPSH1_out_sensor.flow_model.Q_0 = 1000 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_HPSH1_out_sensor.flow_model.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_w_HPSH1_out_sensor.flow_model.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_w_HPSH1_out_sensor.flow_model.h_0 = 500000.0;
+ parameter Real P_w_HPSH1_out_sensor.init_P = 1;
+ parameter Boolean P_w_HPSH1_out_sensor.display_output "Used to switch ON or OFF output display";
+ parameter String P_w_HPSH1_out_sensor.display_unit = "barA" "Specify the display unit";
+ parameter String P_w_HPSH1_out_sensor.signal_unit = "barA";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ HPST_control_valve.T_in_0 = HPST_control_valve.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ HPST_control_valve.T_out_0 = HPST_control_valve.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure HPST_control_valve.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure HPST_control_valve.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ HPST_control_valve.DP_0 = HPST_control_valve.P_out_0-HPST_control_valve.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ HPST_control_valve.h_in_0 = HPST_control_valve.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ HPST_control_valve.h_out_0 = HPST_control_valve.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density HPST_control_valve.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ HPST_control_valve.Q_0 = 1000 "Inlet Mass flow rate";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ HPST_control_valve.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ HPST_control_valve.h_0 = 500000.0;
+ parameter Boolean HPST_control_valve.faulty = false;
+ parameter Real HPST_control_valve.Cv_constant = 10000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_HPST_in_sensor.Q_0 = 100;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_HPST_in_sensor.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_HPST_in_sensor.h_0 = 500000.0;
+ parameter Boolean P_HPST_in_sensor.faulty_flow_rate = false;
+ parameter String P_HPST_in_sensor.sensor_function = "Calibration"
+ "Specify if the sensor is a BC or used for calibration";
+ parameter String P_HPST_in_sensor.causality = "HPST_Cst" "Specify which parameter is calibrated by this sensor";
+ parameter Boolean P_HPST_in_sensor.show_causality "Used to show or not the causality";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_HPST_in_sensor.flow_model.T_in_0 = P_HPST_in_sensor.flow_model.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_HPST_in_sensor.flow_model.T_out_0 = P_HPST_in_sensor.flow_model.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_HPST_in_sensor.flow_model.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_HPST_in_sensor.flow_model.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ P_HPST_in_sensor.flow_model.DP_0 = P_HPST_in_sensor.flow_model.P_out_0-
+ P_HPST_in_sensor.flow_model.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_HPST_in_sensor.flow_model.h_in_0 = P_HPST_in_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_HPST_in_sensor.flow_model.h_out_0 = P_HPST_in_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density P_HPST_in_sensor.flow_model.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_HPST_in_sensor.flow_model.Q_0 = 1000 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_HPST_in_sensor.flow_model.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_HPST_in_sensor.flow_model.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_HPST_in_sensor.flow_model.h_0 = 500000.0;
+ parameter Real P_HPST_in_sensor.init_P = 1;
+ parameter Boolean P_HPST_in_sensor.display_output "Used to switch ON or OFF output display";
+ parameter String P_HPST_in_sensor.display_unit = "barA" "Specify the display unit";
+ parameter String P_HPST_in_sensor.signal_unit = "barA";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ HPsteamTurbine.T_in_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ HPsteamTurbine.T_out_0 = 300;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure HPsteamTurbine.P_in_0
+ = 6000000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure HPsteamTurbine.P_out_0
+ = 5500000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ HPsteamTurbine.DP_0 = HPsteamTurbine.P_out_0-HPsteamTurbine.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ HPsteamTurbine.h_in_0 = 2700000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ HPsteamTurbine.h_out_0 = 2600000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density HPsteamTurbine.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ HPsteamTurbine.Q_0 = 1500 "Inlet Mass flow rate";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Cst HPsteamTurbine.Cst_constant
+ = 10000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Yield HPsteamTurbine.eta_is_constant
+ = 0.9;
+ parameter MetroscopeModelingLibrary.Utilities.Units.MassFraction
+ HPsteamTurbine.x_out_0 = min((HPsteamTurbine.h_out_0-HPsteamTurbine.h_liq_out_0)
+ /(HPsteamTurbine.h_vap_out_0-HPsteamTurbine.h_liq_out_0), 1);
+ parameter MetroscopeModelingLibrary.Utilities.Units.MassFraction
+ HPsteamTurbine.xm_0 = (HPsteamTurbine.x_out_0+HPsteamTurbine.x_in_0)/2;
+ parameter MetroscopeModelingLibrary.Utilities.Units.MassFraction
+ HPsteamTurbine.x_in_0 = min((HPsteamTurbine.h_in_0-HPsteamTurbine.h_liq_in_0)
+ /(HPsteamTurbine.h_vap_in_0-HPsteamTurbine.h_liq_in_0), 1);
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ HPsteamTurbine.h_vap_in_0 = Modelica.Media.Water.WaterIF97_ph.dewEnthalpy_Unique22
+ (
+ Modelica.Media.Water.WaterIF97_ph.setSat_p_Unique23(HPsteamTurbine.P_in_0));
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ HPsteamTurbine.h_liq_in_0 = Modelica.Media.Water.WaterIF97_ph.bubbleEnthalpy_Unique24
+ (
+ Modelica.Media.Water.WaterIF97_ph.setSat_p_Unique23(HPsteamTurbine.P_in_0));
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ HPsteamTurbine.h_vap_out_0 = Modelica.Media.Water.WaterIF97_ph.dewEnthalpy_Unique22
+ (
+ Modelica.Media.Water.WaterIF97_ph.setSat_p_Unique23(HPsteamTurbine.P_out_0));
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ HPsteamTurbine.h_liq_out_0 = Modelica.Media.Water.WaterIF97_ph.bubbleEnthalpy_Unique24
+ (
+ Modelica.Media.Water.WaterIF97_ph.setSat_p_Unique23(HPsteamTurbine.P_out_0));
+ constant MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_HPST_out_sensor.Q_0 = 100;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_HPST_out_sensor.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_HPST_out_sensor.h_0 = 500000.0;
+ parameter Boolean P_HPST_out_sensor.faulty_flow_rate = false;
+ parameter String P_HPST_out_sensor.sensor_function = "Calibration"
+ "Specify if the sensor is a BC or used for calibration";
+ parameter String P_HPST_out_sensor.causality = "RHT_Kfr" "Specify which parameter is calibrated by this sensor";
+ parameter Boolean P_HPST_out_sensor.show_causality "Used to show or not the causality";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_HPST_out_sensor.flow_model.T_in_0 = P_HPST_out_sensor.flow_model.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_HPST_out_sensor.flow_model.T_out_0 = P_HPST_out_sensor.flow_model.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_HPST_out_sensor.flow_model.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_HPST_out_sensor.flow_model.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ P_HPST_out_sensor.flow_model.DP_0 = P_HPST_out_sensor.flow_model.P_out_0-
+ P_HPST_out_sensor.flow_model.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_HPST_out_sensor.flow_model.h_in_0 = P_HPST_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_HPST_out_sensor.flow_model.h_out_0 = P_HPST_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density P_HPST_out_sensor.flow_model.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_HPST_out_sensor.flow_model.Q_0 = 1000 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_HPST_out_sensor.flow_model.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_HPST_out_sensor.flow_model.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_HPST_out_sensor.flow_model.h_0 = 500000.0;
+ parameter Real P_HPST_out_sensor.init_P = 1;
+ parameter Boolean P_HPST_out_sensor.display_output "Used to switch ON or OFF output display";
+ parameter String P_HPST_out_sensor.display_unit = "barA" "Specify the display unit";
+ parameter String P_HPST_out_sensor.signal_unit = "barA";
+ parameter String W_ST_out_sensor.sensor_function = "Calibration"
+ "Specify if the sensor is a BC or used for calibration";
+ parameter String W_ST_out_sensor.causality = "LPST_eta_is" "Specify which parameter is calibrated by this sensor";
+ parameter Boolean W_ST_out_sensor.show_causality "Used to show or not the causality";
+ parameter String W_ST_out_sensor.display_unit = "MW" "Specify the display unit";
+ parameter Boolean W_ST_out_sensor.display_output "Used to switch ON or OFF output display";
+ parameter String W_ST_out_sensor.output_signal_unit = "MW";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Area condenser.S = 50000;
+ parameter String condenser.QCp_max_side = "cold";
+ constant Real condenser.R(unit = "J/(mol.K)") = 8.31446261815324
+ "ideal gas constant";
+ parameter Boolean condenser.faulty = false;
+ parameter MetroscopeModelingLibrary.Utilities.Units.MassFlowRate
+ condenser.Q_cold_0 = 5000;
+ parameter MetroscopeModelingLibrary.Utilities.Units.MassFlowRate
+ condenser.Q_hot_0 = 1000;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.Psat_0
+ = 5000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.P_cold_in_0
+ = 500000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.P_cold_out_0
+ = 400000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ condenser.T_cold_in_0 = 288.15;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ condenser.T_cold_out_0 = 298.15;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ condenser.T_hot_in_0 = condenser.Tsat_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ condenser.T_hot_out_0 = condenser.Tsat_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ condenser.h_cold_in_0 = 50000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ condenser.h_cold_out_0 = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ condenser.h_hot_in_0 = 2000000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ condenser.h_liq_sat_0 = Modelica.Media.Water.WaterIF97_ph.bubbleEnthalpy_Unique24
+ (
+ Modelica.Media.Water.WaterIF97_ph.setSat_p_Unique23(condenser.Psat_0));
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ condenser.Tsat_0 = Modelica.Media.Water.WaterIF97_ph.saturationTemperature_Unique21
+ (condenser.Psat_0);
+ constant MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ condenser.water_height_DP_0 = 9000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ condenser.cold_side_pipe.T_in_0 = condenser.cold_side_pipe.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ condenser.cold_side_pipe.T_out_0 = condenser.cold_side_pipe.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.cold_side_pipe.P_in_0
+ = 500000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.cold_side_pipe.P_out_0
+ = 400000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ condenser.cold_side_pipe.DP_0 = condenser.cold_side_pipe.P_out_0-
+ condenser.cold_side_pipe.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ condenser.cold_side_pipe.h_in_0 = condenser.cold_side_pipe.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ condenser.cold_side_pipe.h_out_0 = condenser.cold_side_pipe.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density condenser.cold_side_pipe.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ condenser.cold_side_pipe.Q_0 = condenser.Q_cold_0 "Inlet Mass flow rate";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ condenser.cold_side_pipe.T_0 = condenser.T_cold_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ condenser.cold_side_pipe.h_0 = condenser.h_cold_in_0;
+ parameter Boolean condenser.cold_side_pipe.faulty = false;
+ parameter MetroscopeModelingLibrary.Utilities.Units.FrictionCoefficient
+ condenser.cold_side_pipe.Kfr_constant = -condenser.cold_side_pipe.DP_0*
+ condenser.cold_side_pipe.rho_0/(condenser.cold_side_pipe.Q_0*
+ condenser.cold_side_pipe.Q_0);
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ condenser.hot_side.T_in_0 = condenser.Tsat_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ condenser.hot_side.T_out_0 = condenser.Tsat_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.hot_side.P_in_0
+ = 5000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.hot_side.P_out_0
+ = 5000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ condenser.hot_side.DP_0 = condenser.hot_side.P_out_0-condenser.hot_side.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ condenser.hot_side.h_in_0 = condenser.h_hot_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ condenser.hot_side.h_out_0 = condenser.h_liq_sat_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density condenser.hot_side.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ condenser.hot_side.Q_0 = condenser.Q_hot_0 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.hot_side.P_0
+ = 5000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ condenser.cold_side.T_in_0 = condenser.T_cold_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ condenser.cold_side.T_out_0 = condenser.T_cold_out_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.cold_side.P_in_0
+ = 400000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.cold_side.P_out_0
+ = 400000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ condenser.cold_side.DP_0 = condenser.cold_side.P_out_0-condenser.cold_side.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ condenser.cold_side.h_in_0 = condenser.h_cold_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ condenser.cold_side.h_out_0 = condenser.h_cold_out_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density condenser.cold_side.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ condenser.cold_side.Q_0 = condenser.Q_cold_0 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.cold_side.P_0
+ = 400000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ condenser.water_height_pipe.T_in_0 = condenser.water_height_pipe.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ condenser.water_height_pipe.T_out_0 = condenser.water_height_pipe.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.water_height_pipe.P_in_0
+ = 5000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.water_height_pipe.P_out_0
+ = 14000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ condenser.water_height_pipe.DP_0 = condenser.water_height_pipe.P_out_0-
+ condenser.water_height_pipe.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ condenser.water_height_pipe.h_in_0 = condenser.water_height_pipe.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ condenser.water_height_pipe.h_out_0 = condenser.water_height_pipe.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density condenser.water_height_pipe.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ condenser.water_height_pipe.Q_0 = condenser.Q_hot_0 "Inlet Mass flow rate";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ condenser.water_height_pipe.T_0 = condenser.Tsat_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ condenser.water_height_pipe.h_0 = condenser.h_liq_sat_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Height condenser.water_height_pipe.delta_z_constant
+ = 10;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ condenser.incondensables_in.T_in_0 = condenser.incondensables_in.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ condenser.incondensables_in.T_out_0 = condenser.incondensables_in.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.incondensables_in.P_in_0
+ = 5000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.incondensables_in.P_out_0
+ = 5000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ condenser.incondensables_in.DP_0 = condenser.incondensables_in.P_out_0-
+ condenser.incondensables_in.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ condenser.incondensables_in.h_in_0 = condenser.incondensables_in.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ condenser.incondensables_in.h_out_0 = condenser.incondensables_in.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density condenser.incondensables_in.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ condenser.incondensables_in.Q_0 = condenser.Q_hot_0 "Inlet Mass flow rate";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ condenser.incondensables_in.T_0 = condenser.Tsat_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ condenser.incondensables_in.h_0 = condenser.h_hot_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ condenser.incondensables_out.T_in_0 = condenser.incondensables_out.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ condenser.incondensables_out.T_out_0 = condenser.incondensables_out.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.incondensables_out.P_in_0
+ = 5000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.incondensables_out.P_out_0
+ = 5000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ condenser.incondensables_out.DP_0 = condenser.incondensables_out.P_out_0-
+ condenser.incondensables_out.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ condenser.incondensables_out.h_in_0 = condenser.incondensables_out.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ condenser.incondensables_out.h_out_0 = condenser.incondensables_out.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density condenser.incondensables_out.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ condenser.incondensables_out.Q_0 = condenser.Q_hot_0 "Inlet Mass flow rate";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ condenser.incondensables_out.T_0 = condenser.Tsat_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ condenser.incondensables_out.h_0 = condenser.h_liq_sat_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_circulating_water_out_sensor.Q_0 = 100;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_circulating_water_out_sensor.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_circulating_water_out_sensor.h_0 = 500000.0;
+ parameter Boolean T_circulating_water_out_sensor.faulty_flow_rate = false;
+ parameter String T_circulating_water_out_sensor.sensor_function =
+ "Calibration" "Specify if the sensor is a BC or used for calibration";
+ parameter String T_circulating_water_out_sensor.causality = "Cond_Qv"
+ "Specify which parameter is calibrated by this sensor";
+ parameter Boolean T_circulating_water_out_sensor.show_causality
+ "Used to show or not the causality";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_circulating_water_out_sensor.flow_model.T_in_0 = T_circulating_water_out_sensor.flow_model.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_circulating_water_out_sensor.flow_model.T_out_0 = T_circulating_water_out_sensor.flow_model.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_circulating_water_out_sensor.flow_model.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_circulating_water_out_sensor.flow_model.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ T_circulating_water_out_sensor.flow_model.DP_0 = T_circulating_water_out_sensor.flow_model.P_out_0
+ -T_circulating_water_out_sensor.flow_model.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_circulating_water_out_sensor.flow_model.h_in_0 = T_circulating_water_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_circulating_water_out_sensor.flow_model.h_out_0 = T_circulating_water_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density T_circulating_water_out_sensor.flow_model.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_circulating_water_out_sensor.flow_model.Q_0 = 1000 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_circulating_water_out_sensor.flow_model.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_circulating_water_out_sensor.flow_model.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_circulating_water_out_sensor.flow_model.h_0 = 500000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_circulating_water_out_sensor.T_0 = 300;
+ parameter Real T_circulating_water_out_sensor.init_T = 300;
+ parameter String T_circulating_water_out_sensor.display_unit = "degC"
+ "Specify the display unit";
+ parameter Boolean T_circulating_water_out_sensor.display_output
+ "Used to switch ON or OFF output display";
+ parameter String T_circulating_water_out_sensor.signal_unit = "degC";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Pressure circulating_water_source.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.MassFlowRate
+ circulating_water_source.Q_0 = 1000;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ circulating_water_source.h_0 = 500000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ circulating_water_source.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature pump.T_in_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature pump.T_out_0
+ = 300;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure pump.P_in_0 =
+ 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure pump.P_out_0 =
+ 1000000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ pump.DP_0 = pump.P_out_0-pump.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ pump.h_in_0 = 500000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ pump.h_out_0 = 500000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density pump.rho_0 = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ pump.Q_0 = 1000 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_pump_out_sensor.Q_0 = 100;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_pump_out_sensor.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_pump_out_sensor.h_0 = 500000.0;
+ parameter Boolean T_pump_out_sensor.faulty_flow_rate = false;
+ parameter String T_pump_out_sensor.sensor_function = "Calibration"
+ "Specify if the sensor is a BC or used for calibration";
+ parameter String T_pump_out_sensor.causality = "rh" "Specify which parameter is calibrated by this sensor";
+ parameter Boolean T_pump_out_sensor.show_causality "Used to show or not the causality";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_pump_out_sensor.flow_model.T_in_0 = T_pump_out_sensor.flow_model.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_pump_out_sensor.flow_model.T_out_0 = T_pump_out_sensor.flow_model.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_pump_out_sensor.flow_model.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_pump_out_sensor.flow_model.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ T_pump_out_sensor.flow_model.DP_0 = T_pump_out_sensor.flow_model.P_out_0-
+ T_pump_out_sensor.flow_model.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_pump_out_sensor.flow_model.h_in_0 = T_pump_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_pump_out_sensor.flow_model.h_out_0 = T_pump_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density T_pump_out_sensor.flow_model.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_pump_out_sensor.flow_model.Q_0 = 1000 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_pump_out_sensor.flow_model.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_pump_out_sensor.flow_model.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_pump_out_sensor.flow_model.h_0 = 500000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_pump_out_sensor.T_0 = 300;
+ parameter Real T_pump_out_sensor.init_T = 300;
+ parameter String T_pump_out_sensor.display_unit = "degC" "Specify the display unit";
+ parameter Boolean T_pump_out_sensor.display_output "Used to switch ON or OFF output display";
+ parameter String T_pump_out_sensor.signal_unit = "degC";
+ constant MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_pump_out_sensor.Q_0 = 100;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_pump_out_sensor.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_pump_out_sensor.h_0 = 500000.0;
+ parameter Boolean P_pump_out_sensor.faulty_flow_rate = false;
+ parameter String P_pump_out_sensor.sensor_function = "Calibration"
+ "Specify if the sensor is a BC or used for calibration";
+ parameter String P_pump_out_sensor.causality = "hn" "Specify which parameter is calibrated by this sensor";
+ parameter Boolean P_pump_out_sensor.show_causality "Used to show or not the causality";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_pump_out_sensor.flow_model.T_in_0 = P_pump_out_sensor.flow_model.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_pump_out_sensor.flow_model.T_out_0 = P_pump_out_sensor.flow_model.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_pump_out_sensor.flow_model.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_pump_out_sensor.flow_model.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ P_pump_out_sensor.flow_model.DP_0 = P_pump_out_sensor.flow_model.P_out_0-
+ P_pump_out_sensor.flow_model.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_pump_out_sensor.flow_model.h_in_0 = P_pump_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_pump_out_sensor.flow_model.h_out_0 = P_pump_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density P_pump_out_sensor.flow_model.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_pump_out_sensor.flow_model.Q_0 = 1000 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_pump_out_sensor.flow_model.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_pump_out_sensor.flow_model.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_pump_out_sensor.flow_model.h_0 = 500000.0;
+ parameter Real P_pump_out_sensor.init_P = 1;
+ parameter Boolean P_pump_out_sensor.display_output "Used to switch ON or OFF output display";
+ parameter String P_pump_out_sensor.display_unit = "barA" "Specify the display unit";
+ parameter String P_pump_out_sensor.signal_unit = "barA";
+ constant MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Q_pump_out_sensor.Q_0 = 100;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure Q_pump_out_sensor.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ Q_pump_out_sensor.h_0 = 500000.0;
+ parameter Boolean Q_pump_out_sensor.faulty_flow_rate = Q_pump_out_sensor.faulty;
+ parameter String Q_pump_out_sensor.sensor_function = "Calibration"
+ "Specify if the sensor is a BC or used for calibration";
+ parameter String Q_pump_out_sensor.causality = "Evap_Kth" "Specify which parameter is calibrated by this sensor";
+ parameter Boolean Q_pump_out_sensor.show_causality "Used to show or not the causality";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ Q_pump_out_sensor.flow_model.T_in_0 = Q_pump_out_sensor.flow_model.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ Q_pump_out_sensor.flow_model.T_out_0 = Q_pump_out_sensor.flow_model.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure Q_pump_out_sensor.flow_model.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure Q_pump_out_sensor.flow_model.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ Q_pump_out_sensor.flow_model.DP_0 = Q_pump_out_sensor.flow_model.P_out_0-
+ Q_pump_out_sensor.flow_model.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ Q_pump_out_sensor.flow_model.h_in_0 = Q_pump_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ Q_pump_out_sensor.flow_model.h_out_0 = Q_pump_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density Q_pump_out_sensor.flow_model.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Q_pump_out_sensor.flow_model.Q_0 = 1000 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure Q_pump_out_sensor.flow_model.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ Q_pump_out_sensor.flow_model.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ Q_pump_out_sensor.flow_model.h_0 = 500000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.VolumeFlowRate
+ Q_pump_out_sensor.Qv_0 = 0.1;
+ parameter Boolean Q_pump_out_sensor.faulty = false;
+ parameter String Q_pump_out_sensor.display_unit = "kg/s" "Specify the display unit";
+ parameter Boolean Q_pump_out_sensor.display_output "Used to switch ON or OFF output display";
+ parameter String Q_pump_out_sensor.signal_unit = "kg/s";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ airCompressor.T_in_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ airCompressor.T_out_0 = 300;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure airCompressor.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure airCompressor.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ airCompressor.DP_0 = airCompressor.P_out_0-airCompressor.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ airCompressor.h_in_0 = 500000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ airCompressor.h_out_0 = 500000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density airCompressor.rho_0
+ = 1;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ airCompressor.Q_0 = 500 "Inlet Mass flow rate";
+ parameter Real airCompressor.tau_constant = 15;
+ parameter Real airCompressor.eta_is_constant = 0.8;
+ parameter Boolean airCompressor.faulty = false;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ gasTurbine.T_in_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ gasTurbine.T_out_0 = 300;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure gasTurbine.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure gasTurbine.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ gasTurbine.DP_0 = gasTurbine.P_out_0-gasTurbine.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ gasTurbine.h_in_0 = 500000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ gasTurbine.h_out_0 = 500000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density gasTurbine.rho_0
+ = 1;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ gasTurbine.Q_0 = 500 "Inlet Mass flow rate";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Yield gasTurbine.eta_is_constant
+ = 0.8;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Yield gasTurbine.eta_mech(
+ start = 0.9) = 1 "Nominal mechanical efficiency";
+ parameter Boolean gasTurbine.faulty = false;
+ parameter MetroscopeModelingLibrary.Utilities.Units.FrictionCoefficient
+ combustionChamber.Kfr_constant = 0;
+ parameter Real combustionChamber.eta_constant = 0.99457;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ combustionChamber.h_in_air_0 = 500000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Pressure combustionChamber.source_exhaust.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.MassFlowRate
+ combustionChamber.source_exhaust.Q_0 = 1000;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ combustionChamber.source_exhaust.h_0 = 500000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ combustionChamber.source_exhaust.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ combustionChamber.pressure_loss.T_in_0 = combustionChamber.pressure_loss.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ combustionChamber.pressure_loss.T_out_0 = combustionChamber.pressure_loss.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure combustionChamber.pressure_loss.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure combustionChamber.pressure_loss.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ combustionChamber.pressure_loss.DP_0 = combustionChamber.pressure_loss.P_out_0
+ -combustionChamber.pressure_loss.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ combustionChamber.pressure_loss.h_in_0 = combustionChamber.pressure_loss.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ combustionChamber.pressure_loss.h_out_0 = combustionChamber.pressure_loss.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density combustionChamber.pressure_loss.rho_0
+ = 1;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ combustionChamber.pressure_loss.Q_0 = 50 "Inlet Mass flow rate";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ combustionChamber.pressure_loss.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ combustionChamber.pressure_loss.h_0 = 500000.0;
+ parameter Boolean combustionChamber.pressure_loss.faulty = false;
+ parameter MetroscopeModelingLibrary.Utilities.Units.FrictionCoefficient
+ combustionChamber.pressure_loss.Kfr_constant = -combustionChamber.pressure_loss.DP_0
+ *combustionChamber.pressure_loss.rho_0/(combustionChamber.pressure_loss.Q_0*
+ combustionChamber.pressure_loss.Q_0);
+ parameter MetroscopeModelingLibrary.Utilities.Units.Pressure source_fuel.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.MassFlowRate
+ source_fuel.Q_0 = 1000;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ source_fuel.h_0 = 500000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ source_fuel.T_0 = 300;
+ constant Real source_fuel.amC = 12.01115 "Carbon atomic mass";
+ constant Real source_fuel.amH = 1.00797 "Hydrogen atomic mass";
+ constant Real source_fuel.amO = 15.9994 "Oxygen atomic mass";
+ constant Real source_fuel.amN = 14.0067 "Nitrogen atomic mass";
+ constant MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ compressor_P_out_sensor.Q_0 = 100;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure compressor_P_out_sensor.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ compressor_P_out_sensor.h_0 = 500000.0;
+ parameter Boolean compressor_P_out_sensor.faulty_flow_rate = false;
+ parameter String compressor_P_out_sensor.sensor_function = "Calibration"
+ "Specify if the sensor is a BC or used for calibration";
+ parameter String compressor_P_out_sensor.causality = "compressor_tau"
+ "Specify which parameter is calibrated by this sensor";
+ parameter Boolean compressor_P_out_sensor.show_causality "Used to show or not the causality";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ compressor_P_out_sensor.flow_model.T_in_0 = compressor_P_out_sensor.flow_model.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ compressor_P_out_sensor.flow_model.T_out_0 = compressor_P_out_sensor.flow_model.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure compressor_P_out_sensor.flow_model.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure compressor_P_out_sensor.flow_model.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ compressor_P_out_sensor.flow_model.DP_0 = compressor_P_out_sensor.flow_model.P_out_0
+ -compressor_P_out_sensor.flow_model.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ compressor_P_out_sensor.flow_model.h_in_0 = compressor_P_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ compressor_P_out_sensor.flow_model.h_out_0 = compressor_P_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density compressor_P_out_sensor.flow_model.rho_0
+ = 1;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ compressor_P_out_sensor.flow_model.Q_0 = 500 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure compressor_P_out_sensor.flow_model.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ compressor_P_out_sensor.flow_model.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ compressor_P_out_sensor.flow_model.h_0 = 500000.0;
+ parameter Real compressor_P_out_sensor.init_P = 1;
+ parameter Boolean compressor_P_out_sensor.display_output "Used to switch ON or OFF output display";
+ parameter String compressor_P_out_sensor.display_unit = "barA"
+ "Specify the display unit";
+ parameter String compressor_P_out_sensor.signal_unit = "barA";
+ constant MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ compressor_T_out_sensor.Q_0 = 100;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure compressor_T_out_sensor.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ compressor_T_out_sensor.h_0 = 500000.0;
+ parameter Boolean compressor_T_out_sensor.faulty_flow_rate = false;
+ parameter String compressor_T_out_sensor.sensor_function = "Calibration"
+ "Specify if the sensor is a BC or used for calibration";
+ parameter String compressor_T_out_sensor.causality = "compressor_eta_is"
+ "Specify which parameter is calibrated by this sensor";
+ parameter Boolean compressor_T_out_sensor.show_causality "Used to show or not the causality";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ compressor_T_out_sensor.flow_model.T_in_0 = compressor_T_out_sensor.flow_model.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ compressor_T_out_sensor.flow_model.T_out_0 = compressor_T_out_sensor.flow_model.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure compressor_T_out_sensor.flow_model.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure compressor_T_out_sensor.flow_model.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ compressor_T_out_sensor.flow_model.DP_0 = compressor_T_out_sensor.flow_model.P_out_0
+ -compressor_T_out_sensor.flow_model.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ compressor_T_out_sensor.flow_model.h_in_0 = compressor_T_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ compressor_T_out_sensor.flow_model.h_out_0 = compressor_T_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density compressor_T_out_sensor.flow_model.rho_0
+ = 1;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ compressor_T_out_sensor.flow_model.Q_0 = 500 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure compressor_T_out_sensor.flow_model.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ compressor_T_out_sensor.flow_model.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ compressor_T_out_sensor.flow_model.h_0 = 500000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Temperature
+ compressor_T_out_sensor.T_0 = 723.15;
+ parameter Real compressor_T_out_sensor.init_T = 300;
+ parameter String compressor_T_out_sensor.display_unit = "degC"
+ "Specify the display unit";
+ parameter Boolean compressor_T_out_sensor.display_output "Used to switch ON or OFF output display";
+ parameter String compressor_T_out_sensor.signal_unit = "degC";
+ constant MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ turbine_P_out_sensor.Q_0 = 100;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure turbine_P_out_sensor.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ turbine_P_out_sensor.h_0 = 500000.0;
+ parameter Boolean turbine_P_out_sensor.faulty_flow_rate = false;
+ parameter String turbine_P_out_sensor.sensor_function = "Calibration"
+ "Specify if the sensor is a BC or used for calibration";
+ parameter String turbine_P_out_sensor.causality = "hrsg_kf_hot"
+ "Specify which parameter is calibrated by this sensor";
+ parameter Boolean turbine_P_out_sensor.show_causality "Used to show or not the causality";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ turbine_P_out_sensor.flow_model.T_in_0 = turbine_P_out_sensor.flow_model.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ turbine_P_out_sensor.flow_model.T_out_0 = turbine_P_out_sensor.flow_model.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure turbine_P_out_sensor.flow_model.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure turbine_P_out_sensor.flow_model.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ turbine_P_out_sensor.flow_model.DP_0 = turbine_P_out_sensor.flow_model.P_out_0
+ -turbine_P_out_sensor.flow_model.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ turbine_P_out_sensor.flow_model.h_in_0 = turbine_P_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ turbine_P_out_sensor.flow_model.h_out_0 = turbine_P_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density turbine_P_out_sensor.flow_model.rho_0
+ = 1;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ turbine_P_out_sensor.flow_model.Q_0 = 500 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure turbine_P_out_sensor.flow_model.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ turbine_P_out_sensor.flow_model.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ turbine_P_out_sensor.flow_model.h_0 = 500000.0;
+ parameter Real turbine_P_out_sensor.init_P = 1;
+ parameter Boolean turbine_P_out_sensor.display_output "Used to switch ON or OFF output display";
+ parameter String turbine_P_out_sensor.display_unit = "barA" "Specify the display unit";
+ parameter String turbine_P_out_sensor.signal_unit = "barA";
+ parameter String W_GT_sensor.sensor_function = "Calibration" "Specify if the sensor is a BC or used for calibration";
+ parameter String W_GT_sensor.causality = "turbine_eta_is" "Specify which parameter is calibrated by this sensor";
+ parameter Boolean W_GT_sensor.show_causality "Used to show or not the causality";
+ parameter String W_GT_sensor.display_unit = "MW" "Specify the display unit";
+ parameter Boolean W_GT_sensor.display_output "Used to switch ON or OFF output display";
+ parameter String W_GT_sensor.output_signal_unit = "MW";
+ constant MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ turbine_T_out_sensor.Q_0 = 100;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure turbine_T_out_sensor.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ turbine_T_out_sensor.h_0 = 500000.0;
+ parameter Boolean turbine_T_out_sensor.faulty_flow_rate = false;
+ parameter String turbine_T_out_sensor.sensor_function = "BC" "Specify if the sensor is a BC or used for calibration";
+ parameter String turbine_T_out_sensor.causality = "" "Specify which parameter is calibrated by this sensor";
+ parameter Boolean turbine_T_out_sensor.show_causality "Used to show or not the causality";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ turbine_T_out_sensor.flow_model.T_in_0 = turbine_T_out_sensor.flow_model.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ turbine_T_out_sensor.flow_model.T_out_0 = turbine_T_out_sensor.flow_model.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure turbine_T_out_sensor.flow_model.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure turbine_T_out_sensor.flow_model.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ turbine_T_out_sensor.flow_model.DP_0 = turbine_T_out_sensor.flow_model.P_out_0
+ -turbine_T_out_sensor.flow_model.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ turbine_T_out_sensor.flow_model.h_in_0 = turbine_T_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ turbine_T_out_sensor.flow_model.h_out_0 = turbine_T_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density turbine_T_out_sensor.flow_model.rho_0
+ = 1;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ turbine_T_out_sensor.flow_model.Q_0 = 500 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure turbine_T_out_sensor.flow_model.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ turbine_T_out_sensor.flow_model.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ turbine_T_out_sensor.flow_model.h_0 = 500000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Temperature
+ turbine_T_out_sensor.T_0 = 913.15;
+ parameter Real turbine_T_out_sensor.init_T = 300;
+ parameter String turbine_T_out_sensor.display_unit = "degC" "Specify the display unit";
+ parameter Boolean turbine_T_out_sensor.display_output "Used to switch ON or OFF output display";
+ parameter String turbine_T_out_sensor.signal_unit = "degC";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Area Reheater.S = 3000;
+ parameter Boolean Reheater.nominal_DT_default = true;
+ parameter String Reheater.QCp_max_side = "hot";
+ parameter String Reheater.config = "monophasic_counter_current";
+ parameter String Reheater.mixed_fluid = "hot";
+ parameter Boolean Reheater.faulty = false;
+ parameter MetroscopeModelingLibrary.Utilities.Units.MassFlowRate
+ Reheater.Q_cold_0 = 85;
+ parameter MetroscopeModelingLibrary.Utilities.Units.MassFlowRate
+ Reheater.Q_hot_0 = 640;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ Reheater.T_cold_in_0 = 683.15;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ Reheater.T_cold_out_0 = 788.15;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ Reheater.T_hot_in_0 = 873.15;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ Reheater.T_hot_out_0 = 838.15;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure Reheater.P_cold_in_0
+ = 13000000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure Reheater.P_cold_out_0
+ = 12950000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Pressure Reheater.P_hot_in_0
+ = 110000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure Reheater.P_hot_out_0
+ = 105000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ Reheater.h_cold_in_0 = 3060000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ Reheater.h_cold_out_0 = 3380000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ Reheater.h_hot_in_0 = 960000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ Reheater.h_hot_out_0 = 910000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.MassFlowRate
+ Reheater.HX.Q_hot_0 = 50 "Init parameter for Hot mass flow rate at the inlet";
+ parameter MetroscopeModelingLibrary.Utilities.Units.MassFlowRate
+ Reheater.HX.Q_cold_0 = 1500 "Init parameter for Cold mass flow rate at the inlet";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ Reheater.HX.T_hot_in_0 = 473.15 "Init parameter for Hot mass flow rate at the inlet";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ Reheater.HX.T_cold_in_0 = Reheater.T_cold_in_0 "Init parameter for Cold mass flow rate at the inlet";
+ parameter MetroscopeModelingLibrary.Utilities.Units.HeatCapacity
+ Reheater.HX.Cp_hot_0 = 45 "Init parameter for Hot fluid specific heat capacity";
+ parameter MetroscopeModelingLibrary.Utilities.Units.HeatCapacity
+ Reheater.HX.Cp_cold_0 = 75 "Init parameter for Cold fluid specific heat capacity";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Area Reheater.HX.S_0 = 100
+ "init parameter for Heat exchange surface";
+ parameter MetroscopeModelingLibrary.Utilities.Units.HeatExchangeCoefficient
+ Reheater.HX.Kth_0 = 5000 "init parameter for Heat exchange coefficient";
+ parameter String Reheater.HX.config = Reheater.config;
+ parameter String Reheater.HX.QCp_max_side = Reheater.QCp_max_side;
+ parameter String Reheater.HX.mixed_fluid = Reheater.mixed_fluid;
+ parameter Real Reheater.HX.QCpMIN_0(unit = "W/K") = (if Reheater.HX.QCp_max_side
+ == "hot" then Reheater.HX.Q_cold_0*Reheater.HX.Cp_cold_0 else (if
+ Reheater.HX.QCp_max_side == "cold" then Reheater.HX.Q_hot_0*Reheater.HX.Cp_hot_0
+ else min(Reheater.HX.Q_cold_0*Reheater.HX.Cp_cold_0, Reheater.HX.Q_hot_0*
+ Reheater.HX.Cp_hot_0)));
+ parameter Real Reheater.HX.QCpMAX_0(unit = "W/K") = (if Reheater.HX.QCp_max_side
+ == "cold" then Reheater.HX.Q_cold_0*Reheater.HX.Cp_cold_0 else (if
+ Reheater.HX.QCp_max_side == "hot" then Reheater.HX.Q_hot_0*Reheater.HX.Cp_hot_0
+ else max(Reheater.HX.Q_cold_0*Reheater.HX.Cp_cold_0, Reheater.HX.Q_hot_0*
+ Reheater.HX.Cp_hot_0)));
+ parameter Real Reheater.HX.NTU_0(unit = "1") = Reheater.HX.Kth_0*
+ Reheater.HX.S_0/Reheater.HX.QCpMIN_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Fraction Reheater.HX.Cr_0
+ = 0.8;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Fraction Reheater.HX.epsilon_0
+ = 0.9;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Power Reheater.HX.W_max_0
+ = Reheater.HX.QCpMIN_0*(Reheater.HX.T_hot_in_0-Reheater.HX.T_cold_in_0);
+ parameter MetroscopeModelingLibrary.Utilities.Units.Power Reheater.HX.W_0 =
+ Reheater.HX.epsilon_0*Reheater.HX.W_max_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ Reheater.hot_side.T_in_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ Reheater.hot_side.T_out_0 = Reheater.T_hot_out_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure Reheater.hot_side.P_in_0
+ = 105000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure Reheater.hot_side.P_out_0
+ = 105000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ Reheater.hot_side.DP_0 = Reheater.hot_side.P_out_0-Reheater.hot_side.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ Reheater.hot_side.h_in_0 = Reheater.h_hot_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ Reheater.hot_side.h_out_0 = Reheater.h_hot_out_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density Reheater.hot_side.rho_0
+ = 1;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Reheater.hot_side.Q_0 = Reheater.Q_hot_0 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure Reheater.hot_side.P_0
+ = 105000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ Reheater.cold_side.T_in_0 = Reheater.T_cold_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ Reheater.cold_side.T_out_0 = Reheater.T_cold_out_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure Reheater.cold_side.P_in_0
+ = 13000000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure Reheater.cold_side.P_out_0
+ = 13000000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ Reheater.cold_side.DP_0 = Reheater.cold_side.P_out_0-Reheater.cold_side.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ Reheater.cold_side.h_in_0 = Reheater.h_cold_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ Reheater.cold_side.h_out_0 = Reheater.h_cold_out_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density Reheater.cold_side.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Reheater.cold_side.Q_0 = Reheater.Q_cold_0 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure Reheater.cold_side.P_0
+ = 13000000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ Reheater.cold_side_pipe.T_in_0 = Reheater.cold_side_pipe.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ Reheater.cold_side_pipe.T_out_0 = Reheater.cold_side_pipe.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure Reheater.cold_side_pipe.P_in_0
+ = 13000000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure Reheater.cold_side_pipe.P_out_0
+ = 12950000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ Reheater.cold_side_pipe.DP_0 = Reheater.cold_side_pipe.P_out_0-
+ Reheater.cold_side_pipe.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ Reheater.cold_side_pipe.h_in_0 = Reheater.cold_side_pipe.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ Reheater.cold_side_pipe.h_out_0 = Reheater.cold_side_pipe.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density Reheater.cold_side_pipe.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Reheater.cold_side_pipe.Q_0 = Reheater.Q_cold_0 "Inlet Mass flow rate";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ Reheater.cold_side_pipe.T_0 = Reheater.T_cold_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ Reheater.cold_side_pipe.h_0 = Reheater.h_cold_in_0;
+ parameter Boolean Reheater.cold_side_pipe.faulty = false;
+ parameter MetroscopeModelingLibrary.Utilities.Units.FrictionCoefficient
+ Reheater.cold_side_pipe.Kfr_constant = -Reheater.cold_side_pipe.DP_0*
+ Reheater.cold_side_pipe.rho_0/(Reheater.cold_side_pipe.Q_0*Reheater.cold_side_pipe.Q_0);
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ LPsteamTurbine.T_in_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ LPsteamTurbine.T_out_0 = 300;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure LPsteamTurbine.P_in_0
+ = 6000000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure LPsteamTurbine.P_out_0
+ = 5500000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ LPsteamTurbine.DP_0 = LPsteamTurbine.P_out_0-LPsteamTurbine.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ LPsteamTurbine.h_in_0 = 2700000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ LPsteamTurbine.h_out_0 = 2600000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density LPsteamTurbine.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ LPsteamTurbine.Q_0 = 1500 "Inlet Mass flow rate";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Cst LPsteamTurbine.Cst_constant
+ = 10000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Yield LPsteamTurbine.eta_is_constant
+ = 0.9;
+ parameter MetroscopeModelingLibrary.Utilities.Units.MassFraction
+ LPsteamTurbine.x_out_0 = min((LPsteamTurbine.h_out_0-LPsteamTurbine.h_liq_out_0)
+ /(LPsteamTurbine.h_vap_out_0-LPsteamTurbine.h_liq_out_0), 1);
+ parameter MetroscopeModelingLibrary.Utilities.Units.MassFraction
+ LPsteamTurbine.xm_0 = (LPsteamTurbine.x_out_0+LPsteamTurbine.x_in_0)/2;
+ parameter MetroscopeModelingLibrary.Utilities.Units.MassFraction
+ LPsteamTurbine.x_in_0 = min((LPsteamTurbine.h_in_0-LPsteamTurbine.h_liq_in_0)
+ /(LPsteamTurbine.h_vap_in_0-LPsteamTurbine.h_liq_in_0), 1);
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ LPsteamTurbine.h_vap_in_0 = Modelica.Media.Water.WaterIF97_ph.dewEnthalpy_Unique22
+ (
+ Modelica.Media.Water.WaterIF97_ph.setSat_p_Unique23(LPsteamTurbine.P_in_0));
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ LPsteamTurbine.h_liq_in_0 = Modelica.Media.Water.WaterIF97_ph.bubbleEnthalpy_Unique24
+ (
+ Modelica.Media.Water.WaterIF97_ph.setSat_p_Unique23(LPsteamTurbine.P_in_0));
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ LPsteamTurbine.h_vap_out_0 = Modelica.Media.Water.WaterIF97_ph.dewEnthalpy_Unique22
+ (
+ Modelica.Media.Water.WaterIF97_ph.setSat_p_Unique23(LPsteamTurbine.P_out_0));
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ LPsteamTurbine.h_liq_out_0 = Modelica.Media.Water.WaterIF97_ph.bubbleEnthalpy_Unique24
+ (
+ Modelica.Media.Water.WaterIF97_ph.setSat_p_Unique23(LPsteamTurbine.P_out_0));
+ constant MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_w_ReH_out_sensor.Q_0 = 100;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_ReH_out_sensor.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_w_ReH_out_sensor.h_0 = 500000.0;
+ parameter Boolean T_w_ReH_out_sensor.faulty_flow_rate = false;
+ parameter String T_w_ReH_out_sensor.sensor_function = "Calibration"
+ "Specify if the sensor is a BC or used for calibration";
+ parameter String T_w_ReH_out_sensor.causality = "RHT_Kth" "Specify which parameter is calibrated by this sensor";
+ parameter Boolean T_w_ReH_out_sensor.show_causality "Used to show or not the causality";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_w_ReH_out_sensor.flow_model.T_in_0 = T_w_ReH_out_sensor.flow_model.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_w_ReH_out_sensor.flow_model.T_out_0 = T_w_ReH_out_sensor.flow_model.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_ReH_out_sensor.flow_model.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_ReH_out_sensor.flow_model.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ T_w_ReH_out_sensor.flow_model.DP_0 = T_w_ReH_out_sensor.flow_model.P_out_0-
+ T_w_ReH_out_sensor.flow_model.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_w_ReH_out_sensor.flow_model.h_in_0 = T_w_ReH_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_w_ReH_out_sensor.flow_model.h_out_0 = T_w_ReH_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density T_w_ReH_out_sensor.flow_model.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_w_ReH_out_sensor.flow_model.Q_0 = 1000 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_ReH_out_sensor.flow_model.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_w_ReH_out_sensor.flow_model.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_w_ReH_out_sensor.flow_model.h_0 = 500000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_w_ReH_out_sensor.T_0 = 300;
+ parameter Real T_w_ReH_out_sensor.init_T = 300;
+ parameter String T_w_ReH_out_sensor.display_unit = "degC" "Specify the display unit";
+ parameter Boolean T_w_ReH_out_sensor.display_output "Used to switch ON or OFF output display";
+ parameter String T_w_ReH_out_sensor.signal_unit = "degC";
+ constant MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_w_ReH_out_sensor.Q_0 = 100;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_ReH_out_sensor.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_w_ReH_out_sensor.h_0 = 500000.0;
+ parameter Boolean P_w_ReH_out_sensor.faulty_flow_rate = false;
+ parameter String P_w_ReH_out_sensor.sensor_function = "Calibration"
+ "Specify if the sensor is a BC or used for calibration";
+ parameter String P_w_ReH_out_sensor.causality = "LPST_valve_CV"
+ "Specify which parameter is calibrated by this sensor";
+ parameter Boolean P_w_ReH_out_sensor.show_causality "Used to show or not the causality";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_w_ReH_out_sensor.flow_model.T_in_0 = P_w_ReH_out_sensor.flow_model.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_w_ReH_out_sensor.flow_model.T_out_0 = P_w_ReH_out_sensor.flow_model.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_ReH_out_sensor.flow_model.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_ReH_out_sensor.flow_model.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ P_w_ReH_out_sensor.flow_model.DP_0 = P_w_ReH_out_sensor.flow_model.P_out_0-
+ P_w_ReH_out_sensor.flow_model.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_w_ReH_out_sensor.flow_model.h_in_0 = P_w_ReH_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_w_ReH_out_sensor.flow_model.h_out_0 = P_w_ReH_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density P_w_ReH_out_sensor.flow_model.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_w_ReH_out_sensor.flow_model.Q_0 = 1000 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_ReH_out_sensor.flow_model.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_w_ReH_out_sensor.flow_model.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_w_ReH_out_sensor.flow_model.h_0 = 500000.0;
+ parameter Real P_w_ReH_out_sensor.init_P = 1;
+ parameter Boolean P_w_ReH_out_sensor.display_output "Used to switch ON or OFF output display";
+ parameter String P_w_ReH_out_sensor.display_unit = "barA" "Specify the display unit";
+ parameter String P_w_ReH_out_sensor.signal_unit = "barA";
+ constant MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_Cond_sensor.Q_0 = 100;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_Cond_sensor.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_Cond_sensor.h_0 = 500000.0;
+ parameter Boolean P_Cond_sensor.faulty_flow_rate = false;
+ parameter String P_Cond_sensor.sensor_function = "Calibration"
+ "Specify if the sensor is a BC or used for calibration";
+ parameter String P_Cond_sensor.causality = "Cond_Kth" "Specify which parameter is calibrated by this sensor";
+ parameter Boolean P_Cond_sensor.show_causality "Used to show or not the causality";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_Cond_sensor.flow_model.T_in_0 = P_Cond_sensor.flow_model.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_Cond_sensor.flow_model.T_out_0 = P_Cond_sensor.flow_model.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_Cond_sensor.flow_model.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_Cond_sensor.flow_model.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ P_Cond_sensor.flow_model.DP_0 = P_Cond_sensor.flow_model.P_out_0-
+ P_Cond_sensor.flow_model.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_Cond_sensor.flow_model.h_in_0 = P_Cond_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_Cond_sensor.flow_model.h_out_0 = P_Cond_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density P_Cond_sensor.flow_model.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_Cond_sensor.flow_model.Q_0 = 1000 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_Cond_sensor.flow_model.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_Cond_sensor.flow_model.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_Cond_sensor.flow_model.h_0 = 500000.0;
+ parameter Real P_Cond_sensor.init_P = 1;
+ parameter Boolean P_Cond_sensor.display_output "Used to switch ON or OFF output display";
+ parameter String P_Cond_sensor.display_unit = "mbar" "Specify the display unit";
+ parameter String P_Cond_sensor.signal_unit = "mbar";
+ constant MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_source_air_sensor.Q_0 = 100;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_source_air_sensor.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_source_air_sensor.h_0 = 500000.0;
+ parameter Boolean P_source_air_sensor.faulty_flow_rate = false;
+ parameter String P_source_air_sensor.sensor_function = "BC" "Specify if the sensor is a BC or used for calibration";
+ parameter String P_source_air_sensor.causality = "" "Specify which parameter is calibrated by this sensor";
+ parameter Boolean P_source_air_sensor.show_causality "Used to show or not the causality";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_source_air_sensor.flow_model.T_in_0 = P_source_air_sensor.flow_model.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_source_air_sensor.flow_model.T_out_0 = P_source_air_sensor.flow_model.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_source_air_sensor.flow_model.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_source_air_sensor.flow_model.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ P_source_air_sensor.flow_model.DP_0 = P_source_air_sensor.flow_model.P_out_0
+ -P_source_air_sensor.flow_model.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_source_air_sensor.flow_model.h_in_0 = P_source_air_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_source_air_sensor.flow_model.h_out_0 = P_source_air_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density P_source_air_sensor.flow_model.rho_0
+ = 1;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_source_air_sensor.flow_model.Q_0 = 500 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_source_air_sensor.flow_model.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_source_air_sensor.flow_model.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_source_air_sensor.flow_model.h_0 = 500000.0;
+ parameter Real P_source_air_sensor.init_P = 1;
+ parameter Boolean P_source_air_sensor.display_output "Used to switch ON or OFF output display";
+ parameter String P_source_air_sensor.display_unit = "barA" "Specify the display unit";
+ parameter String P_source_air_sensor.signal_unit = "barA";
+ constant MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_source_air_sensor.Q_0 = 100;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_source_air_sensor.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_source_air_sensor.h_0 = 500000.0;
+ parameter Boolean T_source_air_sensor.faulty_flow_rate = false;
+ parameter String T_source_air_sensor.sensor_function = "BC" "Specify if the sensor is a BC or used for calibration";
+ parameter String T_source_air_sensor.causality = "" "Specify which parameter is calibrated by this sensor";
+ parameter Boolean T_source_air_sensor.show_causality "Used to show or not the causality";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_source_air_sensor.flow_model.T_in_0 = T_source_air_sensor.flow_model.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_source_air_sensor.flow_model.T_out_0 = T_source_air_sensor.flow_model.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_source_air_sensor.flow_model.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_source_air_sensor.flow_model.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ T_source_air_sensor.flow_model.DP_0 = T_source_air_sensor.flow_model.P_out_0
+ -T_source_air_sensor.flow_model.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_source_air_sensor.flow_model.h_in_0 = T_source_air_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_source_air_sensor.flow_model.h_out_0 = T_source_air_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density T_source_air_sensor.flow_model.rho_0
+ = 1;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_source_air_sensor.flow_model.Q_0 = 500 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_source_air_sensor.flow_model.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_source_air_sensor.flow_model.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_source_air_sensor.flow_model.h_0 = 500000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_source_air_sensor.T_0 = 300;
+ parameter Real T_source_air_sensor.init_T = 300;
+ parameter String T_source_air_sensor.display_unit = "degC" "Specify the display unit";
+ parameter Boolean T_source_air_sensor.display_output "Used to switch ON or OFF output display";
+ parameter String T_source_air_sensor.signal_unit = "degC";
+ constant MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Q_source_air_sensor.Q_0 = 100;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure Q_source_air_sensor.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ Q_source_air_sensor.h_0 = 500000.0;
+ parameter Boolean Q_source_air_sensor.faulty_flow_rate = Q_source_air_sensor.faulty;
+ parameter String Q_source_air_sensor.sensor_function = "BC" "Specify if the sensor is a BC or used for calibration";
+ parameter String Q_source_air_sensor.causality = "" "Specify which parameter is calibrated by this sensor";
+ parameter Boolean Q_source_air_sensor.show_causality "Used to show or not the causality";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ Q_source_air_sensor.flow_model.T_in_0 = Q_source_air_sensor.flow_model.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ Q_source_air_sensor.flow_model.T_out_0 = Q_source_air_sensor.flow_model.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure Q_source_air_sensor.flow_model.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure Q_source_air_sensor.flow_model.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ Q_source_air_sensor.flow_model.DP_0 = Q_source_air_sensor.flow_model.P_out_0
+ -Q_source_air_sensor.flow_model.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ Q_source_air_sensor.flow_model.h_in_0 = Q_source_air_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ Q_source_air_sensor.flow_model.h_out_0 = Q_source_air_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density Q_source_air_sensor.flow_model.rho_0
+ = 1;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Q_source_air_sensor.flow_model.Q_0 = 500 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure Q_source_air_sensor.flow_model.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ Q_source_air_sensor.flow_model.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ Q_source_air_sensor.flow_model.h_0 = 500000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.VolumeFlowRate
+ Q_source_air_sensor.Qv_0 = 0.1;
+ parameter Boolean Q_source_air_sensor.faulty = false;
+ parameter String Q_source_air_sensor.display_unit = "kg/s" "Specify the display unit";
+ parameter Boolean Q_source_air_sensor.display_output "Used to switch ON or OFF output display";
+ parameter String Q_source_air_sensor.signal_unit = "kg/s";
+ constant MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_circulating_water_in_sensor.Q_0 = 100;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_circulating_water_in_sensor.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_circulating_water_in_sensor.h_0 = 500000.0;
+ parameter Boolean T_circulating_water_in_sensor.faulty_flow_rate = false;
+ parameter String T_circulating_water_in_sensor.sensor_function = "BC"
+ "Specify if the sensor is a BC or used for calibration";
+ parameter String T_circulating_water_in_sensor.causality = "" "Specify which parameter is calibrated by this sensor";
+ parameter Boolean T_circulating_water_in_sensor.show_causality
+ "Used to show or not the causality";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_circulating_water_in_sensor.flow_model.T_in_0 = T_circulating_water_in_sensor.flow_model.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_circulating_water_in_sensor.flow_model.T_out_0 = T_circulating_water_in_sensor.flow_model.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_circulating_water_in_sensor.flow_model.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_circulating_water_in_sensor.flow_model.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ T_circulating_water_in_sensor.flow_model.DP_0 = T_circulating_water_in_sensor.flow_model.P_out_0
+ -T_circulating_water_in_sensor.flow_model.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_circulating_water_in_sensor.flow_model.h_in_0 = T_circulating_water_in_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_circulating_water_in_sensor.flow_model.h_out_0 = T_circulating_water_in_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density T_circulating_water_in_sensor.flow_model.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_circulating_water_in_sensor.flow_model.Q_0 = 1000 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_circulating_water_in_sensor.flow_model.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_circulating_water_in_sensor.flow_model.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_circulating_water_in_sensor.flow_model.h_0 = 500000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_circulating_water_in_sensor.T_0 = 300;
+ parameter Real T_circulating_water_in_sensor.init_T = 300;
+ parameter String T_circulating_water_in_sensor.display_unit = "degC"
+ "Specify the display unit";
+ parameter Boolean T_circulating_water_in_sensor.display_output
+ "Used to switch ON or OFF output display";
+ parameter String T_circulating_water_in_sensor.signal_unit = "degC";
+ constant MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_circulating_water_in_sensor.Q_0 = 100;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_circulating_water_in_sensor.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_circulating_water_in_sensor.h_0 = 500000.0;
+ parameter Boolean P_circulating_water_in_sensor.faulty_flow_rate = false;
+ parameter String P_circulating_water_in_sensor.sensor_function = "BC"
+ "Specify if the sensor is a BC or used for calibration";
+ parameter String P_circulating_water_in_sensor.causality = "" "Specify which parameter is calibrated by this sensor";
+ parameter Boolean P_circulating_water_in_sensor.show_causality
+ "Used to show or not the causality";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_circulating_water_in_sensor.flow_model.T_in_0 = P_circulating_water_in_sensor.flow_model.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_circulating_water_in_sensor.flow_model.T_out_0 = P_circulating_water_in_sensor.flow_model.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_circulating_water_in_sensor.flow_model.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_circulating_water_in_sensor.flow_model.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ P_circulating_water_in_sensor.flow_model.DP_0 = P_circulating_water_in_sensor.flow_model.P_out_0
+ -P_circulating_water_in_sensor.flow_model.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_circulating_water_in_sensor.flow_model.h_in_0 = P_circulating_water_in_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_circulating_water_in_sensor.flow_model.h_out_0 = P_circulating_water_in_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density P_circulating_water_in_sensor.flow_model.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_circulating_water_in_sensor.flow_model.Q_0 = 1000 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_circulating_water_in_sensor.flow_model.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_circulating_water_in_sensor.flow_model.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_circulating_water_in_sensor.flow_model.h_0 = 500000.0;
+ parameter Real P_circulating_water_in_sensor.init_P = 1;
+ parameter Boolean P_circulating_water_in_sensor.display_output
+ "Used to switch ON or OFF output display";
+ parameter String P_circulating_water_in_sensor.display_unit = "barA"
+ "Specify the display unit";
+ parameter String P_circulating_water_in_sensor.signal_unit = "barA";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ LPST_control_valve.T_in_0 = LPST_control_valve.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ LPST_control_valve.T_out_0 = LPST_control_valve.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure LPST_control_valve.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure LPST_control_valve.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ LPST_control_valve.DP_0 = LPST_control_valve.P_out_0-LPST_control_valve.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ LPST_control_valve.h_in_0 = LPST_control_valve.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ LPST_control_valve.h_out_0 = LPST_control_valve.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density LPST_control_valve.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ LPST_control_valve.Q_0 = 1000 "Inlet Mass flow rate";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ LPST_control_valve.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ LPST_control_valve.h_0 = 500000.0;
+ parameter Boolean LPST_control_valve.faulty = false;
+ parameter Real LPST_control_valve.Cv_constant = 10000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_LPST_in_sensor.Q_0 = 100;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_LPST_in_sensor.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_LPST_in_sensor.h_0 = 500000.0;
+ parameter Boolean P_LPST_in_sensor.faulty_flow_rate = false;
+ parameter String P_LPST_in_sensor.sensor_function = "Calibration"
+ "Specify if the sensor is a BC or used for calibration";
+ parameter String P_LPST_in_sensor.causality = "LPST_Cst" "Specify which parameter is calibrated by this sensor";
+ parameter Boolean P_LPST_in_sensor.show_causality "Used to show or not the causality";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_LPST_in_sensor.flow_model.T_in_0 = P_LPST_in_sensor.flow_model.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_LPST_in_sensor.flow_model.T_out_0 = P_LPST_in_sensor.flow_model.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_LPST_in_sensor.flow_model.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_LPST_in_sensor.flow_model.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ P_LPST_in_sensor.flow_model.DP_0 = P_LPST_in_sensor.flow_model.P_out_0-
+ P_LPST_in_sensor.flow_model.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_LPST_in_sensor.flow_model.h_in_0 = P_LPST_in_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_LPST_in_sensor.flow_model.h_out_0 = P_LPST_in_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density P_LPST_in_sensor.flow_model.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_LPST_in_sensor.flow_model.Q_0 = 1000 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_LPST_in_sensor.flow_model.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_LPST_in_sensor.flow_model.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_LPST_in_sensor.flow_model.h_0 = 500000.0;
+ parameter Real P_LPST_in_sensor.init_P = 1;
+ parameter Boolean P_LPST_in_sensor.display_output "Used to switch ON or OFF output display";
+ parameter String P_LPST_in_sensor.display_unit = "barA" "Specify the display unit";
+ parameter String P_LPST_in_sensor.signal_unit = "barA";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature pumpRec.T_in_0
+ = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ pumpRec.T_out_0 = 300;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure pumpRec.P_in_0 =
+ 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure pumpRec.P_out_0 =
+ 1000000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ pumpRec.DP_0 = pumpRec.P_out_0-pumpRec.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ pumpRec.h_in_0 = 500000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ pumpRec.h_out_0 = 500000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density pumpRec.rho_0 = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ pumpRec.Q_0 = 1 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_pumpRec_out_sensor.Q_0 = 100;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_pumpRec_out_sensor.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_pumpRec_out_sensor.h_0 = 500000.0;
+ parameter Boolean T_pumpRec_out_sensor.faulty_flow_rate = false;
+ parameter String T_pumpRec_out_sensor.sensor_function = "Calibration"
+ "Specify if the sensor is a BC or used for calibration";
+ parameter String T_pumpRec_out_sensor.causality = "rh" "Specify which parameter is calibrated by this sensor";
+ parameter Boolean T_pumpRec_out_sensor.show_causality "Used to show or not the causality";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_pumpRec_out_sensor.flow_model.T_in_0 = T_pumpRec_out_sensor.flow_model.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_pumpRec_out_sensor.flow_model.T_out_0 = T_pumpRec_out_sensor.flow_model.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_pumpRec_out_sensor.flow_model.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_pumpRec_out_sensor.flow_model.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ T_pumpRec_out_sensor.flow_model.DP_0 = T_pumpRec_out_sensor.flow_model.P_out_0
+ -T_pumpRec_out_sensor.flow_model.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_pumpRec_out_sensor.flow_model.h_in_0 = T_pumpRec_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_pumpRec_out_sensor.flow_model.h_out_0 = T_pumpRec_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density T_pumpRec_out_sensor.flow_model.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_pumpRec_out_sensor.flow_model.Q_0 = 1000 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_pumpRec_out_sensor.flow_model.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_pumpRec_out_sensor.flow_model.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_pumpRec_out_sensor.flow_model.h_0 = 500000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_pumpRec_out_sensor.T_0 = 300;
+ parameter Real T_pumpRec_out_sensor.init_T = 300;
+ parameter String T_pumpRec_out_sensor.display_unit = "degC" "Specify the display unit";
+ parameter Boolean T_pumpRec_out_sensor.display_output "Used to switch ON or OFF output display";
+ parameter String T_pumpRec_out_sensor.signal_unit = "degC";
+ constant MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_pumpRec_out_sensor.Q_0 = 100;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_pumpRec_out_sensor.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_pumpRec_out_sensor.h_0 = 500000.0;
+ parameter Boolean P_pumpRec_out_sensor.faulty_flow_rate = false;
+ parameter String P_pumpRec_out_sensor.sensor_function = "Calibration"
+ "Specify if the sensor is a BC or used for calibration";
+ parameter String P_pumpRec_out_sensor.causality = "hn" "Specify which parameter is calibrated by this sensor";
+ parameter Boolean P_pumpRec_out_sensor.show_causality "Used to show or not the causality";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_pumpRec_out_sensor.flow_model.T_in_0 = P_pumpRec_out_sensor.flow_model.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_pumpRec_out_sensor.flow_model.T_out_0 = P_pumpRec_out_sensor.flow_model.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_pumpRec_out_sensor.flow_model.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_pumpRec_out_sensor.flow_model.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ P_pumpRec_out_sensor.flow_model.DP_0 = P_pumpRec_out_sensor.flow_model.P_out_0
+ -P_pumpRec_out_sensor.flow_model.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_pumpRec_out_sensor.flow_model.h_in_0 = P_pumpRec_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_pumpRec_out_sensor.flow_model.h_out_0 = P_pumpRec_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density P_pumpRec_out_sensor.flow_model.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_pumpRec_out_sensor.flow_model.Q_0 = 1000 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_pumpRec_out_sensor.flow_model.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_pumpRec_out_sensor.flow_model.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_pumpRec_out_sensor.flow_model.h_0 = 500000.0;
+ parameter Real P_pumpRec_out_sensor.init_P = 1;
+ parameter Boolean P_pumpRec_out_sensor.display_output "Used to switch ON or OFF output display";
+ parameter String P_pumpRec_out_sensor.display_unit = "barA" "Specify the display unit";
+ parameter String P_pumpRec_out_sensor.signal_unit = "barA";
+ constant MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Q_pumpRec_out_sensor.Q_0 = 100;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure Q_pumpRec_out_sensor.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ Q_pumpRec_out_sensor.h_0 = 500000.0;
+ parameter Boolean Q_pumpRec_out_sensor.faulty_flow_rate = Q_pumpRec_out_sensor.faulty;
+ parameter String Q_pumpRec_out_sensor.sensor_function = "Unidentified"
+ "Specify if the sensor is a BC or used for calibration";
+ parameter String Q_pumpRec_out_sensor.causality = "" "Specify which parameter is calibrated by this sensor";
+ parameter Boolean Q_pumpRec_out_sensor.show_causality "Used to show or not the causality";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ Q_pumpRec_out_sensor.flow_model.T_in_0 = Q_pumpRec_out_sensor.flow_model.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ Q_pumpRec_out_sensor.flow_model.T_out_0 = Q_pumpRec_out_sensor.flow_model.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure Q_pumpRec_out_sensor.flow_model.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure Q_pumpRec_out_sensor.flow_model.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ Q_pumpRec_out_sensor.flow_model.DP_0 = Q_pumpRec_out_sensor.flow_model.P_out_0
+ -Q_pumpRec_out_sensor.flow_model.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ Q_pumpRec_out_sensor.flow_model.h_in_0 = Q_pumpRec_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ Q_pumpRec_out_sensor.flow_model.h_out_0 = Q_pumpRec_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density Q_pumpRec_out_sensor.flow_model.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Q_pumpRec_out_sensor.flow_model.Q_0 = 1000 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure Q_pumpRec_out_sensor.flow_model.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ Q_pumpRec_out_sensor.flow_model.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ Q_pumpRec_out_sensor.flow_model.h_0 = 500000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.VolumeFlowRate
+ Q_pumpRec_out_sensor.Qv_0 = 0.1;
+ parameter Boolean Q_pumpRec_out_sensor.faulty = false;
+ parameter String Q_pumpRec_out_sensor.display_unit = "kg/s" "Specify the display unit";
+ parameter Boolean Q_pumpRec_out_sensor.display_output "Used to switch ON or OFF output display";
+ parameter String Q_pumpRec_out_sensor.signal_unit = "kg/s";
+ constant MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_w_eco_in_sensor.Q_0 = 100;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_eco_in_sensor.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_w_eco_in_sensor.h_0 = 500000.0;
+ parameter Boolean T_w_eco_in_sensor.faulty_flow_rate = false;
+ parameter String T_w_eco_in_sensor.sensor_function = "BC" "Specify if the sensor is a BC or used for calibration";
+ parameter String T_w_eco_in_sensor.causality = "" "Specify which parameter is calibrated by this sensor";
+ parameter Boolean T_w_eco_in_sensor.show_causality "Used to show or not the causality";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_w_eco_in_sensor.flow_model.T_in_0 = T_w_eco_in_sensor.flow_model.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_w_eco_in_sensor.flow_model.T_out_0 = T_w_eco_in_sensor.flow_model.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_eco_in_sensor.flow_model.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_eco_in_sensor.flow_model.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ T_w_eco_in_sensor.flow_model.DP_0 = T_w_eco_in_sensor.flow_model.P_out_0-
+ T_w_eco_in_sensor.flow_model.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_w_eco_in_sensor.flow_model.h_in_0 = T_w_eco_in_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_w_eco_in_sensor.flow_model.h_out_0 = T_w_eco_in_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density T_w_eco_in_sensor.flow_model.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_w_eco_in_sensor.flow_model.Q_0 = 1000 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_eco_in_sensor.flow_model.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_w_eco_in_sensor.flow_model.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_w_eco_in_sensor.flow_model.h_0 = 500000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_w_eco_in_sensor.T_0 = 300;
+ parameter Real T_w_eco_in_sensor.init_T = 300;
+ parameter String T_w_eco_in_sensor.display_unit = "degC" "Specify the display unit";
+ parameter Boolean T_w_eco_in_sensor.display_output "Used to switch ON or OFF output display";
+ parameter String T_w_eco_in_sensor.signal_unit = "degC";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ pumpRec_controlValve.T_in_0 = pumpRec_controlValve.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ pumpRec_controlValve.T_out_0 = pumpRec_controlValve.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure pumpRec_controlValve.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure pumpRec_controlValve.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ pumpRec_controlValve.DP_0 = pumpRec_controlValve.P_out_0-pumpRec_controlValve.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ pumpRec_controlValve.h_in_0 = pumpRec_controlValve.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ pumpRec_controlValve.h_out_0 = pumpRec_controlValve.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density pumpRec_controlValve.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ pumpRec_controlValve.Q_0 = 1000 "Inlet Mass flow rate";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ pumpRec_controlValve.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ pumpRec_controlValve.h_0 = 500000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Cv pumpRec_controlValve.Cv_max_constant
+ = 10000.0 "Maximum CV";
+ constant MetroscopeModelingLibrary.Utilities.Units.Percentage pumpRec_opening_sensor.Opening_pc_0
+ = 15;
+ parameter String pumpRec_opening_sensor.sensor_function = "Calibration"
+ "Specify if the sensor is a BC or used for calibration";
+ parameter String pumpRec_opening_sensor.causality = "Cvmax" "Specify which parameter is calibrated by this sensor";
+ parameter Boolean pumpRec_opening_sensor.display_output = true
+ "Used to switch ON or OFF output display";
+ parameter String pumpRec_opening_sensor.output_signal_unit = "";
+ constant MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_flue_gas_sink_sensor.Q_0 = 100;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_flue_gas_sink_sensor.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_flue_gas_sink_sensor.h_0 = 500000.0;
+ parameter Boolean P_flue_gas_sink_sensor.faulty_flow_rate = false;
+ parameter String P_flue_gas_sink_sensor.sensor_function = "BC"
+ "Specify if the sensor is a BC or used for calibration";
+ parameter String P_flue_gas_sink_sensor.causality = "" "Specify which parameter is calibrated by this sensor";
+ parameter Boolean P_flue_gas_sink_sensor.show_causality "Used to show or not the causality";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_flue_gas_sink_sensor.flow_model.T_in_0 = P_flue_gas_sink_sensor.flow_model.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_flue_gas_sink_sensor.flow_model.T_out_0 = P_flue_gas_sink_sensor.flow_model.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_flue_gas_sink_sensor.flow_model.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_flue_gas_sink_sensor.flow_model.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ P_flue_gas_sink_sensor.flow_model.DP_0 = P_flue_gas_sink_sensor.flow_model.P_out_0
+ -P_flue_gas_sink_sensor.flow_model.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_flue_gas_sink_sensor.flow_model.h_in_0 = P_flue_gas_sink_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_flue_gas_sink_sensor.flow_model.h_out_0 = P_flue_gas_sink_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density P_flue_gas_sink_sensor.flow_model.rho_0
+ = 1;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_flue_gas_sink_sensor.flow_model.Q_0 = 500 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_flue_gas_sink_sensor.flow_model.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_flue_gas_sink_sensor.flow_model.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_flue_gas_sink_sensor.flow_model.h_0 = 500000.0;
+ parameter Real P_flue_gas_sink_sensor.init_P = 1;
+ parameter Boolean P_flue_gas_sink_sensor.display_output "Used to switch ON or OFF output display";
+ parameter String P_flue_gas_sink_sensor.display_unit = "barA" "Specify the display unit";
+ parameter String P_flue_gas_sink_sensor.signal_unit = "barA";
+ constant MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_fuel_source_sensor.Q_0 = 100;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_fuel_source_sensor.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_fuel_source_sensor.h_0 = 500000.0;
+ parameter Boolean P_fuel_source_sensor.faulty_flow_rate = false;
+ parameter String P_fuel_source_sensor.sensor_function = "BC" "Specify if the sensor is a BC or used for calibration";
+ parameter String P_fuel_source_sensor.causality = "" "Specify which parameter is calibrated by this sensor";
+ parameter Boolean P_fuel_source_sensor.show_causality "Used to show or not the causality";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_fuel_source_sensor.flow_model.T_in_0 = P_fuel_source_sensor.flow_model.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_fuel_source_sensor.flow_model.T_out_0 = P_fuel_source_sensor.flow_model.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_fuel_source_sensor.flow_model.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_fuel_source_sensor.flow_model.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ P_fuel_source_sensor.flow_model.DP_0 = P_fuel_source_sensor.flow_model.P_out_0
+ -P_fuel_source_sensor.flow_model.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_fuel_source_sensor.flow_model.h_in_0 = P_fuel_source_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_fuel_source_sensor.flow_model.h_out_0 = P_fuel_source_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density P_fuel_source_sensor.flow_model.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_fuel_source_sensor.flow_model.Q_0 = 1000 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_fuel_source_sensor.flow_model.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_fuel_source_sensor.flow_model.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_fuel_source_sensor.flow_model.h_0 = 500000.0;
+ parameter Real P_fuel_source_sensor.init_P = 1;
+ parameter Boolean P_fuel_source_sensor.display_output "Used to switch ON or OFF output display";
+ parameter String P_fuel_source_sensor.display_unit = "barA" "Specify the display unit";
+ parameter String P_fuel_source_sensor.signal_unit = "barA";
+ constant MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_fuel_source_sensor.Q_0 = 100;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_fuel_source_sensor.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_fuel_source_sensor.h_0 = 500000.0;
+ parameter Boolean T_fuel_source_sensor.faulty_flow_rate = false;
+ parameter String T_fuel_source_sensor.sensor_function = "BC" "Specify if the sensor is a BC or used for calibration";
+ parameter String T_fuel_source_sensor.causality = "" "Specify which parameter is calibrated by this sensor";
+ parameter Boolean T_fuel_source_sensor.show_causality "Used to show or not the causality";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_fuel_source_sensor.flow_model.T_in_0 = T_fuel_source_sensor.flow_model.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_fuel_source_sensor.flow_model.T_out_0 = T_fuel_source_sensor.flow_model.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_fuel_source_sensor.flow_model.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_fuel_source_sensor.flow_model.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ T_fuel_source_sensor.flow_model.DP_0 = T_fuel_source_sensor.flow_model.P_out_0
+ -T_fuel_source_sensor.flow_model.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_fuel_source_sensor.flow_model.h_in_0 = T_fuel_source_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_fuel_source_sensor.flow_model.h_out_0 = T_fuel_source_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density T_fuel_source_sensor.flow_model.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_fuel_source_sensor.flow_model.Q_0 = 1000 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_fuel_source_sensor.flow_model.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_fuel_source_sensor.flow_model.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_fuel_source_sensor.flow_model.h_0 = 500000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_fuel_source_sensor.T_0 = 300;
+ parameter Real T_fuel_source_sensor.init_T = 300;
+ parameter String T_fuel_source_sensor.display_unit = "degC" "Specify the display unit";
+ parameter Boolean T_fuel_source_sensor.display_output "Used to switch ON or OFF output display";
+ parameter String T_fuel_source_sensor.signal_unit = "degC";
+ constant MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Q_fuel_source_sensor.Q_0 = 100;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure Q_fuel_source_sensor.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ Q_fuel_source_sensor.h_0 = 500000.0;
+ parameter Boolean Q_fuel_source_sensor.faulty_flow_rate = Q_fuel_source_sensor.faulty;
+ parameter String Q_fuel_source_sensor.sensor_function = "Unidentified"
+ "Specify if the sensor is a BC or used for calibration";
+ parameter String Q_fuel_source_sensor.causality = "" "Specify which parameter is calibrated by this sensor";
+ parameter Boolean Q_fuel_source_sensor.show_causality "Used to show or not the causality";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ Q_fuel_source_sensor.flow_model.T_in_0 = Q_fuel_source_sensor.flow_model.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ Q_fuel_source_sensor.flow_model.T_out_0 = Q_fuel_source_sensor.flow_model.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure Q_fuel_source_sensor.flow_model.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure Q_fuel_source_sensor.flow_model.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ Q_fuel_source_sensor.flow_model.DP_0 = Q_fuel_source_sensor.flow_model.P_out_0
+ -Q_fuel_source_sensor.flow_model.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ Q_fuel_source_sensor.flow_model.h_in_0 = Q_fuel_source_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ Q_fuel_source_sensor.flow_model.h_out_0 = Q_fuel_source_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density Q_fuel_source_sensor.flow_model.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Q_fuel_source_sensor.flow_model.Q_0 = 1000 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure Q_fuel_source_sensor.flow_model.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ Q_fuel_source_sensor.flow_model.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ Q_fuel_source_sensor.flow_model.h_0 = 500000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.VolumeFlowRate
+ Q_fuel_source_sensor.Qv_0 = 0.1;
+ parameter Boolean Q_fuel_source_sensor.faulty = false;
+ parameter String Q_fuel_source_sensor.display_unit = "kg/s" "Specify the display unit";
+ parameter Boolean Q_fuel_source_sensor.display_output "Used to switch ON or OFF output display";
+ parameter String Q_fuel_source_sensor.signal_unit = "kg/s";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Yield GT_generator.eta =
+ 0.998 "Generator's efficiency";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Yield ST_generator.eta =
+ 0.998 "Generator's efficiency";
+ constant MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_flue_gas_sink_sensor.Q_0 = 100;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_flue_gas_sink_sensor.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_flue_gas_sink_sensor.h_0 = 500000.0;
+ parameter Boolean T_flue_gas_sink_sensor.faulty_flow_rate = false;
+ parameter String T_flue_gas_sink_sensor.sensor_function = "Unidentified"
+ "Specify if the sensor is a BC or used for calibration";
+ parameter String T_flue_gas_sink_sensor.causality = "" "Specify which parameter is calibrated by this sensor";
+ parameter Boolean T_flue_gas_sink_sensor.show_causality "Used to show or not the causality";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_flue_gas_sink_sensor.flow_model.T_in_0 = T_flue_gas_sink_sensor.flow_model.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_flue_gas_sink_sensor.flow_model.T_out_0 = T_flue_gas_sink_sensor.flow_model.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_flue_gas_sink_sensor.flow_model.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_flue_gas_sink_sensor.flow_model.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ T_flue_gas_sink_sensor.flow_model.DP_0 = T_flue_gas_sink_sensor.flow_model.P_out_0
+ -T_flue_gas_sink_sensor.flow_model.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_flue_gas_sink_sensor.flow_model.h_in_0 = T_flue_gas_sink_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_flue_gas_sink_sensor.flow_model.h_out_0 = T_flue_gas_sink_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density T_flue_gas_sink_sensor.flow_model.rho_0
+ = 1;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_flue_gas_sink_sensor.flow_model.Q_0 = 500 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_flue_gas_sink_sensor.flow_model.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_flue_gas_sink_sensor.flow_model.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_flue_gas_sink_sensor.flow_model.h_0 = 500000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_flue_gas_sink_sensor.T_0 = 300;
+ parameter Real T_flue_gas_sink_sensor.init_T = 300;
+ parameter String T_flue_gas_sink_sensor.display_unit = "degC" "Specify the display unit";
+ parameter Boolean T_flue_gas_sink_sensor.display_output "Used to switch ON or OFF output display";
+ parameter String T_flue_gas_sink_sensor.signal_unit = "degC";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ AirFilter.T_in_0 = AirFilter.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ AirFilter.T_out_0 = AirFilter.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure AirFilter.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure AirFilter.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ AirFilter.DP_0 = AirFilter.P_out_0-AirFilter.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ AirFilter.h_in_0 = AirFilter.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ AirFilter.h_out_0 = AirFilter.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density AirFilter.rho_0 = 1;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ AirFilter.Q_0 = 50 "Inlet Mass flow rate";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature AirFilter.T_0
+ = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ AirFilter.h_0 = 500000.0;
+ parameter Boolean AirFilter.faulty = false;
+ parameter MetroscopeModelingLibrary.Utilities.Units.FrictionCoefficient
+ AirFilter.Kfr_constant = -AirFilter.DP_0*AirFilter.rho_0/(AirFilter.Q_0*
+ AirFilter.Q_0);
+ constant MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_filter_out_sensor.Q_0 = 100;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_filter_out_sensor.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_filter_out_sensor.h_0 = 500000.0;
+ parameter Boolean P_filter_out_sensor.faulty_flow_rate = false;
+ parameter String P_filter_out_sensor.sensor_function = "Calibration"
+ "Specify if the sensor is a BC or used for calibration";
+ parameter String P_filter_out_sensor.causality = "Filter_Kfr" "Specify which parameter is calibrated by this sensor";
+ parameter Boolean P_filter_out_sensor.show_causality "Used to show or not the causality";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_filter_out_sensor.flow_model.T_in_0 = P_filter_out_sensor.flow_model.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_filter_out_sensor.flow_model.T_out_0 = P_filter_out_sensor.flow_model.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_filter_out_sensor.flow_model.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_filter_out_sensor.flow_model.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ P_filter_out_sensor.flow_model.DP_0 = P_filter_out_sensor.flow_model.P_out_0
+ -P_filter_out_sensor.flow_model.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_filter_out_sensor.flow_model.h_in_0 = P_filter_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_filter_out_sensor.flow_model.h_out_0 = P_filter_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density P_filter_out_sensor.flow_model.rho_0
+ = 1;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_filter_out_sensor.flow_model.Q_0 = 500 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_filter_out_sensor.flow_model.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_filter_out_sensor.flow_model.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_filter_out_sensor.flow_model.h_0 = 500000.0;
+ parameter Real P_filter_out_sensor.init_P = 1;
+ parameter Boolean P_filter_out_sensor.display_output "Used to switch ON or OFF output display";
+ parameter String P_filter_out_sensor.display_unit = "mbar" "Specify the display unit";
+ parameter String P_filter_out_sensor.signal_unit = "barA";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Area HPsuperheater2.S = 3000;
+ parameter Boolean HPsuperheater2.nominal_DT_default = true;
+ parameter String HPsuperheater2.QCp_max_side = "hot";
+ parameter String HPsuperheater2.config = "monophasic_counter_current";
+ parameter String HPsuperheater2.mixed_fluid = "hot";
+ parameter Boolean HPsuperheater2.faulty = false;
+ parameter MetroscopeModelingLibrary.Utilities.Units.MassFlowRate
+ HPsuperheater2.Q_cold_0 = 85;
+ parameter MetroscopeModelingLibrary.Utilities.Units.MassFlowRate
+ HPsuperheater2.Q_hot_0 = 640;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ HPsuperheater2.T_cold_in_0 = 683.15;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ HPsuperheater2.T_cold_out_0 = 788.15;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ HPsuperheater2.T_hot_in_0 = 873.15;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ HPsuperheater2.T_hot_out_0 = 838.15;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater2.P_cold_in_0
+ = 13000000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater2.P_cold_out_0
+ = 12950000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater2.P_hot_in_0
+ = 110000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater2.P_hot_out_0
+ = 105000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ HPsuperheater2.h_cold_in_0 = 3060000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ HPsuperheater2.h_cold_out_0 = 3380000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ HPsuperheater2.h_hot_in_0 = 960000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ HPsuperheater2.h_hot_out_0 = 910000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.MassFlowRate
+ HPsuperheater2.HX.Q_hot_0 = 50 "Init parameter for Hot mass flow rate at the inlet";
+ parameter MetroscopeModelingLibrary.Utilities.Units.MassFlowRate
+ HPsuperheater2.HX.Q_cold_0 = 1500 "Init parameter for Cold mass flow rate at the inlet";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ HPsuperheater2.HX.T_hot_in_0 = 473.15 "Init parameter for Hot mass flow rate at the inlet";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ HPsuperheater2.HX.T_cold_in_0 = HPsuperheater2.T_cold_in_0 "Init parameter for Cold mass flow rate at the inlet";
+ parameter MetroscopeModelingLibrary.Utilities.Units.HeatCapacity
+ HPsuperheater2.HX.Cp_hot_0 = 45 "Init parameter for Hot fluid specific heat capacity";
+ parameter MetroscopeModelingLibrary.Utilities.Units.HeatCapacity
+ HPsuperheater2.HX.Cp_cold_0 = 75 "Init parameter for Cold fluid specific heat capacity";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Area HPsuperheater2.HX.S_0
+ = 100 "init parameter for Heat exchange surface";
+ parameter MetroscopeModelingLibrary.Utilities.Units.HeatExchangeCoefficient
+ HPsuperheater2.HX.Kth_0 = 5000 "init parameter for Heat exchange coefficient";
+ parameter String HPsuperheater2.HX.config = HPsuperheater2.config;
+ parameter String HPsuperheater2.HX.QCp_max_side = HPsuperheater2.QCp_max_side;
+ parameter String HPsuperheater2.HX.mixed_fluid = HPsuperheater2.mixed_fluid;
+ parameter Real HPsuperheater2.HX.QCpMIN_0(unit = "W/K") = (if HPsuperheater2.HX.QCp_max_side
+ == "hot" then HPsuperheater2.HX.Q_cold_0*HPsuperheater2.HX.Cp_cold_0 else (
+ if HPsuperheater2.HX.QCp_max_side == "cold" then HPsuperheater2.HX.Q_hot_0*
+ HPsuperheater2.HX.Cp_hot_0 else min(HPsuperheater2.HX.Q_cold_0*
+ HPsuperheater2.HX.Cp_cold_0, HPsuperheater2.HX.Q_hot_0*HPsuperheater2.HX.Cp_hot_0)));
+ parameter Real HPsuperheater2.HX.QCpMAX_0(unit = "W/K") = (if HPsuperheater2.HX.QCp_max_side
+ == "cold" then HPsuperheater2.HX.Q_cold_0*HPsuperheater2.HX.Cp_cold_0 else
+ (if HPsuperheater2.HX.QCp_max_side == "hot" then HPsuperheater2.HX.Q_hot_0*
+ HPsuperheater2.HX.Cp_hot_0 else max(HPsuperheater2.HX.Q_cold_0*
+ HPsuperheater2.HX.Cp_cold_0, HPsuperheater2.HX.Q_hot_0*HPsuperheater2.HX.Cp_hot_0)));
+ parameter Real HPsuperheater2.HX.NTU_0(unit = "1") = HPsuperheater2.HX.Kth_0*
+ HPsuperheater2.HX.S_0/HPsuperheater2.HX.QCpMIN_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Fraction HPsuperheater2.HX.Cr_0
+ = 0.8;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Fraction HPsuperheater2.HX.epsilon_0
+ = 0.9;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Power HPsuperheater2.HX.W_max_0
+ = HPsuperheater2.HX.QCpMIN_0*(HPsuperheater2.HX.T_hot_in_0-HPsuperheater2.HX.T_cold_in_0);
+ parameter MetroscopeModelingLibrary.Utilities.Units.Power HPsuperheater2.HX.W_0
+ = HPsuperheater2.HX.epsilon_0*HPsuperheater2.HX.W_max_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ HPsuperheater2.hot_side.T_in_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ HPsuperheater2.hot_side.T_out_0 = HPsuperheater2.T_hot_out_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater2.hot_side.P_in_0
+ = 105000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater2.hot_side.P_out_0
+ = 105000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ HPsuperheater2.hot_side.DP_0 = HPsuperheater2.hot_side.P_out_0-
+ HPsuperheater2.hot_side.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ HPsuperheater2.hot_side.h_in_0 = HPsuperheater2.h_hot_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ HPsuperheater2.hot_side.h_out_0 = HPsuperheater2.h_hot_out_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density HPsuperheater2.hot_side.rho_0
+ = 1;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ HPsuperheater2.hot_side.Q_0 = HPsuperheater2.Q_hot_0 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater2.hot_side.P_0
+ = 105000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ HPsuperheater2.cold_side.T_in_0 = HPsuperheater2.T_cold_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ HPsuperheater2.cold_side.T_out_0 = HPsuperheater2.T_cold_out_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater2.cold_side.P_in_0
+ = 13000000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater2.cold_side.P_out_0
+ = 13000000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ HPsuperheater2.cold_side.DP_0 = HPsuperheater2.cold_side.P_out_0-
+ HPsuperheater2.cold_side.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ HPsuperheater2.cold_side.h_in_0 = HPsuperheater2.h_cold_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ HPsuperheater2.cold_side.h_out_0 = HPsuperheater2.h_cold_out_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density HPsuperheater2.cold_side.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ HPsuperheater2.cold_side.Q_0 = HPsuperheater2.Q_cold_0 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater2.cold_side.P_0
+ = 13000000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ HPsuperheater2.cold_side_pipe.T_in_0 = HPsuperheater2.cold_side_pipe.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ HPsuperheater2.cold_side_pipe.T_out_0 = HPsuperheater2.cold_side_pipe.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater2.cold_side_pipe.P_in_0
+ = 13000000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater2.cold_side_pipe.P_out_0
+ = 12950000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ HPsuperheater2.cold_side_pipe.DP_0 = HPsuperheater2.cold_side_pipe.P_out_0-
+ HPsuperheater2.cold_side_pipe.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ HPsuperheater2.cold_side_pipe.h_in_0 = HPsuperheater2.cold_side_pipe.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ HPsuperheater2.cold_side_pipe.h_out_0 = HPsuperheater2.cold_side_pipe.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density HPsuperheater2.cold_side_pipe.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ HPsuperheater2.cold_side_pipe.Q_0 = HPsuperheater2.Q_cold_0 "Inlet Mass flow rate";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ HPsuperheater2.cold_side_pipe.T_0 = HPsuperheater2.T_cold_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ HPsuperheater2.cold_side_pipe.h_0 = HPsuperheater2.h_cold_in_0;
+ parameter Boolean HPsuperheater2.cold_side_pipe.faulty = false;
+ parameter MetroscopeModelingLibrary.Utilities.Units.FrictionCoefficient
+ HPsuperheater2.cold_side_pipe.Kfr_constant = -HPsuperheater2.cold_side_pipe.DP_0
+ *HPsuperheater2.cold_side_pipe.rho_0/(HPsuperheater2.cold_side_pipe.Q_0*
+ HPsuperheater2.cold_side_pipe.Q_0);
+ constant MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_w_HPSH2_out_sensor.Q_0 = 100;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_HPSH2_out_sensor.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_w_HPSH2_out_sensor.h_0 = 500000.0;
+ parameter Boolean T_w_HPSH2_out_sensor.faulty_flow_rate = false;
+ parameter String T_w_HPSH2_out_sensor.sensor_function = "BC" "Specify if the sensor is a BC or used for calibration";
+ parameter String T_w_HPSH2_out_sensor.causality = "" "Specify which parameter is calibrated by this sensor";
+ parameter Boolean T_w_HPSH2_out_sensor.show_causality "Used to show or not the causality";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_w_HPSH2_out_sensor.flow_model.T_in_0 = T_w_HPSH2_out_sensor.flow_model.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_w_HPSH2_out_sensor.flow_model.T_out_0 = T_w_HPSH2_out_sensor.flow_model.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_HPSH2_out_sensor.flow_model.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_HPSH2_out_sensor.flow_model.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ T_w_HPSH2_out_sensor.flow_model.DP_0 = T_w_HPSH2_out_sensor.flow_model.P_out_0
+ -T_w_HPSH2_out_sensor.flow_model.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_w_HPSH2_out_sensor.flow_model.h_in_0 = T_w_HPSH2_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_w_HPSH2_out_sensor.flow_model.h_out_0 = T_w_HPSH2_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density T_w_HPSH2_out_sensor.flow_model.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_w_HPSH2_out_sensor.flow_model.Q_0 = 1000 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_HPSH2_out_sensor.flow_model.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_w_HPSH2_out_sensor.flow_model.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_w_HPSH2_out_sensor.flow_model.h_0 = 500000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_w_HPSH2_out_sensor.T_0 = 300;
+ parameter Real T_w_HPSH2_out_sensor.init_T = 300;
+ parameter String T_w_HPSH2_out_sensor.display_unit = "degC" "Specify the display unit";
+ parameter Boolean T_w_HPSH2_out_sensor.display_output "Used to switch ON or OFF output display";
+ parameter String T_w_HPSH2_out_sensor.signal_unit = "degC";
+ constant MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_w_HPSH2_out_sensor.Q_0 = 100;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_HPSH2_out_sensor.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_w_HPSH2_out_sensor.h_0 = 500000.0;
+ parameter Boolean P_w_HPSH2_out_sensor.faulty_flow_rate = false;
+ parameter String P_w_HPSH2_out_sensor.sensor_function = "Calibration"
+ "Specify if the sensor is a BC or used for calibration";
+ parameter String P_w_HPSH2_out_sensor.causality = "HPST_valve_CV"
+ "Specify which parameter is calibrated by this sensor";
+ parameter Boolean P_w_HPSH2_out_sensor.show_causality "Used to show or not the causality";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_w_HPSH2_out_sensor.flow_model.T_in_0 = P_w_HPSH2_out_sensor.flow_model.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_w_HPSH2_out_sensor.flow_model.T_out_0 = P_w_HPSH2_out_sensor.flow_model.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_HPSH2_out_sensor.flow_model.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_HPSH2_out_sensor.flow_model.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ P_w_HPSH2_out_sensor.flow_model.DP_0 = P_w_HPSH2_out_sensor.flow_model.P_out_0
+ -P_w_HPSH2_out_sensor.flow_model.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_w_HPSH2_out_sensor.flow_model.h_in_0 = P_w_HPSH2_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_w_HPSH2_out_sensor.flow_model.h_out_0 = P_w_HPSH2_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density P_w_HPSH2_out_sensor.flow_model.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_w_HPSH2_out_sensor.flow_model.Q_0 = 1000 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_HPSH2_out_sensor.flow_model.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ P_w_HPSH2_out_sensor.flow_model.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ P_w_HPSH2_out_sensor.flow_model.h_0 = 500000.0;
+ parameter Real P_w_HPSH2_out_sensor.init_P = 1;
+ parameter Boolean P_w_HPSH2_out_sensor.display_output "Used to switch ON or OFF output display";
+ parameter String P_w_HPSH2_out_sensor.display_unit = "barA" "Specify the display unit";
+ parameter String P_w_HPSH2_out_sensor.signal_unit = "barA";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ deSH_controlValve.T_in_0 = deSH_controlValve.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ deSH_controlValve.T_out_0 = deSH_controlValve.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure deSH_controlValve.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure deSH_controlValve.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ deSH_controlValve.DP_0 = deSH_controlValve.P_out_0-deSH_controlValve.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ deSH_controlValve.h_in_0 = deSH_controlValve.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ deSH_controlValve.h_out_0 = deSH_controlValve.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density deSH_controlValve.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ deSH_controlValve.Q_0 = 1000 "Inlet Mass flow rate";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ deSH_controlValve.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ deSH_controlValve.h_0 = 500000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Cv deSH_controlValve.Cv_max_constant
+ = 10000.0 "Maximum CV";
+ constant MetroscopeModelingLibrary.Utilities.Units.Percentage deSH_opening_sensor.Opening_pc_0
+ = 15;
+ parameter String deSH_opening_sensor.sensor_function = "Calibration"
+ "Specify if the sensor is a BC or used for calibration";
+ parameter String deSH_opening_sensor.causality = "Cvmax" "Specify which parameter is calibrated by this sensor";
+ parameter Boolean deSH_opening_sensor.display_output = true "Used to switch ON or OFF output display";
+ parameter String deSH_opening_sensor.output_signal_unit = "";
+ constant MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Q_deSH_sensor.Q_0 = 100;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure Q_deSH_sensor.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ Q_deSH_sensor.h_0 = 500000.0;
+ parameter Boolean Q_deSH_sensor.faulty_flow_rate = Q_deSH_sensor.faulty;
+ parameter String Q_deSH_sensor.sensor_function = "Calibration"
+ "Specify if the sensor is a BC or used for calibration";
+ parameter String Q_deSH_sensor.causality = "SH2_Kth" "Specify which parameter is calibrated by this sensor";
+ parameter Boolean Q_deSH_sensor.show_causality "Used to show or not the causality";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ Q_deSH_sensor.flow_model.T_in_0 = Q_deSH_sensor.flow_model.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ Q_deSH_sensor.flow_model.T_out_0 = Q_deSH_sensor.flow_model.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure Q_deSH_sensor.flow_model.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure Q_deSH_sensor.flow_model.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ Q_deSH_sensor.flow_model.DP_0 = Q_deSH_sensor.flow_model.P_out_0-
+ Q_deSH_sensor.flow_model.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ Q_deSH_sensor.flow_model.h_in_0 = Q_deSH_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ Q_deSH_sensor.flow_model.h_out_0 = Q_deSH_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density Q_deSH_sensor.flow_model.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Q_deSH_sensor.flow_model.Q_0 = 1000 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure Q_deSH_sensor.flow_model.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ Q_deSH_sensor.flow_model.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ Q_deSH_sensor.flow_model.h_0 = 500000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.VolumeFlowRate
+ Q_deSH_sensor.Qv_0 = 0.1;
+ parameter Boolean Q_deSH_sensor.faulty = false;
+ parameter String Q_deSH_sensor.display_unit = "kg/s" "Specify the display unit";
+ parameter Boolean Q_deSH_sensor.display_output "Used to switch ON or OFF output display";
+ parameter String Q_deSH_sensor.signal_unit = "kg/s";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ Evap_controlValve.T_in_0 = Evap_controlValve.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ Evap_controlValve.T_out_0 = Evap_controlValve.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure Evap_controlValve.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure Evap_controlValve.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ Evap_controlValve.DP_0 = Evap_controlValve.P_out_0-Evap_controlValve.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ Evap_controlValve.h_in_0 = Evap_controlValve.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ Evap_controlValve.h_out_0 = Evap_controlValve.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density Evap_controlValve.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Evap_controlValve.Q_0 = 1000 "Inlet Mass flow rate";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ Evap_controlValve.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ Evap_controlValve.h_0 = 500000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Cv Evap_controlValve.Cv_max_constant
+ = 10000.0 "Maximum CV";
+ constant MetroscopeModelingLibrary.Utilities.Units.Percentage Evap_opening_sensor.Opening_pc_0
+ = 15;
+ parameter String Evap_opening_sensor.sensor_function = "Calibration"
+ "Specify if the sensor is a BC or used for calibration";
+ parameter String Evap_opening_sensor.causality = "Cvmax" "Specify which parameter is calibrated by this sensor";
+ parameter Boolean Evap_opening_sensor.display_output = true "Used to switch ON or OFF output display";
+ parameter String Evap_opening_sensor.output_signal_unit = "";
+ parameter Real moistAir_to_FlueGases.sink.relative_humidity_0(min = 0.0,
+ max = 1.0) = 0.1;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Pressure moistAir_to_FlueGases.source.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.MassFlowRate
+ moistAir_to_FlueGases.source.Q_0 = 1000;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ moistAir_to_FlueGases.source.h_0 = 500000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ moistAir_to_FlueGases.source.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Pressure source_air.P_0 =
+ 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.MassFlowRate
+ source_air.Q_0 = 1000;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ source_air.h_0 = 500000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature source_air.T_0
+ = 300;
+ parameter Real source_air.relative_humidity_0(min = 0.0, max = 1.0) = 0.1;
+ constant MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_HPST_out_sensor.Q_0 = 100;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_HPST_out_sensor.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_HPST_out_sensor.h_0 = 500000.0;
+ parameter Boolean T_HPST_out_sensor.faulty_flow_rate = false;
+ parameter String T_HPST_out_sensor.sensor_function = "Calibration"
+ "Specify if the sensor is a BC or used for calibration";
+ parameter String T_HPST_out_sensor.causality = "HPST_eta_is" "Specify which parameter is calibrated by this sensor";
+ parameter Boolean T_HPST_out_sensor.show_causality "Used to show or not the causality";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_HPST_out_sensor.flow_model.T_in_0 = T_HPST_out_sensor.flow_model.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_HPST_out_sensor.flow_model.T_out_0 = T_HPST_out_sensor.flow_model.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_HPST_out_sensor.flow_model.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_HPST_out_sensor.flow_model.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ T_HPST_out_sensor.flow_model.DP_0 = T_HPST_out_sensor.flow_model.P_out_0-
+ T_HPST_out_sensor.flow_model.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_HPST_out_sensor.flow_model.h_in_0 = T_HPST_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_HPST_out_sensor.flow_model.h_out_0 = T_HPST_out_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density T_HPST_out_sensor.flow_model.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_HPST_out_sensor.flow_model.Q_0 = 1000 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure T_HPST_out_sensor.flow_model.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_HPST_out_sensor.flow_model.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ T_HPST_out_sensor.flow_model.h_0 = 500000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Temperature
+ T_HPST_out_sensor.T_0 = 300;
+ parameter Real T_HPST_out_sensor.init_T = 300;
+ parameter String T_HPST_out_sensor.display_unit = "degC" "Specify the display unit";
+ parameter Boolean T_HPST_out_sensor.display_output "Used to switch ON or OFF output display";
+ parameter String T_HPST_out_sensor.signal_unit = "degC";
+ constant MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ displayer.Q_0 = 100;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure displayer.P_0 =
+ 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ displayer.h_0 = 500000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ displayer.flow_model.T_in_0 = displayer.flow_model.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ displayer.flow_model.T_out_0 = displayer.flow_model.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure displayer.flow_model.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure displayer.flow_model.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ displayer.flow_model.DP_0 = displayer.flow_model.P_out_0-displayer.flow_model.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ displayer.flow_model.h_in_0 = displayer.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ displayer.flow_model.h_out_0 = displayer.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density displayer.flow_model.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ displayer.flow_model.Q_0 = 1000 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure displayer.flow_model.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ displayer.flow_model.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ displayer.flow_model.h_0 = 500000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ fuelDisplayer.Q_0 = 100;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure fuelDisplayer.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ fuelDisplayer.h_0 = 500000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ fuelDisplayer.flow_model.T_in_0 = fuelDisplayer.flow_model.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ fuelDisplayer.flow_model.T_out_0 = fuelDisplayer.flow_model.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure fuelDisplayer.flow_model.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure fuelDisplayer.flow_model.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ fuelDisplayer.flow_model.DP_0 = fuelDisplayer.flow_model.P_out_0-
+ fuelDisplayer.flow_model.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ fuelDisplayer.flow_model.h_in_0 = fuelDisplayer.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ fuelDisplayer.flow_model.h_out_0 = fuelDisplayer.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density fuelDisplayer.flow_model.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ fuelDisplayer.flow_model.Q_0 = 1000 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure fuelDisplayer.flow_model.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ fuelDisplayer.flow_model.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ fuelDisplayer.flow_model.h_0 = 500000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ moistAirDisplayer.Q_0 = 100;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure moistAirDisplayer.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ moistAirDisplayer.h_0 = 500000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ moistAirDisplayer.flow_model.T_in_0 = moistAirDisplayer.flow_model.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ moistAirDisplayer.flow_model.T_out_0 = moistAirDisplayer.flow_model.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure moistAirDisplayer.flow_model.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure moistAirDisplayer.flow_model.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ moistAirDisplayer.flow_model.DP_0 = moistAirDisplayer.flow_model.P_out_0-
+ moistAirDisplayer.flow_model.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ moistAirDisplayer.flow_model.h_in_0 = moistAirDisplayer.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ moistAirDisplayer.flow_model.h_out_0 = moistAirDisplayer.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density moistAirDisplayer.flow_model.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ moistAirDisplayer.flow_model.Q_0 = 1000 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure moistAirDisplayer.flow_model.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ moistAirDisplayer.flow_model.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ moistAirDisplayer.flow_model.h_0 = 500000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ flueGasesDisplayer.Q_0 = 100;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure flueGasesDisplayer.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ flueGasesDisplayer.h_0 = 500000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ flueGasesDisplayer.flow_model.T_in_0 = flueGasesDisplayer.flow_model.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ flueGasesDisplayer.flow_model.T_out_0 = flueGasesDisplayer.flow_model.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure flueGasesDisplayer.flow_model.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure flueGasesDisplayer.flow_model.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ flueGasesDisplayer.flow_model.DP_0 = flueGasesDisplayer.flow_model.P_out_0-
+ flueGasesDisplayer.flow_model.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ flueGasesDisplayer.flow_model.h_in_0 = flueGasesDisplayer.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ flueGasesDisplayer.flow_model.h_out_0 = flueGasesDisplayer.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density flueGasesDisplayer.flow_model.rho_0
+ = 1;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ flueGasesDisplayer.flow_model.Q_0 = 500 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure flueGasesDisplayer.flow_model.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ flueGasesDisplayer.flow_model.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ flueGasesDisplayer.flow_model.h_0 = 500000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Relative_Humidity_sensor.Q_0 = 100;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure Relative_Humidity_sensor.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ Relative_Humidity_sensor.h_0 = 500000.0;
+ parameter Boolean Relative_Humidity_sensor.faulty_flow_rate = false;
+ parameter String Relative_Humidity_sensor.sensor_function = "BC"
+ "Specify if the sensor is a BC or used for calibration";
+ parameter String Relative_Humidity_sensor.causality = "" "Specify which parameter is calibrated by this sensor";
+ parameter Boolean Relative_Humidity_sensor.show_causality "Used to show or not the causality";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ Relative_Humidity_sensor.flow_model.T_in_0 = Relative_Humidity_sensor.flow_model.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ Relative_Humidity_sensor.flow_model.T_out_0 = Relative_Humidity_sensor.flow_model.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure Relative_Humidity_sensor.flow_model.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure Relative_Humidity_sensor.flow_model.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ Relative_Humidity_sensor.flow_model.DP_0 = Relative_Humidity_sensor.flow_model.P_out_0
+ -Relative_Humidity_sensor.flow_model.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ Relative_Humidity_sensor.flow_model.h_in_0 = Relative_Humidity_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ Relative_Humidity_sensor.flow_model.h_out_0 = Relative_Humidity_sensor.flow_model.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density Relative_Humidity_sensor.flow_model.rho_0
+ = 998;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Relative_Humidity_sensor.flow_model.Q_0 = 1000 "Inlet Mass flow rate";
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure Relative_Humidity_sensor.flow_model.P_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ Relative_Humidity_sensor.flow_model.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ Relative_Humidity_sensor.flow_model.h_0 = 500000.0;
+ parameter Real Relative_Humidity_sensor.input_H = 0.5;
+ parameter Real Relative_Humidity_sensor.relative_humidity_0 = 0.5;
+ parameter String Relative_Humidity_sensor.display_unit = "%" "Specify the display unit";
+ parameter Boolean Relative_Humidity_sensor.display_output "Used to switch ON or OFF output display";
+ parameter String Relative_Humidity_sensor.signal_unit = "%";
+ input MetroscopeModelingLibrary.Utilities.Interfaces.RealInput
+ Relative_Humidity(start = 0.5);
+ input MetroscopeModelingLibrary.Utilities.Interfaces.RealInput P_source_air(
+ start = 1);
+ input MetroscopeModelingLibrary.Utilities.Interfaces.RealInput T_source_air(
+ start = 24);
+ input MetroscopeModelingLibrary.Utilities.Interfaces.RealInput Q_source_air(
+ start = 500);
+ input MetroscopeModelingLibrary.Utilities.Interfaces.RealInput P_filter_out(
+ start = 0.9);
+ input MetroscopeModelingLibrary.Utilities.Interfaces.RealInput
+ compressor_P_out(start = 17);
+ input MetroscopeModelingLibrary.Utilities.Interfaces.RealInput
+ compressor_T_out(start = 450);
+ input MetroscopeModelingLibrary.Utilities.Interfaces.RealInput P_fuel_source(
+ start = 30);
+ input MetroscopeModelingLibrary.Utilities.Interfaces.RealInput T_fuel_source(
+ start = 156);
+ input MetroscopeModelingLibrary.Utilities.Interfaces.RealInput turbine_T_out(
+ start = 640);
+ input MetroscopeModelingLibrary.Utilities.Interfaces.RealInput turbine_P_out(
+ start = 1.1);
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ HRSG_friction.T_in_0 = HRSG_friction.T_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ HRSG_friction.T_out_0 = HRSG_friction.T_0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure HRSG_friction.P_in_0
+ = 100000.0;
+ constant MetroscopeModelingLibrary.Utilities.Units.Pressure HRSG_friction.P_out_0
+ = 100000.0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ HRSG_friction.DP_0 = HRSG_friction.P_out_0-HRSG_friction.P_in_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ HRSG_friction.h_in_0 = HRSG_friction.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ HRSG_friction.h_out_0 = HRSG_friction.h_0;
+ parameter MetroscopeModelingLibrary.Utilities.Units.Density HRSG_friction.rho_0
+ = 1;
+ parameter MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ HRSG_friction.Q_0 = 50 "Inlet Mass flow rate";
+ parameter MetroscopeModelingLibrary.Utilities.Units.Temperature
+ HRSG_friction.T_0 = 300;
+ parameter MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy
+ HRSG_friction.h_0 = 500000.0;
+ parameter Boolean HRSG_friction.faulty = false;
+ parameter MetroscopeModelingLibrary.Utilities.Units.FrictionCoefficient
+ HRSG_friction.Kfr_constant = -HRSG_friction.DP_0*HRSG_friction.rho_0/(
+ HRSG_friction.Q_0*HRSG_friction.Q_0);
+ input MetroscopeModelingLibrary.Utilities.Interfaces.RealInput P_w_HPSH1_out(
+ start = 116);
+ input MetroscopeModelingLibrary.Utilities.Interfaces.RealInput T_w_HPSH1_out(
+ start = 450);
+ input MetroscopeModelingLibrary.Utilities.Interfaces.RealInput P_w_HPSH1_out1(
+ start = 9);
+ input MetroscopeModelingLibrary.Utilities.Interfaces.RealInput T_w_HPSH1_out1(
+ start = 350);
+ input MetroscopeModelingLibrary.Utilities.Interfaces.RealInput P_w_HPSH2_out(
+ start = 114);
+ input MetroscopeModelingLibrary.Utilities.Interfaces.RealInput T_w_HPSH2_out(
+ start = 566.5);
+ input MetroscopeModelingLibrary.Utilities.Interfaces.RealInput P_w_evap_out(
+ start = 120);
+ input MetroscopeModelingLibrary.Utilities.Interfaces.RealInput T_w_eco_out(
+ start = 320);
+ input MetroscopeModelingLibrary.Utilities.Interfaces.RealInput P_w_eco_out(
+ start = 122.5);
+ input MetroscopeModelingLibrary.Utilities.Interfaces.RealInput T_w_eco_in(
+ start = 85);
+ input MetroscopeModelingLibrary.Utilities.Interfaces.RealInput T_pumpRec_out(
+ start = 324);
+ input MetroscopeModelingLibrary.Utilities.Interfaces.RealInput P_pumpRec_out(
+ start = 180);
+ input MetroscopeModelingLibrary.Utilities.Interfaces.RealInput P_flue_gas_sink
+ (start = 1);
+ input MetroscopeModelingLibrary.Utilities.Interfaces.RealInput W_GT(start = 150);
+ input MetroscopeModelingLibrary.Utilities.Interfaces.RealInput P_pump_out(
+ start = 170);
+ input MetroscopeModelingLibrary.Utilities.Interfaces.RealInput T_pump_out(
+ start = 35);
+ input MetroscopeModelingLibrary.Utilities.Interfaces.RealInput Q_pump_out(
+ start = 50);
+ input MetroscopeModelingLibrary.Utilities.Interfaces.RealInput
+ T_circulating_water_out(start = 25);
+ input MetroscopeModelingLibrary.Utilities.Interfaces.RealInput
+ T_circulating_water_in(start = 15);
+ input MetroscopeModelingLibrary.Utilities.Interfaces.RealInput
+ P_circulating_water_in(start = 5);
+ input MetroscopeModelingLibrary.Utilities.Interfaces.RealInput P_Cond(start = 50);
+ input MetroscopeModelingLibrary.Utilities.Interfaces.RealInput P_LPST_in(
+ start = 8);
+ input MetroscopeModelingLibrary.Utilities.Interfaces.RealInput P_HPST_out(
+ start = 10);
+ input MetroscopeModelingLibrary.Utilities.Interfaces.RealInput T_HPST_out(
+ start = 255.5);
+ input MetroscopeModelingLibrary.Utilities.Interfaces.RealInput Q_deSH(start = 2);
+ input MetroscopeModelingLibrary.Utilities.Interfaces.RealInput W_ST_out(
+ start = 65);
+ input MetroscopeModelingLibrary.Utilities.Interfaces.RealInput P_HPST_in(
+ start = 113);
+ input MetroscopeModelingLibrary.Utilities.Interfaces.RealInput deSH_opening(
+ start = 0.15);
+ input MetroscopeModelingLibrary.Utilities.Interfaces.RealInput Evap_opening(
+ start = 0.35);
+ input MetroscopeModelingLibrary.Utilities.Interfaces.RealInput pumpRec_opening
+ (start = 0.35);
+
+ MetroscopeModelingLibrary.Utilities.Units.Temperature economiser.maximum_achiveable_temperature_difference;
+ MetroscopeModelingLibrary.Utilities.Units.Temperature economiser.nominal_cold_side_temperature_rise;
+ MetroscopeModelingLibrary.Utilities.Units.Temperature economiser.nominal_hot_side_temperature_drop;
+ MetroscopeModelingLibrary.Utilities.Units.Power economiser.W;
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate economiser.Q_cold(
+ start = economiser.Q_cold_0);
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate economiser.Q_hot(
+ start = economiser.Q_hot_0);
+ MetroscopeModelingLibrary.Utilities.Units.Temperature economiser.T_cold_in(
+ start = economiser.T_cold_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.Temperature economiser.T_hot_in(
+ start = economiser.T_hot_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.Temperature economiser.T_cold_out(
+ start = economiser.T_cold_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.Temperature economiser.T_hot_out(
+ start = economiser.T_hot_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ economiser.DT_hot_in_side(start = economiser.T_hot_in_0-economiser.T_cold_out_0)
+ "Temperature difference between hot and cold fluids, hot inlet side";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ economiser.DT_hot_out_side(start = economiser.T_hot_out_0-economiser.T_cold_in_0)
+ "Temperature difference between hot and cold fluids, hot outlet side";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ economiser.pinch(start = min(economiser.T_hot_in_0-economiser.T_cold_out_0,
+ economiser.T_hot_out_0-economiser.T_cold_in_0)) "Lowest temperature difference";
+ MetroscopeModelingLibrary.Utilities.Units.Percentage economiser.fouling;
+ MetroscopeModelingLibrary.Utilities.Units.HeatCapacity economiser.Cp_cold_min;
+ MetroscopeModelingLibrary.Utilities.Units.HeatCapacity economiser.Cp_cold_max;
+ MetroscopeModelingLibrary.Utilities.Units.HeatCapacity economiser.Cp_hot_min;
+ MetroscopeModelingLibrary.Utilities.Units.HeatCapacity economiser.Cp_hot_max;
+ Modelica.Media.Interfaces.Types.FixedPhase economiser.state_cold_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy economiser.state_cold_out.h(
+ start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density economiser.state_cold_out.d(start = 150,
+ nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature economiser.state_cold_out.T(
+ start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure economiser.state_cold_out.p(
+ start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.AbsolutePressure economiser.state_hot_out.p(
+ start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature economiser.state_hot_out.T(
+ start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction economiser.state_hot_out.X[5](
+ start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ economiser.C_hot_in.Q(start = economiser.Q_hot_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure economiser.C_hot_in.P(
+ start = economiser.P_hot_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy economiser.C_hot_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction economiser.C_hot_in.Xi_outflow[5]
+ (start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ economiser.C_hot_out.Q(start = -economiser.Q_hot_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure economiser.C_hot_out.P(
+ start = economiser.P_hot_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy economiser.C_hot_out.h_outflow
+ (start = economiser.h_hot_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction economiser.C_hot_out.Xi_outflow[5]
+ (start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ economiser.C_cold_in.Q(start = economiser.Q_cold_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure economiser.C_cold_in.P(
+ start = economiser.P_cold_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy economiser.C_cold_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction economiser.C_cold_in.Xi_outflow[0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ economiser.C_cold_out.Q(start = -economiser.Q_cold_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure economiser.C_cold_out.P(
+ start = economiser.P_cold_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy economiser.C_cold_out.h_outflow
+ (start = economiser.h_cold_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction economiser.C_cold_out.Xi_outflow[0];
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputArea economiser.HX.S(
+ start = economiser.HX.S_0) "Heat exchange surface";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputHeatExchangeCoefficient
+ economiser.HX.Kth(start = economiser.HX.Kth_0) "Heat exchange coefficient";
+ MetroscopeModelingLibrary.Utilities.Units.Power economiser.HX.W(start =
+ economiser.HX.W_0);
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputMassFlowRate
+ economiser.HX.Q_hot(start = economiser.HX.Q_hot_0) "Hot mass flow rate at the inlet";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputMassFlowRate
+ economiser.HX.Q_cold(start = economiser.HX.Q_cold_0) "Cold mass flow rate at the inlet";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputHeatCapacity
+ economiser.HX.Cp_hot(start = economiser.HX.Cp_hot_0) "Hot fluid specific heat capacity";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputHeatCapacity
+ economiser.HX.Cp_cold(start = economiser.HX.Cp_cold_0) "Cold fluid specific heat capacity";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputTemperature
+ economiser.HX.T_hot_in(start = economiser.HX.T_hot_in_0) "Temperature, hot side, at the inlet";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputTemperature
+ economiser.HX.T_cold_in(start = economiser.HX.T_cold_in_0) "Temperature, cold side, at the inlet";
+ Real economiser.HX.QCpMIN(start = economiser.HX.QCpMIN_0, unit = "W/K");
+ Real economiser.HX.QCpMAX(start = economiser.HX.QCpMAX_0, unit = "W/K");
+ Real economiser.HX.NTU(start = economiser.HX.NTU_0, unit = "1");
+ MetroscopeModelingLibrary.Utilities.Units.Fraction economiser.HX.Cr(start =
+ economiser.HX.Cr_0);
+ MetroscopeModelingLibrary.Utilities.Units.Fraction economiser.HX.epsilon(
+ start = economiser.HX.epsilon_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power economiser.HX.W_max(start =
+ economiser.HX.W_max_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy economiser.hot_side.h_in
+ (start = economiser.hot_side.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy economiser.hot_side.h_out
+ (start = economiser.hot_side.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ economiser.hot_side.Q(start = economiser.hot_side.Q_0) "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure economiser.hot_side.P_in(
+ start = economiser.hot_side.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure economiser.hot_side.P_out(
+ start = economiser.hot_side.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction economiser.hot_side.Xi[5]
+ "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density economiser.hot_side.rho_in(
+ start = economiser.hot_side.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density economiser.hot_side.rho_out(
+ start = economiser.hot_side.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density economiser.hot_side.rho(
+ start = economiser.hot_side.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ economiser.hot_side.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ economiser.hot_side.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ economiser.hot_side.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature economiser.hot_side.T_in
+ (start = economiser.hot_side.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature economiser.hot_side.T_out
+ (start = economiser.hot_side.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure economiser.hot_side.state_in.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature economiser.hot_side.state_in.T(
+ start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction economiser.hot_side.state_in.X[5]
+ (start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ Modelica.Media.Interfaces.Types.AbsolutePressure economiser.hot_side.state_out.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature economiser.hot_side.state_out.T(
+ start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction economiser.hot_side.state_out.X[5]
+ (start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ economiser.hot_side.DP(start = economiser.hot_side.DP_0, nominal = 105000.0);
+ MetroscopeModelingLibrary.Utilities.Units.Power economiser.hot_side.W(start = 0,
+ nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ economiser.hot_side.DH(start = economiser.hot_side.h_out_0-economiser.hot_side.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ economiser.hot_side.DT(start = economiser.hot_side.T_out_0-economiser.hot_side.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ economiser.hot_side.C_in.Q(start = economiser.hot_side.Q_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure economiser.hot_side.C_in.P(
+ start = economiser.hot_side.P_in_0, nominal = 105000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy economiser.hot_side.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction economiser.hot_side.C_in.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ economiser.hot_side.C_out.Q(start = -economiser.hot_side.Q_0, nominal =
+ 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure economiser.hot_side.C_out.P
+ (start = economiser.hot_side.P_out_0, nominal = 105000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy economiser.hot_side.C_out.h_outflow
+ (start = economiser.hot_side.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction economiser.hot_side.C_out.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.Pressure economiser.hot_side.P(
+ start = economiser.hot_side.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputPower economiser.hot_side.W_input
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy economiser.cold_side.h_in
+ (start = economiser.cold_side.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy economiser.cold_side.h_out
+ (start = economiser.cold_side.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ economiser.cold_side.Q(start = economiser.cold_side.Q_0) "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure economiser.cold_side.P_in(
+ start = economiser.cold_side.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure economiser.cold_side.P_out(
+ start = economiser.cold_side.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction economiser.cold_side.Xi
+ [0] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density economiser.cold_side.rho_in(
+ start = economiser.cold_side.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density economiser.cold_side.rho_out
+ (start = economiser.cold_side.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density economiser.cold_side.rho(
+ start = economiser.cold_side.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ economiser.cold_side.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ economiser.cold_side.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ economiser.cold_side.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature economiser.cold_side.T_in
+ (start = economiser.cold_side.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature economiser.cold_side.T_out
+ (start = economiser.cold_side.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase economiser.cold_side.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy economiser.cold_side.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density economiser.cold_side.state_in.d(
+ start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature economiser.cold_side.state_in.T(
+ start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure economiser.cold_side.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase economiser.cold_side.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy economiser.cold_side.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density economiser.cold_side.state_out.d(
+ start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature economiser.cold_side.state_out.T(
+ start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure economiser.cold_side.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ economiser.cold_side.DP(start = economiser.cold_side.DP_0, nominal =
+ 17000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.Power economiser.cold_side.W(
+ start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ economiser.cold_side.DH(start = economiser.cold_side.h_out_0-
+ economiser.cold_side.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ economiser.cold_side.DT(start = economiser.cold_side.T_out_0-
+ economiser.cold_side.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ economiser.cold_side.C_in.Q(start = economiser.cold_side.Q_0, nominal =
+ 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure economiser.cold_side.C_in.P
+ (start = economiser.cold_side.P_in_0, nominal = 17000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy economiser.cold_side.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction economiser.cold_side.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ economiser.cold_side.C_out.Q(start = -economiser.cold_side.Q_0, nominal =
+ 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure economiser.cold_side.C_out.P
+ (start = economiser.cold_side.P_out_0, nominal = 17000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy economiser.cold_side.C_out.h_outflow
+ (start = economiser.cold_side.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction economiser.cold_side.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.Pressure economiser.cold_side.P(
+ start = economiser.cold_side.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputPower economiser.cold_side.W_input
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy economiser.cold_side_pipe.h_in
+ (start = economiser.cold_side_pipe.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy economiser.cold_side_pipe.h_out
+ (start = economiser.cold_side_pipe.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ economiser.cold_side_pipe.Q(start = economiser.cold_side_pipe.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure economiser.cold_side_pipe.P_in
+ (start = economiser.cold_side_pipe.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure economiser.cold_side_pipe.P_out
+ (start = economiser.cold_side_pipe.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction economiser.cold_side_pipe.Xi
+ [0] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density economiser.cold_side_pipe.rho_in
+ (start = economiser.cold_side_pipe.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density economiser.cold_side_pipe.rho_out
+ (start = economiser.cold_side_pipe.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density economiser.cold_side_pipe.rho
+ (start = economiser.cold_side_pipe.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ economiser.cold_side_pipe.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ economiser.cold_side_pipe.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ economiser.cold_side_pipe.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature economiser.cold_side_pipe.T_in
+ (start = economiser.cold_side_pipe.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature economiser.cold_side_pipe.T_out
+ (start = economiser.cold_side_pipe.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase economiser.cold_side_pipe.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy economiser.cold_side_pipe.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density economiser.cold_side_pipe.state_in.d(
+ start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature economiser.cold_side_pipe.state_in.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure economiser.cold_side_pipe.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase economiser.cold_side_pipe.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy economiser.cold_side_pipe.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density economiser.cold_side_pipe.state_out.d(
+ start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature economiser.cold_side_pipe.state_out.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure economiser.cold_side_pipe.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ economiser.cold_side_pipe.DP(start = economiser.cold_side_pipe.DP_0,
+ nominal = 17000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.Power economiser.cold_side_pipe.W(
+ start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ economiser.cold_side_pipe.DH(start = economiser.cold_side_pipe.h_out_0-
+ economiser.cold_side_pipe.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ economiser.cold_side_pipe.DT(start = economiser.cold_side_pipe.T_out_0-
+ economiser.cold_side_pipe.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ economiser.cold_side_pipe.C_in.Q(start = economiser.cold_side_pipe.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure economiser.cold_side_pipe.C_in.P
+ (start = economiser.cold_side_pipe.P_in_0, nominal = 17000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy economiser.cold_side_pipe.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction economiser.cold_side_pipe.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ economiser.cold_side_pipe.C_out.Q(start = -economiser.cold_side_pipe.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure economiser.cold_side_pipe.C_out.P
+ (start = economiser.cold_side_pipe.P_out_0, nominal = 16950000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy economiser.cold_side_pipe.C_out.h_outflow
+ (start = economiser.cold_side_pipe.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction economiser.cold_side_pipe.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy economiser.cold_side_pipe.h
+ (start = economiser.cold_side_pipe.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Percentage economiser.cold_side_pipe.fouling;
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal economiser.cold_side_pipe.Kfr
+ (start = economiser.cold_side_pipe.Kfr_constant);
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal economiser.Kth;
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal economiser.Kfr_cold;
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ economiser.FTR(start = economiser.T_cold_out_0-economiser.T_cold_in_0)
+ "Feedwater Temperature Rise";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy flue_gas_sink.h_in;
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction flue_gas_sink.Xi_in[5];
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputPressure
+ flue_gas_sink.P_in;
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ flue_gas_sink.Q_in;
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ flue_gas_sink.Qv_in(start = 1);
+ MetroscopeModelingLibrary.Utilities.Units.Temperature flue_gas_sink.T_in;
+ Modelica.Media.Interfaces.Types.AbsolutePressure flue_gas_sink.state_in.p(
+ start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature flue_gas_sink.state_in.T(start = 500,
+ nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction flue_gas_sink.state_in.X[5](
+ start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ flue_gas_sink.C_in.Q(nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure flue_gas_sink.C_in.P(
+ start = 100000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy flue_gas_sink.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction flue_gas_sink.C_in.Xi_outflow[5](
+ start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_w_eco_out_sensor.Q(start = T_w_eco_out_sensor.Q_0, nominal = 100.0)
+ "Component mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction T_w_eco_out_sensor.Xi[0]
+ "Component mass fractions";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_eco_out_sensor.P(
+ start = T_w_eco_out_sensor.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_w_eco_out_sensor.h
+ (start = T_w_eco_out_sensor.h_0) "Enthalpy of the fluid into the component";
+ Modelica.Media.Interfaces.Types.FixedPhase T_w_eco_out_sensor.state.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy T_w_eco_out_sensor.state.h(
+ start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density T_w_eco_out_sensor.state.d(start = 150,
+ nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature T_w_eco_out_sensor.state.T(
+ start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure T_w_eco_out_sensor.state.p(
+ start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate T_w_eco_out_sensor.mass_flow_rate_bias
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_w_eco_out_sensor.C_in.Q(start = T_w_eco_out_sensor.Q_0, nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_eco_out_sensor.C_in.P(
+ start = T_w_eco_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_w_eco_out_sensor.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction T_w_eco_out_sensor.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ T_w_eco_out_sensor.C_out.Q(start = -T_w_eco_out_sensor.Q_0, nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_eco_out_sensor.C_out.P(
+ start = T_w_eco_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_w_eco_out_sensor.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction T_w_eco_out_sensor.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_w_eco_out_sensor.flow_model.h_in
+ (start = T_w_eco_out_sensor.flow_model.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_w_eco_out_sensor.flow_model.h_out
+ (start = T_w_eco_out_sensor.flow_model.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_w_eco_out_sensor.flow_model.Q(start = T_w_eco_out_sensor.flow_model.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_eco_out_sensor.flow_model.P_in
+ (start = T_w_eco_out_sensor.flow_model.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_eco_out_sensor.flow_model.P_out
+ (start = T_w_eco_out_sensor.flow_model.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction T_w_eco_out_sensor.flow_model.Xi
+ [0] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density T_w_eco_out_sensor.flow_model.rho_in
+ (start = T_w_eco_out_sensor.flow_model.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density T_w_eco_out_sensor.flow_model.rho_out
+ (start = T_w_eco_out_sensor.flow_model.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density T_w_eco_out_sensor.flow_model.rho
+ (start = T_w_eco_out_sensor.flow_model.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ T_w_eco_out_sensor.flow_model.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ T_w_eco_out_sensor.flow_model.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ T_w_eco_out_sensor.flow_model.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_w_eco_out_sensor.flow_model.T_in
+ (start = T_w_eco_out_sensor.flow_model.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_w_eco_out_sensor.flow_model.T_out
+ (start = T_w_eco_out_sensor.flow_model.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase T_w_eco_out_sensor.flow_model.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy T_w_eco_out_sensor.flow_model.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density T_w_eco_out_sensor.flow_model.state_in.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature T_w_eco_out_sensor.flow_model.state_in.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure T_w_eco_out_sensor.flow_model.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase T_w_eco_out_sensor.flow_model.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy T_w_eco_out_sensor.flow_model.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density T_w_eco_out_sensor.flow_model.state_out.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature T_w_eco_out_sensor.flow_model.state_out.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure T_w_eco_out_sensor.flow_model.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ T_w_eco_out_sensor.flow_model.DP(start = T_w_eco_out_sensor.flow_model.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power T_w_eco_out_sensor.flow_model.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ T_w_eco_out_sensor.flow_model.DH(start = T_w_eco_out_sensor.flow_model.h_out_0
+ -T_w_eco_out_sensor.flow_model.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ T_w_eco_out_sensor.flow_model.DT(start = T_w_eco_out_sensor.flow_model.T_out_0
+ -T_w_eco_out_sensor.flow_model.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_w_eco_out_sensor.flow_model.C_in.Q(start = T_w_eco_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_eco_out_sensor.flow_model.C_in.P
+ (start = T_w_eco_out_sensor.flow_model.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_w_eco_out_sensor.flow_model.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction T_w_eco_out_sensor.flow_model.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ T_w_eco_out_sensor.flow_model.C_out.Q(start = -T_w_eco_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_eco_out_sensor.flow_model.C_out.P
+ (start = T_w_eco_out_sensor.flow_model.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_w_eco_out_sensor.flow_model.C_out.h_outflow
+ (start = T_w_eco_out_sensor.flow_model.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction T_w_eco_out_sensor.flow_model.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_w_eco_out_sensor.flow_model.h
+ (start = T_w_eco_out_sensor.flow_model.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_eco_out_sensor.flow_model.P
+ (start = T_w_eco_out_sensor.flow_model.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_w_eco_out_sensor.flow_model.T
+ (start = T_w_eco_out_sensor.flow_model.T_0) "Temperature of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_w_eco_out_sensor.T(
+ start = T_w_eco_out_sensor.T_0);
+ Real T_w_eco_out_sensor.T_degC(start = T_w_eco_out_sensor.T_0+273.15,
+ nominal = 573.15, unit = "degC");
+ Real T_w_eco_out_sensor.T_degF(start = (T_w_eco_out_sensor.T_0+273.15)*1.8+32,
+ nominal = 1063.67, unit = "degF");
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal T_w_eco_out_sensor.T_sensor
+ (start = T_w_eco_out_sensor.init_T);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_w_eco_out_sensor.Q(start = P_w_eco_out_sensor.Q_0, nominal = 100.0)
+ "Component mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction P_w_eco_out_sensor.Xi[0]
+ "Component mass fractions";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_eco_out_sensor.P(
+ start = P_w_eco_out_sensor.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_w_eco_out_sensor.h
+ (start = P_w_eco_out_sensor.h_0) "Enthalpy of the fluid into the component";
+ Modelica.Media.Interfaces.Types.FixedPhase P_w_eco_out_sensor.state.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy P_w_eco_out_sensor.state.h(
+ start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density P_w_eco_out_sensor.state.d(start = 150,
+ nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature P_w_eco_out_sensor.state.T(
+ start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_w_eco_out_sensor.state.p(
+ start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate P_w_eco_out_sensor.mass_flow_rate_bias
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_w_eco_out_sensor.C_in.Q(start = P_w_eco_out_sensor.Q_0, nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_eco_out_sensor.C_in.P(
+ start = P_w_eco_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_w_eco_out_sensor.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction P_w_eco_out_sensor.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ P_w_eco_out_sensor.C_out.Q(start = -P_w_eco_out_sensor.Q_0, nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_eco_out_sensor.C_out.P(
+ start = P_w_eco_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_w_eco_out_sensor.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction P_w_eco_out_sensor.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_w_eco_out_sensor.flow_model.h_in
+ (start = P_w_eco_out_sensor.flow_model.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_w_eco_out_sensor.flow_model.h_out
+ (start = P_w_eco_out_sensor.flow_model.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_w_eco_out_sensor.flow_model.Q(start = P_w_eco_out_sensor.flow_model.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_eco_out_sensor.flow_model.P_in
+ (start = P_w_eco_out_sensor.flow_model.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_eco_out_sensor.flow_model.P_out
+ (start = P_w_eco_out_sensor.flow_model.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction P_w_eco_out_sensor.flow_model.Xi
+ [0] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_w_eco_out_sensor.flow_model.rho_in
+ (start = P_w_eco_out_sensor.flow_model.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_w_eco_out_sensor.flow_model.rho_out
+ (start = P_w_eco_out_sensor.flow_model.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_w_eco_out_sensor.flow_model.rho
+ (start = P_w_eco_out_sensor.flow_model.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ P_w_eco_out_sensor.flow_model.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ P_w_eco_out_sensor.flow_model.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ P_w_eco_out_sensor.flow_model.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_w_eco_out_sensor.flow_model.T_in
+ (start = P_w_eco_out_sensor.flow_model.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_w_eco_out_sensor.flow_model.T_out
+ (start = P_w_eco_out_sensor.flow_model.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase P_w_eco_out_sensor.flow_model.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy P_w_eco_out_sensor.flow_model.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density P_w_eco_out_sensor.flow_model.state_in.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature P_w_eco_out_sensor.flow_model.state_in.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_w_eco_out_sensor.flow_model.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase P_w_eco_out_sensor.flow_model.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy P_w_eco_out_sensor.flow_model.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density P_w_eco_out_sensor.flow_model.state_out.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature P_w_eco_out_sensor.flow_model.state_out.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_w_eco_out_sensor.flow_model.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ P_w_eco_out_sensor.flow_model.DP(start = P_w_eco_out_sensor.flow_model.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power P_w_eco_out_sensor.flow_model.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ P_w_eco_out_sensor.flow_model.DH(start = P_w_eco_out_sensor.flow_model.h_out_0
+ -P_w_eco_out_sensor.flow_model.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ P_w_eco_out_sensor.flow_model.DT(start = P_w_eco_out_sensor.flow_model.T_out_0
+ -P_w_eco_out_sensor.flow_model.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_w_eco_out_sensor.flow_model.C_in.Q(start = P_w_eco_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_eco_out_sensor.flow_model.C_in.P
+ (start = P_w_eco_out_sensor.flow_model.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_w_eco_out_sensor.flow_model.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction P_w_eco_out_sensor.flow_model.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ P_w_eco_out_sensor.flow_model.C_out.Q(start = -P_w_eco_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_eco_out_sensor.flow_model.C_out.P
+ (start = P_w_eco_out_sensor.flow_model.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_w_eco_out_sensor.flow_model.C_out.h_outflow
+ (start = P_w_eco_out_sensor.flow_model.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction P_w_eco_out_sensor.flow_model.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_w_eco_out_sensor.flow_model.h
+ (start = P_w_eco_out_sensor.flow_model.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_eco_out_sensor.flow_model.P
+ (start = P_w_eco_out_sensor.flow_model.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_w_eco_out_sensor.flow_model.T
+ (start = P_w_eco_out_sensor.flow_model.T_0) "Temperature of the fluid into the component";
+ Real P_w_eco_out_sensor.P_barG(start = P_w_eco_out_sensor.P_0*1E-05-1,
+ nominal = 100000.0);
+ Real P_w_eco_out_sensor.P_psiG(start = P_w_eco_out_sensor.P_0*0.000145038-
+ 14.50377377, nominal = 14.5038);
+ Real P_w_eco_out_sensor.P_MPaG(start = P_w_eco_out_sensor.P_0*1E-06-0.1,
+ nominal = 0.09999999999999999);
+ Real P_w_eco_out_sensor.P_kPaG(start = P_w_eco_out_sensor.P_0*0.001-100,
+ nominal = 100.0);
+ Real P_w_eco_out_sensor.P_barA(start = P_w_eco_out_sensor.P_0*1E-05,
+ nominal = 1.0, unit = "bar");
+ Real P_w_eco_out_sensor.P_psiA(start = P_w_eco_out_sensor.P_0*0.000145038,
+ nominal = 14.5038);
+ Real P_w_eco_out_sensor.P_MPaA(start = P_w_eco_out_sensor.P_0*1E-06,
+ nominal = 0.09999999999999999);
+ Real P_w_eco_out_sensor.P_kPaA(start = P_w_eco_out_sensor.P_0*0.001,
+ nominal = 100.0);
+ Real P_w_eco_out_sensor.P_inHg(start = P_w_eco_out_sensor.P_0*0.0002953006,
+ nominal = 29.530060000000002);
+ Real P_w_eco_out_sensor.P_mbar(start = P_w_eco_out_sensor.P_0*0.01, nominal =
+ 1000.0, unit = "mbar");
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal P_w_eco_out_sensor.P_sensor
+ (start = P_w_eco_out_sensor.init_P);
+ MetroscopeModelingLibrary.Utilities.Units.Power evaporator.W_heating;
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputHeatExchangeCoefficient
+ evaporator.Kth;
+ MetroscopeModelingLibrary.Utilities.Units.Power evaporator.W_vap;
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction evaporator.x_steam_out(
+ start = 1);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy evaporator.h_vap_sat
+ (start = evaporator.h_vap_sat_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy evaporator.h_liq_sat
+ (start = evaporator.h_liq_sat_0);
+ MetroscopeModelingLibrary.Utilities.Units.Temperature evaporator.Tsat(start =
+ evaporator.T_cold_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate evaporator.Q_cold(
+ start = evaporator.Q_cold_0);
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate evaporator.Q_hot(
+ start = evaporator.Q_hot_0);
+ MetroscopeModelingLibrary.Utilities.Units.Temperature evaporator.T_cold_in(
+ start = evaporator.T_cold_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.Temperature evaporator.T_hot_in(
+ start = evaporator.T_hot_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.Temperature evaporator.T_cold_out(
+ start = evaporator.T_cold_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.Temperature evaporator.T_hot_out(
+ start = evaporator.T_hot_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.Temperature evaporator.T_approach(
+ start = evaporator.T_cold_out_0-evaporator.T_cold_in_0) "Cold temperature inlet difference to saturation";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ evaporator.DT_hot_in_side(start = evaporator.T_hot_in_0-evaporator.T_cold_out_0)
+ "Temperature difference between hot and cold fluids, hot inlet side";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ evaporator.DT_hot_out_side(start = evaporator.T_hot_out_0-evaporator.T_cold_in_0)
+ "Temperature difference between hot and cold fluids, hot outlet side";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ evaporator.pinch(start = min(evaporator.T_hot_in_0-evaporator.T_cold_out_0,
+ evaporator.T_hot_out_0-evaporator.T_cold_in_0)) "Lowest temperature difference";
+ MetroscopeModelingLibrary.Utilities.Units.Percentage evaporator.fouling;
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputArea evaporator.HX_vaporising.S
+ (start = evaporator.HX_vaporising.S_0) "Heat exchange surface";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputHeatExchangeCoefficient
+ evaporator.HX_vaporising.Kth(start = evaporator.HX_vaporising.Kth_0)
+ "Heat exchange coefficient";
+ MetroscopeModelingLibrary.Utilities.Units.Power evaporator.HX_vaporising.W(
+ start = evaporator.HX_vaporising.W_0);
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputMassFlowRate
+ evaporator.HX_vaporising.Q_hot(start = evaporator.HX_vaporising.Q_hot_0)
+ "Hot mass flow rate at the inlet";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputMassFlowRate
+ evaporator.HX_vaporising.Q_cold(start = evaporator.HX_vaporising.Q_cold_0)
+ "Cold mass flow rate at the inlet";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputHeatCapacity
+ evaporator.HX_vaporising.Cp_hot(start = evaporator.HX_vaporising.Cp_hot_0)
+ "Hot fluid specific heat capacity";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputHeatCapacity
+ evaporator.HX_vaporising.Cp_cold(start = evaporator.HX_vaporising.Cp_cold_0)
+ "Cold fluid specific heat capacity";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputTemperature
+ evaporator.HX_vaporising.T_hot_in(start = evaporator.HX_vaporising.T_hot_in_0)
+ "Temperature, hot side, at the inlet";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputTemperature
+ evaporator.HX_vaporising.T_cold_in(start = evaporator.HX_vaporising.T_cold_in_0)
+ "Temperature, cold side, at the inlet";
+ Real evaporator.HX_vaporising.QCpMIN(start = evaporator.HX_vaporising.QCpMIN_0,
+ unit = "W/K");
+ Real evaporator.HX_vaporising.QCpMAX(start = evaporator.HX_vaporising.QCpMAX_0,
+ unit = "W/K");
+ Real evaporator.HX_vaporising.NTU(start = evaporator.HX_vaporising.NTU_0,
+ unit = "1");
+ MetroscopeModelingLibrary.Utilities.Units.Fraction evaporator.HX_vaporising.Cr
+ (start = evaporator.HX_vaporising.Cr_0);
+ MetroscopeModelingLibrary.Utilities.Units.Fraction evaporator.HX_vaporising.epsilon
+ (start = evaporator.HX_vaporising.epsilon_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power evaporator.HX_vaporising.W_max
+ (start = evaporator.HX_vaporising.W_max_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy evaporator.hot_side_vaporising.h_in
+ (start = evaporator.hot_side_vaporising.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy evaporator.hot_side_vaporising.h_out
+ (start = evaporator.hot_side_vaporising.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ evaporator.hot_side_vaporising.Q(start = evaporator.hot_side_vaporising.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure evaporator.hot_side_vaporising.P_in
+ (start = evaporator.hot_side_vaporising.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure evaporator.hot_side_vaporising.P_out
+ (start = evaporator.hot_side_vaporising.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction evaporator.hot_side_vaporising.Xi
+ [5] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density evaporator.hot_side_vaporising.rho_in
+ (start = evaporator.hot_side_vaporising.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density evaporator.hot_side_vaporising.rho_out
+ (start = evaporator.hot_side_vaporising.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density evaporator.hot_side_vaporising.rho
+ (start = evaporator.hot_side_vaporising.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ evaporator.hot_side_vaporising.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ evaporator.hot_side_vaporising.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ evaporator.hot_side_vaporising.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature evaporator.hot_side_vaporising.T_in
+ (start = evaporator.hot_side_vaporising.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature evaporator.hot_side_vaporising.T_out
+ (start = evaporator.hot_side_vaporising.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure evaporator.hot_side_vaporising.state_in.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature evaporator.hot_side_vaporising.state_in.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction evaporator.hot_side_vaporising.state_in.X
+ [5](start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ Modelica.Media.Interfaces.Types.AbsolutePressure evaporator.hot_side_vaporising.state_out.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature evaporator.hot_side_vaporising.state_out.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction evaporator.hot_side_vaporising.state_out.X
+ [5](start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ evaporator.hot_side_vaporising.DP(start = evaporator.hot_side_vaporising.DP_0,
+ nominal = 105000.0);
+ MetroscopeModelingLibrary.Utilities.Units.Power evaporator.hot_side_vaporising.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ evaporator.hot_side_vaporising.DH(start = evaporator.hot_side_vaporising.h_out_0
+ -evaporator.hot_side_vaporising.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ evaporator.hot_side_vaporising.DT(start = evaporator.hot_side_vaporising.T_out_0
+ -evaporator.hot_side_vaporising.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ evaporator.hot_side_vaporising.C_in.Q(start = evaporator.hot_side_vaporising.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure evaporator.hot_side_vaporising.C_in.P
+ (start = evaporator.hot_side_vaporising.P_in_0, nominal = 105000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy evaporator.hot_side_vaporising.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction evaporator.hot_side_vaporising.C_in.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ evaporator.hot_side_vaporising.C_out.Q(start = -evaporator.hot_side_vaporising.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure evaporator.hot_side_vaporising.C_out.P
+ (start = evaporator.hot_side_vaporising.P_out_0, nominal = 105000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy evaporator.hot_side_vaporising.C_out.h_outflow
+ (start = evaporator.hot_side_vaporising.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction evaporator.hot_side_vaporising.C_out.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.Pressure evaporator.hot_side_vaporising.P
+ (start = evaporator.hot_side_vaporising.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputPower evaporator.hot_side_vaporising.W_input
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy evaporator.cold_side_vaporising.h_in
+ (start = evaporator.cold_side_vaporising.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy evaporator.cold_side_vaporising.h_out
+ (start = evaporator.cold_side_vaporising.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ evaporator.cold_side_vaporising.Q(start = evaporator.cold_side_vaporising.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure evaporator.cold_side_vaporising.P_in
+ (start = evaporator.cold_side_vaporising.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure evaporator.cold_side_vaporising.P_out
+ (start = evaporator.cold_side_vaporising.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction evaporator.cold_side_vaporising.Xi
+ [0] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density evaporator.cold_side_vaporising.rho_in
+ (start = evaporator.cold_side_vaporising.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density evaporator.cold_side_vaporising.rho_out
+ (start = evaporator.cold_side_vaporising.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density evaporator.cold_side_vaporising.rho
+ (start = evaporator.cold_side_vaporising.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ evaporator.cold_side_vaporising.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ evaporator.cold_side_vaporising.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ evaporator.cold_side_vaporising.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature evaporator.cold_side_vaporising.T_in
+ (start = evaporator.cold_side_vaporising.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature evaporator.cold_side_vaporising.T_out
+ (start = evaporator.cold_side_vaporising.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase evaporator.cold_side_vaporising.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy evaporator.cold_side_vaporising.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density evaporator.cold_side_vaporising.state_in.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature evaporator.cold_side_vaporising.state_in.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure evaporator.cold_side_vaporising.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase evaporator.cold_side_vaporising.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy evaporator.cold_side_vaporising.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density evaporator.cold_side_vaporising.state_out.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature evaporator.cold_side_vaporising.state_out.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure evaporator.cold_side_vaporising.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ evaporator.cold_side_vaporising.DP(start = evaporator.cold_side_vaporising.DP_0,
+ nominal = 13000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.Power evaporator.cold_side_vaporising.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ evaporator.cold_side_vaporising.DH(start = evaporator.cold_side_vaporising.h_out_0
+ -evaporator.cold_side_vaporising.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ evaporator.cold_side_vaporising.DT(start = evaporator.cold_side_vaporising.T_out_0
+ -evaporator.cold_side_vaporising.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ evaporator.cold_side_vaporising.C_in.Q(start = evaporator.cold_side_vaporising.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure evaporator.cold_side_vaporising.C_in.P
+ (start = evaporator.cold_side_vaporising.P_in_0, nominal = 13000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy evaporator.cold_side_vaporising.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction evaporator.cold_side_vaporising.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ evaporator.cold_side_vaporising.C_out.Q(start = -evaporator.cold_side_vaporising.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure evaporator.cold_side_vaporising.C_out.P
+ (start = evaporator.cold_side_vaporising.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy evaporator.cold_side_vaporising.C_out.h_outflow
+ (start = evaporator.cold_side_vaporising.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction evaporator.cold_side_vaporising.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.Pressure evaporator.cold_side_vaporising.P
+ (start = evaporator.cold_side_vaporising.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputPower evaporator.cold_side_vaporising.W_input
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy evaporator.hot_side_heating.h_in
+ (start = evaporator.hot_side_heating.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy evaporator.hot_side_heating.h_out
+ (start = evaporator.hot_side_heating.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ evaporator.hot_side_heating.Q(start = evaporator.hot_side_heating.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure evaporator.hot_side_heating.P_in
+ (start = evaporator.hot_side_heating.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure evaporator.hot_side_heating.P_out
+ (start = evaporator.hot_side_heating.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction evaporator.hot_side_heating.Xi
+ [5] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density evaporator.hot_side_heating.rho_in
+ (start = evaporator.hot_side_heating.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density evaporator.hot_side_heating.rho_out
+ (start = evaporator.hot_side_heating.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density evaporator.hot_side_heating.rho
+ (start = evaporator.hot_side_heating.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ evaporator.hot_side_heating.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ evaporator.hot_side_heating.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ evaporator.hot_side_heating.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature evaporator.hot_side_heating.T_in
+ (start = evaporator.hot_side_heating.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature evaporator.hot_side_heating.T_out
+ (start = evaporator.hot_side_heating.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure evaporator.hot_side_heating.state_in.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature evaporator.hot_side_heating.state_in.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction evaporator.hot_side_heating.state_in.X
+ [5](start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ Modelica.Media.Interfaces.Types.AbsolutePressure evaporator.hot_side_heating.state_out.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature evaporator.hot_side_heating.state_out.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction evaporator.hot_side_heating.state_out.X
+ [5](start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ evaporator.hot_side_heating.DP(start = evaporator.hot_side_heating.DP_0,
+ nominal = 105000.0);
+ MetroscopeModelingLibrary.Utilities.Units.Power evaporator.hot_side_heating.W(
+ start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ evaporator.hot_side_heating.DH(start = evaporator.hot_side_heating.h_out_0-
+ evaporator.hot_side_heating.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ evaporator.hot_side_heating.DT(start = evaporator.hot_side_heating.T_out_0-
+ evaporator.hot_side_heating.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ evaporator.hot_side_heating.C_in.Q(start = evaporator.hot_side_heating.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure evaporator.hot_side_heating.C_in.P
+ (start = evaporator.hot_side_heating.P_in_0, nominal = 105000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy evaporator.hot_side_heating.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction evaporator.hot_side_heating.C_in.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ evaporator.hot_side_heating.C_out.Q(start = -evaporator.hot_side_heating.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure evaporator.hot_side_heating.C_out.P
+ (start = evaporator.hot_side_heating.P_out_0, nominal = 105000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy evaporator.hot_side_heating.C_out.h_outflow
+ (start = evaporator.hot_side_heating.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction evaporator.hot_side_heating.C_out.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.Pressure evaporator.hot_side_heating.P
+ (start = evaporator.hot_side_heating.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputPower evaporator.hot_side_heating.W_input
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy evaporator.cold_side_heating.h_in
+ (start = evaporator.cold_side_heating.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy evaporator.cold_side_heating.h_out
+ (start = evaporator.cold_side_heating.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ evaporator.cold_side_heating.Q(start = evaporator.cold_side_heating.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure evaporator.cold_side_heating.P_in
+ (start = evaporator.cold_side_heating.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure evaporator.cold_side_heating.P_out
+ (start = evaporator.cold_side_heating.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction evaporator.cold_side_heating.Xi
+ [0] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density evaporator.cold_side_heating.rho_in
+ (start = evaporator.cold_side_heating.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density evaporator.cold_side_heating.rho_out
+ (start = evaporator.cold_side_heating.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density evaporator.cold_side_heating.rho
+ (start = evaporator.cold_side_heating.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ evaporator.cold_side_heating.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ evaporator.cold_side_heating.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ evaporator.cold_side_heating.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature evaporator.cold_side_heating.T_in
+ (start = evaporator.cold_side_heating.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature evaporator.cold_side_heating.T_out
+ (start = evaporator.cold_side_heating.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase evaporator.cold_side_heating.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy evaporator.cold_side_heating.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density evaporator.cold_side_heating.state_in.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature evaporator.cold_side_heating.state_in.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure evaporator.cold_side_heating.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase evaporator.cold_side_heating.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy evaporator.cold_side_heating.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density evaporator.cold_side_heating.state_out.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature evaporator.cold_side_heating.state_out.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure evaporator.cold_side_heating.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ evaporator.cold_side_heating.DP(start = evaporator.cold_side_heating.DP_0,
+ nominal = 13000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.Power evaporator.cold_side_heating.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ evaporator.cold_side_heating.DH(start = evaporator.cold_side_heating.h_out_0
+ -evaporator.cold_side_heating.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ evaporator.cold_side_heating.DT(start = evaporator.cold_side_heating.T_out_0
+ -evaporator.cold_side_heating.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ evaporator.cold_side_heating.C_in.Q(start = evaporator.cold_side_heating.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure evaporator.cold_side_heating.C_in.P
+ (start = evaporator.cold_side_heating.P_in_0, nominal = 13000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy evaporator.cold_side_heating.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction evaporator.cold_side_heating.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ evaporator.cold_side_heating.C_out.Q(start = -evaporator.cold_side_heating.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure evaporator.cold_side_heating.C_out.P
+ (start = evaporator.cold_side_heating.P_out_0, nominal = 13000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy evaporator.cold_side_heating.C_out.h_outflow
+ (start = evaporator.cold_side_heating.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction evaporator.cold_side_heating.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.Pressure evaporator.cold_side_heating.P
+ (start = evaporator.cold_side_heating.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputPower evaporator.cold_side_heating.W_input
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ evaporator.C_hot_in.Q(start = evaporator.Q_hot_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure evaporator.C_hot_in.P(
+ start = evaporator.P_hot_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy evaporator.C_hot_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction evaporator.C_hot_in.Xi_outflow[5]
+ (start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ evaporator.C_hot_out.Q(start = -evaporator.Q_hot_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure evaporator.C_hot_out.P(
+ start = evaporator.P_hot_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy evaporator.C_hot_out.h_outflow
+ (start = evaporator.h_hot_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction evaporator.C_hot_out.Xi_outflow[5]
+ (start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ evaporator.C_cold_in.Q(start = evaporator.Q_cold_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure evaporator.C_cold_in.P(
+ start = evaporator.P_cold_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy evaporator.C_cold_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction evaporator.C_cold_in.Xi_outflow[0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ evaporator.C_cold_out.Q(start = -evaporator.Q_cold_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure evaporator.C_cold_out.P(
+ start = evaporator.P_cold_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy evaporator.C_cold_out.h_outflow
+ (start = evaporator.h_vap_sat_0);
+ Modelica.Media.Interfaces.Types.MassFraction evaporator.C_cold_out.Xi_outflow[0];
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_w_evap_out_sensor.Q(start = P_w_evap_out_sensor.Q_0, nominal = 100.0)
+ "Component mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction P_w_evap_out_sensor.Xi[0]
+ "Component mass fractions";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_evap_out_sensor.P(
+ start = P_w_evap_out_sensor.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_w_evap_out_sensor.h
+ (start = P_w_evap_out_sensor.h_0) "Enthalpy of the fluid into the component";
+ Modelica.Media.Interfaces.Types.FixedPhase P_w_evap_out_sensor.state.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy P_w_evap_out_sensor.state.h(
+ start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density P_w_evap_out_sensor.state.d(start = 150,
+ nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature P_w_evap_out_sensor.state.T(
+ start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_w_evap_out_sensor.state.p(
+ start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate P_w_evap_out_sensor.mass_flow_rate_bias
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_w_evap_out_sensor.C_in.Q(start = P_w_evap_out_sensor.Q_0, nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_evap_out_sensor.C_in.P(
+ start = P_w_evap_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_w_evap_out_sensor.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction P_w_evap_out_sensor.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ P_w_evap_out_sensor.C_out.Q(start = -P_w_evap_out_sensor.Q_0, nominal =
+ 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_evap_out_sensor.C_out.P
+ (start = P_w_evap_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_w_evap_out_sensor.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction P_w_evap_out_sensor.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_w_evap_out_sensor.flow_model.h_in
+ (start = P_w_evap_out_sensor.flow_model.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_w_evap_out_sensor.flow_model.h_out
+ (start = P_w_evap_out_sensor.flow_model.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_w_evap_out_sensor.flow_model.Q(start = P_w_evap_out_sensor.flow_model.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_evap_out_sensor.flow_model.P_in
+ (start = P_w_evap_out_sensor.flow_model.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_evap_out_sensor.flow_model.P_out
+ (start = P_w_evap_out_sensor.flow_model.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction P_w_evap_out_sensor.flow_model.Xi
+ [0] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_w_evap_out_sensor.flow_model.rho_in
+ (start = P_w_evap_out_sensor.flow_model.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_w_evap_out_sensor.flow_model.rho_out
+ (start = P_w_evap_out_sensor.flow_model.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_w_evap_out_sensor.flow_model.rho
+ (start = P_w_evap_out_sensor.flow_model.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ P_w_evap_out_sensor.flow_model.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ P_w_evap_out_sensor.flow_model.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ P_w_evap_out_sensor.flow_model.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_w_evap_out_sensor.flow_model.T_in
+ (start = P_w_evap_out_sensor.flow_model.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_w_evap_out_sensor.flow_model.T_out
+ (start = P_w_evap_out_sensor.flow_model.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase P_w_evap_out_sensor.flow_model.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy P_w_evap_out_sensor.flow_model.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density P_w_evap_out_sensor.flow_model.state_in.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature P_w_evap_out_sensor.flow_model.state_in.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_w_evap_out_sensor.flow_model.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase P_w_evap_out_sensor.flow_model.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy P_w_evap_out_sensor.flow_model.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density P_w_evap_out_sensor.flow_model.state_out.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature P_w_evap_out_sensor.flow_model.state_out.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_w_evap_out_sensor.flow_model.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ P_w_evap_out_sensor.flow_model.DP(start = P_w_evap_out_sensor.flow_model.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power P_w_evap_out_sensor.flow_model.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ P_w_evap_out_sensor.flow_model.DH(start = P_w_evap_out_sensor.flow_model.h_out_0
+ -P_w_evap_out_sensor.flow_model.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ P_w_evap_out_sensor.flow_model.DT(start = P_w_evap_out_sensor.flow_model.T_out_0
+ -P_w_evap_out_sensor.flow_model.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_w_evap_out_sensor.flow_model.C_in.Q(start = P_w_evap_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_evap_out_sensor.flow_model.C_in.P
+ (start = P_w_evap_out_sensor.flow_model.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_w_evap_out_sensor.flow_model.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction P_w_evap_out_sensor.flow_model.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ P_w_evap_out_sensor.flow_model.C_out.Q(start = -P_w_evap_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_evap_out_sensor.flow_model.C_out.P
+ (start = P_w_evap_out_sensor.flow_model.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_w_evap_out_sensor.flow_model.C_out.h_outflow
+ (start = P_w_evap_out_sensor.flow_model.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction P_w_evap_out_sensor.flow_model.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_w_evap_out_sensor.flow_model.h
+ (start = P_w_evap_out_sensor.flow_model.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_evap_out_sensor.flow_model.P
+ (start = P_w_evap_out_sensor.flow_model.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_w_evap_out_sensor.flow_model.T
+ (start = P_w_evap_out_sensor.flow_model.T_0) "Temperature of the fluid into the component";
+ Real P_w_evap_out_sensor.P_barG(start = P_w_evap_out_sensor.P_0*1E-05-1,
+ nominal = 100000.0);
+ Real P_w_evap_out_sensor.P_psiG(start = P_w_evap_out_sensor.P_0*0.000145038-
+ 14.50377377, nominal = 14.5038);
+ Real P_w_evap_out_sensor.P_MPaG(start = P_w_evap_out_sensor.P_0*1E-06-0.1,
+ nominal = 0.09999999999999999);
+ Real P_w_evap_out_sensor.P_kPaG(start = P_w_evap_out_sensor.P_0*0.001-100,
+ nominal = 100.0);
+ Real P_w_evap_out_sensor.P_barA(start = P_w_evap_out_sensor.P_0*1E-05,
+ nominal = 1.0, unit = "bar");
+ Real P_w_evap_out_sensor.P_psiA(start = P_w_evap_out_sensor.P_0*0.000145038,
+ nominal = 14.5038);
+ Real P_w_evap_out_sensor.P_MPaA(start = P_w_evap_out_sensor.P_0*1E-06,
+ nominal = 0.09999999999999999);
+ Real P_w_evap_out_sensor.P_kPaA(start = P_w_evap_out_sensor.P_0*0.001,
+ nominal = 100.0);
+ Real P_w_evap_out_sensor.P_inHg(start = P_w_evap_out_sensor.P_0*0.0002953006,
+ nominal = 29.530060000000002);
+ Real P_w_evap_out_sensor.P_mbar(start = P_w_evap_out_sensor.P_0*0.01,
+ nominal = 1000.0, unit = "mbar");
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal P_w_evap_out_sensor.P_sensor
+ (start = P_w_evap_out_sensor.init_P);
+ MetroscopeModelingLibrary.Utilities.Units.Temperature HPsuperheater1.maximum_achiveable_temperature_difference;
+ MetroscopeModelingLibrary.Utilities.Units.Temperature HPsuperheater1.nominal_cold_side_temperature_rise;
+ MetroscopeModelingLibrary.Utilities.Units.Temperature HPsuperheater1.nominal_hot_side_temperature_drop;
+ MetroscopeModelingLibrary.Utilities.Units.Power HPsuperheater1.W;
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate HPsuperheater1.Q_cold(
+ start = HPsuperheater1.Q_cold_0);
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate HPsuperheater1.Q_hot(
+ start = HPsuperheater1.Q_hot_0);
+ MetroscopeModelingLibrary.Utilities.Units.Temperature HPsuperheater1.T_cold_in
+ (start = HPsuperheater1.T_cold_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.Temperature HPsuperheater1.T_hot_in(
+ start = HPsuperheater1.T_hot_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.Temperature HPsuperheater1.T_cold_out
+ (start = HPsuperheater1.T_cold_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.Temperature HPsuperheater1.T_hot_out
+ (start = HPsuperheater1.T_hot_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ HPsuperheater1.DT_hot_in_side(start = HPsuperheater1.T_hot_in_0-
+ HPsuperheater1.T_cold_out_0) "Temperature difference between hot and cold fluids, hot inlet side";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ HPsuperheater1.DT_hot_out_side(start = HPsuperheater1.T_hot_out_0-
+ HPsuperheater1.T_cold_in_0) "Temperature difference between hot and cold fluids, hot outlet side";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ HPsuperheater1.pinch(start = min(HPsuperheater1.T_hot_in_0-HPsuperheater1.T_cold_out_0,
+ HPsuperheater1.T_hot_out_0-HPsuperheater1.T_cold_in_0)) "Lowest temperature difference";
+ MetroscopeModelingLibrary.Utilities.Units.Percentage HPsuperheater1.fouling;
+ MetroscopeModelingLibrary.Utilities.Units.HeatCapacity HPsuperheater1.Cp_cold_min;
+ MetroscopeModelingLibrary.Utilities.Units.HeatCapacity HPsuperheater1.Cp_cold_max;
+ MetroscopeModelingLibrary.Utilities.Units.HeatCapacity HPsuperheater1.Cp_hot_min;
+ MetroscopeModelingLibrary.Utilities.Units.HeatCapacity HPsuperheater1.Cp_hot_max;
+ Modelica.Media.Interfaces.Types.FixedPhase HPsuperheater1.state_cold_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy HPsuperheater1.state_cold_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density HPsuperheater1.state_cold_out.d(
+ start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature HPsuperheater1.state_cold_out.T(
+ start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure HPsuperheater1.state_cold_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.AbsolutePressure HPsuperheater1.state_hot_out.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature HPsuperheater1.state_hot_out.T(
+ start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction HPsuperheater1.state_hot_out.X[5]
+ (start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ HPsuperheater1.C_hot_in.Q(start = HPsuperheater1.Q_hot_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater1.C_hot_in.P(
+ start = HPsuperheater1.P_hot_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPsuperheater1.C_hot_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction HPsuperheater1.C_hot_in.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ HPsuperheater1.C_hot_out.Q(start = -HPsuperheater1.Q_hot_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater1.C_hot_out.P(
+ start = HPsuperheater1.P_hot_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPsuperheater1.C_hot_out.h_outflow
+ (start = HPsuperheater1.h_hot_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction HPsuperheater1.C_hot_out.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ HPsuperheater1.C_cold_in.Q(start = HPsuperheater1.Q_cold_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater1.C_cold_in.P(
+ start = HPsuperheater1.P_cold_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPsuperheater1.C_cold_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction HPsuperheater1.C_cold_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ HPsuperheater1.C_cold_out.Q(start = -HPsuperheater1.Q_cold_0, nominal =
+ 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater1.C_cold_out.P
+ (start = HPsuperheater1.P_cold_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPsuperheater1.C_cold_out.h_outflow
+ (start = HPsuperheater1.h_cold_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction HPsuperheater1.C_cold_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputArea HPsuperheater1.HX.S
+ (start = HPsuperheater1.HX.S_0) "Heat exchange surface";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputHeatExchangeCoefficient
+ HPsuperheater1.HX.Kth(start = HPsuperheater1.HX.Kth_0) "Heat exchange coefficient";
+ MetroscopeModelingLibrary.Utilities.Units.Power HPsuperheater1.HX.W(start =
+ HPsuperheater1.HX.W_0);
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputMassFlowRate
+ HPsuperheater1.HX.Q_hot(start = HPsuperheater1.HX.Q_hot_0) "Hot mass flow rate at the inlet";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputMassFlowRate
+ HPsuperheater1.HX.Q_cold(start = HPsuperheater1.HX.Q_cold_0)
+ "Cold mass flow rate at the inlet";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputHeatCapacity
+ HPsuperheater1.HX.Cp_hot(start = HPsuperheater1.HX.Cp_hot_0)
+ "Hot fluid specific heat capacity";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputHeatCapacity
+ HPsuperheater1.HX.Cp_cold(start = HPsuperheater1.HX.Cp_cold_0)
+ "Cold fluid specific heat capacity";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputTemperature
+ HPsuperheater1.HX.T_hot_in(start = HPsuperheater1.HX.T_hot_in_0)
+ "Temperature, hot side, at the inlet";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputTemperature
+ HPsuperheater1.HX.T_cold_in(start = HPsuperheater1.HX.T_cold_in_0)
+ "Temperature, cold side, at the inlet";
+ Real HPsuperheater1.HX.QCpMIN(start = HPsuperheater1.HX.QCpMIN_0, unit = "W/K");
+ Real HPsuperheater1.HX.QCpMAX(start = HPsuperheater1.HX.QCpMAX_0, unit = "W/K");
+ Real HPsuperheater1.HX.NTU(start = HPsuperheater1.HX.NTU_0, unit = "1");
+ MetroscopeModelingLibrary.Utilities.Units.Fraction HPsuperheater1.HX.Cr(
+ start = HPsuperheater1.HX.Cr_0);
+ MetroscopeModelingLibrary.Utilities.Units.Fraction HPsuperheater1.HX.epsilon(
+ start = HPsuperheater1.HX.epsilon_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power HPsuperheater1.HX.W_max(
+ start = HPsuperheater1.HX.W_max_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPsuperheater1.hot_side.h_in
+ (start = HPsuperheater1.hot_side.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPsuperheater1.hot_side.h_out
+ (start = HPsuperheater1.hot_side.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ HPsuperheater1.hot_side.Q(start = HPsuperheater1.hot_side.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater1.hot_side.P_in
+ (start = HPsuperheater1.hot_side.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater1.hot_side.P_out
+ (start = HPsuperheater1.hot_side.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction HPsuperheater1.hot_side.Xi
+ [5] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density HPsuperheater1.hot_side.rho_in
+ (start = HPsuperheater1.hot_side.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density HPsuperheater1.hot_side.rho_out
+ (start = HPsuperheater1.hot_side.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density HPsuperheater1.hot_side.rho(
+ start = HPsuperheater1.hot_side.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ HPsuperheater1.hot_side.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ HPsuperheater1.hot_side.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ HPsuperheater1.hot_side.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature HPsuperheater1.hot_side.T_in
+ (start = HPsuperheater1.hot_side.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature HPsuperheater1.hot_side.T_out
+ (start = HPsuperheater1.hot_side.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure HPsuperheater1.hot_side.state_in.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature HPsuperheater1.hot_side.state_in.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction HPsuperheater1.hot_side.state_in.X
+ [5](start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ Modelica.Media.Interfaces.Types.AbsolutePressure HPsuperheater1.hot_side.state_out.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature HPsuperheater1.hot_side.state_out.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction HPsuperheater1.hot_side.state_out.X
+ [5](start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ HPsuperheater1.hot_side.DP(start = HPsuperheater1.hot_side.DP_0, nominal =
+ 105000.0);
+ MetroscopeModelingLibrary.Utilities.Units.Power HPsuperheater1.hot_side.W(
+ start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ HPsuperheater1.hot_side.DH(start = HPsuperheater1.hot_side.h_out_0-
+ HPsuperheater1.hot_side.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ HPsuperheater1.hot_side.DT(start = HPsuperheater1.hot_side.T_out_0-
+ HPsuperheater1.hot_side.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ HPsuperheater1.hot_side.C_in.Q(start = HPsuperheater1.hot_side.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater1.hot_side.C_in.P
+ (start = HPsuperheater1.hot_side.P_in_0, nominal = 105000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPsuperheater1.hot_side.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction HPsuperheater1.hot_side.C_in.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ HPsuperheater1.hot_side.C_out.Q(start = -HPsuperheater1.hot_side.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater1.hot_side.C_out.P
+ (start = HPsuperheater1.hot_side.P_out_0, nominal = 105000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPsuperheater1.hot_side.C_out.h_outflow
+ (start = HPsuperheater1.hot_side.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction HPsuperheater1.hot_side.C_out.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater1.hot_side.P(
+ start = HPsuperheater1.hot_side.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputPower HPsuperheater1.hot_side.W_input
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPsuperheater1.cold_side.h_in
+ (start = HPsuperheater1.cold_side.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPsuperheater1.cold_side.h_out
+ (start = HPsuperheater1.cold_side.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ HPsuperheater1.cold_side.Q(start = HPsuperheater1.cold_side.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater1.cold_side.P_in
+ (start = HPsuperheater1.cold_side.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater1.cold_side.P_out
+ (start = HPsuperheater1.cold_side.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction HPsuperheater1.cold_side.Xi
+ [0] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density HPsuperheater1.cold_side.rho_in
+ (start = HPsuperheater1.cold_side.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density HPsuperheater1.cold_side.rho_out
+ (start = HPsuperheater1.cold_side.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density HPsuperheater1.cold_side.rho
+ (start = HPsuperheater1.cold_side.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ HPsuperheater1.cold_side.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ HPsuperheater1.cold_side.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ HPsuperheater1.cold_side.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature HPsuperheater1.cold_side.T_in
+ (start = HPsuperheater1.cold_side.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature HPsuperheater1.cold_side.T_out
+ (start = HPsuperheater1.cold_side.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase HPsuperheater1.cold_side.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy HPsuperheater1.cold_side.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density HPsuperheater1.cold_side.state_in.d(
+ start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature HPsuperheater1.cold_side.state_in.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure HPsuperheater1.cold_side.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase HPsuperheater1.cold_side.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy HPsuperheater1.cold_side.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density HPsuperheater1.cold_side.state_out.d(
+ start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature HPsuperheater1.cold_side.state_out.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure HPsuperheater1.cold_side.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ HPsuperheater1.cold_side.DP(start = HPsuperheater1.cold_side.DP_0,
+ nominal = 13000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.Power HPsuperheater1.cold_side.W(
+ start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ HPsuperheater1.cold_side.DH(start = HPsuperheater1.cold_side.h_out_0-
+ HPsuperheater1.cold_side.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ HPsuperheater1.cold_side.DT(start = HPsuperheater1.cold_side.T_out_0-
+ HPsuperheater1.cold_side.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ HPsuperheater1.cold_side.C_in.Q(start = HPsuperheater1.cold_side.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater1.cold_side.C_in.P
+ (start = HPsuperheater1.cold_side.P_in_0, nominal = 13000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPsuperheater1.cold_side.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction HPsuperheater1.cold_side.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ HPsuperheater1.cold_side.C_out.Q(start = -HPsuperheater1.cold_side.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater1.cold_side.C_out.P
+ (start = HPsuperheater1.cold_side.P_out_0, nominal = 13000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPsuperheater1.cold_side.C_out.h_outflow
+ (start = HPsuperheater1.cold_side.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction HPsuperheater1.cold_side.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater1.cold_side.P(
+ start = HPsuperheater1.cold_side.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputPower HPsuperheater1.cold_side.W_input
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPsuperheater1.cold_side_pipe.h_in
+ (start = HPsuperheater1.cold_side_pipe.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPsuperheater1.cold_side_pipe.h_out
+ (start = HPsuperheater1.cold_side_pipe.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ HPsuperheater1.cold_side_pipe.Q(start = HPsuperheater1.cold_side_pipe.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater1.cold_side_pipe.P_in
+ (start = HPsuperheater1.cold_side_pipe.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater1.cold_side_pipe.P_out
+ (start = HPsuperheater1.cold_side_pipe.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction HPsuperheater1.cold_side_pipe.Xi
+ [0] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density HPsuperheater1.cold_side_pipe.rho_in
+ (start = HPsuperheater1.cold_side_pipe.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density HPsuperheater1.cold_side_pipe.rho_out
+ (start = HPsuperheater1.cold_side_pipe.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density HPsuperheater1.cold_side_pipe.rho
+ (start = HPsuperheater1.cold_side_pipe.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ HPsuperheater1.cold_side_pipe.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ HPsuperheater1.cold_side_pipe.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ HPsuperheater1.cold_side_pipe.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature HPsuperheater1.cold_side_pipe.T_in
+ (start = HPsuperheater1.cold_side_pipe.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature HPsuperheater1.cold_side_pipe.T_out
+ (start = HPsuperheater1.cold_side_pipe.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase HPsuperheater1.cold_side_pipe.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy HPsuperheater1.cold_side_pipe.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density HPsuperheater1.cold_side_pipe.state_in.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature HPsuperheater1.cold_side_pipe.state_in.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure HPsuperheater1.cold_side_pipe.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase HPsuperheater1.cold_side_pipe.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy HPsuperheater1.cold_side_pipe.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density HPsuperheater1.cold_side_pipe.state_out.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature HPsuperheater1.cold_side_pipe.state_out.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure HPsuperheater1.cold_side_pipe.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ HPsuperheater1.cold_side_pipe.DP(start = HPsuperheater1.cold_side_pipe.DP_0,
+ nominal = 13000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.Power HPsuperheater1.cold_side_pipe.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ HPsuperheater1.cold_side_pipe.DH(start = HPsuperheater1.cold_side_pipe.h_out_0
+ -HPsuperheater1.cold_side_pipe.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ HPsuperheater1.cold_side_pipe.DT(start = HPsuperheater1.cold_side_pipe.T_out_0
+ -HPsuperheater1.cold_side_pipe.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ HPsuperheater1.cold_side_pipe.C_in.Q(start = HPsuperheater1.cold_side_pipe.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater1.cold_side_pipe.C_in.P
+ (start = HPsuperheater1.cold_side_pipe.P_in_0, nominal = 13000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPsuperheater1.cold_side_pipe.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction HPsuperheater1.cold_side_pipe.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ HPsuperheater1.cold_side_pipe.C_out.Q(start = -HPsuperheater1.cold_side_pipe.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater1.cold_side_pipe.C_out.P
+ (start = HPsuperheater1.cold_side_pipe.P_out_0, nominal = 12950000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPsuperheater1.cold_side_pipe.C_out.h_outflow
+ (start = HPsuperheater1.cold_side_pipe.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction HPsuperheater1.cold_side_pipe.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPsuperheater1.cold_side_pipe.h
+ (start = HPsuperheater1.cold_side_pipe.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Percentage HPsuperheater1.cold_side_pipe.fouling;
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal HPsuperheater1.cold_side_pipe.Kfr
+ (start = HPsuperheater1.cold_side_pipe.Kfr_constant);
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal HPsuperheater1.Kth;
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal HPsuperheater1.Kfr_cold;
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ HPsuperheater1.STR(start = HPsuperheater1.T_cold_out_0-HPsuperheater1.T_cold_in_0)
+ "Steam Temperature Rise";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ HPsuperheater1.DT_superheat(start = HPsuperheater1.T_cold_out_0-
+ Modelica.Media.Water.WaterIF97_ph.saturationTemperature_Unique21(
+ HPsuperheater1.P_cold_in_0)) "Superheat temperature difference";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_w_HPSH1_out_sensor.Q(start = T_w_HPSH1_out_sensor.Q_0, nominal = 100.0)
+ "Component mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction T_w_HPSH1_out_sensor.Xi
+ [0] "Component mass fractions";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_HPSH1_out_sensor.P(
+ start = T_w_HPSH1_out_sensor.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_w_HPSH1_out_sensor.h
+ (start = T_w_HPSH1_out_sensor.h_0) "Enthalpy of the fluid into the component";
+ Modelica.Media.Interfaces.Types.FixedPhase T_w_HPSH1_out_sensor.state.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy T_w_HPSH1_out_sensor.state.h(
+ start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density T_w_HPSH1_out_sensor.state.d(start = 150,
+ nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature T_w_HPSH1_out_sensor.state.T(
+ start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure T_w_HPSH1_out_sensor.state.p(
+ start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate T_w_HPSH1_out_sensor.mass_flow_rate_bias
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_w_HPSH1_out_sensor.C_in.Q(start = T_w_HPSH1_out_sensor.Q_0, nominal =
+ 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_HPSH1_out_sensor.C_in.P
+ (start = T_w_HPSH1_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_w_HPSH1_out_sensor.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction T_w_HPSH1_out_sensor.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ T_w_HPSH1_out_sensor.C_out.Q(start = -T_w_HPSH1_out_sensor.Q_0, nominal =
+ 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_HPSH1_out_sensor.C_out.P
+ (start = T_w_HPSH1_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_w_HPSH1_out_sensor.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction T_w_HPSH1_out_sensor.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_w_HPSH1_out_sensor.flow_model.h_in
+ (start = T_w_HPSH1_out_sensor.flow_model.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_w_HPSH1_out_sensor.flow_model.h_out
+ (start = T_w_HPSH1_out_sensor.flow_model.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_w_HPSH1_out_sensor.flow_model.Q(start = T_w_HPSH1_out_sensor.flow_model.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_HPSH1_out_sensor.flow_model.P_in
+ (start = T_w_HPSH1_out_sensor.flow_model.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_HPSH1_out_sensor.flow_model.P_out
+ (start = T_w_HPSH1_out_sensor.flow_model.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction T_w_HPSH1_out_sensor.flow_model.Xi
+ [0] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density T_w_HPSH1_out_sensor.flow_model.rho_in
+ (start = T_w_HPSH1_out_sensor.flow_model.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density T_w_HPSH1_out_sensor.flow_model.rho_out
+ (start = T_w_HPSH1_out_sensor.flow_model.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density T_w_HPSH1_out_sensor.flow_model.rho
+ (start = T_w_HPSH1_out_sensor.flow_model.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ T_w_HPSH1_out_sensor.flow_model.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ T_w_HPSH1_out_sensor.flow_model.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ T_w_HPSH1_out_sensor.flow_model.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_w_HPSH1_out_sensor.flow_model.T_in
+ (start = T_w_HPSH1_out_sensor.flow_model.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_w_HPSH1_out_sensor.flow_model.T_out
+ (start = T_w_HPSH1_out_sensor.flow_model.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase T_w_HPSH1_out_sensor.flow_model.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy T_w_HPSH1_out_sensor.flow_model.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density T_w_HPSH1_out_sensor.flow_model.state_in.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature T_w_HPSH1_out_sensor.flow_model.state_in.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure T_w_HPSH1_out_sensor.flow_model.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase T_w_HPSH1_out_sensor.flow_model.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy T_w_HPSH1_out_sensor.flow_model.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density T_w_HPSH1_out_sensor.flow_model.state_out.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature T_w_HPSH1_out_sensor.flow_model.state_out.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure T_w_HPSH1_out_sensor.flow_model.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ T_w_HPSH1_out_sensor.flow_model.DP(start = T_w_HPSH1_out_sensor.flow_model.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power T_w_HPSH1_out_sensor.flow_model.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ T_w_HPSH1_out_sensor.flow_model.DH(start = T_w_HPSH1_out_sensor.flow_model.h_out_0
+ -T_w_HPSH1_out_sensor.flow_model.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ T_w_HPSH1_out_sensor.flow_model.DT(start = T_w_HPSH1_out_sensor.flow_model.T_out_0
+ -T_w_HPSH1_out_sensor.flow_model.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_w_HPSH1_out_sensor.flow_model.C_in.Q(start = T_w_HPSH1_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_HPSH1_out_sensor.flow_model.C_in.P
+ (start = T_w_HPSH1_out_sensor.flow_model.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_w_HPSH1_out_sensor.flow_model.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction T_w_HPSH1_out_sensor.flow_model.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ T_w_HPSH1_out_sensor.flow_model.C_out.Q(start = -T_w_HPSH1_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_HPSH1_out_sensor.flow_model.C_out.P
+ (start = T_w_HPSH1_out_sensor.flow_model.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_w_HPSH1_out_sensor.flow_model.C_out.h_outflow
+ (start = T_w_HPSH1_out_sensor.flow_model.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction T_w_HPSH1_out_sensor.flow_model.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_w_HPSH1_out_sensor.flow_model.h
+ (start = T_w_HPSH1_out_sensor.flow_model.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_HPSH1_out_sensor.flow_model.P
+ (start = T_w_HPSH1_out_sensor.flow_model.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_w_HPSH1_out_sensor.flow_model.T
+ (start = T_w_HPSH1_out_sensor.flow_model.T_0) "Temperature of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_w_HPSH1_out_sensor.T(
+ start = T_w_HPSH1_out_sensor.T_0);
+ Real T_w_HPSH1_out_sensor.T_degC(start = T_w_HPSH1_out_sensor.T_0+273.15,
+ nominal = 573.15, unit = "degC");
+ Real T_w_HPSH1_out_sensor.T_degF(start = (T_w_HPSH1_out_sensor.T_0+273.15)*1.8
+ +32, nominal = 1063.67, unit = "degF");
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal T_w_HPSH1_out_sensor.T_sensor
+ (start = T_w_HPSH1_out_sensor.init_T);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_w_HPSH1_out_sensor.Q(start = P_w_HPSH1_out_sensor.Q_0, nominal = 100.0)
+ "Component mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction P_w_HPSH1_out_sensor.Xi
+ [0] "Component mass fractions";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_HPSH1_out_sensor.P(
+ start = P_w_HPSH1_out_sensor.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_w_HPSH1_out_sensor.h
+ (start = P_w_HPSH1_out_sensor.h_0) "Enthalpy of the fluid into the component";
+ Modelica.Media.Interfaces.Types.FixedPhase P_w_HPSH1_out_sensor.state.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy P_w_HPSH1_out_sensor.state.h(
+ start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density P_w_HPSH1_out_sensor.state.d(start = 150,
+ nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature P_w_HPSH1_out_sensor.state.T(
+ start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_w_HPSH1_out_sensor.state.p(
+ start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate P_w_HPSH1_out_sensor.mass_flow_rate_bias
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_w_HPSH1_out_sensor.C_in.Q(start = P_w_HPSH1_out_sensor.Q_0, nominal =
+ 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_HPSH1_out_sensor.C_in.P
+ (start = P_w_HPSH1_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_w_HPSH1_out_sensor.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction P_w_HPSH1_out_sensor.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ P_w_HPSH1_out_sensor.C_out.Q(start = -P_w_HPSH1_out_sensor.Q_0, nominal =
+ 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_HPSH1_out_sensor.C_out.P
+ (start = P_w_HPSH1_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_w_HPSH1_out_sensor.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction P_w_HPSH1_out_sensor.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_w_HPSH1_out_sensor.flow_model.h_in
+ (start = P_w_HPSH1_out_sensor.flow_model.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_w_HPSH1_out_sensor.flow_model.h_out
+ (start = P_w_HPSH1_out_sensor.flow_model.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_w_HPSH1_out_sensor.flow_model.Q(start = P_w_HPSH1_out_sensor.flow_model.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_HPSH1_out_sensor.flow_model.P_in
+ (start = P_w_HPSH1_out_sensor.flow_model.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_HPSH1_out_sensor.flow_model.P_out
+ (start = P_w_HPSH1_out_sensor.flow_model.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction P_w_HPSH1_out_sensor.flow_model.Xi
+ [0] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_w_HPSH1_out_sensor.flow_model.rho_in
+ (start = P_w_HPSH1_out_sensor.flow_model.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_w_HPSH1_out_sensor.flow_model.rho_out
+ (start = P_w_HPSH1_out_sensor.flow_model.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_w_HPSH1_out_sensor.flow_model.rho
+ (start = P_w_HPSH1_out_sensor.flow_model.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ P_w_HPSH1_out_sensor.flow_model.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ P_w_HPSH1_out_sensor.flow_model.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ P_w_HPSH1_out_sensor.flow_model.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_w_HPSH1_out_sensor.flow_model.T_in
+ (start = P_w_HPSH1_out_sensor.flow_model.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_w_HPSH1_out_sensor.flow_model.T_out
+ (start = P_w_HPSH1_out_sensor.flow_model.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase P_w_HPSH1_out_sensor.flow_model.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy P_w_HPSH1_out_sensor.flow_model.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density P_w_HPSH1_out_sensor.flow_model.state_in.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature P_w_HPSH1_out_sensor.flow_model.state_in.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_w_HPSH1_out_sensor.flow_model.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase P_w_HPSH1_out_sensor.flow_model.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy P_w_HPSH1_out_sensor.flow_model.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density P_w_HPSH1_out_sensor.flow_model.state_out.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature P_w_HPSH1_out_sensor.flow_model.state_out.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_w_HPSH1_out_sensor.flow_model.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ P_w_HPSH1_out_sensor.flow_model.DP(start = P_w_HPSH1_out_sensor.flow_model.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power P_w_HPSH1_out_sensor.flow_model.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ P_w_HPSH1_out_sensor.flow_model.DH(start = P_w_HPSH1_out_sensor.flow_model.h_out_0
+ -P_w_HPSH1_out_sensor.flow_model.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ P_w_HPSH1_out_sensor.flow_model.DT(start = P_w_HPSH1_out_sensor.flow_model.T_out_0
+ -P_w_HPSH1_out_sensor.flow_model.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_w_HPSH1_out_sensor.flow_model.C_in.Q(start = P_w_HPSH1_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_HPSH1_out_sensor.flow_model.C_in.P
+ (start = P_w_HPSH1_out_sensor.flow_model.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_w_HPSH1_out_sensor.flow_model.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction P_w_HPSH1_out_sensor.flow_model.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ P_w_HPSH1_out_sensor.flow_model.C_out.Q(start = -P_w_HPSH1_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_HPSH1_out_sensor.flow_model.C_out.P
+ (start = P_w_HPSH1_out_sensor.flow_model.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_w_HPSH1_out_sensor.flow_model.C_out.h_outflow
+ (start = P_w_HPSH1_out_sensor.flow_model.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction P_w_HPSH1_out_sensor.flow_model.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_w_HPSH1_out_sensor.flow_model.h
+ (start = P_w_HPSH1_out_sensor.flow_model.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_HPSH1_out_sensor.flow_model.P
+ (start = P_w_HPSH1_out_sensor.flow_model.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_w_HPSH1_out_sensor.flow_model.T
+ (start = P_w_HPSH1_out_sensor.flow_model.T_0) "Temperature of the fluid into the component";
+ Real P_w_HPSH1_out_sensor.P_barG(start = P_w_HPSH1_out_sensor.P_0*1E-05-1,
+ nominal = 100000.0);
+ Real P_w_HPSH1_out_sensor.P_psiG(start = P_w_HPSH1_out_sensor.P_0*0.000145038-
+ 14.50377377, nominal = 14.5038);
+ Real P_w_HPSH1_out_sensor.P_MPaG(start = P_w_HPSH1_out_sensor.P_0*1E-06-0.1,
+ nominal = 0.09999999999999999);
+ Real P_w_HPSH1_out_sensor.P_kPaG(start = P_w_HPSH1_out_sensor.P_0*0.001-100,
+ nominal = 100.0);
+ Real P_w_HPSH1_out_sensor.P_barA(start = P_w_HPSH1_out_sensor.P_0*1E-05,
+ nominal = 1.0, unit = "bar");
+ Real P_w_HPSH1_out_sensor.P_psiA(start = P_w_HPSH1_out_sensor.P_0*0.000145038,
+ nominal = 14.5038);
+ Real P_w_HPSH1_out_sensor.P_MPaA(start = P_w_HPSH1_out_sensor.P_0*1E-06,
+ nominal = 0.09999999999999999);
+ Real P_w_HPSH1_out_sensor.P_kPaA(start = P_w_HPSH1_out_sensor.P_0*0.001,
+ nominal = 100.0);
+ Real P_w_HPSH1_out_sensor.P_inHg(start = P_w_HPSH1_out_sensor.P_0*0.0002953006,
+ nominal = 29.530060000000002);
+ Real P_w_HPSH1_out_sensor.P_mbar(start = P_w_HPSH1_out_sensor.P_0*0.01,
+ nominal = 1000.0, unit = "mbar");
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal P_w_HPSH1_out_sensor.P_sensor
+ (start = P_w_HPSH1_out_sensor.init_P);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPST_control_valve.h_in
+ (start = HPST_control_valve.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPST_control_valve.h_out
+ (start = HPST_control_valve.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ HPST_control_valve.Q(start = HPST_control_valve.Q_0) "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPST_control_valve.P_in(
+ start = HPST_control_valve.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPST_control_valve.P_out(
+ start = HPST_control_valve.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction HPST_control_valve.Xi[0]
+ "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density HPST_control_valve.rho_in(
+ start = HPST_control_valve.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density HPST_control_valve.rho_out(
+ start = HPST_control_valve.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density HPST_control_valve.rho(
+ start = HPST_control_valve.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ HPST_control_valve.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ HPST_control_valve.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ HPST_control_valve.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature HPST_control_valve.T_in(
+ start = HPST_control_valve.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature HPST_control_valve.T_out
+ (start = HPST_control_valve.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase HPST_control_valve.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy HPST_control_valve.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density HPST_control_valve.state_in.d(start = 150,
+ nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature HPST_control_valve.state_in.T(
+ start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure HPST_control_valve.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase HPST_control_valve.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy HPST_control_valve.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density HPST_control_valve.state_out.d(
+ start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature HPST_control_valve.state_out.T(
+ start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure HPST_control_valve.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ HPST_control_valve.DP(start = HPST_control_valve.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power HPST_control_valve.W(start = 0,
+ nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ HPST_control_valve.DH(start = HPST_control_valve.h_out_0-HPST_control_valve.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ HPST_control_valve.DT(start = HPST_control_valve.T_out_0-HPST_control_valve.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ HPST_control_valve.C_in.Q(start = HPST_control_valve.Q_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPST_control_valve.C_in.P(
+ start = HPST_control_valve.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPST_control_valve.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction HPST_control_valve.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ HPST_control_valve.C_out.Q(start = -HPST_control_valve.Q_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPST_control_valve.C_out.P(
+ start = HPST_control_valve.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPST_control_valve.C_out.h_outflow
+ (start = HPST_control_valve.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction HPST_control_valve.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPST_control_valve.h
+ (start = HPST_control_valve.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Percentage HPST_control_valve.closed_valve;
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal HPST_control_valve.Cv
+ (start = HPST_control_valve.Cv_constant);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_HPST_in_sensor.Q(start = P_HPST_in_sensor.Q_0, nominal = 100.0)
+ "Component mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction P_HPST_in_sensor.Xi[0]
+ "Component mass fractions";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_HPST_in_sensor.P(start =
+ P_HPST_in_sensor.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_HPST_in_sensor.h(
+ start = P_HPST_in_sensor.h_0) "Enthalpy of the fluid into the component";
+ Modelica.Media.Interfaces.Types.FixedPhase P_HPST_in_sensor.state.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy P_HPST_in_sensor.state.h(
+ start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density P_HPST_in_sensor.state.d(start = 150,
+ nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature P_HPST_in_sensor.state.T(start = 500,
+ nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_HPST_in_sensor.state.p(
+ start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate P_HPST_in_sensor.mass_flow_rate_bias
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_HPST_in_sensor.C_in.Q(start = P_HPST_in_sensor.Q_0, nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_HPST_in_sensor.C_in.P(
+ start = P_HPST_in_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_HPST_in_sensor.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction P_HPST_in_sensor.C_in.Xi_outflow[0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ P_HPST_in_sensor.C_out.Q(start = -P_HPST_in_sensor.Q_0, nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_HPST_in_sensor.C_out.P(
+ start = P_HPST_in_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_HPST_in_sensor.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction P_HPST_in_sensor.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_HPST_in_sensor.flow_model.h_in
+ (start = P_HPST_in_sensor.flow_model.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_HPST_in_sensor.flow_model.h_out
+ (start = P_HPST_in_sensor.flow_model.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_HPST_in_sensor.flow_model.Q(start = P_HPST_in_sensor.flow_model.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_HPST_in_sensor.flow_model.P_in
+ (start = P_HPST_in_sensor.flow_model.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_HPST_in_sensor.flow_model.P_out
+ (start = P_HPST_in_sensor.flow_model.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction P_HPST_in_sensor.flow_model.Xi
+ [0] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_HPST_in_sensor.flow_model.rho_in
+ (start = P_HPST_in_sensor.flow_model.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_HPST_in_sensor.flow_model.rho_out
+ (start = P_HPST_in_sensor.flow_model.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_HPST_in_sensor.flow_model.rho
+ (start = P_HPST_in_sensor.flow_model.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ P_HPST_in_sensor.flow_model.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ P_HPST_in_sensor.flow_model.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ P_HPST_in_sensor.flow_model.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_HPST_in_sensor.flow_model.T_in
+ (start = P_HPST_in_sensor.flow_model.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_HPST_in_sensor.flow_model.T_out
+ (start = P_HPST_in_sensor.flow_model.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase P_HPST_in_sensor.flow_model.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy P_HPST_in_sensor.flow_model.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density P_HPST_in_sensor.flow_model.state_in.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature P_HPST_in_sensor.flow_model.state_in.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_HPST_in_sensor.flow_model.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase P_HPST_in_sensor.flow_model.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy P_HPST_in_sensor.flow_model.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density P_HPST_in_sensor.flow_model.state_out.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature P_HPST_in_sensor.flow_model.state_out.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_HPST_in_sensor.flow_model.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ P_HPST_in_sensor.flow_model.DP(start = P_HPST_in_sensor.flow_model.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power P_HPST_in_sensor.flow_model.W(
+ start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ P_HPST_in_sensor.flow_model.DH(start = P_HPST_in_sensor.flow_model.h_out_0-
+ P_HPST_in_sensor.flow_model.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ P_HPST_in_sensor.flow_model.DT(start = P_HPST_in_sensor.flow_model.T_out_0-
+ P_HPST_in_sensor.flow_model.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_HPST_in_sensor.flow_model.C_in.Q(start = P_HPST_in_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_HPST_in_sensor.flow_model.C_in.P
+ (start = P_HPST_in_sensor.flow_model.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_HPST_in_sensor.flow_model.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction P_HPST_in_sensor.flow_model.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ P_HPST_in_sensor.flow_model.C_out.Q(start = -P_HPST_in_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_HPST_in_sensor.flow_model.C_out.P
+ (start = P_HPST_in_sensor.flow_model.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_HPST_in_sensor.flow_model.C_out.h_outflow
+ (start = P_HPST_in_sensor.flow_model.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction P_HPST_in_sensor.flow_model.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_HPST_in_sensor.flow_model.h
+ (start = P_HPST_in_sensor.flow_model.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_HPST_in_sensor.flow_model.P
+ (start = P_HPST_in_sensor.flow_model.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_HPST_in_sensor.flow_model.T
+ (start = P_HPST_in_sensor.flow_model.T_0) "Temperature of the fluid into the component";
+ Real P_HPST_in_sensor.P_barG(start = P_HPST_in_sensor.P_0*1E-05-1, nominal =
+ 100000.0);
+ Real P_HPST_in_sensor.P_psiG(start = P_HPST_in_sensor.P_0*0.000145038-
+ 14.50377377, nominal = 14.5038);
+ Real P_HPST_in_sensor.P_MPaG(start = P_HPST_in_sensor.P_0*1E-06-0.1,
+ nominal = 0.09999999999999999);
+ Real P_HPST_in_sensor.P_kPaG(start = P_HPST_in_sensor.P_0*0.001-100,
+ nominal = 100.0);
+ Real P_HPST_in_sensor.P_barA(start = P_HPST_in_sensor.P_0*1E-05, nominal = 1.0,
+ unit = "bar");
+ Real P_HPST_in_sensor.P_psiA(start = P_HPST_in_sensor.P_0*0.000145038,
+ nominal = 14.5038);
+ Real P_HPST_in_sensor.P_MPaA(start = P_HPST_in_sensor.P_0*1E-06, nominal =
+ 0.09999999999999999);
+ Real P_HPST_in_sensor.P_kPaA(start = P_HPST_in_sensor.P_0*0.001, nominal =
+ 100.0);
+ Real P_HPST_in_sensor.P_inHg(start = P_HPST_in_sensor.P_0*0.0002953006,
+ nominal = 29.530060000000002);
+ Real P_HPST_in_sensor.P_mbar(start = P_HPST_in_sensor.P_0*0.01, nominal =
+ 1000.0, unit = "mbar");
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal P_HPST_in_sensor.P_sensor
+ (start = P_HPST_in_sensor.init_P);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPsteamTurbine.h_in
+ (start = HPsteamTurbine.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPsteamTurbine.h_out
+ (start = HPsteamTurbine.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ HPsteamTurbine.Q(start = HPsteamTurbine.Q_0) "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPsteamTurbine.P_in(
+ start = HPsteamTurbine.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPsteamTurbine.P_out(
+ start = HPsteamTurbine.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction HPsteamTurbine.Xi[0]
+ "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density HPsteamTurbine.rho_in(
+ start = HPsteamTurbine.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density HPsteamTurbine.rho_out(
+ start = HPsteamTurbine.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density HPsteamTurbine.rho(start =
+ HPsteamTurbine.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ HPsteamTurbine.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ HPsteamTurbine.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ HPsteamTurbine.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature HPsteamTurbine.T_in(
+ start = HPsteamTurbine.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature HPsteamTurbine.T_out(
+ start = HPsteamTurbine.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase HPsteamTurbine.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy HPsteamTurbine.state_in.h(
+ start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density HPsteamTurbine.state_in.d(start = 150,
+ nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature HPsteamTurbine.state_in.T(start = 500,
+ nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure HPsteamTurbine.state_in.p(
+ start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase HPsteamTurbine.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy HPsteamTurbine.state_out.h(
+ start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density HPsteamTurbine.state_out.d(start = 150,
+ nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature HPsteamTurbine.state_out.T(
+ start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure HPsteamTurbine.state_out.p(
+ start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ HPsteamTurbine.DP(start = HPsteamTurbine.DP_0, nominal = 6000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.Power HPsteamTurbine.W(start = 0,
+ nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ HPsteamTurbine.DH(start = HPsteamTurbine.h_out_0-HPsteamTurbine.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ HPsteamTurbine.DT(start = HPsteamTurbine.T_out_0-HPsteamTurbine.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ HPsteamTurbine.C_in.Q(start = HPsteamTurbine.Q_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPsteamTurbine.C_in.P(
+ start = HPsteamTurbine.P_in_0, nominal = 6000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPsteamTurbine.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction HPsteamTurbine.C_in.Xi_outflow[0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ HPsteamTurbine.C_out.Q(start = -HPsteamTurbine.Q_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPsteamTurbine.C_out.P(
+ start = HPsteamTurbine.P_out_0, nominal = 5500000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPsteamTurbine.C_out.h_outflow
+ (start = HPsteamTurbine.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction HPsteamTurbine.C_out.Xi_outflow[0];
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction HPsteamTurbine.x_in(
+ start = HPsteamTurbine.x_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction HPsteamTurbine.x_out(
+ start = HPsteamTurbine.x_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction HPsteamTurbine.xm(
+ start = HPsteamTurbine.xm_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPsteamTurbine.h_is
+ (start = HPsteamTurbine.h_out_0/0.8);
+ Modelica.Media.Interfaces.Types.FixedPhase HPsteamTurbine.state_is.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy HPsteamTurbine.state_is.h(
+ start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density HPsteamTurbine.state_is.d(start = 150,
+ nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature HPsteamTurbine.state_is.T(start = 500,
+ nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure HPsteamTurbine.state_is.p(
+ start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPsteamTurbine.h_vap_sat_in
+ (start = HPsteamTurbine.h_vap_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPsteamTurbine.h_vap_sat_out
+ (start = HPsteamTurbine.h_vap_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPsteamTurbine.h_liq_sat_in
+ (start = HPsteamTurbine.h_liq_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPsteamTurbine.h_liq_sat_out
+ (start = HPsteamTurbine.h_liq_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.NegativePower HPsteamTurbine.C_W_out.W;
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal HPsteamTurbine.eta_is;
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal HPsteamTurbine.Cst;
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_HPST_out_sensor.Q(start = P_HPST_out_sensor.Q_0, nominal = 100.0)
+ "Component mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction P_HPST_out_sensor.Xi[0]
+ "Component mass fractions";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_HPST_out_sensor.P(
+ start = P_HPST_out_sensor.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_HPST_out_sensor.h
+ (start = P_HPST_out_sensor.h_0) "Enthalpy of the fluid into the component";
+ Modelica.Media.Interfaces.Types.FixedPhase P_HPST_out_sensor.state.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy P_HPST_out_sensor.state.h(
+ start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density P_HPST_out_sensor.state.d(start = 150,
+ nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature P_HPST_out_sensor.state.T(start = 500,
+ nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_HPST_out_sensor.state.p(
+ start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate P_HPST_out_sensor.mass_flow_rate_bias
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_HPST_out_sensor.C_in.Q(start = P_HPST_out_sensor.Q_0, nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_HPST_out_sensor.C_in.P(
+ start = P_HPST_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_HPST_out_sensor.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction P_HPST_out_sensor.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ P_HPST_out_sensor.C_out.Q(start = -P_HPST_out_sensor.Q_0, nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_HPST_out_sensor.C_out.P(
+ start = P_HPST_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_HPST_out_sensor.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction P_HPST_out_sensor.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_HPST_out_sensor.flow_model.h_in
+ (start = P_HPST_out_sensor.flow_model.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_HPST_out_sensor.flow_model.h_out
+ (start = P_HPST_out_sensor.flow_model.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_HPST_out_sensor.flow_model.Q(start = P_HPST_out_sensor.flow_model.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_HPST_out_sensor.flow_model.P_in
+ (start = P_HPST_out_sensor.flow_model.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_HPST_out_sensor.flow_model.P_out
+ (start = P_HPST_out_sensor.flow_model.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction P_HPST_out_sensor.flow_model.Xi
+ [0] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_HPST_out_sensor.flow_model.rho_in
+ (start = P_HPST_out_sensor.flow_model.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_HPST_out_sensor.flow_model.rho_out
+ (start = P_HPST_out_sensor.flow_model.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_HPST_out_sensor.flow_model.rho
+ (start = P_HPST_out_sensor.flow_model.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ P_HPST_out_sensor.flow_model.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ P_HPST_out_sensor.flow_model.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ P_HPST_out_sensor.flow_model.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_HPST_out_sensor.flow_model.T_in
+ (start = P_HPST_out_sensor.flow_model.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_HPST_out_sensor.flow_model.T_out
+ (start = P_HPST_out_sensor.flow_model.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase P_HPST_out_sensor.flow_model.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy P_HPST_out_sensor.flow_model.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density P_HPST_out_sensor.flow_model.state_in.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature P_HPST_out_sensor.flow_model.state_in.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_HPST_out_sensor.flow_model.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase P_HPST_out_sensor.flow_model.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy P_HPST_out_sensor.flow_model.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density P_HPST_out_sensor.flow_model.state_out.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature P_HPST_out_sensor.flow_model.state_out.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_HPST_out_sensor.flow_model.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ P_HPST_out_sensor.flow_model.DP(start = P_HPST_out_sensor.flow_model.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power P_HPST_out_sensor.flow_model.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ P_HPST_out_sensor.flow_model.DH(start = P_HPST_out_sensor.flow_model.h_out_0
+ -P_HPST_out_sensor.flow_model.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ P_HPST_out_sensor.flow_model.DT(start = P_HPST_out_sensor.flow_model.T_out_0
+ -P_HPST_out_sensor.flow_model.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_HPST_out_sensor.flow_model.C_in.Q(start = P_HPST_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_HPST_out_sensor.flow_model.C_in.P
+ (start = P_HPST_out_sensor.flow_model.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_HPST_out_sensor.flow_model.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction P_HPST_out_sensor.flow_model.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ P_HPST_out_sensor.flow_model.C_out.Q(start = -P_HPST_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_HPST_out_sensor.flow_model.C_out.P
+ (start = P_HPST_out_sensor.flow_model.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_HPST_out_sensor.flow_model.C_out.h_outflow
+ (start = P_HPST_out_sensor.flow_model.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction P_HPST_out_sensor.flow_model.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_HPST_out_sensor.flow_model.h
+ (start = P_HPST_out_sensor.flow_model.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_HPST_out_sensor.flow_model.P
+ (start = P_HPST_out_sensor.flow_model.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_HPST_out_sensor.flow_model.T
+ (start = P_HPST_out_sensor.flow_model.T_0) "Temperature of the fluid into the component";
+ Real P_HPST_out_sensor.P_barG(start = P_HPST_out_sensor.P_0*1E-05-1,
+ nominal = 100000.0);
+ Real P_HPST_out_sensor.P_psiG(start = P_HPST_out_sensor.P_0*0.000145038-
+ 14.50377377, nominal = 14.5038);
+ Real P_HPST_out_sensor.P_MPaG(start = P_HPST_out_sensor.P_0*1E-06-0.1,
+ nominal = 0.09999999999999999);
+ Real P_HPST_out_sensor.P_kPaG(start = P_HPST_out_sensor.P_0*0.001-100,
+ nominal = 100.0);
+ Real P_HPST_out_sensor.P_barA(start = P_HPST_out_sensor.P_0*1E-05, nominal =
+ 1.0, unit = "bar");
+ Real P_HPST_out_sensor.P_psiA(start = P_HPST_out_sensor.P_0*0.000145038,
+ nominal = 14.5038);
+ Real P_HPST_out_sensor.P_MPaA(start = P_HPST_out_sensor.P_0*1E-06, nominal =
+ 0.09999999999999999);
+ Real P_HPST_out_sensor.P_kPaA(start = P_HPST_out_sensor.P_0*0.001, nominal =
+ 100.0);
+ Real P_HPST_out_sensor.P_inHg(start = P_HPST_out_sensor.P_0*0.0002953006,
+ nominal = 29.530060000000002);
+ Real P_HPST_out_sensor.P_mbar(start = P_HPST_out_sensor.P_0*0.01, nominal =
+ 1000.0, unit = "mbar");
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal P_HPST_out_sensor.P_sensor
+ (start = P_HPST_out_sensor.init_P);
+ MetroscopeModelingLibrary.Utilities.Units.Power W_ST_out_sensor.W;
+ Real W_ST_out_sensor.W_MW(start = 100, nominal = 100.0, min = 0.0);
+ MetroscopeModelingLibrary.Utilities.Units.PositivePower W_ST_out_sensor.C_in.W;
+ MetroscopeModelingLibrary.Utilities.Units.NegativePower W_ST_out_sensor.C_out.W;
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal W_ST_out_sensor.W_sensor;
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputHeight condenser.water_height;
+ MetroscopeModelingLibrary.Utilities.Units.Power condenser.W;
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate condenser.Q_cold(
+ start = condenser.Q_cold_0);
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate condenser.Q_hot(
+ start = condenser.Q_hot_0);
+ MetroscopeModelingLibrary.Utilities.Units.Temperature condenser.T_cold_in(
+ start = condenser.T_cold_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.Temperature condenser.T_cold_out(
+ start = condenser.T_cold_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.Temperature condenser.T_hot_in(
+ start = condenser.T_hot_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.Temperature condenser.T_hot_out(
+ start = condenser.T_hot_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.P_tot(start =
+ condenser.Psat_0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.Psat(start =
+ condenser.Psat_0, nominal = 5000.0);
+ MetroscopeModelingLibrary.Utilities.Units.Temperature condenser.Tsat(start =
+ condenser.Tsat_0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.P_incond(start =
+ 0.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ condenser.water_height_DP(start = condenser.water_height_DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputReal condenser.C_incond(
+ start = 0, unit = "mol/m3", min = 0.0) "Incondensable molar concentration";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputPressure
+ condenser.P_offset(start = 0) "Offset correction for ideal gas law";
+ MetroscopeModelingLibrary.Utilities.Units.Percentage condenser.fouling(
+ start = 0, nominal = 10.0);
+ Real condenser.air_intake(start = 0, nominal = 0.001, unit = "mol/m3", min =
+ 0.0);
+ MetroscopeModelingLibrary.Utilities.Units.Percentage condenser.Qv_cold_in_decrease
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ condenser.C_cold_in.Q(start = condenser.Q_cold_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.C_cold_in.P(
+ start = 100000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy condenser.C_cold_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction condenser.C_cold_in.Xi_outflow[0];
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ condenser.C_hot_in.Q(start = condenser.Q_hot_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.C_hot_in.P(
+ start = condenser.Psat_0, nominal = 5000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy condenser.C_hot_in.h_outflow
+ (start = 0.0);
+ Modelica.Media.Interfaces.Types.MassFraction condenser.C_hot_in.Xi_outflow[0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ condenser.C_hot_out.Q(start = -condenser.Q_hot_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.C_hot_out.P(
+ start = condenser.Psat_0+condenser.water_height_DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy condenser.C_hot_out.h_outflow
+ (start = condenser.h_liq_sat_0);
+ Modelica.Media.Interfaces.Types.MassFraction condenser.C_hot_out.Xi_outflow[0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ condenser.C_cold_out.Q(start = -condenser.Q_cold_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.C_cold_out.P(
+ start = condenser.P_cold_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy condenser.C_cold_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction condenser.C_cold_out.Xi_outflow[0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy condenser.cold_side_pipe.h_in
+ (start = condenser.cold_side_pipe.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy condenser.cold_side_pipe.h_out
+ (start = condenser.cold_side_pipe.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ condenser.cold_side_pipe.Q(start = condenser.cold_side_pipe.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.cold_side_pipe.P_in
+ (start = condenser.cold_side_pipe.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.cold_side_pipe.P_out
+ (start = condenser.cold_side_pipe.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction condenser.cold_side_pipe.Xi
+ [0] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density condenser.cold_side_pipe.rho_in
+ (start = condenser.cold_side_pipe.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density condenser.cold_side_pipe.rho_out
+ (start = condenser.cold_side_pipe.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density condenser.cold_side_pipe.rho
+ (start = condenser.cold_side_pipe.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ condenser.cold_side_pipe.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ condenser.cold_side_pipe.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ condenser.cold_side_pipe.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature condenser.cold_side_pipe.T_in
+ (start = condenser.cold_side_pipe.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature condenser.cold_side_pipe.T_out
+ (start = condenser.cold_side_pipe.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase condenser.cold_side_pipe.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy condenser.cold_side_pipe.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density condenser.cold_side_pipe.state_in.d(
+ start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature condenser.cold_side_pipe.state_in.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure condenser.cold_side_pipe.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase condenser.cold_side_pipe.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy condenser.cold_side_pipe.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density condenser.cold_side_pipe.state_out.d(
+ start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature condenser.cold_side_pipe.state_out.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure condenser.cold_side_pipe.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ condenser.cold_side_pipe.DP(start = condenser.cold_side_pipe.DP_0,
+ nominal = 500000.0);
+ MetroscopeModelingLibrary.Utilities.Units.Power condenser.cold_side_pipe.W(
+ start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ condenser.cold_side_pipe.DH(start = condenser.cold_side_pipe.h_out_0-
+ condenser.cold_side_pipe.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ condenser.cold_side_pipe.DT(start = condenser.cold_side_pipe.T_out_0-
+ condenser.cold_side_pipe.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ condenser.cold_side_pipe.C_in.Q(start = condenser.cold_side_pipe.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.cold_side_pipe.C_in.P
+ (start = condenser.cold_side_pipe.P_in_0, nominal = 500000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy condenser.cold_side_pipe.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction condenser.cold_side_pipe.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ condenser.cold_side_pipe.C_out.Q(start = -condenser.cold_side_pipe.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.cold_side_pipe.C_out.P
+ (start = condenser.cold_side_pipe.P_out_0, nominal = 400000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy condenser.cold_side_pipe.C_out.h_outflow
+ (start = condenser.cold_side_pipe.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction condenser.cold_side_pipe.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy condenser.cold_side_pipe.h
+ (start = condenser.cold_side_pipe.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Percentage condenser.cold_side_pipe.fouling;
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal condenser.cold_side_pipe.Kfr
+ (start = condenser.cold_side_pipe.Kfr_constant);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy condenser.hot_side.h_in
+ (start = condenser.hot_side.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy condenser.hot_side.h_out
+ (start = condenser.hot_side.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ condenser.hot_side.Q(start = condenser.hot_side.Q_0) "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.hot_side.P_in(
+ start = condenser.hot_side.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.hot_side.P_out(
+ start = condenser.hot_side.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction condenser.hot_side.Xi[0]
+ "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density condenser.hot_side.rho_in(
+ start = condenser.hot_side.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density condenser.hot_side.rho_out(
+ start = condenser.hot_side.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density condenser.hot_side.rho(
+ start = condenser.hot_side.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ condenser.hot_side.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ condenser.hot_side.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ condenser.hot_side.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature condenser.hot_side.T_in(
+ start = condenser.hot_side.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature condenser.hot_side.T_out
+ (start = condenser.hot_side.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase condenser.hot_side.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy condenser.hot_side.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density condenser.hot_side.state_in.d(start = 150,
+ nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature condenser.hot_side.state_in.T(
+ start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure condenser.hot_side.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase condenser.hot_side.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy condenser.hot_side.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density condenser.hot_side.state_out.d(
+ start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature condenser.hot_side.state_out.T(
+ start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure condenser.hot_side.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ condenser.hot_side.DP(start = condenser.hot_side.DP_0, nominal = 5000.0);
+ MetroscopeModelingLibrary.Utilities.Units.Power condenser.hot_side.W(start = 0,
+ nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ condenser.hot_side.DH(start = condenser.hot_side.h_out_0-condenser.hot_side.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ condenser.hot_side.DT(start = condenser.hot_side.T_out_0-condenser.hot_side.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ condenser.hot_side.C_in.Q(start = condenser.hot_side.Q_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.hot_side.C_in.P(
+ start = condenser.hot_side.P_in_0, nominal = 5000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy condenser.hot_side.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction condenser.hot_side.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ condenser.hot_side.C_out.Q(start = -condenser.hot_side.Q_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.hot_side.C_out.P(
+ start = condenser.hot_side.P_out_0, nominal = 5000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy condenser.hot_side.C_out.h_outflow
+ (start = condenser.hot_side.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction condenser.hot_side.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.hot_side.P(
+ start = condenser.hot_side.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputPower condenser.hot_side.W_input
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy condenser.cold_side.h_in
+ (start = condenser.cold_side.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy condenser.cold_side.h_out
+ (start = condenser.cold_side.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ condenser.cold_side.Q(start = condenser.cold_side.Q_0) "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.cold_side.P_in(
+ start = condenser.cold_side.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.cold_side.P_out(
+ start = condenser.cold_side.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction condenser.cold_side.Xi[0]
+ "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density condenser.cold_side.rho_in(
+ start = condenser.cold_side.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density condenser.cold_side.rho_out(
+ start = condenser.cold_side.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density condenser.cold_side.rho(
+ start = condenser.cold_side.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ condenser.cold_side.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ condenser.cold_side.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ condenser.cold_side.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature condenser.cold_side.T_in
+ (start = condenser.cold_side.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature condenser.cold_side.T_out
+ (start = condenser.cold_side.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase condenser.cold_side.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy condenser.cold_side.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density condenser.cold_side.state_in.d(
+ start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature condenser.cold_side.state_in.T(
+ start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure condenser.cold_side.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase condenser.cold_side.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy condenser.cold_side.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density condenser.cold_side.state_out.d(
+ start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature condenser.cold_side.state_out.T(
+ start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure condenser.cold_side.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ condenser.cold_side.DP(start = condenser.cold_side.DP_0, nominal = 400000.0);
+ MetroscopeModelingLibrary.Utilities.Units.Power condenser.cold_side.W(start = 0,
+ nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ condenser.cold_side.DH(start = condenser.cold_side.h_out_0-condenser.cold_side.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ condenser.cold_side.DT(start = condenser.cold_side.T_out_0-condenser.cold_side.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ condenser.cold_side.C_in.Q(start = condenser.cold_side.Q_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.cold_side.C_in.P(
+ start = condenser.cold_side.P_in_0, nominal = 400000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy condenser.cold_side.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction condenser.cold_side.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ condenser.cold_side.C_out.Q(start = -condenser.cold_side.Q_0, nominal =
+ 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.cold_side.C_out.P
+ (start = condenser.cold_side.P_out_0, nominal = 400000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy condenser.cold_side.C_out.h_outflow
+ (start = condenser.cold_side.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction condenser.cold_side.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.cold_side.P(
+ start = condenser.cold_side.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputPower condenser.cold_side.W_input
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy condenser.water_height_pipe.h_in
+ (start = condenser.water_height_pipe.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy condenser.water_height_pipe.h_out
+ (start = condenser.water_height_pipe.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ condenser.water_height_pipe.Q(start = condenser.water_height_pipe.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.water_height_pipe.P_in
+ (start = condenser.water_height_pipe.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.water_height_pipe.P_out
+ (start = condenser.water_height_pipe.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction condenser.water_height_pipe.Xi
+ [0] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density condenser.water_height_pipe.rho_in
+ (start = condenser.water_height_pipe.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density condenser.water_height_pipe.rho_out
+ (start = condenser.water_height_pipe.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density condenser.water_height_pipe.rho
+ (start = condenser.water_height_pipe.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ condenser.water_height_pipe.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ condenser.water_height_pipe.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ condenser.water_height_pipe.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature condenser.water_height_pipe.T_in
+ (start = condenser.water_height_pipe.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature condenser.water_height_pipe.T_out
+ (start = condenser.water_height_pipe.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase condenser.water_height_pipe.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy condenser.water_height_pipe.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density condenser.water_height_pipe.state_in.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature condenser.water_height_pipe.state_in.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure condenser.water_height_pipe.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase condenser.water_height_pipe.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy condenser.water_height_pipe.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density condenser.water_height_pipe.state_out.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature condenser.water_height_pipe.state_out.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure condenser.water_height_pipe.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ condenser.water_height_pipe.DP(start = condenser.water_height_pipe.DP_0,
+ nominal = 5000.0);
+ MetroscopeModelingLibrary.Utilities.Units.Power condenser.water_height_pipe.W(
+ start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ condenser.water_height_pipe.DH(start = condenser.water_height_pipe.h_out_0-
+ condenser.water_height_pipe.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ condenser.water_height_pipe.DT(start = condenser.water_height_pipe.T_out_0-
+ condenser.water_height_pipe.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ condenser.water_height_pipe.C_in.Q(start = condenser.water_height_pipe.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.water_height_pipe.C_in.P
+ (start = condenser.water_height_pipe.P_in_0, nominal = 5000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy condenser.water_height_pipe.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction condenser.water_height_pipe.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ condenser.water_height_pipe.C_out.Q(start = -condenser.water_height_pipe.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.water_height_pipe.C_out.P
+ (start = condenser.water_height_pipe.P_out_0, nominal = 14000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy condenser.water_height_pipe.C_out.h_outflow
+ (start = condenser.water_height_pipe.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction condenser.water_height_pipe.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy condenser.water_height_pipe.h
+ (start = condenser.water_height_pipe.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal condenser.water_height_pipe.delta_z
+ (start = condenser.water_height_pipe.delta_z_constant, nominal = 10.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy condenser.incondensables_in.h_in
+ (start = condenser.incondensables_in.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy condenser.incondensables_in.h_out
+ (start = condenser.incondensables_in.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ condenser.incondensables_in.Q(start = condenser.incondensables_in.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.incondensables_in.P_in
+ (start = condenser.incondensables_in.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.incondensables_in.P_out
+ (start = condenser.incondensables_in.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction condenser.incondensables_in.Xi
+ [0] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density condenser.incondensables_in.rho_in
+ (start = condenser.incondensables_in.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density condenser.incondensables_in.rho_out
+ (start = condenser.incondensables_in.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density condenser.incondensables_in.rho
+ (start = condenser.incondensables_in.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ condenser.incondensables_in.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ condenser.incondensables_in.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ condenser.incondensables_in.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature condenser.incondensables_in.T_in
+ (start = condenser.incondensables_in.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature condenser.incondensables_in.T_out
+ (start = condenser.incondensables_in.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase condenser.incondensables_in.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy condenser.incondensables_in.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density condenser.incondensables_in.state_in.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature condenser.incondensables_in.state_in.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure condenser.incondensables_in.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase condenser.incondensables_in.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy condenser.incondensables_in.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density condenser.incondensables_in.state_out.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature condenser.incondensables_in.state_out.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure condenser.incondensables_in.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ condenser.incondensables_in.DP(start = condenser.incondensables_in.DP_0,
+ nominal = 5000.0);
+ MetroscopeModelingLibrary.Utilities.Units.Power condenser.incondensables_in.W(
+ start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ condenser.incondensables_in.DH(start = condenser.incondensables_in.h_out_0-
+ condenser.incondensables_in.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ condenser.incondensables_in.DT(start = condenser.incondensables_in.T_out_0-
+ condenser.incondensables_in.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ condenser.incondensables_in.C_in.Q(start = condenser.incondensables_in.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.incondensables_in.C_in.P
+ (start = condenser.incondensables_in.P_in_0, nominal = 5000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy condenser.incondensables_in.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction condenser.incondensables_in.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ condenser.incondensables_in.C_out.Q(start = -condenser.incondensables_in.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.incondensables_in.C_out.P
+ (start = condenser.incondensables_in.P_out_0, nominal = 5000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy condenser.incondensables_in.C_out.h_outflow
+ (start = condenser.incondensables_in.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction condenser.incondensables_in.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy condenser.incondensables_in.h
+ (start = condenser.incondensables_in.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputDifferentialPressure
+ condenser.incondensables_in.DP_input(start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy condenser.incondensables_out.h_in
+ (start = condenser.incondensables_out.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy condenser.incondensables_out.h_out
+ (start = condenser.incondensables_out.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ condenser.incondensables_out.Q(start = condenser.incondensables_out.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.incondensables_out.P_in
+ (start = condenser.incondensables_out.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.incondensables_out.P_out
+ (start = condenser.incondensables_out.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction condenser.incondensables_out.Xi
+ [0] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density condenser.incondensables_out.rho_in
+ (start = condenser.incondensables_out.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density condenser.incondensables_out.rho_out
+ (start = condenser.incondensables_out.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density condenser.incondensables_out.rho
+ (start = condenser.incondensables_out.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ condenser.incondensables_out.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ condenser.incondensables_out.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ condenser.incondensables_out.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature condenser.incondensables_out.T_in
+ (start = condenser.incondensables_out.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature condenser.incondensables_out.T_out
+ (start = condenser.incondensables_out.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase condenser.incondensables_out.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy condenser.incondensables_out.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density condenser.incondensables_out.state_in.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature condenser.incondensables_out.state_in.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure condenser.incondensables_out.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase condenser.incondensables_out.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy condenser.incondensables_out.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density condenser.incondensables_out.state_out.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature condenser.incondensables_out.state_out.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure condenser.incondensables_out.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ condenser.incondensables_out.DP(start = condenser.incondensables_out.DP_0,
+ nominal = 5000.0);
+ MetroscopeModelingLibrary.Utilities.Units.Power condenser.incondensables_out.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ condenser.incondensables_out.DH(start = condenser.incondensables_out.h_out_0
+ -condenser.incondensables_out.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ condenser.incondensables_out.DT(start = condenser.incondensables_out.T_out_0
+ -condenser.incondensables_out.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ condenser.incondensables_out.C_in.Q(start = condenser.incondensables_out.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.incondensables_out.C_in.P
+ (start = condenser.incondensables_out.P_in_0, nominal = 5000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy condenser.incondensables_out.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction condenser.incondensables_out.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ condenser.incondensables_out.C_out.Q(start = -condenser.incondensables_out.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure condenser.incondensables_out.C_out.P
+ (start = condenser.incondensables_out.P_out_0, nominal = 5000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy condenser.incondensables_out.C_out.h_outflow
+ (start = condenser.incondensables_out.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction condenser.incondensables_out.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy condenser.incondensables_out.h
+ (start = condenser.incondensables_out.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputDifferentialPressure
+ condenser.incondensables_out.DP_input(start = 0);
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal condenser.Qv_cold_in;
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal condenser.Kfr_cold;
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal condenser.Kth;
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_circulating_water_out_sensor.Q(start = T_circulating_water_out_sensor.Q_0,
+ nominal = 100.0) "Component mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction T_circulating_water_out_sensor.Xi
+ [0] "Component mass fractions";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_circulating_water_out_sensor.P
+ (start = T_circulating_water_out_sensor.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_circulating_water_out_sensor.h
+ (start = T_circulating_water_out_sensor.h_0) "Enthalpy of the fluid into the component";
+ Modelica.Media.Interfaces.Types.FixedPhase T_circulating_water_out_sensor.state.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy T_circulating_water_out_sensor.state.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density T_circulating_water_out_sensor.state.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature T_circulating_water_out_sensor.state.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure T_circulating_water_out_sensor.state.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate T_circulating_water_out_sensor.mass_flow_rate_bias
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_circulating_water_out_sensor.C_in.Q(start = T_circulating_water_out_sensor.Q_0,
+ nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_circulating_water_out_sensor.C_in.P
+ (start = T_circulating_water_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_circulating_water_out_sensor.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction T_circulating_water_out_sensor.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ T_circulating_water_out_sensor.C_out.Q(start = -T_circulating_water_out_sensor.Q_0,
+ nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_circulating_water_out_sensor.C_out.P
+ (start = T_circulating_water_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_circulating_water_out_sensor.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction T_circulating_water_out_sensor.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_circulating_water_out_sensor.flow_model.h_in
+ (start = T_circulating_water_out_sensor.flow_model.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_circulating_water_out_sensor.flow_model.h_out
+ (start = T_circulating_water_out_sensor.flow_model.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_circulating_water_out_sensor.flow_model.Q(start = T_circulating_water_out_sensor.flow_model.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_circulating_water_out_sensor.flow_model.P_in
+ (start = T_circulating_water_out_sensor.flow_model.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_circulating_water_out_sensor.flow_model.P_out
+ (start = T_circulating_water_out_sensor.flow_model.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction T_circulating_water_out_sensor.flow_model.Xi
+ [0] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density T_circulating_water_out_sensor.flow_model.rho_in
+ (start = T_circulating_water_out_sensor.flow_model.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density T_circulating_water_out_sensor.flow_model.rho_out
+ (start = T_circulating_water_out_sensor.flow_model.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density T_circulating_water_out_sensor.flow_model.rho
+ (start = T_circulating_water_out_sensor.flow_model.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ T_circulating_water_out_sensor.flow_model.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ T_circulating_water_out_sensor.flow_model.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ T_circulating_water_out_sensor.flow_model.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_circulating_water_out_sensor.flow_model.T_in
+ (start = T_circulating_water_out_sensor.flow_model.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_circulating_water_out_sensor.flow_model.T_out
+ (start = T_circulating_water_out_sensor.flow_model.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase T_circulating_water_out_sensor.flow_model.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy T_circulating_water_out_sensor.flow_model.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density T_circulating_water_out_sensor.flow_model.state_in.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature T_circulating_water_out_sensor.flow_model.state_in.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure T_circulating_water_out_sensor.flow_model.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase T_circulating_water_out_sensor.flow_model.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy T_circulating_water_out_sensor.flow_model.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density T_circulating_water_out_sensor.flow_model.state_out.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature T_circulating_water_out_sensor.flow_model.state_out.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure T_circulating_water_out_sensor.flow_model.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ T_circulating_water_out_sensor.flow_model.DP(start = T_circulating_water_out_sensor.flow_model.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power T_circulating_water_out_sensor.flow_model.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ T_circulating_water_out_sensor.flow_model.DH(start = T_circulating_water_out_sensor.flow_model.h_out_0
+ -T_circulating_water_out_sensor.flow_model.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ T_circulating_water_out_sensor.flow_model.DT(start = T_circulating_water_out_sensor.flow_model.T_out_0
+ -T_circulating_water_out_sensor.flow_model.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_circulating_water_out_sensor.flow_model.C_in.Q(start = T_circulating_water_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_circulating_water_out_sensor.flow_model.C_in.P
+ (start = T_circulating_water_out_sensor.flow_model.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_circulating_water_out_sensor.flow_model.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction T_circulating_water_out_sensor.flow_model.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ T_circulating_water_out_sensor.flow_model.C_out.Q(start = -T_circulating_water_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_circulating_water_out_sensor.flow_model.C_out.P
+ (start = T_circulating_water_out_sensor.flow_model.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_circulating_water_out_sensor.flow_model.C_out.h_outflow
+ (start = T_circulating_water_out_sensor.flow_model.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction T_circulating_water_out_sensor.flow_model.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_circulating_water_out_sensor.flow_model.h
+ (start = T_circulating_water_out_sensor.flow_model.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_circulating_water_out_sensor.flow_model.P
+ (start = T_circulating_water_out_sensor.flow_model.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_circulating_water_out_sensor.flow_model.T
+ (start = T_circulating_water_out_sensor.flow_model.T_0) "Temperature of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_circulating_water_out_sensor.T
+ (start = T_circulating_water_out_sensor.T_0);
+ Real T_circulating_water_out_sensor.T_degC(start = T_circulating_water_out_sensor.T_0
+ +273.15, nominal = 573.15, unit = "degC");
+ Real T_circulating_water_out_sensor.T_degF(start = (T_circulating_water_out_sensor.T_0
+ +273.15)*1.8+32, nominal = 1063.67, unit = "degF");
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal T_circulating_water_out_sensor.T_sensor
+ (start = T_circulating_water_out_sensor.init_T);
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputSpecificEnthalpy
+ circulating_water_source.h_out(start = circulating_water_source.h_0);
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputMassFraction
+ circulating_water_source.Xi_out[0];
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputPressure
+ circulating_water_source.P_out(start = circulating_water_source.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ circulating_water_source.Q_out(start = -circulating_water_source.Q_0);
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ circulating_water_source.Qv_out(start = -circulating_water_source.Q_0/1000);
+ MetroscopeModelingLibrary.Utilities.Units.Temperature circulating_water_source.T_out
+ (start = circulating_water_source.T_0);
+ Modelica.Media.Interfaces.Types.FixedPhase circulating_water_source.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy circulating_water_source.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density circulating_water_source.state_out.d(
+ start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature circulating_water_source.state_out.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure circulating_water_source.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ circulating_water_source.C_out.Q(start = -circulating_water_source.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure circulating_water_source.C_out.P
+ (start = circulating_water_source.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy circulating_water_source.C_out.h_outflow
+ (start = circulating_water_source.h_0);
+ Modelica.Media.Interfaces.Types.MassFraction circulating_water_source.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy circulating_water_sink.h_in;
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction circulating_water_sink.Xi_in
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputPressure
+ circulating_water_sink.P_in;
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ circulating_water_sink.Q_in;
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ circulating_water_sink.Qv_in(start = 1);
+ MetroscopeModelingLibrary.Utilities.Units.Temperature circulating_water_sink.T_in;
+ Modelica.Media.Interfaces.Types.FixedPhase circulating_water_sink.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy circulating_water_sink.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density circulating_water_sink.state_in.d(
+ start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature circulating_water_sink.state_in.T(
+ start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure circulating_water_sink.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ circulating_water_sink.C_in.Q(nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure circulating_water_sink.C_in.P
+ (start = 100000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy circulating_water_sink.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction circulating_water_sink.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy pump.h_in(start =
+ pump.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy pump.h_out(start =
+ pump.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate pump.Q(start =
+ pump.Q_0) "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure pump.P_in(start =
+ pump.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure pump.P_out(start =
+ pump.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction pump.Xi[0]
+ "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density pump.rho_in(start =
+ pump.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density pump.rho_out(start =
+ pump.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density pump.rho(start = pump.rho_0)
+ "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate pump.Qv_in
+ "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate pump.Qv_out
+ "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate pump.Qv
+ "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature pump.T_in(start =
+ pump.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature pump.T_out(start =
+ pump.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase pump.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy pump.state_in.h(start =
+ 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density pump.state_in.d(start = 150,
+ nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature pump.state_in.T(start = 500,
+ nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure pump.state_in.p(start =
+ 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase pump.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy pump.state_out.h(start =
+ 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density pump.state_out.d(start = 150,
+ nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature pump.state_out.T(start = 500,
+ nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure pump.state_out.p(start =
+ 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure pump.DP(
+ start = pump.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power pump.W(start = 0, nominal =
+ 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy pump.DH(
+ start = pump.h_out_0-pump.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature pump.DT(
+ start = pump.T_out_0-pump.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate pump.C_in.Q(
+ start = pump.Q_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure pump.C_in.P(start =
+ pump.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy pump.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction pump.C_in.Xi_outflow[0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate pump.C_out.Q(
+ start = -pump.Q_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure pump.C_out.P(start =
+ pump.P_out_0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy pump.C_out.h_outflow
+ (start = pump.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction pump.C_out.Xi_outflow[0];
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal pump.rh;
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal pump.hn;
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_pump_out_sensor.Q(start = T_pump_out_sensor.Q_0, nominal = 100.0)
+ "Component mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction T_pump_out_sensor.Xi[0]
+ "Component mass fractions";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_pump_out_sensor.P(
+ start = T_pump_out_sensor.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_pump_out_sensor.h
+ (start = T_pump_out_sensor.h_0) "Enthalpy of the fluid into the component";
+ Modelica.Media.Interfaces.Types.FixedPhase T_pump_out_sensor.state.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy T_pump_out_sensor.state.h(
+ start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density T_pump_out_sensor.state.d(start = 150,
+ nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature T_pump_out_sensor.state.T(start = 500,
+ nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure T_pump_out_sensor.state.p(
+ start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate T_pump_out_sensor.mass_flow_rate_bias
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_pump_out_sensor.C_in.Q(start = T_pump_out_sensor.Q_0, nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_pump_out_sensor.C_in.P(
+ start = T_pump_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_pump_out_sensor.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction T_pump_out_sensor.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ T_pump_out_sensor.C_out.Q(start = -T_pump_out_sensor.Q_0, nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_pump_out_sensor.C_out.P(
+ start = T_pump_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_pump_out_sensor.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction T_pump_out_sensor.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_pump_out_sensor.flow_model.h_in
+ (start = T_pump_out_sensor.flow_model.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_pump_out_sensor.flow_model.h_out
+ (start = T_pump_out_sensor.flow_model.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_pump_out_sensor.flow_model.Q(start = T_pump_out_sensor.flow_model.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_pump_out_sensor.flow_model.P_in
+ (start = T_pump_out_sensor.flow_model.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_pump_out_sensor.flow_model.P_out
+ (start = T_pump_out_sensor.flow_model.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction T_pump_out_sensor.flow_model.Xi
+ [0] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density T_pump_out_sensor.flow_model.rho_in
+ (start = T_pump_out_sensor.flow_model.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density T_pump_out_sensor.flow_model.rho_out
+ (start = T_pump_out_sensor.flow_model.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density T_pump_out_sensor.flow_model.rho
+ (start = T_pump_out_sensor.flow_model.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ T_pump_out_sensor.flow_model.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ T_pump_out_sensor.flow_model.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ T_pump_out_sensor.flow_model.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_pump_out_sensor.flow_model.T_in
+ (start = T_pump_out_sensor.flow_model.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_pump_out_sensor.flow_model.T_out
+ (start = T_pump_out_sensor.flow_model.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase T_pump_out_sensor.flow_model.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy T_pump_out_sensor.flow_model.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density T_pump_out_sensor.flow_model.state_in.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature T_pump_out_sensor.flow_model.state_in.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure T_pump_out_sensor.flow_model.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase T_pump_out_sensor.flow_model.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy T_pump_out_sensor.flow_model.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density T_pump_out_sensor.flow_model.state_out.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature T_pump_out_sensor.flow_model.state_out.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure T_pump_out_sensor.flow_model.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ T_pump_out_sensor.flow_model.DP(start = T_pump_out_sensor.flow_model.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power T_pump_out_sensor.flow_model.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ T_pump_out_sensor.flow_model.DH(start = T_pump_out_sensor.flow_model.h_out_0
+ -T_pump_out_sensor.flow_model.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ T_pump_out_sensor.flow_model.DT(start = T_pump_out_sensor.flow_model.T_out_0
+ -T_pump_out_sensor.flow_model.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_pump_out_sensor.flow_model.C_in.Q(start = T_pump_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_pump_out_sensor.flow_model.C_in.P
+ (start = T_pump_out_sensor.flow_model.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_pump_out_sensor.flow_model.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction T_pump_out_sensor.flow_model.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ T_pump_out_sensor.flow_model.C_out.Q(start = -T_pump_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_pump_out_sensor.flow_model.C_out.P
+ (start = T_pump_out_sensor.flow_model.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_pump_out_sensor.flow_model.C_out.h_outflow
+ (start = T_pump_out_sensor.flow_model.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction T_pump_out_sensor.flow_model.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_pump_out_sensor.flow_model.h
+ (start = T_pump_out_sensor.flow_model.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_pump_out_sensor.flow_model.P
+ (start = T_pump_out_sensor.flow_model.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_pump_out_sensor.flow_model.T
+ (start = T_pump_out_sensor.flow_model.T_0) "Temperature of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_pump_out_sensor.T(
+ start = T_pump_out_sensor.T_0);
+ Real T_pump_out_sensor.T_degC(start = T_pump_out_sensor.T_0+273.15, nominal =
+ 573.15, unit = "degC");
+ Real T_pump_out_sensor.T_degF(start = (T_pump_out_sensor.T_0+273.15)*1.8+32,
+ nominal = 1063.67, unit = "degF");
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal T_pump_out_sensor.T_sensor
+ (start = T_pump_out_sensor.init_T);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_pump_out_sensor.Q(start = P_pump_out_sensor.Q_0, nominal = 100.0)
+ "Component mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction P_pump_out_sensor.Xi[0]
+ "Component mass fractions";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_pump_out_sensor.P(
+ start = P_pump_out_sensor.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_pump_out_sensor.h
+ (start = P_pump_out_sensor.h_0) "Enthalpy of the fluid into the component";
+ Modelica.Media.Interfaces.Types.FixedPhase P_pump_out_sensor.state.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy P_pump_out_sensor.state.h(
+ start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density P_pump_out_sensor.state.d(start = 150,
+ nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature P_pump_out_sensor.state.T(start = 500,
+ nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_pump_out_sensor.state.p(
+ start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate P_pump_out_sensor.mass_flow_rate_bias
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_pump_out_sensor.C_in.Q(start = P_pump_out_sensor.Q_0, nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_pump_out_sensor.C_in.P(
+ start = P_pump_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_pump_out_sensor.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction P_pump_out_sensor.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ P_pump_out_sensor.C_out.Q(start = -P_pump_out_sensor.Q_0, nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_pump_out_sensor.C_out.P(
+ start = P_pump_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_pump_out_sensor.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction P_pump_out_sensor.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_pump_out_sensor.flow_model.h_in
+ (start = P_pump_out_sensor.flow_model.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_pump_out_sensor.flow_model.h_out
+ (start = P_pump_out_sensor.flow_model.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_pump_out_sensor.flow_model.Q(start = P_pump_out_sensor.flow_model.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_pump_out_sensor.flow_model.P_in
+ (start = P_pump_out_sensor.flow_model.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_pump_out_sensor.flow_model.P_out
+ (start = P_pump_out_sensor.flow_model.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction P_pump_out_sensor.flow_model.Xi
+ [0] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_pump_out_sensor.flow_model.rho_in
+ (start = P_pump_out_sensor.flow_model.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_pump_out_sensor.flow_model.rho_out
+ (start = P_pump_out_sensor.flow_model.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_pump_out_sensor.flow_model.rho
+ (start = P_pump_out_sensor.flow_model.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ P_pump_out_sensor.flow_model.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ P_pump_out_sensor.flow_model.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ P_pump_out_sensor.flow_model.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_pump_out_sensor.flow_model.T_in
+ (start = P_pump_out_sensor.flow_model.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_pump_out_sensor.flow_model.T_out
+ (start = P_pump_out_sensor.flow_model.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase P_pump_out_sensor.flow_model.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy P_pump_out_sensor.flow_model.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density P_pump_out_sensor.flow_model.state_in.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature P_pump_out_sensor.flow_model.state_in.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_pump_out_sensor.flow_model.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase P_pump_out_sensor.flow_model.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy P_pump_out_sensor.flow_model.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density P_pump_out_sensor.flow_model.state_out.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature P_pump_out_sensor.flow_model.state_out.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_pump_out_sensor.flow_model.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ P_pump_out_sensor.flow_model.DP(start = P_pump_out_sensor.flow_model.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power P_pump_out_sensor.flow_model.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ P_pump_out_sensor.flow_model.DH(start = P_pump_out_sensor.flow_model.h_out_0
+ -P_pump_out_sensor.flow_model.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ P_pump_out_sensor.flow_model.DT(start = P_pump_out_sensor.flow_model.T_out_0
+ -P_pump_out_sensor.flow_model.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_pump_out_sensor.flow_model.C_in.Q(start = P_pump_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_pump_out_sensor.flow_model.C_in.P
+ (start = P_pump_out_sensor.flow_model.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_pump_out_sensor.flow_model.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction P_pump_out_sensor.flow_model.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ P_pump_out_sensor.flow_model.C_out.Q(start = -P_pump_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_pump_out_sensor.flow_model.C_out.P
+ (start = P_pump_out_sensor.flow_model.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_pump_out_sensor.flow_model.C_out.h_outflow
+ (start = P_pump_out_sensor.flow_model.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction P_pump_out_sensor.flow_model.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_pump_out_sensor.flow_model.h
+ (start = P_pump_out_sensor.flow_model.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_pump_out_sensor.flow_model.P
+ (start = P_pump_out_sensor.flow_model.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_pump_out_sensor.flow_model.T
+ (start = P_pump_out_sensor.flow_model.T_0) "Temperature of the fluid into the component";
+ Real P_pump_out_sensor.P_barG(start = P_pump_out_sensor.P_0*1E-05-1,
+ nominal = 100000.0);
+ Real P_pump_out_sensor.P_psiG(start = P_pump_out_sensor.P_0*0.000145038-
+ 14.50377377, nominal = 14.5038);
+ Real P_pump_out_sensor.P_MPaG(start = P_pump_out_sensor.P_0*1E-06-0.1,
+ nominal = 0.09999999999999999);
+ Real P_pump_out_sensor.P_kPaG(start = P_pump_out_sensor.P_0*0.001-100,
+ nominal = 100.0);
+ Real P_pump_out_sensor.P_barA(start = P_pump_out_sensor.P_0*1E-05, nominal =
+ 1.0, unit = "bar");
+ Real P_pump_out_sensor.P_psiA(start = P_pump_out_sensor.P_0*0.000145038,
+ nominal = 14.5038);
+ Real P_pump_out_sensor.P_MPaA(start = P_pump_out_sensor.P_0*1E-06, nominal =
+ 0.09999999999999999);
+ Real P_pump_out_sensor.P_kPaA(start = P_pump_out_sensor.P_0*0.001, nominal =
+ 100.0);
+ Real P_pump_out_sensor.P_inHg(start = P_pump_out_sensor.P_0*0.0002953006,
+ nominal = 29.530060000000002);
+ Real P_pump_out_sensor.P_mbar(start = P_pump_out_sensor.P_0*0.01, nominal =
+ 1000.0, unit = "mbar");
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal P_pump_out_sensor.P_sensor
+ (start = P_pump_out_sensor.init_P);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ loopBreaker.C_in.Q(start = 500, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure loopBreaker.C_in.P(start =
+ 100000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy loopBreaker.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction loopBreaker.C_in.Xi_outflow[0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ loopBreaker.C_out.Q(start = -500, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure loopBreaker.C_out.P(
+ start = 100000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy loopBreaker.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction loopBreaker.C_out.Xi_outflow[0];
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputReal loopBreaker.loop_flow_error;
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Q_pump_out_sensor.Q(start = Q_pump_out_sensor.Q_0, nominal = 100.0)
+ "Component mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction Q_pump_out_sensor.Xi[0]
+ "Component mass fractions";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Q_pump_out_sensor.P(
+ start = Q_pump_out_sensor.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Q_pump_out_sensor.h
+ (start = Q_pump_out_sensor.h_0) "Enthalpy of the fluid into the component";
+ Modelica.Media.Interfaces.Types.FixedPhase Q_pump_out_sensor.state.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy Q_pump_out_sensor.state.h(
+ start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density Q_pump_out_sensor.state.d(start = 150,
+ nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature Q_pump_out_sensor.state.T(start = 500,
+ nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure Q_pump_out_sensor.state.p(
+ start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate Q_pump_out_sensor.mass_flow_rate_bias
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Q_pump_out_sensor.C_in.Q(start = Q_pump_out_sensor.Q_0, nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Q_pump_out_sensor.C_in.P(
+ start = Q_pump_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Q_pump_out_sensor.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction Q_pump_out_sensor.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ Q_pump_out_sensor.C_out.Q(start = -Q_pump_out_sensor.Q_0, nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Q_pump_out_sensor.C_out.P(
+ start = Q_pump_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Q_pump_out_sensor.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction Q_pump_out_sensor.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Q_pump_out_sensor.flow_model.h_in
+ (start = Q_pump_out_sensor.flow_model.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Q_pump_out_sensor.flow_model.h_out
+ (start = Q_pump_out_sensor.flow_model.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Q_pump_out_sensor.flow_model.Q(start = Q_pump_out_sensor.flow_model.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Q_pump_out_sensor.flow_model.P_in
+ (start = Q_pump_out_sensor.flow_model.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Q_pump_out_sensor.flow_model.P_out
+ (start = Q_pump_out_sensor.flow_model.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction Q_pump_out_sensor.flow_model.Xi
+ [0] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density Q_pump_out_sensor.flow_model.rho_in
+ (start = Q_pump_out_sensor.flow_model.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density Q_pump_out_sensor.flow_model.rho_out
+ (start = Q_pump_out_sensor.flow_model.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density Q_pump_out_sensor.flow_model.rho
+ (start = Q_pump_out_sensor.flow_model.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ Q_pump_out_sensor.flow_model.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ Q_pump_out_sensor.flow_model.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ Q_pump_out_sensor.flow_model.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature Q_pump_out_sensor.flow_model.T_in
+ (start = Q_pump_out_sensor.flow_model.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature Q_pump_out_sensor.flow_model.T_out
+ (start = Q_pump_out_sensor.flow_model.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase Q_pump_out_sensor.flow_model.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy Q_pump_out_sensor.flow_model.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density Q_pump_out_sensor.flow_model.state_in.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature Q_pump_out_sensor.flow_model.state_in.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure Q_pump_out_sensor.flow_model.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase Q_pump_out_sensor.flow_model.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy Q_pump_out_sensor.flow_model.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density Q_pump_out_sensor.flow_model.state_out.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature Q_pump_out_sensor.flow_model.state_out.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure Q_pump_out_sensor.flow_model.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ Q_pump_out_sensor.flow_model.DP(start = Q_pump_out_sensor.flow_model.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power Q_pump_out_sensor.flow_model.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ Q_pump_out_sensor.flow_model.DH(start = Q_pump_out_sensor.flow_model.h_out_0
+ -Q_pump_out_sensor.flow_model.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ Q_pump_out_sensor.flow_model.DT(start = Q_pump_out_sensor.flow_model.T_out_0
+ -Q_pump_out_sensor.flow_model.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Q_pump_out_sensor.flow_model.C_in.Q(start = Q_pump_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Q_pump_out_sensor.flow_model.C_in.P
+ (start = Q_pump_out_sensor.flow_model.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Q_pump_out_sensor.flow_model.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction Q_pump_out_sensor.flow_model.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ Q_pump_out_sensor.flow_model.C_out.Q(start = -Q_pump_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Q_pump_out_sensor.flow_model.C_out.P
+ (start = Q_pump_out_sensor.flow_model.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Q_pump_out_sensor.flow_model.C_out.h_outflow
+ (start = Q_pump_out_sensor.flow_model.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction Q_pump_out_sensor.flow_model.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Q_pump_out_sensor.flow_model.h
+ (start = Q_pump_out_sensor.flow_model.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Q_pump_out_sensor.flow_model.P
+ (start = Q_pump_out_sensor.flow_model.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature Q_pump_out_sensor.flow_model.T
+ (start = Q_pump_out_sensor.flow_model.T_0) "Temperature of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.VolumeFlowRate Q_pump_out_sensor.Qv(
+ start = Q_pump_out_sensor.Qv_0);
+ Real Q_pump_out_sensor.Q_lm(start = Q_pump_out_sensor.Qv_0*60000, nominal =
+ 6000.0);
+ Real Q_pump_out_sensor.Q_th(start = Q_pump_out_sensor.Q_0*3.6, nominal = 360.0);
+ Real Q_pump_out_sensor.Q_lbs(start = Q_pump_out_sensor.Q_0*2.2046, nominal =
+ 220.46);
+ Real Q_pump_out_sensor.Q_Mlbh(start = Q_pump_out_sensor.Q_0*0.0079366414387,
+ nominal = 0.79366414387);
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal Q_pump_out_sensor.Q_sensor
+ (start = Q_pump_out_sensor.Q_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy airCompressor.h_in(
+ start = airCompressor.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy airCompressor.h_out
+ (start = 700000.0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate airCompressor.Q
+ (start = airCompressor.Q_0) "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure airCompressor.P_in(start =
+ airCompressor.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure airCompressor.P_out(
+ start = airCompressor.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction airCompressor.Xi[5]
+ "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density airCompressor.rho_in(
+ start = airCompressor.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density airCompressor.rho_out(
+ start = airCompressor.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density airCompressor.rho(start =
+ airCompressor.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ airCompressor.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ airCompressor.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ airCompressor.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature airCompressor.T_in(
+ start = airCompressor.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature airCompressor.T_out(
+ start = airCompressor.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure airCompressor.state_in.p(
+ start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature airCompressor.state_in.T(start = 500,
+ nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction airCompressor.state_in.X[5](
+ start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ Modelica.Media.Interfaces.Types.AbsolutePressure airCompressor.state_out.p(
+ start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature airCompressor.state_out.T(start = 500,
+ nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction airCompressor.state_out.X[5](
+ start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ airCompressor.DP(start = airCompressor.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power airCompressor.W(start = 0,
+ nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ airCompressor.DH(start = airCompressor.h_out_0-airCompressor.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ airCompressor.DT(start = airCompressor.T_out_0-airCompressor.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ airCompressor.C_in.Q(start = airCompressor.Q_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure airCompressor.C_in.P(
+ start = airCompressor.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy airCompressor.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction airCompressor.C_in.Xi_outflow[5](
+ start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ airCompressor.C_out.Q(start = -airCompressor.Q_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure airCompressor.C_out.P(
+ start = airCompressor.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy airCompressor.C_out.h_outflow
+ (start = airCompressor.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction airCompressor.C_out.Xi_outflow[5]
+ (start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy airCompressor.h_is(
+ start = 1000000.0) "Isentropic compression outlet enthalpy";
+ Modelica.Media.Interfaces.Types.AbsolutePressure airCompressor.state_is.p(
+ start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature airCompressor.state_is.T(start = 500,
+ nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction airCompressor.state_is.X[5](
+ start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ Real airCompressor.Q_reduced "Compressor reduced mass flow";
+ MetroscopeModelingLibrary.Utilities.Units.Percentage airCompressor.eta_is_decrease
+ "percentage decrease of eta_is";
+ MetroscopeModelingLibrary.Utilities.Units.Percentage airCompressor.tau_decrease
+ "percentage decrease of tau";
+ MetroscopeModelingLibrary.Utilities.Units.PositivePower airCompressor.C_W_in.W;
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal airCompressor.tau;
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal airCompressor.eta_is;
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy gasTurbine.h_in(
+ start = gasTurbine.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy gasTurbine.h_out
+ "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate gasTurbine.Q(
+ start = gasTurbine.Q_0) "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure gasTurbine.P_in(start =
+ gasTurbine.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure gasTurbine.P_out(start =
+ gasTurbine.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction gasTurbine.Xi[5]
+ "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density gasTurbine.rho_in(start =
+ gasTurbine.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density gasTurbine.rho_out(start =
+ gasTurbine.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density gasTurbine.rho(start =
+ gasTurbine.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ gasTurbine.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ gasTurbine.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate gasTurbine.Qv
+ "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature gasTurbine.T_in(start =
+ gasTurbine.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature gasTurbine.T_out(
+ start = gasTurbine.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure gasTurbine.state_in.p(
+ start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature gasTurbine.state_in.T(start = 500,
+ nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction gasTurbine.state_in.X[5](start =
+ {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ Modelica.Media.Interfaces.Types.AbsolutePressure gasTurbine.state_out.p(
+ start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature gasTurbine.state_out.T(start = 500,
+ nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction gasTurbine.state_out.X[5](
+ start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure gasTurbine.DP(
+ start = gasTurbine.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power gasTurbine.W(start = 0,
+ nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy gasTurbine.DH(
+ start = gasTurbine.h_out_0-gasTurbine.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ gasTurbine.DT(start = gasTurbine.T_out_0-gasTurbine.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ gasTurbine.C_in.Q(start = gasTurbine.Q_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure gasTurbine.C_in.P(start =
+ gasTurbine.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy gasTurbine.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction gasTurbine.C_in.Xi_outflow[5](
+ start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ gasTurbine.C_out.Q(start = -gasTurbine.Q_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure gasTurbine.C_out.P(start =
+ gasTurbine.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy gasTurbine.C_out.h_outflow
+ (start = gasTurbine.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction gasTurbine.C_out.Xi_outflow[5](
+ start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputReal gasTurbine.tau(
+ start = 15, min = 1.0) "Compression rate";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy gasTurbine.h_is(
+ start = 1000000.0) "Isentropic compression outlet enthalpy";
+ Modelica.Media.Interfaces.Types.AbsolutePressure gasTurbine.state_is.p(
+ start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature gasTurbine.state_is.T(start = 500,
+ nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction gasTurbine.state_is.X[5](start =
+ {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.Power gasTurbine.W_shaft;
+ MetroscopeModelingLibrary.Utilities.Units.Percentage gasTurbine.eta_is_decrease
+ "percentage decrease of eta_is";
+ MetroscopeModelingLibrary.Utilities.Units.NegativePower gasTurbine.C_W_shaft.W;
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal gasTurbine.eta_is(
+ start = 0.73);
+ MetroscopeModelingLibrary.Utilities.Units.PositivePower sink_power.W_in;
+ MetroscopeModelingLibrary.Utilities.Units.PositivePower sink_power.C_in.W;
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ combustionChamber.Q_air;
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ combustionChamber.Q_fuel;
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ combustionChamber.Q_exhaust;
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputPower combustionChamber.Wth;
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy combustionChamber.h_in_air
+ (start = combustionChamber.h_in_air_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy combustionChamber.h_in_fuel;
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy combustionChamber.h_exhaust;
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction combustionChamber.X_in_N2
+ (start = 0.78);
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction combustionChamber.X_in_O2
+ (start = 0.22);
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction combustionChamber.X_in_H2O
+ (start = 0.0);
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction combustionChamber.X_in_CO2
+ (start = 0.0);
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction combustionChamber.X_in_SO2
+ (start = 0.0);
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction combustionChamber.X_out_N2
+ (start = 0.73);
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction combustionChamber.X_out_O2
+ (start = 0.12);
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction combustionChamber.X_out_H2O
+ (start = 0.1);
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction combustionChamber.X_out_CO2
+ (start = 0.05);
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction combustionChamber.X_out_SO2
+ (start = 0.0);
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction combustionChamber.X_fuel_CH4
+ (start = 0.92);
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction combustionChamber.X_fuel_C2H6
+ (start = 0.048);
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction combustionChamber.X_fuel_C3H8
+ (start = 0.005);
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction combustionChamber.X_fuel_C4H10_n_butane
+ (start = 0.002);
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction combustionChamber.X_fuel_N2
+ (start = 0.015);
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction combustionChamber.X_fuel_CO2
+ (start = 0.01);
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction combustionChamber.X_fuel_C
+ (start = 0.8) "C mass fraction in the fuel";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction combustionChamber.X_fuel_H
+ (start = 0.2) "H mass fraction in the fuel";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction combustionChamber.X_fuel_O
+ (start = 0) "O mass fraction in the fuel";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy combustionChamber.HHV
+ = (55.57169322525389*combustionChamber.X_fuel_CH4+51.9490453316164*
+ combustionChamber.X_fuel_C2H6+50.36756468439963*combustionChamber.X_fuel_C3H8
+ +49.544408160737206*combustionChamber.X_fuel_C4H10_n_butane)*1000000.0
+ "J/kg can be assigned in component modifiers";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy combustionChamber.LHV
+ = LHV_plant "J/kg can be assigned in component modifiers";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ combustionChamber.inlet.Q(start = 500, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure combustionChamber.inlet.P(
+ start = 100000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy combustionChamber.inlet.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction combustionChamber.inlet.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ combustionChamber.outlet.Q(start = -500, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure combustionChamber.outlet.P(
+ start = 100000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy combustionChamber.outlet.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction combustionChamber.outlet.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ combustionChamber.inlet1.Q(start = 500, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure combustionChamber.inlet1.P(
+ start = 100000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy combustionChamber.inlet1.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction combustionChamber.inlet1.Xi_outflow
+ [6];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy combustionChamber.sink_fuel.h_in;
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction combustionChamber.sink_fuel.Xi_in
+ [6];
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputPressure
+ combustionChamber.sink_fuel.P_in;
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ combustionChamber.sink_fuel.Q_in;
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ combustionChamber.sink_fuel.Qv_in(start = 1);
+ MetroscopeModelingLibrary.Utilities.Units.Temperature combustionChamber.sink_fuel.T_in;
+ Modelica.Media.Interfaces.Types.AbsolutePressure combustionChamber.sink_fuel.state_in.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature combustionChamber.sink_fuel.state_in.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction combustionChamber.sink_fuel.state_in.X
+ [6](start = {0.92, 0.048, 0.005, 0.002, 0.015, 0.01}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ combustionChamber.sink_fuel.C_in.Q(nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure combustionChamber.sink_fuel.C_in.P
+ (start = 100000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy combustionChamber.sink_fuel.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction combustionChamber.sink_fuel.C_in.Xi_outflow
+ [6];
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputSpecificEnthalpy
+ combustionChamber.source_exhaust.h_out(start = combustionChamber.source_exhaust.h_0);
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputMassFraction
+ combustionChamber.source_exhaust.Xi_out[5];
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputPressure
+ combustionChamber.source_exhaust.P_out(start = combustionChamber.source_exhaust.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ combustionChamber.source_exhaust.Q_out(start = -combustionChamber.source_exhaust.Q_0);
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ combustionChamber.source_exhaust.Qv_out(start = -combustionChamber.source_exhaust.Q_0
+ /1000);
+ MetroscopeModelingLibrary.Utilities.Units.Temperature combustionChamber.source_exhaust.T_out
+ (start = combustionChamber.source_exhaust.T_0);
+ Modelica.Media.Interfaces.Types.AbsolutePressure combustionChamber.source_exhaust.state_out.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature combustionChamber.source_exhaust.state_out.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction combustionChamber.source_exhaust.state_out.X
+ [5](start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ combustionChamber.source_exhaust.C_out.Q(start = -combustionChamber.source_exhaust.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure combustionChamber.source_exhaust.C_out.P
+ (start = combustionChamber.source_exhaust.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy combustionChamber.source_exhaust.C_out.h_outflow
+ (start = combustionChamber.source_exhaust.h_0);
+ Modelica.Media.Interfaces.Types.MassFraction combustionChamber.source_exhaust.C_out.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy combustionChamber.sink_air.h_in
+ (start = combustionChamber.h_in_air_0);
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction combustionChamber.sink_air.Xi_in
+ [5];
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputPressure
+ combustionChamber.sink_air.P_in;
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ combustionChamber.sink_air.Q_in;
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ combustionChamber.sink_air.Qv_in(start = 1);
+ MetroscopeModelingLibrary.Utilities.Units.Temperature combustionChamber.sink_air.T_in;
+ Modelica.Media.Interfaces.Types.AbsolutePressure combustionChamber.sink_air.state_in.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature combustionChamber.sink_air.state_in.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction combustionChamber.sink_air.state_in.X
+ [5](start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ combustionChamber.sink_air.C_in.Q(nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure combustionChamber.sink_air.C_in.P
+ (start = 100000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy combustionChamber.sink_air.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction combustionChamber.sink_air.C_in.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy combustionChamber.pressure_loss.h_in
+ (start = combustionChamber.pressure_loss.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy combustionChamber.pressure_loss.h_out
+ (start = combustionChamber.pressure_loss.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ combustionChamber.pressure_loss.Q(start = combustionChamber.pressure_loss.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure combustionChamber.pressure_loss.P_in
+ (start = combustionChamber.pressure_loss.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure combustionChamber.pressure_loss.P_out
+ (start = combustionChamber.pressure_loss.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction combustionChamber.pressure_loss.Xi
+ [5] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density combustionChamber.pressure_loss.rho_in
+ (start = combustionChamber.pressure_loss.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density combustionChamber.pressure_loss.rho_out
+ (start = combustionChamber.pressure_loss.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density combustionChamber.pressure_loss.rho
+ (start = combustionChamber.pressure_loss.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ combustionChamber.pressure_loss.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ combustionChamber.pressure_loss.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ combustionChamber.pressure_loss.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature combustionChamber.pressure_loss.T_in
+ (start = combustionChamber.pressure_loss.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature combustionChamber.pressure_loss.T_out
+ (start = combustionChamber.pressure_loss.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure combustionChamber.pressure_loss.state_in.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature combustionChamber.pressure_loss.state_in.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction combustionChamber.pressure_loss.state_in.X
+ [5](start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ Modelica.Media.Interfaces.Types.AbsolutePressure combustionChamber.pressure_loss.state_out.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature combustionChamber.pressure_loss.state_out.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction combustionChamber.pressure_loss.state_out.X
+ [5](start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ combustionChamber.pressure_loss.DP(start = combustionChamber.pressure_loss.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power combustionChamber.pressure_loss.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ combustionChamber.pressure_loss.DH(start = combustionChamber.pressure_loss.h_out_0
+ -combustionChamber.pressure_loss.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ combustionChamber.pressure_loss.DT(start = combustionChamber.pressure_loss.T_out_0
+ -combustionChamber.pressure_loss.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ combustionChamber.pressure_loss.C_in.Q(start = combustionChamber.pressure_loss.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure combustionChamber.pressure_loss.C_in.P
+ (start = combustionChamber.pressure_loss.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy combustionChamber.pressure_loss.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction combustionChamber.pressure_loss.C_in.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ combustionChamber.pressure_loss.C_out.Q(start = -combustionChamber.pressure_loss.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure combustionChamber.pressure_loss.C_out.P
+ (start = combustionChamber.pressure_loss.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy combustionChamber.pressure_loss.C_out.h_outflow
+ (start = combustionChamber.pressure_loss.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction combustionChamber.pressure_loss.C_out.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy combustionChamber.pressure_loss.h
+ (start = combustionChamber.pressure_loss.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Percentage combustionChamber.pressure_loss.fouling;
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal combustionChamber.pressure_loss.Kfr
+ (start = combustionChamber.pressure_loss.Kfr_constant);
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal combustionChamber.Kfr
+ (start = combustionChamber.Kfr_constant);
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal combustionChamber.eta
+ (start = combustionChamber.eta_constant);
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputSpecificEnthalpy
+ source_fuel.h_out(start = 900000.0);
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputMassFraction
+ source_fuel.Xi_out[6];
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputPressure
+ source_fuel.P_out(start = source_fuel.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ source_fuel.Q_out(start = -source_fuel.Q_0);
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ source_fuel.Qv_out(start = -source_fuel.Q_0/1000);
+ MetroscopeModelingLibrary.Utilities.Units.Temperature source_fuel.T_out(
+ start = source_fuel.T_0);
+ Modelica.Media.Interfaces.Types.AbsolutePressure source_fuel.state_out.p(
+ start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature source_fuel.state_out.T(start = 500,
+ nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction source_fuel.state_out.X[6](
+ start = {0.92, 0.048, 0.005, 0.002, 0.015, 0.01}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ source_fuel.C_out.Q(start = -source_fuel.Q_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure source_fuel.C_out.P(
+ start = source_fuel.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy source_fuel.C_out.h_outflow
+ (start = source_fuel.h_0);
+ Modelica.Media.Interfaces.Types.MassFraction source_fuel.C_out.Xi_outflow[6];
+ Real source_fuel.amCH4 "CH4 molecular mass";
+ Real source_fuel.amC2H6 "C2H6 molecular mass";
+ Real source_fuel.amC3H8 "C3H8 molecular mass";
+ Real source_fuel.amC4H10 "C4H10 molecular mass";
+ Real source_fuel.amCO2 "CO2 molecular mass";
+ Real source_fuel.amN2 "H2O molecular mass";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction source_fuel.X_CH4(
+ start = 0.848);
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction source_fuel.X_C2H6(
+ start = 0.083);
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction source_fuel.X_C3H8(
+ start = 0.0126);
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction source_fuel.X_C4H10_n_butane
+ (start = 0.00668);
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction source_fuel.X_N2(
+ start = 0.024);
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction source_fuel.X_CO2(
+ start = 0.025);
+ Real source_fuel.X_molar_CH4(start = 0.92);
+ Real source_fuel.X_molar_C2H6(start = 0.048);
+ Real source_fuel.X_molar_C3H8(start = 0.005);
+ Real source_fuel.X_molar_C4H10_n_butane(start = 0.002);
+ Real source_fuel.X_molar_N2(start = 0.015);
+ Real source_fuel.X_molar_CO2(start = 0.01);
+ Real source_fuel.mean_molecular_mass(start = 17);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ compressor_P_out_sensor.Q(start = compressor_P_out_sensor.Q_0, nominal =
+ 100.0) "Component mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction compressor_P_out_sensor.Xi
+ [5] "Component mass fractions";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure compressor_P_out_sensor.P(
+ start = compressor_P_out_sensor.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy compressor_P_out_sensor.h
+ (start = compressor_P_out_sensor.h_0) "Enthalpy of the fluid into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure compressor_P_out_sensor.state.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature compressor_P_out_sensor.state.T(
+ start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction compressor_P_out_sensor.state.X[5]
+ (start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate compressor_P_out_sensor.mass_flow_rate_bias
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ compressor_P_out_sensor.C_in.Q(start = compressor_P_out_sensor.Q_0,
+ nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure compressor_P_out_sensor.C_in.P
+ (start = compressor_P_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy compressor_P_out_sensor.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction compressor_P_out_sensor.C_in.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ compressor_P_out_sensor.C_out.Q(start = -compressor_P_out_sensor.Q_0,
+ nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure compressor_P_out_sensor.C_out.P
+ (start = compressor_P_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy compressor_P_out_sensor.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction compressor_P_out_sensor.C_out.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy compressor_P_out_sensor.flow_model.h_in
+ (start = compressor_P_out_sensor.flow_model.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy compressor_P_out_sensor.flow_model.h_out
+ (start = compressor_P_out_sensor.flow_model.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ compressor_P_out_sensor.flow_model.Q(start = compressor_P_out_sensor.flow_model.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure compressor_P_out_sensor.flow_model.P_in
+ (start = compressor_P_out_sensor.flow_model.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure compressor_P_out_sensor.flow_model.P_out
+ (start = compressor_P_out_sensor.flow_model.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction compressor_P_out_sensor.flow_model.Xi
+ [5] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density compressor_P_out_sensor.flow_model.rho_in
+ (start = compressor_P_out_sensor.flow_model.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density compressor_P_out_sensor.flow_model.rho_out
+ (start = compressor_P_out_sensor.flow_model.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density compressor_P_out_sensor.flow_model.rho
+ (start = compressor_P_out_sensor.flow_model.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ compressor_P_out_sensor.flow_model.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ compressor_P_out_sensor.flow_model.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ compressor_P_out_sensor.flow_model.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature compressor_P_out_sensor.flow_model.T_in
+ (start = compressor_P_out_sensor.flow_model.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature compressor_P_out_sensor.flow_model.T_out
+ (start = compressor_P_out_sensor.flow_model.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure compressor_P_out_sensor.flow_model.state_in.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature compressor_P_out_sensor.flow_model.state_in.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction compressor_P_out_sensor.flow_model.state_in.X
+ [5](start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ Modelica.Media.Interfaces.Types.AbsolutePressure compressor_P_out_sensor.flow_model.state_out.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature compressor_P_out_sensor.flow_model.state_out.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction compressor_P_out_sensor.flow_model.state_out.X
+ [5](start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ compressor_P_out_sensor.flow_model.DP(start = compressor_P_out_sensor.flow_model.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power compressor_P_out_sensor.flow_model.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ compressor_P_out_sensor.flow_model.DH(start = compressor_P_out_sensor.flow_model.h_out_0
+ -compressor_P_out_sensor.flow_model.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ compressor_P_out_sensor.flow_model.DT(start = compressor_P_out_sensor.flow_model.T_out_0
+ -compressor_P_out_sensor.flow_model.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ compressor_P_out_sensor.flow_model.C_in.Q(start = compressor_P_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure compressor_P_out_sensor.flow_model.C_in.P
+ (start = compressor_P_out_sensor.flow_model.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy compressor_P_out_sensor.flow_model.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction compressor_P_out_sensor.flow_model.C_in.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ compressor_P_out_sensor.flow_model.C_out.Q(start = -compressor_P_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure compressor_P_out_sensor.flow_model.C_out.P
+ (start = compressor_P_out_sensor.flow_model.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy compressor_P_out_sensor.flow_model.C_out.h_outflow
+ (start = compressor_P_out_sensor.flow_model.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction compressor_P_out_sensor.flow_model.C_out.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy compressor_P_out_sensor.flow_model.h
+ (start = compressor_P_out_sensor.flow_model.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure compressor_P_out_sensor.flow_model.P
+ (start = compressor_P_out_sensor.flow_model.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature compressor_P_out_sensor.flow_model.T
+ (start = compressor_P_out_sensor.flow_model.T_0) "Temperature of the fluid into the component";
+ Real compressor_P_out_sensor.P_barG(start = compressor_P_out_sensor.P_0*1E-05-1,
+ nominal = 100000.0);
+ Real compressor_P_out_sensor.P_psiG(start = compressor_P_out_sensor.P_0*
+ 0.000145038-14.50377377, nominal = 14.5038);
+ Real compressor_P_out_sensor.P_MPaG(start = compressor_P_out_sensor.P_0*1E-06-
+ 0.1, nominal = 0.09999999999999999);
+ Real compressor_P_out_sensor.P_kPaG(start = compressor_P_out_sensor.P_0*0.001-100,
+ nominal = 100.0);
+ Real compressor_P_out_sensor.P_barA(start = compressor_P_out_sensor.P_0*1E-05,
+ nominal = 1.0, unit = "bar");
+ Real compressor_P_out_sensor.P_psiA(start = compressor_P_out_sensor.P_0*
+ 0.000145038, nominal = 14.5038);
+ Real compressor_P_out_sensor.P_MPaA(start = compressor_P_out_sensor.P_0*1E-06,
+ nominal = 0.09999999999999999);
+ Real compressor_P_out_sensor.P_kPaA(start = compressor_P_out_sensor.P_0*0.001,
+ nominal = 100.0);
+ Real compressor_P_out_sensor.P_inHg(start = compressor_P_out_sensor.P_0*
+ 0.0002953006, nominal = 29.530060000000002);
+ Real compressor_P_out_sensor.P_mbar(start = compressor_P_out_sensor.P_0*0.01,
+ nominal = 1000.0, unit = "mbar");
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal compressor_P_out_sensor.P_sensor
+ (start = compressor_P_out_sensor.init_P);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ compressor_T_out_sensor.Q(start = compressor_T_out_sensor.Q_0, nominal =
+ 100.0) "Component mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction compressor_T_out_sensor.Xi
+ [5] "Component mass fractions";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure compressor_T_out_sensor.P(
+ start = compressor_T_out_sensor.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy compressor_T_out_sensor.h
+ (start = compressor_T_out_sensor.h_0) "Enthalpy of the fluid into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure compressor_T_out_sensor.state.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature compressor_T_out_sensor.state.T(
+ start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction compressor_T_out_sensor.state.X[5]
+ (start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate compressor_T_out_sensor.mass_flow_rate_bias
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ compressor_T_out_sensor.C_in.Q(start = compressor_T_out_sensor.Q_0,
+ nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure compressor_T_out_sensor.C_in.P
+ (start = compressor_T_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy compressor_T_out_sensor.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction compressor_T_out_sensor.C_in.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ compressor_T_out_sensor.C_out.Q(start = -compressor_T_out_sensor.Q_0,
+ nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure compressor_T_out_sensor.C_out.P
+ (start = compressor_T_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy compressor_T_out_sensor.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction compressor_T_out_sensor.C_out.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy compressor_T_out_sensor.flow_model.h_in
+ (start = compressor_T_out_sensor.flow_model.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy compressor_T_out_sensor.flow_model.h_out
+ (start = compressor_T_out_sensor.flow_model.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ compressor_T_out_sensor.flow_model.Q(start = compressor_T_out_sensor.flow_model.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure compressor_T_out_sensor.flow_model.P_in
+ (start = compressor_T_out_sensor.flow_model.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure compressor_T_out_sensor.flow_model.P_out
+ (start = compressor_T_out_sensor.flow_model.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction compressor_T_out_sensor.flow_model.Xi
+ [5] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density compressor_T_out_sensor.flow_model.rho_in
+ (start = compressor_T_out_sensor.flow_model.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density compressor_T_out_sensor.flow_model.rho_out
+ (start = compressor_T_out_sensor.flow_model.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density compressor_T_out_sensor.flow_model.rho
+ (start = compressor_T_out_sensor.flow_model.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ compressor_T_out_sensor.flow_model.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ compressor_T_out_sensor.flow_model.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ compressor_T_out_sensor.flow_model.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature compressor_T_out_sensor.flow_model.T_in
+ (start = compressor_T_out_sensor.flow_model.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature compressor_T_out_sensor.flow_model.T_out
+ (start = compressor_T_out_sensor.flow_model.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure compressor_T_out_sensor.flow_model.state_in.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature compressor_T_out_sensor.flow_model.state_in.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction compressor_T_out_sensor.flow_model.state_in.X
+ [5](start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ Modelica.Media.Interfaces.Types.AbsolutePressure compressor_T_out_sensor.flow_model.state_out.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature compressor_T_out_sensor.flow_model.state_out.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction compressor_T_out_sensor.flow_model.state_out.X
+ [5](start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ compressor_T_out_sensor.flow_model.DP(start = compressor_T_out_sensor.flow_model.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power compressor_T_out_sensor.flow_model.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ compressor_T_out_sensor.flow_model.DH(start = compressor_T_out_sensor.flow_model.h_out_0
+ -compressor_T_out_sensor.flow_model.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ compressor_T_out_sensor.flow_model.DT(start = compressor_T_out_sensor.flow_model.T_out_0
+ -compressor_T_out_sensor.flow_model.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ compressor_T_out_sensor.flow_model.C_in.Q(start = compressor_T_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure compressor_T_out_sensor.flow_model.C_in.P
+ (start = compressor_T_out_sensor.flow_model.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy compressor_T_out_sensor.flow_model.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction compressor_T_out_sensor.flow_model.C_in.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ compressor_T_out_sensor.flow_model.C_out.Q(start = -compressor_T_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure compressor_T_out_sensor.flow_model.C_out.P
+ (start = compressor_T_out_sensor.flow_model.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy compressor_T_out_sensor.flow_model.C_out.h_outflow
+ (start = compressor_T_out_sensor.flow_model.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction compressor_T_out_sensor.flow_model.C_out.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy compressor_T_out_sensor.flow_model.h
+ (start = compressor_T_out_sensor.flow_model.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure compressor_T_out_sensor.flow_model.P
+ (start = compressor_T_out_sensor.flow_model.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature compressor_T_out_sensor.flow_model.T
+ (start = compressor_T_out_sensor.flow_model.T_0) "Temperature of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature compressor_T_out_sensor.T
+ (start = compressor_T_out_sensor.T_0);
+ Real compressor_T_out_sensor.T_degC(start = compressor_T_out_sensor.T_0+273.15,
+ nominal = 996.3, unit = "degC");
+ Real compressor_T_out_sensor.T_degF(start = (compressor_T_out_sensor.T_0+
+ 273.15)*1.8+32, nominal = 1825.34, unit = "degF");
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal compressor_T_out_sensor.T_sensor
+ (start = compressor_T_out_sensor.init_T);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ turbine_P_out_sensor.Q(start = turbine_P_out_sensor.Q_0, nominal = 100.0)
+ "Component mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction turbine_P_out_sensor.Xi
+ [5] "Component mass fractions";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure turbine_P_out_sensor.P(
+ start = turbine_P_out_sensor.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy turbine_P_out_sensor.h
+ (start = turbine_P_out_sensor.h_0) "Enthalpy of the fluid into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure turbine_P_out_sensor.state.p(
+ start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature turbine_P_out_sensor.state.T(
+ start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction turbine_P_out_sensor.state.X[5](
+ start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate turbine_P_out_sensor.mass_flow_rate_bias
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ turbine_P_out_sensor.C_in.Q(start = turbine_P_out_sensor.Q_0, nominal =
+ 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure turbine_P_out_sensor.C_in.P
+ (start = turbine_P_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy turbine_P_out_sensor.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction turbine_P_out_sensor.C_in.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ turbine_P_out_sensor.C_out.Q(start = -turbine_P_out_sensor.Q_0, nominal =
+ 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure turbine_P_out_sensor.C_out.P
+ (start = turbine_P_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy turbine_P_out_sensor.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction turbine_P_out_sensor.C_out.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy turbine_P_out_sensor.flow_model.h_in
+ (start = turbine_P_out_sensor.flow_model.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy turbine_P_out_sensor.flow_model.h_out
+ (start = turbine_P_out_sensor.flow_model.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ turbine_P_out_sensor.flow_model.Q(start = turbine_P_out_sensor.flow_model.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure turbine_P_out_sensor.flow_model.P_in
+ (start = turbine_P_out_sensor.flow_model.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure turbine_P_out_sensor.flow_model.P_out
+ (start = turbine_P_out_sensor.flow_model.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction turbine_P_out_sensor.flow_model.Xi
+ [5] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density turbine_P_out_sensor.flow_model.rho_in
+ (start = turbine_P_out_sensor.flow_model.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density turbine_P_out_sensor.flow_model.rho_out
+ (start = turbine_P_out_sensor.flow_model.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density turbine_P_out_sensor.flow_model.rho
+ (start = turbine_P_out_sensor.flow_model.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ turbine_P_out_sensor.flow_model.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ turbine_P_out_sensor.flow_model.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ turbine_P_out_sensor.flow_model.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature turbine_P_out_sensor.flow_model.T_in
+ (start = turbine_P_out_sensor.flow_model.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature turbine_P_out_sensor.flow_model.T_out
+ (start = turbine_P_out_sensor.flow_model.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure turbine_P_out_sensor.flow_model.state_in.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature turbine_P_out_sensor.flow_model.state_in.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction turbine_P_out_sensor.flow_model.state_in.X
+ [5](start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ Modelica.Media.Interfaces.Types.AbsolutePressure turbine_P_out_sensor.flow_model.state_out.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature turbine_P_out_sensor.flow_model.state_out.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction turbine_P_out_sensor.flow_model.state_out.X
+ [5](start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ turbine_P_out_sensor.flow_model.DP(start = turbine_P_out_sensor.flow_model.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power turbine_P_out_sensor.flow_model.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ turbine_P_out_sensor.flow_model.DH(start = turbine_P_out_sensor.flow_model.h_out_0
+ -turbine_P_out_sensor.flow_model.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ turbine_P_out_sensor.flow_model.DT(start = turbine_P_out_sensor.flow_model.T_out_0
+ -turbine_P_out_sensor.flow_model.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ turbine_P_out_sensor.flow_model.C_in.Q(start = turbine_P_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure turbine_P_out_sensor.flow_model.C_in.P
+ (start = turbine_P_out_sensor.flow_model.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy turbine_P_out_sensor.flow_model.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction turbine_P_out_sensor.flow_model.C_in.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ turbine_P_out_sensor.flow_model.C_out.Q(start = -turbine_P_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure turbine_P_out_sensor.flow_model.C_out.P
+ (start = turbine_P_out_sensor.flow_model.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy turbine_P_out_sensor.flow_model.C_out.h_outflow
+ (start = turbine_P_out_sensor.flow_model.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction turbine_P_out_sensor.flow_model.C_out.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy turbine_P_out_sensor.flow_model.h
+ (start = turbine_P_out_sensor.flow_model.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure turbine_P_out_sensor.flow_model.P
+ (start = turbine_P_out_sensor.flow_model.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature turbine_P_out_sensor.flow_model.T
+ (start = turbine_P_out_sensor.flow_model.T_0) "Temperature of the fluid into the component";
+ Real turbine_P_out_sensor.P_barG(start = turbine_P_out_sensor.P_0*1E-05-1,
+ nominal = 100000.0);
+ Real turbine_P_out_sensor.P_psiG(start = turbine_P_out_sensor.P_0*0.000145038-
+ 14.50377377, nominal = 14.5038);
+ Real turbine_P_out_sensor.P_MPaG(start = turbine_P_out_sensor.P_0*1E-06-0.1,
+ nominal = 0.09999999999999999);
+ Real turbine_P_out_sensor.P_kPaG(start = turbine_P_out_sensor.P_0*0.001-100,
+ nominal = 100.0);
+ Real turbine_P_out_sensor.P_barA(start = turbine_P_out_sensor.P_0*1E-05,
+ nominal = 1.0, unit = "bar");
+ Real turbine_P_out_sensor.P_psiA(start = turbine_P_out_sensor.P_0*0.000145038,
+ nominal = 14.5038);
+ Real turbine_P_out_sensor.P_MPaA(start = turbine_P_out_sensor.P_0*1E-06,
+ nominal = 0.09999999999999999);
+ Real turbine_P_out_sensor.P_kPaA(start = turbine_P_out_sensor.P_0*0.001,
+ nominal = 100.0);
+ Real turbine_P_out_sensor.P_inHg(start = turbine_P_out_sensor.P_0*0.0002953006,
+ nominal = 29.530060000000002);
+ Real turbine_P_out_sensor.P_mbar(start = turbine_P_out_sensor.P_0*0.01,
+ nominal = 1000.0, unit = "mbar");
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal turbine_P_out_sensor.P_sensor
+ (start = turbine_P_out_sensor.init_P);
+ MetroscopeModelingLibrary.Utilities.Units.Power W_GT_sensor.W;
+ Real W_GT_sensor.W_MW(start = 100, nominal = 100.0, min = 0.0);
+ MetroscopeModelingLibrary.Utilities.Units.PositivePower W_GT_sensor.C_in.W;
+ MetroscopeModelingLibrary.Utilities.Units.NegativePower W_GT_sensor.C_out.W;
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal W_GT_sensor.W_sensor;
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ turbine_T_out_sensor.Q(start = turbine_T_out_sensor.Q_0, nominal = 100.0)
+ "Component mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction turbine_T_out_sensor.Xi
+ [5] "Component mass fractions";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure turbine_T_out_sensor.P(
+ start = turbine_T_out_sensor.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy turbine_T_out_sensor.h
+ (start = turbine_T_out_sensor.h_0) "Enthalpy of the fluid into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure turbine_T_out_sensor.state.p(
+ start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature turbine_T_out_sensor.state.T(
+ start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction turbine_T_out_sensor.state.X[5](
+ start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate turbine_T_out_sensor.mass_flow_rate_bias
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ turbine_T_out_sensor.C_in.Q(start = turbine_T_out_sensor.Q_0, nominal =
+ 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure turbine_T_out_sensor.C_in.P
+ (start = turbine_T_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy turbine_T_out_sensor.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction turbine_T_out_sensor.C_in.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ turbine_T_out_sensor.C_out.Q(start = -turbine_T_out_sensor.Q_0, nominal =
+ 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure turbine_T_out_sensor.C_out.P
+ (start = turbine_T_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy turbine_T_out_sensor.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction turbine_T_out_sensor.C_out.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy turbine_T_out_sensor.flow_model.h_in
+ (start = turbine_T_out_sensor.flow_model.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy turbine_T_out_sensor.flow_model.h_out
+ (start = turbine_T_out_sensor.flow_model.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ turbine_T_out_sensor.flow_model.Q(start = turbine_T_out_sensor.flow_model.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure turbine_T_out_sensor.flow_model.P_in
+ (start = turbine_T_out_sensor.flow_model.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure turbine_T_out_sensor.flow_model.P_out
+ (start = turbine_T_out_sensor.flow_model.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction turbine_T_out_sensor.flow_model.Xi
+ [5] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density turbine_T_out_sensor.flow_model.rho_in
+ (start = turbine_T_out_sensor.flow_model.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density turbine_T_out_sensor.flow_model.rho_out
+ (start = turbine_T_out_sensor.flow_model.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density turbine_T_out_sensor.flow_model.rho
+ (start = turbine_T_out_sensor.flow_model.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ turbine_T_out_sensor.flow_model.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ turbine_T_out_sensor.flow_model.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ turbine_T_out_sensor.flow_model.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature turbine_T_out_sensor.flow_model.T_in
+ (start = turbine_T_out_sensor.flow_model.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature turbine_T_out_sensor.flow_model.T_out
+ (start = turbine_T_out_sensor.flow_model.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure turbine_T_out_sensor.flow_model.state_in.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature turbine_T_out_sensor.flow_model.state_in.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction turbine_T_out_sensor.flow_model.state_in.X
+ [5](start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ Modelica.Media.Interfaces.Types.AbsolutePressure turbine_T_out_sensor.flow_model.state_out.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature turbine_T_out_sensor.flow_model.state_out.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction turbine_T_out_sensor.flow_model.state_out.X
+ [5](start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ turbine_T_out_sensor.flow_model.DP(start = turbine_T_out_sensor.flow_model.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power turbine_T_out_sensor.flow_model.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ turbine_T_out_sensor.flow_model.DH(start = turbine_T_out_sensor.flow_model.h_out_0
+ -turbine_T_out_sensor.flow_model.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ turbine_T_out_sensor.flow_model.DT(start = turbine_T_out_sensor.flow_model.T_out_0
+ -turbine_T_out_sensor.flow_model.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ turbine_T_out_sensor.flow_model.C_in.Q(start = turbine_T_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure turbine_T_out_sensor.flow_model.C_in.P
+ (start = turbine_T_out_sensor.flow_model.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy turbine_T_out_sensor.flow_model.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction turbine_T_out_sensor.flow_model.C_in.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ turbine_T_out_sensor.flow_model.C_out.Q(start = -turbine_T_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure turbine_T_out_sensor.flow_model.C_out.P
+ (start = turbine_T_out_sensor.flow_model.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy turbine_T_out_sensor.flow_model.C_out.h_outflow
+ (start = turbine_T_out_sensor.flow_model.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction turbine_T_out_sensor.flow_model.C_out.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy turbine_T_out_sensor.flow_model.h
+ (start = turbine_T_out_sensor.flow_model.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure turbine_T_out_sensor.flow_model.P
+ (start = turbine_T_out_sensor.flow_model.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature turbine_T_out_sensor.flow_model.T
+ (start = turbine_T_out_sensor.flow_model.T_0) "Temperature of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature turbine_T_out_sensor.T(
+ start = turbine_T_out_sensor.T_0);
+ Real turbine_T_out_sensor.T_degC(start = turbine_T_out_sensor.T_0+273.15,
+ nominal = 1186.3, unit = "degC");
+ Real turbine_T_out_sensor.T_degF(start = (turbine_T_out_sensor.T_0+273.15)*1.8
+ +32, nominal = 2167.34, unit = "degF");
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal turbine_T_out_sensor.T_sensor
+ (start = turbine_T_out_sensor.init_T);
+ MetroscopeModelingLibrary.Utilities.Units.Temperature Reheater.maximum_achiveable_temperature_difference;
+ MetroscopeModelingLibrary.Utilities.Units.Temperature Reheater.nominal_cold_side_temperature_rise;
+ MetroscopeModelingLibrary.Utilities.Units.Temperature Reheater.nominal_hot_side_temperature_drop;
+ MetroscopeModelingLibrary.Utilities.Units.Power Reheater.W;
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate Reheater.Q_cold(
+ start = Reheater.Q_cold_0);
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate Reheater.Q_hot(start =
+ Reheater.Q_hot_0);
+ MetroscopeModelingLibrary.Utilities.Units.Temperature Reheater.T_cold_in(
+ start = Reheater.T_cold_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.Temperature Reheater.T_hot_in(
+ start = Reheater.T_hot_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.Temperature Reheater.T_cold_out(
+ start = Reheater.T_cold_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.Temperature Reheater.T_hot_out(
+ start = Reheater.T_hot_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ Reheater.DT_hot_in_side(start = Reheater.T_hot_in_0-Reheater.T_cold_out_0)
+ "Temperature difference between hot and cold fluids, hot inlet side";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ Reheater.DT_hot_out_side(start = Reheater.T_hot_out_0-Reheater.T_cold_in_0)
+ "Temperature difference between hot and cold fluids, hot outlet side";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ Reheater.pinch(start = min(Reheater.T_hot_in_0-Reheater.T_cold_out_0,
+ Reheater.T_hot_out_0-Reheater.T_cold_in_0)) "Lowest temperature difference";
+ MetroscopeModelingLibrary.Utilities.Units.Percentage Reheater.fouling;
+ MetroscopeModelingLibrary.Utilities.Units.HeatCapacity Reheater.Cp_cold_min;
+ MetroscopeModelingLibrary.Utilities.Units.HeatCapacity Reheater.Cp_cold_max;
+ MetroscopeModelingLibrary.Utilities.Units.HeatCapacity Reheater.Cp_hot_min;
+ MetroscopeModelingLibrary.Utilities.Units.HeatCapacity Reheater.Cp_hot_max;
+ Modelica.Media.Interfaces.Types.FixedPhase Reheater.state_cold_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy Reheater.state_cold_out.h(
+ start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density Reheater.state_cold_out.d(start = 150,
+ nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature Reheater.state_cold_out.T(start = 500,
+ nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure Reheater.state_cold_out.p(
+ start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.AbsolutePressure Reheater.state_hot_out.p(
+ start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature Reheater.state_hot_out.T(start = 500,
+ nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction Reheater.state_hot_out.X[5](
+ start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Reheater.C_hot_in.Q(start = Reheater.Q_hot_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Reheater.C_hot_in.P(
+ start = Reheater.P_hot_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Reheater.C_hot_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction Reheater.C_hot_in.Xi_outflow[5](
+ start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ Reheater.C_hot_out.Q(start = -Reheater.Q_hot_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Reheater.C_hot_out.P(
+ start = Reheater.P_hot_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Reheater.C_hot_out.h_outflow
+ (start = Reheater.h_hot_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction Reheater.C_hot_out.Xi_outflow[5](
+ start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Reheater.C_cold_in.Q(start = Reheater.Q_cold_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Reheater.C_cold_in.P(
+ start = Reheater.P_cold_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Reheater.C_cold_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction Reheater.C_cold_in.Xi_outflow[0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ Reheater.C_cold_out.Q(start = -Reheater.Q_cold_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Reheater.C_cold_out.P(
+ start = Reheater.P_cold_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Reheater.C_cold_out.h_outflow
+ (start = Reheater.h_cold_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction Reheater.C_cold_out.Xi_outflow[0];
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputArea Reheater.HX.S(
+ start = Reheater.HX.S_0) "Heat exchange surface";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputHeatExchangeCoefficient
+ Reheater.HX.Kth(start = Reheater.HX.Kth_0) "Heat exchange coefficient";
+ MetroscopeModelingLibrary.Utilities.Units.Power Reheater.HX.W(start =
+ Reheater.HX.W_0);
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputMassFlowRate
+ Reheater.HX.Q_hot(start = Reheater.HX.Q_hot_0) "Hot mass flow rate at the inlet";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputMassFlowRate
+ Reheater.HX.Q_cold(start = Reheater.HX.Q_cold_0) "Cold mass flow rate at the inlet";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputHeatCapacity
+ Reheater.HX.Cp_hot(start = Reheater.HX.Cp_hot_0) "Hot fluid specific heat capacity";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputHeatCapacity
+ Reheater.HX.Cp_cold(start = Reheater.HX.Cp_cold_0) "Cold fluid specific heat capacity";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputTemperature
+ Reheater.HX.T_hot_in(start = Reheater.HX.T_hot_in_0) "Temperature, hot side, at the inlet";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputTemperature
+ Reheater.HX.T_cold_in(start = Reheater.HX.T_cold_in_0) "Temperature, cold side, at the inlet";
+ Real Reheater.HX.QCpMIN(start = Reheater.HX.QCpMIN_0, unit = "W/K");
+ Real Reheater.HX.QCpMAX(start = Reheater.HX.QCpMAX_0, unit = "W/K");
+ Real Reheater.HX.NTU(start = Reheater.HX.NTU_0, unit = "1");
+ MetroscopeModelingLibrary.Utilities.Units.Fraction Reheater.HX.Cr(start =
+ Reheater.HX.Cr_0);
+ MetroscopeModelingLibrary.Utilities.Units.Fraction Reheater.HX.epsilon(
+ start = Reheater.HX.epsilon_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power Reheater.HX.W_max(start =
+ Reheater.HX.W_max_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Reheater.hot_side.h_in
+ (start = Reheater.hot_side.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Reheater.hot_side.h_out
+ (start = Reheater.hot_side.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Reheater.hot_side.Q(start = Reheater.hot_side.Q_0) "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Reheater.hot_side.P_in(
+ start = Reheater.hot_side.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Reheater.hot_side.P_out(
+ start = Reheater.hot_side.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction Reheater.hot_side.Xi[5]
+ "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density Reheater.hot_side.rho_in(
+ start = Reheater.hot_side.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density Reheater.hot_side.rho_out(
+ start = Reheater.hot_side.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density Reheater.hot_side.rho(
+ start = Reheater.hot_side.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ Reheater.hot_side.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ Reheater.hot_side.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ Reheater.hot_side.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature Reheater.hot_side.T_in(
+ start = Reheater.hot_side.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature Reheater.hot_side.T_out(
+ start = Reheater.hot_side.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure Reheater.hot_side.state_in.p(
+ start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature Reheater.hot_side.state_in.T(
+ start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction Reheater.hot_side.state_in.X[5](
+ start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ Modelica.Media.Interfaces.Types.AbsolutePressure Reheater.hot_side.state_out.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature Reheater.hot_side.state_out.T(
+ start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction Reheater.hot_side.state_out.X[5](
+ start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ Reheater.hot_side.DP(start = Reheater.hot_side.DP_0, nominal = 105000.0);
+ MetroscopeModelingLibrary.Utilities.Units.Power Reheater.hot_side.W(start = 0,
+ nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ Reheater.hot_side.DH(start = Reheater.hot_side.h_out_0-Reheater.hot_side.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ Reheater.hot_side.DT(start = Reheater.hot_side.T_out_0-Reheater.hot_side.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Reheater.hot_side.C_in.Q(start = Reheater.hot_side.Q_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Reheater.hot_side.C_in.P(
+ start = Reheater.hot_side.P_in_0, nominal = 105000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Reheater.hot_side.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction Reheater.hot_side.C_in.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ Reheater.hot_side.C_out.Q(start = -Reheater.hot_side.Q_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Reheater.hot_side.C_out.P(
+ start = Reheater.hot_side.P_out_0, nominal = 105000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Reheater.hot_side.C_out.h_outflow
+ (start = Reheater.hot_side.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction Reheater.hot_side.C_out.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Reheater.hot_side.P(
+ start = Reheater.hot_side.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputPower Reheater.hot_side.W_input
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Reheater.cold_side.h_in
+ (start = Reheater.cold_side.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Reheater.cold_side.h_out
+ (start = Reheater.cold_side.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Reheater.cold_side.Q(start = Reheater.cold_side.Q_0) "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Reheater.cold_side.P_in(
+ start = Reheater.cold_side.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Reheater.cold_side.P_out(
+ start = Reheater.cold_side.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction Reheater.cold_side.Xi[0]
+ "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density Reheater.cold_side.rho_in(
+ start = Reheater.cold_side.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density Reheater.cold_side.rho_out(
+ start = Reheater.cold_side.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density Reheater.cold_side.rho(
+ start = Reheater.cold_side.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ Reheater.cold_side.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ Reheater.cold_side.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ Reheater.cold_side.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature Reheater.cold_side.T_in(
+ start = Reheater.cold_side.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature Reheater.cold_side.T_out
+ (start = Reheater.cold_side.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase Reheater.cold_side.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy Reheater.cold_side.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density Reheater.cold_side.state_in.d(start = 150,
+ nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature Reheater.cold_side.state_in.T(
+ start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure Reheater.cold_side.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase Reheater.cold_side.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy Reheater.cold_side.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density Reheater.cold_side.state_out.d(
+ start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature Reheater.cold_side.state_out.T(
+ start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure Reheater.cold_side.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ Reheater.cold_side.DP(start = Reheater.cold_side.DP_0, nominal = 13000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.Power Reheater.cold_side.W(start = 0,
+ nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ Reheater.cold_side.DH(start = Reheater.cold_side.h_out_0-Reheater.cold_side.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ Reheater.cold_side.DT(start = Reheater.cold_side.T_out_0-Reheater.cold_side.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Reheater.cold_side.C_in.Q(start = Reheater.cold_side.Q_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Reheater.cold_side.C_in.P(
+ start = Reheater.cold_side.P_in_0, nominal = 13000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Reheater.cold_side.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction Reheater.cold_side.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ Reheater.cold_side.C_out.Q(start = -Reheater.cold_side.Q_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Reheater.cold_side.C_out.P(
+ start = Reheater.cold_side.P_out_0, nominal = 13000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Reheater.cold_side.C_out.h_outflow
+ (start = Reheater.cold_side.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction Reheater.cold_side.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Reheater.cold_side.P(
+ start = Reheater.cold_side.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputPower Reheater.cold_side.W_input
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Reheater.cold_side_pipe.h_in
+ (start = Reheater.cold_side_pipe.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Reheater.cold_side_pipe.h_out
+ (start = Reheater.cold_side_pipe.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Reheater.cold_side_pipe.Q(start = Reheater.cold_side_pipe.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Reheater.cold_side_pipe.P_in
+ (start = Reheater.cold_side_pipe.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Reheater.cold_side_pipe.P_out
+ (start = Reheater.cold_side_pipe.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction Reheater.cold_side_pipe.Xi
+ [0] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density Reheater.cold_side_pipe.rho_in
+ (start = Reheater.cold_side_pipe.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density Reheater.cold_side_pipe.rho_out
+ (start = Reheater.cold_side_pipe.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density Reheater.cold_side_pipe.rho(
+ start = Reheater.cold_side_pipe.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ Reheater.cold_side_pipe.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ Reheater.cold_side_pipe.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ Reheater.cold_side_pipe.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature Reheater.cold_side_pipe.T_in
+ (start = Reheater.cold_side_pipe.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature Reheater.cold_side_pipe.T_out
+ (start = Reheater.cold_side_pipe.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase Reheater.cold_side_pipe.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy Reheater.cold_side_pipe.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density Reheater.cold_side_pipe.state_in.d(
+ start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature Reheater.cold_side_pipe.state_in.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure Reheater.cold_side_pipe.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase Reheater.cold_side_pipe.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy Reheater.cold_side_pipe.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density Reheater.cold_side_pipe.state_out.d(
+ start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature Reheater.cold_side_pipe.state_out.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure Reheater.cold_side_pipe.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ Reheater.cold_side_pipe.DP(start = Reheater.cold_side_pipe.DP_0, nominal =
+ 13000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.Power Reheater.cold_side_pipe.W(
+ start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ Reheater.cold_side_pipe.DH(start = Reheater.cold_side_pipe.h_out_0-
+ Reheater.cold_side_pipe.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ Reheater.cold_side_pipe.DT(start = Reheater.cold_side_pipe.T_out_0-
+ Reheater.cold_side_pipe.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Reheater.cold_side_pipe.C_in.Q(start = Reheater.cold_side_pipe.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Reheater.cold_side_pipe.C_in.P
+ (start = Reheater.cold_side_pipe.P_in_0, nominal = 13000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Reheater.cold_side_pipe.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction Reheater.cold_side_pipe.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ Reheater.cold_side_pipe.C_out.Q(start = -Reheater.cold_side_pipe.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Reheater.cold_side_pipe.C_out.P
+ (start = Reheater.cold_side_pipe.P_out_0, nominal = 12950000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Reheater.cold_side_pipe.C_out.h_outflow
+ (start = Reheater.cold_side_pipe.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction Reheater.cold_side_pipe.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Reheater.cold_side_pipe.h
+ (start = Reheater.cold_side_pipe.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Percentage Reheater.cold_side_pipe.fouling;
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal Reheater.cold_side_pipe.Kfr
+ (start = Reheater.cold_side_pipe.Kfr_constant);
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal Reheater.Kth;
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal Reheater.Kfr_cold;
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature Reheater.STR
+ (start = Reheater.T_cold_out_0-Reheater.T_cold_in_0) "Steam Temperature Rise";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ Reheater.DT_superheat(start = Reheater.T_cold_out_0-Modelica.Media.Water.WaterIF97_ph.saturationTemperature_Unique21
+ (Reheater.P_cold_in_0)) "Superheat temperature difference";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy LPsteamTurbine.h_in
+ (start = LPsteamTurbine.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy LPsteamTurbine.h_out
+ (start = LPsteamTurbine.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ LPsteamTurbine.Q(start = LPsteamTurbine.Q_0) "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure LPsteamTurbine.P_in(
+ start = LPsteamTurbine.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure LPsteamTurbine.P_out(
+ start = LPsteamTurbine.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction LPsteamTurbine.Xi[0]
+ "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density LPsteamTurbine.rho_in(
+ start = LPsteamTurbine.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density LPsteamTurbine.rho_out(
+ start = LPsteamTurbine.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density LPsteamTurbine.rho(start =
+ LPsteamTurbine.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ LPsteamTurbine.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ LPsteamTurbine.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ LPsteamTurbine.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature LPsteamTurbine.T_in(
+ start = LPsteamTurbine.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature LPsteamTurbine.T_out(
+ start = LPsteamTurbine.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase LPsteamTurbine.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy LPsteamTurbine.state_in.h(
+ start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density LPsteamTurbine.state_in.d(start = 150,
+ nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature LPsteamTurbine.state_in.T(start = 500,
+ nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure LPsteamTurbine.state_in.p(
+ start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase LPsteamTurbine.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy LPsteamTurbine.state_out.h(
+ start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density LPsteamTurbine.state_out.d(start = 150,
+ nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature LPsteamTurbine.state_out.T(
+ start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure LPsteamTurbine.state_out.p(
+ start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ LPsteamTurbine.DP(start = LPsteamTurbine.DP_0, nominal = 6000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.Power LPsteamTurbine.W(start = 0,
+ nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ LPsteamTurbine.DH(start = LPsteamTurbine.h_out_0-LPsteamTurbine.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ LPsteamTurbine.DT(start = LPsteamTurbine.T_out_0-LPsteamTurbine.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ LPsteamTurbine.C_in.Q(start = LPsteamTurbine.Q_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure LPsteamTurbine.C_in.P(
+ start = LPsteamTurbine.P_in_0, nominal = 6000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy LPsteamTurbine.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction LPsteamTurbine.C_in.Xi_outflow[0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ LPsteamTurbine.C_out.Q(start = -LPsteamTurbine.Q_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure LPsteamTurbine.C_out.P(
+ start = LPsteamTurbine.P_out_0, nominal = 5500000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy LPsteamTurbine.C_out.h_outflow
+ (start = LPsteamTurbine.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction LPsteamTurbine.C_out.Xi_outflow[0];
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction LPsteamTurbine.x_in(
+ start = LPsteamTurbine.x_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction LPsteamTurbine.x_out(
+ start = LPsteamTurbine.x_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction LPsteamTurbine.xm(
+ start = LPsteamTurbine.xm_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy LPsteamTurbine.h_is
+ (start = LPsteamTurbine.h_out_0/0.8);
+ Modelica.Media.Interfaces.Types.FixedPhase LPsteamTurbine.state_is.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy LPsteamTurbine.state_is.h(
+ start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density LPsteamTurbine.state_is.d(start = 150,
+ nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature LPsteamTurbine.state_is.T(start = 500,
+ nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure LPsteamTurbine.state_is.p(
+ start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy LPsteamTurbine.h_vap_sat_in
+ (start = LPsteamTurbine.h_vap_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy LPsteamTurbine.h_vap_sat_out
+ (start = LPsteamTurbine.h_vap_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy LPsteamTurbine.h_liq_sat_in
+ (start = LPsteamTurbine.h_liq_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy LPsteamTurbine.h_liq_sat_out
+ (start = LPsteamTurbine.h_liq_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.NegativePower LPsteamTurbine.C_W_out.W;
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal LPsteamTurbine.eta_is;
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal LPsteamTurbine.Cst;
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_w_ReH_out_sensor.Q(start = T_w_ReH_out_sensor.Q_0, nominal = 100.0)
+ "Component mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction T_w_ReH_out_sensor.Xi[0]
+ "Component mass fractions";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_ReH_out_sensor.P(
+ start = T_w_ReH_out_sensor.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_w_ReH_out_sensor.h
+ (start = T_w_ReH_out_sensor.h_0) "Enthalpy of the fluid into the component";
+ Modelica.Media.Interfaces.Types.FixedPhase T_w_ReH_out_sensor.state.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy T_w_ReH_out_sensor.state.h(
+ start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density T_w_ReH_out_sensor.state.d(start = 150,
+ nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature T_w_ReH_out_sensor.state.T(
+ start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure T_w_ReH_out_sensor.state.p(
+ start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate T_w_ReH_out_sensor.mass_flow_rate_bias
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_w_ReH_out_sensor.C_in.Q(start = T_w_ReH_out_sensor.Q_0, nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_ReH_out_sensor.C_in.P(
+ start = T_w_ReH_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_w_ReH_out_sensor.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction T_w_ReH_out_sensor.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ T_w_ReH_out_sensor.C_out.Q(start = -T_w_ReH_out_sensor.Q_0, nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_ReH_out_sensor.C_out.P(
+ start = T_w_ReH_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_w_ReH_out_sensor.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction T_w_ReH_out_sensor.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_w_ReH_out_sensor.flow_model.h_in
+ (start = T_w_ReH_out_sensor.flow_model.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_w_ReH_out_sensor.flow_model.h_out
+ (start = T_w_ReH_out_sensor.flow_model.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_w_ReH_out_sensor.flow_model.Q(start = T_w_ReH_out_sensor.flow_model.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_ReH_out_sensor.flow_model.P_in
+ (start = T_w_ReH_out_sensor.flow_model.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_ReH_out_sensor.flow_model.P_out
+ (start = T_w_ReH_out_sensor.flow_model.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction T_w_ReH_out_sensor.flow_model.Xi
+ [0] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density T_w_ReH_out_sensor.flow_model.rho_in
+ (start = T_w_ReH_out_sensor.flow_model.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density T_w_ReH_out_sensor.flow_model.rho_out
+ (start = T_w_ReH_out_sensor.flow_model.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density T_w_ReH_out_sensor.flow_model.rho
+ (start = T_w_ReH_out_sensor.flow_model.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ T_w_ReH_out_sensor.flow_model.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ T_w_ReH_out_sensor.flow_model.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ T_w_ReH_out_sensor.flow_model.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_w_ReH_out_sensor.flow_model.T_in
+ (start = T_w_ReH_out_sensor.flow_model.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_w_ReH_out_sensor.flow_model.T_out
+ (start = T_w_ReH_out_sensor.flow_model.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase T_w_ReH_out_sensor.flow_model.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy T_w_ReH_out_sensor.flow_model.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density T_w_ReH_out_sensor.flow_model.state_in.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature T_w_ReH_out_sensor.flow_model.state_in.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure T_w_ReH_out_sensor.flow_model.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase T_w_ReH_out_sensor.flow_model.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy T_w_ReH_out_sensor.flow_model.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density T_w_ReH_out_sensor.flow_model.state_out.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature T_w_ReH_out_sensor.flow_model.state_out.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure T_w_ReH_out_sensor.flow_model.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ T_w_ReH_out_sensor.flow_model.DP(start = T_w_ReH_out_sensor.flow_model.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power T_w_ReH_out_sensor.flow_model.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ T_w_ReH_out_sensor.flow_model.DH(start = T_w_ReH_out_sensor.flow_model.h_out_0
+ -T_w_ReH_out_sensor.flow_model.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ T_w_ReH_out_sensor.flow_model.DT(start = T_w_ReH_out_sensor.flow_model.T_out_0
+ -T_w_ReH_out_sensor.flow_model.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_w_ReH_out_sensor.flow_model.C_in.Q(start = T_w_ReH_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_ReH_out_sensor.flow_model.C_in.P
+ (start = T_w_ReH_out_sensor.flow_model.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_w_ReH_out_sensor.flow_model.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction T_w_ReH_out_sensor.flow_model.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ T_w_ReH_out_sensor.flow_model.C_out.Q(start = -T_w_ReH_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_ReH_out_sensor.flow_model.C_out.P
+ (start = T_w_ReH_out_sensor.flow_model.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_w_ReH_out_sensor.flow_model.C_out.h_outflow
+ (start = T_w_ReH_out_sensor.flow_model.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction T_w_ReH_out_sensor.flow_model.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_w_ReH_out_sensor.flow_model.h
+ (start = T_w_ReH_out_sensor.flow_model.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_ReH_out_sensor.flow_model.P
+ (start = T_w_ReH_out_sensor.flow_model.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_w_ReH_out_sensor.flow_model.T
+ (start = T_w_ReH_out_sensor.flow_model.T_0) "Temperature of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_w_ReH_out_sensor.T(
+ start = T_w_ReH_out_sensor.T_0);
+ Real T_w_ReH_out_sensor.T_degC(start = T_w_ReH_out_sensor.T_0+273.15,
+ nominal = 573.15, unit = "degC");
+ Real T_w_ReH_out_sensor.T_degF(start = (T_w_ReH_out_sensor.T_0+273.15)*1.8+32,
+ nominal = 1063.67, unit = "degF");
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal T_w_ReH_out_sensor.T_sensor
+ (start = T_w_ReH_out_sensor.init_T);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_w_ReH_out_sensor.Q(start = P_w_ReH_out_sensor.Q_0, nominal = 100.0)
+ "Component mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction P_w_ReH_out_sensor.Xi[0]
+ "Component mass fractions";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_ReH_out_sensor.P(
+ start = P_w_ReH_out_sensor.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_w_ReH_out_sensor.h
+ (start = P_w_ReH_out_sensor.h_0) "Enthalpy of the fluid into the component";
+ Modelica.Media.Interfaces.Types.FixedPhase P_w_ReH_out_sensor.state.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy P_w_ReH_out_sensor.state.h(
+ start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density P_w_ReH_out_sensor.state.d(start = 150,
+ nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature P_w_ReH_out_sensor.state.T(
+ start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_w_ReH_out_sensor.state.p(
+ start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate P_w_ReH_out_sensor.mass_flow_rate_bias
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_w_ReH_out_sensor.C_in.Q(start = P_w_ReH_out_sensor.Q_0, nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_ReH_out_sensor.C_in.P(
+ start = P_w_ReH_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_w_ReH_out_sensor.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction P_w_ReH_out_sensor.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ P_w_ReH_out_sensor.C_out.Q(start = -P_w_ReH_out_sensor.Q_0, nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_ReH_out_sensor.C_out.P(
+ start = P_w_ReH_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_w_ReH_out_sensor.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction P_w_ReH_out_sensor.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_w_ReH_out_sensor.flow_model.h_in
+ (start = P_w_ReH_out_sensor.flow_model.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_w_ReH_out_sensor.flow_model.h_out
+ (start = P_w_ReH_out_sensor.flow_model.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_w_ReH_out_sensor.flow_model.Q(start = P_w_ReH_out_sensor.flow_model.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_ReH_out_sensor.flow_model.P_in
+ (start = P_w_ReH_out_sensor.flow_model.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_ReH_out_sensor.flow_model.P_out
+ (start = P_w_ReH_out_sensor.flow_model.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction P_w_ReH_out_sensor.flow_model.Xi
+ [0] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_w_ReH_out_sensor.flow_model.rho_in
+ (start = P_w_ReH_out_sensor.flow_model.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_w_ReH_out_sensor.flow_model.rho_out
+ (start = P_w_ReH_out_sensor.flow_model.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_w_ReH_out_sensor.flow_model.rho
+ (start = P_w_ReH_out_sensor.flow_model.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ P_w_ReH_out_sensor.flow_model.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ P_w_ReH_out_sensor.flow_model.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ P_w_ReH_out_sensor.flow_model.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_w_ReH_out_sensor.flow_model.T_in
+ (start = P_w_ReH_out_sensor.flow_model.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_w_ReH_out_sensor.flow_model.T_out
+ (start = P_w_ReH_out_sensor.flow_model.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase P_w_ReH_out_sensor.flow_model.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy P_w_ReH_out_sensor.flow_model.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density P_w_ReH_out_sensor.flow_model.state_in.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature P_w_ReH_out_sensor.flow_model.state_in.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_w_ReH_out_sensor.flow_model.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase P_w_ReH_out_sensor.flow_model.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy P_w_ReH_out_sensor.flow_model.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density P_w_ReH_out_sensor.flow_model.state_out.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature P_w_ReH_out_sensor.flow_model.state_out.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_w_ReH_out_sensor.flow_model.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ P_w_ReH_out_sensor.flow_model.DP(start = P_w_ReH_out_sensor.flow_model.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power P_w_ReH_out_sensor.flow_model.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ P_w_ReH_out_sensor.flow_model.DH(start = P_w_ReH_out_sensor.flow_model.h_out_0
+ -P_w_ReH_out_sensor.flow_model.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ P_w_ReH_out_sensor.flow_model.DT(start = P_w_ReH_out_sensor.flow_model.T_out_0
+ -P_w_ReH_out_sensor.flow_model.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_w_ReH_out_sensor.flow_model.C_in.Q(start = P_w_ReH_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_ReH_out_sensor.flow_model.C_in.P
+ (start = P_w_ReH_out_sensor.flow_model.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_w_ReH_out_sensor.flow_model.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction P_w_ReH_out_sensor.flow_model.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ P_w_ReH_out_sensor.flow_model.C_out.Q(start = -P_w_ReH_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_ReH_out_sensor.flow_model.C_out.P
+ (start = P_w_ReH_out_sensor.flow_model.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_w_ReH_out_sensor.flow_model.C_out.h_outflow
+ (start = P_w_ReH_out_sensor.flow_model.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction P_w_ReH_out_sensor.flow_model.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_w_ReH_out_sensor.flow_model.h
+ (start = P_w_ReH_out_sensor.flow_model.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_ReH_out_sensor.flow_model.P
+ (start = P_w_ReH_out_sensor.flow_model.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_w_ReH_out_sensor.flow_model.T
+ (start = P_w_ReH_out_sensor.flow_model.T_0) "Temperature of the fluid into the component";
+ Real P_w_ReH_out_sensor.P_barG(start = P_w_ReH_out_sensor.P_0*1E-05-1,
+ nominal = 100000.0);
+ Real P_w_ReH_out_sensor.P_psiG(start = P_w_ReH_out_sensor.P_0*0.000145038-
+ 14.50377377, nominal = 14.5038);
+ Real P_w_ReH_out_sensor.P_MPaG(start = P_w_ReH_out_sensor.P_0*1E-06-0.1,
+ nominal = 0.09999999999999999);
+ Real P_w_ReH_out_sensor.P_kPaG(start = P_w_ReH_out_sensor.P_0*0.001-100,
+ nominal = 100.0);
+ Real P_w_ReH_out_sensor.P_barA(start = P_w_ReH_out_sensor.P_0*1E-05,
+ nominal = 1.0, unit = "bar");
+ Real P_w_ReH_out_sensor.P_psiA(start = P_w_ReH_out_sensor.P_0*0.000145038,
+ nominal = 14.5038);
+ Real P_w_ReH_out_sensor.P_MPaA(start = P_w_ReH_out_sensor.P_0*1E-06,
+ nominal = 0.09999999999999999);
+ Real P_w_ReH_out_sensor.P_kPaA(start = P_w_ReH_out_sensor.P_0*0.001,
+ nominal = 100.0);
+ Real P_w_ReH_out_sensor.P_inHg(start = P_w_ReH_out_sensor.P_0*0.0002953006,
+ nominal = 29.530060000000002);
+ Real P_w_ReH_out_sensor.P_mbar(start = P_w_ReH_out_sensor.P_0*0.01, nominal =
+ 1000.0, unit = "mbar");
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal P_w_ReH_out_sensor.P_sensor
+ (start = P_w_ReH_out_sensor.init_P);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate P_Cond_sensor.Q
+ (start = P_Cond_sensor.Q_0, nominal = 100.0) "Component mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction P_Cond_sensor.Xi[0]
+ "Component mass fractions";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_Cond_sensor.P(start =
+ P_Cond_sensor.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_Cond_sensor.h(
+ start = P_Cond_sensor.h_0) "Enthalpy of the fluid into the component";
+ Modelica.Media.Interfaces.Types.FixedPhase P_Cond_sensor.state.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy P_Cond_sensor.state.h(
+ start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density P_Cond_sensor.state.d(start = 150,
+ nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature P_Cond_sensor.state.T(start = 500,
+ nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_Cond_sensor.state.p(
+ start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate P_Cond_sensor.mass_flow_rate_bias
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_Cond_sensor.C_in.Q(start = P_Cond_sensor.Q_0, nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_Cond_sensor.C_in.P(
+ start = P_Cond_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_Cond_sensor.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction P_Cond_sensor.C_in.Xi_outflow[0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ P_Cond_sensor.C_out.Q(start = -P_Cond_sensor.Q_0, nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_Cond_sensor.C_out.P(
+ start = P_Cond_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_Cond_sensor.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction P_Cond_sensor.C_out.Xi_outflow[0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_Cond_sensor.flow_model.h_in
+ (start = P_Cond_sensor.flow_model.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_Cond_sensor.flow_model.h_out
+ (start = P_Cond_sensor.flow_model.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_Cond_sensor.flow_model.Q(start = P_Cond_sensor.flow_model.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_Cond_sensor.flow_model.P_in
+ (start = P_Cond_sensor.flow_model.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_Cond_sensor.flow_model.P_out
+ (start = P_Cond_sensor.flow_model.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction P_Cond_sensor.flow_model.Xi
+ [0] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_Cond_sensor.flow_model.rho_in
+ (start = P_Cond_sensor.flow_model.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_Cond_sensor.flow_model.rho_out
+ (start = P_Cond_sensor.flow_model.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_Cond_sensor.flow_model.rho
+ (start = P_Cond_sensor.flow_model.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ P_Cond_sensor.flow_model.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ P_Cond_sensor.flow_model.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ P_Cond_sensor.flow_model.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_Cond_sensor.flow_model.T_in
+ (start = P_Cond_sensor.flow_model.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_Cond_sensor.flow_model.T_out
+ (start = P_Cond_sensor.flow_model.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase P_Cond_sensor.flow_model.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy P_Cond_sensor.flow_model.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density P_Cond_sensor.flow_model.state_in.d(
+ start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature P_Cond_sensor.flow_model.state_in.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_Cond_sensor.flow_model.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase P_Cond_sensor.flow_model.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy P_Cond_sensor.flow_model.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density P_Cond_sensor.flow_model.state_out.d(
+ start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature P_Cond_sensor.flow_model.state_out.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_Cond_sensor.flow_model.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ P_Cond_sensor.flow_model.DP(start = P_Cond_sensor.flow_model.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power P_Cond_sensor.flow_model.W(
+ start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ P_Cond_sensor.flow_model.DH(start = P_Cond_sensor.flow_model.h_out_0-
+ P_Cond_sensor.flow_model.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ P_Cond_sensor.flow_model.DT(start = P_Cond_sensor.flow_model.T_out_0-
+ P_Cond_sensor.flow_model.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_Cond_sensor.flow_model.C_in.Q(start = P_Cond_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_Cond_sensor.flow_model.C_in.P
+ (start = P_Cond_sensor.flow_model.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_Cond_sensor.flow_model.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction P_Cond_sensor.flow_model.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ P_Cond_sensor.flow_model.C_out.Q(start = -P_Cond_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_Cond_sensor.flow_model.C_out.P
+ (start = P_Cond_sensor.flow_model.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_Cond_sensor.flow_model.C_out.h_outflow
+ (start = P_Cond_sensor.flow_model.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction P_Cond_sensor.flow_model.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_Cond_sensor.flow_model.h
+ (start = P_Cond_sensor.flow_model.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_Cond_sensor.flow_model.P(
+ start = P_Cond_sensor.flow_model.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_Cond_sensor.flow_model.T
+ (start = P_Cond_sensor.flow_model.T_0) "Temperature of the fluid into the component";
+ Real P_Cond_sensor.P_barG(start = P_Cond_sensor.P_0*1E-05-1, nominal =
+ 100000.0);
+ Real P_Cond_sensor.P_psiG(start = P_Cond_sensor.P_0*0.000145038-14.50377377,
+ nominal = 14.5038);
+ Real P_Cond_sensor.P_MPaG(start = P_Cond_sensor.P_0*1E-06-0.1, nominal =
+ 0.09999999999999999);
+ Real P_Cond_sensor.P_kPaG(start = P_Cond_sensor.P_0*0.001-100, nominal = 100.0);
+ Real P_Cond_sensor.P_barA(start = P_Cond_sensor.P_0*1E-05, nominal = 1.0,
+ unit = "bar");
+ Real P_Cond_sensor.P_psiA(start = P_Cond_sensor.P_0*0.000145038, nominal =
+ 14.5038);
+ Real P_Cond_sensor.P_MPaA(start = P_Cond_sensor.P_0*1E-06, nominal =
+ 0.09999999999999999);
+ Real P_Cond_sensor.P_kPaA(start = P_Cond_sensor.P_0*0.001, nominal = 100.0);
+ Real P_Cond_sensor.P_inHg(start = P_Cond_sensor.P_0*0.0002953006, nominal =
+ 29.530060000000002);
+ Real P_Cond_sensor.P_mbar(start = P_Cond_sensor.P_0*0.01, nominal = 1000.0,
+ unit = "mbar");
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal P_Cond_sensor.P_sensor
+ (start = P_Cond_sensor.init_P);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_source_air_sensor.Q(start = P_source_air_sensor.Q_0, nominal = 100.0)
+ "Component mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction P_source_air_sensor.Xi[5]
+ "Component mass fractions";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_source_air_sensor.P(
+ start = P_source_air_sensor.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_source_air_sensor.h
+ (start = P_source_air_sensor.h_0) "Enthalpy of the fluid into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_source_air_sensor.state.p(
+ start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature P_source_air_sensor.state.T(
+ start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction P_source_air_sensor.state.X[5](
+ start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate P_source_air_sensor.mass_flow_rate_bias
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_source_air_sensor.C_in.Q(start = P_source_air_sensor.Q_0, nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_source_air_sensor.C_in.P(
+ start = P_source_air_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_source_air_sensor.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction P_source_air_sensor.C_in.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ P_source_air_sensor.C_out.Q(start = -P_source_air_sensor.Q_0, nominal =
+ 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_source_air_sensor.C_out.P
+ (start = P_source_air_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_source_air_sensor.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction P_source_air_sensor.C_out.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_source_air_sensor.flow_model.h_in
+ (start = P_source_air_sensor.flow_model.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_source_air_sensor.flow_model.h_out
+ (start = P_source_air_sensor.flow_model.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_source_air_sensor.flow_model.Q(start = P_source_air_sensor.flow_model.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_source_air_sensor.flow_model.P_in
+ (start = P_source_air_sensor.flow_model.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_source_air_sensor.flow_model.P_out
+ (start = P_source_air_sensor.flow_model.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction P_source_air_sensor.flow_model.Xi
+ [5] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_source_air_sensor.flow_model.rho_in
+ (start = P_source_air_sensor.flow_model.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_source_air_sensor.flow_model.rho_out
+ (start = P_source_air_sensor.flow_model.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_source_air_sensor.flow_model.rho
+ (start = P_source_air_sensor.flow_model.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ P_source_air_sensor.flow_model.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ P_source_air_sensor.flow_model.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ P_source_air_sensor.flow_model.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_source_air_sensor.flow_model.T_in
+ (start = P_source_air_sensor.flow_model.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_source_air_sensor.flow_model.T_out
+ (start = P_source_air_sensor.flow_model.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_source_air_sensor.flow_model.state_in.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature P_source_air_sensor.flow_model.state_in.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction P_source_air_sensor.flow_model.state_in.X
+ [5](start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_source_air_sensor.flow_model.state_out.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature P_source_air_sensor.flow_model.state_out.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction P_source_air_sensor.flow_model.state_out.X
+ [5](start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ P_source_air_sensor.flow_model.DP(start = P_source_air_sensor.flow_model.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power P_source_air_sensor.flow_model.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ P_source_air_sensor.flow_model.DH(start = P_source_air_sensor.flow_model.h_out_0
+ -P_source_air_sensor.flow_model.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ P_source_air_sensor.flow_model.DT(start = P_source_air_sensor.flow_model.T_out_0
+ -P_source_air_sensor.flow_model.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_source_air_sensor.flow_model.C_in.Q(start = P_source_air_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_source_air_sensor.flow_model.C_in.P
+ (start = P_source_air_sensor.flow_model.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_source_air_sensor.flow_model.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction P_source_air_sensor.flow_model.C_in.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ P_source_air_sensor.flow_model.C_out.Q(start = -P_source_air_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_source_air_sensor.flow_model.C_out.P
+ (start = P_source_air_sensor.flow_model.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_source_air_sensor.flow_model.C_out.h_outflow
+ (start = P_source_air_sensor.flow_model.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction P_source_air_sensor.flow_model.C_out.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_source_air_sensor.flow_model.h
+ (start = P_source_air_sensor.flow_model.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_source_air_sensor.flow_model.P
+ (start = P_source_air_sensor.flow_model.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_source_air_sensor.flow_model.T
+ (start = P_source_air_sensor.flow_model.T_0) "Temperature of the fluid into the component";
+ Real P_source_air_sensor.P_barG(start = P_source_air_sensor.P_0*1E-05-1,
+ nominal = 100000.0);
+ Real P_source_air_sensor.P_psiG(start = P_source_air_sensor.P_0*0.000145038-
+ 14.50377377, nominal = 14.5038);
+ Real P_source_air_sensor.P_MPaG(start = P_source_air_sensor.P_0*1E-06-0.1,
+ nominal = 0.09999999999999999);
+ Real P_source_air_sensor.P_kPaG(start = P_source_air_sensor.P_0*0.001-100,
+ nominal = 100.0);
+ Real P_source_air_sensor.P_barA(start = P_source_air_sensor.P_0*1E-05,
+ nominal = 1.0, unit = "bar");
+ Real P_source_air_sensor.P_psiA(start = P_source_air_sensor.P_0*0.000145038,
+ nominal = 14.5038);
+ Real P_source_air_sensor.P_MPaA(start = P_source_air_sensor.P_0*1E-06,
+ nominal = 0.09999999999999999);
+ Real P_source_air_sensor.P_kPaA(start = P_source_air_sensor.P_0*0.001,
+ nominal = 100.0);
+ Real P_source_air_sensor.P_inHg(start = P_source_air_sensor.P_0*0.0002953006,
+ nominal = 29.530060000000002);
+ Real P_source_air_sensor.P_mbar(start = P_source_air_sensor.P_0*0.01,
+ nominal = 1000.0, unit = "mbar");
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal P_source_air_sensor.P_sensor
+ (start = P_source_air_sensor.init_P);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_source_air_sensor.Q(start = T_source_air_sensor.Q_0, nominal = 100.0)
+ "Component mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction T_source_air_sensor.Xi[5]
+ "Component mass fractions";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_source_air_sensor.P(
+ start = T_source_air_sensor.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_source_air_sensor.h
+ (start = T_source_air_sensor.h_0) "Enthalpy of the fluid into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure T_source_air_sensor.state.p(
+ start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature T_source_air_sensor.state.T(
+ start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction T_source_air_sensor.state.X[5](
+ start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate T_source_air_sensor.mass_flow_rate_bias
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_source_air_sensor.C_in.Q(start = T_source_air_sensor.Q_0, nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_source_air_sensor.C_in.P(
+ start = T_source_air_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_source_air_sensor.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction T_source_air_sensor.C_in.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ T_source_air_sensor.C_out.Q(start = -T_source_air_sensor.Q_0, nominal =
+ 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_source_air_sensor.C_out.P
+ (start = T_source_air_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_source_air_sensor.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction T_source_air_sensor.C_out.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_source_air_sensor.flow_model.h_in
+ (start = T_source_air_sensor.flow_model.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_source_air_sensor.flow_model.h_out
+ (start = T_source_air_sensor.flow_model.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_source_air_sensor.flow_model.Q(start = T_source_air_sensor.flow_model.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_source_air_sensor.flow_model.P_in
+ (start = T_source_air_sensor.flow_model.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_source_air_sensor.flow_model.P_out
+ (start = T_source_air_sensor.flow_model.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction T_source_air_sensor.flow_model.Xi
+ [5] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density T_source_air_sensor.flow_model.rho_in
+ (start = T_source_air_sensor.flow_model.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density T_source_air_sensor.flow_model.rho_out
+ (start = T_source_air_sensor.flow_model.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density T_source_air_sensor.flow_model.rho
+ (start = T_source_air_sensor.flow_model.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ T_source_air_sensor.flow_model.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ T_source_air_sensor.flow_model.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ T_source_air_sensor.flow_model.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_source_air_sensor.flow_model.T_in
+ (start = T_source_air_sensor.flow_model.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_source_air_sensor.flow_model.T_out
+ (start = T_source_air_sensor.flow_model.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure T_source_air_sensor.flow_model.state_in.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature T_source_air_sensor.flow_model.state_in.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction T_source_air_sensor.flow_model.state_in.X
+ [5](start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ Modelica.Media.Interfaces.Types.AbsolutePressure T_source_air_sensor.flow_model.state_out.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature T_source_air_sensor.flow_model.state_out.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction T_source_air_sensor.flow_model.state_out.X
+ [5](start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ T_source_air_sensor.flow_model.DP(start = T_source_air_sensor.flow_model.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power T_source_air_sensor.flow_model.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ T_source_air_sensor.flow_model.DH(start = T_source_air_sensor.flow_model.h_out_0
+ -T_source_air_sensor.flow_model.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ T_source_air_sensor.flow_model.DT(start = T_source_air_sensor.flow_model.T_out_0
+ -T_source_air_sensor.flow_model.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_source_air_sensor.flow_model.C_in.Q(start = T_source_air_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_source_air_sensor.flow_model.C_in.P
+ (start = T_source_air_sensor.flow_model.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_source_air_sensor.flow_model.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction T_source_air_sensor.flow_model.C_in.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ T_source_air_sensor.flow_model.C_out.Q(start = -T_source_air_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_source_air_sensor.flow_model.C_out.P
+ (start = T_source_air_sensor.flow_model.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_source_air_sensor.flow_model.C_out.h_outflow
+ (start = T_source_air_sensor.flow_model.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction T_source_air_sensor.flow_model.C_out.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_source_air_sensor.flow_model.h
+ (start = T_source_air_sensor.flow_model.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_source_air_sensor.flow_model.P
+ (start = T_source_air_sensor.flow_model.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_source_air_sensor.flow_model.T
+ (start = T_source_air_sensor.flow_model.T_0) "Temperature of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_source_air_sensor.T(
+ start = T_source_air_sensor.T_0);
+ Real T_source_air_sensor.T_degC(start = T_source_air_sensor.T_0+273.15,
+ nominal = 573.15, unit = "degC");
+ Real T_source_air_sensor.T_degF(start = (T_source_air_sensor.T_0+273.15)*1.8+32,
+ nominal = 1063.67, unit = "degF");
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal T_source_air_sensor.T_sensor
+ (start = T_source_air_sensor.init_T);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Q_source_air_sensor.Q(start = Q_source_air_sensor.Q_0, nominal = 100.0)
+ "Component mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction Q_source_air_sensor.Xi[5]
+ "Component mass fractions";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Q_source_air_sensor.P(
+ start = Q_source_air_sensor.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Q_source_air_sensor.h
+ (start = Q_source_air_sensor.h_0) "Enthalpy of the fluid into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure Q_source_air_sensor.state.p(
+ start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature Q_source_air_sensor.state.T(
+ start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction Q_source_air_sensor.state.X[5](
+ start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate Q_source_air_sensor.mass_flow_rate_bias
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Q_source_air_sensor.C_in.Q(start = Q_source_air_sensor.Q_0, nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Q_source_air_sensor.C_in.P(
+ start = Q_source_air_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Q_source_air_sensor.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction Q_source_air_sensor.C_in.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ Q_source_air_sensor.C_out.Q(start = -Q_source_air_sensor.Q_0, nominal =
+ 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Q_source_air_sensor.C_out.P
+ (start = Q_source_air_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Q_source_air_sensor.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction Q_source_air_sensor.C_out.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Q_source_air_sensor.flow_model.h_in
+ (start = Q_source_air_sensor.flow_model.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Q_source_air_sensor.flow_model.h_out
+ (start = Q_source_air_sensor.flow_model.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Q_source_air_sensor.flow_model.Q(start = Q_source_air_sensor.flow_model.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Q_source_air_sensor.flow_model.P_in
+ (start = Q_source_air_sensor.flow_model.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Q_source_air_sensor.flow_model.P_out
+ (start = Q_source_air_sensor.flow_model.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction Q_source_air_sensor.flow_model.Xi
+ [5] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density Q_source_air_sensor.flow_model.rho_in
+ (start = Q_source_air_sensor.flow_model.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density Q_source_air_sensor.flow_model.rho_out
+ (start = Q_source_air_sensor.flow_model.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density Q_source_air_sensor.flow_model.rho
+ (start = Q_source_air_sensor.flow_model.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ Q_source_air_sensor.flow_model.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ Q_source_air_sensor.flow_model.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ Q_source_air_sensor.flow_model.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature Q_source_air_sensor.flow_model.T_in
+ (start = Q_source_air_sensor.flow_model.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature Q_source_air_sensor.flow_model.T_out
+ (start = Q_source_air_sensor.flow_model.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure Q_source_air_sensor.flow_model.state_in.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature Q_source_air_sensor.flow_model.state_in.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction Q_source_air_sensor.flow_model.state_in.X
+ [5](start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ Modelica.Media.Interfaces.Types.AbsolutePressure Q_source_air_sensor.flow_model.state_out.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature Q_source_air_sensor.flow_model.state_out.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction Q_source_air_sensor.flow_model.state_out.X
+ [5](start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ Q_source_air_sensor.flow_model.DP(start = Q_source_air_sensor.flow_model.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power Q_source_air_sensor.flow_model.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ Q_source_air_sensor.flow_model.DH(start = Q_source_air_sensor.flow_model.h_out_0
+ -Q_source_air_sensor.flow_model.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ Q_source_air_sensor.flow_model.DT(start = Q_source_air_sensor.flow_model.T_out_0
+ -Q_source_air_sensor.flow_model.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Q_source_air_sensor.flow_model.C_in.Q(start = Q_source_air_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Q_source_air_sensor.flow_model.C_in.P
+ (start = Q_source_air_sensor.flow_model.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Q_source_air_sensor.flow_model.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction Q_source_air_sensor.flow_model.C_in.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ Q_source_air_sensor.flow_model.C_out.Q(start = -Q_source_air_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Q_source_air_sensor.flow_model.C_out.P
+ (start = Q_source_air_sensor.flow_model.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Q_source_air_sensor.flow_model.C_out.h_outflow
+ (start = Q_source_air_sensor.flow_model.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction Q_source_air_sensor.flow_model.C_out.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Q_source_air_sensor.flow_model.h
+ (start = Q_source_air_sensor.flow_model.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Q_source_air_sensor.flow_model.P
+ (start = Q_source_air_sensor.flow_model.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature Q_source_air_sensor.flow_model.T
+ (start = Q_source_air_sensor.flow_model.T_0) "Temperature of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.VolumeFlowRate Q_source_air_sensor.Qv
+ (start = Q_source_air_sensor.Qv_0);
+ Real Q_source_air_sensor.Q_lm(start = Q_source_air_sensor.Qv_0*60000,
+ nominal = 6000.0);
+ Real Q_source_air_sensor.Q_th(start = Q_source_air_sensor.Q_0*3.6, nominal =
+ 360.0);
+ Real Q_source_air_sensor.Q_lbs(start = Q_source_air_sensor.Q_0*2.2046,
+ nominal = 220.46);
+ Real Q_source_air_sensor.Q_Mlbh(start = Q_source_air_sensor.Q_0*
+ 0.0079366414387, nominal = 0.79366414387);
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal Q_source_air_sensor.Q_sensor
+ (start = Q_source_air_sensor.Q_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_circulating_water_in_sensor.Q(start = T_circulating_water_in_sensor.Q_0,
+ nominal = 100.0) "Component mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction T_circulating_water_in_sensor.Xi
+ [0] "Component mass fractions";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_circulating_water_in_sensor.P
+ (start = T_circulating_water_in_sensor.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_circulating_water_in_sensor.h
+ (start = T_circulating_water_in_sensor.h_0) "Enthalpy of the fluid into the component";
+ Modelica.Media.Interfaces.Types.FixedPhase T_circulating_water_in_sensor.state.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy T_circulating_water_in_sensor.state.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density T_circulating_water_in_sensor.state.d(
+ start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature T_circulating_water_in_sensor.state.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure T_circulating_water_in_sensor.state.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate T_circulating_water_in_sensor.mass_flow_rate_bias
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_circulating_water_in_sensor.C_in.Q(start = T_circulating_water_in_sensor.Q_0,
+ nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_circulating_water_in_sensor.C_in.P
+ (start = T_circulating_water_in_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_circulating_water_in_sensor.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction T_circulating_water_in_sensor.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ T_circulating_water_in_sensor.C_out.Q(start = -T_circulating_water_in_sensor.Q_0,
+ nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_circulating_water_in_sensor.C_out.P
+ (start = T_circulating_water_in_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_circulating_water_in_sensor.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction T_circulating_water_in_sensor.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_circulating_water_in_sensor.flow_model.h_in
+ (start = T_circulating_water_in_sensor.flow_model.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_circulating_water_in_sensor.flow_model.h_out
+ (start = T_circulating_water_in_sensor.flow_model.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_circulating_water_in_sensor.flow_model.Q(start = T_circulating_water_in_sensor.flow_model.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_circulating_water_in_sensor.flow_model.P_in
+ (start = T_circulating_water_in_sensor.flow_model.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_circulating_water_in_sensor.flow_model.P_out
+ (start = T_circulating_water_in_sensor.flow_model.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction T_circulating_water_in_sensor.flow_model.Xi
+ [0] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density T_circulating_water_in_sensor.flow_model.rho_in
+ (start = T_circulating_water_in_sensor.flow_model.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density T_circulating_water_in_sensor.flow_model.rho_out
+ (start = T_circulating_water_in_sensor.flow_model.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density T_circulating_water_in_sensor.flow_model.rho
+ (start = T_circulating_water_in_sensor.flow_model.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ T_circulating_water_in_sensor.flow_model.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ T_circulating_water_in_sensor.flow_model.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ T_circulating_water_in_sensor.flow_model.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_circulating_water_in_sensor.flow_model.T_in
+ (start = T_circulating_water_in_sensor.flow_model.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_circulating_water_in_sensor.flow_model.T_out
+ (start = T_circulating_water_in_sensor.flow_model.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase T_circulating_water_in_sensor.flow_model.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy T_circulating_water_in_sensor.flow_model.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density T_circulating_water_in_sensor.flow_model.state_in.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature T_circulating_water_in_sensor.flow_model.state_in.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure T_circulating_water_in_sensor.flow_model.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase T_circulating_water_in_sensor.flow_model.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy T_circulating_water_in_sensor.flow_model.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density T_circulating_water_in_sensor.flow_model.state_out.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature T_circulating_water_in_sensor.flow_model.state_out.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure T_circulating_water_in_sensor.flow_model.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ T_circulating_water_in_sensor.flow_model.DP(start = T_circulating_water_in_sensor.flow_model.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power T_circulating_water_in_sensor.flow_model.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ T_circulating_water_in_sensor.flow_model.DH(start = T_circulating_water_in_sensor.flow_model.h_out_0
+ -T_circulating_water_in_sensor.flow_model.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ T_circulating_water_in_sensor.flow_model.DT(start = T_circulating_water_in_sensor.flow_model.T_out_0
+ -T_circulating_water_in_sensor.flow_model.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_circulating_water_in_sensor.flow_model.C_in.Q(start = T_circulating_water_in_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_circulating_water_in_sensor.flow_model.C_in.P
+ (start = T_circulating_water_in_sensor.flow_model.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_circulating_water_in_sensor.flow_model.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction T_circulating_water_in_sensor.flow_model.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ T_circulating_water_in_sensor.flow_model.C_out.Q(start = -T_circulating_water_in_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_circulating_water_in_sensor.flow_model.C_out.P
+ (start = T_circulating_water_in_sensor.flow_model.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_circulating_water_in_sensor.flow_model.C_out.h_outflow
+ (start = T_circulating_water_in_sensor.flow_model.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction T_circulating_water_in_sensor.flow_model.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_circulating_water_in_sensor.flow_model.h
+ (start = T_circulating_water_in_sensor.flow_model.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_circulating_water_in_sensor.flow_model.P
+ (start = T_circulating_water_in_sensor.flow_model.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_circulating_water_in_sensor.flow_model.T
+ (start = T_circulating_water_in_sensor.flow_model.T_0) "Temperature of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_circulating_water_in_sensor.T
+ (start = T_circulating_water_in_sensor.T_0);
+ Real T_circulating_water_in_sensor.T_degC(start = T_circulating_water_in_sensor.T_0
+ +273.15, nominal = 573.15, unit = "degC");
+ Real T_circulating_water_in_sensor.T_degF(start = (T_circulating_water_in_sensor.T_0
+ +273.15)*1.8+32, nominal = 1063.67, unit = "degF");
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal T_circulating_water_in_sensor.T_sensor
+ (start = T_circulating_water_in_sensor.init_T);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_circulating_water_in_sensor.Q(start = P_circulating_water_in_sensor.Q_0,
+ nominal = 100.0) "Component mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction P_circulating_water_in_sensor.Xi
+ [0] "Component mass fractions";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_circulating_water_in_sensor.P
+ (start = P_circulating_water_in_sensor.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_circulating_water_in_sensor.h
+ (start = P_circulating_water_in_sensor.h_0) "Enthalpy of the fluid into the component";
+ Modelica.Media.Interfaces.Types.FixedPhase P_circulating_water_in_sensor.state.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy P_circulating_water_in_sensor.state.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density P_circulating_water_in_sensor.state.d(
+ start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature P_circulating_water_in_sensor.state.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_circulating_water_in_sensor.state.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate P_circulating_water_in_sensor.mass_flow_rate_bias
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_circulating_water_in_sensor.C_in.Q(start = P_circulating_water_in_sensor.Q_0,
+ nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_circulating_water_in_sensor.C_in.P
+ (start = P_circulating_water_in_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_circulating_water_in_sensor.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction P_circulating_water_in_sensor.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ P_circulating_water_in_sensor.C_out.Q(start = -P_circulating_water_in_sensor.Q_0,
+ nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_circulating_water_in_sensor.C_out.P
+ (start = P_circulating_water_in_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_circulating_water_in_sensor.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction P_circulating_water_in_sensor.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_circulating_water_in_sensor.flow_model.h_in
+ (start = P_circulating_water_in_sensor.flow_model.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_circulating_water_in_sensor.flow_model.h_out
+ (start = P_circulating_water_in_sensor.flow_model.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_circulating_water_in_sensor.flow_model.Q(start = P_circulating_water_in_sensor.flow_model.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_circulating_water_in_sensor.flow_model.P_in
+ (start = P_circulating_water_in_sensor.flow_model.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_circulating_water_in_sensor.flow_model.P_out
+ (start = P_circulating_water_in_sensor.flow_model.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction P_circulating_water_in_sensor.flow_model.Xi
+ [0] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_circulating_water_in_sensor.flow_model.rho_in
+ (start = P_circulating_water_in_sensor.flow_model.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_circulating_water_in_sensor.flow_model.rho_out
+ (start = P_circulating_water_in_sensor.flow_model.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_circulating_water_in_sensor.flow_model.rho
+ (start = P_circulating_water_in_sensor.flow_model.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ P_circulating_water_in_sensor.flow_model.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ P_circulating_water_in_sensor.flow_model.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ P_circulating_water_in_sensor.flow_model.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_circulating_water_in_sensor.flow_model.T_in
+ (start = P_circulating_water_in_sensor.flow_model.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_circulating_water_in_sensor.flow_model.T_out
+ (start = P_circulating_water_in_sensor.flow_model.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase P_circulating_water_in_sensor.flow_model.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy P_circulating_water_in_sensor.flow_model.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density P_circulating_water_in_sensor.flow_model.state_in.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature P_circulating_water_in_sensor.flow_model.state_in.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_circulating_water_in_sensor.flow_model.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase P_circulating_water_in_sensor.flow_model.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy P_circulating_water_in_sensor.flow_model.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density P_circulating_water_in_sensor.flow_model.state_out.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature P_circulating_water_in_sensor.flow_model.state_out.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_circulating_water_in_sensor.flow_model.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ P_circulating_water_in_sensor.flow_model.DP(start = P_circulating_water_in_sensor.flow_model.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power P_circulating_water_in_sensor.flow_model.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ P_circulating_water_in_sensor.flow_model.DH(start = P_circulating_water_in_sensor.flow_model.h_out_0
+ -P_circulating_water_in_sensor.flow_model.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ P_circulating_water_in_sensor.flow_model.DT(start = P_circulating_water_in_sensor.flow_model.T_out_0
+ -P_circulating_water_in_sensor.flow_model.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_circulating_water_in_sensor.flow_model.C_in.Q(start = P_circulating_water_in_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_circulating_water_in_sensor.flow_model.C_in.P
+ (start = P_circulating_water_in_sensor.flow_model.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_circulating_water_in_sensor.flow_model.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction P_circulating_water_in_sensor.flow_model.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ P_circulating_water_in_sensor.flow_model.C_out.Q(start = -P_circulating_water_in_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_circulating_water_in_sensor.flow_model.C_out.P
+ (start = P_circulating_water_in_sensor.flow_model.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_circulating_water_in_sensor.flow_model.C_out.h_outflow
+ (start = P_circulating_water_in_sensor.flow_model.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction P_circulating_water_in_sensor.flow_model.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_circulating_water_in_sensor.flow_model.h
+ (start = P_circulating_water_in_sensor.flow_model.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_circulating_water_in_sensor.flow_model.P
+ (start = P_circulating_water_in_sensor.flow_model.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_circulating_water_in_sensor.flow_model.T
+ (start = P_circulating_water_in_sensor.flow_model.T_0) "Temperature of the fluid into the component";
+ Real P_circulating_water_in_sensor.P_barG(start = P_circulating_water_in_sensor.P_0
+ *1E-05-1, nominal = 100000.0);
+ Real P_circulating_water_in_sensor.P_psiG(start = P_circulating_water_in_sensor.P_0
+ *0.000145038-14.50377377, nominal = 14.5038);
+ Real P_circulating_water_in_sensor.P_MPaG(start = P_circulating_water_in_sensor.P_0
+ *1E-06-0.1, nominal = 0.09999999999999999);
+ Real P_circulating_water_in_sensor.P_kPaG(start = P_circulating_water_in_sensor.P_0
+ *0.001-100, nominal = 100.0);
+ Real P_circulating_water_in_sensor.P_barA(start = P_circulating_water_in_sensor.P_0
+ *1E-05, nominal = 1.0, unit = "bar");
+ Real P_circulating_water_in_sensor.P_psiA(start = P_circulating_water_in_sensor.P_0
+ *0.000145038, nominal = 14.5038);
+ Real P_circulating_water_in_sensor.P_MPaA(start = P_circulating_water_in_sensor.P_0
+ *1E-06, nominal = 0.09999999999999999);
+ Real P_circulating_water_in_sensor.P_kPaA(start = P_circulating_water_in_sensor.P_0
+ *0.001, nominal = 100.0);
+ Real P_circulating_water_in_sensor.P_inHg(start = P_circulating_water_in_sensor.P_0
+ *0.0002953006, nominal = 29.530060000000002);
+ Real P_circulating_water_in_sensor.P_mbar(start = P_circulating_water_in_sensor.P_0
+ *0.01, nominal = 1000.0, unit = "mbar");
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal P_circulating_water_in_sensor.P_sensor
+ (start = P_circulating_water_in_sensor.init_P);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy LPST_control_valve.h_in
+ (start = LPST_control_valve.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy LPST_control_valve.h_out
+ (start = LPST_control_valve.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ LPST_control_valve.Q(start = LPST_control_valve.Q_0) "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure LPST_control_valve.P_in(
+ start = LPST_control_valve.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure LPST_control_valve.P_out(
+ start = LPST_control_valve.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction LPST_control_valve.Xi[0]
+ "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density LPST_control_valve.rho_in(
+ start = LPST_control_valve.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density LPST_control_valve.rho_out(
+ start = LPST_control_valve.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density LPST_control_valve.rho(
+ start = LPST_control_valve.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ LPST_control_valve.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ LPST_control_valve.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ LPST_control_valve.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature LPST_control_valve.T_in(
+ start = LPST_control_valve.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature LPST_control_valve.T_out
+ (start = LPST_control_valve.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase LPST_control_valve.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy LPST_control_valve.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density LPST_control_valve.state_in.d(start = 150,
+ nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature LPST_control_valve.state_in.T(
+ start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure LPST_control_valve.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase LPST_control_valve.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy LPST_control_valve.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density LPST_control_valve.state_out.d(
+ start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature LPST_control_valve.state_out.T(
+ start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure LPST_control_valve.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ LPST_control_valve.DP(start = LPST_control_valve.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power LPST_control_valve.W(start = 0,
+ nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ LPST_control_valve.DH(start = LPST_control_valve.h_out_0-LPST_control_valve.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ LPST_control_valve.DT(start = LPST_control_valve.T_out_0-LPST_control_valve.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ LPST_control_valve.C_in.Q(start = LPST_control_valve.Q_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure LPST_control_valve.C_in.P(
+ start = LPST_control_valve.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy LPST_control_valve.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction LPST_control_valve.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ LPST_control_valve.C_out.Q(start = -LPST_control_valve.Q_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure LPST_control_valve.C_out.P(
+ start = LPST_control_valve.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy LPST_control_valve.C_out.h_outflow
+ (start = LPST_control_valve.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction LPST_control_valve.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy LPST_control_valve.h
+ (start = LPST_control_valve.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Percentage LPST_control_valve.closed_valve;
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal LPST_control_valve.Cv
+ (start = LPST_control_valve.Cv_constant);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_LPST_in_sensor.Q(start = P_LPST_in_sensor.Q_0, nominal = 100.0)
+ "Component mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction P_LPST_in_sensor.Xi[0]
+ "Component mass fractions";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_LPST_in_sensor.P(start =
+ P_LPST_in_sensor.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_LPST_in_sensor.h(
+ start = P_LPST_in_sensor.h_0) "Enthalpy of the fluid into the component";
+ Modelica.Media.Interfaces.Types.FixedPhase P_LPST_in_sensor.state.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy P_LPST_in_sensor.state.h(
+ start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density P_LPST_in_sensor.state.d(start = 150,
+ nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature P_LPST_in_sensor.state.T(start = 500,
+ nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_LPST_in_sensor.state.p(
+ start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate P_LPST_in_sensor.mass_flow_rate_bias
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_LPST_in_sensor.C_in.Q(start = P_LPST_in_sensor.Q_0, nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_LPST_in_sensor.C_in.P(
+ start = P_LPST_in_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_LPST_in_sensor.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction P_LPST_in_sensor.C_in.Xi_outflow[0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ P_LPST_in_sensor.C_out.Q(start = -P_LPST_in_sensor.Q_0, nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_LPST_in_sensor.C_out.P(
+ start = P_LPST_in_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_LPST_in_sensor.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction P_LPST_in_sensor.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_LPST_in_sensor.flow_model.h_in
+ (start = P_LPST_in_sensor.flow_model.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_LPST_in_sensor.flow_model.h_out
+ (start = P_LPST_in_sensor.flow_model.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_LPST_in_sensor.flow_model.Q(start = P_LPST_in_sensor.flow_model.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_LPST_in_sensor.flow_model.P_in
+ (start = P_LPST_in_sensor.flow_model.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_LPST_in_sensor.flow_model.P_out
+ (start = P_LPST_in_sensor.flow_model.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction P_LPST_in_sensor.flow_model.Xi
+ [0] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_LPST_in_sensor.flow_model.rho_in
+ (start = P_LPST_in_sensor.flow_model.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_LPST_in_sensor.flow_model.rho_out
+ (start = P_LPST_in_sensor.flow_model.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_LPST_in_sensor.flow_model.rho
+ (start = P_LPST_in_sensor.flow_model.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ P_LPST_in_sensor.flow_model.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ P_LPST_in_sensor.flow_model.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ P_LPST_in_sensor.flow_model.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_LPST_in_sensor.flow_model.T_in
+ (start = P_LPST_in_sensor.flow_model.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_LPST_in_sensor.flow_model.T_out
+ (start = P_LPST_in_sensor.flow_model.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase P_LPST_in_sensor.flow_model.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy P_LPST_in_sensor.flow_model.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density P_LPST_in_sensor.flow_model.state_in.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature P_LPST_in_sensor.flow_model.state_in.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_LPST_in_sensor.flow_model.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase P_LPST_in_sensor.flow_model.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy P_LPST_in_sensor.flow_model.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density P_LPST_in_sensor.flow_model.state_out.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature P_LPST_in_sensor.flow_model.state_out.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_LPST_in_sensor.flow_model.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ P_LPST_in_sensor.flow_model.DP(start = P_LPST_in_sensor.flow_model.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power P_LPST_in_sensor.flow_model.W(
+ start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ P_LPST_in_sensor.flow_model.DH(start = P_LPST_in_sensor.flow_model.h_out_0-
+ P_LPST_in_sensor.flow_model.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ P_LPST_in_sensor.flow_model.DT(start = P_LPST_in_sensor.flow_model.T_out_0-
+ P_LPST_in_sensor.flow_model.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_LPST_in_sensor.flow_model.C_in.Q(start = P_LPST_in_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_LPST_in_sensor.flow_model.C_in.P
+ (start = P_LPST_in_sensor.flow_model.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_LPST_in_sensor.flow_model.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction P_LPST_in_sensor.flow_model.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ P_LPST_in_sensor.flow_model.C_out.Q(start = -P_LPST_in_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_LPST_in_sensor.flow_model.C_out.P
+ (start = P_LPST_in_sensor.flow_model.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_LPST_in_sensor.flow_model.C_out.h_outflow
+ (start = P_LPST_in_sensor.flow_model.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction P_LPST_in_sensor.flow_model.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_LPST_in_sensor.flow_model.h
+ (start = P_LPST_in_sensor.flow_model.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_LPST_in_sensor.flow_model.P
+ (start = P_LPST_in_sensor.flow_model.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_LPST_in_sensor.flow_model.T
+ (start = P_LPST_in_sensor.flow_model.T_0) "Temperature of the fluid into the component";
+ Real P_LPST_in_sensor.P_barG(start = P_LPST_in_sensor.P_0*1E-05-1, nominal =
+ 100000.0);
+ Real P_LPST_in_sensor.P_psiG(start = P_LPST_in_sensor.P_0*0.000145038-
+ 14.50377377, nominal = 14.5038);
+ Real P_LPST_in_sensor.P_MPaG(start = P_LPST_in_sensor.P_0*1E-06-0.1,
+ nominal = 0.09999999999999999);
+ Real P_LPST_in_sensor.P_kPaG(start = P_LPST_in_sensor.P_0*0.001-100,
+ nominal = 100.0);
+ Real P_LPST_in_sensor.P_barA(start = P_LPST_in_sensor.P_0*1E-05, nominal = 1.0,
+ unit = "bar");
+ Real P_LPST_in_sensor.P_psiA(start = P_LPST_in_sensor.P_0*0.000145038,
+ nominal = 14.5038);
+ Real P_LPST_in_sensor.P_MPaA(start = P_LPST_in_sensor.P_0*1E-06, nominal =
+ 0.09999999999999999);
+ Real P_LPST_in_sensor.P_kPaA(start = P_LPST_in_sensor.P_0*0.001, nominal =
+ 100.0);
+ Real P_LPST_in_sensor.P_inHg(start = P_LPST_in_sensor.P_0*0.0002953006,
+ nominal = 29.530060000000002);
+ Real P_LPST_in_sensor.P_mbar(start = P_LPST_in_sensor.P_0*0.01, nominal =
+ 1000.0, unit = "mbar");
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal P_LPST_in_sensor.P_sensor
+ (start = P_LPST_in_sensor.init_P);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy pumpRec.h_in(
+ start = pumpRec.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy pumpRec.h_out(
+ start = pumpRec.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate pumpRec.Q(
+ start = pumpRec.Q_0) "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure pumpRec.P_in(start =
+ pumpRec.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure pumpRec.P_out(start =
+ pumpRec.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction pumpRec.Xi[0]
+ "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density pumpRec.rho_in(start =
+ pumpRec.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density pumpRec.rho_out(start =
+ pumpRec.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density pumpRec.rho(start =
+ pumpRec.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate pumpRec.Qv_in
+ "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ pumpRec.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate pumpRec.Qv
+ "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature pumpRec.T_in(start =
+ pumpRec.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature pumpRec.T_out(start =
+ pumpRec.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase pumpRec.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy pumpRec.state_in.h(start =
+ 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density pumpRec.state_in.d(start = 150,
+ nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature pumpRec.state_in.T(start = 500,
+ nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure pumpRec.state_in.p(start =
+ 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase pumpRec.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy pumpRec.state_out.h(start =
+ 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density pumpRec.state_out.d(start = 150,
+ nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature pumpRec.state_out.T(start = 500,
+ nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure pumpRec.state_out.p(start =
+ 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure pumpRec.DP(
+ start = pumpRec.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power pumpRec.W(start = 0,
+ nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy pumpRec.DH(
+ start = pumpRec.h_out_0-pumpRec.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature pumpRec.DT(
+ start = pumpRec.T_out_0-pumpRec.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate pumpRec.C_in.Q(
+ start = pumpRec.Q_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure pumpRec.C_in.P(start =
+ pumpRec.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy pumpRec.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction pumpRec.C_in.Xi_outflow[0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate pumpRec.C_out.Q
+ (start = -pumpRec.Q_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure pumpRec.C_out.P(start =
+ pumpRec.P_out_0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy pumpRec.C_out.h_outflow
+ (start = pumpRec.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction pumpRec.C_out.Xi_outflow[0];
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal pumpRec.rh;
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal pumpRec.hn;
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_pumpRec_out_sensor.Q(start = T_pumpRec_out_sensor.Q_0, nominal = 100.0)
+ "Component mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction T_pumpRec_out_sensor.Xi
+ [0] "Component mass fractions";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_pumpRec_out_sensor.P(
+ start = T_pumpRec_out_sensor.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_pumpRec_out_sensor.h
+ (start = T_pumpRec_out_sensor.h_0) "Enthalpy of the fluid into the component";
+ Modelica.Media.Interfaces.Types.FixedPhase T_pumpRec_out_sensor.state.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy T_pumpRec_out_sensor.state.h(
+ start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density T_pumpRec_out_sensor.state.d(start = 150,
+ nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature T_pumpRec_out_sensor.state.T(
+ start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure T_pumpRec_out_sensor.state.p(
+ start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate T_pumpRec_out_sensor.mass_flow_rate_bias
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_pumpRec_out_sensor.C_in.Q(start = T_pumpRec_out_sensor.Q_0, nominal =
+ 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_pumpRec_out_sensor.C_in.P
+ (start = T_pumpRec_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_pumpRec_out_sensor.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction T_pumpRec_out_sensor.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ T_pumpRec_out_sensor.C_out.Q(start = -T_pumpRec_out_sensor.Q_0, nominal =
+ 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_pumpRec_out_sensor.C_out.P
+ (start = T_pumpRec_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_pumpRec_out_sensor.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction T_pumpRec_out_sensor.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_pumpRec_out_sensor.flow_model.h_in
+ (start = T_pumpRec_out_sensor.flow_model.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_pumpRec_out_sensor.flow_model.h_out
+ (start = T_pumpRec_out_sensor.flow_model.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_pumpRec_out_sensor.flow_model.Q(start = T_pumpRec_out_sensor.flow_model.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_pumpRec_out_sensor.flow_model.P_in
+ (start = T_pumpRec_out_sensor.flow_model.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_pumpRec_out_sensor.flow_model.P_out
+ (start = T_pumpRec_out_sensor.flow_model.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction T_pumpRec_out_sensor.flow_model.Xi
+ [0] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density T_pumpRec_out_sensor.flow_model.rho_in
+ (start = T_pumpRec_out_sensor.flow_model.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density T_pumpRec_out_sensor.flow_model.rho_out
+ (start = T_pumpRec_out_sensor.flow_model.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density T_pumpRec_out_sensor.flow_model.rho
+ (start = T_pumpRec_out_sensor.flow_model.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ T_pumpRec_out_sensor.flow_model.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ T_pumpRec_out_sensor.flow_model.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ T_pumpRec_out_sensor.flow_model.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_pumpRec_out_sensor.flow_model.T_in
+ (start = T_pumpRec_out_sensor.flow_model.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_pumpRec_out_sensor.flow_model.T_out
+ (start = T_pumpRec_out_sensor.flow_model.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase T_pumpRec_out_sensor.flow_model.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy T_pumpRec_out_sensor.flow_model.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density T_pumpRec_out_sensor.flow_model.state_in.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature T_pumpRec_out_sensor.flow_model.state_in.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure T_pumpRec_out_sensor.flow_model.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase T_pumpRec_out_sensor.flow_model.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy T_pumpRec_out_sensor.flow_model.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density T_pumpRec_out_sensor.flow_model.state_out.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature T_pumpRec_out_sensor.flow_model.state_out.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure T_pumpRec_out_sensor.flow_model.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ T_pumpRec_out_sensor.flow_model.DP(start = T_pumpRec_out_sensor.flow_model.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power T_pumpRec_out_sensor.flow_model.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ T_pumpRec_out_sensor.flow_model.DH(start = T_pumpRec_out_sensor.flow_model.h_out_0
+ -T_pumpRec_out_sensor.flow_model.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ T_pumpRec_out_sensor.flow_model.DT(start = T_pumpRec_out_sensor.flow_model.T_out_0
+ -T_pumpRec_out_sensor.flow_model.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_pumpRec_out_sensor.flow_model.C_in.Q(start = T_pumpRec_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_pumpRec_out_sensor.flow_model.C_in.P
+ (start = T_pumpRec_out_sensor.flow_model.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_pumpRec_out_sensor.flow_model.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction T_pumpRec_out_sensor.flow_model.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ T_pumpRec_out_sensor.flow_model.C_out.Q(start = -T_pumpRec_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_pumpRec_out_sensor.flow_model.C_out.P
+ (start = T_pumpRec_out_sensor.flow_model.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_pumpRec_out_sensor.flow_model.C_out.h_outflow
+ (start = T_pumpRec_out_sensor.flow_model.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction T_pumpRec_out_sensor.flow_model.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_pumpRec_out_sensor.flow_model.h
+ (start = T_pumpRec_out_sensor.flow_model.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_pumpRec_out_sensor.flow_model.P
+ (start = T_pumpRec_out_sensor.flow_model.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_pumpRec_out_sensor.flow_model.T
+ (start = T_pumpRec_out_sensor.flow_model.T_0) "Temperature of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_pumpRec_out_sensor.T(
+ start = T_pumpRec_out_sensor.T_0);
+ Real T_pumpRec_out_sensor.T_degC(start = T_pumpRec_out_sensor.T_0+273.15,
+ nominal = 573.15, unit = "degC");
+ Real T_pumpRec_out_sensor.T_degF(start = (T_pumpRec_out_sensor.T_0+273.15)*1.8
+ +32, nominal = 1063.67, unit = "degF");
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal T_pumpRec_out_sensor.T_sensor
+ (start = T_pumpRec_out_sensor.init_T);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_pumpRec_out_sensor.Q(start = P_pumpRec_out_sensor.Q_0, nominal = 100.0)
+ "Component mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction P_pumpRec_out_sensor.Xi
+ [0] "Component mass fractions";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_pumpRec_out_sensor.P(
+ start = P_pumpRec_out_sensor.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_pumpRec_out_sensor.h
+ (start = P_pumpRec_out_sensor.h_0) "Enthalpy of the fluid into the component";
+ Modelica.Media.Interfaces.Types.FixedPhase P_pumpRec_out_sensor.state.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy P_pumpRec_out_sensor.state.h(
+ start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density P_pumpRec_out_sensor.state.d(start = 150,
+ nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature P_pumpRec_out_sensor.state.T(
+ start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_pumpRec_out_sensor.state.p(
+ start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate P_pumpRec_out_sensor.mass_flow_rate_bias
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_pumpRec_out_sensor.C_in.Q(start = P_pumpRec_out_sensor.Q_0, nominal =
+ 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_pumpRec_out_sensor.C_in.P
+ (start = P_pumpRec_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_pumpRec_out_sensor.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction P_pumpRec_out_sensor.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ P_pumpRec_out_sensor.C_out.Q(start = -P_pumpRec_out_sensor.Q_0, nominal =
+ 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_pumpRec_out_sensor.C_out.P
+ (start = P_pumpRec_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_pumpRec_out_sensor.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction P_pumpRec_out_sensor.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_pumpRec_out_sensor.flow_model.h_in
+ (start = P_pumpRec_out_sensor.flow_model.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_pumpRec_out_sensor.flow_model.h_out
+ (start = P_pumpRec_out_sensor.flow_model.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_pumpRec_out_sensor.flow_model.Q(start = P_pumpRec_out_sensor.flow_model.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_pumpRec_out_sensor.flow_model.P_in
+ (start = P_pumpRec_out_sensor.flow_model.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_pumpRec_out_sensor.flow_model.P_out
+ (start = P_pumpRec_out_sensor.flow_model.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction P_pumpRec_out_sensor.flow_model.Xi
+ [0] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_pumpRec_out_sensor.flow_model.rho_in
+ (start = P_pumpRec_out_sensor.flow_model.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_pumpRec_out_sensor.flow_model.rho_out
+ (start = P_pumpRec_out_sensor.flow_model.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_pumpRec_out_sensor.flow_model.rho
+ (start = P_pumpRec_out_sensor.flow_model.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ P_pumpRec_out_sensor.flow_model.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ P_pumpRec_out_sensor.flow_model.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ P_pumpRec_out_sensor.flow_model.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_pumpRec_out_sensor.flow_model.T_in
+ (start = P_pumpRec_out_sensor.flow_model.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_pumpRec_out_sensor.flow_model.T_out
+ (start = P_pumpRec_out_sensor.flow_model.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase P_pumpRec_out_sensor.flow_model.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy P_pumpRec_out_sensor.flow_model.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density P_pumpRec_out_sensor.flow_model.state_in.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature P_pumpRec_out_sensor.flow_model.state_in.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_pumpRec_out_sensor.flow_model.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase P_pumpRec_out_sensor.flow_model.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy P_pumpRec_out_sensor.flow_model.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density P_pumpRec_out_sensor.flow_model.state_out.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature P_pumpRec_out_sensor.flow_model.state_out.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_pumpRec_out_sensor.flow_model.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ P_pumpRec_out_sensor.flow_model.DP(start = P_pumpRec_out_sensor.flow_model.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power P_pumpRec_out_sensor.flow_model.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ P_pumpRec_out_sensor.flow_model.DH(start = P_pumpRec_out_sensor.flow_model.h_out_0
+ -P_pumpRec_out_sensor.flow_model.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ P_pumpRec_out_sensor.flow_model.DT(start = P_pumpRec_out_sensor.flow_model.T_out_0
+ -P_pumpRec_out_sensor.flow_model.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_pumpRec_out_sensor.flow_model.C_in.Q(start = P_pumpRec_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_pumpRec_out_sensor.flow_model.C_in.P
+ (start = P_pumpRec_out_sensor.flow_model.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_pumpRec_out_sensor.flow_model.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction P_pumpRec_out_sensor.flow_model.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ P_pumpRec_out_sensor.flow_model.C_out.Q(start = -P_pumpRec_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_pumpRec_out_sensor.flow_model.C_out.P
+ (start = P_pumpRec_out_sensor.flow_model.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_pumpRec_out_sensor.flow_model.C_out.h_outflow
+ (start = P_pumpRec_out_sensor.flow_model.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction P_pumpRec_out_sensor.flow_model.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_pumpRec_out_sensor.flow_model.h
+ (start = P_pumpRec_out_sensor.flow_model.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_pumpRec_out_sensor.flow_model.P
+ (start = P_pumpRec_out_sensor.flow_model.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_pumpRec_out_sensor.flow_model.T
+ (start = P_pumpRec_out_sensor.flow_model.T_0) "Temperature of the fluid into the component";
+ Real P_pumpRec_out_sensor.P_barG(start = P_pumpRec_out_sensor.P_0*1E-05-1,
+ nominal = 100000.0);
+ Real P_pumpRec_out_sensor.P_psiG(start = P_pumpRec_out_sensor.P_0*0.000145038-
+ 14.50377377, nominal = 14.5038);
+ Real P_pumpRec_out_sensor.P_MPaG(start = P_pumpRec_out_sensor.P_0*1E-06-0.1,
+ nominal = 0.09999999999999999);
+ Real P_pumpRec_out_sensor.P_kPaG(start = P_pumpRec_out_sensor.P_0*0.001-100,
+ nominal = 100.0);
+ Real P_pumpRec_out_sensor.P_barA(start = P_pumpRec_out_sensor.P_0*1E-05,
+ nominal = 1.0, unit = "bar");
+ Real P_pumpRec_out_sensor.P_psiA(start = P_pumpRec_out_sensor.P_0*0.000145038,
+ nominal = 14.5038);
+ Real P_pumpRec_out_sensor.P_MPaA(start = P_pumpRec_out_sensor.P_0*1E-06,
+ nominal = 0.09999999999999999);
+ Real P_pumpRec_out_sensor.P_kPaA(start = P_pumpRec_out_sensor.P_0*0.001,
+ nominal = 100.0);
+ Real P_pumpRec_out_sensor.P_inHg(start = P_pumpRec_out_sensor.P_0*0.0002953006,
+ nominal = 29.530060000000002);
+ Real P_pumpRec_out_sensor.P_mbar(start = P_pumpRec_out_sensor.P_0*0.01,
+ nominal = 1000.0, unit = "mbar");
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal P_pumpRec_out_sensor.P_sensor
+ (start = P_pumpRec_out_sensor.init_P);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Q_pumpRec_out_sensor.Q(start = Q_pumpRec_out_sensor.Q_0, nominal = 100.0)
+ "Component mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction Q_pumpRec_out_sensor.Xi
+ [0] "Component mass fractions";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Q_pumpRec_out_sensor.P(
+ start = Q_pumpRec_out_sensor.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Q_pumpRec_out_sensor.h
+ (start = Q_pumpRec_out_sensor.h_0) "Enthalpy of the fluid into the component";
+ Modelica.Media.Interfaces.Types.FixedPhase Q_pumpRec_out_sensor.state.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy Q_pumpRec_out_sensor.state.h(
+ start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density Q_pumpRec_out_sensor.state.d(start = 150,
+ nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature Q_pumpRec_out_sensor.state.T(
+ start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure Q_pumpRec_out_sensor.state.p(
+ start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate Q_pumpRec_out_sensor.mass_flow_rate_bias
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Q_pumpRec_out_sensor.C_in.Q(start = Q_pumpRec_out_sensor.Q_0, nominal =
+ 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Q_pumpRec_out_sensor.C_in.P
+ (start = Q_pumpRec_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Q_pumpRec_out_sensor.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction Q_pumpRec_out_sensor.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ Q_pumpRec_out_sensor.C_out.Q(start = -Q_pumpRec_out_sensor.Q_0, nominal =
+ 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Q_pumpRec_out_sensor.C_out.P
+ (start = Q_pumpRec_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Q_pumpRec_out_sensor.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction Q_pumpRec_out_sensor.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Q_pumpRec_out_sensor.flow_model.h_in
+ (start = Q_pumpRec_out_sensor.flow_model.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Q_pumpRec_out_sensor.flow_model.h_out
+ (start = Q_pumpRec_out_sensor.flow_model.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Q_pumpRec_out_sensor.flow_model.Q(start = Q_pumpRec_out_sensor.flow_model.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Q_pumpRec_out_sensor.flow_model.P_in
+ (start = Q_pumpRec_out_sensor.flow_model.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Q_pumpRec_out_sensor.flow_model.P_out
+ (start = Q_pumpRec_out_sensor.flow_model.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction Q_pumpRec_out_sensor.flow_model.Xi
+ [0] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density Q_pumpRec_out_sensor.flow_model.rho_in
+ (start = Q_pumpRec_out_sensor.flow_model.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density Q_pumpRec_out_sensor.flow_model.rho_out
+ (start = Q_pumpRec_out_sensor.flow_model.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density Q_pumpRec_out_sensor.flow_model.rho
+ (start = Q_pumpRec_out_sensor.flow_model.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ Q_pumpRec_out_sensor.flow_model.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ Q_pumpRec_out_sensor.flow_model.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ Q_pumpRec_out_sensor.flow_model.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature Q_pumpRec_out_sensor.flow_model.T_in
+ (start = Q_pumpRec_out_sensor.flow_model.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature Q_pumpRec_out_sensor.flow_model.T_out
+ (start = Q_pumpRec_out_sensor.flow_model.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase Q_pumpRec_out_sensor.flow_model.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy Q_pumpRec_out_sensor.flow_model.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density Q_pumpRec_out_sensor.flow_model.state_in.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature Q_pumpRec_out_sensor.flow_model.state_in.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure Q_pumpRec_out_sensor.flow_model.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase Q_pumpRec_out_sensor.flow_model.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy Q_pumpRec_out_sensor.flow_model.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density Q_pumpRec_out_sensor.flow_model.state_out.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature Q_pumpRec_out_sensor.flow_model.state_out.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure Q_pumpRec_out_sensor.flow_model.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ Q_pumpRec_out_sensor.flow_model.DP(start = Q_pumpRec_out_sensor.flow_model.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power Q_pumpRec_out_sensor.flow_model.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ Q_pumpRec_out_sensor.flow_model.DH(start = Q_pumpRec_out_sensor.flow_model.h_out_0
+ -Q_pumpRec_out_sensor.flow_model.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ Q_pumpRec_out_sensor.flow_model.DT(start = Q_pumpRec_out_sensor.flow_model.T_out_0
+ -Q_pumpRec_out_sensor.flow_model.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Q_pumpRec_out_sensor.flow_model.C_in.Q(start = Q_pumpRec_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Q_pumpRec_out_sensor.flow_model.C_in.P
+ (start = Q_pumpRec_out_sensor.flow_model.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Q_pumpRec_out_sensor.flow_model.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction Q_pumpRec_out_sensor.flow_model.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ Q_pumpRec_out_sensor.flow_model.C_out.Q(start = -Q_pumpRec_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Q_pumpRec_out_sensor.flow_model.C_out.P
+ (start = Q_pumpRec_out_sensor.flow_model.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Q_pumpRec_out_sensor.flow_model.C_out.h_outflow
+ (start = Q_pumpRec_out_sensor.flow_model.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction Q_pumpRec_out_sensor.flow_model.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Q_pumpRec_out_sensor.flow_model.h
+ (start = Q_pumpRec_out_sensor.flow_model.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Q_pumpRec_out_sensor.flow_model.P
+ (start = Q_pumpRec_out_sensor.flow_model.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature Q_pumpRec_out_sensor.flow_model.T
+ (start = Q_pumpRec_out_sensor.flow_model.T_0) "Temperature of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.VolumeFlowRate Q_pumpRec_out_sensor.Qv
+ (start = Q_pumpRec_out_sensor.Qv_0);
+ Real Q_pumpRec_out_sensor.Q_lm(start = Q_pumpRec_out_sensor.Qv_0*60000,
+ nominal = 6000.0);
+ Real Q_pumpRec_out_sensor.Q_th(start = Q_pumpRec_out_sensor.Q_0*3.6,
+ nominal = 360.0);
+ Real Q_pumpRec_out_sensor.Q_lbs(start = Q_pumpRec_out_sensor.Q_0*2.2046,
+ nominal = 220.46);
+ Real Q_pumpRec_out_sensor.Q_Mlbh(start = Q_pumpRec_out_sensor.Q_0*
+ 0.0079366414387, nominal = 0.79366414387);
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal Q_pumpRec_out_sensor.Q_sensor
+ (start = Q_pumpRec_out_sensor.Q_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_w_eco_in_sensor.Q(start = T_w_eco_in_sensor.Q_0, nominal = 100.0)
+ "Component mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction T_w_eco_in_sensor.Xi[0]
+ "Component mass fractions";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_eco_in_sensor.P(
+ start = T_w_eco_in_sensor.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_w_eco_in_sensor.h
+ (start = T_w_eco_in_sensor.h_0) "Enthalpy of the fluid into the component";
+ Modelica.Media.Interfaces.Types.FixedPhase T_w_eco_in_sensor.state.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy T_w_eco_in_sensor.state.h(
+ start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density T_w_eco_in_sensor.state.d(start = 150,
+ nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature T_w_eco_in_sensor.state.T(start = 500,
+ nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure T_w_eco_in_sensor.state.p(
+ start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate T_w_eco_in_sensor.mass_flow_rate_bias
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_w_eco_in_sensor.C_in.Q(start = T_w_eco_in_sensor.Q_0, nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_eco_in_sensor.C_in.P(
+ start = T_w_eco_in_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_w_eco_in_sensor.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction T_w_eco_in_sensor.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ T_w_eco_in_sensor.C_out.Q(start = -T_w_eco_in_sensor.Q_0, nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_eco_in_sensor.C_out.P(
+ start = T_w_eco_in_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_w_eco_in_sensor.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction T_w_eco_in_sensor.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_w_eco_in_sensor.flow_model.h_in
+ (start = T_w_eco_in_sensor.flow_model.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_w_eco_in_sensor.flow_model.h_out
+ (start = T_w_eco_in_sensor.flow_model.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_w_eco_in_sensor.flow_model.Q(start = T_w_eco_in_sensor.flow_model.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_eco_in_sensor.flow_model.P_in
+ (start = T_w_eco_in_sensor.flow_model.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_eco_in_sensor.flow_model.P_out
+ (start = T_w_eco_in_sensor.flow_model.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction T_w_eco_in_sensor.flow_model.Xi
+ [0] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density T_w_eco_in_sensor.flow_model.rho_in
+ (start = T_w_eco_in_sensor.flow_model.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density T_w_eco_in_sensor.flow_model.rho_out
+ (start = T_w_eco_in_sensor.flow_model.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density T_w_eco_in_sensor.flow_model.rho
+ (start = T_w_eco_in_sensor.flow_model.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ T_w_eco_in_sensor.flow_model.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ T_w_eco_in_sensor.flow_model.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ T_w_eco_in_sensor.flow_model.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_w_eco_in_sensor.flow_model.T_in
+ (start = T_w_eco_in_sensor.flow_model.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_w_eco_in_sensor.flow_model.T_out
+ (start = T_w_eco_in_sensor.flow_model.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase T_w_eco_in_sensor.flow_model.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy T_w_eco_in_sensor.flow_model.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density T_w_eco_in_sensor.flow_model.state_in.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature T_w_eco_in_sensor.flow_model.state_in.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure T_w_eco_in_sensor.flow_model.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase T_w_eco_in_sensor.flow_model.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy T_w_eco_in_sensor.flow_model.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density T_w_eco_in_sensor.flow_model.state_out.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature T_w_eco_in_sensor.flow_model.state_out.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure T_w_eco_in_sensor.flow_model.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ T_w_eco_in_sensor.flow_model.DP(start = T_w_eco_in_sensor.flow_model.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power T_w_eco_in_sensor.flow_model.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ T_w_eco_in_sensor.flow_model.DH(start = T_w_eco_in_sensor.flow_model.h_out_0
+ -T_w_eco_in_sensor.flow_model.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ T_w_eco_in_sensor.flow_model.DT(start = T_w_eco_in_sensor.flow_model.T_out_0
+ -T_w_eco_in_sensor.flow_model.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_w_eco_in_sensor.flow_model.C_in.Q(start = T_w_eco_in_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_eco_in_sensor.flow_model.C_in.P
+ (start = T_w_eco_in_sensor.flow_model.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_w_eco_in_sensor.flow_model.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction T_w_eco_in_sensor.flow_model.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ T_w_eco_in_sensor.flow_model.C_out.Q(start = -T_w_eco_in_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_eco_in_sensor.flow_model.C_out.P
+ (start = T_w_eco_in_sensor.flow_model.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_w_eco_in_sensor.flow_model.C_out.h_outflow
+ (start = T_w_eco_in_sensor.flow_model.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction T_w_eco_in_sensor.flow_model.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_w_eco_in_sensor.flow_model.h
+ (start = T_w_eco_in_sensor.flow_model.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_eco_in_sensor.flow_model.P
+ (start = T_w_eco_in_sensor.flow_model.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_w_eco_in_sensor.flow_model.T
+ (start = T_w_eco_in_sensor.flow_model.T_0) "Temperature of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_w_eco_in_sensor.T(
+ start = T_w_eco_in_sensor.T_0);
+ Real T_w_eco_in_sensor.T_degC(start = T_w_eco_in_sensor.T_0+273.15, nominal =
+ 573.15, unit = "degC");
+ Real T_w_eco_in_sensor.T_degF(start = (T_w_eco_in_sensor.T_0+273.15)*1.8+32,
+ nominal = 1063.67, unit = "degF");
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal T_w_eco_in_sensor.T_sensor
+ (start = T_w_eco_in_sensor.init_T);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy pumpRec_controlValve.h_in
+ (start = pumpRec_controlValve.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy pumpRec_controlValve.h_out
+ (start = pumpRec_controlValve.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ pumpRec_controlValve.Q(start = pumpRec_controlValve.Q_0) "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure pumpRec_controlValve.P_in(
+ start = pumpRec_controlValve.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure pumpRec_controlValve.P_out(
+ start = pumpRec_controlValve.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction pumpRec_controlValve.Xi
+ [0] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density pumpRec_controlValve.rho_in(
+ start = pumpRec_controlValve.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density pumpRec_controlValve.rho_out
+ (start = pumpRec_controlValve.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density pumpRec_controlValve.rho(
+ start = pumpRec_controlValve.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ pumpRec_controlValve.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ pumpRec_controlValve.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ pumpRec_controlValve.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature pumpRec_controlValve.T_in
+ (start = pumpRec_controlValve.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature pumpRec_controlValve.T_out
+ (start = pumpRec_controlValve.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase pumpRec_controlValve.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy pumpRec_controlValve.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density pumpRec_controlValve.state_in.d(
+ start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature pumpRec_controlValve.state_in.T(
+ start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure pumpRec_controlValve.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase pumpRec_controlValve.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy pumpRec_controlValve.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density pumpRec_controlValve.state_out.d(
+ start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature pumpRec_controlValve.state_out.T(
+ start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure pumpRec_controlValve.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ pumpRec_controlValve.DP(start = pumpRec_controlValve.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power pumpRec_controlValve.W(
+ start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ pumpRec_controlValve.DH(start = pumpRec_controlValve.h_out_0-
+ pumpRec_controlValve.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ pumpRec_controlValve.DT(start = pumpRec_controlValve.T_out_0-
+ pumpRec_controlValve.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ pumpRec_controlValve.C_in.Q(start = pumpRec_controlValve.Q_0, nominal =
+ 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure pumpRec_controlValve.C_in.P
+ (start = pumpRec_controlValve.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy pumpRec_controlValve.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction pumpRec_controlValve.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ pumpRec_controlValve.C_out.Q(start = -pumpRec_controlValve.Q_0, nominal =
+ 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure pumpRec_controlValve.C_out.P
+ (start = pumpRec_controlValve.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy pumpRec_controlValve.C_out.h_outflow
+ (start = pumpRec_controlValve.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction pumpRec_controlValve.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy pumpRec_controlValve.h
+ (start = pumpRec_controlValve.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Cv pumpRec_controlValve.Cv(start =
+ 10000.0) "Cv";
+ Modelica.Blocks.Interfaces.RealInput pumpRec_controlValve.Opening(nominal =
+ 0.5, unit = "1", min = 0.0, max = 1.0);
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal pumpRec_controlValve.Cv_max
+ (start = pumpRec_controlValve.Cv_max_constant);
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputPercentage
+ pumpRec_opening_sensor.Opening_pc(start = pumpRec_opening_sensor.Opening_pc_0,
+ nominal = 15.0, unit = "1");
+ Modelica.Blocks.Interfaces.RealOutput pumpRec_opening_sensor.Opening(start =
+ pumpRec_opening_sensor.Opening_pc_0/100, nominal = 0.15, unit = "1", min =
+ 0.0, max = 1.0);
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal pumpRec_opening_sensor.opening_sensor;
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_flue_gas_sink_sensor.Q(start = P_flue_gas_sink_sensor.Q_0, nominal = 100.0)
+ "Component mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction P_flue_gas_sink_sensor.Xi
+ [5] "Component mass fractions";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_flue_gas_sink_sensor.P(
+ start = P_flue_gas_sink_sensor.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_flue_gas_sink_sensor.h
+ (start = P_flue_gas_sink_sensor.h_0) "Enthalpy of the fluid into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_flue_gas_sink_sensor.state.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature P_flue_gas_sink_sensor.state.T(
+ start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction P_flue_gas_sink_sensor.state.X[5]
+ (start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate P_flue_gas_sink_sensor.mass_flow_rate_bias
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_flue_gas_sink_sensor.C_in.Q(start = P_flue_gas_sink_sensor.Q_0, nominal =
+ 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_flue_gas_sink_sensor.C_in.P
+ (start = P_flue_gas_sink_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_flue_gas_sink_sensor.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction P_flue_gas_sink_sensor.C_in.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ P_flue_gas_sink_sensor.C_out.Q(start = -P_flue_gas_sink_sensor.Q_0,
+ nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_flue_gas_sink_sensor.C_out.P
+ (start = P_flue_gas_sink_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_flue_gas_sink_sensor.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction P_flue_gas_sink_sensor.C_out.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_flue_gas_sink_sensor.flow_model.h_in
+ (start = P_flue_gas_sink_sensor.flow_model.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_flue_gas_sink_sensor.flow_model.h_out
+ (start = P_flue_gas_sink_sensor.flow_model.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_flue_gas_sink_sensor.flow_model.Q(start = P_flue_gas_sink_sensor.flow_model.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_flue_gas_sink_sensor.flow_model.P_in
+ (start = P_flue_gas_sink_sensor.flow_model.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_flue_gas_sink_sensor.flow_model.P_out
+ (start = P_flue_gas_sink_sensor.flow_model.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction P_flue_gas_sink_sensor.flow_model.Xi
+ [5] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_flue_gas_sink_sensor.flow_model.rho_in
+ (start = P_flue_gas_sink_sensor.flow_model.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_flue_gas_sink_sensor.flow_model.rho_out
+ (start = P_flue_gas_sink_sensor.flow_model.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_flue_gas_sink_sensor.flow_model.rho
+ (start = P_flue_gas_sink_sensor.flow_model.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ P_flue_gas_sink_sensor.flow_model.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ P_flue_gas_sink_sensor.flow_model.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ P_flue_gas_sink_sensor.flow_model.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_flue_gas_sink_sensor.flow_model.T_in
+ (start = P_flue_gas_sink_sensor.flow_model.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_flue_gas_sink_sensor.flow_model.T_out
+ (start = P_flue_gas_sink_sensor.flow_model.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_flue_gas_sink_sensor.flow_model.state_in.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature P_flue_gas_sink_sensor.flow_model.state_in.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction P_flue_gas_sink_sensor.flow_model.state_in.X
+ [5](start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_flue_gas_sink_sensor.flow_model.state_out.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature P_flue_gas_sink_sensor.flow_model.state_out.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction P_flue_gas_sink_sensor.flow_model.state_out.X
+ [5](start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ P_flue_gas_sink_sensor.flow_model.DP(start = P_flue_gas_sink_sensor.flow_model.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power P_flue_gas_sink_sensor.flow_model.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ P_flue_gas_sink_sensor.flow_model.DH(start = P_flue_gas_sink_sensor.flow_model.h_out_0
+ -P_flue_gas_sink_sensor.flow_model.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ P_flue_gas_sink_sensor.flow_model.DT(start = P_flue_gas_sink_sensor.flow_model.T_out_0
+ -P_flue_gas_sink_sensor.flow_model.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_flue_gas_sink_sensor.flow_model.C_in.Q(start = P_flue_gas_sink_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_flue_gas_sink_sensor.flow_model.C_in.P
+ (start = P_flue_gas_sink_sensor.flow_model.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_flue_gas_sink_sensor.flow_model.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction P_flue_gas_sink_sensor.flow_model.C_in.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ P_flue_gas_sink_sensor.flow_model.C_out.Q(start = -P_flue_gas_sink_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_flue_gas_sink_sensor.flow_model.C_out.P
+ (start = P_flue_gas_sink_sensor.flow_model.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_flue_gas_sink_sensor.flow_model.C_out.h_outflow
+ (start = P_flue_gas_sink_sensor.flow_model.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction P_flue_gas_sink_sensor.flow_model.C_out.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_flue_gas_sink_sensor.flow_model.h
+ (start = P_flue_gas_sink_sensor.flow_model.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_flue_gas_sink_sensor.flow_model.P
+ (start = P_flue_gas_sink_sensor.flow_model.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_flue_gas_sink_sensor.flow_model.T
+ (start = P_flue_gas_sink_sensor.flow_model.T_0) "Temperature of the fluid into the component";
+ Real P_flue_gas_sink_sensor.P_barG(start = P_flue_gas_sink_sensor.P_0*1E-05-1,
+ nominal = 100000.0);
+ Real P_flue_gas_sink_sensor.P_psiG(start = P_flue_gas_sink_sensor.P_0*
+ 0.000145038-14.50377377, nominal = 14.5038);
+ Real P_flue_gas_sink_sensor.P_MPaG(start = P_flue_gas_sink_sensor.P_0*1E-06-
+ 0.1, nominal = 0.09999999999999999);
+ Real P_flue_gas_sink_sensor.P_kPaG(start = P_flue_gas_sink_sensor.P_0*0.001-100,
+ nominal = 100.0);
+ Real P_flue_gas_sink_sensor.P_barA(start = P_flue_gas_sink_sensor.P_0*1E-05,
+ nominal = 1.0, unit = "bar");
+ Real P_flue_gas_sink_sensor.P_psiA(start = P_flue_gas_sink_sensor.P_0*
+ 0.000145038, nominal = 14.5038);
+ Real P_flue_gas_sink_sensor.P_MPaA(start = P_flue_gas_sink_sensor.P_0*1E-06,
+ nominal = 0.09999999999999999);
+ Real P_flue_gas_sink_sensor.P_kPaA(start = P_flue_gas_sink_sensor.P_0*0.001,
+ nominal = 100.0);
+ Real P_flue_gas_sink_sensor.P_inHg(start = P_flue_gas_sink_sensor.P_0*
+ 0.0002953006, nominal = 29.530060000000002);
+ Real P_flue_gas_sink_sensor.P_mbar(start = P_flue_gas_sink_sensor.P_0*0.01,
+ nominal = 1000.0, unit = "mbar");
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal P_flue_gas_sink_sensor.P_sensor
+ (start = P_flue_gas_sink_sensor.init_P);
+ MetroscopeModelingLibrary.Utilities.Units.PositivePower sink.W_in;
+ MetroscopeModelingLibrary.Utilities.Units.PositivePower sink.C_in.W;
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_fuel_source_sensor.Q(start = P_fuel_source_sensor.Q_0, nominal = 100.0)
+ "Component mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction P_fuel_source_sensor.Xi
+ [6] "Component mass fractions";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_fuel_source_sensor.P(
+ start = P_fuel_source_sensor.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_fuel_source_sensor.h
+ (start = P_fuel_source_sensor.h_0) "Enthalpy of the fluid into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_fuel_source_sensor.state.p(
+ start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature P_fuel_source_sensor.state.T(
+ start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction P_fuel_source_sensor.state.X[6](
+ start = {0.92, 0.048, 0.005, 0.002, 0.015, 0.01}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate P_fuel_source_sensor.mass_flow_rate_bias
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_fuel_source_sensor.C_in.Q(start = P_fuel_source_sensor.Q_0, nominal =
+ 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_fuel_source_sensor.C_in.P
+ (start = P_fuel_source_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_fuel_source_sensor.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction P_fuel_source_sensor.C_in.Xi_outflow
+ [6];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ P_fuel_source_sensor.C_out.Q(start = -P_fuel_source_sensor.Q_0, nominal =
+ 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_fuel_source_sensor.C_out.P
+ (start = P_fuel_source_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_fuel_source_sensor.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction P_fuel_source_sensor.C_out.Xi_outflow
+ [6];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_fuel_source_sensor.flow_model.h_in
+ (start = P_fuel_source_sensor.flow_model.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_fuel_source_sensor.flow_model.h_out
+ (start = P_fuel_source_sensor.flow_model.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_fuel_source_sensor.flow_model.Q(start = P_fuel_source_sensor.flow_model.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_fuel_source_sensor.flow_model.P_in
+ (start = P_fuel_source_sensor.flow_model.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_fuel_source_sensor.flow_model.P_out
+ (start = P_fuel_source_sensor.flow_model.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction P_fuel_source_sensor.flow_model.Xi
+ [6] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_fuel_source_sensor.flow_model.rho_in
+ (start = P_fuel_source_sensor.flow_model.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_fuel_source_sensor.flow_model.rho_out
+ (start = P_fuel_source_sensor.flow_model.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_fuel_source_sensor.flow_model.rho
+ (start = P_fuel_source_sensor.flow_model.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ P_fuel_source_sensor.flow_model.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ P_fuel_source_sensor.flow_model.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ P_fuel_source_sensor.flow_model.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_fuel_source_sensor.flow_model.T_in
+ (start = P_fuel_source_sensor.flow_model.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_fuel_source_sensor.flow_model.T_out
+ (start = P_fuel_source_sensor.flow_model.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_fuel_source_sensor.flow_model.state_in.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature P_fuel_source_sensor.flow_model.state_in.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction P_fuel_source_sensor.flow_model.state_in.X
+ [6](start = {0.92, 0.048, 0.005, 0.002, 0.015, 0.01}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_fuel_source_sensor.flow_model.state_out.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature P_fuel_source_sensor.flow_model.state_out.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction P_fuel_source_sensor.flow_model.state_out.X
+ [6](start = {0.92, 0.048, 0.005, 0.002, 0.015, 0.01}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ P_fuel_source_sensor.flow_model.DP(start = P_fuel_source_sensor.flow_model.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power P_fuel_source_sensor.flow_model.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ P_fuel_source_sensor.flow_model.DH(start = P_fuel_source_sensor.flow_model.h_out_0
+ -P_fuel_source_sensor.flow_model.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ P_fuel_source_sensor.flow_model.DT(start = P_fuel_source_sensor.flow_model.T_out_0
+ -P_fuel_source_sensor.flow_model.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_fuel_source_sensor.flow_model.C_in.Q(start = P_fuel_source_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_fuel_source_sensor.flow_model.C_in.P
+ (start = P_fuel_source_sensor.flow_model.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_fuel_source_sensor.flow_model.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction P_fuel_source_sensor.flow_model.C_in.Xi_outflow
+ [6];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ P_fuel_source_sensor.flow_model.C_out.Q(start = -P_fuel_source_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_fuel_source_sensor.flow_model.C_out.P
+ (start = P_fuel_source_sensor.flow_model.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_fuel_source_sensor.flow_model.C_out.h_outflow
+ (start = P_fuel_source_sensor.flow_model.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction P_fuel_source_sensor.flow_model.C_out.Xi_outflow
+ [6];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_fuel_source_sensor.flow_model.h
+ (start = P_fuel_source_sensor.flow_model.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_fuel_source_sensor.flow_model.P
+ (start = P_fuel_source_sensor.flow_model.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_fuel_source_sensor.flow_model.T
+ (start = P_fuel_source_sensor.flow_model.T_0) "Temperature of the fluid into the component";
+ Real P_fuel_source_sensor.P_barG(start = P_fuel_source_sensor.P_0*1E-05-1,
+ nominal = 100000.0);
+ Real P_fuel_source_sensor.P_psiG(start = P_fuel_source_sensor.P_0*0.000145038-
+ 14.50377377, nominal = 14.5038);
+ Real P_fuel_source_sensor.P_MPaG(start = P_fuel_source_sensor.P_0*1E-06-0.1,
+ nominal = 0.09999999999999999);
+ Real P_fuel_source_sensor.P_kPaG(start = P_fuel_source_sensor.P_0*0.001-100,
+ nominal = 100.0);
+ Real P_fuel_source_sensor.P_barA(start = P_fuel_source_sensor.P_0*1E-05,
+ nominal = 1.0, unit = "bar");
+ Real P_fuel_source_sensor.P_psiA(start = P_fuel_source_sensor.P_0*0.000145038,
+ nominal = 14.5038);
+ Real P_fuel_source_sensor.P_MPaA(start = P_fuel_source_sensor.P_0*1E-06,
+ nominal = 0.09999999999999999);
+ Real P_fuel_source_sensor.P_kPaA(start = P_fuel_source_sensor.P_0*0.001,
+ nominal = 100.0);
+ Real P_fuel_source_sensor.P_inHg(start = P_fuel_source_sensor.P_0*0.0002953006,
+ nominal = 29.530060000000002);
+ Real P_fuel_source_sensor.P_mbar(start = P_fuel_source_sensor.P_0*0.01,
+ nominal = 1000.0, unit = "mbar");
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal P_fuel_source_sensor.P_sensor
+ (start = P_fuel_source_sensor.init_P);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_fuel_source_sensor.Q(start = T_fuel_source_sensor.Q_0, nominal = 100.0)
+ "Component mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction T_fuel_source_sensor.Xi
+ [6] "Component mass fractions";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_fuel_source_sensor.P(
+ start = T_fuel_source_sensor.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_fuel_source_sensor.h
+ (start = T_fuel_source_sensor.h_0) "Enthalpy of the fluid into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure T_fuel_source_sensor.state.p(
+ start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature T_fuel_source_sensor.state.T(
+ start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction T_fuel_source_sensor.state.X[6](
+ start = {0.92, 0.048, 0.005, 0.002, 0.015, 0.01}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate T_fuel_source_sensor.mass_flow_rate_bias
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_fuel_source_sensor.C_in.Q(start = T_fuel_source_sensor.Q_0, nominal =
+ 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_fuel_source_sensor.C_in.P
+ (start = T_fuel_source_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_fuel_source_sensor.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction T_fuel_source_sensor.C_in.Xi_outflow
+ [6];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ T_fuel_source_sensor.C_out.Q(start = -T_fuel_source_sensor.Q_0, nominal =
+ 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_fuel_source_sensor.C_out.P
+ (start = T_fuel_source_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_fuel_source_sensor.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction T_fuel_source_sensor.C_out.Xi_outflow
+ [6];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_fuel_source_sensor.flow_model.h_in
+ (start = T_fuel_source_sensor.flow_model.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_fuel_source_sensor.flow_model.h_out
+ (start = T_fuel_source_sensor.flow_model.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_fuel_source_sensor.flow_model.Q(start = T_fuel_source_sensor.flow_model.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_fuel_source_sensor.flow_model.P_in
+ (start = T_fuel_source_sensor.flow_model.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_fuel_source_sensor.flow_model.P_out
+ (start = T_fuel_source_sensor.flow_model.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction T_fuel_source_sensor.flow_model.Xi
+ [6] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density T_fuel_source_sensor.flow_model.rho_in
+ (start = T_fuel_source_sensor.flow_model.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density T_fuel_source_sensor.flow_model.rho_out
+ (start = T_fuel_source_sensor.flow_model.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density T_fuel_source_sensor.flow_model.rho
+ (start = T_fuel_source_sensor.flow_model.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ T_fuel_source_sensor.flow_model.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ T_fuel_source_sensor.flow_model.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ T_fuel_source_sensor.flow_model.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_fuel_source_sensor.flow_model.T_in
+ (start = T_fuel_source_sensor.flow_model.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_fuel_source_sensor.flow_model.T_out
+ (start = T_fuel_source_sensor.flow_model.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure T_fuel_source_sensor.flow_model.state_in.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature T_fuel_source_sensor.flow_model.state_in.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction T_fuel_source_sensor.flow_model.state_in.X
+ [6](start = {0.92, 0.048, 0.005, 0.002, 0.015, 0.01}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ Modelica.Media.Interfaces.Types.AbsolutePressure T_fuel_source_sensor.flow_model.state_out.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature T_fuel_source_sensor.flow_model.state_out.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction T_fuel_source_sensor.flow_model.state_out.X
+ [6](start = {0.92, 0.048, 0.005, 0.002, 0.015, 0.01}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ T_fuel_source_sensor.flow_model.DP(start = T_fuel_source_sensor.flow_model.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power T_fuel_source_sensor.flow_model.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ T_fuel_source_sensor.flow_model.DH(start = T_fuel_source_sensor.flow_model.h_out_0
+ -T_fuel_source_sensor.flow_model.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ T_fuel_source_sensor.flow_model.DT(start = T_fuel_source_sensor.flow_model.T_out_0
+ -T_fuel_source_sensor.flow_model.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_fuel_source_sensor.flow_model.C_in.Q(start = T_fuel_source_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_fuel_source_sensor.flow_model.C_in.P
+ (start = T_fuel_source_sensor.flow_model.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_fuel_source_sensor.flow_model.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction T_fuel_source_sensor.flow_model.C_in.Xi_outflow
+ [6];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ T_fuel_source_sensor.flow_model.C_out.Q(start = -T_fuel_source_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_fuel_source_sensor.flow_model.C_out.P
+ (start = T_fuel_source_sensor.flow_model.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_fuel_source_sensor.flow_model.C_out.h_outflow
+ (start = T_fuel_source_sensor.flow_model.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction T_fuel_source_sensor.flow_model.C_out.Xi_outflow
+ [6];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_fuel_source_sensor.flow_model.h
+ (start = T_fuel_source_sensor.flow_model.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_fuel_source_sensor.flow_model.P
+ (start = T_fuel_source_sensor.flow_model.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_fuel_source_sensor.flow_model.T
+ (start = T_fuel_source_sensor.flow_model.T_0) "Temperature of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_fuel_source_sensor.T(
+ start = T_fuel_source_sensor.T_0);
+ Real T_fuel_source_sensor.T_degC(start = T_fuel_source_sensor.T_0+273.15,
+ nominal = 573.15, unit = "degC");
+ Real T_fuel_source_sensor.T_degF(start = (T_fuel_source_sensor.T_0+273.15)*1.8
+ +32, nominal = 1063.67, unit = "degF");
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal T_fuel_source_sensor.T_sensor
+ (start = T_fuel_source_sensor.init_T);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Q_fuel_source_sensor.Q(start = Q_fuel_source_sensor.Q_0, nominal = 100.0)
+ "Component mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction Q_fuel_source_sensor.Xi
+ [6] "Component mass fractions";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Q_fuel_source_sensor.P(
+ start = Q_fuel_source_sensor.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Q_fuel_source_sensor.h
+ (start = Q_fuel_source_sensor.h_0) "Enthalpy of the fluid into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure Q_fuel_source_sensor.state.p(
+ start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature Q_fuel_source_sensor.state.T(
+ start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction Q_fuel_source_sensor.state.X[6](
+ start = {0.92, 0.048, 0.005, 0.002, 0.015, 0.01}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate Q_fuel_source_sensor.mass_flow_rate_bias
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Q_fuel_source_sensor.C_in.Q(start = Q_fuel_source_sensor.Q_0, nominal =
+ 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Q_fuel_source_sensor.C_in.P
+ (start = Q_fuel_source_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Q_fuel_source_sensor.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction Q_fuel_source_sensor.C_in.Xi_outflow
+ [6];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ Q_fuel_source_sensor.C_out.Q(start = -Q_fuel_source_sensor.Q_0, nominal =
+ 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Q_fuel_source_sensor.C_out.P
+ (start = Q_fuel_source_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Q_fuel_source_sensor.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction Q_fuel_source_sensor.C_out.Xi_outflow
+ [6];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Q_fuel_source_sensor.flow_model.h_in
+ (start = Q_fuel_source_sensor.flow_model.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Q_fuel_source_sensor.flow_model.h_out
+ (start = Q_fuel_source_sensor.flow_model.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Q_fuel_source_sensor.flow_model.Q(start = Q_fuel_source_sensor.flow_model.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Q_fuel_source_sensor.flow_model.P_in
+ (start = Q_fuel_source_sensor.flow_model.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Q_fuel_source_sensor.flow_model.P_out
+ (start = Q_fuel_source_sensor.flow_model.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction Q_fuel_source_sensor.flow_model.Xi
+ [6] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density Q_fuel_source_sensor.flow_model.rho_in
+ (start = Q_fuel_source_sensor.flow_model.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density Q_fuel_source_sensor.flow_model.rho_out
+ (start = Q_fuel_source_sensor.flow_model.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density Q_fuel_source_sensor.flow_model.rho
+ (start = Q_fuel_source_sensor.flow_model.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ Q_fuel_source_sensor.flow_model.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ Q_fuel_source_sensor.flow_model.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ Q_fuel_source_sensor.flow_model.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature Q_fuel_source_sensor.flow_model.T_in
+ (start = Q_fuel_source_sensor.flow_model.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature Q_fuel_source_sensor.flow_model.T_out
+ (start = Q_fuel_source_sensor.flow_model.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure Q_fuel_source_sensor.flow_model.state_in.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature Q_fuel_source_sensor.flow_model.state_in.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction Q_fuel_source_sensor.flow_model.state_in.X
+ [6](start = {0.92, 0.048, 0.005, 0.002, 0.015, 0.01}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ Modelica.Media.Interfaces.Types.AbsolutePressure Q_fuel_source_sensor.flow_model.state_out.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature Q_fuel_source_sensor.flow_model.state_out.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction Q_fuel_source_sensor.flow_model.state_out.X
+ [6](start = {0.92, 0.048, 0.005, 0.002, 0.015, 0.01}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ Q_fuel_source_sensor.flow_model.DP(start = Q_fuel_source_sensor.flow_model.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power Q_fuel_source_sensor.flow_model.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ Q_fuel_source_sensor.flow_model.DH(start = Q_fuel_source_sensor.flow_model.h_out_0
+ -Q_fuel_source_sensor.flow_model.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ Q_fuel_source_sensor.flow_model.DT(start = Q_fuel_source_sensor.flow_model.T_out_0
+ -Q_fuel_source_sensor.flow_model.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Q_fuel_source_sensor.flow_model.C_in.Q(start = Q_fuel_source_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Q_fuel_source_sensor.flow_model.C_in.P
+ (start = Q_fuel_source_sensor.flow_model.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Q_fuel_source_sensor.flow_model.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction Q_fuel_source_sensor.flow_model.C_in.Xi_outflow
+ [6];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ Q_fuel_source_sensor.flow_model.C_out.Q(start = -Q_fuel_source_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Q_fuel_source_sensor.flow_model.C_out.P
+ (start = Q_fuel_source_sensor.flow_model.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Q_fuel_source_sensor.flow_model.C_out.h_outflow
+ (start = Q_fuel_source_sensor.flow_model.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction Q_fuel_source_sensor.flow_model.C_out.Xi_outflow
+ [6];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Q_fuel_source_sensor.flow_model.h
+ (start = Q_fuel_source_sensor.flow_model.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Q_fuel_source_sensor.flow_model.P
+ (start = Q_fuel_source_sensor.flow_model.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature Q_fuel_source_sensor.flow_model.T
+ (start = Q_fuel_source_sensor.flow_model.T_0) "Temperature of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.VolumeFlowRate Q_fuel_source_sensor.Qv
+ (start = Q_fuel_source_sensor.Qv_0);
+ Real Q_fuel_source_sensor.Q_lm(start = Q_fuel_source_sensor.Qv_0*60000,
+ nominal = 6000.0);
+ Real Q_fuel_source_sensor.Q_th(start = Q_fuel_source_sensor.Q_0*3.6,
+ nominal = 360.0);
+ Real Q_fuel_source_sensor.Q_lbs(start = Q_fuel_source_sensor.Q_0*2.2046,
+ nominal = 220.46);
+ Real Q_fuel_source_sensor.Q_Mlbh(start = Q_fuel_source_sensor.Q_0*
+ 0.0079366414387, nominal = 0.79366414387);
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal Q_fuel_source_sensor.Q_sensor
+ (start = Q_fuel_source_sensor.Q_0);
+ MetroscopeModelingLibrary.Utilities.Units.NegativePower GT_generator.W_elec
+ "Electrical power produced by the generator";
+ MetroscopeModelingLibrary.Utilities.Units.PositivePower GT_generator.W_shaft
+ "Mechanical power received by the generator";
+ MetroscopeModelingLibrary.Utilities.Units.PositivePower GT_generator.C_in.W;
+ MetroscopeModelingLibrary.Utilities.Units.NegativePower GT_generator.C_out.W;
+ MetroscopeModelingLibrary.Utilities.Units.NegativePower ST_generator.W_elec
+ "Electrical power produced by the generator";
+ MetroscopeModelingLibrary.Utilities.Units.PositivePower ST_generator.W_shaft
+ "Mechanical power received by the generator";
+ MetroscopeModelingLibrary.Utilities.Units.PositivePower ST_generator.C_in.W;
+ MetroscopeModelingLibrary.Utilities.Units.NegativePower ST_generator.C_out.W;
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_flue_gas_sink_sensor.Q(start = T_flue_gas_sink_sensor.Q_0, nominal = 100.0)
+ "Component mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction T_flue_gas_sink_sensor.Xi
+ [5] "Component mass fractions";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_flue_gas_sink_sensor.P(
+ start = T_flue_gas_sink_sensor.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_flue_gas_sink_sensor.h
+ (start = T_flue_gas_sink_sensor.h_0) "Enthalpy of the fluid into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure T_flue_gas_sink_sensor.state.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature T_flue_gas_sink_sensor.state.T(
+ start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction T_flue_gas_sink_sensor.state.X[5]
+ (start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate T_flue_gas_sink_sensor.mass_flow_rate_bias
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_flue_gas_sink_sensor.C_in.Q(start = T_flue_gas_sink_sensor.Q_0, nominal =
+ 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_flue_gas_sink_sensor.C_in.P
+ (start = T_flue_gas_sink_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_flue_gas_sink_sensor.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction T_flue_gas_sink_sensor.C_in.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ T_flue_gas_sink_sensor.C_out.Q(start = -T_flue_gas_sink_sensor.Q_0,
+ nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_flue_gas_sink_sensor.C_out.P
+ (start = T_flue_gas_sink_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_flue_gas_sink_sensor.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction T_flue_gas_sink_sensor.C_out.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_flue_gas_sink_sensor.flow_model.h_in
+ (start = T_flue_gas_sink_sensor.flow_model.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_flue_gas_sink_sensor.flow_model.h_out
+ (start = T_flue_gas_sink_sensor.flow_model.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_flue_gas_sink_sensor.flow_model.Q(start = T_flue_gas_sink_sensor.flow_model.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_flue_gas_sink_sensor.flow_model.P_in
+ (start = T_flue_gas_sink_sensor.flow_model.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_flue_gas_sink_sensor.flow_model.P_out
+ (start = T_flue_gas_sink_sensor.flow_model.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction T_flue_gas_sink_sensor.flow_model.Xi
+ [5] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density T_flue_gas_sink_sensor.flow_model.rho_in
+ (start = T_flue_gas_sink_sensor.flow_model.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density T_flue_gas_sink_sensor.flow_model.rho_out
+ (start = T_flue_gas_sink_sensor.flow_model.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density T_flue_gas_sink_sensor.flow_model.rho
+ (start = T_flue_gas_sink_sensor.flow_model.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ T_flue_gas_sink_sensor.flow_model.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ T_flue_gas_sink_sensor.flow_model.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ T_flue_gas_sink_sensor.flow_model.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_flue_gas_sink_sensor.flow_model.T_in
+ (start = T_flue_gas_sink_sensor.flow_model.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_flue_gas_sink_sensor.flow_model.T_out
+ (start = T_flue_gas_sink_sensor.flow_model.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure T_flue_gas_sink_sensor.flow_model.state_in.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature T_flue_gas_sink_sensor.flow_model.state_in.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction T_flue_gas_sink_sensor.flow_model.state_in.X
+ [5](start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ Modelica.Media.Interfaces.Types.AbsolutePressure T_flue_gas_sink_sensor.flow_model.state_out.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature T_flue_gas_sink_sensor.flow_model.state_out.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction T_flue_gas_sink_sensor.flow_model.state_out.X
+ [5](start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ T_flue_gas_sink_sensor.flow_model.DP(start = T_flue_gas_sink_sensor.flow_model.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power T_flue_gas_sink_sensor.flow_model.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ T_flue_gas_sink_sensor.flow_model.DH(start = T_flue_gas_sink_sensor.flow_model.h_out_0
+ -T_flue_gas_sink_sensor.flow_model.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ T_flue_gas_sink_sensor.flow_model.DT(start = T_flue_gas_sink_sensor.flow_model.T_out_0
+ -T_flue_gas_sink_sensor.flow_model.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_flue_gas_sink_sensor.flow_model.C_in.Q(start = T_flue_gas_sink_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_flue_gas_sink_sensor.flow_model.C_in.P
+ (start = T_flue_gas_sink_sensor.flow_model.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_flue_gas_sink_sensor.flow_model.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction T_flue_gas_sink_sensor.flow_model.C_in.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ T_flue_gas_sink_sensor.flow_model.C_out.Q(start = -T_flue_gas_sink_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_flue_gas_sink_sensor.flow_model.C_out.P
+ (start = T_flue_gas_sink_sensor.flow_model.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_flue_gas_sink_sensor.flow_model.C_out.h_outflow
+ (start = T_flue_gas_sink_sensor.flow_model.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction T_flue_gas_sink_sensor.flow_model.C_out.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_flue_gas_sink_sensor.flow_model.h
+ (start = T_flue_gas_sink_sensor.flow_model.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_flue_gas_sink_sensor.flow_model.P
+ (start = T_flue_gas_sink_sensor.flow_model.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_flue_gas_sink_sensor.flow_model.T
+ (start = T_flue_gas_sink_sensor.flow_model.T_0) "Temperature of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_flue_gas_sink_sensor.T
+ (start = T_flue_gas_sink_sensor.T_0);
+ Real T_flue_gas_sink_sensor.T_degC(start = T_flue_gas_sink_sensor.T_0+273.15,
+ nominal = 573.15, unit = "degC");
+ Real T_flue_gas_sink_sensor.T_degF(start = (T_flue_gas_sink_sensor.T_0+273.15)
+ *1.8+32, nominal = 1063.67, unit = "degF");
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal T_flue_gas_sink_sensor.T_sensor
+ (start = T_flue_gas_sink_sensor.init_T);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy AirFilter.h_in(
+ start = AirFilter.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy AirFilter.h_out(
+ start = AirFilter.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate AirFilter.Q(
+ start = AirFilter.Q_0) "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure AirFilter.P_in(start =
+ AirFilter.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure AirFilter.P_out(start =
+ AirFilter.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction AirFilter.Xi[5]
+ "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density AirFilter.rho_in(start =
+ AirFilter.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density AirFilter.rho_out(start =
+ AirFilter.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density AirFilter.rho(start =
+ AirFilter.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ AirFilter.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ AirFilter.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate AirFilter.Qv
+ "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature AirFilter.T_in(start =
+ AirFilter.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature AirFilter.T_out(start =
+ AirFilter.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure AirFilter.state_in.p(start =
+ 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature AirFilter.state_in.T(start = 500,
+ nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction AirFilter.state_in.X[5](start = {
+ 0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ Modelica.Media.Interfaces.Types.AbsolutePressure AirFilter.state_out.p(
+ start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature AirFilter.state_out.T(start = 500,
+ nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction AirFilter.state_out.X[5](start =
+ {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure AirFilter.DP(
+ start = AirFilter.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power AirFilter.W(start = 0,
+ nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy AirFilter.DH(
+ start = AirFilter.h_out_0-AirFilter.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature AirFilter.DT
+ (start = AirFilter.T_out_0-AirFilter.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ AirFilter.C_in.Q(start = AirFilter.Q_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure AirFilter.C_in.P(start =
+ AirFilter.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy AirFilter.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction AirFilter.C_in.Xi_outflow[5](
+ start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ AirFilter.C_out.Q(start = -AirFilter.Q_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure AirFilter.C_out.P(start =
+ AirFilter.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy AirFilter.C_out.h_outflow
+ (start = AirFilter.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction AirFilter.C_out.Xi_outflow[5](
+ start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy AirFilter.h(
+ start = AirFilter.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Percentage AirFilter.fouling;
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal AirFilter.Kfr(
+ start = AirFilter.Kfr_constant);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_filter_out_sensor.Q(start = P_filter_out_sensor.Q_0, nominal = 100.0)
+ "Component mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction P_filter_out_sensor.Xi[5]
+ "Component mass fractions";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_filter_out_sensor.P(
+ start = P_filter_out_sensor.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_filter_out_sensor.h
+ (start = P_filter_out_sensor.h_0) "Enthalpy of the fluid into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_filter_out_sensor.state.p(
+ start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature P_filter_out_sensor.state.T(
+ start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction P_filter_out_sensor.state.X[5](
+ start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate P_filter_out_sensor.mass_flow_rate_bias
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_filter_out_sensor.C_in.Q(start = P_filter_out_sensor.Q_0, nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_filter_out_sensor.C_in.P(
+ start = P_filter_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_filter_out_sensor.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction P_filter_out_sensor.C_in.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ P_filter_out_sensor.C_out.Q(start = -P_filter_out_sensor.Q_0, nominal =
+ 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_filter_out_sensor.C_out.P
+ (start = P_filter_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_filter_out_sensor.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction P_filter_out_sensor.C_out.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_filter_out_sensor.flow_model.h_in
+ (start = P_filter_out_sensor.flow_model.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_filter_out_sensor.flow_model.h_out
+ (start = P_filter_out_sensor.flow_model.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_filter_out_sensor.flow_model.Q(start = P_filter_out_sensor.flow_model.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_filter_out_sensor.flow_model.P_in
+ (start = P_filter_out_sensor.flow_model.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_filter_out_sensor.flow_model.P_out
+ (start = P_filter_out_sensor.flow_model.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction P_filter_out_sensor.flow_model.Xi
+ [5] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_filter_out_sensor.flow_model.rho_in
+ (start = P_filter_out_sensor.flow_model.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_filter_out_sensor.flow_model.rho_out
+ (start = P_filter_out_sensor.flow_model.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_filter_out_sensor.flow_model.rho
+ (start = P_filter_out_sensor.flow_model.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ P_filter_out_sensor.flow_model.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ P_filter_out_sensor.flow_model.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ P_filter_out_sensor.flow_model.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_filter_out_sensor.flow_model.T_in
+ (start = P_filter_out_sensor.flow_model.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_filter_out_sensor.flow_model.T_out
+ (start = P_filter_out_sensor.flow_model.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_filter_out_sensor.flow_model.state_in.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature P_filter_out_sensor.flow_model.state_in.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction P_filter_out_sensor.flow_model.state_in.X
+ [5](start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_filter_out_sensor.flow_model.state_out.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature P_filter_out_sensor.flow_model.state_out.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction P_filter_out_sensor.flow_model.state_out.X
+ [5](start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ P_filter_out_sensor.flow_model.DP(start = P_filter_out_sensor.flow_model.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power P_filter_out_sensor.flow_model.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ P_filter_out_sensor.flow_model.DH(start = P_filter_out_sensor.flow_model.h_out_0
+ -P_filter_out_sensor.flow_model.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ P_filter_out_sensor.flow_model.DT(start = P_filter_out_sensor.flow_model.T_out_0
+ -P_filter_out_sensor.flow_model.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_filter_out_sensor.flow_model.C_in.Q(start = P_filter_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_filter_out_sensor.flow_model.C_in.P
+ (start = P_filter_out_sensor.flow_model.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_filter_out_sensor.flow_model.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction P_filter_out_sensor.flow_model.C_in.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ P_filter_out_sensor.flow_model.C_out.Q(start = -P_filter_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_filter_out_sensor.flow_model.C_out.P
+ (start = P_filter_out_sensor.flow_model.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_filter_out_sensor.flow_model.C_out.h_outflow
+ (start = P_filter_out_sensor.flow_model.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction P_filter_out_sensor.flow_model.C_out.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_filter_out_sensor.flow_model.h
+ (start = P_filter_out_sensor.flow_model.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_filter_out_sensor.flow_model.P
+ (start = P_filter_out_sensor.flow_model.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_filter_out_sensor.flow_model.T
+ (start = P_filter_out_sensor.flow_model.T_0) "Temperature of the fluid into the component";
+ Real P_filter_out_sensor.P_barG(start = P_filter_out_sensor.P_0*1E-05-1,
+ nominal = 100000.0);
+ Real P_filter_out_sensor.P_psiG(start = P_filter_out_sensor.P_0*0.000145038-
+ 14.50377377, nominal = 14.5038);
+ Real P_filter_out_sensor.P_MPaG(start = P_filter_out_sensor.P_0*1E-06-0.1,
+ nominal = 0.09999999999999999);
+ Real P_filter_out_sensor.P_kPaG(start = P_filter_out_sensor.P_0*0.001-100,
+ nominal = 100.0);
+ Real P_filter_out_sensor.P_barA(start = P_filter_out_sensor.P_0*1E-05,
+ nominal = 1.0, unit = "bar");
+ Real P_filter_out_sensor.P_psiA(start = P_filter_out_sensor.P_0*0.000145038,
+ nominal = 14.5038);
+ Real P_filter_out_sensor.P_MPaA(start = P_filter_out_sensor.P_0*1E-06,
+ nominal = 0.09999999999999999);
+ Real P_filter_out_sensor.P_kPaA(start = P_filter_out_sensor.P_0*0.001,
+ nominal = 100.0);
+ Real P_filter_out_sensor.P_inHg(start = P_filter_out_sensor.P_0*0.0002953006,
+ nominal = 29.530060000000002);
+ Real P_filter_out_sensor.P_mbar(start = P_filter_out_sensor.P_0*0.01,
+ nominal = 1000.0, unit = "mbar");
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal P_filter_out_sensor.P_sensor
+ (start = P_filter_out_sensor.init_P);
+ MetroscopeModelingLibrary.Utilities.Units.Temperature HPsuperheater2.maximum_achiveable_temperature_difference;
+ MetroscopeModelingLibrary.Utilities.Units.Temperature HPsuperheater2.nominal_cold_side_temperature_rise;
+ MetroscopeModelingLibrary.Utilities.Units.Temperature HPsuperheater2.nominal_hot_side_temperature_drop;
+ MetroscopeModelingLibrary.Utilities.Units.Power HPsuperheater2.W;
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate HPsuperheater2.Q_cold(
+ start = HPsuperheater2.Q_cold_0);
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate HPsuperheater2.Q_hot(
+ start = HPsuperheater2.Q_hot_0);
+ MetroscopeModelingLibrary.Utilities.Units.Temperature HPsuperheater2.T_cold_in
+ (start = HPsuperheater2.T_cold_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.Temperature HPsuperheater2.T_hot_in(
+ start = HPsuperheater2.T_hot_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.Temperature HPsuperheater2.T_cold_out
+ (start = HPsuperheater2.T_cold_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.Temperature HPsuperheater2.T_hot_out
+ (start = HPsuperheater2.T_hot_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ HPsuperheater2.DT_hot_in_side(start = HPsuperheater2.T_hot_in_0-
+ HPsuperheater2.T_cold_out_0) "Temperature difference between hot and cold fluids, hot inlet side";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ HPsuperheater2.DT_hot_out_side(start = HPsuperheater2.T_hot_out_0-
+ HPsuperheater2.T_cold_in_0) "Temperature difference between hot and cold fluids, hot outlet side";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ HPsuperheater2.pinch(start = min(HPsuperheater2.T_hot_in_0-HPsuperheater2.T_cold_out_0,
+ HPsuperheater2.T_hot_out_0-HPsuperheater2.T_cold_in_0)) "Lowest temperature difference";
+ MetroscopeModelingLibrary.Utilities.Units.Percentage HPsuperheater2.fouling;
+ MetroscopeModelingLibrary.Utilities.Units.HeatCapacity HPsuperheater2.Cp_cold_min;
+ MetroscopeModelingLibrary.Utilities.Units.HeatCapacity HPsuperheater2.Cp_cold_max;
+ MetroscopeModelingLibrary.Utilities.Units.HeatCapacity HPsuperheater2.Cp_hot_min;
+ MetroscopeModelingLibrary.Utilities.Units.HeatCapacity HPsuperheater2.Cp_hot_max;
+ Modelica.Media.Interfaces.Types.FixedPhase HPsuperheater2.state_cold_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy HPsuperheater2.state_cold_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density HPsuperheater2.state_cold_out.d(
+ start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature HPsuperheater2.state_cold_out.T(
+ start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure HPsuperheater2.state_cold_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.AbsolutePressure HPsuperheater2.state_hot_out.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature HPsuperheater2.state_hot_out.T(
+ start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction HPsuperheater2.state_hot_out.X[5]
+ (start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ HPsuperheater2.C_hot_in.Q(start = HPsuperheater2.Q_hot_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater2.C_hot_in.P(
+ start = HPsuperheater2.P_hot_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPsuperheater2.C_hot_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction HPsuperheater2.C_hot_in.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ HPsuperheater2.C_hot_out.Q(start = -HPsuperheater2.Q_hot_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater2.C_hot_out.P(
+ start = HPsuperheater2.P_hot_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPsuperheater2.C_hot_out.h_outflow
+ (start = HPsuperheater2.h_hot_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction HPsuperheater2.C_hot_out.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ HPsuperheater2.C_cold_in.Q(start = HPsuperheater2.Q_cold_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater2.C_cold_in.P(
+ start = HPsuperheater2.P_cold_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPsuperheater2.C_cold_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction HPsuperheater2.C_cold_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ HPsuperheater2.C_cold_out.Q(start = -HPsuperheater2.Q_cold_0, nominal =
+ 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater2.C_cold_out.P
+ (start = HPsuperheater2.P_cold_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPsuperheater2.C_cold_out.h_outflow
+ (start = HPsuperheater2.h_cold_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction HPsuperheater2.C_cold_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputArea HPsuperheater2.HX.S
+ (start = HPsuperheater2.HX.S_0) "Heat exchange surface";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputHeatExchangeCoefficient
+ HPsuperheater2.HX.Kth(start = HPsuperheater2.HX.Kth_0) "Heat exchange coefficient";
+ MetroscopeModelingLibrary.Utilities.Units.Power HPsuperheater2.HX.W(start =
+ HPsuperheater2.HX.W_0);
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputMassFlowRate
+ HPsuperheater2.HX.Q_hot(start = HPsuperheater2.HX.Q_hot_0) "Hot mass flow rate at the inlet";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputMassFlowRate
+ HPsuperheater2.HX.Q_cold(start = HPsuperheater2.HX.Q_cold_0)
+ "Cold mass flow rate at the inlet";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputHeatCapacity
+ HPsuperheater2.HX.Cp_hot(start = HPsuperheater2.HX.Cp_hot_0)
+ "Hot fluid specific heat capacity";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputHeatCapacity
+ HPsuperheater2.HX.Cp_cold(start = HPsuperheater2.HX.Cp_cold_0)
+ "Cold fluid specific heat capacity";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputTemperature
+ HPsuperheater2.HX.T_hot_in(start = HPsuperheater2.HX.T_hot_in_0)
+ "Temperature, hot side, at the inlet";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputTemperature
+ HPsuperheater2.HX.T_cold_in(start = HPsuperheater2.HX.T_cold_in_0)
+ "Temperature, cold side, at the inlet";
+ Real HPsuperheater2.HX.QCpMIN(start = HPsuperheater2.HX.QCpMIN_0, unit = "W/K");
+ Real HPsuperheater2.HX.QCpMAX(start = HPsuperheater2.HX.QCpMAX_0, unit = "W/K");
+ Real HPsuperheater2.HX.NTU(start = HPsuperheater2.HX.NTU_0, unit = "1");
+ MetroscopeModelingLibrary.Utilities.Units.Fraction HPsuperheater2.HX.Cr(
+ start = HPsuperheater2.HX.Cr_0);
+ MetroscopeModelingLibrary.Utilities.Units.Fraction HPsuperheater2.HX.epsilon(
+ start = HPsuperheater2.HX.epsilon_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power HPsuperheater2.HX.W_max(
+ start = HPsuperheater2.HX.W_max_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPsuperheater2.hot_side.h_in
+ (start = HPsuperheater2.hot_side.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPsuperheater2.hot_side.h_out
+ (start = HPsuperheater2.hot_side.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ HPsuperheater2.hot_side.Q(start = HPsuperheater2.hot_side.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater2.hot_side.P_in
+ (start = HPsuperheater2.hot_side.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater2.hot_side.P_out
+ (start = HPsuperheater2.hot_side.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction HPsuperheater2.hot_side.Xi
+ [5] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density HPsuperheater2.hot_side.rho_in
+ (start = HPsuperheater2.hot_side.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density HPsuperheater2.hot_side.rho_out
+ (start = HPsuperheater2.hot_side.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density HPsuperheater2.hot_side.rho(
+ start = HPsuperheater2.hot_side.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ HPsuperheater2.hot_side.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ HPsuperheater2.hot_side.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ HPsuperheater2.hot_side.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature HPsuperheater2.hot_side.T_in
+ (start = HPsuperheater2.hot_side.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature HPsuperheater2.hot_side.T_out
+ (start = HPsuperheater2.hot_side.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure HPsuperheater2.hot_side.state_in.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature HPsuperheater2.hot_side.state_in.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction HPsuperheater2.hot_side.state_in.X
+ [5](start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ Modelica.Media.Interfaces.Types.AbsolutePressure HPsuperheater2.hot_side.state_out.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature HPsuperheater2.hot_side.state_out.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction HPsuperheater2.hot_side.state_out.X
+ [5](start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ HPsuperheater2.hot_side.DP(start = HPsuperheater2.hot_side.DP_0, nominal =
+ 105000.0);
+ MetroscopeModelingLibrary.Utilities.Units.Power HPsuperheater2.hot_side.W(
+ start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ HPsuperheater2.hot_side.DH(start = HPsuperheater2.hot_side.h_out_0-
+ HPsuperheater2.hot_side.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ HPsuperheater2.hot_side.DT(start = HPsuperheater2.hot_side.T_out_0-
+ HPsuperheater2.hot_side.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ HPsuperheater2.hot_side.C_in.Q(start = HPsuperheater2.hot_side.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater2.hot_side.C_in.P
+ (start = HPsuperheater2.hot_side.P_in_0, nominal = 105000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPsuperheater2.hot_side.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction HPsuperheater2.hot_side.C_in.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ HPsuperheater2.hot_side.C_out.Q(start = -HPsuperheater2.hot_side.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater2.hot_side.C_out.P
+ (start = HPsuperheater2.hot_side.P_out_0, nominal = 105000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPsuperheater2.hot_side.C_out.h_outflow
+ (start = HPsuperheater2.hot_side.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction HPsuperheater2.hot_side.C_out.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater2.hot_side.P(
+ start = HPsuperheater2.hot_side.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputPower HPsuperheater2.hot_side.W_input
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPsuperheater2.cold_side.h_in
+ (start = HPsuperheater2.cold_side.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPsuperheater2.cold_side.h_out
+ (start = HPsuperheater2.cold_side.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ HPsuperheater2.cold_side.Q(start = HPsuperheater2.cold_side.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater2.cold_side.P_in
+ (start = HPsuperheater2.cold_side.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater2.cold_side.P_out
+ (start = HPsuperheater2.cold_side.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction HPsuperheater2.cold_side.Xi
+ [0] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density HPsuperheater2.cold_side.rho_in
+ (start = HPsuperheater2.cold_side.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density HPsuperheater2.cold_side.rho_out
+ (start = HPsuperheater2.cold_side.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density HPsuperheater2.cold_side.rho
+ (start = HPsuperheater2.cold_side.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ HPsuperheater2.cold_side.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ HPsuperheater2.cold_side.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ HPsuperheater2.cold_side.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature HPsuperheater2.cold_side.T_in
+ (start = HPsuperheater2.cold_side.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature HPsuperheater2.cold_side.T_out
+ (start = HPsuperheater2.cold_side.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase HPsuperheater2.cold_side.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy HPsuperheater2.cold_side.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density HPsuperheater2.cold_side.state_in.d(
+ start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature HPsuperheater2.cold_side.state_in.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure HPsuperheater2.cold_side.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase HPsuperheater2.cold_side.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy HPsuperheater2.cold_side.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density HPsuperheater2.cold_side.state_out.d(
+ start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature HPsuperheater2.cold_side.state_out.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure HPsuperheater2.cold_side.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ HPsuperheater2.cold_side.DP(start = HPsuperheater2.cold_side.DP_0,
+ nominal = 13000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.Power HPsuperheater2.cold_side.W(
+ start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ HPsuperheater2.cold_side.DH(start = HPsuperheater2.cold_side.h_out_0-
+ HPsuperheater2.cold_side.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ HPsuperheater2.cold_side.DT(start = HPsuperheater2.cold_side.T_out_0-
+ HPsuperheater2.cold_side.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ HPsuperheater2.cold_side.C_in.Q(start = HPsuperheater2.cold_side.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater2.cold_side.C_in.P
+ (start = HPsuperheater2.cold_side.P_in_0, nominal = 13000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPsuperheater2.cold_side.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction HPsuperheater2.cold_side.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ HPsuperheater2.cold_side.C_out.Q(start = -HPsuperheater2.cold_side.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater2.cold_side.C_out.P
+ (start = HPsuperheater2.cold_side.P_out_0, nominal = 13000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPsuperheater2.cold_side.C_out.h_outflow
+ (start = HPsuperheater2.cold_side.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction HPsuperheater2.cold_side.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater2.cold_side.P(
+ start = HPsuperheater2.cold_side.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputPower HPsuperheater2.cold_side.W_input
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPsuperheater2.cold_side_pipe.h_in
+ (start = HPsuperheater2.cold_side_pipe.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPsuperheater2.cold_side_pipe.h_out
+ (start = HPsuperheater2.cold_side_pipe.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ HPsuperheater2.cold_side_pipe.Q(start = HPsuperheater2.cold_side_pipe.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater2.cold_side_pipe.P_in
+ (start = HPsuperheater2.cold_side_pipe.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater2.cold_side_pipe.P_out
+ (start = HPsuperheater2.cold_side_pipe.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction HPsuperheater2.cold_side_pipe.Xi
+ [0] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density HPsuperheater2.cold_side_pipe.rho_in
+ (start = HPsuperheater2.cold_side_pipe.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density HPsuperheater2.cold_side_pipe.rho_out
+ (start = HPsuperheater2.cold_side_pipe.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density HPsuperheater2.cold_side_pipe.rho
+ (start = HPsuperheater2.cold_side_pipe.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ HPsuperheater2.cold_side_pipe.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ HPsuperheater2.cold_side_pipe.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ HPsuperheater2.cold_side_pipe.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature HPsuperheater2.cold_side_pipe.T_in
+ (start = HPsuperheater2.cold_side_pipe.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature HPsuperheater2.cold_side_pipe.T_out
+ (start = HPsuperheater2.cold_side_pipe.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase HPsuperheater2.cold_side_pipe.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy HPsuperheater2.cold_side_pipe.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density HPsuperheater2.cold_side_pipe.state_in.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature HPsuperheater2.cold_side_pipe.state_in.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure HPsuperheater2.cold_side_pipe.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase HPsuperheater2.cold_side_pipe.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy HPsuperheater2.cold_side_pipe.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density HPsuperheater2.cold_side_pipe.state_out.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature HPsuperheater2.cold_side_pipe.state_out.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure HPsuperheater2.cold_side_pipe.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ HPsuperheater2.cold_side_pipe.DP(start = HPsuperheater2.cold_side_pipe.DP_0,
+ nominal = 13000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.Power HPsuperheater2.cold_side_pipe.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ HPsuperheater2.cold_side_pipe.DH(start = HPsuperheater2.cold_side_pipe.h_out_0
+ -HPsuperheater2.cold_side_pipe.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ HPsuperheater2.cold_side_pipe.DT(start = HPsuperheater2.cold_side_pipe.T_out_0
+ -HPsuperheater2.cold_side_pipe.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ HPsuperheater2.cold_side_pipe.C_in.Q(start = HPsuperheater2.cold_side_pipe.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater2.cold_side_pipe.C_in.P
+ (start = HPsuperheater2.cold_side_pipe.P_in_0, nominal = 13000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPsuperheater2.cold_side_pipe.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction HPsuperheater2.cold_side_pipe.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ HPsuperheater2.cold_side_pipe.C_out.Q(start = -HPsuperheater2.cold_side_pipe.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HPsuperheater2.cold_side_pipe.C_out.P
+ (start = HPsuperheater2.cold_side_pipe.P_out_0, nominal = 12950000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPsuperheater2.cold_side_pipe.C_out.h_outflow
+ (start = HPsuperheater2.cold_side_pipe.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction HPsuperheater2.cold_side_pipe.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HPsuperheater2.cold_side_pipe.h
+ (start = HPsuperheater2.cold_side_pipe.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Percentage HPsuperheater2.cold_side_pipe.fouling;
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal HPsuperheater2.cold_side_pipe.Kfr
+ (start = HPsuperheater2.cold_side_pipe.Kfr_constant);
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal HPsuperheater2.Kth;
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal HPsuperheater2.Kfr_cold;
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ HPsuperheater2.STR(start = HPsuperheater2.T_cold_out_0-HPsuperheater2.T_cold_in_0)
+ "Steam Temperature Rise";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ HPsuperheater2.DT_superheat(start = HPsuperheater2.T_cold_out_0-
+ Modelica.Media.Water.WaterIF97_ph.saturationTemperature_Unique21(
+ HPsuperheater2.P_cold_in_0)) "Superheat temperature difference";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_w_HPSH2_out_sensor.Q(start = T_w_HPSH2_out_sensor.Q_0, nominal = 100.0)
+ "Component mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction T_w_HPSH2_out_sensor.Xi
+ [0] "Component mass fractions";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_HPSH2_out_sensor.P(
+ start = T_w_HPSH2_out_sensor.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_w_HPSH2_out_sensor.h
+ (start = T_w_HPSH2_out_sensor.h_0) "Enthalpy of the fluid into the component";
+ Modelica.Media.Interfaces.Types.FixedPhase T_w_HPSH2_out_sensor.state.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy T_w_HPSH2_out_sensor.state.h(
+ start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density T_w_HPSH2_out_sensor.state.d(start = 150,
+ nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature T_w_HPSH2_out_sensor.state.T(
+ start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure T_w_HPSH2_out_sensor.state.p(
+ start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate T_w_HPSH2_out_sensor.mass_flow_rate_bias
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_w_HPSH2_out_sensor.C_in.Q(start = T_w_HPSH2_out_sensor.Q_0, nominal =
+ 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_HPSH2_out_sensor.C_in.P
+ (start = T_w_HPSH2_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_w_HPSH2_out_sensor.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction T_w_HPSH2_out_sensor.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ T_w_HPSH2_out_sensor.C_out.Q(start = -T_w_HPSH2_out_sensor.Q_0, nominal =
+ 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_HPSH2_out_sensor.C_out.P
+ (start = T_w_HPSH2_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_w_HPSH2_out_sensor.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction T_w_HPSH2_out_sensor.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_w_HPSH2_out_sensor.flow_model.h_in
+ (start = T_w_HPSH2_out_sensor.flow_model.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_w_HPSH2_out_sensor.flow_model.h_out
+ (start = T_w_HPSH2_out_sensor.flow_model.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_w_HPSH2_out_sensor.flow_model.Q(start = T_w_HPSH2_out_sensor.flow_model.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_HPSH2_out_sensor.flow_model.P_in
+ (start = T_w_HPSH2_out_sensor.flow_model.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_HPSH2_out_sensor.flow_model.P_out
+ (start = T_w_HPSH2_out_sensor.flow_model.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction T_w_HPSH2_out_sensor.flow_model.Xi
+ [0] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density T_w_HPSH2_out_sensor.flow_model.rho_in
+ (start = T_w_HPSH2_out_sensor.flow_model.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density T_w_HPSH2_out_sensor.flow_model.rho_out
+ (start = T_w_HPSH2_out_sensor.flow_model.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density T_w_HPSH2_out_sensor.flow_model.rho
+ (start = T_w_HPSH2_out_sensor.flow_model.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ T_w_HPSH2_out_sensor.flow_model.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ T_w_HPSH2_out_sensor.flow_model.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ T_w_HPSH2_out_sensor.flow_model.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_w_HPSH2_out_sensor.flow_model.T_in
+ (start = T_w_HPSH2_out_sensor.flow_model.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_w_HPSH2_out_sensor.flow_model.T_out
+ (start = T_w_HPSH2_out_sensor.flow_model.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase T_w_HPSH2_out_sensor.flow_model.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy T_w_HPSH2_out_sensor.flow_model.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density T_w_HPSH2_out_sensor.flow_model.state_in.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature T_w_HPSH2_out_sensor.flow_model.state_in.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure T_w_HPSH2_out_sensor.flow_model.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase T_w_HPSH2_out_sensor.flow_model.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy T_w_HPSH2_out_sensor.flow_model.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density T_w_HPSH2_out_sensor.flow_model.state_out.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature T_w_HPSH2_out_sensor.flow_model.state_out.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure T_w_HPSH2_out_sensor.flow_model.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ T_w_HPSH2_out_sensor.flow_model.DP(start = T_w_HPSH2_out_sensor.flow_model.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power T_w_HPSH2_out_sensor.flow_model.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ T_w_HPSH2_out_sensor.flow_model.DH(start = T_w_HPSH2_out_sensor.flow_model.h_out_0
+ -T_w_HPSH2_out_sensor.flow_model.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ T_w_HPSH2_out_sensor.flow_model.DT(start = T_w_HPSH2_out_sensor.flow_model.T_out_0
+ -T_w_HPSH2_out_sensor.flow_model.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_w_HPSH2_out_sensor.flow_model.C_in.Q(start = T_w_HPSH2_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_HPSH2_out_sensor.flow_model.C_in.P
+ (start = T_w_HPSH2_out_sensor.flow_model.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_w_HPSH2_out_sensor.flow_model.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction T_w_HPSH2_out_sensor.flow_model.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ T_w_HPSH2_out_sensor.flow_model.C_out.Q(start = -T_w_HPSH2_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_HPSH2_out_sensor.flow_model.C_out.P
+ (start = T_w_HPSH2_out_sensor.flow_model.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_w_HPSH2_out_sensor.flow_model.C_out.h_outflow
+ (start = T_w_HPSH2_out_sensor.flow_model.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction T_w_HPSH2_out_sensor.flow_model.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_w_HPSH2_out_sensor.flow_model.h
+ (start = T_w_HPSH2_out_sensor.flow_model.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_w_HPSH2_out_sensor.flow_model.P
+ (start = T_w_HPSH2_out_sensor.flow_model.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_w_HPSH2_out_sensor.flow_model.T
+ (start = T_w_HPSH2_out_sensor.flow_model.T_0) "Temperature of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_w_HPSH2_out_sensor.T(
+ start = T_w_HPSH2_out_sensor.T_0);
+ Real T_w_HPSH2_out_sensor.T_degC(start = T_w_HPSH2_out_sensor.T_0+273.15,
+ nominal = 573.15, unit = "degC");
+ Real T_w_HPSH2_out_sensor.T_degF(start = (T_w_HPSH2_out_sensor.T_0+273.15)*1.8
+ +32, nominal = 1063.67, unit = "degF");
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal T_w_HPSH2_out_sensor.T_sensor
+ (start = T_w_HPSH2_out_sensor.init_T);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_w_HPSH2_out_sensor.Q(start = P_w_HPSH2_out_sensor.Q_0, nominal = 100.0)
+ "Component mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction P_w_HPSH2_out_sensor.Xi
+ [0] "Component mass fractions";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_HPSH2_out_sensor.P(
+ start = P_w_HPSH2_out_sensor.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_w_HPSH2_out_sensor.h
+ (start = P_w_HPSH2_out_sensor.h_0) "Enthalpy of the fluid into the component";
+ Modelica.Media.Interfaces.Types.FixedPhase P_w_HPSH2_out_sensor.state.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy P_w_HPSH2_out_sensor.state.h(
+ start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density P_w_HPSH2_out_sensor.state.d(start = 150,
+ nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature P_w_HPSH2_out_sensor.state.T(
+ start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_w_HPSH2_out_sensor.state.p(
+ start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate P_w_HPSH2_out_sensor.mass_flow_rate_bias
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_w_HPSH2_out_sensor.C_in.Q(start = P_w_HPSH2_out_sensor.Q_0, nominal =
+ 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_HPSH2_out_sensor.C_in.P
+ (start = P_w_HPSH2_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_w_HPSH2_out_sensor.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction P_w_HPSH2_out_sensor.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ P_w_HPSH2_out_sensor.C_out.Q(start = -P_w_HPSH2_out_sensor.Q_0, nominal =
+ 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_HPSH2_out_sensor.C_out.P
+ (start = P_w_HPSH2_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_w_HPSH2_out_sensor.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction P_w_HPSH2_out_sensor.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_w_HPSH2_out_sensor.flow_model.h_in
+ (start = P_w_HPSH2_out_sensor.flow_model.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_w_HPSH2_out_sensor.flow_model.h_out
+ (start = P_w_HPSH2_out_sensor.flow_model.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_w_HPSH2_out_sensor.flow_model.Q(start = P_w_HPSH2_out_sensor.flow_model.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_HPSH2_out_sensor.flow_model.P_in
+ (start = P_w_HPSH2_out_sensor.flow_model.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_HPSH2_out_sensor.flow_model.P_out
+ (start = P_w_HPSH2_out_sensor.flow_model.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction P_w_HPSH2_out_sensor.flow_model.Xi
+ [0] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_w_HPSH2_out_sensor.flow_model.rho_in
+ (start = P_w_HPSH2_out_sensor.flow_model.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_w_HPSH2_out_sensor.flow_model.rho_out
+ (start = P_w_HPSH2_out_sensor.flow_model.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density P_w_HPSH2_out_sensor.flow_model.rho
+ (start = P_w_HPSH2_out_sensor.flow_model.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ P_w_HPSH2_out_sensor.flow_model.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ P_w_HPSH2_out_sensor.flow_model.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ P_w_HPSH2_out_sensor.flow_model.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_w_HPSH2_out_sensor.flow_model.T_in
+ (start = P_w_HPSH2_out_sensor.flow_model.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_w_HPSH2_out_sensor.flow_model.T_out
+ (start = P_w_HPSH2_out_sensor.flow_model.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase P_w_HPSH2_out_sensor.flow_model.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy P_w_HPSH2_out_sensor.flow_model.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density P_w_HPSH2_out_sensor.flow_model.state_in.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature P_w_HPSH2_out_sensor.flow_model.state_in.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_w_HPSH2_out_sensor.flow_model.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase P_w_HPSH2_out_sensor.flow_model.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy P_w_HPSH2_out_sensor.flow_model.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density P_w_HPSH2_out_sensor.flow_model.state_out.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature P_w_HPSH2_out_sensor.flow_model.state_out.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure P_w_HPSH2_out_sensor.flow_model.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ P_w_HPSH2_out_sensor.flow_model.DP(start = P_w_HPSH2_out_sensor.flow_model.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power P_w_HPSH2_out_sensor.flow_model.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ P_w_HPSH2_out_sensor.flow_model.DH(start = P_w_HPSH2_out_sensor.flow_model.h_out_0
+ -P_w_HPSH2_out_sensor.flow_model.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ P_w_HPSH2_out_sensor.flow_model.DT(start = P_w_HPSH2_out_sensor.flow_model.T_out_0
+ -P_w_HPSH2_out_sensor.flow_model.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ P_w_HPSH2_out_sensor.flow_model.C_in.Q(start = P_w_HPSH2_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_HPSH2_out_sensor.flow_model.C_in.P
+ (start = P_w_HPSH2_out_sensor.flow_model.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_w_HPSH2_out_sensor.flow_model.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction P_w_HPSH2_out_sensor.flow_model.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ P_w_HPSH2_out_sensor.flow_model.C_out.Q(start = -P_w_HPSH2_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_HPSH2_out_sensor.flow_model.C_out.P
+ (start = P_w_HPSH2_out_sensor.flow_model.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_w_HPSH2_out_sensor.flow_model.C_out.h_outflow
+ (start = P_w_HPSH2_out_sensor.flow_model.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction P_w_HPSH2_out_sensor.flow_model.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy P_w_HPSH2_out_sensor.flow_model.h
+ (start = P_w_HPSH2_out_sensor.flow_model.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure P_w_HPSH2_out_sensor.flow_model.P
+ (start = P_w_HPSH2_out_sensor.flow_model.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature P_w_HPSH2_out_sensor.flow_model.T
+ (start = P_w_HPSH2_out_sensor.flow_model.T_0) "Temperature of the fluid into the component";
+ Real P_w_HPSH2_out_sensor.P_barG(start = P_w_HPSH2_out_sensor.P_0*1E-05-1,
+ nominal = 100000.0);
+ Real P_w_HPSH2_out_sensor.P_psiG(start = P_w_HPSH2_out_sensor.P_0*0.000145038-
+ 14.50377377, nominal = 14.5038);
+ Real P_w_HPSH2_out_sensor.P_MPaG(start = P_w_HPSH2_out_sensor.P_0*1E-06-0.1,
+ nominal = 0.09999999999999999);
+ Real P_w_HPSH2_out_sensor.P_kPaG(start = P_w_HPSH2_out_sensor.P_0*0.001-100,
+ nominal = 100.0);
+ Real P_w_HPSH2_out_sensor.P_barA(start = P_w_HPSH2_out_sensor.P_0*1E-05,
+ nominal = 1.0, unit = "bar");
+ Real P_w_HPSH2_out_sensor.P_psiA(start = P_w_HPSH2_out_sensor.P_0*0.000145038,
+ nominal = 14.5038);
+ Real P_w_HPSH2_out_sensor.P_MPaA(start = P_w_HPSH2_out_sensor.P_0*1E-06,
+ nominal = 0.09999999999999999);
+ Real P_w_HPSH2_out_sensor.P_kPaA(start = P_w_HPSH2_out_sensor.P_0*0.001,
+ nominal = 100.0);
+ Real P_w_HPSH2_out_sensor.P_inHg(start = P_w_HPSH2_out_sensor.P_0*0.0002953006,
+ nominal = 29.530060000000002);
+ Real P_w_HPSH2_out_sensor.P_mbar(start = P_w_HPSH2_out_sensor.P_0*0.01,
+ nominal = 1000.0, unit = "mbar");
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal P_w_HPSH2_out_sensor.P_sensor
+ (start = P_w_HPSH2_out_sensor.init_P);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy deSH_controlValve.h_in
+ (start = deSH_controlValve.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy deSH_controlValve.h_out
+ (start = deSH_controlValve.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ deSH_controlValve.Q(start = deSH_controlValve.Q_0) "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure deSH_controlValve.P_in(
+ start = deSH_controlValve.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure deSH_controlValve.P_out(
+ start = deSH_controlValve.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction deSH_controlValve.Xi[0]
+ "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density deSH_controlValve.rho_in(
+ start = deSH_controlValve.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density deSH_controlValve.rho_out(
+ start = deSH_controlValve.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density deSH_controlValve.rho(
+ start = deSH_controlValve.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ deSH_controlValve.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ deSH_controlValve.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ deSH_controlValve.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature deSH_controlValve.T_in(
+ start = deSH_controlValve.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature deSH_controlValve.T_out(
+ start = deSH_controlValve.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase deSH_controlValve.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy deSH_controlValve.state_in.h(
+ start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density deSH_controlValve.state_in.d(start = 150,
+ nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature deSH_controlValve.state_in.T(
+ start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure deSH_controlValve.state_in.p(
+ start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase deSH_controlValve.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy deSH_controlValve.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density deSH_controlValve.state_out.d(start = 150,
+ nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature deSH_controlValve.state_out.T(
+ start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure deSH_controlValve.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ deSH_controlValve.DP(start = deSH_controlValve.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power deSH_controlValve.W(start = 0,
+ nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ deSH_controlValve.DH(start = deSH_controlValve.h_out_0-deSH_controlValve.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ deSH_controlValve.DT(start = deSH_controlValve.T_out_0-deSH_controlValve.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ deSH_controlValve.C_in.Q(start = deSH_controlValve.Q_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure deSH_controlValve.C_in.P(
+ start = deSH_controlValve.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy deSH_controlValve.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction deSH_controlValve.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ deSH_controlValve.C_out.Q(start = -deSH_controlValve.Q_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure deSH_controlValve.C_out.P(
+ start = deSH_controlValve.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy deSH_controlValve.C_out.h_outflow
+ (start = deSH_controlValve.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction deSH_controlValve.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy deSH_controlValve.h
+ (start = deSH_controlValve.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Cv deSH_controlValve.Cv(start =
+ 10000.0) "Cv";
+ Modelica.Blocks.Interfaces.RealInput deSH_controlValve.Opening(nominal = 0.5,
+ unit = "1", min = 0.0, max = 1.0);
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal deSH_controlValve.Cv_max
+ (start = deSH_controlValve.Cv_max_constant);
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputPercentage
+ deSH_opening_sensor.Opening_pc(start = deSH_opening_sensor.Opening_pc_0,
+ nominal = 15.0, unit = "1");
+ Modelica.Blocks.Interfaces.RealOutput deSH_opening_sensor.Opening(start =
+ deSH_opening_sensor.Opening_pc_0/100, nominal = 0.15, unit = "1", min = 0.0,
+ max = 1.0);
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal deSH_opening_sensor.opening_sensor;
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate Q_deSH_sensor.Q
+ (start = Q_deSH_sensor.Q_0, nominal = 100.0) "Component mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction Q_deSH_sensor.Xi[0]
+ "Component mass fractions";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Q_deSH_sensor.P(start =
+ Q_deSH_sensor.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Q_deSH_sensor.h(
+ start = Q_deSH_sensor.h_0) "Enthalpy of the fluid into the component";
+ Modelica.Media.Interfaces.Types.FixedPhase Q_deSH_sensor.state.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy Q_deSH_sensor.state.h(
+ start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density Q_deSH_sensor.state.d(start = 150,
+ nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature Q_deSH_sensor.state.T(start = 500,
+ nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure Q_deSH_sensor.state.p(
+ start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate Q_deSH_sensor.mass_flow_rate_bias
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Q_deSH_sensor.C_in.Q(start = Q_deSH_sensor.Q_0, nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Q_deSH_sensor.C_in.P(
+ start = Q_deSH_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Q_deSH_sensor.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction Q_deSH_sensor.C_in.Xi_outflow[0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ Q_deSH_sensor.C_out.Q(start = -Q_deSH_sensor.Q_0, nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Q_deSH_sensor.C_out.P(
+ start = Q_deSH_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Q_deSH_sensor.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction Q_deSH_sensor.C_out.Xi_outflow[0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Q_deSH_sensor.flow_model.h_in
+ (start = Q_deSH_sensor.flow_model.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Q_deSH_sensor.flow_model.h_out
+ (start = Q_deSH_sensor.flow_model.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Q_deSH_sensor.flow_model.Q(start = Q_deSH_sensor.flow_model.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Q_deSH_sensor.flow_model.P_in
+ (start = Q_deSH_sensor.flow_model.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Q_deSH_sensor.flow_model.P_out
+ (start = Q_deSH_sensor.flow_model.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction Q_deSH_sensor.flow_model.Xi
+ [0] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density Q_deSH_sensor.flow_model.rho_in
+ (start = Q_deSH_sensor.flow_model.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density Q_deSH_sensor.flow_model.rho_out
+ (start = Q_deSH_sensor.flow_model.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density Q_deSH_sensor.flow_model.rho
+ (start = Q_deSH_sensor.flow_model.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ Q_deSH_sensor.flow_model.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ Q_deSH_sensor.flow_model.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ Q_deSH_sensor.flow_model.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature Q_deSH_sensor.flow_model.T_in
+ (start = Q_deSH_sensor.flow_model.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature Q_deSH_sensor.flow_model.T_out
+ (start = Q_deSH_sensor.flow_model.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase Q_deSH_sensor.flow_model.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy Q_deSH_sensor.flow_model.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density Q_deSH_sensor.flow_model.state_in.d(
+ start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature Q_deSH_sensor.flow_model.state_in.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure Q_deSH_sensor.flow_model.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase Q_deSH_sensor.flow_model.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy Q_deSH_sensor.flow_model.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density Q_deSH_sensor.flow_model.state_out.d(
+ start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature Q_deSH_sensor.flow_model.state_out.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure Q_deSH_sensor.flow_model.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ Q_deSH_sensor.flow_model.DP(start = Q_deSH_sensor.flow_model.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power Q_deSH_sensor.flow_model.W(
+ start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ Q_deSH_sensor.flow_model.DH(start = Q_deSH_sensor.flow_model.h_out_0-
+ Q_deSH_sensor.flow_model.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ Q_deSH_sensor.flow_model.DT(start = Q_deSH_sensor.flow_model.T_out_0-
+ Q_deSH_sensor.flow_model.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Q_deSH_sensor.flow_model.C_in.Q(start = Q_deSH_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Q_deSH_sensor.flow_model.C_in.P
+ (start = Q_deSH_sensor.flow_model.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Q_deSH_sensor.flow_model.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction Q_deSH_sensor.flow_model.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ Q_deSH_sensor.flow_model.C_out.Q(start = -Q_deSH_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Q_deSH_sensor.flow_model.C_out.P
+ (start = Q_deSH_sensor.flow_model.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Q_deSH_sensor.flow_model.C_out.h_outflow
+ (start = Q_deSH_sensor.flow_model.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction Q_deSH_sensor.flow_model.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Q_deSH_sensor.flow_model.h
+ (start = Q_deSH_sensor.flow_model.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Q_deSH_sensor.flow_model.P(
+ start = Q_deSH_sensor.flow_model.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature Q_deSH_sensor.flow_model.T
+ (start = Q_deSH_sensor.flow_model.T_0) "Temperature of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.VolumeFlowRate Q_deSH_sensor.Qv(
+ start = Q_deSH_sensor.Qv_0);
+ Real Q_deSH_sensor.Q_lm(start = Q_deSH_sensor.Qv_0*60000, nominal = 6000.0);
+ Real Q_deSH_sensor.Q_th(start = Q_deSH_sensor.Q_0*3.6, nominal = 360.0);
+ Real Q_deSH_sensor.Q_lbs(start = Q_deSH_sensor.Q_0*2.2046, nominal = 220.46);
+ Real Q_deSH_sensor.Q_Mlbh(start = Q_deSH_sensor.Q_0*0.0079366414387,
+ nominal = 0.79366414387);
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal Q_deSH_sensor.Q_sensor
+ (start = Q_deSH_sensor.Q_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Evap_controlValve.h_in
+ (start = Evap_controlValve.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Evap_controlValve.h_out
+ (start = Evap_controlValve.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Evap_controlValve.Q(start = Evap_controlValve.Q_0) "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Evap_controlValve.P_in(
+ start = Evap_controlValve.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Evap_controlValve.P_out(
+ start = Evap_controlValve.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction Evap_controlValve.Xi[0]
+ "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density Evap_controlValve.rho_in(
+ start = Evap_controlValve.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density Evap_controlValve.rho_out(
+ start = Evap_controlValve.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density Evap_controlValve.rho(
+ start = Evap_controlValve.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ Evap_controlValve.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ Evap_controlValve.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ Evap_controlValve.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature Evap_controlValve.T_in(
+ start = Evap_controlValve.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature Evap_controlValve.T_out(
+ start = Evap_controlValve.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase Evap_controlValve.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy Evap_controlValve.state_in.h(
+ start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density Evap_controlValve.state_in.d(start = 150,
+ nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature Evap_controlValve.state_in.T(
+ start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure Evap_controlValve.state_in.p(
+ start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase Evap_controlValve.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy Evap_controlValve.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density Evap_controlValve.state_out.d(start = 150,
+ nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature Evap_controlValve.state_out.T(
+ start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure Evap_controlValve.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ Evap_controlValve.DP(start = Evap_controlValve.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power Evap_controlValve.W(start = 0,
+ nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ Evap_controlValve.DH(start = Evap_controlValve.h_out_0-Evap_controlValve.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ Evap_controlValve.DT(start = Evap_controlValve.T_out_0-Evap_controlValve.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Evap_controlValve.C_in.Q(start = Evap_controlValve.Q_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Evap_controlValve.C_in.P(
+ start = Evap_controlValve.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Evap_controlValve.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction Evap_controlValve.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ Evap_controlValve.C_out.Q(start = -Evap_controlValve.Q_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Evap_controlValve.C_out.P(
+ start = Evap_controlValve.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Evap_controlValve.C_out.h_outflow
+ (start = Evap_controlValve.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction Evap_controlValve.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Evap_controlValve.h
+ (start = Evap_controlValve.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Cv Evap_controlValve.Cv(start =
+ 10000.0) "Cv";
+ Modelica.Blocks.Interfaces.RealInput Evap_controlValve.Opening(nominal = 0.5,
+ unit = "1", min = 0.0, max = 1.0);
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal Evap_controlValve.Cv_max
+ (start = Evap_controlValve.Cv_max_constant);
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputPercentage
+ Evap_opening_sensor.Opening_pc(start = Evap_opening_sensor.Opening_pc_0,
+ nominal = 15.0, unit = "1");
+ Modelica.Blocks.Interfaces.RealOutput Evap_opening_sensor.Opening(start =
+ Evap_opening_sensor.Opening_pc_0/100, nominal = 0.15, unit = "1", min = 0.0,
+ max = 1.0);
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal Evap_opening_sensor.opening_sensor;
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ moistAir_to_FlueGases.inlet.Q(start = 500, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure moistAir_to_FlueGases.inlet.P
+ (start = 100000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy moistAir_to_FlueGases.inlet.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction moistAir_to_FlueGases.inlet.Xi_outflow
+ [1];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy moistAir_to_FlueGases.sink.h_in;
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction moistAir_to_FlueGases.sink.Xi_in
+ [1];
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputPressure
+ moistAir_to_FlueGases.sink.P_in;
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ moistAir_to_FlueGases.sink.Q_in;
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ moistAir_to_FlueGases.sink.Qv_in(start = 1);
+ MetroscopeModelingLibrary.Utilities.Units.Temperature moistAir_to_FlueGases.sink.T_in;
+ Modelica.Media.Interfaces.Types.AbsolutePressure moistAir_to_FlueGases.sink.state_in.p
+ "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature moistAir_to_FlueGases.sink.state_in.T
+ (min = 190.0, max = 647.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction moistAir_to_FlueGases.sink.state_in.X
+ [2](start = {0.01, 0.99}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ moistAir_to_FlueGases.sink.C_in.Q(nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure moistAir_to_FlueGases.sink.C_in.P
+ (start = 100000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy moistAir_to_FlueGases.sink.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction moistAir_to_FlueGases.sink.C_in.Xi_outflow
+ [1];
+ Real moistAir_to_FlueGases.sink.relative_humidity(start = moistAir_to_FlueGases.sink.relative_humidity_0,
+ min = 0.0, max = 1.0);
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ moistAir_to_FlueGases.outlet.Q(start = -500, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure moistAir_to_FlueGases.outlet.P
+ (start = 100000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy moistAir_to_FlueGases.outlet.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction moistAir_to_FlueGases.outlet.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputSpecificEnthalpy
+ moistAir_to_FlueGases.source.h_out(start = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputMassFraction
+ moistAir_to_FlueGases.source.Xi_out[5];
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputPressure
+ moistAir_to_FlueGases.source.P_out(start = moistAir_to_FlueGases.source.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ moistAir_to_FlueGases.source.Q_out(start = -moistAir_to_FlueGases.source.Q_0);
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ moistAir_to_FlueGases.source.Qv_out(start = -moistAir_to_FlueGases.source.Q_0
+ /1000);
+ MetroscopeModelingLibrary.Utilities.Units.Temperature moistAir_to_FlueGases.source.T_out
+ (start = moistAir_to_FlueGases.source.T_0);
+ Modelica.Media.Interfaces.Types.AbsolutePressure moistAir_to_FlueGases.source.state_out.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature moistAir_to_FlueGases.source.state_out.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction moistAir_to_FlueGases.source.state_out.X
+ [5](start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ moistAir_to_FlueGases.source.C_out.Q(start = -moistAir_to_FlueGases.source.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure moistAir_to_FlueGases.source.C_out.P
+ (start = moistAir_to_FlueGases.source.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy moistAir_to_FlueGases.source.C_out.h_outflow
+ (start = moistAir_to_FlueGases.source.h_0);
+ Modelica.Media.Interfaces.Types.MassFraction moistAir_to_FlueGases.source.C_out.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputSpecificEnthalpy
+ source_air.h_out(start = 47645.766);
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputMassFraction
+ source_air.Xi_out[1];
+ MetroscopeModelingLibrary.Utilities.Units.Inputs.InputPressure
+ source_air.P_out(start = source_air.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ source_air.Q_out(start = -source_air.Q_0);
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ source_air.Qv_out(start = -source_air.Q_0/1000);
+ MetroscopeModelingLibrary.Utilities.Units.Temperature source_air.T_out(
+ start = source_air.T_0);
+ Modelica.Media.Interfaces.Types.AbsolutePressure source_air.state_out.p
+ "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature source_air.state_out.T(min = 190.0,
+ max = 647.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction source_air.state_out.X[2](
+ start = {0.01, 0.99}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ source_air.C_out.Q(start = -source_air.Q_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure source_air.C_out.P(start =
+ source_air.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy source_air.C_out.h_outflow
+ (start = source_air.h_0);
+ Modelica.Media.Interfaces.Types.MassFraction source_air.C_out.Xi_outflow[1];
+ Real source_air.relative_humidity(start = source_air.relative_humidity_0,
+ min = 0.0, max = 1.0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_HPST_out_sensor.Q(start = T_HPST_out_sensor.Q_0, nominal = 100.0)
+ "Component mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction T_HPST_out_sensor.Xi[0]
+ "Component mass fractions";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_HPST_out_sensor.P(
+ start = T_HPST_out_sensor.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_HPST_out_sensor.h
+ (start = T_HPST_out_sensor.h_0) "Enthalpy of the fluid into the component";
+ Modelica.Media.Interfaces.Types.FixedPhase T_HPST_out_sensor.state.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy T_HPST_out_sensor.state.h(
+ start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density T_HPST_out_sensor.state.d(start = 150,
+ nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature T_HPST_out_sensor.state.T(start = 500,
+ nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure T_HPST_out_sensor.state.p(
+ start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate T_HPST_out_sensor.mass_flow_rate_bias
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_HPST_out_sensor.C_in.Q(start = T_HPST_out_sensor.Q_0, nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_HPST_out_sensor.C_in.P(
+ start = T_HPST_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_HPST_out_sensor.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction T_HPST_out_sensor.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ T_HPST_out_sensor.C_out.Q(start = -T_HPST_out_sensor.Q_0, nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_HPST_out_sensor.C_out.P(
+ start = T_HPST_out_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_HPST_out_sensor.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction T_HPST_out_sensor.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_HPST_out_sensor.flow_model.h_in
+ (start = T_HPST_out_sensor.flow_model.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_HPST_out_sensor.flow_model.h_out
+ (start = T_HPST_out_sensor.flow_model.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_HPST_out_sensor.flow_model.Q(start = T_HPST_out_sensor.flow_model.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_HPST_out_sensor.flow_model.P_in
+ (start = T_HPST_out_sensor.flow_model.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_HPST_out_sensor.flow_model.P_out
+ (start = T_HPST_out_sensor.flow_model.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction T_HPST_out_sensor.flow_model.Xi
+ [0] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density T_HPST_out_sensor.flow_model.rho_in
+ (start = T_HPST_out_sensor.flow_model.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density T_HPST_out_sensor.flow_model.rho_out
+ (start = T_HPST_out_sensor.flow_model.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density T_HPST_out_sensor.flow_model.rho
+ (start = T_HPST_out_sensor.flow_model.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ T_HPST_out_sensor.flow_model.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ T_HPST_out_sensor.flow_model.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ T_HPST_out_sensor.flow_model.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_HPST_out_sensor.flow_model.T_in
+ (start = T_HPST_out_sensor.flow_model.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_HPST_out_sensor.flow_model.T_out
+ (start = T_HPST_out_sensor.flow_model.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase T_HPST_out_sensor.flow_model.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy T_HPST_out_sensor.flow_model.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density T_HPST_out_sensor.flow_model.state_in.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature T_HPST_out_sensor.flow_model.state_in.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure T_HPST_out_sensor.flow_model.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase T_HPST_out_sensor.flow_model.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy T_HPST_out_sensor.flow_model.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density T_HPST_out_sensor.flow_model.state_out.d
+ (start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature T_HPST_out_sensor.flow_model.state_out.T
+ (start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure T_HPST_out_sensor.flow_model.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ T_HPST_out_sensor.flow_model.DP(start = T_HPST_out_sensor.flow_model.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power T_HPST_out_sensor.flow_model.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ T_HPST_out_sensor.flow_model.DH(start = T_HPST_out_sensor.flow_model.h_out_0
+ -T_HPST_out_sensor.flow_model.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ T_HPST_out_sensor.flow_model.DT(start = T_HPST_out_sensor.flow_model.T_out_0
+ -T_HPST_out_sensor.flow_model.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ T_HPST_out_sensor.flow_model.C_in.Q(start = T_HPST_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_HPST_out_sensor.flow_model.C_in.P
+ (start = T_HPST_out_sensor.flow_model.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_HPST_out_sensor.flow_model.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction T_HPST_out_sensor.flow_model.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ T_HPST_out_sensor.flow_model.C_out.Q(start = -T_HPST_out_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_HPST_out_sensor.flow_model.C_out.P
+ (start = T_HPST_out_sensor.flow_model.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_HPST_out_sensor.flow_model.C_out.h_outflow
+ (start = T_HPST_out_sensor.flow_model.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction T_HPST_out_sensor.flow_model.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy T_HPST_out_sensor.flow_model.h
+ (start = T_HPST_out_sensor.flow_model.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure T_HPST_out_sensor.flow_model.P
+ (start = T_HPST_out_sensor.flow_model.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_HPST_out_sensor.flow_model.T
+ (start = T_HPST_out_sensor.flow_model.T_0) "Temperature of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature T_HPST_out_sensor.T(
+ start = T_HPST_out_sensor.T_0);
+ Real T_HPST_out_sensor.T_degC(start = T_HPST_out_sensor.T_0+273.15, nominal =
+ 573.15, unit = "degC");
+ Real T_HPST_out_sensor.T_degF(start = (T_HPST_out_sensor.T_0+273.15)*1.8+32,
+ nominal = 1063.67, unit = "degF");
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal T_HPST_out_sensor.T_sensor
+ (start = T_HPST_out_sensor.init_T);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy displayer.flow_model.h_in
+ (start = displayer.flow_model.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy displayer.flow_model.h_out
+ (start = displayer.flow_model.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ displayer.flow_model.Q(start = displayer.flow_model.Q_0) "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure displayer.flow_model.P_in(
+ start = displayer.flow_model.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure displayer.flow_model.P_out(
+ start = displayer.flow_model.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction displayer.flow_model.Xi
+ [0] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density displayer.flow_model.rho_in(
+ start = displayer.flow_model.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density displayer.flow_model.rho_out
+ (start = displayer.flow_model.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density displayer.flow_model.rho(
+ start = displayer.flow_model.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ displayer.flow_model.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ displayer.flow_model.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ displayer.flow_model.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature displayer.flow_model.T_in
+ (start = displayer.flow_model.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature displayer.flow_model.T_out
+ (start = displayer.flow_model.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.FixedPhase displayer.flow_model.state_in.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy displayer.flow_model.state_in.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density displayer.flow_model.state_in.d(
+ start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature displayer.flow_model.state_in.T(
+ start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure displayer.flow_model.state_in.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ Modelica.Media.Interfaces.Types.FixedPhase displayer.flow_model.state_out.phase
+ "Phase of the fluid: 1 for 1-phase, 2 for two-phase, 0 for not known, e.g., interactive use";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy displayer.flow_model.state_out.h
+ (start = 100000.0, nominal = 500000.0) "Specific enthalpy";
+ Modelica.Media.Interfaces.Types.Density displayer.flow_model.state_out.d(
+ start = 150, nominal = 500.0) "Density";
+ Modelica.Media.Interfaces.Types.Temperature displayer.flow_model.state_out.T(
+ start = 500, nominal = 500.0, min = 273.15, max = 2273.15) "Temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure displayer.flow_model.state_out.p
+ (start = 5000000.0, nominal = 1000000.0, min = 611.657) "Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ displayer.flow_model.DP(start = displayer.flow_model.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power displayer.flow_model.W(
+ start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ displayer.flow_model.DH(start = displayer.flow_model.h_out_0-
+ displayer.flow_model.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ displayer.flow_model.DT(start = displayer.flow_model.T_out_0-
+ displayer.flow_model.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ displayer.flow_model.C_in.Q(start = displayer.flow_model.Q_0, nominal =
+ 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure displayer.flow_model.C_in.P
+ (start = displayer.flow_model.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy displayer.flow_model.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction displayer.flow_model.C_in.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ displayer.flow_model.C_out.Q(start = -displayer.flow_model.Q_0, nominal =
+ 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure displayer.flow_model.C_out.P
+ (start = displayer.flow_model.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy displayer.flow_model.C_out.h_outflow
+ (start = displayer.flow_model.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction displayer.flow_model.C_out.Xi_outflow
+ [0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy displayer.flow_model.h
+ (start = displayer.flow_model.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure displayer.flow_model.P(
+ start = displayer.flow_model.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature displayer.flow_model.T(
+ start = displayer.flow_model.T_0) "Temperature of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ displayer.C_in.Q(start = displayer.Q_0, nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure displayer.C_in.P(start =
+ displayer.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy displayer.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction displayer.C_in.Xi_outflow[0];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ displayer.C_out.Q(start = -displayer.Q_0, nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure displayer.C_out.P(start =
+ displayer.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy displayer.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction displayer.C_out.Xi_outflow[0];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy fuelDisplayer.flow_model.h_in
+ (start = fuelDisplayer.flow_model.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy fuelDisplayer.flow_model.h_out
+ (start = fuelDisplayer.flow_model.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ fuelDisplayer.flow_model.Q(start = fuelDisplayer.flow_model.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure fuelDisplayer.flow_model.P_in
+ (start = fuelDisplayer.flow_model.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure fuelDisplayer.flow_model.P_out
+ (start = fuelDisplayer.flow_model.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction fuelDisplayer.flow_model.Xi
+ [6] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density fuelDisplayer.flow_model.rho_in
+ (start = fuelDisplayer.flow_model.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density fuelDisplayer.flow_model.rho_out
+ (start = fuelDisplayer.flow_model.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density fuelDisplayer.flow_model.rho
+ (start = fuelDisplayer.flow_model.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ fuelDisplayer.flow_model.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ fuelDisplayer.flow_model.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ fuelDisplayer.flow_model.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature fuelDisplayer.flow_model.T_in
+ (start = fuelDisplayer.flow_model.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature fuelDisplayer.flow_model.T_out
+ (start = fuelDisplayer.flow_model.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure fuelDisplayer.flow_model.state_in.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature fuelDisplayer.flow_model.state_in.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction fuelDisplayer.flow_model.state_in.X
+ [6](start = {0.92, 0.048, 0.005, 0.002, 0.015, 0.01}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ Modelica.Media.Interfaces.Types.AbsolutePressure fuelDisplayer.flow_model.state_out.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature fuelDisplayer.flow_model.state_out.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction fuelDisplayer.flow_model.state_out.X
+ [6](start = {0.92, 0.048, 0.005, 0.002, 0.015, 0.01}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ fuelDisplayer.flow_model.DP(start = fuelDisplayer.flow_model.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power fuelDisplayer.flow_model.W(
+ start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ fuelDisplayer.flow_model.DH(start = fuelDisplayer.flow_model.h_out_0-
+ fuelDisplayer.flow_model.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ fuelDisplayer.flow_model.DT(start = fuelDisplayer.flow_model.T_out_0-
+ fuelDisplayer.flow_model.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ fuelDisplayer.flow_model.C_in.Q(start = fuelDisplayer.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure fuelDisplayer.flow_model.C_in.P
+ (start = fuelDisplayer.flow_model.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy fuelDisplayer.flow_model.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction fuelDisplayer.flow_model.C_in.Xi_outflow
+ [6];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ fuelDisplayer.flow_model.C_out.Q(start = -fuelDisplayer.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure fuelDisplayer.flow_model.C_out.P
+ (start = fuelDisplayer.flow_model.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy fuelDisplayer.flow_model.C_out.h_outflow
+ (start = fuelDisplayer.flow_model.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction fuelDisplayer.flow_model.C_out.Xi_outflow
+ [6];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy fuelDisplayer.flow_model.h
+ (start = fuelDisplayer.flow_model.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure fuelDisplayer.flow_model.P(
+ start = fuelDisplayer.flow_model.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature fuelDisplayer.flow_model.T
+ (start = fuelDisplayer.flow_model.T_0) "Temperature of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ fuelDisplayer.C_in.Q(start = fuelDisplayer.Q_0, nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure fuelDisplayer.C_in.P(
+ start = fuelDisplayer.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy fuelDisplayer.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction fuelDisplayer.C_in.Xi_outflow[6];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ fuelDisplayer.C_out.Q(start = -fuelDisplayer.Q_0, nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure fuelDisplayer.C_out.P(
+ start = fuelDisplayer.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy fuelDisplayer.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction fuelDisplayer.C_out.Xi_outflow[6];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy moistAirDisplayer.flow_model.h_in
+ (start = moistAirDisplayer.flow_model.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy moistAirDisplayer.flow_model.h_out
+ (start = moistAirDisplayer.flow_model.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ moistAirDisplayer.flow_model.Q(start = moistAirDisplayer.flow_model.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure moistAirDisplayer.flow_model.P_in
+ (start = moistAirDisplayer.flow_model.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure moistAirDisplayer.flow_model.P_out
+ (start = moistAirDisplayer.flow_model.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction moistAirDisplayer.flow_model.Xi
+ [1] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density moistAirDisplayer.flow_model.rho_in
+ (start = moistAirDisplayer.flow_model.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density moistAirDisplayer.flow_model.rho_out
+ (start = moistAirDisplayer.flow_model.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density moistAirDisplayer.flow_model.rho
+ (start = moistAirDisplayer.flow_model.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ moistAirDisplayer.flow_model.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ moistAirDisplayer.flow_model.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ moistAirDisplayer.flow_model.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature moistAirDisplayer.flow_model.T_in
+ (start = moistAirDisplayer.flow_model.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature moistAirDisplayer.flow_model.T_out
+ (start = moistAirDisplayer.flow_model.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure moistAirDisplayer.flow_model.state_in.p
+ "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature moistAirDisplayer.flow_model.state_in.T
+ (min = 190.0, max = 647.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction moistAirDisplayer.flow_model.state_in.X
+ [2](start = {0.01, 0.99}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ Modelica.Media.Interfaces.Types.AbsolutePressure moistAirDisplayer.flow_model.state_out.p
+ "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature moistAirDisplayer.flow_model.state_out.T
+ (min = 190.0, max = 647.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction moistAirDisplayer.flow_model.state_out.X
+ [2](start = {0.01, 0.99}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ moistAirDisplayer.flow_model.DP(start = moistAirDisplayer.flow_model.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power moistAirDisplayer.flow_model.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ moistAirDisplayer.flow_model.DH(start = moistAirDisplayer.flow_model.h_out_0
+ -moistAirDisplayer.flow_model.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ moistAirDisplayer.flow_model.DT(start = moistAirDisplayer.flow_model.T_out_0
+ -moistAirDisplayer.flow_model.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ moistAirDisplayer.flow_model.C_in.Q(start = moistAirDisplayer.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure moistAirDisplayer.flow_model.C_in.P
+ (start = moistAirDisplayer.flow_model.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy moistAirDisplayer.flow_model.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction moistAirDisplayer.flow_model.C_in.Xi_outflow
+ [1];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ moistAirDisplayer.flow_model.C_out.Q(start = -moistAirDisplayer.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure moistAirDisplayer.flow_model.C_out.P
+ (start = moistAirDisplayer.flow_model.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy moistAirDisplayer.flow_model.C_out.h_outflow
+ (start = moistAirDisplayer.flow_model.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction moistAirDisplayer.flow_model.C_out.Xi_outflow
+ [1];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy moistAirDisplayer.flow_model.h
+ (start = moistAirDisplayer.flow_model.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure moistAirDisplayer.flow_model.P
+ (start = moistAirDisplayer.flow_model.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature moistAirDisplayer.flow_model.T
+ (start = moistAirDisplayer.flow_model.T_0) "Temperature of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ moistAirDisplayer.C_in.Q(start = moistAirDisplayer.Q_0, nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure moistAirDisplayer.C_in.P(
+ start = moistAirDisplayer.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy moistAirDisplayer.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction moistAirDisplayer.C_in.Xi_outflow
+ [1];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ moistAirDisplayer.C_out.Q(start = -moistAirDisplayer.Q_0, nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure moistAirDisplayer.C_out.P(
+ start = moistAirDisplayer.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy moistAirDisplayer.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction moistAirDisplayer.C_out.Xi_outflow
+ [1];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy flueGasesDisplayer.flow_model.h_in
+ (start = flueGasesDisplayer.flow_model.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy flueGasesDisplayer.flow_model.h_out
+ (start = flueGasesDisplayer.flow_model.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ flueGasesDisplayer.flow_model.Q(start = flueGasesDisplayer.flow_model.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure flueGasesDisplayer.flow_model.P_in
+ (start = flueGasesDisplayer.flow_model.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure flueGasesDisplayer.flow_model.P_out
+ (start = flueGasesDisplayer.flow_model.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction flueGasesDisplayer.flow_model.Xi
+ [5] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density flueGasesDisplayer.flow_model.rho_in
+ (start = flueGasesDisplayer.flow_model.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density flueGasesDisplayer.flow_model.rho_out
+ (start = flueGasesDisplayer.flow_model.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density flueGasesDisplayer.flow_model.rho
+ (start = flueGasesDisplayer.flow_model.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ flueGasesDisplayer.flow_model.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ flueGasesDisplayer.flow_model.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ flueGasesDisplayer.flow_model.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature flueGasesDisplayer.flow_model.T_in
+ (start = flueGasesDisplayer.flow_model.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature flueGasesDisplayer.flow_model.T_out
+ (start = flueGasesDisplayer.flow_model.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure flueGasesDisplayer.flow_model.state_in.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature flueGasesDisplayer.flow_model.state_in.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction flueGasesDisplayer.flow_model.state_in.X
+ [5](start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ Modelica.Media.Interfaces.Types.AbsolutePressure flueGasesDisplayer.flow_model.state_out.p
+ (start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature flueGasesDisplayer.flow_model.state_out.T
+ (start = 500, nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction flueGasesDisplayer.flow_model.state_out.X
+ [5](start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ flueGasesDisplayer.flow_model.DP(start = flueGasesDisplayer.flow_model.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power flueGasesDisplayer.flow_model.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ flueGasesDisplayer.flow_model.DH(start = flueGasesDisplayer.flow_model.h_out_0
+ -flueGasesDisplayer.flow_model.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ flueGasesDisplayer.flow_model.DT(start = flueGasesDisplayer.flow_model.T_out_0
+ -flueGasesDisplayer.flow_model.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ flueGasesDisplayer.flow_model.C_in.Q(start = flueGasesDisplayer.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure flueGasesDisplayer.flow_model.C_in.P
+ (start = flueGasesDisplayer.flow_model.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy flueGasesDisplayer.flow_model.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction flueGasesDisplayer.flow_model.C_in.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ flueGasesDisplayer.flow_model.C_out.Q(start = -flueGasesDisplayer.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure flueGasesDisplayer.flow_model.C_out.P
+ (start = flueGasesDisplayer.flow_model.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy flueGasesDisplayer.flow_model.C_out.h_outflow
+ (start = flueGasesDisplayer.flow_model.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction flueGasesDisplayer.flow_model.C_out.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy flueGasesDisplayer.flow_model.h
+ (start = flueGasesDisplayer.flow_model.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure flueGasesDisplayer.flow_model.P
+ (start = flueGasesDisplayer.flow_model.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature flueGasesDisplayer.flow_model.T
+ (start = flueGasesDisplayer.flow_model.T_0) "Temperature of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ flueGasesDisplayer.C_in.Q(start = flueGasesDisplayer.Q_0, nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure flueGasesDisplayer.C_in.P(
+ start = flueGasesDisplayer.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy flueGasesDisplayer.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction flueGasesDisplayer.C_in.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ flueGasesDisplayer.C_out.Q(start = -flueGasesDisplayer.Q_0, nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure flueGasesDisplayer.C_out.P(
+ start = flueGasesDisplayer.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy flueGasesDisplayer.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction flueGasesDisplayer.C_out.Xi_outflow
+ [5](start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Relative_Humidity_sensor.Q(start = Relative_Humidity_sensor.Q_0, nominal =
+ 100.0) "Component mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction Relative_Humidity_sensor.Xi
+ [1] "Component mass fractions";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Relative_Humidity_sensor.P(
+ start = Relative_Humidity_sensor.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Relative_Humidity_sensor.h
+ (start = Relative_Humidity_sensor.h_0) "Enthalpy of the fluid into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure Relative_Humidity_sensor.state.p
+ "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature Relative_Humidity_sensor.state.T(
+ min = 190.0, max = 647.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction Relative_Humidity_sensor.state.X[2]
+ (start = {0.01, 0.99}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.MassFlowRate Relative_Humidity_sensor.mass_flow_rate_bias
+ (start = 0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Relative_Humidity_sensor.C_in.Q(start = Relative_Humidity_sensor.Q_0,
+ nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Relative_Humidity_sensor.C_in.P
+ (start = Relative_Humidity_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Relative_Humidity_sensor.C_in.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction Relative_Humidity_sensor.C_in.Xi_outflow
+ [1];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ Relative_Humidity_sensor.C_out.Q(start = -Relative_Humidity_sensor.Q_0,
+ nominal = 100.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Relative_Humidity_sensor.C_out.P
+ (start = Relative_Humidity_sensor.P_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Relative_Humidity_sensor.C_out.h_outflow
+ (start = 100000.0);
+ Modelica.Media.Interfaces.Types.MassFraction Relative_Humidity_sensor.C_out.Xi_outflow
+ [1];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Relative_Humidity_sensor.flow_model.h_in
+ (start = Relative_Humidity_sensor.flow_model.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Relative_Humidity_sensor.flow_model.h_out
+ (start = Relative_Humidity_sensor.flow_model.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Relative_Humidity_sensor.flow_model.Q(start = Relative_Humidity_sensor.flow_model.Q_0)
+ "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Relative_Humidity_sensor.flow_model.P_in
+ (start = Relative_Humidity_sensor.flow_model.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Relative_Humidity_sensor.flow_model.P_out
+ (start = Relative_Humidity_sensor.flow_model.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction Relative_Humidity_sensor.flow_model.Xi
+ [1] "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density Relative_Humidity_sensor.flow_model.rho_in
+ (start = Relative_Humidity_sensor.flow_model.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density Relative_Humidity_sensor.flow_model.rho_out
+ (start = Relative_Humidity_sensor.flow_model.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density Relative_Humidity_sensor.flow_model.rho
+ (start = Relative_Humidity_sensor.flow_model.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ Relative_Humidity_sensor.flow_model.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ Relative_Humidity_sensor.flow_model.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ Relative_Humidity_sensor.flow_model.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature Relative_Humidity_sensor.flow_model.T_in
+ (start = Relative_Humidity_sensor.flow_model.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature Relative_Humidity_sensor.flow_model.T_out
+ (start = Relative_Humidity_sensor.flow_model.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure Relative_Humidity_sensor.flow_model.state_in.p
+ "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature Relative_Humidity_sensor.flow_model.state_in.T
+ (min = 190.0, max = 647.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction Relative_Humidity_sensor.flow_model.state_in.X
+ [2](start = {0.01, 0.99}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ Modelica.Media.Interfaces.Types.AbsolutePressure Relative_Humidity_sensor.flow_model.state_out.p
+ "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature Relative_Humidity_sensor.flow_model.state_out.T
+ (min = 190.0, max = 647.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction Relative_Humidity_sensor.flow_model.state_out.X
+ [2](start = {0.01, 0.99}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ Relative_Humidity_sensor.flow_model.DP(start = Relative_Humidity_sensor.flow_model.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power Relative_Humidity_sensor.flow_model.W
+ (start = 0, nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ Relative_Humidity_sensor.flow_model.DH(start = Relative_Humidity_sensor.flow_model.h_out_0
+ -Relative_Humidity_sensor.flow_model.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ Relative_Humidity_sensor.flow_model.DT(start = Relative_Humidity_sensor.flow_model.T_out_0
+ -Relative_Humidity_sensor.flow_model.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ Relative_Humidity_sensor.flow_model.C_in.Q(start = Relative_Humidity_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Relative_Humidity_sensor.flow_model.C_in.P
+ (start = Relative_Humidity_sensor.flow_model.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Relative_Humidity_sensor.flow_model.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction Relative_Humidity_sensor.flow_model.C_in.Xi_outflow
+ [1];
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ Relative_Humidity_sensor.flow_model.C_out.Q(start = -Relative_Humidity_sensor.flow_model.Q_0,
+ nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Relative_Humidity_sensor.flow_model.C_out.P
+ (start = Relative_Humidity_sensor.flow_model.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Relative_Humidity_sensor.flow_model.C_out.h_outflow
+ (start = Relative_Humidity_sensor.flow_model.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction Relative_Humidity_sensor.flow_model.C_out.Xi_outflow
+ [1];
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy Relative_Humidity_sensor.flow_model.h
+ (start = Relative_Humidity_sensor.flow_model.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure Relative_Humidity_sensor.flow_model.P
+ (start = Relative_Humidity_sensor.flow_model.P_0) "Pressure of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature Relative_Humidity_sensor.flow_model.T
+ (start = Relative_Humidity_sensor.flow_model.T_0) "Temperature of the fluid into the component";
+ Real Relative_Humidity_sensor.relative_humidity(start = Relative_Humidity_sensor.relative_humidity_0,
+ min = 0.0, max = 1.0);
+ Real Relative_Humidity_sensor.relative_humidity_pc(start = Relative_Humidity_sensor.relative_humidity_0
+ *100, min = 0.0, max = 100.0);
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal Relative_Humidity_sensor.H_sensor
+ (start = Relative_Humidity_sensor.input_H);
+ output MetroscopeModelingLibrary.Utilities.Interfaces.RealOutput Filter_Kfr
+ "P_filter_out";
+ output MetroscopeModelingLibrary.Utilities.Interfaces.RealOutput
+ compression_rate;
+ output MetroscopeModelingLibrary.Utilities.Interfaces.RealOutput
+ compressor_eta_is;
+ output MetroscopeModelingLibrary.Utilities.Interfaces.RealOutput Q_fuel_source;
+ output MetroscopeModelingLibrary.Utilities.Interfaces.RealOutput
+ turbine_eta_is;
+ output MetroscopeModelingLibrary.Utilities.Interfaces.RealOutput
+ economizer_Kfr_cold(nominal = 0.001);
+ output MetroscopeModelingLibrary.Utilities.Interfaces.RealOutput
+ economizer_Kth(start = 1000.0, nominal = 1000.0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HRSG_friction.h_in(
+ start = HRSG_friction.h_in_0) "Inlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HRSG_friction.h_out
+ (start = HRSG_friction.h_out_0) "Outlet specific enthalpy";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate HRSG_friction.Q
+ (start = HRSG_friction.Q_0) "Inlet Mass flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HRSG_friction.P_in(start =
+ HRSG_friction.P_in_0) "Inlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HRSG_friction.P_out(
+ start = HRSG_friction.P_out_0) "Outlet Pressure";
+ MetroscopeModelingLibrary.Utilities.Units.MassFraction HRSG_friction.Xi[5]
+ "Species mass fraction";
+ MetroscopeModelingLibrary.Utilities.Units.Density HRSG_friction.rho_in(
+ start = HRSG_friction.rho_0) "Inlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density HRSG_friction.rho_out(
+ start = HRSG_friction.rho_0) "Outlet density";
+ MetroscopeModelingLibrary.Utilities.Units.Density HRSG_friction.rho(start =
+ HRSG_friction.rho_0) "Mean density";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ HRSG_friction.Qv_in "Inlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.NegativeVolumeFlowRate
+ HRSG_friction.Qv_out "Outlet volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.PositiveVolumeFlowRate
+ HRSG_friction.Qv "Mean volumetric flow rate";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature HRSG_friction.T_in(
+ start = HRSG_friction.T_in_0) "Fluid temperature";
+ MetroscopeModelingLibrary.Utilities.Units.Temperature HRSG_friction.T_out(
+ start = HRSG_friction.T_out_0) "Fluid temperature";
+ Modelica.Media.Interfaces.Types.AbsolutePressure HRSG_friction.state_in.p(
+ start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature HRSG_friction.state_in.T(start = 500,
+ nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction HRSG_friction.state_in.X[5](
+ start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ Modelica.Media.Interfaces.Types.AbsolutePressure HRSG_friction.state_out.p(
+ start = 1000000.0, nominal = 1000000.0) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature HRSG_friction.state_out.T(start = 500,
+ nominal = 500.0, min = 200.0, max = 6000.0) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction HRSG_friction.state_out.X[5](
+ start = {0.768, 0.232, 0.0, 0.0, 0.0}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialPressure
+ HRSG_friction.DP(start = HRSG_friction.DP_0);
+ MetroscopeModelingLibrary.Utilities.Units.Power HRSG_friction.W(start = 0,
+ nominal = 1000000.0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialEnthalpy
+ HRSG_friction.DH(start = HRSG_friction.h_out_0-HRSG_friction.h_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.DifferentialTemperature
+ HRSG_friction.DT(start = HRSG_friction.T_out_0-HRSG_friction.T_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.PositiveMassFlowRate
+ HRSG_friction.C_in.Q(start = HRSG_friction.Q_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HRSG_friction.C_in.P(
+ start = HRSG_friction.P_in_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HRSG_friction.C_in.h_outflow
+ (start = 0);
+ Modelica.Media.Interfaces.Types.MassFraction HRSG_friction.C_in.Xi_outflow[5](
+ start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.NegativeMassFlowRate
+ HRSG_friction.C_out.Q(start = -HRSG_friction.Q_0, nominal = 500.0);
+ MetroscopeModelingLibrary.Utilities.Units.Pressure HRSG_friction.C_out.P(
+ start = HRSG_friction.P_out_0);
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HRSG_friction.C_out.h_outflow
+ (start = HRSG_friction.h_out_0);
+ Modelica.Media.Interfaces.Types.MassFraction HRSG_friction.C_out.Xi_outflow[5]
+ (start = {0.7481, 0.1392, 0.0525, 0.0601, 0.0});
+ MetroscopeModelingLibrary.Utilities.Units.SpecificEnthalpy HRSG_friction.h(
+ start = HRSG_friction.h_0) "Enthalpy of the fluid into the component";
+ MetroscopeModelingLibrary.Utilities.Units.Percentage HRSG_friction.fouling;
+ MetroscopeModelingLibrary.Utilities.Interfaces.GenericReal HRSG_friction.Kfr(
+ start = HRSG_friction.Kfr_constant);
+ output MetroscopeModelingLibrary.Utilities.Interfaces.RealOutput
+ HRSG_friction_Kfr(start = 0.022388678);
+ output MetroscopeModelingLibrary.Utilities.Interfaces.RealOutput Reheater_Kth(
+ start = 1000.0, nominal = 1000.0);
+ output MetroscopeModelingLibrary.Utilities.Interfaces.RealOutput
+ Reheater_Kfr_cold(nominal = 0.001);
+ output MetroscopeModelingLibrary.Utilities.Interfaces.RealOutput
+ HPsuperheater1_Kfr_cold(nominal = 0.001);
+ output MetroscopeModelingLibrary.Utilities.Interfaces.RealOutput
+ HPsuperheater1_Kth(start = 1000.0, nominal = 1000.0);
+ output MetroscopeModelingLibrary.Utilities.Interfaces.RealOutput
+ HPsuperheater2_Kfr_cold(nominal = 0.001);
+ output MetroscopeModelingLibrary.Utilities.Interfaces.RealOutput
+ HPsuperheater2_Kth(start = 1000.0, nominal = 1000.0);
+ output MetroscopeModelingLibrary.Utilities.Interfaces.RealOutput pumpRec_hn;
+ output MetroscopeModelingLibrary.Utilities.Interfaces.RealOutput pumpRec_rh;
+ output MetroscopeModelingLibrary.Utilities.Interfaces.RealOutput pump_hn;
+ output MetroscopeModelingLibrary.Utilities.Interfaces.RealOutput pump_rh;
+ output MetroscopeModelingLibrary.Utilities.Interfaces.RealOutput
+ LPsteamTurbine_Cst;
+ output MetroscopeModelingLibrary.Utilities.Interfaces.RealOutput
+ LPsteamTurbine_eta_is;
+ output MetroscopeModelingLibrary.Utilities.Interfaces.RealOutput
+ HPsteamTurbine_Cst;
+ output MetroscopeModelingLibrary.Utilities.Interfaces.RealOutput
+ HPsteamTurbine_eta_is;
+ output MetroscopeModelingLibrary.Utilities.Interfaces.RealOutput
+ LPST_control_valve_Cv;
+ output MetroscopeModelingLibrary.Utilities.Interfaces.RealOutput
+ HPST_control_valve_Cv;
+ output MetroscopeModelingLibrary.Utilities.Interfaces.RealOutput
+ T_flue_gas_sink(start = 1);
+ output MetroscopeModelingLibrary.Utilities.Interfaces.RealOutput
+ deSH_controlValve_Cv_max;
+ output MetroscopeModelingLibrary.Utilities.Interfaces.RealOutput
+ Evap_controlValve_Cv_max;
+ output MetroscopeModelingLibrary.Utilities.Interfaces.RealOutput
+ pumpRec_controlValve_Cv_max;
+ output MetroscopeModelingLibrary.Utilities.Interfaces.RealOutput Q_pumpRec_out;
+ output MetroscopeModelingLibrary.Utilities.Interfaces.RealOutput condenser_Kth;
+ output MetroscopeModelingLibrary.Utilities.Interfaces.RealOutput
+ condenser_Qv_cold_in;
+
+// Equations and algorithms
+
+ // Component economiser.HX
+ // class MetroscopeModelingLibrary.Power.HeatExchange.NTUHeatExchange
+ equation
+ economiser.HX.W_max = economiser.HX.QCpMIN*(economiser.HX.T_hot_in-
+ economiser.HX.T_cold_in);
+ economiser.HX.W = economiser.HX.epsilon*economiser.HX.W_max;
+ economiser.HX.NTU = economiser.HX.Kth*economiser.HX.S/economiser.HX.QCpMIN;
+ economiser.HX.Cr = economiser.HX.QCpMIN/economiser.HX.QCpMAX;
+ if (economiser.HX.config == "shell_and_tubes_two_passes") then
+ if (economiser.HX.QCp_max_side == "hot") then
+ economiser.HX.QCpMAX = economiser.HX.Q_hot*economiser.HX.Cp_hot;
+ economiser.HX.QCpMIN = economiser.HX.Q_cold*economiser.HX.Cp_cold;
+ elseif (economiser.HX.QCp_max_side == "cold") then
+ economiser.HX.QCpMIN = economiser.HX.Q_hot*economiser.HX.Cp_hot;
+ economiser.HX.QCpMAX = economiser.HX.Q_cold*economiser.HX.Cp_cold;
+ else
+ economiser.HX.QCpMIN = min(economiser.HX.Q_hot*economiser.HX.Cp_hot,
+ economiser.HX.Q_cold*economiser.HX.Cp_cold);
+ economiser.HX.QCpMAX = max(economiser.HX.Q_hot*economiser.HX.Cp_hot,
+ economiser.HX.Q_cold*economiser.HX.Cp_cold);
+ end if;
+ assert(economiser.HX.QCpMIN < economiser.HX.QCpMAX, "QCPMIN is higher than QCpMAX");
+ economiser.HX.epsilon = 2/(1+economiser.HX.Cr+sqrt(1+economiser.HX.Cr^2)*(1
+ +exp( -economiser.HX.NTU*(1+economiser.HX.Cr^2)^0.5))/(1-exp( -
+ economiser.HX.NTU*(1+economiser.HX.Cr^2)^0.5)));
+ elseif (economiser.HX.config == "monophasic_cross_current") then
+ if (economiser.HX.mixed_fluid == "hot") then
+ if (economiser.HX.QCp_max_side == "hot") then
+ economiser.HX.QCpMAX = economiser.HX.Q_hot*economiser.HX.Cp_hot;
+ economiser.HX.QCpMIN = economiser.HX.Q_cold*economiser.HX.Cp_cold;
+ assert(economiser.HX.QCpMIN < economiser.HX.QCpMAX, "QCPMIN is higher than QCpMAX");
+ economiser.HX.epsilon = (1-exp( -economiser.HX.Cr*(1-exp( -
+ economiser.HX.NTU))))/economiser.HX.Cr;
+ elseif (economiser.HX.QCp_max_side == "cold") then
+ economiser.HX.QCpMIN = economiser.HX.Q_hot*economiser.HX.Cp_hot;
+ economiser.HX.QCpMAX = economiser.HX.Q_cold*economiser.HX.Cp_cold;
+ assert(economiser.HX.QCpMIN < economiser.HX.QCpMAX, "QCPMIN is higher than QCpMAX");
+ economiser.HX.epsilon = 1-exp( -(1-exp( -economiser.HX.Cr*
+ economiser.HX.NTU))/economiser.HX.Cr);
+ else
+ if (economiser.HX.Q_hot*economiser.HX.Cp_hot < economiser.HX.Q_cold*
+ economiser.HX.Cp_cold) then
+ economiser.HX.QCpMIN = economiser.HX.Q_hot*economiser.HX.Cp_hot;
+ economiser.HX.QCpMAX = economiser.HX.Q_cold*economiser.HX.Cp_cold;
+ economiser.HX.epsilon = 1-exp( -(1-exp( -economiser.HX.Cr*
+ economiser.HX.NTU))/economiser.HX.Cr);
+ else
+ economiser.HX.QCpMAX = economiser.HX.Q_hot*economiser.HX.Cp_hot;
+ economiser.HX.QCpMIN = economiser.HX.Q_cold*economiser.HX.Cp_cold;
+ economiser.HX.epsilon = (1-exp( -economiser.HX.Cr*(1-exp( -
+ economiser.HX.NTU))))/economiser.HX.Cr;
+ end if;
+ end if;
+ else
+ if (economiser.HX.QCp_max_side == "hot") then
+ economiser.HX.QCpMAX = economiser.HX.Q_hot*economiser.HX.Cp_hot;
+ economiser.HX.QCpMIN = economiser.HX.Q_cold*economiser.HX.Cp_cold;
+ assert(economiser.HX.QCpMIN < economiser.HX.QCpMAX, "QCPMIN is higher than QCpMAX");
+ economiser.HX.epsilon = 1-exp( -(1-exp( -economiser.HX.Cr*
+ economiser.HX.NTU))/economiser.HX.Cr);
+ elseif (economiser.HX.QCp_max_side == "cold") then
+ economiser.HX.QCpMIN = economiser.HX.Q_hot*economiser.HX.Cp_hot;
+ economiser.HX.QCpMAX = economiser.HX.Q_cold*economiser.HX.Cp_cold;
+ assert(economiser.HX.QCpMIN < economiser.HX.QCpMAX, "QCPMIN is higher than QCpMAX");
+ economiser.HX.epsilon = (1-exp( -economiser.HX.Cr*(1-exp( -
+ economiser.HX.NTU))))/economiser.HX.Cr;
+ else
+ if (economiser.HX.Q_hot*economiser.HX.Cp_hot < economiser.HX.Q_cold*
+ economiser.HX.Cp_cold) then
+ economiser.HX.QCpMIN = economiser.HX.Q_hot*economiser.HX.Cp_hot;
+ economiser.HX.QCpMAX = economiser.HX.Q_cold*economiser.HX.Cp_cold;
+ economiser.HX.epsilon = (1-exp( -economiser.HX.Cr*(1-exp( -
+ economiser.HX.NTU))))/economiser.HX.Cr;
+ else
+ economiser.HX.QCpMAX = economiser.HX.Q_hot*economiser.HX.Cp_hot;
+ economiser.HX.QCpMIN = economiser.HX.Q_cold*economiser.HX.Cp_cold;
+ economiser.HX.epsilon = 1-exp( -(1-exp( -economiser.HX.Cr*
+ economiser.HX.NTU))/economiser.HX.Cr);
+ end if;
+ end if;
+ end if;
+ elseif (economiser.HX.config == "monophasic_counter_current") then
+ if (economiser.HX.QCp_max_side == "hot") then
+ economiser.HX.QCpMAX = economiser.HX.Q_hot*economiser.HX.Cp_hot;
+ economiser.HX.QCpMIN = economiser.HX.Q_cold*economiser.HX.Cp_cold;
+ elseif (economiser.HX.QCp_max_side == "cold") then
+ economiser.HX.QCpMIN = economiser.HX.Q_hot*economiser.HX.Cp_hot;
+ economiser.HX.QCpMAX = economiser.HX.Q_cold*economiser.HX.Cp_cold;
+ else
+ economiser.HX.QCpMIN = min(economiser.HX.Q_hot*economiser.HX.Cp_hot,
+ economiser.HX.Q_cold*economiser.HX.Cp_cold);
+ economiser.HX.QCpMAX = max(economiser.HX.Q_hot*economiser.HX.Cp_hot,
+ economiser.HX.Q_cold*economiser.HX.Cp_cold);
+ end if;
+ assert(economiser.HX.QCpMIN < economiser.HX.QCpMAX, "QCPMIN is higher than QCpMAX");
+ economiser.HX.epsilon = (1-exp( -economiser.HX.NTU*(1-economiser.HX.Cr)))/
+ (1-economiser.HX.Cr*exp( -economiser.HX.NTU*(1-economiser.HX.Cr)));
+ elseif (economiser.HX.config == "evaporator") then
+ economiser.HX.QCpMAX = 10000000000.0;
+ economiser.HX.QCpMIN = economiser.HX.Q_hot*economiser.HX.Cp_hot;
+ economiser.HX.epsilon = 1-exp( -economiser.HX.NTU);
+ elseif (economiser.HX.config == "condenser") then
+ economiser.HX.QCpMAX = 10000000000.0;
+ economiser.HX.QCpMIN = economiser.HX.Q_cold*economiser.HX.Cp_cold;
+ economiser.HX.epsilon = 1-exp( -economiser.HX.NTU);
+ else
+ economiser.HX.QCpMAX = 0;
+ economiser.HX.QCpMIN = 0;
+ economiser.HX.epsilon = 0;
+ end if;
+ assert(economiser.HX.config == "evaporator" or economiser.HX.config ==
+ "condenser" or economiser.HX.config == "shell_and_tubes_two_passes" or
+ economiser.HX.config == "monophasic_cross_current" or economiser.HX.config
+ == "monophasic_counter_current", "config parameter of NTUHeatExchange should be one of 'shell_and_tubes_two_passes', 'condenser', 'evaporator', 'monophasic_cross_current', or 'monophasic_counter_current'");
+ assert(economiser.HX.mixed_fluid == "hot" or economiser.HX.mixed_fluid ==
+ "cold", "mixed_fluid parameter of NTUHeatExchange should be 'hot' or 'cold'");
+ assert(economiser.HX.W > 0, "Heat exchange is done in the wrong direction",
+ AssertionLevel.warning);
+
+ // Component economiser.hot_side
+ // class MetroscopeModelingLibrary.FlueGases.BaseClasses.IsoPFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ economiser.hot_side.h_in = inStream(economiser.hot_side.C_in.h_outflow);
+ economiser.hot_side.h_out = economiser.hot_side.C_out.h_outflow;
+ economiser.hot_side.Q = economiser.hot_side.C_in.Q;
+ economiser.hot_side.P_in = economiser.hot_side.C_in.P;
+ economiser.hot_side.P_out = economiser.hot_side.C_out.P;
+ economiser.hot_side.Xi = inStream(economiser.hot_side.C_in.Xi_outflow);
+ economiser.hot_side.C_in.h_outflow = 1000000.0;
+ economiser.hot_side.C_in.Xi_outflow = zeros(5);
+ economiser.hot_side.state_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (economiser.hot_side.P_in, economiser.hot_side.h_in, economiser.hot_side.Xi);
+ economiser.hot_side.state_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (economiser.hot_side.P_out, economiser.hot_side.h_out, economiser.hot_side.Xi);
+ economiser.hot_side.T_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ economiser.hot_side.state_in);
+ economiser.hot_side.T_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ economiser.hot_side.state_out);
+ economiser.hot_side.rho_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ economiser.hot_side.state_in);
+ economiser.hot_side.rho_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ economiser.hot_side.state_out);
+ economiser.hot_side.rho = (economiser.hot_side.rho_in+economiser.hot_side.rho_out)
+ /2;
+ economiser.hot_side.Qv_in = economiser.hot_side.Q/economiser.hot_side.rho_in;
+ economiser.hot_side.Qv_out = -economiser.hot_side.Q/economiser.hot_side.rho_out;
+ economiser.hot_side.Qv = (economiser.hot_side.Qv_in-economiser.hot_side.Qv_out)
+ /2;
+ economiser.hot_side.P_out-economiser.hot_side.P_in = economiser.hot_side.DP;
+ economiser.hot_side.Q*(economiser.hot_side.h_out-economiser.hot_side.h_in)
+ = economiser.hot_side.W;
+ economiser.hot_side.h_out-economiser.hot_side.h_in = economiser.hot_side.DH;
+ economiser.hot_side.T_out-economiser.hot_side.T_in = economiser.hot_side.DT;
+ economiser.hot_side.C_in.Q+economiser.hot_side.C_out.Q = 0;
+ economiser.hot_side.C_out.Xi_outflow = inStream(economiser.hot_side.C_in.Xi_outflow);
+ assert(economiser.hot_side.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPFlowModel
+ equation
+ economiser.hot_side.P = economiser.hot_side.P_in;
+ economiser.hot_side.DP = 0;
+ // end of extends
+ equation
+ economiser.hot_side.W = economiser.hot_side.W_input;
+
+ // Component economiser.cold_side
+ // class MetroscopeModelingLibrary.WaterSteam.BaseClasses.IsoPFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ economiser.cold_side.h_in = inStream(economiser.cold_side.C_in.h_outflow);
+ economiser.cold_side.h_out = economiser.cold_side.C_out.h_outflow;
+ economiser.cold_side.Q = economiser.cold_side.C_in.Q;
+ economiser.cold_side.P_in = economiser.cold_side.C_in.P;
+ economiser.cold_side.P_out = economiser.cold_side.C_out.P;
+ economiser.cold_side.Xi = inStream(economiser.cold_side.C_in.Xi_outflow);
+ economiser.cold_side.C_in.h_outflow = 1000000.0;
+ economiser.cold_side.C_in.Xi_outflow = zeros(0);
+ economiser.cold_side.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (economiser.cold_side.P_in, economiser.cold_side.h_in, economiser.cold_side.Xi,
+ 0, 0);
+ economiser.cold_side.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (economiser.cold_side.P_out, economiser.cold_side.h_out,
+ economiser.cold_side.Xi, 0, 0);
+ economiser.cold_side.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ economiser.cold_side.state_in);
+ economiser.cold_side.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ economiser.cold_side.state_out);
+ economiser.cold_side.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ economiser.cold_side.state_in);
+ economiser.cold_side.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ economiser.cold_side.state_out);
+ economiser.cold_side.rho = (economiser.cold_side.rho_in+economiser.cold_side.rho_out)
+ /2;
+ economiser.cold_side.Qv_in = economiser.cold_side.Q/economiser.cold_side.rho_in;
+ economiser.cold_side.Qv_out = -economiser.cold_side.Q/economiser.cold_side.rho_out;
+ economiser.cold_side.Qv = (economiser.cold_side.Qv_in-economiser.cold_side.Qv_out)
+ /2;
+ economiser.cold_side.P_out-economiser.cold_side.P_in = economiser.cold_side.DP;
+ economiser.cold_side.Q*(economiser.cold_side.h_out-economiser.cold_side.h_in)
+ = economiser.cold_side.W;
+ economiser.cold_side.h_out-economiser.cold_side.h_in = economiser.cold_side.DH;
+ economiser.cold_side.T_out-economiser.cold_side.T_in = economiser.cold_side.DT;
+ economiser.cold_side.C_in.Q+economiser.cold_side.C_out.Q = 0;
+ economiser.cold_side.C_out.Xi_outflow = inStream(economiser.cold_side.C_in.Xi_outflow);
+ assert(economiser.cold_side.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPFlowModel
+ equation
+ economiser.cold_side.P = economiser.cold_side.P_in;
+ economiser.cold_side.DP = 0;
+ // end of extends
+ equation
+ economiser.cold_side.W = economiser.cold_side.W_input;
+
+ // Component economiser.cold_side_pipe
+ // class MetroscopeModelingLibrary.WaterSteam.Pipes.FrictionPipe
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ economiser.cold_side_pipe.h_in = inStream(economiser.cold_side_pipe.C_in.h_outflow);
+ economiser.cold_side_pipe.h_out = economiser.cold_side_pipe.C_out.h_outflow;
+ economiser.cold_side_pipe.Q = economiser.cold_side_pipe.C_in.Q;
+ economiser.cold_side_pipe.P_in = economiser.cold_side_pipe.C_in.P;
+ economiser.cold_side_pipe.P_out = economiser.cold_side_pipe.C_out.P;
+ economiser.cold_side_pipe.Xi = inStream(economiser.cold_side_pipe.C_in.Xi_outflow);
+ economiser.cold_side_pipe.C_in.h_outflow = 1000000.0;
+ economiser.cold_side_pipe.C_in.Xi_outflow = zeros(0);
+ economiser.cold_side_pipe.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (economiser.cold_side_pipe.P_in, economiser.cold_side_pipe.h_in,
+ economiser.cold_side_pipe.Xi, 0, 0);
+ economiser.cold_side_pipe.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (economiser.cold_side_pipe.P_out, economiser.cold_side_pipe.h_out,
+ economiser.cold_side_pipe.Xi, 0, 0);
+ economiser.cold_side_pipe.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ economiser.cold_side_pipe.state_in);
+ economiser.cold_side_pipe.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ economiser.cold_side_pipe.state_out);
+ economiser.cold_side_pipe.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ economiser.cold_side_pipe.state_in);
+ economiser.cold_side_pipe.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ economiser.cold_side_pipe.state_out);
+ economiser.cold_side_pipe.rho = (economiser.cold_side_pipe.rho_in+
+ economiser.cold_side_pipe.rho_out)/2;
+ economiser.cold_side_pipe.Qv_in = economiser.cold_side_pipe.Q/
+ economiser.cold_side_pipe.rho_in;
+ economiser.cold_side_pipe.Qv_out = -economiser.cold_side_pipe.Q/
+ economiser.cold_side_pipe.rho_out;
+ economiser.cold_side_pipe.Qv = (economiser.cold_side_pipe.Qv_in-
+ economiser.cold_side_pipe.Qv_out)/2;
+ economiser.cold_side_pipe.P_out-economiser.cold_side_pipe.P_in =
+ economiser.cold_side_pipe.DP;
+ economiser.cold_side_pipe.Q*(economiser.cold_side_pipe.h_out-
+ economiser.cold_side_pipe.h_in) = economiser.cold_side_pipe.W;
+ economiser.cold_side_pipe.h_out-economiser.cold_side_pipe.h_in =
+ economiser.cold_side_pipe.DH;
+ economiser.cold_side_pipe.T_out-economiser.cold_side_pipe.T_in =
+ economiser.cold_side_pipe.DT;
+ economiser.cold_side_pipe.C_in.Q+economiser.cold_side_pipe.C_out.Q = 0;
+ economiser.cold_side_pipe.C_out.Xi_outflow = inStream(economiser.cold_side_pipe.C_in.Xi_outflow);
+ assert(economiser.cold_side_pipe.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoHFlowModel
+ equation
+ economiser.cold_side_pipe.h = economiser.cold_side_pipe.h_in;
+ economiser.cold_side_pipe.DH = 0;
+ // extends MetroscopeModelingLibrary.Partial.Pipes.FrictionPipe
+ equation
+ if ( not economiser.cold_side_pipe.faulty) then
+ economiser.cold_side_pipe.fouling = 0;
+ end if;
+ economiser.cold_side_pipe.DP = -(1+economiser.cold_side_pipe.fouling/100)
+ *economiser.cold_side_pipe.Kfr*economiser.cold_side_pipe.Q*abs(
+ economiser.cold_side_pipe.Q)/economiser.cold_side_pipe.rho_in;
+ // end of extends
+
+ // Component economiser
+ // class MetroscopeModelingLibrary.MultiFluid.HeatExchangers.Economiser
+ // extends MetroscopeModelingLibrary.Partial.HeatExchangers.WaterFlueGasesMonophasicHX
+ equation
+ if ( not economiser.faulty) then
+ economiser.fouling = 0;
+ end if;
+ economiser.Q_cold = economiser.cold_side.Q;
+ economiser.Q_hot = economiser.hot_side.Q;
+ economiser.T_cold_in = economiser.cold_side_pipe.T_in;
+ economiser.T_cold_out = economiser.cold_side.T_out;
+ economiser.T_hot_in = economiser.hot_side.T_in;
+ economiser.T_hot_out = economiser.hot_side.T_out;
+ economiser.cold_side.W = economiser.W;
+ economiser.hot_side.W+economiser.cold_side.W = 0;
+ economiser.HX.W = economiser.W;
+ economiser.HX.Kth = economiser.Kth*(1-economiser.fouling/100);
+ economiser.HX.S = economiser.S;
+ economiser.HX.Q_cold = economiser.Q_cold;
+ economiser.HX.Q_hot = economiser.Q_hot;
+ economiser.HX.T_cold_in = economiser.T_cold_in;
+ economiser.HX.T_hot_in = economiser.T_hot_in;
+ economiser.HX.Cp_cold = (economiser.Cp_cold_min+economiser.Cp_cold_max)/2;
+ economiser.HX.Cp_hot = (economiser.Cp_hot_min+economiser.Cp_hot_max)/2;
+ economiser.DT_hot_in_side = economiser.T_hot_in-economiser.T_cold_out;
+ economiser.DT_hot_out_side = economiser.T_hot_out-economiser.T_cold_in;
+ economiser.pinch = min(economiser.DT_hot_in_side, economiser.DT_hot_out_side);
+ assert(economiser.pinch > 0, "A negative pinch is reached",
+ AssertionLevel.warning);
+ assert(economiser.pinch > 1 or economiser.pinch < 0, "A very low pinch (<1) is reached",
+ AssertionLevel.warning);
+ economiser.maximum_achiveable_temperature_difference = economiser.hot_side.T_in
+ -economiser.cold_side.T_in;
+ if (economiser.nominal_DT_default) then
+ economiser.nominal_cold_side_temperature_rise = economiser.hot_side.T_in
+ -economiser.cold_side.T_in;
+ economiser.nominal_hot_side_temperature_drop = economiser.hot_side.T_in-
+ economiser.cold_side.T_in;
+ end if;
+ economiser.Cp_cold_min = Modelica.Media.Water.WaterIF97_ph.specificHeatCapacityCp_Unique14
+ (
+ economiser.cold_side.state_in);
+ economiser.state_cold_out = Modelica.Media.Water.WaterIF97_ph.setState_pTX_Unique15
+ (economiser.cold_side.P_in, economiser.cold_side.T_in+economiser.nominal_cold_side_temperature_rise,
+ economiser.cold_side.Xi, 0, 0);
+ economiser.Cp_cold_max = Modelica.Media.Water.WaterIF97_ph.specificHeatCapacityCp_Unique14
+ (
+ economiser.state_cold_out);
+ economiser.Cp_hot_max = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.specificHeatCapacityCp_Unique18
+ (
+ economiser.hot_side.state_in);
+ economiser.state_hot_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_pTX_Unique19
+ (economiser.hot_side.P_in, economiser.hot_side.T_in-economiser.nominal_hot_side_temperature_drop,
+ economiser.hot_side.Xi);
+ economiser.Cp_hot_min = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.specificHeatCapacityCp_Unique18
+ (
+ economiser.state_hot_out);
+ // end of extends
+ equation
+ economiser.FTR = economiser.T_cold_out-economiser.T_cold_in;
+ economiser.cold_side_pipe.C_in.P = economiser.C_cold_in.P;
+ economiser.C_cold_in.Q-economiser.cold_side_pipe.C_in.Q = 0.0;
+ economiser.cold_side.C_out.P = economiser.C_cold_out.P;
+ economiser.C_cold_out.Q-economiser.cold_side.C_out.Q = 0.0;
+ economiser.hot_side.C_in.P = economiser.C_hot_in.P;
+ economiser.C_hot_in.Q-economiser.hot_side.C_in.Q = 0.0;
+ economiser.hot_side.C_out.P = economiser.C_hot_out.P;
+ economiser.C_hot_out.Q-economiser.hot_side.C_out.Q = 0.0;
+ economiser.cold_side_pipe.Kfr = economiser.Kfr_cold;
+ economiser.cold_side_pipe.C_out.P = economiser.cold_side.C_in.P;
+ economiser.cold_side.C_in.Q+economiser.cold_side_pipe.C_out.Q = 0.0;
+
+ // Component flue_gas_sink
+ // class MetroscopeModelingLibrary.FlueGases.BoundaryConditions.Sink
+ // extends MetroscopeModelingLibrary.Partial.BoundaryConditions.FluidSink
+ equation
+ flue_gas_sink.C_in.P = flue_gas_sink.P_in;
+ flue_gas_sink.C_in.Q = flue_gas_sink.Q_in;
+ inStream(flue_gas_sink.C_in.h_outflow) = flue_gas_sink.h_in;
+ inStream(flue_gas_sink.C_in.Xi_outflow) = flue_gas_sink.Xi_in;
+ flue_gas_sink.state_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (flue_gas_sink.P_in, flue_gas_sink.h_in, flue_gas_sink.Xi_in);
+ flue_gas_sink.T_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ flue_gas_sink.state_in);
+ flue_gas_sink.Qv_in = flue_gas_sink.Q_in/MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ flue_gas_sink.state_in);
+ flue_gas_sink.C_in.h_outflow = 0;
+ flue_gas_sink.C_in.Xi_outflow = zeros(5);
+ // end of extends
+
+ // Component T_w_eco_out_sensor.flow_model
+ // class MetroscopeModelingLibrary.WaterSteam.BaseClasses.IsoPHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ T_w_eco_out_sensor.flow_model.h_in = inStream(T_w_eco_out_sensor.flow_model.C_in.h_outflow);
+ T_w_eco_out_sensor.flow_model.h_out = T_w_eco_out_sensor.flow_model.C_out.h_outflow;
+ T_w_eco_out_sensor.flow_model.Q = T_w_eco_out_sensor.flow_model.C_in.Q;
+ T_w_eco_out_sensor.flow_model.P_in = T_w_eco_out_sensor.flow_model.C_in.P;
+ T_w_eco_out_sensor.flow_model.P_out = T_w_eco_out_sensor.flow_model.C_out.P;
+ T_w_eco_out_sensor.flow_model.Xi = inStream(T_w_eco_out_sensor.flow_model.C_in.Xi_outflow);
+ T_w_eco_out_sensor.flow_model.C_in.h_outflow = 1000000.0;
+ T_w_eco_out_sensor.flow_model.C_in.Xi_outflow = zeros(0);
+ T_w_eco_out_sensor.flow_model.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (T_w_eco_out_sensor.flow_model.P_in, T_w_eco_out_sensor.flow_model.h_in,
+ T_w_eco_out_sensor.flow_model.Xi, 0, 0);
+ T_w_eco_out_sensor.flow_model.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (T_w_eco_out_sensor.flow_model.P_out, T_w_eco_out_sensor.flow_model.h_out,
+ T_w_eco_out_sensor.flow_model.Xi, 0, 0);
+ T_w_eco_out_sensor.flow_model.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ T_w_eco_out_sensor.flow_model.state_in);
+ T_w_eco_out_sensor.flow_model.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ T_w_eco_out_sensor.flow_model.state_out);
+ T_w_eco_out_sensor.flow_model.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ T_w_eco_out_sensor.flow_model.state_in);
+ T_w_eco_out_sensor.flow_model.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ T_w_eco_out_sensor.flow_model.state_out);
+ T_w_eco_out_sensor.flow_model.rho = (T_w_eco_out_sensor.flow_model.rho_in+
+ T_w_eco_out_sensor.flow_model.rho_out)/2;
+ T_w_eco_out_sensor.flow_model.Qv_in = T_w_eco_out_sensor.flow_model.Q/
+ T_w_eco_out_sensor.flow_model.rho_in;
+ T_w_eco_out_sensor.flow_model.Qv_out = -T_w_eco_out_sensor.flow_model.Q/
+ T_w_eco_out_sensor.flow_model.rho_out;
+ T_w_eco_out_sensor.flow_model.Qv = (T_w_eco_out_sensor.flow_model.Qv_in-
+ T_w_eco_out_sensor.flow_model.Qv_out)/2;
+ T_w_eco_out_sensor.flow_model.P_out-T_w_eco_out_sensor.flow_model.P_in =
+ T_w_eco_out_sensor.flow_model.DP;
+ T_w_eco_out_sensor.flow_model.Q*(T_w_eco_out_sensor.flow_model.h_out-
+ T_w_eco_out_sensor.flow_model.h_in) = T_w_eco_out_sensor.flow_model.W;
+ T_w_eco_out_sensor.flow_model.h_out-T_w_eco_out_sensor.flow_model.h_in =
+ T_w_eco_out_sensor.flow_model.DH;
+ T_w_eco_out_sensor.flow_model.T_out-T_w_eco_out_sensor.flow_model.T_in =
+ T_w_eco_out_sensor.flow_model.DT;
+ T_w_eco_out_sensor.flow_model.C_in.Q+T_w_eco_out_sensor.flow_model.C_out.Q
+ = 0;
+ T_w_eco_out_sensor.flow_model.C_out.Xi_outflow = inStream(T_w_eco_out_sensor.flow_model.C_in.Xi_outflow);
+ assert(T_w_eco_out_sensor.flow_model.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPHFlowModel
+ equation
+ T_w_eco_out_sensor.flow_model.P = T_w_eco_out_sensor.flow_model.P_in;
+ T_w_eco_out_sensor.flow_model.h = T_w_eco_out_sensor.flow_model.h_in;
+ T_w_eco_out_sensor.flow_model.T = T_w_eco_out_sensor.flow_model.T_in;
+ T_w_eco_out_sensor.flow_model.DP = 0;
+ T_w_eco_out_sensor.flow_model.DH = 0;
+ // end of extends
+
+ // Component T_w_eco_out_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.WaterSteam.TemperatureSensor
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.BaseSensor
+ equation
+ if ( not T_w_eco_out_sensor.faulty_flow_rate) then
+ T_w_eco_out_sensor.mass_flow_rate_bias = 0;
+ end if;
+ T_w_eco_out_sensor.P = T_w_eco_out_sensor.C_in.P;
+ T_w_eco_out_sensor.Q = T_w_eco_out_sensor.C_in.Q+T_w_eco_out_sensor.mass_flow_rate_bias;
+ T_w_eco_out_sensor.Xi = inStream(T_w_eco_out_sensor.C_in.Xi_outflow);
+ T_w_eco_out_sensor.h = inStream(T_w_eco_out_sensor.C_in.h_outflow);
+ T_w_eco_out_sensor.state = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (T_w_eco_out_sensor.P, T_w_eco_out_sensor.h, T_w_eco_out_sensor.Xi, 0, 0);
+ assert(T_w_eco_out_sensor.Q > 0, "Wrong flow sign in inline sensor. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.TemperatureSensor
+ equation
+ T_w_eco_out_sensor.T = T_w_eco_out_sensor.flow_model.T;
+ T_w_eco_out_sensor.T_degC+273.15 = T_w_eco_out_sensor.T;
+ T_w_eco_out_sensor.T_degF = T_w_eco_out_sensor.T_degC*1.8+32;
+ if (T_w_eco_out_sensor.signal_unit == "degC") then
+ T_w_eco_out_sensor.T_sensor = T_w_eco_out_sensor.T_degC;
+ elseif (T_w_eco_out_sensor.signal_unit == "degF") then
+ T_w_eco_out_sensor.T_sensor = T_w_eco_out_sensor.T_degF;
+ elseif (T_w_eco_out_sensor.signal_unit == "K") then
+ T_w_eco_out_sensor.T_sensor = T_w_eco_out_sensor.T;
+ else
+ assert(false, "Unavailable unit selected for %name");
+ end if;
+ // end of extends
+ equation
+ T_w_eco_out_sensor.flow_model.C_in.P = T_w_eco_out_sensor.C_in.P;
+ T_w_eco_out_sensor.C_in.Q-T_w_eco_out_sensor.flow_model.C_in.Q = 0.0;
+ T_w_eco_out_sensor.flow_model.C_out.P = T_w_eco_out_sensor.C_out.P;
+ T_w_eco_out_sensor.C_out.Q-T_w_eco_out_sensor.flow_model.C_out.Q = 0.0;
+
+ // Component P_w_eco_out_sensor.flow_model
+ // class MetroscopeModelingLibrary.WaterSteam.BaseClasses.IsoPHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ P_w_eco_out_sensor.flow_model.h_in = inStream(P_w_eco_out_sensor.flow_model.C_in.h_outflow);
+ P_w_eco_out_sensor.flow_model.h_out = P_w_eco_out_sensor.flow_model.C_out.h_outflow;
+ P_w_eco_out_sensor.flow_model.Q = P_w_eco_out_sensor.flow_model.C_in.Q;
+ P_w_eco_out_sensor.flow_model.P_in = P_w_eco_out_sensor.flow_model.C_in.P;
+ P_w_eco_out_sensor.flow_model.P_out = P_w_eco_out_sensor.flow_model.C_out.P;
+ P_w_eco_out_sensor.flow_model.Xi = inStream(P_w_eco_out_sensor.flow_model.C_in.Xi_outflow);
+ P_w_eco_out_sensor.flow_model.C_in.h_outflow = 1000000.0;
+ P_w_eco_out_sensor.flow_model.C_in.Xi_outflow = zeros(0);
+ P_w_eco_out_sensor.flow_model.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (P_w_eco_out_sensor.flow_model.P_in, P_w_eco_out_sensor.flow_model.h_in,
+ P_w_eco_out_sensor.flow_model.Xi, 0, 0);
+ P_w_eco_out_sensor.flow_model.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (P_w_eco_out_sensor.flow_model.P_out, P_w_eco_out_sensor.flow_model.h_out,
+ P_w_eco_out_sensor.flow_model.Xi, 0, 0);
+ P_w_eco_out_sensor.flow_model.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ P_w_eco_out_sensor.flow_model.state_in);
+ P_w_eco_out_sensor.flow_model.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ P_w_eco_out_sensor.flow_model.state_out);
+ P_w_eco_out_sensor.flow_model.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ P_w_eco_out_sensor.flow_model.state_in);
+ P_w_eco_out_sensor.flow_model.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ P_w_eco_out_sensor.flow_model.state_out);
+ P_w_eco_out_sensor.flow_model.rho = (P_w_eco_out_sensor.flow_model.rho_in+
+ P_w_eco_out_sensor.flow_model.rho_out)/2;
+ P_w_eco_out_sensor.flow_model.Qv_in = P_w_eco_out_sensor.flow_model.Q/
+ P_w_eco_out_sensor.flow_model.rho_in;
+ P_w_eco_out_sensor.flow_model.Qv_out = -P_w_eco_out_sensor.flow_model.Q/
+ P_w_eco_out_sensor.flow_model.rho_out;
+ P_w_eco_out_sensor.flow_model.Qv = (P_w_eco_out_sensor.flow_model.Qv_in-
+ P_w_eco_out_sensor.flow_model.Qv_out)/2;
+ P_w_eco_out_sensor.flow_model.P_out-P_w_eco_out_sensor.flow_model.P_in =
+ P_w_eco_out_sensor.flow_model.DP;
+ P_w_eco_out_sensor.flow_model.Q*(P_w_eco_out_sensor.flow_model.h_out-
+ P_w_eco_out_sensor.flow_model.h_in) = P_w_eco_out_sensor.flow_model.W;
+ P_w_eco_out_sensor.flow_model.h_out-P_w_eco_out_sensor.flow_model.h_in =
+ P_w_eco_out_sensor.flow_model.DH;
+ P_w_eco_out_sensor.flow_model.T_out-P_w_eco_out_sensor.flow_model.T_in =
+ P_w_eco_out_sensor.flow_model.DT;
+ P_w_eco_out_sensor.flow_model.C_in.Q+P_w_eco_out_sensor.flow_model.C_out.Q
+ = 0;
+ P_w_eco_out_sensor.flow_model.C_out.Xi_outflow = inStream(P_w_eco_out_sensor.flow_model.C_in.Xi_outflow);
+ assert(P_w_eco_out_sensor.flow_model.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPHFlowModel
+ equation
+ P_w_eco_out_sensor.flow_model.P = P_w_eco_out_sensor.flow_model.P_in;
+ P_w_eco_out_sensor.flow_model.h = P_w_eco_out_sensor.flow_model.h_in;
+ P_w_eco_out_sensor.flow_model.T = P_w_eco_out_sensor.flow_model.T_in;
+ P_w_eco_out_sensor.flow_model.DP = 0;
+ P_w_eco_out_sensor.flow_model.DH = 0;
+ // end of extends
+
+ // Component P_w_eco_out_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.WaterSteam.PressureSensor
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.BaseSensor
+ equation
+ if ( not P_w_eco_out_sensor.faulty_flow_rate) then
+ P_w_eco_out_sensor.mass_flow_rate_bias = 0;
+ end if;
+ P_w_eco_out_sensor.P = P_w_eco_out_sensor.C_in.P;
+ P_w_eco_out_sensor.Q = P_w_eco_out_sensor.C_in.Q+P_w_eco_out_sensor.mass_flow_rate_bias;
+ P_w_eco_out_sensor.Xi = inStream(P_w_eco_out_sensor.C_in.Xi_outflow);
+ P_w_eco_out_sensor.h = inStream(P_w_eco_out_sensor.C_in.h_outflow);
+ P_w_eco_out_sensor.state = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (P_w_eco_out_sensor.P, P_w_eco_out_sensor.h, P_w_eco_out_sensor.Xi, 0, 0);
+ assert(P_w_eco_out_sensor.Q > 0, "Wrong flow sign in inline sensor. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.PressureSensor
+ equation
+ P_w_eco_out_sensor.P_barA = P_w_eco_out_sensor.P*1E-05;
+ P_w_eco_out_sensor.P_psiA = P_w_eco_out_sensor.P*0.000145038;
+ P_w_eco_out_sensor.P_MPaA = P_w_eco_out_sensor.P*1E-06;
+ P_w_eco_out_sensor.P_kPaA = P_w_eco_out_sensor.P*0.001;
+ P_w_eco_out_sensor.P_barG = P_w_eco_out_sensor.P_barA-1;
+ P_w_eco_out_sensor.P_psiG = P_w_eco_out_sensor.P_psiA-14.50377377;
+ P_w_eco_out_sensor.P_MPaG = P_w_eco_out_sensor.P_MPaA-0.1;
+ P_w_eco_out_sensor.P_kPaG = P_w_eco_out_sensor.P_kPaA-100;
+ P_w_eco_out_sensor.P_mbar = P_w_eco_out_sensor.P*0.01;
+ P_w_eco_out_sensor.P_inHg = P_w_eco_out_sensor.P*0.0002953006;
+ if (P_w_eco_out_sensor.signal_unit == "barA") then
+ P_w_eco_out_sensor.P_sensor = P_w_eco_out_sensor.P_barA;
+ elseif (P_w_eco_out_sensor.signal_unit == "barG") then
+ P_w_eco_out_sensor.P_sensor = P_w_eco_out_sensor.P_barG;
+ elseif (P_w_eco_out_sensor.signal_unit == "mbar") then
+ P_w_eco_out_sensor.P_sensor = P_w_eco_out_sensor.P_mbar;
+ elseif (P_w_eco_out_sensor.signal_unit == "MPaA") then
+ P_w_eco_out_sensor.P_sensor = P_w_eco_out_sensor.P_MPaA;
+ elseif (P_w_eco_out_sensor.signal_unit == "kPaA") then
+ P_w_eco_out_sensor.P_sensor = P_w_eco_out_sensor.P_kPaA;
+ else
+ P_w_eco_out_sensor.P_sensor = P_w_eco_out_sensor.P;
+ end if;
+ // end of extends
+ equation
+ P_w_eco_out_sensor.flow_model.C_in.P = P_w_eco_out_sensor.C_in.P;
+ P_w_eco_out_sensor.C_in.Q-P_w_eco_out_sensor.flow_model.C_in.Q = 0.0;
+ P_w_eco_out_sensor.flow_model.C_out.P = P_w_eco_out_sensor.C_out.P;
+ P_w_eco_out_sensor.C_out.Q-P_w_eco_out_sensor.flow_model.C_out.Q = 0.0;
+
+ // Component evaporator.HX_vaporising
+ // class MetroscopeModelingLibrary.Power.HeatExchange.NTUHeatExchange
+ equation
+ evaporator.HX_vaporising.W_max = evaporator.HX_vaporising.QCpMIN*(
+ evaporator.HX_vaporising.T_hot_in-evaporator.HX_vaporising.T_cold_in);
+ evaporator.HX_vaporising.W = evaporator.HX_vaporising.epsilon*
+ evaporator.HX_vaporising.W_max;
+ evaporator.HX_vaporising.NTU = evaporator.HX_vaporising.Kth*evaporator.HX_vaporising.S
+ /evaporator.HX_vaporising.QCpMIN;
+ evaporator.HX_vaporising.Cr = evaporator.HX_vaporising.QCpMIN/
+ evaporator.HX_vaporising.QCpMAX;
+ if (evaporator.HX_vaporising.config == "shell_and_tubes_two_passes") then
+ if (evaporator.HX_vaporising.QCp_max_side == "hot") then
+ evaporator.HX_vaporising.QCpMAX = evaporator.HX_vaporising.Q_hot*
+ evaporator.HX_vaporising.Cp_hot;
+ evaporator.HX_vaporising.QCpMIN = evaporator.HX_vaporising.Q_cold*
+ evaporator.HX_vaporising.Cp_cold;
+ elseif (evaporator.HX_vaporising.QCp_max_side == "cold") then
+ evaporator.HX_vaporising.QCpMIN = evaporator.HX_vaporising.Q_hot*
+ evaporator.HX_vaporising.Cp_hot;
+ evaporator.HX_vaporising.QCpMAX = evaporator.HX_vaporising.Q_cold*
+ evaporator.HX_vaporising.Cp_cold;
+ else
+ evaporator.HX_vaporising.QCpMIN = min(evaporator.HX_vaporising.Q_hot*
+ evaporator.HX_vaporising.Cp_hot, evaporator.HX_vaporising.Q_cold*
+ evaporator.HX_vaporising.Cp_cold);
+ evaporator.HX_vaporising.QCpMAX = max(evaporator.HX_vaporising.Q_hot*
+ evaporator.HX_vaporising.Cp_hot, evaporator.HX_vaporising.Q_cold*
+ evaporator.HX_vaporising.Cp_cold);
+ end if;
+ assert(evaporator.HX_vaporising.QCpMIN < evaporator.HX_vaporising.QCpMAX,
+ "QCPMIN is higher than QCpMAX");
+ evaporator.HX_vaporising.epsilon = 2/(1+evaporator.HX_vaporising.Cr+sqrt(1
+ +evaporator.HX_vaporising.Cr^2)*(1+exp( -evaporator.HX_vaporising.NTU*(1
+ +evaporator.HX_vaporising.Cr^2)^0.5))/(1-exp( -evaporator.HX_vaporising.NTU
+ *(1+evaporator.HX_vaporising.Cr^2)^0.5)));
+ elseif (evaporator.HX_vaporising.config == "monophasic_cross_current") then
+ if (evaporator.HX_vaporising.mixed_fluid == "hot") then
+ if (evaporator.HX_vaporising.QCp_max_side == "hot") then
+ evaporator.HX_vaporising.QCpMAX = evaporator.HX_vaporising.Q_hot*
+ evaporator.HX_vaporising.Cp_hot;
+ evaporator.HX_vaporising.QCpMIN = evaporator.HX_vaporising.Q_cold*
+ evaporator.HX_vaporising.Cp_cold;
+ assert(evaporator.HX_vaporising.QCpMIN < evaporator.HX_vaporising.QCpMAX,
+ "QCPMIN is higher than QCpMAX");
+ evaporator.HX_vaporising.epsilon = (1-exp( -evaporator.HX_vaporising.Cr
+ *(1-exp( -evaporator.HX_vaporising.NTU))))/evaporator.HX_vaporising.Cr;
+ elseif (evaporator.HX_vaporising.QCp_max_side == "cold") then
+ evaporator.HX_vaporising.QCpMIN = evaporator.HX_vaporising.Q_hot*
+ evaporator.HX_vaporising.Cp_hot;
+ evaporator.HX_vaporising.QCpMAX = evaporator.HX_vaporising.Q_cold*
+ evaporator.HX_vaporising.Cp_cold;
+ assert(evaporator.HX_vaporising.QCpMIN < evaporator.HX_vaporising.QCpMAX,
+ "QCPMIN is higher than QCpMAX");
+ evaporator.HX_vaporising.epsilon = 1-exp( -(1-exp( -evaporator.HX_vaporising.Cr
+ *evaporator.HX_vaporising.NTU))/evaporator.HX_vaporising.Cr);
+ else
+ if (evaporator.HX_vaporising.Q_hot*evaporator.HX_vaporising.Cp_hot <
+ evaporator.HX_vaporising.Q_cold*evaporator.HX_vaporising.Cp_cold)
+ then
+ evaporator.HX_vaporising.QCpMIN = evaporator.HX_vaporising.Q_hot*
+ evaporator.HX_vaporising.Cp_hot;
+ evaporator.HX_vaporising.QCpMAX = evaporator.HX_vaporising.Q_cold*
+ evaporator.HX_vaporising.Cp_cold;
+ evaporator.HX_vaporising.epsilon = 1-exp( -(1-exp( -evaporator.HX_vaporising.Cr
+ *evaporator.HX_vaporising.NTU))/evaporator.HX_vaporising.Cr);
+ else
+ evaporator.HX_vaporising.QCpMAX = evaporator.HX_vaporising.Q_hot*
+ evaporator.HX_vaporising.Cp_hot;
+ evaporator.HX_vaporising.QCpMIN = evaporator.HX_vaporising.Q_cold*
+ evaporator.HX_vaporising.Cp_cold;
+ evaporator.HX_vaporising.epsilon = (1-exp( -evaporator.HX_vaporising.Cr
+ *(1-exp( -evaporator.HX_vaporising.NTU))))/evaporator.HX_vaporising.Cr;
+ end if;
+ end if;
+ else
+ if (evaporator.HX_vaporising.QCp_max_side == "hot") then
+ evaporator.HX_vaporising.QCpMAX = evaporator.HX_vaporising.Q_hot*
+ evaporator.HX_vaporising.Cp_hot;
+ evaporator.HX_vaporising.QCpMIN = evaporator.HX_vaporising.Q_cold*
+ evaporator.HX_vaporising.Cp_cold;
+ assert(evaporator.HX_vaporising.QCpMIN < evaporator.HX_vaporising.QCpMAX,
+ "QCPMIN is higher than QCpMAX");
+ evaporator.HX_vaporising.epsilon = 1-exp( -(1-exp( -evaporator.HX_vaporising.Cr
+ *evaporator.HX_vaporising.NTU))/evaporator.HX_vaporising.Cr);
+ elseif (evaporator.HX_vaporising.QCp_max_side == "cold") then
+ evaporator.HX_vaporising.QCpMIN = evaporator.HX_vaporising.Q_hot*
+ evaporator.HX_vaporising.Cp_hot;
+ evaporator.HX_vaporising.QCpMAX = evaporator.HX_vaporising.Q_cold*
+ evaporator.HX_vaporising.Cp_cold;
+ assert(evaporator.HX_vaporising.QCpMIN < evaporator.HX_vaporising.QCpMAX,
+ "QCPMIN is higher than QCpMAX");
+ evaporator.HX_vaporising.epsilon = (1-exp( -evaporator.HX_vaporising.Cr
+ *(1-exp( -evaporator.HX_vaporising.NTU))))/evaporator.HX_vaporising.Cr;
+ else
+ if (evaporator.HX_vaporising.Q_hot*evaporator.HX_vaporising.Cp_hot <
+ evaporator.HX_vaporising.Q_cold*evaporator.HX_vaporising.Cp_cold)
+ then
+ evaporator.HX_vaporising.QCpMIN = evaporator.HX_vaporising.Q_hot*
+ evaporator.HX_vaporising.Cp_hot;
+ evaporator.HX_vaporising.QCpMAX = evaporator.HX_vaporising.Q_cold*
+ evaporator.HX_vaporising.Cp_cold;
+ evaporator.HX_vaporising.epsilon = (1-exp( -evaporator.HX_vaporising.Cr
+ *(1-exp( -evaporator.HX_vaporising.NTU))))/evaporator.HX_vaporising.Cr;
+ else
+ evaporator.HX_vaporising.QCpMAX = evaporator.HX_vaporising.Q_hot*
+ evaporator.HX_vaporising.Cp_hot;
+ evaporator.HX_vaporising.QCpMIN = evaporator.HX_vaporising.Q_cold*
+ evaporator.HX_vaporising.Cp_cold;
+ evaporator.HX_vaporising.epsilon = 1-exp( -(1-exp( -evaporator.HX_vaporising.Cr
+ *evaporator.HX_vaporising.NTU))/evaporator.HX_vaporising.Cr);
+ end if;
+ end if;
+ end if;
+ elseif (evaporator.HX_vaporising.config == "monophasic_counter_current")
+ then
+ if (evaporator.HX_vaporising.QCp_max_side == "hot") then
+ evaporator.HX_vaporising.QCpMAX = evaporator.HX_vaporising.Q_hot*
+ evaporator.HX_vaporising.Cp_hot;
+ evaporator.HX_vaporising.QCpMIN = evaporator.HX_vaporising.Q_cold*
+ evaporator.HX_vaporising.Cp_cold;
+ elseif (evaporator.HX_vaporising.QCp_max_side == "cold") then
+ evaporator.HX_vaporising.QCpMIN = evaporator.HX_vaporising.Q_hot*
+ evaporator.HX_vaporising.Cp_hot;
+ evaporator.HX_vaporising.QCpMAX = evaporator.HX_vaporising.Q_cold*
+ evaporator.HX_vaporising.Cp_cold;
+ else
+ evaporator.HX_vaporising.QCpMIN = min(evaporator.HX_vaporising.Q_hot*
+ evaporator.HX_vaporising.Cp_hot, evaporator.HX_vaporising.Q_cold*
+ evaporator.HX_vaporising.Cp_cold);
+ evaporator.HX_vaporising.QCpMAX = max(evaporator.HX_vaporising.Q_hot*
+ evaporator.HX_vaporising.Cp_hot, evaporator.HX_vaporising.Q_cold*
+ evaporator.HX_vaporising.Cp_cold);
+ end if;
+ assert(evaporator.HX_vaporising.QCpMIN < evaporator.HX_vaporising.QCpMAX,
+ "QCPMIN is higher than QCpMAX");
+ evaporator.HX_vaporising.epsilon = (1-exp( -evaporator.HX_vaporising.NTU*(1
+ -evaporator.HX_vaporising.Cr)))/(1-evaporator.HX_vaporising.Cr*exp( -
+ evaporator.HX_vaporising.NTU*(1-evaporator.HX_vaporising.Cr)));
+ elseif (evaporator.HX_vaporising.config == "evaporator") then
+ evaporator.HX_vaporising.QCpMAX = 10000000000.0;
+ evaporator.HX_vaporising.QCpMIN = evaporator.HX_vaporising.Q_hot*
+ evaporator.HX_vaporising.Cp_hot;
+ evaporator.HX_vaporising.epsilon = 1-exp( -evaporator.HX_vaporising.NTU);
+ elseif (evaporator.HX_vaporising.config == "condenser") then
+ evaporator.HX_vaporising.QCpMAX = 10000000000.0;
+ evaporator.HX_vaporising.QCpMIN = evaporator.HX_vaporising.Q_cold*
+ evaporator.HX_vaporising.Cp_cold;
+ evaporator.HX_vaporising.epsilon = 1-exp( -evaporator.HX_vaporising.NTU);
+ else
+ evaporator.HX_vaporising.QCpMAX = 0;
+ evaporator.HX_vaporising.QCpMIN = 0;
+ evaporator.HX_vaporising.epsilon = 0;
+ end if;
+ assert(evaporator.HX_vaporising.config == "evaporator" or evaporator.HX_vaporising.config
+ == "condenser" or evaporator.HX_vaporising.config == "shell_and_tubes_two_passes"
+ or evaporator.HX_vaporising.config == "monophasic_cross_current" or
+ evaporator.HX_vaporising.config == "monophasic_counter_current",
+ "config parameter of NTUHeatExchange should be one of 'shell_and_tubes_two_passes', 'condenser', 'evaporator', 'monophasic_cross_current', or 'monophasic_counter_current'");
+ assert(evaporator.HX_vaporising.mixed_fluid == "hot" or evaporator.HX_vaporising.mixed_fluid
+ == "cold", "mixed_fluid parameter of NTUHeatExchange should be 'hot' or 'cold'");
+ assert(evaporator.HX_vaporising.W > 0, "Heat exchange is done in the wrong direction",
+ AssertionLevel.warning);
+
+ // Component evaporator.hot_side_vaporising
+ // class MetroscopeModelingLibrary.FlueGases.BaseClasses.IsoPFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ evaporator.hot_side_vaporising.h_in = inStream(evaporator.hot_side_vaporising.C_in.h_outflow);
+ evaporator.hot_side_vaporising.h_out = evaporator.hot_side_vaporising.C_out.h_outflow;
+ evaporator.hot_side_vaporising.Q = evaporator.hot_side_vaporising.C_in.Q;
+ evaporator.hot_side_vaporising.P_in = evaporator.hot_side_vaporising.C_in.P;
+ evaporator.hot_side_vaporising.P_out = evaporator.hot_side_vaporising.C_out.P;
+ evaporator.hot_side_vaporising.Xi = inStream(evaporator.hot_side_vaporising.C_in.Xi_outflow);
+ evaporator.hot_side_vaporising.C_in.h_outflow = 1000000.0;
+ evaporator.hot_side_vaporising.C_in.Xi_outflow = zeros(5);
+ evaporator.hot_side_vaporising.state_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (evaporator.hot_side_vaporising.P_in, evaporator.hot_side_vaporising.h_in,
+ evaporator.hot_side_vaporising.Xi);
+ evaporator.hot_side_vaporising.state_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (evaporator.hot_side_vaporising.P_out, evaporator.hot_side_vaporising.h_out,
+ evaporator.hot_side_vaporising.Xi);
+ evaporator.hot_side_vaporising.T_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ evaporator.hot_side_vaporising.state_in);
+ evaporator.hot_side_vaporising.T_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ evaporator.hot_side_vaporising.state_out);
+ evaporator.hot_side_vaporising.rho_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ evaporator.hot_side_vaporising.state_in);
+ evaporator.hot_side_vaporising.rho_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ evaporator.hot_side_vaporising.state_out);
+ evaporator.hot_side_vaporising.rho = (evaporator.hot_side_vaporising.rho_in
+ +evaporator.hot_side_vaporising.rho_out)/2;
+ evaporator.hot_side_vaporising.Qv_in = evaporator.hot_side_vaporising.Q/
+ evaporator.hot_side_vaporising.rho_in;
+ evaporator.hot_side_vaporising.Qv_out = -evaporator.hot_side_vaporising.Q
+ /evaporator.hot_side_vaporising.rho_out;
+ evaporator.hot_side_vaporising.Qv = (evaporator.hot_side_vaporising.Qv_in-
+ evaporator.hot_side_vaporising.Qv_out)/2;
+ evaporator.hot_side_vaporising.P_out-evaporator.hot_side_vaporising.P_in
+ = evaporator.hot_side_vaporising.DP;
+ evaporator.hot_side_vaporising.Q*(evaporator.hot_side_vaporising.h_out-
+ evaporator.hot_side_vaporising.h_in) = evaporator.hot_side_vaporising.W;
+ evaporator.hot_side_vaporising.h_out-evaporator.hot_side_vaporising.h_in
+ = evaporator.hot_side_vaporising.DH;
+ evaporator.hot_side_vaporising.T_out-evaporator.hot_side_vaporising.T_in
+ = evaporator.hot_side_vaporising.DT;
+ evaporator.hot_side_vaporising.C_in.Q+evaporator.hot_side_vaporising.C_out.Q
+ = 0;
+ evaporator.hot_side_vaporising.C_out.Xi_outflow = inStream(
+ evaporator.hot_side_vaporising.C_in.Xi_outflow);
+ assert(evaporator.hot_side_vaporising.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPFlowModel
+ equation
+ evaporator.hot_side_vaporising.P = evaporator.hot_side_vaporising.P_in;
+ evaporator.hot_side_vaporising.DP = 0;
+ // end of extends
+ equation
+ evaporator.hot_side_vaporising.W = evaporator.hot_side_vaporising.W_input;
+
+ // Component evaporator.cold_side_vaporising
+ // class MetroscopeModelingLibrary.WaterSteam.BaseClasses.IsoPFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ evaporator.cold_side_vaporising.h_in = inStream(evaporator.cold_side_vaporising.C_in.h_outflow);
+ evaporator.cold_side_vaporising.h_out = evaporator.cold_side_vaporising.C_out.h_outflow;
+ evaporator.cold_side_vaporising.Q = evaporator.cold_side_vaporising.C_in.Q;
+ evaporator.cold_side_vaporising.P_in = evaporator.cold_side_vaporising.C_in.P;
+ evaporator.cold_side_vaporising.P_out = evaporator.cold_side_vaporising.C_out.P;
+ evaporator.cold_side_vaporising.Xi = inStream(evaporator.cold_side_vaporising.C_in.Xi_outflow);
+ evaporator.cold_side_vaporising.C_in.h_outflow = 1000000.0;
+ evaporator.cold_side_vaporising.C_in.Xi_outflow = zeros(0);
+ evaporator.cold_side_vaporising.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (evaporator.cold_side_vaporising.P_in, evaporator.cold_side_vaporising.h_in,
+ evaporator.cold_side_vaporising.Xi, 0, 0);
+ evaporator.cold_side_vaporising.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (evaporator.cold_side_vaporising.P_out, evaporator.cold_side_vaporising.h_out,
+ evaporator.cold_side_vaporising.Xi, 0, 0);
+ evaporator.cold_side_vaporising.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ evaporator.cold_side_vaporising.state_in);
+ evaporator.cold_side_vaporising.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ evaporator.cold_side_vaporising.state_out);
+ evaporator.cold_side_vaporising.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ evaporator.cold_side_vaporising.state_in);
+ evaporator.cold_side_vaporising.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ evaporator.cold_side_vaporising.state_out);
+ evaporator.cold_side_vaporising.rho = (evaporator.cold_side_vaporising.rho_in
+ +evaporator.cold_side_vaporising.rho_out)/2;
+ evaporator.cold_side_vaporising.Qv_in = evaporator.cold_side_vaporising.Q/
+ evaporator.cold_side_vaporising.rho_in;
+ evaporator.cold_side_vaporising.Qv_out = -evaporator.cold_side_vaporising.Q
+ /evaporator.cold_side_vaporising.rho_out;
+ evaporator.cold_side_vaporising.Qv = (evaporator.cold_side_vaporising.Qv_in
+ -evaporator.cold_side_vaporising.Qv_out)/2;
+ evaporator.cold_side_vaporising.P_out-evaporator.cold_side_vaporising.P_in
+ = evaporator.cold_side_vaporising.DP;
+ evaporator.cold_side_vaporising.Q*(evaporator.cold_side_vaporising.h_out-
+ evaporator.cold_side_vaporising.h_in) = evaporator.cold_side_vaporising.W;
+ evaporator.cold_side_vaporising.h_out-evaporator.cold_side_vaporising.h_in
+ = evaporator.cold_side_vaporising.DH;
+ evaporator.cold_side_vaporising.T_out-evaporator.cold_side_vaporising.T_in
+ = evaporator.cold_side_vaporising.DT;
+ evaporator.cold_side_vaporising.C_in.Q+evaporator.cold_side_vaporising.C_out.Q
+ = 0;
+ evaporator.cold_side_vaporising.C_out.Xi_outflow = inStream(
+ evaporator.cold_side_vaporising.C_in.Xi_outflow);
+ assert(evaporator.cold_side_vaporising.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPFlowModel
+ equation
+ evaporator.cold_side_vaporising.P = evaporator.cold_side_vaporising.P_in;
+ evaporator.cold_side_vaporising.DP = 0;
+ // end of extends
+ equation
+ evaporator.cold_side_vaporising.W = evaporator.cold_side_vaporising.W_input;
+
+ // Component evaporator.hot_side_heating
+ // class MetroscopeModelingLibrary.FlueGases.BaseClasses.IsoPFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ evaporator.hot_side_heating.h_in = inStream(evaporator.hot_side_heating.C_in.h_outflow);
+ evaporator.hot_side_heating.h_out = evaporator.hot_side_heating.C_out.h_outflow;
+ evaporator.hot_side_heating.Q = evaporator.hot_side_heating.C_in.Q;
+ evaporator.hot_side_heating.P_in = evaporator.hot_side_heating.C_in.P;
+ evaporator.hot_side_heating.P_out = evaporator.hot_side_heating.C_out.P;
+ evaporator.hot_side_heating.Xi = inStream(evaporator.hot_side_heating.C_in.Xi_outflow);
+ evaporator.hot_side_heating.C_in.h_outflow = 1000000.0;
+ evaporator.hot_side_heating.C_in.Xi_outflow = zeros(5);
+ evaporator.hot_side_heating.state_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (evaporator.hot_side_heating.P_in, evaporator.hot_side_heating.h_in,
+ evaporator.hot_side_heating.Xi);
+ evaporator.hot_side_heating.state_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (evaporator.hot_side_heating.P_out, evaporator.hot_side_heating.h_out,
+ evaporator.hot_side_heating.Xi);
+ evaporator.hot_side_heating.T_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ evaporator.hot_side_heating.state_in);
+ evaporator.hot_side_heating.T_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ evaporator.hot_side_heating.state_out);
+ evaporator.hot_side_heating.rho_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ evaporator.hot_side_heating.state_in);
+ evaporator.hot_side_heating.rho_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ evaporator.hot_side_heating.state_out);
+ evaporator.hot_side_heating.rho = (evaporator.hot_side_heating.rho_in+
+ evaporator.hot_side_heating.rho_out)/2;
+ evaporator.hot_side_heating.Qv_in = evaporator.hot_side_heating.Q/
+ evaporator.hot_side_heating.rho_in;
+ evaporator.hot_side_heating.Qv_out = -evaporator.hot_side_heating.Q/
+ evaporator.hot_side_heating.rho_out;
+ evaporator.hot_side_heating.Qv = (evaporator.hot_side_heating.Qv_in-
+ evaporator.hot_side_heating.Qv_out)/2;
+ evaporator.hot_side_heating.P_out-evaporator.hot_side_heating.P_in =
+ evaporator.hot_side_heating.DP;
+ evaporator.hot_side_heating.Q*(evaporator.hot_side_heating.h_out-
+ evaporator.hot_side_heating.h_in) = evaporator.hot_side_heating.W;
+ evaporator.hot_side_heating.h_out-evaporator.hot_side_heating.h_in =
+ evaporator.hot_side_heating.DH;
+ evaporator.hot_side_heating.T_out-evaporator.hot_side_heating.T_in =
+ evaporator.hot_side_heating.DT;
+ evaporator.hot_side_heating.C_in.Q+evaporator.hot_side_heating.C_out.Q = 0;
+ evaporator.hot_side_heating.C_out.Xi_outflow = inStream(evaporator.hot_side_heating.C_in.Xi_outflow);
+ assert(evaporator.hot_side_heating.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPFlowModel
+ equation
+ evaporator.hot_side_heating.P = evaporator.hot_side_heating.P_in;
+ evaporator.hot_side_heating.DP = 0;
+ // end of extends
+ equation
+ evaporator.hot_side_heating.W = evaporator.hot_side_heating.W_input;
+
+ // Component evaporator.cold_side_heating
+ // class MetroscopeModelingLibrary.WaterSteam.BaseClasses.IsoPFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ evaporator.cold_side_heating.h_in = inStream(evaporator.cold_side_heating.C_in.h_outflow);
+ evaporator.cold_side_heating.h_out = evaporator.cold_side_heating.C_out.h_outflow;
+ evaporator.cold_side_heating.Q = evaporator.cold_side_heating.C_in.Q;
+ evaporator.cold_side_heating.P_in = evaporator.cold_side_heating.C_in.P;
+ evaporator.cold_side_heating.P_out = evaporator.cold_side_heating.C_out.P;
+ evaporator.cold_side_heating.Xi = inStream(evaporator.cold_side_heating.C_in.Xi_outflow);
+ evaporator.cold_side_heating.C_in.h_outflow = 1000000.0;
+ evaporator.cold_side_heating.C_in.Xi_outflow = zeros(0);
+ evaporator.cold_side_heating.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (evaporator.cold_side_heating.P_in, evaporator.cold_side_heating.h_in,
+ evaporator.cold_side_heating.Xi, 0, 0);
+ evaporator.cold_side_heating.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (evaporator.cold_side_heating.P_out, evaporator.cold_side_heating.h_out,
+ evaporator.cold_side_heating.Xi, 0, 0);
+ evaporator.cold_side_heating.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ evaporator.cold_side_heating.state_in);
+ evaporator.cold_side_heating.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ evaporator.cold_side_heating.state_out);
+ evaporator.cold_side_heating.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ evaporator.cold_side_heating.state_in);
+ evaporator.cold_side_heating.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ evaporator.cold_side_heating.state_out);
+ evaporator.cold_side_heating.rho = (evaporator.cold_side_heating.rho_in+
+ evaporator.cold_side_heating.rho_out)/2;
+ evaporator.cold_side_heating.Qv_in = evaporator.cold_side_heating.Q/
+ evaporator.cold_side_heating.rho_in;
+ evaporator.cold_side_heating.Qv_out = -evaporator.cold_side_heating.Q/
+ evaporator.cold_side_heating.rho_out;
+ evaporator.cold_side_heating.Qv = (evaporator.cold_side_heating.Qv_in-
+ evaporator.cold_side_heating.Qv_out)/2;
+ evaporator.cold_side_heating.P_out-evaporator.cold_side_heating.P_in =
+ evaporator.cold_side_heating.DP;
+ evaporator.cold_side_heating.Q*(evaporator.cold_side_heating.h_out-
+ evaporator.cold_side_heating.h_in) = evaporator.cold_side_heating.W;
+ evaporator.cold_side_heating.h_out-evaporator.cold_side_heating.h_in =
+ evaporator.cold_side_heating.DH;
+ evaporator.cold_side_heating.T_out-evaporator.cold_side_heating.T_in =
+ evaporator.cold_side_heating.DT;
+ evaporator.cold_side_heating.C_in.Q+evaporator.cold_side_heating.C_out.Q
+ = 0;
+ evaporator.cold_side_heating.C_out.Xi_outflow = inStream(evaporator.cold_side_heating.C_in.Xi_outflow);
+ assert(evaporator.cold_side_heating.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPFlowModel
+ equation
+ evaporator.cold_side_heating.P = evaporator.cold_side_heating.P_in;
+ evaporator.cold_side_heating.DP = 0;
+ // end of extends
+ equation
+ evaporator.cold_side_heating.W = evaporator.cold_side_heating.W_input;
+
+ // Component evaporator
+ // class MetroscopeModelingLibrary.MultiFluid.HeatExchangers.Evaporator
+ equation
+ if ( not evaporator.faulty) then
+ evaporator.fouling = 0;
+ end if;
+ evaporator.Q_cold = evaporator.cold_side_heating.Q;
+ evaporator.Q_hot = evaporator.hot_side_vaporising.Q;
+ evaporator.T_cold_in = evaporator.cold_side_heating.T_in;
+ evaporator.T_cold_out = evaporator.cold_side_vaporising.T_out;
+ evaporator.T_hot_in = evaporator.hot_side_vaporising.T_in;
+ evaporator.T_hot_out = evaporator.hot_side_heating.T_out;
+ evaporator.Tsat = evaporator.cold_side_heating.T_out;
+ evaporator.h_vap_sat = Modelica.Media.Water.WaterIF97_ph.dewEnthalpy_Unique22
+ (
+ Modelica.Media.Water.WaterIF97_ph.setSat_p_Unique23(evaporator.cold_side_heating.P_in));
+ evaporator.h_liq_sat = Modelica.Media.Water.WaterIF97_ph.bubbleEnthalpy_Unique24
+ (
+ Modelica.Media.Water.WaterIF97_ph.setSat_p_Unique23(evaporator.cold_side_heating.P_in));
+ evaporator.T_approach = evaporator.cold_side_heating.DT;
+ evaporator.hot_side_heating.W+evaporator.cold_side_heating.W = 0;
+ evaporator.cold_side_heating.W = evaporator.W_heating;
+ if (evaporator.cold_side_heating.h_in < evaporator.h_liq_sat) then
+ evaporator.cold_side_heating.h_out = evaporator.h_liq_sat;
+ else
+ evaporator.cold_side_heating.h_out = evaporator.cold_side_heating.h_in;
+ end if;
+ evaporator.hot_side_vaporising.W+evaporator.cold_side_vaporising.W = 0;
+ evaporator.cold_side_vaporising.W = evaporator.W_vap;
+ evaporator.cold_side_vaporising.h_out = evaporator.x_steam_out*
+ evaporator.h_vap_sat+(1-evaporator.x_steam_out)*evaporator.h_liq_sat;
+ evaporator.HX_vaporising.W = evaporator.W_vap;
+ evaporator.HX_vaporising.Kth = evaporator.Kth*(1-evaporator.fouling/100);
+ evaporator.HX_vaporising.S = evaporator.S;
+ evaporator.HX_vaporising.Q_cold = evaporator.Q_cold;
+ evaporator.HX_vaporising.Q_hot = evaporator.Q_hot;
+ evaporator.HX_vaporising.T_cold_in = evaporator.Tsat;
+ evaporator.HX_vaporising.T_hot_in = evaporator.hot_side_vaporising.T_in;
+ evaporator.HX_vaporising.Cp_cold = 0;
+ evaporator.HX_vaporising.Cp_hot = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.specificHeatCapacityCp_Unique18
+ (
+ evaporator.hot_side_vaporising.state_in);
+ evaporator.DT_hot_in_side = evaporator.T_hot_in-evaporator.T_cold_out;
+ evaporator.DT_hot_out_side = evaporator.T_hot_out-evaporator.T_cold_in;
+ evaporator.pinch = min(evaporator.DT_hot_in_side, evaporator.DT_hot_out_side);
+ assert(evaporator.pinch > 0, "A negative pinch is reached", AssertionLevel.
+ warning);
+ assert(evaporator.pinch > 1 or evaporator.pinch < 0, "A very low pinch (<1) is reached",
+ AssertionLevel.warning);
+ evaporator.cold_side_heating.C_in.P = evaporator.C_cold_in.P;
+ evaporator.C_cold_in.Q-evaporator.cold_side_heating.C_in.Q = 0.0;
+ evaporator.cold_side_vaporising.C_out.P = evaporator.C_cold_out.P;
+ evaporator.C_cold_out.Q-evaporator.cold_side_vaporising.C_out.Q = 0.0;
+ evaporator.hot_side_vaporising.C_in.P = evaporator.C_hot_in.P;
+ evaporator.C_hot_in.Q-evaporator.hot_side_vaporising.C_in.Q = 0.0;
+ evaporator.hot_side_heating.C_out.P = evaporator.C_hot_out.P;
+ evaporator.C_hot_out.Q-evaporator.hot_side_heating.C_out.Q = 0.0;
+ evaporator.cold_side_vaporising.C_in.P = evaporator.cold_side_heating.C_out.P;
+ evaporator.cold_side_heating.C_out.Q+evaporator.cold_side_vaporising.C_in.Q
+ = 0.0;
+ evaporator.hot_side_vaporising.C_out.P = evaporator.hot_side_heating.C_in.P;
+ evaporator.hot_side_heating.C_in.Q+evaporator.hot_side_vaporising.C_out.Q =
+ 0.0;
+
+ // Component P_w_evap_out_sensor.flow_model
+ // class MetroscopeModelingLibrary.WaterSteam.BaseClasses.IsoPHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ P_w_evap_out_sensor.flow_model.h_in = inStream(P_w_evap_out_sensor.flow_model.C_in.h_outflow);
+ P_w_evap_out_sensor.flow_model.h_out = P_w_evap_out_sensor.flow_model.C_out.h_outflow;
+ P_w_evap_out_sensor.flow_model.Q = P_w_evap_out_sensor.flow_model.C_in.Q;
+ P_w_evap_out_sensor.flow_model.P_in = P_w_evap_out_sensor.flow_model.C_in.P;
+ P_w_evap_out_sensor.flow_model.P_out = P_w_evap_out_sensor.flow_model.C_out.P;
+ P_w_evap_out_sensor.flow_model.Xi = inStream(P_w_evap_out_sensor.flow_model.C_in.Xi_outflow);
+ P_w_evap_out_sensor.flow_model.C_in.h_outflow = 1000000.0;
+ P_w_evap_out_sensor.flow_model.C_in.Xi_outflow = zeros(0);
+ P_w_evap_out_sensor.flow_model.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (P_w_evap_out_sensor.flow_model.P_in, P_w_evap_out_sensor.flow_model.h_in,
+ P_w_evap_out_sensor.flow_model.Xi, 0, 0);
+ P_w_evap_out_sensor.flow_model.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (P_w_evap_out_sensor.flow_model.P_out, P_w_evap_out_sensor.flow_model.h_out,
+ P_w_evap_out_sensor.flow_model.Xi, 0, 0);
+ P_w_evap_out_sensor.flow_model.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ P_w_evap_out_sensor.flow_model.state_in);
+ P_w_evap_out_sensor.flow_model.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ P_w_evap_out_sensor.flow_model.state_out);
+ P_w_evap_out_sensor.flow_model.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ P_w_evap_out_sensor.flow_model.state_in);
+ P_w_evap_out_sensor.flow_model.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ P_w_evap_out_sensor.flow_model.state_out);
+ P_w_evap_out_sensor.flow_model.rho = (P_w_evap_out_sensor.flow_model.rho_in
+ +P_w_evap_out_sensor.flow_model.rho_out)/2;
+ P_w_evap_out_sensor.flow_model.Qv_in = P_w_evap_out_sensor.flow_model.Q/
+ P_w_evap_out_sensor.flow_model.rho_in;
+ P_w_evap_out_sensor.flow_model.Qv_out = -P_w_evap_out_sensor.flow_model.Q
+ /P_w_evap_out_sensor.flow_model.rho_out;
+ P_w_evap_out_sensor.flow_model.Qv = (P_w_evap_out_sensor.flow_model.Qv_in-
+ P_w_evap_out_sensor.flow_model.Qv_out)/2;
+ P_w_evap_out_sensor.flow_model.P_out-P_w_evap_out_sensor.flow_model.P_in
+ = P_w_evap_out_sensor.flow_model.DP;
+ P_w_evap_out_sensor.flow_model.Q*(P_w_evap_out_sensor.flow_model.h_out-
+ P_w_evap_out_sensor.flow_model.h_in) = P_w_evap_out_sensor.flow_model.W;
+ P_w_evap_out_sensor.flow_model.h_out-P_w_evap_out_sensor.flow_model.h_in
+ = P_w_evap_out_sensor.flow_model.DH;
+ P_w_evap_out_sensor.flow_model.T_out-P_w_evap_out_sensor.flow_model.T_in
+ = P_w_evap_out_sensor.flow_model.DT;
+ P_w_evap_out_sensor.flow_model.C_in.Q+P_w_evap_out_sensor.flow_model.C_out.Q
+ = 0;
+ P_w_evap_out_sensor.flow_model.C_out.Xi_outflow = inStream(
+ P_w_evap_out_sensor.flow_model.C_in.Xi_outflow);
+ assert(P_w_evap_out_sensor.flow_model.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPHFlowModel
+ equation
+ P_w_evap_out_sensor.flow_model.P = P_w_evap_out_sensor.flow_model.P_in;
+ P_w_evap_out_sensor.flow_model.h = P_w_evap_out_sensor.flow_model.h_in;
+ P_w_evap_out_sensor.flow_model.T = P_w_evap_out_sensor.flow_model.T_in;
+ P_w_evap_out_sensor.flow_model.DP = 0;
+ P_w_evap_out_sensor.flow_model.DH = 0;
+ // end of extends
+
+ // Component P_w_evap_out_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.WaterSteam.PressureSensor
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.BaseSensor
+ equation
+ if ( not P_w_evap_out_sensor.faulty_flow_rate) then
+ P_w_evap_out_sensor.mass_flow_rate_bias = 0;
+ end if;
+ P_w_evap_out_sensor.P = P_w_evap_out_sensor.C_in.P;
+ P_w_evap_out_sensor.Q = P_w_evap_out_sensor.C_in.Q+P_w_evap_out_sensor.mass_flow_rate_bias;
+ P_w_evap_out_sensor.Xi = inStream(P_w_evap_out_sensor.C_in.Xi_outflow);
+ P_w_evap_out_sensor.h = inStream(P_w_evap_out_sensor.C_in.h_outflow);
+ P_w_evap_out_sensor.state = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (P_w_evap_out_sensor.P, P_w_evap_out_sensor.h, P_w_evap_out_sensor.Xi, 0,
+ 0);
+ assert(P_w_evap_out_sensor.Q > 0, "Wrong flow sign in inline sensor. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.PressureSensor
+ equation
+ P_w_evap_out_sensor.P_barA = P_w_evap_out_sensor.P*1E-05;
+ P_w_evap_out_sensor.P_psiA = P_w_evap_out_sensor.P*0.000145038;
+ P_w_evap_out_sensor.P_MPaA = P_w_evap_out_sensor.P*1E-06;
+ P_w_evap_out_sensor.P_kPaA = P_w_evap_out_sensor.P*0.001;
+ P_w_evap_out_sensor.P_barG = P_w_evap_out_sensor.P_barA-1;
+ P_w_evap_out_sensor.P_psiG = P_w_evap_out_sensor.P_psiA-14.50377377;
+ P_w_evap_out_sensor.P_MPaG = P_w_evap_out_sensor.P_MPaA-0.1;
+ P_w_evap_out_sensor.P_kPaG = P_w_evap_out_sensor.P_kPaA-100;
+ P_w_evap_out_sensor.P_mbar = P_w_evap_out_sensor.P*0.01;
+ P_w_evap_out_sensor.P_inHg = P_w_evap_out_sensor.P*0.0002953006;
+ if (P_w_evap_out_sensor.signal_unit == "barA") then
+ P_w_evap_out_sensor.P_sensor = P_w_evap_out_sensor.P_barA;
+ elseif (P_w_evap_out_sensor.signal_unit == "barG") then
+ P_w_evap_out_sensor.P_sensor = P_w_evap_out_sensor.P_barG;
+ elseif (P_w_evap_out_sensor.signal_unit == "mbar") then
+ P_w_evap_out_sensor.P_sensor = P_w_evap_out_sensor.P_mbar;
+ elseif (P_w_evap_out_sensor.signal_unit == "MPaA") then
+ P_w_evap_out_sensor.P_sensor = P_w_evap_out_sensor.P_MPaA;
+ elseif (P_w_evap_out_sensor.signal_unit == "kPaA") then
+ P_w_evap_out_sensor.P_sensor = P_w_evap_out_sensor.P_kPaA;
+ else
+ P_w_evap_out_sensor.P_sensor = P_w_evap_out_sensor.P;
+ end if;
+ // end of extends
+ equation
+ P_w_evap_out_sensor.flow_model.C_in.P = P_w_evap_out_sensor.C_in.P;
+ P_w_evap_out_sensor.C_in.Q-P_w_evap_out_sensor.flow_model.C_in.Q = 0.0;
+ P_w_evap_out_sensor.flow_model.C_out.P = P_w_evap_out_sensor.C_out.P;
+ P_w_evap_out_sensor.C_out.Q-P_w_evap_out_sensor.flow_model.C_out.Q = 0.0;
+
+ // Component HPsuperheater1.HX
+ // class MetroscopeModelingLibrary.Power.HeatExchange.NTUHeatExchange
+ equation
+ HPsuperheater1.HX.W_max = HPsuperheater1.HX.QCpMIN*(HPsuperheater1.HX.T_hot_in
+ -HPsuperheater1.HX.T_cold_in);
+ HPsuperheater1.HX.W = HPsuperheater1.HX.epsilon*HPsuperheater1.HX.W_max;
+ HPsuperheater1.HX.NTU = HPsuperheater1.HX.Kth*HPsuperheater1.HX.S/
+ HPsuperheater1.HX.QCpMIN;
+ HPsuperheater1.HX.Cr = HPsuperheater1.HX.QCpMIN/HPsuperheater1.HX.QCpMAX;
+ if (HPsuperheater1.HX.config == "shell_and_tubes_two_passes") then
+ if (HPsuperheater1.HX.QCp_max_side == "hot") then
+ HPsuperheater1.HX.QCpMAX = HPsuperheater1.HX.Q_hot*HPsuperheater1.HX.Cp_hot;
+ HPsuperheater1.HX.QCpMIN = HPsuperheater1.HX.Q_cold*HPsuperheater1.HX.Cp_cold;
+ elseif (HPsuperheater1.HX.QCp_max_side == "cold") then
+ HPsuperheater1.HX.QCpMIN = HPsuperheater1.HX.Q_hot*HPsuperheater1.HX.Cp_hot;
+ HPsuperheater1.HX.QCpMAX = HPsuperheater1.HX.Q_cold*HPsuperheater1.HX.Cp_cold;
+ else
+ HPsuperheater1.HX.QCpMIN = min(HPsuperheater1.HX.Q_hot*HPsuperheater1.HX.Cp_hot,
+ HPsuperheater1.HX.Q_cold*HPsuperheater1.HX.Cp_cold);
+ HPsuperheater1.HX.QCpMAX = max(HPsuperheater1.HX.Q_hot*HPsuperheater1.HX.Cp_hot,
+ HPsuperheater1.HX.Q_cold*HPsuperheater1.HX.Cp_cold);
+ end if;
+ assert(HPsuperheater1.HX.QCpMIN < HPsuperheater1.HX.QCpMAX,
+ "QCPMIN is higher than QCpMAX");
+ HPsuperheater1.HX.epsilon = 2/(1+HPsuperheater1.HX.Cr+sqrt(1+
+ HPsuperheater1.HX.Cr^2)*(1+exp( -HPsuperheater1.HX.NTU*(1+
+ HPsuperheater1.HX.Cr^2)^0.5))/(1-exp( -HPsuperheater1.HX.NTU*(1+
+ HPsuperheater1.HX.Cr^2)^0.5)));
+ elseif (HPsuperheater1.HX.config == "monophasic_cross_current") then
+ if (HPsuperheater1.HX.mixed_fluid == "hot") then
+ if (HPsuperheater1.HX.QCp_max_side == "hot") then
+ HPsuperheater1.HX.QCpMAX = HPsuperheater1.HX.Q_hot*HPsuperheater1.HX.Cp_hot;
+ HPsuperheater1.HX.QCpMIN = HPsuperheater1.HX.Q_cold*HPsuperheater1.HX.Cp_cold;
+ assert(HPsuperheater1.HX.QCpMIN < HPsuperheater1.HX.QCpMAX,
+ "QCPMIN is higher than QCpMAX");
+ HPsuperheater1.HX.epsilon = (1-exp( -HPsuperheater1.HX.Cr*(1-exp( -
+ HPsuperheater1.HX.NTU))))/HPsuperheater1.HX.Cr;
+ elseif (HPsuperheater1.HX.QCp_max_side == "cold") then
+ HPsuperheater1.HX.QCpMIN = HPsuperheater1.HX.Q_hot*HPsuperheater1.HX.Cp_hot;
+ HPsuperheater1.HX.QCpMAX = HPsuperheater1.HX.Q_cold*HPsuperheater1.HX.Cp_cold;
+ assert(HPsuperheater1.HX.QCpMIN < HPsuperheater1.HX.QCpMAX,
+ "QCPMIN is higher than QCpMAX");
+ HPsuperheater1.HX.epsilon = 1-exp( -(1-exp( -HPsuperheater1.HX.Cr*
+ HPsuperheater1.HX.NTU))/HPsuperheater1.HX.Cr);
+ else
+ if (HPsuperheater1.HX.Q_hot*HPsuperheater1.HX.Cp_hot <
+ HPsuperheater1.HX.Q_cold*HPsuperheater1.HX.Cp_cold) then
+ HPsuperheater1.HX.QCpMIN = HPsuperheater1.HX.Q_hot*HPsuperheater1.HX.Cp_hot;
+ HPsuperheater1.HX.QCpMAX = HPsuperheater1.HX.Q_cold*HPsuperheater1.HX.Cp_cold;
+ HPsuperheater1.HX.epsilon = 1-exp( -(1-exp( -HPsuperheater1.HX.Cr*
+ HPsuperheater1.HX.NTU))/HPsuperheater1.HX.Cr);
+ else
+ HPsuperheater1.HX.QCpMAX = HPsuperheater1.HX.Q_hot*HPsuperheater1.HX.Cp_hot;
+ HPsuperheater1.HX.QCpMIN = HPsuperheater1.HX.Q_cold*HPsuperheater1.HX.Cp_cold;
+ HPsuperheater1.HX.epsilon = (1-exp( -HPsuperheater1.HX.Cr*(1-exp( -
+ HPsuperheater1.HX.NTU))))/HPsuperheater1.HX.Cr;
+ end if;
+ end if;
+ else
+ if (HPsuperheater1.HX.QCp_max_side == "hot") then
+ HPsuperheater1.HX.QCpMAX = HPsuperheater1.HX.Q_hot*HPsuperheater1.HX.Cp_hot;
+ HPsuperheater1.HX.QCpMIN = HPsuperheater1.HX.Q_cold*HPsuperheater1.HX.Cp_cold;
+ assert(HPsuperheater1.HX.QCpMIN < HPsuperheater1.HX.QCpMAX,
+ "QCPMIN is higher than QCpMAX");
+ HPsuperheater1.HX.epsilon = 1-exp( -(1-exp( -HPsuperheater1.HX.Cr*
+ HPsuperheater1.HX.NTU))/HPsuperheater1.HX.Cr);
+ elseif (HPsuperheater1.HX.QCp_max_side == "cold") then
+ HPsuperheater1.HX.QCpMIN = HPsuperheater1.HX.Q_hot*HPsuperheater1.HX.Cp_hot;
+ HPsuperheater1.HX.QCpMAX = HPsuperheater1.HX.Q_cold*HPsuperheater1.HX.Cp_cold;
+ assert(HPsuperheater1.HX.QCpMIN < HPsuperheater1.HX.QCpMAX,
+ "QCPMIN is higher than QCpMAX");
+ HPsuperheater1.HX.epsilon = (1-exp( -HPsuperheater1.HX.Cr*(1-exp( -
+ HPsuperheater1.HX.NTU))))/HPsuperheater1.HX.Cr;
+ else
+ if (HPsuperheater1.HX.Q_hot*HPsuperheater1.HX.Cp_hot <
+ HPsuperheater1.HX.Q_cold*HPsuperheater1.HX.Cp_cold) then
+ HPsuperheater1.HX.QCpMIN = HPsuperheater1.HX.Q_hot*HPsuperheater1.HX.Cp_hot;
+ HPsuperheater1.HX.QCpMAX = HPsuperheater1.HX.Q_cold*HPsuperheater1.HX.Cp_cold;
+ HPsuperheater1.HX.epsilon = (1-exp( -HPsuperheater1.HX.Cr*(1-exp( -
+ HPsuperheater1.HX.NTU))))/HPsuperheater1.HX.Cr;
+ else
+ HPsuperheater1.HX.QCpMAX = HPsuperheater1.HX.Q_hot*HPsuperheater1.HX.Cp_hot;
+ HPsuperheater1.HX.QCpMIN = HPsuperheater1.HX.Q_cold*HPsuperheater1.HX.Cp_cold;
+ HPsuperheater1.HX.epsilon = 1-exp( -(1-exp( -HPsuperheater1.HX.Cr*
+ HPsuperheater1.HX.NTU))/HPsuperheater1.HX.Cr);
+ end if;
+ end if;
+ end if;
+ elseif (HPsuperheater1.HX.config == "monophasic_counter_current") then
+ if (HPsuperheater1.HX.QCp_max_side == "hot") then
+ HPsuperheater1.HX.QCpMAX = HPsuperheater1.HX.Q_hot*HPsuperheater1.HX.Cp_hot;
+ HPsuperheater1.HX.QCpMIN = HPsuperheater1.HX.Q_cold*HPsuperheater1.HX.Cp_cold;
+ elseif (HPsuperheater1.HX.QCp_max_side == "cold") then
+ HPsuperheater1.HX.QCpMIN = HPsuperheater1.HX.Q_hot*HPsuperheater1.HX.Cp_hot;
+ HPsuperheater1.HX.QCpMAX = HPsuperheater1.HX.Q_cold*HPsuperheater1.HX.Cp_cold;
+ else
+ HPsuperheater1.HX.QCpMIN = min(HPsuperheater1.HX.Q_hot*HPsuperheater1.HX.Cp_hot,
+ HPsuperheater1.HX.Q_cold*HPsuperheater1.HX.Cp_cold);
+ HPsuperheater1.HX.QCpMAX = max(HPsuperheater1.HX.Q_hot*HPsuperheater1.HX.Cp_hot,
+ HPsuperheater1.HX.Q_cold*HPsuperheater1.HX.Cp_cold);
+ end if;
+ assert(HPsuperheater1.HX.QCpMIN < HPsuperheater1.HX.QCpMAX,
+ "QCPMIN is higher than QCpMAX");
+ HPsuperheater1.HX.epsilon = (1-exp( -HPsuperheater1.HX.NTU*(1-
+ HPsuperheater1.HX.Cr)))/(1-HPsuperheater1.HX.Cr*exp( -HPsuperheater1.HX.NTU
+ *(1-HPsuperheater1.HX.Cr)));
+ elseif (HPsuperheater1.HX.config == "evaporator") then
+ HPsuperheater1.HX.QCpMAX = 10000000000.0;
+ HPsuperheater1.HX.QCpMIN = HPsuperheater1.HX.Q_hot*HPsuperheater1.HX.Cp_hot;
+ HPsuperheater1.HX.epsilon = 1-exp( -HPsuperheater1.HX.NTU);
+ elseif (HPsuperheater1.HX.config == "condenser") then
+ HPsuperheater1.HX.QCpMAX = 10000000000.0;
+ HPsuperheater1.HX.QCpMIN = HPsuperheater1.HX.Q_cold*HPsuperheater1.HX.Cp_cold;
+ HPsuperheater1.HX.epsilon = 1-exp( -HPsuperheater1.HX.NTU);
+ else
+ HPsuperheater1.HX.QCpMAX = 0;
+ HPsuperheater1.HX.QCpMIN = 0;
+ HPsuperheater1.HX.epsilon = 0;
+ end if;
+ assert(HPsuperheater1.HX.config == "evaporator" or HPsuperheater1.HX.config
+ == "condenser" or HPsuperheater1.HX.config == "shell_and_tubes_two_passes"
+ or HPsuperheater1.HX.config == "monophasic_cross_current" or
+ HPsuperheater1.HX.config == "monophasic_counter_current", "config parameter of NTUHeatExchange should be one of 'shell_and_tubes_two_passes', 'condenser', 'evaporator', 'monophasic_cross_current', or 'monophasic_counter_current'");
+ assert(HPsuperheater1.HX.mixed_fluid == "hot" or HPsuperheater1.HX.mixed_fluid
+ == "cold", "mixed_fluid parameter of NTUHeatExchange should be 'hot' or 'cold'");
+ assert(HPsuperheater1.HX.W > 0, "Heat exchange is done in the wrong direction",
+ AssertionLevel.warning);
+
+ // Component HPsuperheater1.hot_side
+ // class MetroscopeModelingLibrary.FlueGases.BaseClasses.IsoPFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ HPsuperheater1.hot_side.h_in = inStream(HPsuperheater1.hot_side.C_in.h_outflow);
+ HPsuperheater1.hot_side.h_out = HPsuperheater1.hot_side.C_out.h_outflow;
+ HPsuperheater1.hot_side.Q = HPsuperheater1.hot_side.C_in.Q;
+ HPsuperheater1.hot_side.P_in = HPsuperheater1.hot_side.C_in.P;
+ HPsuperheater1.hot_side.P_out = HPsuperheater1.hot_side.C_out.P;
+ HPsuperheater1.hot_side.Xi = inStream(HPsuperheater1.hot_side.C_in.Xi_outflow);
+ HPsuperheater1.hot_side.C_in.h_outflow = 1000000.0;
+ HPsuperheater1.hot_side.C_in.Xi_outflow = zeros(5);
+ HPsuperheater1.hot_side.state_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (HPsuperheater1.hot_side.P_in, HPsuperheater1.hot_side.h_in,
+ HPsuperheater1.hot_side.Xi);
+ HPsuperheater1.hot_side.state_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (HPsuperheater1.hot_side.P_out, HPsuperheater1.hot_side.h_out,
+ HPsuperheater1.hot_side.Xi);
+ HPsuperheater1.hot_side.T_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ HPsuperheater1.hot_side.state_in);
+ HPsuperheater1.hot_side.T_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ HPsuperheater1.hot_side.state_out);
+ HPsuperheater1.hot_side.rho_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ HPsuperheater1.hot_side.state_in);
+ HPsuperheater1.hot_side.rho_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ HPsuperheater1.hot_side.state_out);
+ HPsuperheater1.hot_side.rho = (HPsuperheater1.hot_side.rho_in+
+ HPsuperheater1.hot_side.rho_out)/2;
+ HPsuperheater1.hot_side.Qv_in = HPsuperheater1.hot_side.Q/HPsuperheater1.hot_side.rho_in;
+ HPsuperheater1.hot_side.Qv_out = -HPsuperheater1.hot_side.Q/
+ HPsuperheater1.hot_side.rho_out;
+ HPsuperheater1.hot_side.Qv = (HPsuperheater1.hot_side.Qv_in-
+ HPsuperheater1.hot_side.Qv_out)/2;
+ HPsuperheater1.hot_side.P_out-HPsuperheater1.hot_side.P_in =
+ HPsuperheater1.hot_side.DP;
+ HPsuperheater1.hot_side.Q*(HPsuperheater1.hot_side.h_out-HPsuperheater1.hot_side.h_in)
+ = HPsuperheater1.hot_side.W;
+ HPsuperheater1.hot_side.h_out-HPsuperheater1.hot_side.h_in =
+ HPsuperheater1.hot_side.DH;
+ HPsuperheater1.hot_side.T_out-HPsuperheater1.hot_side.T_in =
+ HPsuperheater1.hot_side.DT;
+ HPsuperheater1.hot_side.C_in.Q+HPsuperheater1.hot_side.C_out.Q = 0;
+ HPsuperheater1.hot_side.C_out.Xi_outflow = inStream(HPsuperheater1.hot_side.C_in.Xi_outflow);
+ assert(HPsuperheater1.hot_side.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPFlowModel
+ equation
+ HPsuperheater1.hot_side.P = HPsuperheater1.hot_side.P_in;
+ HPsuperheater1.hot_side.DP = 0;
+ // end of extends
+ equation
+ HPsuperheater1.hot_side.W = HPsuperheater1.hot_side.W_input;
+
+ // Component HPsuperheater1.cold_side
+ // class MetroscopeModelingLibrary.WaterSteam.BaseClasses.IsoPFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ HPsuperheater1.cold_side.h_in = inStream(HPsuperheater1.cold_side.C_in.h_outflow);
+ HPsuperheater1.cold_side.h_out = HPsuperheater1.cold_side.C_out.h_outflow;
+ HPsuperheater1.cold_side.Q = HPsuperheater1.cold_side.C_in.Q;
+ HPsuperheater1.cold_side.P_in = HPsuperheater1.cold_side.C_in.P;
+ HPsuperheater1.cold_side.P_out = HPsuperheater1.cold_side.C_out.P;
+ HPsuperheater1.cold_side.Xi = inStream(HPsuperheater1.cold_side.C_in.Xi_outflow);
+ HPsuperheater1.cold_side.C_in.h_outflow = 1000000.0;
+ HPsuperheater1.cold_side.C_in.Xi_outflow = zeros(0);
+ HPsuperheater1.cold_side.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (HPsuperheater1.cold_side.P_in, HPsuperheater1.cold_side.h_in,
+ HPsuperheater1.cold_side.Xi, 0, 0);
+ HPsuperheater1.cold_side.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (HPsuperheater1.cold_side.P_out, HPsuperheater1.cold_side.h_out,
+ HPsuperheater1.cold_side.Xi, 0, 0);
+ HPsuperheater1.cold_side.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ HPsuperheater1.cold_side.state_in);
+ HPsuperheater1.cold_side.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ HPsuperheater1.cold_side.state_out);
+ HPsuperheater1.cold_side.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ HPsuperheater1.cold_side.state_in);
+ HPsuperheater1.cold_side.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ HPsuperheater1.cold_side.state_out);
+ HPsuperheater1.cold_side.rho = (HPsuperheater1.cold_side.rho_in+
+ HPsuperheater1.cold_side.rho_out)/2;
+ HPsuperheater1.cold_side.Qv_in = HPsuperheater1.cold_side.Q/
+ HPsuperheater1.cold_side.rho_in;
+ HPsuperheater1.cold_side.Qv_out = -HPsuperheater1.cold_side.Q/
+ HPsuperheater1.cold_side.rho_out;
+ HPsuperheater1.cold_side.Qv = (HPsuperheater1.cold_side.Qv_in-
+ HPsuperheater1.cold_side.Qv_out)/2;
+ HPsuperheater1.cold_side.P_out-HPsuperheater1.cold_side.P_in =
+ HPsuperheater1.cold_side.DP;
+ HPsuperheater1.cold_side.Q*(HPsuperheater1.cold_side.h_out-
+ HPsuperheater1.cold_side.h_in) = HPsuperheater1.cold_side.W;
+ HPsuperheater1.cold_side.h_out-HPsuperheater1.cold_side.h_in =
+ HPsuperheater1.cold_side.DH;
+ HPsuperheater1.cold_side.T_out-HPsuperheater1.cold_side.T_in =
+ HPsuperheater1.cold_side.DT;
+ HPsuperheater1.cold_side.C_in.Q+HPsuperheater1.cold_side.C_out.Q = 0;
+ HPsuperheater1.cold_side.C_out.Xi_outflow = inStream(HPsuperheater1.cold_side.C_in.Xi_outflow);
+ assert(HPsuperheater1.cold_side.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPFlowModel
+ equation
+ HPsuperheater1.cold_side.P = HPsuperheater1.cold_side.P_in;
+ HPsuperheater1.cold_side.DP = 0;
+ // end of extends
+ equation
+ HPsuperheater1.cold_side.W = HPsuperheater1.cold_side.W_input;
+
+ // Component HPsuperheater1.cold_side_pipe
+ // class MetroscopeModelingLibrary.WaterSteam.Pipes.FrictionPipe
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ HPsuperheater1.cold_side_pipe.h_in = inStream(HPsuperheater1.cold_side_pipe.C_in.h_outflow);
+ HPsuperheater1.cold_side_pipe.h_out = HPsuperheater1.cold_side_pipe.C_out.h_outflow;
+ HPsuperheater1.cold_side_pipe.Q = HPsuperheater1.cold_side_pipe.C_in.Q;
+ HPsuperheater1.cold_side_pipe.P_in = HPsuperheater1.cold_side_pipe.C_in.P;
+ HPsuperheater1.cold_side_pipe.P_out = HPsuperheater1.cold_side_pipe.C_out.P;
+ HPsuperheater1.cold_side_pipe.Xi = inStream(HPsuperheater1.cold_side_pipe.C_in.Xi_outflow);
+ HPsuperheater1.cold_side_pipe.C_in.h_outflow = 1000000.0;
+ HPsuperheater1.cold_side_pipe.C_in.Xi_outflow = zeros(0);
+ HPsuperheater1.cold_side_pipe.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (HPsuperheater1.cold_side_pipe.P_in, HPsuperheater1.cold_side_pipe.h_in,
+ HPsuperheater1.cold_side_pipe.Xi, 0, 0);
+ HPsuperheater1.cold_side_pipe.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (HPsuperheater1.cold_side_pipe.P_out, HPsuperheater1.cold_side_pipe.h_out,
+ HPsuperheater1.cold_side_pipe.Xi, 0, 0);
+ HPsuperheater1.cold_side_pipe.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ HPsuperheater1.cold_side_pipe.state_in);
+ HPsuperheater1.cold_side_pipe.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ HPsuperheater1.cold_side_pipe.state_out);
+ HPsuperheater1.cold_side_pipe.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ HPsuperheater1.cold_side_pipe.state_in);
+ HPsuperheater1.cold_side_pipe.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ HPsuperheater1.cold_side_pipe.state_out);
+ HPsuperheater1.cold_side_pipe.rho = (HPsuperheater1.cold_side_pipe.rho_in+
+ HPsuperheater1.cold_side_pipe.rho_out)/2;
+ HPsuperheater1.cold_side_pipe.Qv_in = HPsuperheater1.cold_side_pipe.Q/
+ HPsuperheater1.cold_side_pipe.rho_in;
+ HPsuperheater1.cold_side_pipe.Qv_out = -HPsuperheater1.cold_side_pipe.Q/
+ HPsuperheater1.cold_side_pipe.rho_out;
+ HPsuperheater1.cold_side_pipe.Qv = (HPsuperheater1.cold_side_pipe.Qv_in-
+ HPsuperheater1.cold_side_pipe.Qv_out)/2;
+ HPsuperheater1.cold_side_pipe.P_out-HPsuperheater1.cold_side_pipe.P_in =
+ HPsuperheater1.cold_side_pipe.DP;
+ HPsuperheater1.cold_side_pipe.Q*(HPsuperheater1.cold_side_pipe.h_out-
+ HPsuperheater1.cold_side_pipe.h_in) = HPsuperheater1.cold_side_pipe.W;
+ HPsuperheater1.cold_side_pipe.h_out-HPsuperheater1.cold_side_pipe.h_in =
+ HPsuperheater1.cold_side_pipe.DH;
+ HPsuperheater1.cold_side_pipe.T_out-HPsuperheater1.cold_side_pipe.T_in =
+ HPsuperheater1.cold_side_pipe.DT;
+ HPsuperheater1.cold_side_pipe.C_in.Q+HPsuperheater1.cold_side_pipe.C_out.Q
+ = 0;
+ HPsuperheater1.cold_side_pipe.C_out.Xi_outflow = inStream(HPsuperheater1.cold_side_pipe.C_in.Xi_outflow);
+ assert(HPsuperheater1.cold_side_pipe.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoHFlowModel
+ equation
+ HPsuperheater1.cold_side_pipe.h = HPsuperheater1.cold_side_pipe.h_in;
+ HPsuperheater1.cold_side_pipe.DH = 0;
+ // extends MetroscopeModelingLibrary.Partial.Pipes.FrictionPipe
+ equation
+ if ( not HPsuperheater1.cold_side_pipe.faulty) then
+ HPsuperheater1.cold_side_pipe.fouling = 0;
+ end if;
+ HPsuperheater1.cold_side_pipe.DP = -(1+HPsuperheater1.cold_side_pipe.fouling
+ /100)*HPsuperheater1.cold_side_pipe.Kfr*HPsuperheater1.cold_side_pipe.Q*
+ abs(HPsuperheater1.cold_side_pipe.Q)/HPsuperheater1.cold_side_pipe.rho_in;
+ // end of extends
+
+ // Component HPsuperheater1
+ // class MetroscopeModelingLibrary.MultiFluid.HeatExchangers.Superheater
+ // extends MetroscopeModelingLibrary.Partial.HeatExchangers.WaterFlueGasesMonophasicHX
+ equation
+ if ( not HPsuperheater1.faulty) then
+ HPsuperheater1.fouling = 0;
+ end if;
+ HPsuperheater1.Q_cold = HPsuperheater1.cold_side.Q;
+ HPsuperheater1.Q_hot = HPsuperheater1.hot_side.Q;
+ HPsuperheater1.T_cold_in = HPsuperheater1.cold_side_pipe.T_in;
+ HPsuperheater1.T_cold_out = HPsuperheater1.cold_side.T_out;
+ HPsuperheater1.T_hot_in = HPsuperheater1.hot_side.T_in;
+ HPsuperheater1.T_hot_out = HPsuperheater1.hot_side.T_out;
+ HPsuperheater1.cold_side.W = HPsuperheater1.W;
+ HPsuperheater1.hot_side.W+HPsuperheater1.cold_side.W = 0;
+ HPsuperheater1.HX.W = HPsuperheater1.W;
+ HPsuperheater1.HX.Kth = HPsuperheater1.Kth*(1-HPsuperheater1.fouling/100);
+ HPsuperheater1.HX.S = HPsuperheater1.S;
+ HPsuperheater1.HX.Q_cold = HPsuperheater1.Q_cold;
+ HPsuperheater1.HX.Q_hot = HPsuperheater1.Q_hot;
+ HPsuperheater1.HX.T_cold_in = HPsuperheater1.T_cold_in;
+ HPsuperheater1.HX.T_hot_in = HPsuperheater1.T_hot_in;
+ HPsuperheater1.HX.Cp_cold = (HPsuperheater1.Cp_cold_min+HPsuperheater1.Cp_cold_max)
+ /2;
+ HPsuperheater1.HX.Cp_hot = (HPsuperheater1.Cp_hot_min+HPsuperheater1.Cp_hot_max)
+ /2;
+ HPsuperheater1.DT_hot_in_side = HPsuperheater1.T_hot_in-HPsuperheater1.T_cold_out;
+ HPsuperheater1.DT_hot_out_side = HPsuperheater1.T_hot_out-HPsuperheater1.T_cold_in;
+ HPsuperheater1.pinch = min(HPsuperheater1.DT_hot_in_side, HPsuperheater1.DT_hot_out_side);
+ assert(HPsuperheater1.pinch > 0, "A negative pinch is reached",
+ AssertionLevel.warning);
+ assert(HPsuperheater1.pinch > 1 or HPsuperheater1.pinch < 0,
+ "A very low pinch (<1) is reached", AssertionLevel.warning);
+ HPsuperheater1.maximum_achiveable_temperature_difference =
+ HPsuperheater1.hot_side.T_in-HPsuperheater1.cold_side.T_in;
+ if (HPsuperheater1.nominal_DT_default) then
+ HPsuperheater1.nominal_cold_side_temperature_rise = HPsuperheater1.hot_side.T_in
+ -HPsuperheater1.cold_side.T_in;
+ HPsuperheater1.nominal_hot_side_temperature_drop = HPsuperheater1.hot_side.T_in
+ -HPsuperheater1.cold_side.T_in;
+ end if;
+ HPsuperheater1.Cp_cold_min = Modelica.Media.Water.WaterIF97_ph.specificHeatCapacityCp_Unique14
+ (
+ HPsuperheater1.cold_side.state_in);
+ HPsuperheater1.state_cold_out = Modelica.Media.Water.WaterIF97_ph.setState_pTX_Unique15
+ (HPsuperheater1.cold_side.P_in, HPsuperheater1.cold_side.T_in+
+ HPsuperheater1.nominal_cold_side_temperature_rise, HPsuperheater1.cold_side.Xi,
+ 0, 0);
+ HPsuperheater1.Cp_cold_max = Modelica.Media.Water.WaterIF97_ph.specificHeatCapacityCp_Unique14
+ (
+ HPsuperheater1.state_cold_out);
+ HPsuperheater1.Cp_hot_max = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.specificHeatCapacityCp_Unique18
+ (
+ HPsuperheater1.hot_side.state_in);
+ HPsuperheater1.state_hot_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_pTX_Unique19
+ (HPsuperheater1.hot_side.P_in, HPsuperheater1.hot_side.T_in-
+ HPsuperheater1.nominal_hot_side_temperature_drop, HPsuperheater1.hot_side.Xi);
+ HPsuperheater1.Cp_hot_min = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.specificHeatCapacityCp_Unique18
+ (
+ HPsuperheater1.state_hot_out);
+ // end of extends
+ equation
+ HPsuperheater1.STR = HPsuperheater1.T_cold_out-HPsuperheater1.T_cold_in;
+ HPsuperheater1.DT_superheat = HPsuperheater1.T_cold_out-Modelica.Media.Water.WaterIF97_ph.saturationTemperature_Unique21
+ (HPsuperheater1.cold_side_pipe.P_in);
+ HPsuperheater1.cold_side_pipe.C_in.P = HPsuperheater1.C_cold_in.P;
+ HPsuperheater1.C_cold_in.Q-HPsuperheater1.cold_side_pipe.C_in.Q = 0.0;
+ HPsuperheater1.cold_side.C_out.P = HPsuperheater1.C_cold_out.P;
+ HPsuperheater1.C_cold_out.Q-HPsuperheater1.cold_side.C_out.Q = 0.0;
+ HPsuperheater1.hot_side.C_in.P = HPsuperheater1.C_hot_in.P;
+ HPsuperheater1.C_hot_in.Q-HPsuperheater1.hot_side.C_in.Q = 0.0;
+ HPsuperheater1.hot_side.C_out.P = HPsuperheater1.C_hot_out.P;
+ HPsuperheater1.C_hot_out.Q-HPsuperheater1.hot_side.C_out.Q = 0.0;
+ HPsuperheater1.cold_side_pipe.Kfr = HPsuperheater1.Kfr_cold;
+ HPsuperheater1.cold_side_pipe.C_out.P = HPsuperheater1.cold_side.C_in.P;
+ HPsuperheater1.cold_side.C_in.Q+HPsuperheater1.cold_side_pipe.C_out.Q = 0.0;
+
+ // Component T_w_HPSH1_out_sensor.flow_model
+ // class MetroscopeModelingLibrary.WaterSteam.BaseClasses.IsoPHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ T_w_HPSH1_out_sensor.flow_model.h_in = inStream(T_w_HPSH1_out_sensor.flow_model.C_in.h_outflow);
+ T_w_HPSH1_out_sensor.flow_model.h_out = T_w_HPSH1_out_sensor.flow_model.C_out.h_outflow;
+ T_w_HPSH1_out_sensor.flow_model.Q = T_w_HPSH1_out_sensor.flow_model.C_in.Q;
+ T_w_HPSH1_out_sensor.flow_model.P_in = T_w_HPSH1_out_sensor.flow_model.C_in.P;
+ T_w_HPSH1_out_sensor.flow_model.P_out = T_w_HPSH1_out_sensor.flow_model.C_out.P;
+ T_w_HPSH1_out_sensor.flow_model.Xi = inStream(T_w_HPSH1_out_sensor.flow_model.C_in.Xi_outflow);
+ T_w_HPSH1_out_sensor.flow_model.C_in.h_outflow = 1000000.0;
+ T_w_HPSH1_out_sensor.flow_model.C_in.Xi_outflow = zeros(0);
+ T_w_HPSH1_out_sensor.flow_model.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (T_w_HPSH1_out_sensor.flow_model.P_in, T_w_HPSH1_out_sensor.flow_model.h_in,
+ T_w_HPSH1_out_sensor.flow_model.Xi, 0, 0);
+ T_w_HPSH1_out_sensor.flow_model.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (T_w_HPSH1_out_sensor.flow_model.P_out, T_w_HPSH1_out_sensor.flow_model.h_out,
+ T_w_HPSH1_out_sensor.flow_model.Xi, 0, 0);
+ T_w_HPSH1_out_sensor.flow_model.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ T_w_HPSH1_out_sensor.flow_model.state_in);
+ T_w_HPSH1_out_sensor.flow_model.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ T_w_HPSH1_out_sensor.flow_model.state_out);
+ T_w_HPSH1_out_sensor.flow_model.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ T_w_HPSH1_out_sensor.flow_model.state_in);
+ T_w_HPSH1_out_sensor.flow_model.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ T_w_HPSH1_out_sensor.flow_model.state_out);
+ T_w_HPSH1_out_sensor.flow_model.rho = (T_w_HPSH1_out_sensor.flow_model.rho_in
+ +T_w_HPSH1_out_sensor.flow_model.rho_out)/2;
+ T_w_HPSH1_out_sensor.flow_model.Qv_in = T_w_HPSH1_out_sensor.flow_model.Q/
+ T_w_HPSH1_out_sensor.flow_model.rho_in;
+ T_w_HPSH1_out_sensor.flow_model.Qv_out = -T_w_HPSH1_out_sensor.flow_model.Q
+ /T_w_HPSH1_out_sensor.flow_model.rho_out;
+ T_w_HPSH1_out_sensor.flow_model.Qv = (T_w_HPSH1_out_sensor.flow_model.Qv_in
+ -T_w_HPSH1_out_sensor.flow_model.Qv_out)/2;
+ T_w_HPSH1_out_sensor.flow_model.P_out-T_w_HPSH1_out_sensor.flow_model.P_in
+ = T_w_HPSH1_out_sensor.flow_model.DP;
+ T_w_HPSH1_out_sensor.flow_model.Q*(T_w_HPSH1_out_sensor.flow_model.h_out-
+ T_w_HPSH1_out_sensor.flow_model.h_in) = T_w_HPSH1_out_sensor.flow_model.W;
+ T_w_HPSH1_out_sensor.flow_model.h_out-T_w_HPSH1_out_sensor.flow_model.h_in
+ = T_w_HPSH1_out_sensor.flow_model.DH;
+ T_w_HPSH1_out_sensor.flow_model.T_out-T_w_HPSH1_out_sensor.flow_model.T_in
+ = T_w_HPSH1_out_sensor.flow_model.DT;
+ T_w_HPSH1_out_sensor.flow_model.C_in.Q+T_w_HPSH1_out_sensor.flow_model.C_out.Q
+ = 0;
+ T_w_HPSH1_out_sensor.flow_model.C_out.Xi_outflow = inStream(
+ T_w_HPSH1_out_sensor.flow_model.C_in.Xi_outflow);
+ assert(T_w_HPSH1_out_sensor.flow_model.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPHFlowModel
+ equation
+ T_w_HPSH1_out_sensor.flow_model.P = T_w_HPSH1_out_sensor.flow_model.P_in;
+ T_w_HPSH1_out_sensor.flow_model.h = T_w_HPSH1_out_sensor.flow_model.h_in;
+ T_w_HPSH1_out_sensor.flow_model.T = T_w_HPSH1_out_sensor.flow_model.T_in;
+ T_w_HPSH1_out_sensor.flow_model.DP = 0;
+ T_w_HPSH1_out_sensor.flow_model.DH = 0;
+ // end of extends
+
+ // Component T_w_HPSH1_out_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.WaterSteam.TemperatureSensor
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.BaseSensor
+ equation
+ if ( not T_w_HPSH1_out_sensor.faulty_flow_rate) then
+ T_w_HPSH1_out_sensor.mass_flow_rate_bias = 0;
+ end if;
+ T_w_HPSH1_out_sensor.P = T_w_HPSH1_out_sensor.C_in.P;
+ T_w_HPSH1_out_sensor.Q = T_w_HPSH1_out_sensor.C_in.Q+T_w_HPSH1_out_sensor.mass_flow_rate_bias;
+ T_w_HPSH1_out_sensor.Xi = inStream(T_w_HPSH1_out_sensor.C_in.Xi_outflow);
+ T_w_HPSH1_out_sensor.h = inStream(T_w_HPSH1_out_sensor.C_in.h_outflow);
+ T_w_HPSH1_out_sensor.state = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (T_w_HPSH1_out_sensor.P, T_w_HPSH1_out_sensor.h, T_w_HPSH1_out_sensor.Xi,
+ 0, 0);
+ assert(T_w_HPSH1_out_sensor.Q > 0, "Wrong flow sign in inline sensor. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.TemperatureSensor
+ equation
+ T_w_HPSH1_out_sensor.T = T_w_HPSH1_out_sensor.flow_model.T;
+ T_w_HPSH1_out_sensor.T_degC+273.15 = T_w_HPSH1_out_sensor.T;
+ T_w_HPSH1_out_sensor.T_degF = T_w_HPSH1_out_sensor.T_degC*1.8+32;
+ if (T_w_HPSH1_out_sensor.signal_unit == "degC") then
+ T_w_HPSH1_out_sensor.T_sensor = T_w_HPSH1_out_sensor.T_degC;
+ elseif (T_w_HPSH1_out_sensor.signal_unit == "degF") then
+ T_w_HPSH1_out_sensor.T_sensor = T_w_HPSH1_out_sensor.T_degF;
+ elseif (T_w_HPSH1_out_sensor.signal_unit == "K") then
+ T_w_HPSH1_out_sensor.T_sensor = T_w_HPSH1_out_sensor.T;
+ else
+ assert(false, "Unavailable unit selected for %name");
+ end if;
+ // end of extends
+ equation
+ T_w_HPSH1_out_sensor.flow_model.C_in.P = T_w_HPSH1_out_sensor.C_in.P;
+ T_w_HPSH1_out_sensor.C_in.Q-T_w_HPSH1_out_sensor.flow_model.C_in.Q = 0.0;
+ T_w_HPSH1_out_sensor.flow_model.C_out.P = T_w_HPSH1_out_sensor.C_out.P;
+ T_w_HPSH1_out_sensor.C_out.Q-T_w_HPSH1_out_sensor.flow_model.C_out.Q = 0.0;
+
+ // Component P_w_HPSH1_out_sensor.flow_model
+ // class MetroscopeModelingLibrary.WaterSteam.BaseClasses.IsoPHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ P_w_HPSH1_out_sensor.flow_model.h_in = inStream(P_w_HPSH1_out_sensor.flow_model.C_in.h_outflow);
+ P_w_HPSH1_out_sensor.flow_model.h_out = P_w_HPSH1_out_sensor.flow_model.C_out.h_outflow;
+ P_w_HPSH1_out_sensor.flow_model.Q = P_w_HPSH1_out_sensor.flow_model.C_in.Q;
+ P_w_HPSH1_out_sensor.flow_model.P_in = P_w_HPSH1_out_sensor.flow_model.C_in.P;
+ P_w_HPSH1_out_sensor.flow_model.P_out = P_w_HPSH1_out_sensor.flow_model.C_out.P;
+ P_w_HPSH1_out_sensor.flow_model.Xi = inStream(P_w_HPSH1_out_sensor.flow_model.C_in.Xi_outflow);
+ P_w_HPSH1_out_sensor.flow_model.C_in.h_outflow = 1000000.0;
+ P_w_HPSH1_out_sensor.flow_model.C_in.Xi_outflow = zeros(0);
+ P_w_HPSH1_out_sensor.flow_model.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (P_w_HPSH1_out_sensor.flow_model.P_in, P_w_HPSH1_out_sensor.flow_model.h_in,
+ P_w_HPSH1_out_sensor.flow_model.Xi, 0, 0);
+ P_w_HPSH1_out_sensor.flow_model.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (P_w_HPSH1_out_sensor.flow_model.P_out, P_w_HPSH1_out_sensor.flow_model.h_out,
+ P_w_HPSH1_out_sensor.flow_model.Xi, 0, 0);
+ P_w_HPSH1_out_sensor.flow_model.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ P_w_HPSH1_out_sensor.flow_model.state_in);
+ P_w_HPSH1_out_sensor.flow_model.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ P_w_HPSH1_out_sensor.flow_model.state_out);
+ P_w_HPSH1_out_sensor.flow_model.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ P_w_HPSH1_out_sensor.flow_model.state_in);
+ P_w_HPSH1_out_sensor.flow_model.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ P_w_HPSH1_out_sensor.flow_model.state_out);
+ P_w_HPSH1_out_sensor.flow_model.rho = (P_w_HPSH1_out_sensor.flow_model.rho_in
+ +P_w_HPSH1_out_sensor.flow_model.rho_out)/2;
+ P_w_HPSH1_out_sensor.flow_model.Qv_in = P_w_HPSH1_out_sensor.flow_model.Q/
+ P_w_HPSH1_out_sensor.flow_model.rho_in;
+ P_w_HPSH1_out_sensor.flow_model.Qv_out = -P_w_HPSH1_out_sensor.flow_model.Q
+ /P_w_HPSH1_out_sensor.flow_model.rho_out;
+ P_w_HPSH1_out_sensor.flow_model.Qv = (P_w_HPSH1_out_sensor.flow_model.Qv_in
+ -P_w_HPSH1_out_sensor.flow_model.Qv_out)/2;
+ P_w_HPSH1_out_sensor.flow_model.P_out-P_w_HPSH1_out_sensor.flow_model.P_in
+ = P_w_HPSH1_out_sensor.flow_model.DP;
+ P_w_HPSH1_out_sensor.flow_model.Q*(P_w_HPSH1_out_sensor.flow_model.h_out-
+ P_w_HPSH1_out_sensor.flow_model.h_in) = P_w_HPSH1_out_sensor.flow_model.W;
+ P_w_HPSH1_out_sensor.flow_model.h_out-P_w_HPSH1_out_sensor.flow_model.h_in
+ = P_w_HPSH1_out_sensor.flow_model.DH;
+ P_w_HPSH1_out_sensor.flow_model.T_out-P_w_HPSH1_out_sensor.flow_model.T_in
+ = P_w_HPSH1_out_sensor.flow_model.DT;
+ P_w_HPSH1_out_sensor.flow_model.C_in.Q+P_w_HPSH1_out_sensor.flow_model.C_out.Q
+ = 0;
+ P_w_HPSH1_out_sensor.flow_model.C_out.Xi_outflow = inStream(
+ P_w_HPSH1_out_sensor.flow_model.C_in.Xi_outflow);
+ assert(P_w_HPSH1_out_sensor.flow_model.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPHFlowModel
+ equation
+ P_w_HPSH1_out_sensor.flow_model.P = P_w_HPSH1_out_sensor.flow_model.P_in;
+ P_w_HPSH1_out_sensor.flow_model.h = P_w_HPSH1_out_sensor.flow_model.h_in;
+ P_w_HPSH1_out_sensor.flow_model.T = P_w_HPSH1_out_sensor.flow_model.T_in;
+ P_w_HPSH1_out_sensor.flow_model.DP = 0;
+ P_w_HPSH1_out_sensor.flow_model.DH = 0;
+ // end of extends
+
+ // Component P_w_HPSH1_out_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.WaterSteam.PressureSensor
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.BaseSensor
+ equation
+ if ( not P_w_HPSH1_out_sensor.faulty_flow_rate) then
+ P_w_HPSH1_out_sensor.mass_flow_rate_bias = 0;
+ end if;
+ P_w_HPSH1_out_sensor.P = P_w_HPSH1_out_sensor.C_in.P;
+ P_w_HPSH1_out_sensor.Q = P_w_HPSH1_out_sensor.C_in.Q+P_w_HPSH1_out_sensor.mass_flow_rate_bias;
+ P_w_HPSH1_out_sensor.Xi = inStream(P_w_HPSH1_out_sensor.C_in.Xi_outflow);
+ P_w_HPSH1_out_sensor.h = inStream(P_w_HPSH1_out_sensor.C_in.h_outflow);
+ P_w_HPSH1_out_sensor.state = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (P_w_HPSH1_out_sensor.P, P_w_HPSH1_out_sensor.h, P_w_HPSH1_out_sensor.Xi,
+ 0, 0);
+ assert(P_w_HPSH1_out_sensor.Q > 0, "Wrong flow sign in inline sensor. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.PressureSensor
+ equation
+ P_w_HPSH1_out_sensor.P_barA = P_w_HPSH1_out_sensor.P*1E-05;
+ P_w_HPSH1_out_sensor.P_psiA = P_w_HPSH1_out_sensor.P*0.000145038;
+ P_w_HPSH1_out_sensor.P_MPaA = P_w_HPSH1_out_sensor.P*1E-06;
+ P_w_HPSH1_out_sensor.P_kPaA = P_w_HPSH1_out_sensor.P*0.001;
+ P_w_HPSH1_out_sensor.P_barG = P_w_HPSH1_out_sensor.P_barA-1;
+ P_w_HPSH1_out_sensor.P_psiG = P_w_HPSH1_out_sensor.P_psiA-14.50377377;
+ P_w_HPSH1_out_sensor.P_MPaG = P_w_HPSH1_out_sensor.P_MPaA-0.1;
+ P_w_HPSH1_out_sensor.P_kPaG = P_w_HPSH1_out_sensor.P_kPaA-100;
+ P_w_HPSH1_out_sensor.P_mbar = P_w_HPSH1_out_sensor.P*0.01;
+ P_w_HPSH1_out_sensor.P_inHg = P_w_HPSH1_out_sensor.P*0.0002953006;
+ if (P_w_HPSH1_out_sensor.signal_unit == "barA") then
+ P_w_HPSH1_out_sensor.P_sensor = P_w_HPSH1_out_sensor.P_barA;
+ elseif (P_w_HPSH1_out_sensor.signal_unit == "barG") then
+ P_w_HPSH1_out_sensor.P_sensor = P_w_HPSH1_out_sensor.P_barG;
+ elseif (P_w_HPSH1_out_sensor.signal_unit == "mbar") then
+ P_w_HPSH1_out_sensor.P_sensor = P_w_HPSH1_out_sensor.P_mbar;
+ elseif (P_w_HPSH1_out_sensor.signal_unit == "MPaA") then
+ P_w_HPSH1_out_sensor.P_sensor = P_w_HPSH1_out_sensor.P_MPaA;
+ elseif (P_w_HPSH1_out_sensor.signal_unit == "kPaA") then
+ P_w_HPSH1_out_sensor.P_sensor = P_w_HPSH1_out_sensor.P_kPaA;
+ else
+ P_w_HPSH1_out_sensor.P_sensor = P_w_HPSH1_out_sensor.P;
+ end if;
+ // end of extends
+ equation
+ P_w_HPSH1_out_sensor.flow_model.C_in.P = P_w_HPSH1_out_sensor.C_in.P;
+ P_w_HPSH1_out_sensor.C_in.Q-P_w_HPSH1_out_sensor.flow_model.C_in.Q = 0.0;
+ P_w_HPSH1_out_sensor.flow_model.C_out.P = P_w_HPSH1_out_sensor.C_out.P;
+ P_w_HPSH1_out_sensor.C_out.Q-P_w_HPSH1_out_sensor.flow_model.C_out.Q = 0.0;
+
+ // Component HPST_control_valve
+ // class MetroscopeModelingLibrary.WaterSteam.Pipes.SlideValve
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ HPST_control_valve.h_in = inStream(HPST_control_valve.C_in.h_outflow);
+ HPST_control_valve.h_out = HPST_control_valve.C_out.h_outflow;
+ HPST_control_valve.Q = HPST_control_valve.C_in.Q;
+ HPST_control_valve.P_in = HPST_control_valve.C_in.P;
+ HPST_control_valve.P_out = HPST_control_valve.C_out.P;
+ HPST_control_valve.Xi = inStream(HPST_control_valve.C_in.Xi_outflow);
+ HPST_control_valve.C_in.h_outflow = 1000000.0;
+ HPST_control_valve.C_in.Xi_outflow = zeros(0);
+ HPST_control_valve.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (HPST_control_valve.P_in, HPST_control_valve.h_in, HPST_control_valve.Xi,
+ 0, 0);
+ HPST_control_valve.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (HPST_control_valve.P_out, HPST_control_valve.h_out, HPST_control_valve.Xi,
+ 0, 0);
+ HPST_control_valve.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ HPST_control_valve.state_in);
+ HPST_control_valve.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ HPST_control_valve.state_out);
+ HPST_control_valve.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ HPST_control_valve.state_in);
+ HPST_control_valve.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ HPST_control_valve.state_out);
+ HPST_control_valve.rho = (HPST_control_valve.rho_in+HPST_control_valve.rho_out)
+ /2;
+ HPST_control_valve.Qv_in = HPST_control_valve.Q/HPST_control_valve.rho_in;
+ HPST_control_valve.Qv_out = -HPST_control_valve.Q/HPST_control_valve.rho_out;
+ HPST_control_valve.Qv = (HPST_control_valve.Qv_in-HPST_control_valve.Qv_out)
+ /2;
+ HPST_control_valve.P_out-HPST_control_valve.P_in = HPST_control_valve.DP;
+ HPST_control_valve.Q*(HPST_control_valve.h_out-HPST_control_valve.h_in) =
+ HPST_control_valve.W;
+ HPST_control_valve.h_out-HPST_control_valve.h_in = HPST_control_valve.DH;
+ HPST_control_valve.T_out-HPST_control_valve.T_in = HPST_control_valve.DT;
+ HPST_control_valve.C_in.Q+HPST_control_valve.C_out.Q = 0;
+ HPST_control_valve.C_out.Xi_outflow = inStream(HPST_control_valve.C_in.Xi_outflow);
+ assert(HPST_control_valve.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoHFlowModel
+ equation
+ HPST_control_valve.h = HPST_control_valve.h_in;
+ HPST_control_valve.DH = 0;
+ // extends MetroscopeModelingLibrary.Partial.Pipes.SlideValve
+ equation
+ if ( not HPST_control_valve.faulty) then
+ HPST_control_valve.closed_valve = 0;
+ end if;
+ HPST_control_valve.DP*(1-HPST_control_valve.closed_valve/100)^2*
+ HPST_control_valve.Cv*abs(HPST_control_valve.Cv) = -1733000000000.0*abs
+ (HPST_control_valve.Q)*HPST_control_valve.Q/HPST_control_valve.rho_in^2;
+ // end of extends
+
+ // Component P_HPST_in_sensor.flow_model
+ // class MetroscopeModelingLibrary.WaterSteam.BaseClasses.IsoPHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ P_HPST_in_sensor.flow_model.h_in = inStream(P_HPST_in_sensor.flow_model.C_in.h_outflow);
+ P_HPST_in_sensor.flow_model.h_out = P_HPST_in_sensor.flow_model.C_out.h_outflow;
+ P_HPST_in_sensor.flow_model.Q = P_HPST_in_sensor.flow_model.C_in.Q;
+ P_HPST_in_sensor.flow_model.P_in = P_HPST_in_sensor.flow_model.C_in.P;
+ P_HPST_in_sensor.flow_model.P_out = P_HPST_in_sensor.flow_model.C_out.P;
+ P_HPST_in_sensor.flow_model.Xi = inStream(P_HPST_in_sensor.flow_model.C_in.Xi_outflow);
+ P_HPST_in_sensor.flow_model.C_in.h_outflow = 1000000.0;
+ P_HPST_in_sensor.flow_model.C_in.Xi_outflow = zeros(0);
+ P_HPST_in_sensor.flow_model.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (P_HPST_in_sensor.flow_model.P_in, P_HPST_in_sensor.flow_model.h_in,
+ P_HPST_in_sensor.flow_model.Xi, 0, 0);
+ P_HPST_in_sensor.flow_model.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (P_HPST_in_sensor.flow_model.P_out, P_HPST_in_sensor.flow_model.h_out,
+ P_HPST_in_sensor.flow_model.Xi, 0, 0);
+ P_HPST_in_sensor.flow_model.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ P_HPST_in_sensor.flow_model.state_in);
+ P_HPST_in_sensor.flow_model.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ P_HPST_in_sensor.flow_model.state_out);
+ P_HPST_in_sensor.flow_model.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ P_HPST_in_sensor.flow_model.state_in);
+ P_HPST_in_sensor.flow_model.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ P_HPST_in_sensor.flow_model.state_out);
+ P_HPST_in_sensor.flow_model.rho = (P_HPST_in_sensor.flow_model.rho_in+
+ P_HPST_in_sensor.flow_model.rho_out)/2;
+ P_HPST_in_sensor.flow_model.Qv_in = P_HPST_in_sensor.flow_model.Q/
+ P_HPST_in_sensor.flow_model.rho_in;
+ P_HPST_in_sensor.flow_model.Qv_out = -P_HPST_in_sensor.flow_model.Q/
+ P_HPST_in_sensor.flow_model.rho_out;
+ P_HPST_in_sensor.flow_model.Qv = (P_HPST_in_sensor.flow_model.Qv_in-
+ P_HPST_in_sensor.flow_model.Qv_out)/2;
+ P_HPST_in_sensor.flow_model.P_out-P_HPST_in_sensor.flow_model.P_in =
+ P_HPST_in_sensor.flow_model.DP;
+ P_HPST_in_sensor.flow_model.Q*(P_HPST_in_sensor.flow_model.h_out-
+ P_HPST_in_sensor.flow_model.h_in) = P_HPST_in_sensor.flow_model.W;
+ P_HPST_in_sensor.flow_model.h_out-P_HPST_in_sensor.flow_model.h_in =
+ P_HPST_in_sensor.flow_model.DH;
+ P_HPST_in_sensor.flow_model.T_out-P_HPST_in_sensor.flow_model.T_in =
+ P_HPST_in_sensor.flow_model.DT;
+ P_HPST_in_sensor.flow_model.C_in.Q+P_HPST_in_sensor.flow_model.C_out.Q = 0;
+ P_HPST_in_sensor.flow_model.C_out.Xi_outflow = inStream(P_HPST_in_sensor.flow_model.C_in.Xi_outflow);
+ assert(P_HPST_in_sensor.flow_model.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPHFlowModel
+ equation
+ P_HPST_in_sensor.flow_model.P = P_HPST_in_sensor.flow_model.P_in;
+ P_HPST_in_sensor.flow_model.h = P_HPST_in_sensor.flow_model.h_in;
+ P_HPST_in_sensor.flow_model.T = P_HPST_in_sensor.flow_model.T_in;
+ P_HPST_in_sensor.flow_model.DP = 0;
+ P_HPST_in_sensor.flow_model.DH = 0;
+ // end of extends
+
+ // Component P_HPST_in_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.WaterSteam.PressureSensor
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.BaseSensor
+ equation
+ if ( not P_HPST_in_sensor.faulty_flow_rate) then
+ P_HPST_in_sensor.mass_flow_rate_bias = 0;
+ end if;
+ P_HPST_in_sensor.P = P_HPST_in_sensor.C_in.P;
+ P_HPST_in_sensor.Q = P_HPST_in_sensor.C_in.Q+P_HPST_in_sensor.mass_flow_rate_bias;
+ P_HPST_in_sensor.Xi = inStream(P_HPST_in_sensor.C_in.Xi_outflow);
+ P_HPST_in_sensor.h = inStream(P_HPST_in_sensor.C_in.h_outflow);
+ P_HPST_in_sensor.state = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (P_HPST_in_sensor.P, P_HPST_in_sensor.h, P_HPST_in_sensor.Xi, 0, 0);
+ assert(P_HPST_in_sensor.Q > 0, "Wrong flow sign in inline sensor. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.PressureSensor
+ equation
+ P_HPST_in_sensor.P_barA = P_HPST_in_sensor.P*1E-05;
+ P_HPST_in_sensor.P_psiA = P_HPST_in_sensor.P*0.000145038;
+ P_HPST_in_sensor.P_MPaA = P_HPST_in_sensor.P*1E-06;
+ P_HPST_in_sensor.P_kPaA = P_HPST_in_sensor.P*0.001;
+ P_HPST_in_sensor.P_barG = P_HPST_in_sensor.P_barA-1;
+ P_HPST_in_sensor.P_psiG = P_HPST_in_sensor.P_psiA-14.50377377;
+ P_HPST_in_sensor.P_MPaG = P_HPST_in_sensor.P_MPaA-0.1;
+ P_HPST_in_sensor.P_kPaG = P_HPST_in_sensor.P_kPaA-100;
+ P_HPST_in_sensor.P_mbar = P_HPST_in_sensor.P*0.01;
+ P_HPST_in_sensor.P_inHg = P_HPST_in_sensor.P*0.0002953006;
+ if (P_HPST_in_sensor.signal_unit == "barA") then
+ P_HPST_in_sensor.P_sensor = P_HPST_in_sensor.P_barA;
+ elseif (P_HPST_in_sensor.signal_unit == "barG") then
+ P_HPST_in_sensor.P_sensor = P_HPST_in_sensor.P_barG;
+ elseif (P_HPST_in_sensor.signal_unit == "mbar") then
+ P_HPST_in_sensor.P_sensor = P_HPST_in_sensor.P_mbar;
+ elseif (P_HPST_in_sensor.signal_unit == "MPaA") then
+ P_HPST_in_sensor.P_sensor = P_HPST_in_sensor.P_MPaA;
+ elseif (P_HPST_in_sensor.signal_unit == "kPaA") then
+ P_HPST_in_sensor.P_sensor = P_HPST_in_sensor.P_kPaA;
+ else
+ P_HPST_in_sensor.P_sensor = P_HPST_in_sensor.P;
+ end if;
+ // end of extends
+ equation
+ P_HPST_in_sensor.flow_model.C_in.P = P_HPST_in_sensor.C_in.P;
+ P_HPST_in_sensor.C_in.Q-P_HPST_in_sensor.flow_model.C_in.Q = 0.0;
+ P_HPST_in_sensor.flow_model.C_out.P = P_HPST_in_sensor.C_out.P;
+ P_HPST_in_sensor.C_out.Q-P_HPST_in_sensor.flow_model.C_out.Q = 0.0;
+
+ // Component HPsteamTurbine
+ // class MetroscopeModelingLibrary.WaterSteam.Machines.SteamTurbine
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ HPsteamTurbine.h_in = inStream(HPsteamTurbine.C_in.h_outflow);
+ HPsteamTurbine.h_out = HPsteamTurbine.C_out.h_outflow;
+ HPsteamTurbine.Q = HPsteamTurbine.C_in.Q;
+ HPsteamTurbine.P_in = HPsteamTurbine.C_in.P;
+ HPsteamTurbine.P_out = HPsteamTurbine.C_out.P;
+ HPsteamTurbine.Xi = inStream(HPsteamTurbine.C_in.Xi_outflow);
+ HPsteamTurbine.C_in.h_outflow = 1000000.0;
+ HPsteamTurbine.C_in.Xi_outflow = zeros(0);
+ HPsteamTurbine.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (HPsteamTurbine.P_in, HPsteamTurbine.h_in, HPsteamTurbine.Xi, 0, 0);
+ HPsteamTurbine.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (HPsteamTurbine.P_out, HPsteamTurbine.h_out, HPsteamTurbine.Xi, 0, 0);
+ HPsteamTurbine.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ HPsteamTurbine.state_in);
+ HPsteamTurbine.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ HPsteamTurbine.state_out);
+ HPsteamTurbine.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ HPsteamTurbine.state_in);
+ HPsteamTurbine.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ HPsteamTurbine.state_out);
+ HPsteamTurbine.rho = (HPsteamTurbine.rho_in+HPsteamTurbine.rho_out)/2;
+ HPsteamTurbine.Qv_in = HPsteamTurbine.Q/HPsteamTurbine.rho_in;
+ HPsteamTurbine.Qv_out = -HPsteamTurbine.Q/HPsteamTurbine.rho_out;
+ HPsteamTurbine.Qv = (HPsteamTurbine.Qv_in-HPsteamTurbine.Qv_out)/2;
+ HPsteamTurbine.P_out-HPsteamTurbine.P_in = HPsteamTurbine.DP;
+ HPsteamTurbine.Q*(HPsteamTurbine.h_out-HPsteamTurbine.h_in) =
+ HPsteamTurbine.W;
+ HPsteamTurbine.h_out-HPsteamTurbine.h_in = HPsteamTurbine.DH;
+ HPsteamTurbine.T_out-HPsteamTurbine.T_in = HPsteamTurbine.DT;
+ HPsteamTurbine.C_in.Q+HPsteamTurbine.C_out.Q = 0;
+ HPsteamTurbine.C_out.Xi_outflow = inStream(HPsteamTurbine.C_in.Xi_outflow);
+ assert(HPsteamTurbine.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // end of extends
+ equation
+ HPsteamTurbine.Q = sqrt((HPsteamTurbine.P_in^2-HPsteamTurbine.P_out^2)/(
+ HPsteamTurbine.Cst*HPsteamTurbine.T_in*HPsteamTurbine.x_in));
+ HPsteamTurbine.state_is = Modelica.Media.Water.WaterIF97_ph.setState_psX_Unique25
+ (HPsteamTurbine.P_out, Modelica.Media.Water.WaterIF97_ph.specificEntropy_Unique29
+ (
+ HPsteamTurbine.state_in), {1.0}, 0, 0);
+ HPsteamTurbine.h_is = Modelica.Media.Water.WaterIF97_ph.specificEnthalpy_Unique30
+ (
+ HPsteamTurbine.state_is);
+ HPsteamTurbine.DH = HPsteamTurbine.xm*HPsteamTurbine.eta_is*(
+ HPsteamTurbine.h_is-HPsteamTurbine.h_in);
+ HPsteamTurbine.W = HPsteamTurbine.C_W_out.W;
+ HPsteamTurbine.h_vap_sat_in = Modelica.Media.Water.WaterIF97_ph.dewEnthalpy_Unique31
+ (
+ Modelica.Media.Water.WaterIF97_ph.setSat_p_Unique32(HPsteamTurbine.P_in));
+ HPsteamTurbine.h_liq_sat_in = Modelica.Media.Water.WaterIF97_ph.bubbleEnthalpy_Unique34
+ (
+ Modelica.Media.Water.WaterIF97_ph.setSat_p_Unique32(HPsteamTurbine.P_in));
+ HPsteamTurbine.x_in = min((HPsteamTurbine.h_in-HPsteamTurbine.h_liq_sat_in)/
+ (HPsteamTurbine.h_vap_sat_in-HPsteamTurbine.h_liq_sat_in), 1);
+ HPsteamTurbine.h_vap_sat_out = Modelica.Media.Water.WaterIF97_ph.dewEnthalpy_Unique31
+ (
+ Modelica.Media.Water.WaterIF97_ph.setSat_p_Unique32(HPsteamTurbine.P_out));
+ HPsteamTurbine.h_liq_sat_out = Modelica.Media.Water.WaterIF97_ph.bubbleEnthalpy_Unique34
+ (
+ Modelica.Media.Water.WaterIF97_ph.setSat_p_Unique32(HPsteamTurbine.P_out));
+ HPsteamTurbine.x_out = min((HPsteamTurbine.h_out-HPsteamTurbine.h_liq_sat_out)
+ /(HPsteamTurbine.h_vap_sat_out-HPsteamTurbine.h_liq_sat_out), 1);
+ HPsteamTurbine.xm = (HPsteamTurbine.x_in+HPsteamTurbine.x_out)/2;
+
+ // Component P_HPST_out_sensor.flow_model
+ // class MetroscopeModelingLibrary.WaterSteam.BaseClasses.IsoPHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ P_HPST_out_sensor.flow_model.h_in = inStream(P_HPST_out_sensor.flow_model.C_in.h_outflow);
+ P_HPST_out_sensor.flow_model.h_out = P_HPST_out_sensor.flow_model.C_out.h_outflow;
+ P_HPST_out_sensor.flow_model.Q = P_HPST_out_sensor.flow_model.C_in.Q;
+ P_HPST_out_sensor.flow_model.P_in = P_HPST_out_sensor.flow_model.C_in.P;
+ P_HPST_out_sensor.flow_model.P_out = P_HPST_out_sensor.flow_model.C_out.P;
+ P_HPST_out_sensor.flow_model.Xi = inStream(P_HPST_out_sensor.flow_model.C_in.Xi_outflow);
+ P_HPST_out_sensor.flow_model.C_in.h_outflow = 1000000.0;
+ P_HPST_out_sensor.flow_model.C_in.Xi_outflow = zeros(0);
+ P_HPST_out_sensor.flow_model.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (P_HPST_out_sensor.flow_model.P_in, P_HPST_out_sensor.flow_model.h_in,
+ P_HPST_out_sensor.flow_model.Xi, 0, 0);
+ P_HPST_out_sensor.flow_model.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (P_HPST_out_sensor.flow_model.P_out, P_HPST_out_sensor.flow_model.h_out,
+ P_HPST_out_sensor.flow_model.Xi, 0, 0);
+ P_HPST_out_sensor.flow_model.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ P_HPST_out_sensor.flow_model.state_in);
+ P_HPST_out_sensor.flow_model.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ P_HPST_out_sensor.flow_model.state_out);
+ P_HPST_out_sensor.flow_model.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ P_HPST_out_sensor.flow_model.state_in);
+ P_HPST_out_sensor.flow_model.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ P_HPST_out_sensor.flow_model.state_out);
+ P_HPST_out_sensor.flow_model.rho = (P_HPST_out_sensor.flow_model.rho_in+
+ P_HPST_out_sensor.flow_model.rho_out)/2;
+ P_HPST_out_sensor.flow_model.Qv_in = P_HPST_out_sensor.flow_model.Q/
+ P_HPST_out_sensor.flow_model.rho_in;
+ P_HPST_out_sensor.flow_model.Qv_out = -P_HPST_out_sensor.flow_model.Q/
+ P_HPST_out_sensor.flow_model.rho_out;
+ P_HPST_out_sensor.flow_model.Qv = (P_HPST_out_sensor.flow_model.Qv_in-
+ P_HPST_out_sensor.flow_model.Qv_out)/2;
+ P_HPST_out_sensor.flow_model.P_out-P_HPST_out_sensor.flow_model.P_in =
+ P_HPST_out_sensor.flow_model.DP;
+ P_HPST_out_sensor.flow_model.Q*(P_HPST_out_sensor.flow_model.h_out-
+ P_HPST_out_sensor.flow_model.h_in) = P_HPST_out_sensor.flow_model.W;
+ P_HPST_out_sensor.flow_model.h_out-P_HPST_out_sensor.flow_model.h_in =
+ P_HPST_out_sensor.flow_model.DH;
+ P_HPST_out_sensor.flow_model.T_out-P_HPST_out_sensor.flow_model.T_in =
+ P_HPST_out_sensor.flow_model.DT;
+ P_HPST_out_sensor.flow_model.C_in.Q+P_HPST_out_sensor.flow_model.C_out.Q
+ = 0;
+ P_HPST_out_sensor.flow_model.C_out.Xi_outflow = inStream(P_HPST_out_sensor.flow_model.C_in.Xi_outflow);
+ assert(P_HPST_out_sensor.flow_model.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPHFlowModel
+ equation
+ P_HPST_out_sensor.flow_model.P = P_HPST_out_sensor.flow_model.P_in;
+ P_HPST_out_sensor.flow_model.h = P_HPST_out_sensor.flow_model.h_in;
+ P_HPST_out_sensor.flow_model.T = P_HPST_out_sensor.flow_model.T_in;
+ P_HPST_out_sensor.flow_model.DP = 0;
+ P_HPST_out_sensor.flow_model.DH = 0;
+ // end of extends
+
+ // Component P_HPST_out_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.WaterSteam.PressureSensor
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.BaseSensor
+ equation
+ if ( not P_HPST_out_sensor.faulty_flow_rate) then
+ P_HPST_out_sensor.mass_flow_rate_bias = 0;
+ end if;
+ P_HPST_out_sensor.P = P_HPST_out_sensor.C_in.P;
+ P_HPST_out_sensor.Q = P_HPST_out_sensor.C_in.Q+P_HPST_out_sensor.mass_flow_rate_bias;
+ P_HPST_out_sensor.Xi = inStream(P_HPST_out_sensor.C_in.Xi_outflow);
+ P_HPST_out_sensor.h = inStream(P_HPST_out_sensor.C_in.h_outflow);
+ P_HPST_out_sensor.state = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (P_HPST_out_sensor.P, P_HPST_out_sensor.h, P_HPST_out_sensor.Xi, 0, 0);
+ assert(P_HPST_out_sensor.Q > 0, "Wrong flow sign in inline sensor. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.PressureSensor
+ equation
+ P_HPST_out_sensor.P_barA = P_HPST_out_sensor.P*1E-05;
+ P_HPST_out_sensor.P_psiA = P_HPST_out_sensor.P*0.000145038;
+ P_HPST_out_sensor.P_MPaA = P_HPST_out_sensor.P*1E-06;
+ P_HPST_out_sensor.P_kPaA = P_HPST_out_sensor.P*0.001;
+ P_HPST_out_sensor.P_barG = P_HPST_out_sensor.P_barA-1;
+ P_HPST_out_sensor.P_psiG = P_HPST_out_sensor.P_psiA-14.50377377;
+ P_HPST_out_sensor.P_MPaG = P_HPST_out_sensor.P_MPaA-0.1;
+ P_HPST_out_sensor.P_kPaG = P_HPST_out_sensor.P_kPaA-100;
+ P_HPST_out_sensor.P_mbar = P_HPST_out_sensor.P*0.01;
+ P_HPST_out_sensor.P_inHg = P_HPST_out_sensor.P*0.0002953006;
+ if (P_HPST_out_sensor.signal_unit == "barA") then
+ P_HPST_out_sensor.P_sensor = P_HPST_out_sensor.P_barA;
+ elseif (P_HPST_out_sensor.signal_unit == "barG") then
+ P_HPST_out_sensor.P_sensor = P_HPST_out_sensor.P_barG;
+ elseif (P_HPST_out_sensor.signal_unit == "mbar") then
+ P_HPST_out_sensor.P_sensor = P_HPST_out_sensor.P_mbar;
+ elseif (P_HPST_out_sensor.signal_unit == "MPaA") then
+ P_HPST_out_sensor.P_sensor = P_HPST_out_sensor.P_MPaA;
+ elseif (P_HPST_out_sensor.signal_unit == "kPaA") then
+ P_HPST_out_sensor.P_sensor = P_HPST_out_sensor.P_kPaA;
+ else
+ P_HPST_out_sensor.P_sensor = P_HPST_out_sensor.P;
+ end if;
+ // end of extends
+ equation
+ P_HPST_out_sensor.flow_model.C_in.P = P_HPST_out_sensor.C_in.P;
+ P_HPST_out_sensor.C_in.Q-P_HPST_out_sensor.flow_model.C_in.Q = 0.0;
+ P_HPST_out_sensor.flow_model.C_out.P = P_HPST_out_sensor.C_out.P;
+ P_HPST_out_sensor.C_out.Q-P_HPST_out_sensor.flow_model.C_out.Q = 0.0;
+
+ // Component W_ST_out_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.Power.PowerSensor
+ equation
+ W_ST_out_sensor.C_in.W+W_ST_out_sensor.C_out.W = 0;
+ W_ST_out_sensor.W = W_ST_out_sensor.C_in.W;
+ W_ST_out_sensor.W_MW = W_ST_out_sensor.W/1000000.0;
+ if (W_ST_out_sensor.output_signal_unit == "MW") then
+ W_ST_out_sensor.W_sensor = W_ST_out_sensor.W_MW;
+ else
+ W_ST_out_sensor.W_sensor = W_ST_out_sensor.W;
+ end if;
+
+ // Component condenser.cold_side_pipe
+ // class MetroscopeModelingLibrary.WaterSteam.Pipes.FrictionPipe
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ condenser.cold_side_pipe.h_in = inStream(condenser.cold_side_pipe.C_in.h_outflow);
+ condenser.cold_side_pipe.h_out = condenser.cold_side_pipe.C_out.h_outflow;
+ condenser.cold_side_pipe.Q = condenser.cold_side_pipe.C_in.Q;
+ condenser.cold_side_pipe.P_in = condenser.cold_side_pipe.C_in.P;
+ condenser.cold_side_pipe.P_out = condenser.cold_side_pipe.C_out.P;
+ condenser.cold_side_pipe.Xi = inStream(condenser.cold_side_pipe.C_in.Xi_outflow);
+ condenser.cold_side_pipe.C_in.h_outflow = 1000000.0;
+ condenser.cold_side_pipe.C_in.Xi_outflow = zeros(0);
+ condenser.cold_side_pipe.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (condenser.cold_side_pipe.P_in, condenser.cold_side_pipe.h_in,
+ condenser.cold_side_pipe.Xi, 0, 0);
+ condenser.cold_side_pipe.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (condenser.cold_side_pipe.P_out, condenser.cold_side_pipe.h_out,
+ condenser.cold_side_pipe.Xi, 0, 0);
+ condenser.cold_side_pipe.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ condenser.cold_side_pipe.state_in);
+ condenser.cold_side_pipe.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ condenser.cold_side_pipe.state_out);
+ condenser.cold_side_pipe.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ condenser.cold_side_pipe.state_in);
+ condenser.cold_side_pipe.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ condenser.cold_side_pipe.state_out);
+ condenser.cold_side_pipe.rho = (condenser.cold_side_pipe.rho_in+
+ condenser.cold_side_pipe.rho_out)/2;
+ condenser.cold_side_pipe.Qv_in = condenser.cold_side_pipe.Q/
+ condenser.cold_side_pipe.rho_in;
+ condenser.cold_side_pipe.Qv_out = -condenser.cold_side_pipe.Q/
+ condenser.cold_side_pipe.rho_out;
+ condenser.cold_side_pipe.Qv = (condenser.cold_side_pipe.Qv_in-
+ condenser.cold_side_pipe.Qv_out)/2;
+ condenser.cold_side_pipe.P_out-condenser.cold_side_pipe.P_in =
+ condenser.cold_side_pipe.DP;
+ condenser.cold_side_pipe.Q*(condenser.cold_side_pipe.h_out-
+ condenser.cold_side_pipe.h_in) = condenser.cold_side_pipe.W;
+ condenser.cold_side_pipe.h_out-condenser.cold_side_pipe.h_in =
+ condenser.cold_side_pipe.DH;
+ condenser.cold_side_pipe.T_out-condenser.cold_side_pipe.T_in =
+ condenser.cold_side_pipe.DT;
+ condenser.cold_side_pipe.C_in.Q+condenser.cold_side_pipe.C_out.Q = 0;
+ condenser.cold_side_pipe.C_out.Xi_outflow = inStream(condenser.cold_side_pipe.C_in.Xi_outflow);
+ assert(condenser.cold_side_pipe.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoHFlowModel
+ equation
+ condenser.cold_side_pipe.h = condenser.cold_side_pipe.h_in;
+ condenser.cold_side_pipe.DH = 0;
+ // extends MetroscopeModelingLibrary.Partial.Pipes.FrictionPipe
+ equation
+ if ( not condenser.cold_side_pipe.faulty) then
+ condenser.cold_side_pipe.fouling = 0;
+ end if;
+ condenser.cold_side_pipe.DP = -(1+condenser.cold_side_pipe.fouling/100)*
+ condenser.cold_side_pipe.Kfr*condenser.cold_side_pipe.Q*abs(
+ condenser.cold_side_pipe.Q)/condenser.cold_side_pipe.rho_in;
+ // end of extends
+
+ // Component condenser.hot_side
+ // class MetroscopeModelingLibrary.WaterSteam.BaseClasses.IsoPFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ condenser.hot_side.h_in = inStream(condenser.hot_side.C_in.h_outflow);
+ condenser.hot_side.h_out = condenser.hot_side.C_out.h_outflow;
+ condenser.hot_side.Q = condenser.hot_side.C_in.Q;
+ condenser.hot_side.P_in = condenser.hot_side.C_in.P;
+ condenser.hot_side.P_out = condenser.hot_side.C_out.P;
+ condenser.hot_side.Xi = inStream(condenser.hot_side.C_in.Xi_outflow);
+ condenser.hot_side.C_in.h_outflow = 1000000.0;
+ condenser.hot_side.C_in.Xi_outflow = zeros(0);
+ condenser.hot_side.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (condenser.hot_side.P_in, condenser.hot_side.h_in, condenser.hot_side.Xi,
+ 0, 0);
+ condenser.hot_side.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (condenser.hot_side.P_out, condenser.hot_side.h_out, condenser.hot_side.Xi,
+ 0, 0);
+ condenser.hot_side.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ condenser.hot_side.state_in);
+ condenser.hot_side.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ condenser.hot_side.state_out);
+ condenser.hot_side.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ condenser.hot_side.state_in);
+ condenser.hot_side.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ condenser.hot_side.state_out);
+ condenser.hot_side.rho = (condenser.hot_side.rho_in+condenser.hot_side.rho_out)
+ /2;
+ condenser.hot_side.Qv_in = condenser.hot_side.Q/condenser.hot_side.rho_in;
+ condenser.hot_side.Qv_out = -condenser.hot_side.Q/condenser.hot_side.rho_out;
+ condenser.hot_side.Qv = (condenser.hot_side.Qv_in-condenser.hot_side.Qv_out)
+ /2;
+ condenser.hot_side.P_out-condenser.hot_side.P_in = condenser.hot_side.DP;
+ condenser.hot_side.Q*(condenser.hot_side.h_out-condenser.hot_side.h_in) =
+ condenser.hot_side.W;
+ condenser.hot_side.h_out-condenser.hot_side.h_in = condenser.hot_side.DH;
+ condenser.hot_side.T_out-condenser.hot_side.T_in = condenser.hot_side.DT;
+ condenser.hot_side.C_in.Q+condenser.hot_side.C_out.Q = 0;
+ condenser.hot_side.C_out.Xi_outflow = inStream(condenser.hot_side.C_in.Xi_outflow);
+ assert(condenser.hot_side.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPFlowModel
+ equation
+ condenser.hot_side.P = condenser.hot_side.P_in;
+ condenser.hot_side.DP = 0;
+ // end of extends
+ equation
+ condenser.hot_side.W = condenser.hot_side.W_input;
+
+ // Component condenser.cold_side
+ // class MetroscopeModelingLibrary.WaterSteam.BaseClasses.IsoPFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ condenser.cold_side.h_in = inStream(condenser.cold_side.C_in.h_outflow);
+ condenser.cold_side.h_out = condenser.cold_side.C_out.h_outflow;
+ condenser.cold_side.Q = condenser.cold_side.C_in.Q;
+ condenser.cold_side.P_in = condenser.cold_side.C_in.P;
+ condenser.cold_side.P_out = condenser.cold_side.C_out.P;
+ condenser.cold_side.Xi = inStream(condenser.cold_side.C_in.Xi_outflow);
+ condenser.cold_side.C_in.h_outflow = 1000000.0;
+ condenser.cold_side.C_in.Xi_outflow = zeros(0);
+ condenser.cold_side.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (condenser.cold_side.P_in, condenser.cold_side.h_in, condenser.cold_side.Xi,
+ 0, 0);
+ condenser.cold_side.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (condenser.cold_side.P_out, condenser.cold_side.h_out, condenser.cold_side.Xi,
+ 0, 0);
+ condenser.cold_side.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ condenser.cold_side.state_in);
+ condenser.cold_side.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ condenser.cold_side.state_out);
+ condenser.cold_side.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ condenser.cold_side.state_in);
+ condenser.cold_side.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ condenser.cold_side.state_out);
+ condenser.cold_side.rho = (condenser.cold_side.rho_in+condenser.cold_side.rho_out)
+ /2;
+ condenser.cold_side.Qv_in = condenser.cold_side.Q/condenser.cold_side.rho_in;
+ condenser.cold_side.Qv_out = -condenser.cold_side.Q/condenser.cold_side.rho_out;
+ condenser.cold_side.Qv = (condenser.cold_side.Qv_in-condenser.cold_side.Qv_out)
+ /2;
+ condenser.cold_side.P_out-condenser.cold_side.P_in = condenser.cold_side.DP;
+ condenser.cold_side.Q*(condenser.cold_side.h_out-condenser.cold_side.h_in)
+ = condenser.cold_side.W;
+ condenser.cold_side.h_out-condenser.cold_side.h_in = condenser.cold_side.DH;
+ condenser.cold_side.T_out-condenser.cold_side.T_in = condenser.cold_side.DT;
+ condenser.cold_side.C_in.Q+condenser.cold_side.C_out.Q = 0;
+ condenser.cold_side.C_out.Xi_outflow = inStream(condenser.cold_side.C_in.Xi_outflow);
+ assert(condenser.cold_side.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPFlowModel
+ equation
+ condenser.cold_side.P = condenser.cold_side.P_in;
+ condenser.cold_side.DP = 0;
+ // end of extends
+ equation
+ condenser.cold_side.W = condenser.cold_side.W_input;
+
+ // Component condenser.water_height_pipe
+ // class MetroscopeModelingLibrary.WaterSteam.Pipes.HeightVariationPipe
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ condenser.water_height_pipe.h_in = inStream(condenser.water_height_pipe.C_in.h_outflow);
+ condenser.water_height_pipe.h_out = condenser.water_height_pipe.C_out.h_outflow;
+ condenser.water_height_pipe.Q = condenser.water_height_pipe.C_in.Q;
+ condenser.water_height_pipe.P_in = condenser.water_height_pipe.C_in.P;
+ condenser.water_height_pipe.P_out = condenser.water_height_pipe.C_out.P;
+ condenser.water_height_pipe.Xi = inStream(condenser.water_height_pipe.C_in.Xi_outflow);
+ condenser.water_height_pipe.C_in.h_outflow = 1000000.0;
+ condenser.water_height_pipe.C_in.Xi_outflow = zeros(0);
+ condenser.water_height_pipe.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (condenser.water_height_pipe.P_in, condenser.water_height_pipe.h_in,
+ condenser.water_height_pipe.Xi, 0, 0);
+ condenser.water_height_pipe.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (condenser.water_height_pipe.P_out, condenser.water_height_pipe.h_out,
+ condenser.water_height_pipe.Xi, 0, 0);
+ condenser.water_height_pipe.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ condenser.water_height_pipe.state_in);
+ condenser.water_height_pipe.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ condenser.water_height_pipe.state_out);
+ condenser.water_height_pipe.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ condenser.water_height_pipe.state_in);
+ condenser.water_height_pipe.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ condenser.water_height_pipe.state_out);
+ condenser.water_height_pipe.rho = (condenser.water_height_pipe.rho_in+
+ condenser.water_height_pipe.rho_out)/2;
+ condenser.water_height_pipe.Qv_in = condenser.water_height_pipe.Q/
+ condenser.water_height_pipe.rho_in;
+ condenser.water_height_pipe.Qv_out = -condenser.water_height_pipe.Q/
+ condenser.water_height_pipe.rho_out;
+ condenser.water_height_pipe.Qv = (condenser.water_height_pipe.Qv_in-
+ condenser.water_height_pipe.Qv_out)/2;
+ condenser.water_height_pipe.P_out-condenser.water_height_pipe.P_in =
+ condenser.water_height_pipe.DP;
+ condenser.water_height_pipe.Q*(condenser.water_height_pipe.h_out-
+ condenser.water_height_pipe.h_in) = condenser.water_height_pipe.W;
+ condenser.water_height_pipe.h_out-condenser.water_height_pipe.h_in =
+ condenser.water_height_pipe.DH;
+ condenser.water_height_pipe.T_out-condenser.water_height_pipe.T_in =
+ condenser.water_height_pipe.DT;
+ condenser.water_height_pipe.C_in.Q+condenser.water_height_pipe.C_out.Q = 0;
+ condenser.water_height_pipe.C_out.Xi_outflow = inStream(condenser.water_height_pipe.C_in.Xi_outflow);
+ assert(condenser.water_height_pipe.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoHFlowModel
+ equation
+ condenser.water_height_pipe.h = condenser.water_height_pipe.h_in;
+ condenser.water_height_pipe.DH = 0;
+ // extends MetroscopeModelingLibrary.Partial.Pipes.HeightVariationPipe
+ equation
+ condenser.water_height_pipe.DP = -condenser.water_height_pipe.rho_in*
+ 9.80665*condenser.water_height_pipe.delta_z;
+ // end of extends
+
+ // Component condenser.incondensables_in
+ // class MetroscopeModelingLibrary.WaterSteam.BaseClasses.IsoHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ condenser.incondensables_in.h_in = inStream(condenser.incondensables_in.C_in.h_outflow);
+ condenser.incondensables_in.h_out = condenser.incondensables_in.C_out.h_outflow;
+ condenser.incondensables_in.Q = condenser.incondensables_in.C_in.Q;
+ condenser.incondensables_in.P_in = condenser.incondensables_in.C_in.P;
+ condenser.incondensables_in.P_out = condenser.incondensables_in.C_out.P;
+ condenser.incondensables_in.Xi = inStream(condenser.incondensables_in.C_in.Xi_outflow);
+ condenser.incondensables_in.C_in.h_outflow = 1000000.0;
+ condenser.incondensables_in.C_in.Xi_outflow = zeros(0);
+ condenser.incondensables_in.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (condenser.incondensables_in.P_in, condenser.incondensables_in.h_in,
+ condenser.incondensables_in.Xi, 0, 0);
+ condenser.incondensables_in.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (condenser.incondensables_in.P_out, condenser.incondensables_in.h_out,
+ condenser.incondensables_in.Xi, 0, 0);
+ condenser.incondensables_in.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ condenser.incondensables_in.state_in);
+ condenser.incondensables_in.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ condenser.incondensables_in.state_out);
+ condenser.incondensables_in.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ condenser.incondensables_in.state_in);
+ condenser.incondensables_in.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ condenser.incondensables_in.state_out);
+ condenser.incondensables_in.rho = (condenser.incondensables_in.rho_in+
+ condenser.incondensables_in.rho_out)/2;
+ condenser.incondensables_in.Qv_in = condenser.incondensables_in.Q/
+ condenser.incondensables_in.rho_in;
+ condenser.incondensables_in.Qv_out = -condenser.incondensables_in.Q/
+ condenser.incondensables_in.rho_out;
+ condenser.incondensables_in.Qv = (condenser.incondensables_in.Qv_in-
+ condenser.incondensables_in.Qv_out)/2;
+ condenser.incondensables_in.P_out-condenser.incondensables_in.P_in =
+ condenser.incondensables_in.DP;
+ condenser.incondensables_in.Q*(condenser.incondensables_in.h_out-
+ condenser.incondensables_in.h_in) = condenser.incondensables_in.W;
+ condenser.incondensables_in.h_out-condenser.incondensables_in.h_in =
+ condenser.incondensables_in.DH;
+ condenser.incondensables_in.T_out-condenser.incondensables_in.T_in =
+ condenser.incondensables_in.DT;
+ condenser.incondensables_in.C_in.Q+condenser.incondensables_in.C_out.Q = 0;
+ condenser.incondensables_in.C_out.Xi_outflow = inStream(condenser.incondensables_in.C_in.Xi_outflow);
+ assert(condenser.incondensables_in.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoHFlowModel
+ equation
+ condenser.incondensables_in.h = condenser.incondensables_in.h_in;
+ condenser.incondensables_in.DH = 0;
+ // end of extends
+ equation
+ condenser.incondensables_in.DP = condenser.incondensables_in.DP_input;
+
+ // Component condenser.incondensables_out
+ // class MetroscopeModelingLibrary.WaterSteam.BaseClasses.IsoHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ condenser.incondensables_out.h_in = inStream(condenser.incondensables_out.C_in.h_outflow);
+ condenser.incondensables_out.h_out = condenser.incondensables_out.C_out.h_outflow;
+ condenser.incondensables_out.Q = condenser.incondensables_out.C_in.Q;
+ condenser.incondensables_out.P_in = condenser.incondensables_out.C_in.P;
+ condenser.incondensables_out.P_out = condenser.incondensables_out.C_out.P;
+ condenser.incondensables_out.Xi = inStream(condenser.incondensables_out.C_in.Xi_outflow);
+ condenser.incondensables_out.C_in.h_outflow = 1000000.0;
+ condenser.incondensables_out.C_in.Xi_outflow = zeros(0);
+ condenser.incondensables_out.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (condenser.incondensables_out.P_in, condenser.incondensables_out.h_in,
+ condenser.incondensables_out.Xi, 0, 0);
+ condenser.incondensables_out.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (condenser.incondensables_out.P_out, condenser.incondensables_out.h_out,
+ condenser.incondensables_out.Xi, 0, 0);
+ condenser.incondensables_out.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ condenser.incondensables_out.state_in);
+ condenser.incondensables_out.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ condenser.incondensables_out.state_out);
+ condenser.incondensables_out.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ condenser.incondensables_out.state_in);
+ condenser.incondensables_out.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ condenser.incondensables_out.state_out);
+ condenser.incondensables_out.rho = (condenser.incondensables_out.rho_in+
+ condenser.incondensables_out.rho_out)/2;
+ condenser.incondensables_out.Qv_in = condenser.incondensables_out.Q/
+ condenser.incondensables_out.rho_in;
+ condenser.incondensables_out.Qv_out = -condenser.incondensables_out.Q/
+ condenser.incondensables_out.rho_out;
+ condenser.incondensables_out.Qv = (condenser.incondensables_out.Qv_in-
+ condenser.incondensables_out.Qv_out)/2;
+ condenser.incondensables_out.P_out-condenser.incondensables_out.P_in =
+ condenser.incondensables_out.DP;
+ condenser.incondensables_out.Q*(condenser.incondensables_out.h_out-
+ condenser.incondensables_out.h_in) = condenser.incondensables_out.W;
+ condenser.incondensables_out.h_out-condenser.incondensables_out.h_in =
+ condenser.incondensables_out.DH;
+ condenser.incondensables_out.T_out-condenser.incondensables_out.T_in =
+ condenser.incondensables_out.DT;
+ condenser.incondensables_out.C_in.Q+condenser.incondensables_out.C_out.Q
+ = 0;
+ condenser.incondensables_out.C_out.Xi_outflow = inStream(condenser.incondensables_out.C_in.Xi_outflow);
+ assert(condenser.incondensables_out.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoHFlowModel
+ equation
+ condenser.incondensables_out.h = condenser.incondensables_out.h_in;
+ condenser.incondensables_out.DH = 0;
+ // end of extends
+ equation
+ condenser.incondensables_out.DP = condenser.incondensables_out.DP_input;
+
+ // Component condenser
+ // class MetroscopeModelingLibrary.WaterSteam.HeatExchangers.Condenser
+ equation
+ if ( not condenser.faulty) then
+ condenser.fouling = 0;
+ condenser.air_intake = 0;
+ condenser.Qv_cold_in_decrease = 0;
+ end if;
+ condenser.Q_cold = condenser.cold_side.Q;
+ condenser.T_cold_in = condenser.cold_side.T_in;
+ condenser.T_cold_out = condenser.cold_side.T_out;
+ condenser.cold_side.Qv = condenser.Qv_cold_in*(1-condenser.Qv_cold_in_decrease
+ /100);
+ condenser.Q_hot = condenser.hot_side.Q;
+ condenser.T_hot_in = condenser.hot_side.T_in;
+ condenser.T_hot_out = condenser.hot_side.T_out;
+ condenser.cold_side.W = condenser.W;
+ condenser.P_tot = condenser.incondensables_in.P_in;
+ condenser.hot_side.W+condenser.cold_side.W = 0;
+ condenser.cold_side_pipe.Kfr = condenser.Kfr_cold;
+ condenser.water_height_pipe.delta_z = -condenser.water_height;
+ condenser.water_height_pipe.DP = condenser.water_height_DP;
+ condenser.P_incond = condenser.P_offset+condenser.R*(condenser.C_incond+
+ condenser.air_intake)*condenser.Tsat;
+ condenser.incondensables_in.DP = -condenser.P_incond;
+ condenser.incondensables_out.DP = condenser.P_incond;
+ assert(condenser.T_hot_in-condenser.Tsat < 0.1, "The steam admitted in the condenser in superheated",
+ AssertionLevel.warning);
+ condenser.Psat = condenser.hot_side.P_in;
+ condenser.Tsat = Modelica.Media.Water.WaterIF97_ph.saturationTemperature_Unique21
+ (condenser.Psat);
+ condenser.hot_side.h_out = Modelica.Media.Water.WaterIF97_ph.bubbleEnthalpy_Unique24
+ (
+ Modelica.Media.Water.WaterIF97_ph.setSat_p_Unique23(condenser.Psat));
+ 0 = condenser.Tsat-condenser.T_cold_out-(condenser.Tsat-condenser.T_cold_in)
+ *exp(condenser.Kth*(1-condenser.fouling/100)*condenser.S*((
+ condenser.T_cold_in-condenser.T_cold_out)/condenser.W));
+ condenser.cold_side_pipe.C_in.P = condenser.C_cold_in.P;
+ condenser.C_cold_in.Q-condenser.cold_side_pipe.C_in.Q = 0.0;
+ condenser.cold_side.C_out.P = condenser.C_cold_out.P;
+ condenser.C_cold_out.Q-condenser.cold_side.C_out.Q = 0.0;
+ condenser.incondensables_in.C_in.P = condenser.C_hot_in.P;
+ condenser.C_hot_in.Q-condenser.incondensables_in.C_in.Q = 0.0;
+ condenser.water_height_pipe.C_out.P = condenser.C_hot_out.P;
+ condenser.C_hot_out.Q-condenser.water_height_pipe.C_out.Q = 0.0;
+ condenser.cold_side_pipe.C_out.P = condenser.cold_side.C_in.P;
+ condenser.cold_side.C_in.Q+condenser.cold_side_pipe.C_out.Q = 0.0;
+ condenser.incondensables_in.C_out.P = condenser.hot_side.C_in.P;
+ condenser.hot_side.C_in.Q+condenser.incondensables_in.C_out.Q = 0.0;
+ condenser.incondensables_out.C_in.P = condenser.hot_side.C_out.P;
+ condenser.hot_side.C_out.Q+condenser.incondensables_out.C_in.Q = 0.0;
+ condenser.water_height_pipe.C_in.P = condenser.incondensables_out.C_out.P;
+ condenser.incondensables_out.C_out.Q+condenser.water_height_pipe.C_in.Q =
+ 0.0;
+
+ // Component T_circulating_water_out_sensor.flow_model
+ // class MetroscopeModelingLibrary.WaterSteam.BaseClasses.IsoPHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ T_circulating_water_out_sensor.flow_model.h_in = inStream(T_circulating_water_out_sensor.flow_model.C_in.h_outflow);
+ T_circulating_water_out_sensor.flow_model.h_out = T_circulating_water_out_sensor.flow_model.C_out.h_outflow;
+ T_circulating_water_out_sensor.flow_model.Q = T_circulating_water_out_sensor.flow_model.C_in.Q;
+ T_circulating_water_out_sensor.flow_model.P_in = T_circulating_water_out_sensor.flow_model.C_in.P;
+ T_circulating_water_out_sensor.flow_model.P_out = T_circulating_water_out_sensor.flow_model.C_out.P;
+ T_circulating_water_out_sensor.flow_model.Xi = inStream(T_circulating_water_out_sensor.flow_model.C_in.Xi_outflow);
+ T_circulating_water_out_sensor.flow_model.C_in.h_outflow = 1000000.0;
+ T_circulating_water_out_sensor.flow_model.C_in.Xi_outflow = zeros(0);
+ T_circulating_water_out_sensor.flow_model.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (T_circulating_water_out_sensor.flow_model.P_in, T_circulating_water_out_sensor.flow_model.h_in,
+ T_circulating_water_out_sensor.flow_model.Xi, 0, 0);
+ T_circulating_water_out_sensor.flow_model.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (T_circulating_water_out_sensor.flow_model.P_out, T_circulating_water_out_sensor.flow_model.h_out,
+ T_circulating_water_out_sensor.flow_model.Xi, 0, 0);
+ T_circulating_water_out_sensor.flow_model.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ T_circulating_water_out_sensor.flow_model.state_in);
+ T_circulating_water_out_sensor.flow_model.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ T_circulating_water_out_sensor.flow_model.state_out);
+ T_circulating_water_out_sensor.flow_model.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ T_circulating_water_out_sensor.flow_model.state_in);
+ T_circulating_water_out_sensor.flow_model.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ T_circulating_water_out_sensor.flow_model.state_out);
+ T_circulating_water_out_sensor.flow_model.rho = (T_circulating_water_out_sensor.flow_model.rho_in
+ +T_circulating_water_out_sensor.flow_model.rho_out)/2;
+ T_circulating_water_out_sensor.flow_model.Qv_in = T_circulating_water_out_sensor.flow_model.Q
+ /T_circulating_water_out_sensor.flow_model.rho_in;
+ T_circulating_water_out_sensor.flow_model.Qv_out = -T_circulating_water_out_sensor.flow_model.Q
+ /T_circulating_water_out_sensor.flow_model.rho_out;
+ T_circulating_water_out_sensor.flow_model.Qv = (T_circulating_water_out_sensor.flow_model.Qv_in
+ -T_circulating_water_out_sensor.flow_model.Qv_out)/2;
+ T_circulating_water_out_sensor.flow_model.P_out-T_circulating_water_out_sensor.flow_model.P_in
+ = T_circulating_water_out_sensor.flow_model.DP;
+ T_circulating_water_out_sensor.flow_model.Q*(T_circulating_water_out_sensor.flow_model.h_out
+ -T_circulating_water_out_sensor.flow_model.h_in) = T_circulating_water_out_sensor.flow_model.W;
+ T_circulating_water_out_sensor.flow_model.h_out-T_circulating_water_out_sensor.flow_model.h_in
+ = T_circulating_water_out_sensor.flow_model.DH;
+ T_circulating_water_out_sensor.flow_model.T_out-T_circulating_water_out_sensor.flow_model.T_in
+ = T_circulating_water_out_sensor.flow_model.DT;
+ T_circulating_water_out_sensor.flow_model.C_in.Q+T_circulating_water_out_sensor.flow_model.C_out.Q
+ = 0;
+ T_circulating_water_out_sensor.flow_model.C_out.Xi_outflow = inStream(
+ T_circulating_water_out_sensor.flow_model.C_in.Xi_outflow);
+ assert(T_circulating_water_out_sensor.flow_model.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPHFlowModel
+ equation
+ T_circulating_water_out_sensor.flow_model.P = T_circulating_water_out_sensor.flow_model.P_in;
+ T_circulating_water_out_sensor.flow_model.h = T_circulating_water_out_sensor.flow_model.h_in;
+ T_circulating_water_out_sensor.flow_model.T = T_circulating_water_out_sensor.flow_model.T_in;
+ T_circulating_water_out_sensor.flow_model.DP = 0;
+ T_circulating_water_out_sensor.flow_model.DH = 0;
+ // end of extends
+
+ // Component T_circulating_water_out_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.WaterSteam.TemperatureSensor
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.BaseSensor
+ equation
+ if ( not T_circulating_water_out_sensor.faulty_flow_rate) then
+ T_circulating_water_out_sensor.mass_flow_rate_bias = 0;
+ end if;
+ T_circulating_water_out_sensor.P = T_circulating_water_out_sensor.C_in.P;
+ T_circulating_water_out_sensor.Q = T_circulating_water_out_sensor.C_in.Q+
+ T_circulating_water_out_sensor.mass_flow_rate_bias;
+ T_circulating_water_out_sensor.Xi = inStream(T_circulating_water_out_sensor.C_in.Xi_outflow);
+ T_circulating_water_out_sensor.h = inStream(T_circulating_water_out_sensor.C_in.h_outflow);
+ T_circulating_water_out_sensor.state = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (T_circulating_water_out_sensor.P, T_circulating_water_out_sensor.h,
+ T_circulating_water_out_sensor.Xi, 0, 0);
+ assert(T_circulating_water_out_sensor.Q > 0, "Wrong flow sign in inline sensor. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.TemperatureSensor
+ equation
+ T_circulating_water_out_sensor.T = T_circulating_water_out_sensor.flow_model.T;
+ T_circulating_water_out_sensor.T_degC+273.15 = T_circulating_water_out_sensor.T;
+ T_circulating_water_out_sensor.T_degF = T_circulating_water_out_sensor.T_degC
+ *1.8+32;
+ if (T_circulating_water_out_sensor.signal_unit == "degC") then
+ T_circulating_water_out_sensor.T_sensor = T_circulating_water_out_sensor.T_degC;
+ elseif (T_circulating_water_out_sensor.signal_unit == "degF") then
+ T_circulating_water_out_sensor.T_sensor = T_circulating_water_out_sensor.T_degF;
+ elseif (T_circulating_water_out_sensor.signal_unit == "K") then
+ T_circulating_water_out_sensor.T_sensor = T_circulating_water_out_sensor.T;
+ else
+ assert(false, "Unavailable unit selected for %name");
+ end if;
+ // end of extends
+ equation
+ T_circulating_water_out_sensor.flow_model.C_in.P = T_circulating_water_out_sensor.C_in.P;
+ T_circulating_water_out_sensor.C_in.Q-T_circulating_water_out_sensor.flow_model.C_in.Q
+ = 0.0;
+ T_circulating_water_out_sensor.flow_model.C_out.P = T_circulating_water_out_sensor.C_out.P;
+ T_circulating_water_out_sensor.C_out.Q-T_circulating_water_out_sensor.flow_model.C_out.Q
+ = 0.0;
+
+ // Component circulating_water_source
+ // class MetroscopeModelingLibrary.WaterSteam.BoundaryConditions.Source
+ // extends MetroscopeModelingLibrary.Partial.BoundaryConditions.FluidSource
+ equation
+ circulating_water_source.C_out.P = circulating_water_source.P_out;
+ circulating_water_source.C_out.Q = circulating_water_source.Q_out;
+ circulating_water_source.C_out.h_outflow = circulating_water_source.h_out;
+ circulating_water_source.C_out.Xi_outflow = circulating_water_source.Xi_out;
+ circulating_water_source.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (circulating_water_source.P_out, circulating_water_source.h_out,
+ circulating_water_source.Xi_out, 0, 0);
+ circulating_water_source.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ circulating_water_source.state_out);
+ circulating_water_source.Qv_out = circulating_water_source.Q_out/
+ Modelica.Media.Water.WaterIF97_ph.density_Unique13(
+ circulating_water_source.state_out);
+ // end of extends
+
+ // Component circulating_water_sink
+ // class MetroscopeModelingLibrary.WaterSteam.BoundaryConditions.Sink
+ // extends MetroscopeModelingLibrary.Partial.BoundaryConditions.FluidSink
+ equation
+ circulating_water_sink.C_in.P = circulating_water_sink.P_in;
+ circulating_water_sink.C_in.Q = circulating_water_sink.Q_in;
+ inStream(circulating_water_sink.C_in.h_outflow) = circulating_water_sink.h_in;
+ inStream(circulating_water_sink.C_in.Xi_outflow) = circulating_water_sink.Xi_in;
+ circulating_water_sink.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (circulating_water_sink.P_in, circulating_water_sink.h_in,
+ circulating_water_sink.Xi_in, 0, 0);
+ circulating_water_sink.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ circulating_water_sink.state_in);
+ circulating_water_sink.Qv_in = circulating_water_sink.Q_in/
+ Modelica.Media.Water.WaterIF97_ph.density_Unique13(
+ circulating_water_sink.state_in);
+ circulating_water_sink.C_in.h_outflow = 0;
+ circulating_water_sink.C_in.Xi_outflow = zeros(0);
+ // end of extends
+
+ // Component pump
+ // class MetroscopeModelingLibrary.WaterSteam.Machines.FixedSpeedPump
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ pump.h_in = inStream(pump.C_in.h_outflow);
+ pump.h_out = pump.C_out.h_outflow;
+ pump.Q = pump.C_in.Q;
+ pump.P_in = pump.C_in.P;
+ pump.P_out = pump.C_out.P;
+ pump.Xi = inStream(pump.C_in.Xi_outflow);
+ pump.C_in.h_outflow = 1000000.0;
+ pump.C_in.Xi_outflow = zeros(0);
+ pump.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8(
+ pump.P_in, pump.h_in, pump.Xi, 0, 0);
+ pump.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8(
+ pump.P_out, pump.h_out, pump.Xi, 0, 0);
+ pump.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12(
+ pump.state_in);
+ pump.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12(
+ pump.state_out);
+ pump.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13(
+ pump.state_in);
+ pump.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13(
+ pump.state_out);
+ pump.rho = (pump.rho_in+pump.rho_out)/2;
+ pump.Qv_in = pump.Q/pump.rho_in;
+ pump.Qv_out = -pump.Q/pump.rho_out;
+ pump.Qv = (pump.Qv_in-pump.Qv_out)/2;
+ pump.P_out-pump.P_in = pump.DP;
+ pump.Q*(pump.h_out-pump.h_in) = pump.W;
+ pump.h_out-pump.h_in = pump.DH;
+ pump.T_out-pump.T_in = pump.DT;
+ pump.C_in.Q+pump.C_out.Q = 0;
+ pump.C_out.Xi_outflow = inStream(pump.C_in.Xi_outflow);
+ assert(pump.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.Machines.FixedSpeedPump
+ equation
+ pump.DP = pump.rho*9.80665*pump.hn;
+ pump.DH = 9.80665*pump.hn/pump.rh;
+ // end of extends
+
+ // Component T_pump_out_sensor.flow_model
+ // class MetroscopeModelingLibrary.WaterSteam.BaseClasses.IsoPHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ T_pump_out_sensor.flow_model.h_in = inStream(T_pump_out_sensor.flow_model.C_in.h_outflow);
+ T_pump_out_sensor.flow_model.h_out = T_pump_out_sensor.flow_model.C_out.h_outflow;
+ T_pump_out_sensor.flow_model.Q = T_pump_out_sensor.flow_model.C_in.Q;
+ T_pump_out_sensor.flow_model.P_in = T_pump_out_sensor.flow_model.C_in.P;
+ T_pump_out_sensor.flow_model.P_out = T_pump_out_sensor.flow_model.C_out.P;
+ T_pump_out_sensor.flow_model.Xi = inStream(T_pump_out_sensor.flow_model.C_in.Xi_outflow);
+ T_pump_out_sensor.flow_model.C_in.h_outflow = 1000000.0;
+ T_pump_out_sensor.flow_model.C_in.Xi_outflow = zeros(0);
+ T_pump_out_sensor.flow_model.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (T_pump_out_sensor.flow_model.P_in, T_pump_out_sensor.flow_model.h_in,
+ T_pump_out_sensor.flow_model.Xi, 0, 0);
+ T_pump_out_sensor.flow_model.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (T_pump_out_sensor.flow_model.P_out, T_pump_out_sensor.flow_model.h_out,
+ T_pump_out_sensor.flow_model.Xi, 0, 0);
+ T_pump_out_sensor.flow_model.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ T_pump_out_sensor.flow_model.state_in);
+ T_pump_out_sensor.flow_model.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ T_pump_out_sensor.flow_model.state_out);
+ T_pump_out_sensor.flow_model.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ T_pump_out_sensor.flow_model.state_in);
+ T_pump_out_sensor.flow_model.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ T_pump_out_sensor.flow_model.state_out);
+ T_pump_out_sensor.flow_model.rho = (T_pump_out_sensor.flow_model.rho_in+
+ T_pump_out_sensor.flow_model.rho_out)/2;
+ T_pump_out_sensor.flow_model.Qv_in = T_pump_out_sensor.flow_model.Q/
+ T_pump_out_sensor.flow_model.rho_in;
+ T_pump_out_sensor.flow_model.Qv_out = -T_pump_out_sensor.flow_model.Q/
+ T_pump_out_sensor.flow_model.rho_out;
+ T_pump_out_sensor.flow_model.Qv = (T_pump_out_sensor.flow_model.Qv_in-
+ T_pump_out_sensor.flow_model.Qv_out)/2;
+ T_pump_out_sensor.flow_model.P_out-T_pump_out_sensor.flow_model.P_in =
+ T_pump_out_sensor.flow_model.DP;
+ T_pump_out_sensor.flow_model.Q*(T_pump_out_sensor.flow_model.h_out-
+ T_pump_out_sensor.flow_model.h_in) = T_pump_out_sensor.flow_model.W;
+ T_pump_out_sensor.flow_model.h_out-T_pump_out_sensor.flow_model.h_in =
+ T_pump_out_sensor.flow_model.DH;
+ T_pump_out_sensor.flow_model.T_out-T_pump_out_sensor.flow_model.T_in =
+ T_pump_out_sensor.flow_model.DT;
+ T_pump_out_sensor.flow_model.C_in.Q+T_pump_out_sensor.flow_model.C_out.Q
+ = 0;
+ T_pump_out_sensor.flow_model.C_out.Xi_outflow = inStream(T_pump_out_sensor.flow_model.C_in.Xi_outflow);
+ assert(T_pump_out_sensor.flow_model.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPHFlowModel
+ equation
+ T_pump_out_sensor.flow_model.P = T_pump_out_sensor.flow_model.P_in;
+ T_pump_out_sensor.flow_model.h = T_pump_out_sensor.flow_model.h_in;
+ T_pump_out_sensor.flow_model.T = T_pump_out_sensor.flow_model.T_in;
+ T_pump_out_sensor.flow_model.DP = 0;
+ T_pump_out_sensor.flow_model.DH = 0;
+ // end of extends
+
+ // Component T_pump_out_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.WaterSteam.TemperatureSensor
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.BaseSensor
+ equation
+ if ( not T_pump_out_sensor.faulty_flow_rate) then
+ T_pump_out_sensor.mass_flow_rate_bias = 0;
+ end if;
+ T_pump_out_sensor.P = T_pump_out_sensor.C_in.P;
+ T_pump_out_sensor.Q = T_pump_out_sensor.C_in.Q+T_pump_out_sensor.mass_flow_rate_bias;
+ T_pump_out_sensor.Xi = inStream(T_pump_out_sensor.C_in.Xi_outflow);
+ T_pump_out_sensor.h = inStream(T_pump_out_sensor.C_in.h_outflow);
+ T_pump_out_sensor.state = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (T_pump_out_sensor.P, T_pump_out_sensor.h, T_pump_out_sensor.Xi, 0, 0);
+ assert(T_pump_out_sensor.Q > 0, "Wrong flow sign in inline sensor. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.TemperatureSensor
+ equation
+ T_pump_out_sensor.T = T_pump_out_sensor.flow_model.T;
+ T_pump_out_sensor.T_degC+273.15 = T_pump_out_sensor.T;
+ T_pump_out_sensor.T_degF = T_pump_out_sensor.T_degC*1.8+32;
+ if (T_pump_out_sensor.signal_unit == "degC") then
+ T_pump_out_sensor.T_sensor = T_pump_out_sensor.T_degC;
+ elseif (T_pump_out_sensor.signal_unit == "degF") then
+ T_pump_out_sensor.T_sensor = T_pump_out_sensor.T_degF;
+ elseif (T_pump_out_sensor.signal_unit == "K") then
+ T_pump_out_sensor.T_sensor = T_pump_out_sensor.T;
+ else
+ assert(false, "Unavailable unit selected for %name");
+ end if;
+ // end of extends
+ equation
+ T_pump_out_sensor.flow_model.C_in.P = T_pump_out_sensor.C_in.P;
+ T_pump_out_sensor.C_in.Q-T_pump_out_sensor.flow_model.C_in.Q = 0.0;
+ T_pump_out_sensor.flow_model.C_out.P = T_pump_out_sensor.C_out.P;
+ T_pump_out_sensor.C_out.Q-T_pump_out_sensor.flow_model.C_out.Q = 0.0;
+
+ // Component P_pump_out_sensor.flow_model
+ // class MetroscopeModelingLibrary.WaterSteam.BaseClasses.IsoPHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ P_pump_out_sensor.flow_model.h_in = inStream(P_pump_out_sensor.flow_model.C_in.h_outflow);
+ P_pump_out_sensor.flow_model.h_out = P_pump_out_sensor.flow_model.C_out.h_outflow;
+ P_pump_out_sensor.flow_model.Q = P_pump_out_sensor.flow_model.C_in.Q;
+ P_pump_out_sensor.flow_model.P_in = P_pump_out_sensor.flow_model.C_in.P;
+ P_pump_out_sensor.flow_model.P_out = P_pump_out_sensor.flow_model.C_out.P;
+ P_pump_out_sensor.flow_model.Xi = inStream(P_pump_out_sensor.flow_model.C_in.Xi_outflow);
+ P_pump_out_sensor.flow_model.C_in.h_outflow = 1000000.0;
+ P_pump_out_sensor.flow_model.C_in.Xi_outflow = zeros(0);
+ P_pump_out_sensor.flow_model.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (P_pump_out_sensor.flow_model.P_in, P_pump_out_sensor.flow_model.h_in,
+ P_pump_out_sensor.flow_model.Xi, 0, 0);
+ P_pump_out_sensor.flow_model.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (P_pump_out_sensor.flow_model.P_out, P_pump_out_sensor.flow_model.h_out,
+ P_pump_out_sensor.flow_model.Xi, 0, 0);
+ P_pump_out_sensor.flow_model.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ P_pump_out_sensor.flow_model.state_in);
+ P_pump_out_sensor.flow_model.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ P_pump_out_sensor.flow_model.state_out);
+ P_pump_out_sensor.flow_model.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ P_pump_out_sensor.flow_model.state_in);
+ P_pump_out_sensor.flow_model.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ P_pump_out_sensor.flow_model.state_out);
+ P_pump_out_sensor.flow_model.rho = (P_pump_out_sensor.flow_model.rho_in+
+ P_pump_out_sensor.flow_model.rho_out)/2;
+ P_pump_out_sensor.flow_model.Qv_in = P_pump_out_sensor.flow_model.Q/
+ P_pump_out_sensor.flow_model.rho_in;
+ P_pump_out_sensor.flow_model.Qv_out = -P_pump_out_sensor.flow_model.Q/
+ P_pump_out_sensor.flow_model.rho_out;
+ P_pump_out_sensor.flow_model.Qv = (P_pump_out_sensor.flow_model.Qv_in-
+ P_pump_out_sensor.flow_model.Qv_out)/2;
+ P_pump_out_sensor.flow_model.P_out-P_pump_out_sensor.flow_model.P_in =
+ P_pump_out_sensor.flow_model.DP;
+ P_pump_out_sensor.flow_model.Q*(P_pump_out_sensor.flow_model.h_out-
+ P_pump_out_sensor.flow_model.h_in) = P_pump_out_sensor.flow_model.W;
+ P_pump_out_sensor.flow_model.h_out-P_pump_out_sensor.flow_model.h_in =
+ P_pump_out_sensor.flow_model.DH;
+ P_pump_out_sensor.flow_model.T_out-P_pump_out_sensor.flow_model.T_in =
+ P_pump_out_sensor.flow_model.DT;
+ P_pump_out_sensor.flow_model.C_in.Q+P_pump_out_sensor.flow_model.C_out.Q
+ = 0;
+ P_pump_out_sensor.flow_model.C_out.Xi_outflow = inStream(P_pump_out_sensor.flow_model.C_in.Xi_outflow);
+ assert(P_pump_out_sensor.flow_model.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPHFlowModel
+ equation
+ P_pump_out_sensor.flow_model.P = P_pump_out_sensor.flow_model.P_in;
+ P_pump_out_sensor.flow_model.h = P_pump_out_sensor.flow_model.h_in;
+ P_pump_out_sensor.flow_model.T = P_pump_out_sensor.flow_model.T_in;
+ P_pump_out_sensor.flow_model.DP = 0;
+ P_pump_out_sensor.flow_model.DH = 0;
+ // end of extends
+
+ // Component P_pump_out_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.WaterSteam.PressureSensor
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.BaseSensor
+ equation
+ if ( not P_pump_out_sensor.faulty_flow_rate) then
+ P_pump_out_sensor.mass_flow_rate_bias = 0;
+ end if;
+ P_pump_out_sensor.P = P_pump_out_sensor.C_in.P;
+ P_pump_out_sensor.Q = P_pump_out_sensor.C_in.Q+P_pump_out_sensor.mass_flow_rate_bias;
+ P_pump_out_sensor.Xi = inStream(P_pump_out_sensor.C_in.Xi_outflow);
+ P_pump_out_sensor.h = inStream(P_pump_out_sensor.C_in.h_outflow);
+ P_pump_out_sensor.state = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (P_pump_out_sensor.P, P_pump_out_sensor.h, P_pump_out_sensor.Xi, 0, 0);
+ assert(P_pump_out_sensor.Q > 0, "Wrong flow sign in inline sensor. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.PressureSensor
+ equation
+ P_pump_out_sensor.P_barA = P_pump_out_sensor.P*1E-05;
+ P_pump_out_sensor.P_psiA = P_pump_out_sensor.P*0.000145038;
+ P_pump_out_sensor.P_MPaA = P_pump_out_sensor.P*1E-06;
+ P_pump_out_sensor.P_kPaA = P_pump_out_sensor.P*0.001;
+ P_pump_out_sensor.P_barG = P_pump_out_sensor.P_barA-1;
+ P_pump_out_sensor.P_psiG = P_pump_out_sensor.P_psiA-14.50377377;
+ P_pump_out_sensor.P_MPaG = P_pump_out_sensor.P_MPaA-0.1;
+ P_pump_out_sensor.P_kPaG = P_pump_out_sensor.P_kPaA-100;
+ P_pump_out_sensor.P_mbar = P_pump_out_sensor.P*0.01;
+ P_pump_out_sensor.P_inHg = P_pump_out_sensor.P*0.0002953006;
+ if (P_pump_out_sensor.signal_unit == "barA") then
+ P_pump_out_sensor.P_sensor = P_pump_out_sensor.P_barA;
+ elseif (P_pump_out_sensor.signal_unit == "barG") then
+ P_pump_out_sensor.P_sensor = P_pump_out_sensor.P_barG;
+ elseif (P_pump_out_sensor.signal_unit == "mbar") then
+ P_pump_out_sensor.P_sensor = P_pump_out_sensor.P_mbar;
+ elseif (P_pump_out_sensor.signal_unit == "MPaA") then
+ P_pump_out_sensor.P_sensor = P_pump_out_sensor.P_MPaA;
+ elseif (P_pump_out_sensor.signal_unit == "kPaA") then
+ P_pump_out_sensor.P_sensor = P_pump_out_sensor.P_kPaA;
+ else
+ P_pump_out_sensor.P_sensor = P_pump_out_sensor.P;
+ end if;
+ // end of extends
+ equation
+ P_pump_out_sensor.flow_model.C_in.P = P_pump_out_sensor.C_in.P;
+ P_pump_out_sensor.C_in.Q-P_pump_out_sensor.flow_model.C_in.Q = 0.0;
+ P_pump_out_sensor.flow_model.C_out.P = P_pump_out_sensor.C_out.P;
+ P_pump_out_sensor.C_out.Q-P_pump_out_sensor.flow_model.C_out.Q = 0.0;
+
+ // Component loopBreaker
+ // class MetroscopeModelingLibrary.WaterSteam.Pipes.LoopBreaker
+ // extends MetroscopeModelingLibrary.Partial.Pipes.LoopBreaker
+ equation
+ loopBreaker.C_in.P = loopBreaker.C_out.P;
+ inStream(loopBreaker.C_in.h_outflow) = loopBreaker.C_out.h_outflow;
+ loopBreaker.C_in.h_outflow = 0;
+ inStream(loopBreaker.C_in.Xi_outflow) = loopBreaker.C_out.Xi_outflow;
+ loopBreaker.C_in.Xi_outflow = zeros(0);
+ loopBreaker.C_in.Q+loopBreaker.C_out.Q = loopBreaker.loop_flow_error;
+ // end of extends
+
+ // Component Q_pump_out_sensor.flow_model
+ // class MetroscopeModelingLibrary.WaterSteam.BaseClasses.IsoPHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ Q_pump_out_sensor.flow_model.h_in = inStream(Q_pump_out_sensor.flow_model.C_in.h_outflow);
+ Q_pump_out_sensor.flow_model.h_out = Q_pump_out_sensor.flow_model.C_out.h_outflow;
+ Q_pump_out_sensor.flow_model.Q = Q_pump_out_sensor.flow_model.C_in.Q;
+ Q_pump_out_sensor.flow_model.P_in = Q_pump_out_sensor.flow_model.C_in.P;
+ Q_pump_out_sensor.flow_model.P_out = Q_pump_out_sensor.flow_model.C_out.P;
+ Q_pump_out_sensor.flow_model.Xi = inStream(Q_pump_out_sensor.flow_model.C_in.Xi_outflow);
+ Q_pump_out_sensor.flow_model.C_in.h_outflow = 1000000.0;
+ Q_pump_out_sensor.flow_model.C_in.Xi_outflow = zeros(0);
+ Q_pump_out_sensor.flow_model.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (Q_pump_out_sensor.flow_model.P_in, Q_pump_out_sensor.flow_model.h_in,
+ Q_pump_out_sensor.flow_model.Xi, 0, 0);
+ Q_pump_out_sensor.flow_model.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (Q_pump_out_sensor.flow_model.P_out, Q_pump_out_sensor.flow_model.h_out,
+ Q_pump_out_sensor.flow_model.Xi, 0, 0);
+ Q_pump_out_sensor.flow_model.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ Q_pump_out_sensor.flow_model.state_in);
+ Q_pump_out_sensor.flow_model.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ Q_pump_out_sensor.flow_model.state_out);
+ Q_pump_out_sensor.flow_model.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ Q_pump_out_sensor.flow_model.state_in);
+ Q_pump_out_sensor.flow_model.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ Q_pump_out_sensor.flow_model.state_out);
+ Q_pump_out_sensor.flow_model.rho = (Q_pump_out_sensor.flow_model.rho_in+
+ Q_pump_out_sensor.flow_model.rho_out)/2;
+ Q_pump_out_sensor.flow_model.Qv_in = Q_pump_out_sensor.flow_model.Q/
+ Q_pump_out_sensor.flow_model.rho_in;
+ Q_pump_out_sensor.flow_model.Qv_out = -Q_pump_out_sensor.flow_model.Q/
+ Q_pump_out_sensor.flow_model.rho_out;
+ Q_pump_out_sensor.flow_model.Qv = (Q_pump_out_sensor.flow_model.Qv_in-
+ Q_pump_out_sensor.flow_model.Qv_out)/2;
+ Q_pump_out_sensor.flow_model.P_out-Q_pump_out_sensor.flow_model.P_in =
+ Q_pump_out_sensor.flow_model.DP;
+ Q_pump_out_sensor.flow_model.Q*(Q_pump_out_sensor.flow_model.h_out-
+ Q_pump_out_sensor.flow_model.h_in) = Q_pump_out_sensor.flow_model.W;
+ Q_pump_out_sensor.flow_model.h_out-Q_pump_out_sensor.flow_model.h_in =
+ Q_pump_out_sensor.flow_model.DH;
+ Q_pump_out_sensor.flow_model.T_out-Q_pump_out_sensor.flow_model.T_in =
+ Q_pump_out_sensor.flow_model.DT;
+ Q_pump_out_sensor.flow_model.C_in.Q+Q_pump_out_sensor.flow_model.C_out.Q
+ = 0;
+ Q_pump_out_sensor.flow_model.C_out.Xi_outflow = inStream(Q_pump_out_sensor.flow_model.C_in.Xi_outflow);
+ assert(Q_pump_out_sensor.flow_model.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPHFlowModel
+ equation
+ Q_pump_out_sensor.flow_model.P = Q_pump_out_sensor.flow_model.P_in;
+ Q_pump_out_sensor.flow_model.h = Q_pump_out_sensor.flow_model.h_in;
+ Q_pump_out_sensor.flow_model.T = Q_pump_out_sensor.flow_model.T_in;
+ Q_pump_out_sensor.flow_model.DP = 0;
+ Q_pump_out_sensor.flow_model.DH = 0;
+ // end of extends
+
+ // Component Q_pump_out_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.WaterSteam.FlowSensor
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.BaseSensor
+ equation
+ if ( not Q_pump_out_sensor.faulty_flow_rate) then
+ Q_pump_out_sensor.mass_flow_rate_bias = 0;
+ end if;
+ Q_pump_out_sensor.P = Q_pump_out_sensor.C_in.P;
+ Q_pump_out_sensor.Q = Q_pump_out_sensor.C_in.Q+Q_pump_out_sensor.mass_flow_rate_bias;
+ Q_pump_out_sensor.Xi = inStream(Q_pump_out_sensor.C_in.Xi_outflow);
+ Q_pump_out_sensor.h = inStream(Q_pump_out_sensor.C_in.h_outflow);
+ Q_pump_out_sensor.state = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (Q_pump_out_sensor.P, Q_pump_out_sensor.h, Q_pump_out_sensor.Xi, 0, 0);
+ assert(Q_pump_out_sensor.Q > 0, "Wrong flow sign in inline sensor. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.FlowSensor
+ equation
+ Q_pump_out_sensor.Qv = Q_pump_out_sensor.Q/Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ Q_pump_out_sensor.state);
+ Q_pump_out_sensor.Q_lm = Q_pump_out_sensor.Qv*60000;
+ Q_pump_out_sensor.Q_th = Q_pump_out_sensor.Q*3.6;
+ Q_pump_out_sensor.Q_lbs = Q_pump_out_sensor.Q*2.2046;
+ Q_pump_out_sensor.Q_Mlbh = Q_pump_out_sensor.Q*0.0079366414387;
+ if (Q_pump_out_sensor.signal_unit == "l/m") then
+ Q_pump_out_sensor.Q_sensor = Q_pump_out_sensor.Q_lm;
+ elseif (Q_pump_out_sensor.signal_unit == "t/h") then
+ Q_pump_out_sensor.Q_sensor = Q_pump_out_sensor.Q_th;
+ else
+ Q_pump_out_sensor.Q_sensor = Q_pump_out_sensor.Q;
+ end if;
+ // end of extends
+ equation
+ Q_pump_out_sensor.flow_model.C_in.P = Q_pump_out_sensor.C_in.P;
+ Q_pump_out_sensor.C_in.Q-Q_pump_out_sensor.flow_model.C_in.Q = 0.0;
+ Q_pump_out_sensor.flow_model.C_out.P = Q_pump_out_sensor.C_out.P;
+ Q_pump_out_sensor.C_out.Q-Q_pump_out_sensor.flow_model.C_out.Q = 0.0;
+
+ // Component airCompressor
+ // class MetroscopeModelingLibrary.FlueGases.Machines.AirCompressor
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ airCompressor.h_in = inStream(airCompressor.C_in.h_outflow);
+ airCompressor.h_out = airCompressor.C_out.h_outflow;
+ airCompressor.Q = airCompressor.C_in.Q;
+ airCompressor.P_in = airCompressor.C_in.P;
+ airCompressor.P_out = airCompressor.C_out.P;
+ airCompressor.Xi = inStream(airCompressor.C_in.Xi_outflow);
+ airCompressor.C_in.h_outflow = 1000000.0;
+ airCompressor.C_in.Xi_outflow = zeros(5);
+ airCompressor.state_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (airCompressor.P_in, airCompressor.h_in, airCompressor.Xi);
+ airCompressor.state_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (airCompressor.P_out, airCompressor.h_out, airCompressor.Xi);
+ airCompressor.T_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ airCompressor.state_in);
+ airCompressor.T_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ airCompressor.state_out);
+ airCompressor.rho_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ airCompressor.state_in);
+ airCompressor.rho_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ airCompressor.state_out);
+ airCompressor.rho = (airCompressor.rho_in+airCompressor.rho_out)/2;
+ airCompressor.Qv_in = airCompressor.Q/airCompressor.rho_in;
+ airCompressor.Qv_out = -airCompressor.Q/airCompressor.rho_out;
+ airCompressor.Qv = (airCompressor.Qv_in-airCompressor.Qv_out)/2;
+ airCompressor.P_out-airCompressor.P_in = airCompressor.DP;
+ airCompressor.Q*(airCompressor.h_out-airCompressor.h_in) = airCompressor.W;
+ airCompressor.h_out-airCompressor.h_in = airCompressor.DH;
+ airCompressor.T_out-airCompressor.T_in = airCompressor.DT;
+ airCompressor.C_in.Q+airCompressor.C_out.Q = 0;
+ airCompressor.C_out.Xi_outflow = inStream(airCompressor.C_in.Xi_outflow);
+ assert(airCompressor.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // end of extends
+ equation
+ if ( not airCompressor.faulty) then
+ airCompressor.eta_is_decrease = 0;
+ airCompressor.tau_decrease = 0;
+ end if;
+ airCompressor.tau*(1-airCompressor.tau_decrease/100) = airCompressor.P_out/
+ airCompressor.P_in;
+ airCompressor.DH*airCompressor.eta_is*(1-airCompressor.eta_is_decrease/100)
+ = airCompressor.h_is-airCompressor.h_in;
+ airCompressor.C_W_in.W = airCompressor.W;
+ airCompressor.state_is = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_psX_Unique35
+ (airCompressor.P_out, MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.specificEntropy_Unique41
+ (
+ airCompressor.state_in), airCompressor.Xi);
+ airCompressor.h_is = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.specificEnthalpy_Unique42
+ (
+ airCompressor.state_is);
+ airCompressor.Q_reduced = airCompressor.Q*sqrt(airCompressor.T_in)/
+ airCompressor.P_in;
+
+ // Component gasTurbine
+ // class MetroscopeModelingLibrary.FlueGases.Machines.GasTurbine
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ gasTurbine.h_in = inStream(gasTurbine.C_in.h_outflow);
+ gasTurbine.h_out = gasTurbine.C_out.h_outflow;
+ gasTurbine.Q = gasTurbine.C_in.Q;
+ gasTurbine.P_in = gasTurbine.C_in.P;
+ gasTurbine.P_out = gasTurbine.C_out.P;
+ gasTurbine.Xi = inStream(gasTurbine.C_in.Xi_outflow);
+ gasTurbine.C_in.h_outflow = 1000000.0;
+ gasTurbine.C_in.Xi_outflow = zeros(5);
+ gasTurbine.state_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (gasTurbine.P_in, gasTurbine.h_in, gasTurbine.Xi);
+ gasTurbine.state_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (gasTurbine.P_out, gasTurbine.h_out, gasTurbine.Xi);
+ gasTurbine.T_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ gasTurbine.state_in);
+ gasTurbine.T_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ gasTurbine.state_out);
+ gasTurbine.rho_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ gasTurbine.state_in);
+ gasTurbine.rho_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ gasTurbine.state_out);
+ gasTurbine.rho = (gasTurbine.rho_in+gasTurbine.rho_out)/2;
+ gasTurbine.Qv_in = gasTurbine.Q/gasTurbine.rho_in;
+ gasTurbine.Qv_out = -gasTurbine.Q/gasTurbine.rho_out;
+ gasTurbine.Qv = (gasTurbine.Qv_in-gasTurbine.Qv_out)/2;
+ gasTurbine.P_out-gasTurbine.P_in = gasTurbine.DP;
+ gasTurbine.Q*(gasTurbine.h_out-gasTurbine.h_in) = gasTurbine.W;
+ gasTurbine.h_out-gasTurbine.h_in = gasTurbine.DH;
+ gasTurbine.T_out-gasTurbine.T_in = gasTurbine.DT;
+ gasTurbine.C_in.Q+gasTurbine.C_out.Q = 0;
+ gasTurbine.C_out.Xi_outflow = inStream(gasTurbine.C_in.Xi_outflow);
+ assert(gasTurbine.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // end of extends
+ equation
+ if ( not gasTurbine.faulty) then
+ gasTurbine.eta_is_decrease = 0;
+ end if;
+ gasTurbine.tau = gasTurbine.P_in/gasTurbine.P_out;
+ gasTurbine.DH = gasTurbine.eta_is*(1-gasTurbine.eta_is_decrease/100)*(
+ gasTurbine.h_is-gasTurbine.h_in);
+ gasTurbine.W_shaft = -gasTurbine.C_W_shaft.W;
+ gasTurbine.W_shaft = -gasTurbine.eta_mech*gasTurbine.W;
+ gasTurbine.state_is = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_psX_Unique35
+ (gasTurbine.P_out, MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.specificEntropy_Unique41
+ (
+ gasTurbine.state_in), gasTurbine.Xi);
+ gasTurbine.h_is = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.specificEnthalpy_Unique42
+ (
+ gasTurbine.state_is);
+
+ // Component sink_power
+ // class MetroscopeModelingLibrary.Power.BoundaryConditions.Sink
+ equation
+ sink_power.W_in = sink_power.C_in.W;
+
+ // Component combustionChamber.sink_fuel
+ // class MetroscopeModelingLibrary.Fuel.BoundaryConditions.Sink
+ // extends MetroscopeModelingLibrary.Partial.BoundaryConditions.FluidSink
+ equation
+ combustionChamber.sink_fuel.C_in.P = combustionChamber.sink_fuel.P_in;
+ combustionChamber.sink_fuel.C_in.Q = combustionChamber.sink_fuel.Q_in;
+ inStream(combustionChamber.sink_fuel.C_in.h_outflow) = combustionChamber.sink_fuel.h_in;
+ inStream(combustionChamber.sink_fuel.C_in.Xi_outflow) = combustionChamber.sink_fuel.Xi_in;
+ combustionChamber.sink_fuel.state_in = MetroscopeModelingLibrary.Utilities.Media.FuelMedium.setState_phX_Unique43
+ (combustionChamber.sink_fuel.P_in, combustionChamber.sink_fuel.h_in,
+ combustionChamber.sink_fuel.Xi_in);
+ combustionChamber.sink_fuel.T_in = MetroscopeModelingLibrary.Utilities.Media.FuelMedium.temperature_Unique48
+ (
+ combustionChamber.sink_fuel.state_in);
+ combustionChamber.sink_fuel.Qv_in = combustionChamber.sink_fuel.Q_in/
+ MetroscopeModelingLibrary.Utilities.Media.FuelMedium.density_Unique49(
+ combustionChamber.sink_fuel.state_in);
+ combustionChamber.sink_fuel.C_in.h_outflow = 0;
+ combustionChamber.sink_fuel.C_in.Xi_outflow = zeros(6);
+ // end of extends
+
+ // Component combustionChamber.source_exhaust
+ // class MetroscopeModelingLibrary.FlueGases.BoundaryConditions.Source
+ // extends MetroscopeModelingLibrary.Partial.BoundaryConditions.FluidSource
+ equation
+ combustionChamber.source_exhaust.C_out.P = combustionChamber.source_exhaust.P_out;
+ combustionChamber.source_exhaust.C_out.Q = combustionChamber.source_exhaust.Q_out;
+ combustionChamber.source_exhaust.C_out.h_outflow = combustionChamber.source_exhaust.h_out;
+ combustionChamber.source_exhaust.C_out.Xi_outflow = combustionChamber.source_exhaust.Xi_out;
+ combustionChamber.source_exhaust.state_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (combustionChamber.source_exhaust.P_out, combustionChamber.source_exhaust.h_out,
+ combustionChamber.source_exhaust.Xi_out);
+ combustionChamber.source_exhaust.T_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ combustionChamber.source_exhaust.state_out);
+ combustionChamber.source_exhaust.Qv_out = combustionChamber.source_exhaust.Q_out
+ /MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ combustionChamber.source_exhaust.state_out);
+ // end of extends
+
+ // Component combustionChamber.sink_air
+ // class MetroscopeModelingLibrary.FlueGases.BoundaryConditions.Sink
+ // extends MetroscopeModelingLibrary.Partial.BoundaryConditions.FluidSink
+ equation
+ combustionChamber.sink_air.C_in.P = combustionChamber.sink_air.P_in;
+ combustionChamber.sink_air.C_in.Q = combustionChamber.sink_air.Q_in;
+ inStream(combustionChamber.sink_air.C_in.h_outflow) = combustionChamber.sink_air.h_in;
+ inStream(combustionChamber.sink_air.C_in.Xi_outflow) = combustionChamber.sink_air.Xi_in;
+ combustionChamber.sink_air.state_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (combustionChamber.sink_air.P_in, combustionChamber.sink_air.h_in,
+ combustionChamber.sink_air.Xi_in);
+ combustionChamber.sink_air.T_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ combustionChamber.sink_air.state_in);
+ combustionChamber.sink_air.Qv_in = combustionChamber.sink_air.Q_in/
+ MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ combustionChamber.sink_air.state_in);
+ combustionChamber.sink_air.C_in.h_outflow = 0;
+ combustionChamber.sink_air.C_in.Xi_outflow = zeros(5);
+ // end of extends
+
+ // Component combustionChamber.pressure_loss
+ // class MetroscopeModelingLibrary.FlueGases.Pipes.FrictionPipe
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ combustionChamber.pressure_loss.h_in = inStream(combustionChamber.pressure_loss.C_in.h_outflow);
+ combustionChamber.pressure_loss.h_out = combustionChamber.pressure_loss.C_out.h_outflow;
+ combustionChamber.pressure_loss.Q = combustionChamber.pressure_loss.C_in.Q;
+ combustionChamber.pressure_loss.P_in = combustionChamber.pressure_loss.C_in.P;
+ combustionChamber.pressure_loss.P_out = combustionChamber.pressure_loss.C_out.P;
+ combustionChamber.pressure_loss.Xi = inStream(combustionChamber.pressure_loss.C_in.Xi_outflow);
+ combustionChamber.pressure_loss.C_in.h_outflow = 1000000.0;
+ combustionChamber.pressure_loss.C_in.Xi_outflow = zeros(5);
+ combustionChamber.pressure_loss.state_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (combustionChamber.pressure_loss.P_in, combustionChamber.pressure_loss.h_in,
+ combustionChamber.pressure_loss.Xi);
+ combustionChamber.pressure_loss.state_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (combustionChamber.pressure_loss.P_out, combustionChamber.pressure_loss.h_out,
+ combustionChamber.pressure_loss.Xi);
+ combustionChamber.pressure_loss.T_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ combustionChamber.pressure_loss.state_in);
+ combustionChamber.pressure_loss.T_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ combustionChamber.pressure_loss.state_out);
+ combustionChamber.pressure_loss.rho_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ combustionChamber.pressure_loss.state_in);
+ combustionChamber.pressure_loss.rho_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ combustionChamber.pressure_loss.state_out);
+ combustionChamber.pressure_loss.rho = (combustionChamber.pressure_loss.rho_in
+ +combustionChamber.pressure_loss.rho_out)/2;
+ combustionChamber.pressure_loss.Qv_in = combustionChamber.pressure_loss.Q/
+ combustionChamber.pressure_loss.rho_in;
+ combustionChamber.pressure_loss.Qv_out = -combustionChamber.pressure_loss.Q
+ /combustionChamber.pressure_loss.rho_out;
+ combustionChamber.pressure_loss.Qv = (combustionChamber.pressure_loss.Qv_in
+ -combustionChamber.pressure_loss.Qv_out)/2;
+ combustionChamber.pressure_loss.P_out-combustionChamber.pressure_loss.P_in
+ = combustionChamber.pressure_loss.DP;
+ combustionChamber.pressure_loss.Q*(combustionChamber.pressure_loss.h_out-
+ combustionChamber.pressure_loss.h_in) = combustionChamber.pressure_loss.W;
+ combustionChamber.pressure_loss.h_out-combustionChamber.pressure_loss.h_in
+ = combustionChamber.pressure_loss.DH;
+ combustionChamber.pressure_loss.T_out-combustionChamber.pressure_loss.T_in
+ = combustionChamber.pressure_loss.DT;
+ combustionChamber.pressure_loss.C_in.Q+combustionChamber.pressure_loss.C_out.Q
+ = 0;
+ combustionChamber.pressure_loss.C_out.Xi_outflow = inStream(
+ combustionChamber.pressure_loss.C_in.Xi_outflow);
+ assert(combustionChamber.pressure_loss.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoHFlowModel
+ equation
+ combustionChamber.pressure_loss.h = combustionChamber.pressure_loss.h_in;
+ combustionChamber.pressure_loss.DH = 0;
+ // extends MetroscopeModelingLibrary.Partial.Pipes.FrictionPipe
+ equation
+ if ( not combustionChamber.pressure_loss.faulty) then
+ combustionChamber.pressure_loss.fouling = 0;
+ end if;
+ combustionChamber.pressure_loss.DP = -(1+combustionChamber.pressure_loss.fouling
+ /100)*combustionChamber.pressure_loss.Kfr*combustionChamber.pressure_loss.Q
+ *abs(combustionChamber.pressure_loss.Q)/combustionChamber.pressure_loss.rho_in;
+ // end of extends
+
+ // Component combustionChamber
+ // class MetroscopeModelingLibrary.MultiFluid.Machines.CombustionChamber
+ equation
+ combustionChamber.Q_air = combustionChamber.sink_air.Q_in;
+ combustionChamber.Q_fuel = combustionChamber.sink_fuel.Q_in;
+ combustionChamber.Q_exhaust = -combustionChamber.source_exhaust.Q_out;
+ combustionChamber.h_in_air = combustionChamber.sink_air.h_in;
+ combustionChamber.h_in_fuel = combustionChamber.sink_fuel.h_in;
+ combustionChamber.h_exhaust = combustionChamber.source_exhaust.h_out;
+ combustionChamber.X_in_N2 = combustionChamber.sink_air.Xi_in[1];
+ combustionChamber.X_in_O2 = combustionChamber.sink_air.Xi_in[2];
+ combustionChamber.X_in_H2O = combustionChamber.sink_air.Xi_in[3];
+ combustionChamber.X_in_CO2 = combustionChamber.sink_air.Xi_in[4];
+ combustionChamber.X_in_SO2 = combustionChamber.sink_air.Xi_in[5];
+ combustionChamber.X_fuel_CH4 = combustionChamber.sink_fuel.Xi_in[1];
+ combustionChamber.X_fuel_C2H6 = combustionChamber.sink_fuel.Xi_in[2];
+ combustionChamber.X_fuel_C3H8 = combustionChamber.sink_fuel.Xi_in[3];
+ combustionChamber.X_fuel_C4H10_n_butane = combustionChamber.sink_fuel.Xi_in[4];
+ combustionChamber.X_fuel_N2 = combustionChamber.sink_fuel.Xi_in[5];
+ combustionChamber.X_fuel_CO2 = combustionChamber.sink_fuel.Xi_in[6];
+ combustionChamber.X_out_N2 = combustionChamber.source_exhaust.Xi_out[1];
+ combustionChamber.X_out_O2 = combustionChamber.source_exhaust.Xi_out[2];
+ combustionChamber.X_out_H2O = combustionChamber.source_exhaust.Xi_out[3];
+ combustionChamber.X_out_CO2 = combustionChamber.source_exhaust.Xi_out[4];
+ combustionChamber.X_out_SO2 = combustionChamber.source_exhaust.Xi_out[5];
+ combustionChamber.Q_exhaust = combustionChamber.Q_air+combustionChamber.Q_fuel;
+ combustionChamber.sink_air.P_in-combustionChamber.source_exhaust.P_out = 0;
+ combustionChamber.Wth = combustionChamber.eta*combustionChamber.Q_fuel*
+ combustionChamber.LHV;
+ combustionChamber.Q_exhaust*combustionChamber.h_exhaust = combustionChamber.Q_air
+ *combustionChamber.h_in_air+combustionChamber.Q_fuel*combustionChamber.h_in_fuel
+ +combustionChamber.Wth;
+ combustionChamber.X_fuel_C = 12.0106*(combustionChamber.X_fuel_CH4/16.04252+2
+ *combustionChamber.X_fuel_C2H6/30.06908+3*combustionChamber.X_fuel_C3H8/
+ 44.09564+4*combustionChamber.X_fuel_C4H10_n_butane/58.1222+
+ combustionChamber.X_fuel_CO2/44.0094);
+ combustionChamber.X_fuel_H = 1.00798*(4*combustionChamber.X_fuel_CH4/
+ 16.04252+6*combustionChamber.X_fuel_C2H6/30.06908+8*combustionChamber.X_fuel_C3H8
+ /44.09564+10*combustionChamber.X_fuel_C4H10_n_butane/58.1222);
+ combustionChamber.X_fuel_O = 31.9988*combustionChamber.X_fuel_CO2/44.0094;
+ ( -combustionChamber.Q_exhaust*combustionChamber.X_out_N2)+combustionChamber.Q_air
+ *combustionChamber.X_in_N2+combustionChamber.Q_fuel*combustionChamber.X_fuel_N2
+ = 0;
+ ( -combustionChamber.Q_exhaust*combustionChamber.X_out_O2)+combustionChamber.Q_air
+ *combustionChamber.X_in_O2+combustionChamber.Q_fuel*combustionChamber.X_fuel_O
+ *0.5 = combustionChamber.Q_fuel*15.9994*(2*combustionChamber.X_fuel_C/
+ 12.0106+0.5*combustionChamber.X_fuel_H/1.00798);
+ ( -combustionChamber.Q_exhaust*combustionChamber.X_out_H2O)+combustionChamber.Q_air
+ *combustionChamber.X_in_H2O = -combustionChamber.Q_fuel*(0.5*
+ combustionChamber.X_fuel_H/1.00798)*18.01536;
+ ( -combustionChamber.Q_exhaust*combustionChamber.X_out_CO2)+combustionChamber.Q_air
+ *combustionChamber.X_in_CO2 = -combustionChamber.Q_fuel*combustionChamber.X_fuel_C
+ *44.0094/12.0106;
+ ( -combustionChamber.Q_exhaust*combustionChamber.X_out_SO2)+combustionChamber.Q_air
+ *combustionChamber.X_in_SO2 = 0;
+ combustionChamber.pressure_loss.Kfr = combustionChamber.Kfr;
+ combustionChamber.sink_air.C_in.P = combustionChamber.inlet.P;
+ combustionChamber.inlet.Q-combustionChamber.sink_air.C_in.Q = 0.0;
+ combustionChamber.sink_fuel.C_in.P = combustionChamber.inlet1.P;
+ combustionChamber.inlet1.Q-combustionChamber.sink_fuel.C_in.Q = 0.0;
+ combustionChamber.pressure_loss.C_out.P = combustionChamber.outlet.P;
+ combustionChamber.outlet.Q-combustionChamber.pressure_loss.C_out.Q = 0.0;
+ combustionChamber.source_exhaust.C_out.P = combustionChamber.pressure_loss.C_in.P;
+ combustionChamber.pressure_loss.C_in.Q+combustionChamber.source_exhaust.C_out.Q
+ = 0.0;
+
+ // Component source_fuel
+ // class MetroscopeModelingLibrary.Fuel.BoundaryConditions.Source
+ // extends MetroscopeModelingLibrary.Partial.BoundaryConditions.FluidSource
+ equation
+ source_fuel.C_out.P = source_fuel.P_out;
+ source_fuel.C_out.Q = source_fuel.Q_out;
+ source_fuel.C_out.h_outflow = source_fuel.h_out;
+ source_fuel.C_out.Xi_outflow = source_fuel.Xi_out;
+ source_fuel.state_out = MetroscopeModelingLibrary.Utilities.Media.FuelMedium.setState_phX_Unique43
+ (source_fuel.P_out, source_fuel.h_out, source_fuel.Xi_out);
+ source_fuel.T_out = MetroscopeModelingLibrary.Utilities.Media.FuelMedium.temperature_Unique48
+ (
+ source_fuel.state_out);
+ source_fuel.Qv_out = source_fuel.Q_out/MetroscopeModelingLibrary.Utilities.Media.FuelMedium.density_Unique49
+ (
+ source_fuel.state_out);
+ // end of extends
+ equation
+ source_fuel.amCH4 = source_fuel.amC+4*source_fuel.amH;
+ source_fuel.amC2H6 = 2*source_fuel.amC+6*source_fuel.amH;
+ source_fuel.amC3H8 = 3*source_fuel.amC+8*source_fuel.amH;
+ source_fuel.amC4H10 = 4*source_fuel.amC+10*source_fuel.amH;
+ source_fuel.amN2 = 2*source_fuel.amN;
+ source_fuel.amCO2 = source_fuel.amC+2*source_fuel.amO;
+ source_fuel.X_CH4 = source_fuel.Xi_out[1];
+ source_fuel.X_C2H6 = source_fuel.Xi_out[2];
+ source_fuel.X_C3H8 = source_fuel.Xi_out[3];
+ source_fuel.X_C4H10_n_butane = source_fuel.Xi_out[4];
+ source_fuel.X_N2 = source_fuel.Xi_out[5];
+ source_fuel.X_CO2 = source_fuel.Xi_out[6];
+ source_fuel.mean_molecular_mass = source_fuel.X_molar_CH4*source_fuel.amCH4+
+ source_fuel.X_molar_C2H6*source_fuel.amC2H6+source_fuel.X_molar_C3H8*
+ source_fuel.amC3H8+source_fuel.X_molar_C4H10_n_butane*source_fuel.amC4H10+
+ source_fuel.X_molar_N2*source_fuel.amN2+source_fuel.X_molar_CO2*
+ source_fuel.amCO2;
+ source_fuel.X_molar_CH4 = source_fuel.X_CH4/source_fuel.amCH4*
+ source_fuel.mean_molecular_mass;
+ source_fuel.X_molar_C2H6 = source_fuel.X_C2H6/source_fuel.amC2H6*
+ source_fuel.mean_molecular_mass;
+ source_fuel.X_molar_C3H8 = source_fuel.X_C3H8/source_fuel.amC3H8*
+ source_fuel.mean_molecular_mass;
+ source_fuel.X_molar_C4H10_n_butane = source_fuel.X_C4H10_n_butane/
+ source_fuel.amC4H10*source_fuel.mean_molecular_mass;
+ source_fuel.X_molar_N2 = source_fuel.X_N2/source_fuel.amN2*source_fuel.mean_molecular_mass;
+ source_fuel.X_molar_CO2 = source_fuel.X_CO2/source_fuel.amCO2*
+ source_fuel.mean_molecular_mass;
+
+ // Component compressor_P_out_sensor.flow_model
+ // class MetroscopeModelingLibrary.FlueGases.BaseClasses.IsoPHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ compressor_P_out_sensor.flow_model.h_in = inStream(compressor_P_out_sensor.flow_model.C_in.h_outflow);
+ compressor_P_out_sensor.flow_model.h_out = compressor_P_out_sensor.flow_model.C_out.h_outflow;
+ compressor_P_out_sensor.flow_model.Q = compressor_P_out_sensor.flow_model.C_in.Q;
+ compressor_P_out_sensor.flow_model.P_in = compressor_P_out_sensor.flow_model.C_in.P;
+ compressor_P_out_sensor.flow_model.P_out = compressor_P_out_sensor.flow_model.C_out.P;
+ compressor_P_out_sensor.flow_model.Xi = inStream(compressor_P_out_sensor.flow_model.C_in.Xi_outflow);
+ compressor_P_out_sensor.flow_model.C_in.h_outflow = 1000000.0;
+ compressor_P_out_sensor.flow_model.C_in.Xi_outflow = zeros(5);
+ compressor_P_out_sensor.flow_model.state_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (compressor_P_out_sensor.flow_model.P_in, compressor_P_out_sensor.flow_model.h_in,
+ compressor_P_out_sensor.flow_model.Xi);
+ compressor_P_out_sensor.flow_model.state_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (compressor_P_out_sensor.flow_model.P_out, compressor_P_out_sensor.flow_model.h_out,
+ compressor_P_out_sensor.flow_model.Xi);
+ compressor_P_out_sensor.flow_model.T_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ compressor_P_out_sensor.flow_model.state_in);
+ compressor_P_out_sensor.flow_model.T_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ compressor_P_out_sensor.flow_model.state_out);
+ compressor_P_out_sensor.flow_model.rho_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ compressor_P_out_sensor.flow_model.state_in);
+ compressor_P_out_sensor.flow_model.rho_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ compressor_P_out_sensor.flow_model.state_out);
+ compressor_P_out_sensor.flow_model.rho = (compressor_P_out_sensor.flow_model.rho_in
+ +compressor_P_out_sensor.flow_model.rho_out)/2;
+ compressor_P_out_sensor.flow_model.Qv_in = compressor_P_out_sensor.flow_model.Q
+ /compressor_P_out_sensor.flow_model.rho_in;
+ compressor_P_out_sensor.flow_model.Qv_out = -compressor_P_out_sensor.flow_model.Q
+ /compressor_P_out_sensor.flow_model.rho_out;
+ compressor_P_out_sensor.flow_model.Qv = (compressor_P_out_sensor.flow_model.Qv_in
+ -compressor_P_out_sensor.flow_model.Qv_out)/2;
+ compressor_P_out_sensor.flow_model.P_out-compressor_P_out_sensor.flow_model.P_in
+ = compressor_P_out_sensor.flow_model.DP;
+ compressor_P_out_sensor.flow_model.Q*(compressor_P_out_sensor.flow_model.h_out
+ -compressor_P_out_sensor.flow_model.h_in) = compressor_P_out_sensor.flow_model.W;
+ compressor_P_out_sensor.flow_model.h_out-compressor_P_out_sensor.flow_model.h_in
+ = compressor_P_out_sensor.flow_model.DH;
+ compressor_P_out_sensor.flow_model.T_out-compressor_P_out_sensor.flow_model.T_in
+ = compressor_P_out_sensor.flow_model.DT;
+ compressor_P_out_sensor.flow_model.C_in.Q+compressor_P_out_sensor.flow_model.C_out.Q
+ = 0;
+ compressor_P_out_sensor.flow_model.C_out.Xi_outflow = inStream(
+ compressor_P_out_sensor.flow_model.C_in.Xi_outflow);
+ assert(compressor_P_out_sensor.flow_model.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPHFlowModel
+ equation
+ compressor_P_out_sensor.flow_model.P = compressor_P_out_sensor.flow_model.P_in;
+ compressor_P_out_sensor.flow_model.h = compressor_P_out_sensor.flow_model.h_in;
+ compressor_P_out_sensor.flow_model.T = compressor_P_out_sensor.flow_model.T_in;
+ compressor_P_out_sensor.flow_model.DP = 0;
+ compressor_P_out_sensor.flow_model.DH = 0;
+ // end of extends
+
+ // Component compressor_P_out_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.FlueGases.PressureSensor
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.BaseSensor
+ equation
+ if ( not compressor_P_out_sensor.faulty_flow_rate) then
+ compressor_P_out_sensor.mass_flow_rate_bias = 0;
+ end if;
+ compressor_P_out_sensor.P = compressor_P_out_sensor.C_in.P;
+ compressor_P_out_sensor.Q = compressor_P_out_sensor.C_in.Q+
+ compressor_P_out_sensor.mass_flow_rate_bias;
+ compressor_P_out_sensor.Xi = inStream(compressor_P_out_sensor.C_in.Xi_outflow);
+ compressor_P_out_sensor.h = inStream(compressor_P_out_sensor.C_in.h_outflow);
+ compressor_P_out_sensor.state = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (compressor_P_out_sensor.P, compressor_P_out_sensor.h, compressor_P_out_sensor.Xi);
+ assert(compressor_P_out_sensor.Q > 0, "Wrong flow sign in inline sensor. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.PressureSensor
+ equation
+ compressor_P_out_sensor.P_barA = compressor_P_out_sensor.P*1E-05;
+ compressor_P_out_sensor.P_psiA = compressor_P_out_sensor.P*0.000145038;
+ compressor_P_out_sensor.P_MPaA = compressor_P_out_sensor.P*1E-06;
+ compressor_P_out_sensor.P_kPaA = compressor_P_out_sensor.P*0.001;
+ compressor_P_out_sensor.P_barG = compressor_P_out_sensor.P_barA-1;
+ compressor_P_out_sensor.P_psiG = compressor_P_out_sensor.P_psiA-
+ 14.50377377;
+ compressor_P_out_sensor.P_MPaG = compressor_P_out_sensor.P_MPaA-0.1;
+ compressor_P_out_sensor.P_kPaG = compressor_P_out_sensor.P_kPaA-100;
+ compressor_P_out_sensor.P_mbar = compressor_P_out_sensor.P*0.01;
+ compressor_P_out_sensor.P_inHg = compressor_P_out_sensor.P*0.0002953006;
+ if (compressor_P_out_sensor.signal_unit == "barA") then
+ compressor_P_out_sensor.P_sensor = compressor_P_out_sensor.P_barA;
+ elseif (compressor_P_out_sensor.signal_unit == "barG") then
+ compressor_P_out_sensor.P_sensor = compressor_P_out_sensor.P_barG;
+ elseif (compressor_P_out_sensor.signal_unit == "mbar") then
+ compressor_P_out_sensor.P_sensor = compressor_P_out_sensor.P_mbar;
+ elseif (compressor_P_out_sensor.signal_unit == "MPaA") then
+ compressor_P_out_sensor.P_sensor = compressor_P_out_sensor.P_MPaA;
+ elseif (compressor_P_out_sensor.signal_unit == "kPaA") then
+ compressor_P_out_sensor.P_sensor = compressor_P_out_sensor.P_kPaA;
+ else
+ compressor_P_out_sensor.P_sensor = compressor_P_out_sensor.P;
+ end if;
+ // end of extends
+ equation
+ compressor_P_out_sensor.flow_model.C_in.P = compressor_P_out_sensor.C_in.P;
+ compressor_P_out_sensor.C_in.Q-compressor_P_out_sensor.flow_model.C_in.Q =
+ 0.0;
+ compressor_P_out_sensor.flow_model.C_out.P = compressor_P_out_sensor.C_out.P;
+ compressor_P_out_sensor.C_out.Q-compressor_P_out_sensor.flow_model.C_out.Q
+ = 0.0;
+
+ // Component compressor_T_out_sensor.flow_model
+ // class MetroscopeModelingLibrary.FlueGases.BaseClasses.IsoPHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ compressor_T_out_sensor.flow_model.h_in = inStream(compressor_T_out_sensor.flow_model.C_in.h_outflow);
+ compressor_T_out_sensor.flow_model.h_out = compressor_T_out_sensor.flow_model.C_out.h_outflow;
+ compressor_T_out_sensor.flow_model.Q = compressor_T_out_sensor.flow_model.C_in.Q;
+ compressor_T_out_sensor.flow_model.P_in = compressor_T_out_sensor.flow_model.C_in.P;
+ compressor_T_out_sensor.flow_model.P_out = compressor_T_out_sensor.flow_model.C_out.P;
+ compressor_T_out_sensor.flow_model.Xi = inStream(compressor_T_out_sensor.flow_model.C_in.Xi_outflow);
+ compressor_T_out_sensor.flow_model.C_in.h_outflow = 1000000.0;
+ compressor_T_out_sensor.flow_model.C_in.Xi_outflow = zeros(5);
+ compressor_T_out_sensor.flow_model.state_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (compressor_T_out_sensor.flow_model.P_in, compressor_T_out_sensor.flow_model.h_in,
+ compressor_T_out_sensor.flow_model.Xi);
+ compressor_T_out_sensor.flow_model.state_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (compressor_T_out_sensor.flow_model.P_out, compressor_T_out_sensor.flow_model.h_out,
+ compressor_T_out_sensor.flow_model.Xi);
+ compressor_T_out_sensor.flow_model.T_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ compressor_T_out_sensor.flow_model.state_in);
+ compressor_T_out_sensor.flow_model.T_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ compressor_T_out_sensor.flow_model.state_out);
+ compressor_T_out_sensor.flow_model.rho_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ compressor_T_out_sensor.flow_model.state_in);
+ compressor_T_out_sensor.flow_model.rho_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ compressor_T_out_sensor.flow_model.state_out);
+ compressor_T_out_sensor.flow_model.rho = (compressor_T_out_sensor.flow_model.rho_in
+ +compressor_T_out_sensor.flow_model.rho_out)/2;
+ compressor_T_out_sensor.flow_model.Qv_in = compressor_T_out_sensor.flow_model.Q
+ /compressor_T_out_sensor.flow_model.rho_in;
+ compressor_T_out_sensor.flow_model.Qv_out = -compressor_T_out_sensor.flow_model.Q
+ /compressor_T_out_sensor.flow_model.rho_out;
+ compressor_T_out_sensor.flow_model.Qv = (compressor_T_out_sensor.flow_model.Qv_in
+ -compressor_T_out_sensor.flow_model.Qv_out)/2;
+ compressor_T_out_sensor.flow_model.P_out-compressor_T_out_sensor.flow_model.P_in
+ = compressor_T_out_sensor.flow_model.DP;
+ compressor_T_out_sensor.flow_model.Q*(compressor_T_out_sensor.flow_model.h_out
+ -compressor_T_out_sensor.flow_model.h_in) = compressor_T_out_sensor.flow_model.W;
+ compressor_T_out_sensor.flow_model.h_out-compressor_T_out_sensor.flow_model.h_in
+ = compressor_T_out_sensor.flow_model.DH;
+ compressor_T_out_sensor.flow_model.T_out-compressor_T_out_sensor.flow_model.T_in
+ = compressor_T_out_sensor.flow_model.DT;
+ compressor_T_out_sensor.flow_model.C_in.Q+compressor_T_out_sensor.flow_model.C_out.Q
+ = 0;
+ compressor_T_out_sensor.flow_model.C_out.Xi_outflow = inStream(
+ compressor_T_out_sensor.flow_model.C_in.Xi_outflow);
+ assert(compressor_T_out_sensor.flow_model.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPHFlowModel
+ equation
+ compressor_T_out_sensor.flow_model.P = compressor_T_out_sensor.flow_model.P_in;
+ compressor_T_out_sensor.flow_model.h = compressor_T_out_sensor.flow_model.h_in;
+ compressor_T_out_sensor.flow_model.T = compressor_T_out_sensor.flow_model.T_in;
+ compressor_T_out_sensor.flow_model.DP = 0;
+ compressor_T_out_sensor.flow_model.DH = 0;
+ // end of extends
+
+ // Component compressor_T_out_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.FlueGases.TemperatureSensor
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.BaseSensor
+ equation
+ if ( not compressor_T_out_sensor.faulty_flow_rate) then
+ compressor_T_out_sensor.mass_flow_rate_bias = 0;
+ end if;
+ compressor_T_out_sensor.P = compressor_T_out_sensor.C_in.P;
+ compressor_T_out_sensor.Q = compressor_T_out_sensor.C_in.Q+
+ compressor_T_out_sensor.mass_flow_rate_bias;
+ compressor_T_out_sensor.Xi = inStream(compressor_T_out_sensor.C_in.Xi_outflow);
+ compressor_T_out_sensor.h = inStream(compressor_T_out_sensor.C_in.h_outflow);
+ compressor_T_out_sensor.state = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (compressor_T_out_sensor.P, compressor_T_out_sensor.h, compressor_T_out_sensor.Xi);
+ assert(compressor_T_out_sensor.Q > 0, "Wrong flow sign in inline sensor. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.TemperatureSensor
+ equation
+ compressor_T_out_sensor.T = compressor_T_out_sensor.flow_model.T;
+ compressor_T_out_sensor.T_degC+273.15 = compressor_T_out_sensor.T;
+ compressor_T_out_sensor.T_degF = compressor_T_out_sensor.T_degC*1.8+32;
+ if (compressor_T_out_sensor.signal_unit == "degC") then
+ compressor_T_out_sensor.T_sensor = compressor_T_out_sensor.T_degC;
+ elseif (compressor_T_out_sensor.signal_unit == "degF") then
+ compressor_T_out_sensor.T_sensor = compressor_T_out_sensor.T_degF;
+ elseif (compressor_T_out_sensor.signal_unit == "K") then
+ compressor_T_out_sensor.T_sensor = compressor_T_out_sensor.T;
+ else
+ assert(false, "Unavailable unit selected for %name");
+ end if;
+ // end of extends
+ equation
+ compressor_T_out_sensor.flow_model.C_in.P = compressor_T_out_sensor.C_in.P;
+ compressor_T_out_sensor.C_in.Q-compressor_T_out_sensor.flow_model.C_in.Q =
+ 0.0;
+ compressor_T_out_sensor.flow_model.C_out.P = compressor_T_out_sensor.C_out.P;
+ compressor_T_out_sensor.C_out.Q-compressor_T_out_sensor.flow_model.C_out.Q
+ = 0.0;
+
+ // Component turbine_P_out_sensor.flow_model
+ // class MetroscopeModelingLibrary.FlueGases.BaseClasses.IsoPHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ turbine_P_out_sensor.flow_model.h_in = inStream(turbine_P_out_sensor.flow_model.C_in.h_outflow);
+ turbine_P_out_sensor.flow_model.h_out = turbine_P_out_sensor.flow_model.C_out.h_outflow;
+ turbine_P_out_sensor.flow_model.Q = turbine_P_out_sensor.flow_model.C_in.Q;
+ turbine_P_out_sensor.flow_model.P_in = turbine_P_out_sensor.flow_model.C_in.P;
+ turbine_P_out_sensor.flow_model.P_out = turbine_P_out_sensor.flow_model.C_out.P;
+ turbine_P_out_sensor.flow_model.Xi = inStream(turbine_P_out_sensor.flow_model.C_in.Xi_outflow);
+ turbine_P_out_sensor.flow_model.C_in.h_outflow = 1000000.0;
+ turbine_P_out_sensor.flow_model.C_in.Xi_outflow = zeros(5);
+ turbine_P_out_sensor.flow_model.state_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (turbine_P_out_sensor.flow_model.P_in, turbine_P_out_sensor.flow_model.h_in,
+ turbine_P_out_sensor.flow_model.Xi);
+ turbine_P_out_sensor.flow_model.state_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (turbine_P_out_sensor.flow_model.P_out, turbine_P_out_sensor.flow_model.h_out,
+ turbine_P_out_sensor.flow_model.Xi);
+ turbine_P_out_sensor.flow_model.T_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ turbine_P_out_sensor.flow_model.state_in);
+ turbine_P_out_sensor.flow_model.T_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ turbine_P_out_sensor.flow_model.state_out);
+ turbine_P_out_sensor.flow_model.rho_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ turbine_P_out_sensor.flow_model.state_in);
+ turbine_P_out_sensor.flow_model.rho_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ turbine_P_out_sensor.flow_model.state_out);
+ turbine_P_out_sensor.flow_model.rho = (turbine_P_out_sensor.flow_model.rho_in
+ +turbine_P_out_sensor.flow_model.rho_out)/2;
+ turbine_P_out_sensor.flow_model.Qv_in = turbine_P_out_sensor.flow_model.Q/
+ turbine_P_out_sensor.flow_model.rho_in;
+ turbine_P_out_sensor.flow_model.Qv_out = -turbine_P_out_sensor.flow_model.Q
+ /turbine_P_out_sensor.flow_model.rho_out;
+ turbine_P_out_sensor.flow_model.Qv = (turbine_P_out_sensor.flow_model.Qv_in
+ -turbine_P_out_sensor.flow_model.Qv_out)/2;
+ turbine_P_out_sensor.flow_model.P_out-turbine_P_out_sensor.flow_model.P_in
+ = turbine_P_out_sensor.flow_model.DP;
+ turbine_P_out_sensor.flow_model.Q*(turbine_P_out_sensor.flow_model.h_out-
+ turbine_P_out_sensor.flow_model.h_in) = turbine_P_out_sensor.flow_model.W;
+ turbine_P_out_sensor.flow_model.h_out-turbine_P_out_sensor.flow_model.h_in
+ = turbine_P_out_sensor.flow_model.DH;
+ turbine_P_out_sensor.flow_model.T_out-turbine_P_out_sensor.flow_model.T_in
+ = turbine_P_out_sensor.flow_model.DT;
+ turbine_P_out_sensor.flow_model.C_in.Q+turbine_P_out_sensor.flow_model.C_out.Q
+ = 0;
+ turbine_P_out_sensor.flow_model.C_out.Xi_outflow = inStream(
+ turbine_P_out_sensor.flow_model.C_in.Xi_outflow);
+ assert(turbine_P_out_sensor.flow_model.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPHFlowModel
+ equation
+ turbine_P_out_sensor.flow_model.P = turbine_P_out_sensor.flow_model.P_in;
+ turbine_P_out_sensor.flow_model.h = turbine_P_out_sensor.flow_model.h_in;
+ turbine_P_out_sensor.flow_model.T = turbine_P_out_sensor.flow_model.T_in;
+ turbine_P_out_sensor.flow_model.DP = 0;
+ turbine_P_out_sensor.flow_model.DH = 0;
+ // end of extends
+
+ // Component turbine_P_out_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.FlueGases.PressureSensor
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.BaseSensor
+ equation
+ if ( not turbine_P_out_sensor.faulty_flow_rate) then
+ turbine_P_out_sensor.mass_flow_rate_bias = 0;
+ end if;
+ turbine_P_out_sensor.P = turbine_P_out_sensor.C_in.P;
+ turbine_P_out_sensor.Q = turbine_P_out_sensor.C_in.Q+turbine_P_out_sensor.mass_flow_rate_bias;
+ turbine_P_out_sensor.Xi = inStream(turbine_P_out_sensor.C_in.Xi_outflow);
+ turbine_P_out_sensor.h = inStream(turbine_P_out_sensor.C_in.h_outflow);
+ turbine_P_out_sensor.state = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (turbine_P_out_sensor.P, turbine_P_out_sensor.h, turbine_P_out_sensor.Xi);
+ assert(turbine_P_out_sensor.Q > 0, "Wrong flow sign in inline sensor. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.PressureSensor
+ equation
+ turbine_P_out_sensor.P_barA = turbine_P_out_sensor.P*1E-05;
+ turbine_P_out_sensor.P_psiA = turbine_P_out_sensor.P*0.000145038;
+ turbine_P_out_sensor.P_MPaA = turbine_P_out_sensor.P*1E-06;
+ turbine_P_out_sensor.P_kPaA = turbine_P_out_sensor.P*0.001;
+ turbine_P_out_sensor.P_barG = turbine_P_out_sensor.P_barA-1;
+ turbine_P_out_sensor.P_psiG = turbine_P_out_sensor.P_psiA-14.50377377;
+ turbine_P_out_sensor.P_MPaG = turbine_P_out_sensor.P_MPaA-0.1;
+ turbine_P_out_sensor.P_kPaG = turbine_P_out_sensor.P_kPaA-100;
+ turbine_P_out_sensor.P_mbar = turbine_P_out_sensor.P*0.01;
+ turbine_P_out_sensor.P_inHg = turbine_P_out_sensor.P*0.0002953006;
+ if (turbine_P_out_sensor.signal_unit == "barA") then
+ turbine_P_out_sensor.P_sensor = turbine_P_out_sensor.P_barA;
+ elseif (turbine_P_out_sensor.signal_unit == "barG") then
+ turbine_P_out_sensor.P_sensor = turbine_P_out_sensor.P_barG;
+ elseif (turbine_P_out_sensor.signal_unit == "mbar") then
+ turbine_P_out_sensor.P_sensor = turbine_P_out_sensor.P_mbar;
+ elseif (turbine_P_out_sensor.signal_unit == "MPaA") then
+ turbine_P_out_sensor.P_sensor = turbine_P_out_sensor.P_MPaA;
+ elseif (turbine_P_out_sensor.signal_unit == "kPaA") then
+ turbine_P_out_sensor.P_sensor = turbine_P_out_sensor.P_kPaA;
+ else
+ turbine_P_out_sensor.P_sensor = turbine_P_out_sensor.P;
+ end if;
+ // end of extends
+ equation
+ turbine_P_out_sensor.flow_model.C_in.P = turbine_P_out_sensor.C_in.P;
+ turbine_P_out_sensor.C_in.Q-turbine_P_out_sensor.flow_model.C_in.Q = 0.0;
+ turbine_P_out_sensor.flow_model.C_out.P = turbine_P_out_sensor.C_out.P;
+ turbine_P_out_sensor.C_out.Q-turbine_P_out_sensor.flow_model.C_out.Q = 0.0;
+
+ // Component W_GT_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.Power.PowerSensor
+ equation
+ W_GT_sensor.C_in.W+W_GT_sensor.C_out.W = 0;
+ W_GT_sensor.W = W_GT_sensor.C_in.W;
+ W_GT_sensor.W_MW = W_GT_sensor.W/1000000.0;
+ if (W_GT_sensor.output_signal_unit == "MW") then
+ W_GT_sensor.W_sensor = W_GT_sensor.W_MW;
+ else
+ W_GT_sensor.W_sensor = W_GT_sensor.W;
+ end if;
+
+ // Component turbine_T_out_sensor.flow_model
+ // class MetroscopeModelingLibrary.FlueGases.BaseClasses.IsoPHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ turbine_T_out_sensor.flow_model.h_in = inStream(turbine_T_out_sensor.flow_model.C_in.h_outflow);
+ turbine_T_out_sensor.flow_model.h_out = turbine_T_out_sensor.flow_model.C_out.h_outflow;
+ turbine_T_out_sensor.flow_model.Q = turbine_T_out_sensor.flow_model.C_in.Q;
+ turbine_T_out_sensor.flow_model.P_in = turbine_T_out_sensor.flow_model.C_in.P;
+ turbine_T_out_sensor.flow_model.P_out = turbine_T_out_sensor.flow_model.C_out.P;
+ turbine_T_out_sensor.flow_model.Xi = inStream(turbine_T_out_sensor.flow_model.C_in.Xi_outflow);
+ turbine_T_out_sensor.flow_model.C_in.h_outflow = 1000000.0;
+ turbine_T_out_sensor.flow_model.C_in.Xi_outflow = zeros(5);
+ turbine_T_out_sensor.flow_model.state_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (turbine_T_out_sensor.flow_model.P_in, turbine_T_out_sensor.flow_model.h_in,
+ turbine_T_out_sensor.flow_model.Xi);
+ turbine_T_out_sensor.flow_model.state_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (turbine_T_out_sensor.flow_model.P_out, turbine_T_out_sensor.flow_model.h_out,
+ turbine_T_out_sensor.flow_model.Xi);
+ turbine_T_out_sensor.flow_model.T_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ turbine_T_out_sensor.flow_model.state_in);
+ turbine_T_out_sensor.flow_model.T_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ turbine_T_out_sensor.flow_model.state_out);
+ turbine_T_out_sensor.flow_model.rho_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ turbine_T_out_sensor.flow_model.state_in);
+ turbine_T_out_sensor.flow_model.rho_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ turbine_T_out_sensor.flow_model.state_out);
+ turbine_T_out_sensor.flow_model.rho = (turbine_T_out_sensor.flow_model.rho_in
+ +turbine_T_out_sensor.flow_model.rho_out)/2;
+ turbine_T_out_sensor.flow_model.Qv_in = turbine_T_out_sensor.flow_model.Q/
+ turbine_T_out_sensor.flow_model.rho_in;
+ turbine_T_out_sensor.flow_model.Qv_out = -turbine_T_out_sensor.flow_model.Q
+ /turbine_T_out_sensor.flow_model.rho_out;
+ turbine_T_out_sensor.flow_model.Qv = (turbine_T_out_sensor.flow_model.Qv_in
+ -turbine_T_out_sensor.flow_model.Qv_out)/2;
+ turbine_T_out_sensor.flow_model.P_out-turbine_T_out_sensor.flow_model.P_in
+ = turbine_T_out_sensor.flow_model.DP;
+ turbine_T_out_sensor.flow_model.Q*(turbine_T_out_sensor.flow_model.h_out-
+ turbine_T_out_sensor.flow_model.h_in) = turbine_T_out_sensor.flow_model.W;
+ turbine_T_out_sensor.flow_model.h_out-turbine_T_out_sensor.flow_model.h_in
+ = turbine_T_out_sensor.flow_model.DH;
+ turbine_T_out_sensor.flow_model.T_out-turbine_T_out_sensor.flow_model.T_in
+ = turbine_T_out_sensor.flow_model.DT;
+ turbine_T_out_sensor.flow_model.C_in.Q+turbine_T_out_sensor.flow_model.C_out.Q
+ = 0;
+ turbine_T_out_sensor.flow_model.C_out.Xi_outflow = inStream(
+ turbine_T_out_sensor.flow_model.C_in.Xi_outflow);
+ assert(turbine_T_out_sensor.flow_model.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPHFlowModel
+ equation
+ turbine_T_out_sensor.flow_model.P = turbine_T_out_sensor.flow_model.P_in;
+ turbine_T_out_sensor.flow_model.h = turbine_T_out_sensor.flow_model.h_in;
+ turbine_T_out_sensor.flow_model.T = turbine_T_out_sensor.flow_model.T_in;
+ turbine_T_out_sensor.flow_model.DP = 0;
+ turbine_T_out_sensor.flow_model.DH = 0;
+ // end of extends
+
+ // Component turbine_T_out_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.FlueGases.TemperatureSensor
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.BaseSensor
+ equation
+ if ( not turbine_T_out_sensor.faulty_flow_rate) then
+ turbine_T_out_sensor.mass_flow_rate_bias = 0;
+ end if;
+ turbine_T_out_sensor.P = turbine_T_out_sensor.C_in.P;
+ turbine_T_out_sensor.Q = turbine_T_out_sensor.C_in.Q+turbine_T_out_sensor.mass_flow_rate_bias;
+ turbine_T_out_sensor.Xi = inStream(turbine_T_out_sensor.C_in.Xi_outflow);
+ turbine_T_out_sensor.h = inStream(turbine_T_out_sensor.C_in.h_outflow);
+ turbine_T_out_sensor.state = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (turbine_T_out_sensor.P, turbine_T_out_sensor.h, turbine_T_out_sensor.Xi);
+ assert(turbine_T_out_sensor.Q > 0, "Wrong flow sign in inline sensor. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.TemperatureSensor
+ equation
+ turbine_T_out_sensor.T = turbine_T_out_sensor.flow_model.T;
+ turbine_T_out_sensor.T_degC+273.15 = turbine_T_out_sensor.T;
+ turbine_T_out_sensor.T_degF = turbine_T_out_sensor.T_degC*1.8+32;
+ if (turbine_T_out_sensor.signal_unit == "degC") then
+ turbine_T_out_sensor.T_sensor = turbine_T_out_sensor.T_degC;
+ elseif (turbine_T_out_sensor.signal_unit == "degF") then
+ turbine_T_out_sensor.T_sensor = turbine_T_out_sensor.T_degF;
+ elseif (turbine_T_out_sensor.signal_unit == "K") then
+ turbine_T_out_sensor.T_sensor = turbine_T_out_sensor.T;
+ else
+ assert(false, "Unavailable unit selected for %name");
+ end if;
+ // end of extends
+ equation
+ turbine_T_out_sensor.flow_model.C_in.P = turbine_T_out_sensor.C_in.P;
+ turbine_T_out_sensor.C_in.Q-turbine_T_out_sensor.flow_model.C_in.Q = 0.0;
+ turbine_T_out_sensor.flow_model.C_out.P = turbine_T_out_sensor.C_out.P;
+ turbine_T_out_sensor.C_out.Q-turbine_T_out_sensor.flow_model.C_out.Q = 0.0;
+
+ // Component Reheater.HX
+ // class MetroscopeModelingLibrary.Power.HeatExchange.NTUHeatExchange
+ equation
+ Reheater.HX.W_max = Reheater.HX.QCpMIN*(Reheater.HX.T_hot_in-
+ Reheater.HX.T_cold_in);
+ Reheater.HX.W = Reheater.HX.epsilon*Reheater.HX.W_max;
+ Reheater.HX.NTU = Reheater.HX.Kth*Reheater.HX.S/Reheater.HX.QCpMIN;
+ Reheater.HX.Cr = Reheater.HX.QCpMIN/Reheater.HX.QCpMAX;
+ if (Reheater.HX.config == "shell_and_tubes_two_passes") then
+ if (Reheater.HX.QCp_max_side == "hot") then
+ Reheater.HX.QCpMAX = Reheater.HX.Q_hot*Reheater.HX.Cp_hot;
+ Reheater.HX.QCpMIN = Reheater.HX.Q_cold*Reheater.HX.Cp_cold;
+ elseif (Reheater.HX.QCp_max_side == "cold") then
+ Reheater.HX.QCpMIN = Reheater.HX.Q_hot*Reheater.HX.Cp_hot;
+ Reheater.HX.QCpMAX = Reheater.HX.Q_cold*Reheater.HX.Cp_cold;
+ else
+ Reheater.HX.QCpMIN = min(Reheater.HX.Q_hot*Reheater.HX.Cp_hot,
+ Reheater.HX.Q_cold*Reheater.HX.Cp_cold);
+ Reheater.HX.QCpMAX = max(Reheater.HX.Q_hot*Reheater.HX.Cp_hot,
+ Reheater.HX.Q_cold*Reheater.HX.Cp_cold);
+ end if;
+ assert(Reheater.HX.QCpMIN < Reheater.HX.QCpMAX, "QCPMIN is higher than QCpMAX");
+ Reheater.HX.epsilon = 2/(1+Reheater.HX.Cr+sqrt(1+Reheater.HX.Cr^2)*(1+exp(
+ -Reheater.HX.NTU*(1+Reheater.HX.Cr^2)^0.5))/(1-exp( -Reheater.HX.NTU*(1
+ +Reheater.HX.Cr^2)^0.5)));
+ elseif (Reheater.HX.config == "monophasic_cross_current") then
+ if (Reheater.HX.mixed_fluid == "hot") then
+ if (Reheater.HX.QCp_max_side == "hot") then
+ Reheater.HX.QCpMAX = Reheater.HX.Q_hot*Reheater.HX.Cp_hot;
+ Reheater.HX.QCpMIN = Reheater.HX.Q_cold*Reheater.HX.Cp_cold;
+ assert(Reheater.HX.QCpMIN < Reheater.HX.QCpMAX, "QCPMIN is higher than QCpMAX");
+ Reheater.HX.epsilon = (1-exp( -Reheater.HX.Cr*(1-exp( -Reheater.HX.NTU))))
+ /Reheater.HX.Cr;
+ elseif (Reheater.HX.QCp_max_side == "cold") then
+ Reheater.HX.QCpMIN = Reheater.HX.Q_hot*Reheater.HX.Cp_hot;
+ Reheater.HX.QCpMAX = Reheater.HX.Q_cold*Reheater.HX.Cp_cold;
+ assert(Reheater.HX.QCpMIN < Reheater.HX.QCpMAX, "QCPMIN is higher than QCpMAX");
+ Reheater.HX.epsilon = 1-exp( -(1-exp( -Reheater.HX.Cr*Reheater.HX.NTU))
+ /Reheater.HX.Cr);
+ else
+ if (Reheater.HX.Q_hot*Reheater.HX.Cp_hot < Reheater.HX.Q_cold*
+ Reheater.HX.Cp_cold) then
+ Reheater.HX.QCpMIN = Reheater.HX.Q_hot*Reheater.HX.Cp_hot;
+ Reheater.HX.QCpMAX = Reheater.HX.Q_cold*Reheater.HX.Cp_cold;
+ Reheater.HX.epsilon = 1-exp( -(1-exp( -Reheater.HX.Cr*
+ Reheater.HX.NTU))/Reheater.HX.Cr);
+ else
+ Reheater.HX.QCpMAX = Reheater.HX.Q_hot*Reheater.HX.Cp_hot;
+ Reheater.HX.QCpMIN = Reheater.HX.Q_cold*Reheater.HX.Cp_cold;
+ Reheater.HX.epsilon = (1-exp( -Reheater.HX.Cr*(1-exp( -
+ Reheater.HX.NTU))))/Reheater.HX.Cr;
+ end if;
+ end if;
+ else
+ if (Reheater.HX.QCp_max_side == "hot") then
+ Reheater.HX.QCpMAX = Reheater.HX.Q_hot*Reheater.HX.Cp_hot;
+ Reheater.HX.QCpMIN = Reheater.HX.Q_cold*Reheater.HX.Cp_cold;
+ assert(Reheater.HX.QCpMIN < Reheater.HX.QCpMAX, "QCPMIN is higher than QCpMAX");
+ Reheater.HX.epsilon = 1-exp( -(1-exp( -Reheater.HX.Cr*Reheater.HX.NTU))
+ /Reheater.HX.Cr);
+ elseif (Reheater.HX.QCp_max_side == "cold") then
+ Reheater.HX.QCpMIN = Reheater.HX.Q_hot*Reheater.HX.Cp_hot;
+ Reheater.HX.QCpMAX = Reheater.HX.Q_cold*Reheater.HX.Cp_cold;
+ assert(Reheater.HX.QCpMIN < Reheater.HX.QCpMAX, "QCPMIN is higher than QCpMAX");
+ Reheater.HX.epsilon = (1-exp( -Reheater.HX.Cr*(1-exp( -Reheater.HX.NTU))))
+ /Reheater.HX.Cr;
+ else
+ if (Reheater.HX.Q_hot*Reheater.HX.Cp_hot < Reheater.HX.Q_cold*
+ Reheater.HX.Cp_cold) then
+ Reheater.HX.QCpMIN = Reheater.HX.Q_hot*Reheater.HX.Cp_hot;
+ Reheater.HX.QCpMAX = Reheater.HX.Q_cold*Reheater.HX.Cp_cold;
+ Reheater.HX.epsilon = (1-exp( -Reheater.HX.Cr*(1-exp( -
+ Reheater.HX.NTU))))/Reheater.HX.Cr;
+ else
+ Reheater.HX.QCpMAX = Reheater.HX.Q_hot*Reheater.HX.Cp_hot;
+ Reheater.HX.QCpMIN = Reheater.HX.Q_cold*Reheater.HX.Cp_cold;
+ Reheater.HX.epsilon = 1-exp( -(1-exp( -Reheater.HX.Cr*
+ Reheater.HX.NTU))/Reheater.HX.Cr);
+ end if;
+ end if;
+ end if;
+ elseif (Reheater.HX.config == "monophasic_counter_current") then
+ if (Reheater.HX.QCp_max_side == "hot") then
+ Reheater.HX.QCpMAX = Reheater.HX.Q_hot*Reheater.HX.Cp_hot;
+ Reheater.HX.QCpMIN = Reheater.HX.Q_cold*Reheater.HX.Cp_cold;
+ elseif (Reheater.HX.QCp_max_side == "cold") then
+ Reheater.HX.QCpMIN = Reheater.HX.Q_hot*Reheater.HX.Cp_hot;
+ Reheater.HX.QCpMAX = Reheater.HX.Q_cold*Reheater.HX.Cp_cold;
+ else
+ Reheater.HX.QCpMIN = min(Reheater.HX.Q_hot*Reheater.HX.Cp_hot,
+ Reheater.HX.Q_cold*Reheater.HX.Cp_cold);
+ Reheater.HX.QCpMAX = max(Reheater.HX.Q_hot*Reheater.HX.Cp_hot,
+ Reheater.HX.Q_cold*Reheater.HX.Cp_cold);
+ end if;
+ assert(Reheater.HX.QCpMIN < Reheater.HX.QCpMAX, "QCPMIN is higher than QCpMAX");
+ Reheater.HX.epsilon = (1-exp( -Reheater.HX.NTU*(1-Reheater.HX.Cr)))/(1-
+ Reheater.HX.Cr*exp( -Reheater.HX.NTU*(1-Reheater.HX.Cr)));
+ elseif (Reheater.HX.config == "evaporator") then
+ Reheater.HX.QCpMAX = 10000000000.0;
+ Reheater.HX.QCpMIN = Reheater.HX.Q_hot*Reheater.HX.Cp_hot;
+ Reheater.HX.epsilon = 1-exp( -Reheater.HX.NTU);
+ elseif (Reheater.HX.config == "condenser") then
+ Reheater.HX.QCpMAX = 10000000000.0;
+ Reheater.HX.QCpMIN = Reheater.HX.Q_cold*Reheater.HX.Cp_cold;
+ Reheater.HX.epsilon = 1-exp( -Reheater.HX.NTU);
+ else
+ Reheater.HX.QCpMAX = 0;
+ Reheater.HX.QCpMIN = 0;
+ Reheater.HX.epsilon = 0;
+ end if;
+ assert(Reheater.HX.config == "evaporator" or Reheater.HX.config ==
+ "condenser" or Reheater.HX.config == "shell_and_tubes_two_passes" or
+ Reheater.HX.config == "monophasic_cross_current" or Reheater.HX.config ==
+ "monophasic_counter_current", "config parameter of NTUHeatExchange should be one of 'shell_and_tubes_two_passes', 'condenser', 'evaporator', 'monophasic_cross_current', or 'monophasic_counter_current'");
+ assert(Reheater.HX.mixed_fluid == "hot" or Reheater.HX.mixed_fluid == "cold",
+ "mixed_fluid parameter of NTUHeatExchange should be 'hot' or 'cold'");
+ assert(Reheater.HX.W > 0, "Heat exchange is done in the wrong direction",
+ AssertionLevel.warning);
+
+ // Component Reheater.hot_side
+ // class MetroscopeModelingLibrary.FlueGases.BaseClasses.IsoPFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ Reheater.hot_side.h_in = inStream(Reheater.hot_side.C_in.h_outflow);
+ Reheater.hot_side.h_out = Reheater.hot_side.C_out.h_outflow;
+ Reheater.hot_side.Q = Reheater.hot_side.C_in.Q;
+ Reheater.hot_side.P_in = Reheater.hot_side.C_in.P;
+ Reheater.hot_side.P_out = Reheater.hot_side.C_out.P;
+ Reheater.hot_side.Xi = inStream(Reheater.hot_side.C_in.Xi_outflow);
+ Reheater.hot_side.C_in.h_outflow = 1000000.0;
+ Reheater.hot_side.C_in.Xi_outflow = zeros(5);
+ Reheater.hot_side.state_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (Reheater.hot_side.P_in, Reheater.hot_side.h_in, Reheater.hot_side.Xi);
+ Reheater.hot_side.state_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (Reheater.hot_side.P_out, Reheater.hot_side.h_out, Reheater.hot_side.Xi);
+ Reheater.hot_side.T_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ Reheater.hot_side.state_in);
+ Reheater.hot_side.T_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ Reheater.hot_side.state_out);
+ Reheater.hot_side.rho_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ Reheater.hot_side.state_in);
+ Reheater.hot_side.rho_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ Reheater.hot_side.state_out);
+ Reheater.hot_side.rho = (Reheater.hot_side.rho_in+Reheater.hot_side.rho_out)
+ /2;
+ Reheater.hot_side.Qv_in = Reheater.hot_side.Q/Reheater.hot_side.rho_in;
+ Reheater.hot_side.Qv_out = -Reheater.hot_side.Q/Reheater.hot_side.rho_out;
+ Reheater.hot_side.Qv = (Reheater.hot_side.Qv_in-Reheater.hot_side.Qv_out)/2;
+ Reheater.hot_side.P_out-Reheater.hot_side.P_in = Reheater.hot_side.DP;
+ Reheater.hot_side.Q*(Reheater.hot_side.h_out-Reheater.hot_side.h_in) =
+ Reheater.hot_side.W;
+ Reheater.hot_side.h_out-Reheater.hot_side.h_in = Reheater.hot_side.DH;
+ Reheater.hot_side.T_out-Reheater.hot_side.T_in = Reheater.hot_side.DT;
+ Reheater.hot_side.C_in.Q+Reheater.hot_side.C_out.Q = 0;
+ Reheater.hot_side.C_out.Xi_outflow = inStream(Reheater.hot_side.C_in.Xi_outflow);
+ assert(Reheater.hot_side.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPFlowModel
+ equation
+ Reheater.hot_side.P = Reheater.hot_side.P_in;
+ Reheater.hot_side.DP = 0;
+ // end of extends
+ equation
+ Reheater.hot_side.W = Reheater.hot_side.W_input;
+
+ // Component Reheater.cold_side
+ // class MetroscopeModelingLibrary.WaterSteam.BaseClasses.IsoPFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ Reheater.cold_side.h_in = inStream(Reheater.cold_side.C_in.h_outflow);
+ Reheater.cold_side.h_out = Reheater.cold_side.C_out.h_outflow;
+ Reheater.cold_side.Q = Reheater.cold_side.C_in.Q;
+ Reheater.cold_side.P_in = Reheater.cold_side.C_in.P;
+ Reheater.cold_side.P_out = Reheater.cold_side.C_out.P;
+ Reheater.cold_side.Xi = inStream(Reheater.cold_side.C_in.Xi_outflow);
+ Reheater.cold_side.C_in.h_outflow = 1000000.0;
+ Reheater.cold_side.C_in.Xi_outflow = zeros(0);
+ Reheater.cold_side.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (Reheater.cold_side.P_in, Reheater.cold_side.h_in, Reheater.cold_side.Xi,
+ 0, 0);
+ Reheater.cold_side.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (Reheater.cold_side.P_out, Reheater.cold_side.h_out, Reheater.cold_side.Xi,
+ 0, 0);
+ Reheater.cold_side.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ Reheater.cold_side.state_in);
+ Reheater.cold_side.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ Reheater.cold_side.state_out);
+ Reheater.cold_side.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ Reheater.cold_side.state_in);
+ Reheater.cold_side.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ Reheater.cold_side.state_out);
+ Reheater.cold_side.rho = (Reheater.cold_side.rho_in+Reheater.cold_side.rho_out)
+ /2;
+ Reheater.cold_side.Qv_in = Reheater.cold_side.Q/Reheater.cold_side.rho_in;
+ Reheater.cold_side.Qv_out = -Reheater.cold_side.Q/Reheater.cold_side.rho_out;
+ Reheater.cold_side.Qv = (Reheater.cold_side.Qv_in-Reheater.cold_side.Qv_out)
+ /2;
+ Reheater.cold_side.P_out-Reheater.cold_side.P_in = Reheater.cold_side.DP;
+ Reheater.cold_side.Q*(Reheater.cold_side.h_out-Reheater.cold_side.h_in) =
+ Reheater.cold_side.W;
+ Reheater.cold_side.h_out-Reheater.cold_side.h_in = Reheater.cold_side.DH;
+ Reheater.cold_side.T_out-Reheater.cold_side.T_in = Reheater.cold_side.DT;
+ Reheater.cold_side.C_in.Q+Reheater.cold_side.C_out.Q = 0;
+ Reheater.cold_side.C_out.Xi_outflow = inStream(Reheater.cold_side.C_in.Xi_outflow);
+ assert(Reheater.cold_side.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPFlowModel
+ equation
+ Reheater.cold_side.P = Reheater.cold_side.P_in;
+ Reheater.cold_side.DP = 0;
+ // end of extends
+ equation
+ Reheater.cold_side.W = Reheater.cold_side.W_input;
+
+ // Component Reheater.cold_side_pipe
+ // class MetroscopeModelingLibrary.WaterSteam.Pipes.FrictionPipe
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ Reheater.cold_side_pipe.h_in = inStream(Reheater.cold_side_pipe.C_in.h_outflow);
+ Reheater.cold_side_pipe.h_out = Reheater.cold_side_pipe.C_out.h_outflow;
+ Reheater.cold_side_pipe.Q = Reheater.cold_side_pipe.C_in.Q;
+ Reheater.cold_side_pipe.P_in = Reheater.cold_side_pipe.C_in.P;
+ Reheater.cold_side_pipe.P_out = Reheater.cold_side_pipe.C_out.P;
+ Reheater.cold_side_pipe.Xi = inStream(Reheater.cold_side_pipe.C_in.Xi_outflow);
+ Reheater.cold_side_pipe.C_in.h_outflow = 1000000.0;
+ Reheater.cold_side_pipe.C_in.Xi_outflow = zeros(0);
+ Reheater.cold_side_pipe.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (Reheater.cold_side_pipe.P_in, Reheater.cold_side_pipe.h_in,
+ Reheater.cold_side_pipe.Xi, 0, 0);
+ Reheater.cold_side_pipe.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (Reheater.cold_side_pipe.P_out, Reheater.cold_side_pipe.h_out,
+ Reheater.cold_side_pipe.Xi, 0, 0);
+ Reheater.cold_side_pipe.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ Reheater.cold_side_pipe.state_in);
+ Reheater.cold_side_pipe.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ Reheater.cold_side_pipe.state_out);
+ Reheater.cold_side_pipe.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ Reheater.cold_side_pipe.state_in);
+ Reheater.cold_side_pipe.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ Reheater.cold_side_pipe.state_out);
+ Reheater.cold_side_pipe.rho = (Reheater.cold_side_pipe.rho_in+
+ Reheater.cold_side_pipe.rho_out)/2;
+ Reheater.cold_side_pipe.Qv_in = Reheater.cold_side_pipe.Q/Reheater.cold_side_pipe.rho_in;
+ Reheater.cold_side_pipe.Qv_out = -Reheater.cold_side_pipe.Q/
+ Reheater.cold_side_pipe.rho_out;
+ Reheater.cold_side_pipe.Qv = (Reheater.cold_side_pipe.Qv_in-
+ Reheater.cold_side_pipe.Qv_out)/2;
+ Reheater.cold_side_pipe.P_out-Reheater.cold_side_pipe.P_in =
+ Reheater.cold_side_pipe.DP;
+ Reheater.cold_side_pipe.Q*(Reheater.cold_side_pipe.h_out-Reheater.cold_side_pipe.h_in)
+ = Reheater.cold_side_pipe.W;
+ Reheater.cold_side_pipe.h_out-Reheater.cold_side_pipe.h_in =
+ Reheater.cold_side_pipe.DH;
+ Reheater.cold_side_pipe.T_out-Reheater.cold_side_pipe.T_in =
+ Reheater.cold_side_pipe.DT;
+ Reheater.cold_side_pipe.C_in.Q+Reheater.cold_side_pipe.C_out.Q = 0;
+ Reheater.cold_side_pipe.C_out.Xi_outflow = inStream(Reheater.cold_side_pipe.C_in.Xi_outflow);
+ assert(Reheater.cold_side_pipe.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoHFlowModel
+ equation
+ Reheater.cold_side_pipe.h = Reheater.cold_side_pipe.h_in;
+ Reheater.cold_side_pipe.DH = 0;
+ // extends MetroscopeModelingLibrary.Partial.Pipes.FrictionPipe
+ equation
+ if ( not Reheater.cold_side_pipe.faulty) then
+ Reheater.cold_side_pipe.fouling = 0;
+ end if;
+ Reheater.cold_side_pipe.DP = -(1+Reheater.cold_side_pipe.fouling/100)*
+ Reheater.cold_side_pipe.Kfr*Reheater.cold_side_pipe.Q*abs(
+ Reheater.cold_side_pipe.Q)/Reheater.cold_side_pipe.rho_in;
+ // end of extends
+
+ // Component Reheater
+ // class MetroscopeModelingLibrary.MultiFluid.HeatExchangers.Superheater
+ // extends MetroscopeModelingLibrary.Partial.HeatExchangers.WaterFlueGasesMonophasicHX
+ equation
+ if ( not Reheater.faulty) then
+ Reheater.fouling = 0;
+ end if;
+ Reheater.Q_cold = Reheater.cold_side.Q;
+ Reheater.Q_hot = Reheater.hot_side.Q;
+ Reheater.T_cold_in = Reheater.cold_side_pipe.T_in;
+ Reheater.T_cold_out = Reheater.cold_side.T_out;
+ Reheater.T_hot_in = Reheater.hot_side.T_in;
+ Reheater.T_hot_out = Reheater.hot_side.T_out;
+ Reheater.cold_side.W = Reheater.W;
+ Reheater.hot_side.W+Reheater.cold_side.W = 0;
+ Reheater.HX.W = Reheater.W;
+ Reheater.HX.Kth = Reheater.Kth*(1-Reheater.fouling/100);
+ Reheater.HX.S = Reheater.S;
+ Reheater.HX.Q_cold = Reheater.Q_cold;
+ Reheater.HX.Q_hot = Reheater.Q_hot;
+ Reheater.HX.T_cold_in = Reheater.T_cold_in;
+ Reheater.HX.T_hot_in = Reheater.T_hot_in;
+ Reheater.HX.Cp_cold = (Reheater.Cp_cold_min+Reheater.Cp_cold_max)/2;
+ Reheater.HX.Cp_hot = (Reheater.Cp_hot_min+Reheater.Cp_hot_max)/2;
+ Reheater.DT_hot_in_side = Reheater.T_hot_in-Reheater.T_cold_out;
+ Reheater.DT_hot_out_side = Reheater.T_hot_out-Reheater.T_cold_in;
+ Reheater.pinch = min(Reheater.DT_hot_in_side, Reheater.DT_hot_out_side);
+ assert(Reheater.pinch > 0, "A negative pinch is reached", AssertionLevel.
+ warning);
+ assert(Reheater.pinch > 1 or Reheater.pinch < 0, "A very low pinch (<1) is reached",
+ AssertionLevel.warning);
+ Reheater.maximum_achiveable_temperature_difference = Reheater.hot_side.T_in
+ -Reheater.cold_side.T_in;
+ if (Reheater.nominal_DT_default) then
+ Reheater.nominal_cold_side_temperature_rise = Reheater.hot_side.T_in-
+ Reheater.cold_side.T_in;
+ Reheater.nominal_hot_side_temperature_drop = Reheater.hot_side.T_in-
+ Reheater.cold_side.T_in;
+ end if;
+ Reheater.Cp_cold_min = Modelica.Media.Water.WaterIF97_ph.specificHeatCapacityCp_Unique14
+ (
+ Reheater.cold_side.state_in);
+ Reheater.state_cold_out = Modelica.Media.Water.WaterIF97_ph.setState_pTX_Unique15
+ (Reheater.cold_side.P_in, Reheater.cold_side.T_in+Reheater.nominal_cold_side_temperature_rise,
+ Reheater.cold_side.Xi, 0, 0);
+ Reheater.Cp_cold_max = Modelica.Media.Water.WaterIF97_ph.specificHeatCapacityCp_Unique14
+ (
+ Reheater.state_cold_out);
+ Reheater.Cp_hot_max = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.specificHeatCapacityCp_Unique18
+ (
+ Reheater.hot_side.state_in);
+ Reheater.state_hot_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_pTX_Unique19
+ (Reheater.hot_side.P_in, Reheater.hot_side.T_in-Reheater.nominal_hot_side_temperature_drop,
+ Reheater.hot_side.Xi);
+ Reheater.Cp_hot_min = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.specificHeatCapacityCp_Unique18
+ (
+ Reheater.state_hot_out);
+ // end of extends
+ equation
+ Reheater.STR = Reheater.T_cold_out-Reheater.T_cold_in;
+ Reheater.DT_superheat = Reheater.T_cold_out-Modelica.Media.Water.WaterIF97_ph.saturationTemperature_Unique21
+ (Reheater.cold_side_pipe.P_in);
+ Reheater.cold_side_pipe.C_in.P = Reheater.C_cold_in.P;
+ Reheater.C_cold_in.Q-Reheater.cold_side_pipe.C_in.Q = 0.0;
+ Reheater.cold_side.C_out.P = Reheater.C_cold_out.P;
+ Reheater.C_cold_out.Q-Reheater.cold_side.C_out.Q = 0.0;
+ Reheater.hot_side.C_in.P = Reheater.C_hot_in.P;
+ Reheater.C_hot_in.Q-Reheater.hot_side.C_in.Q = 0.0;
+ Reheater.hot_side.C_out.P = Reheater.C_hot_out.P;
+ Reheater.C_hot_out.Q-Reheater.hot_side.C_out.Q = 0.0;
+ Reheater.cold_side_pipe.Kfr = Reheater.Kfr_cold;
+ Reheater.cold_side_pipe.C_out.P = Reheater.cold_side.C_in.P;
+ Reheater.cold_side.C_in.Q+Reheater.cold_side_pipe.C_out.Q = 0.0;
+
+ // Component LPsteamTurbine
+ // class MetroscopeModelingLibrary.WaterSteam.Machines.SteamTurbine
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ LPsteamTurbine.h_in = inStream(LPsteamTurbine.C_in.h_outflow);
+ LPsteamTurbine.h_out = LPsteamTurbine.C_out.h_outflow;
+ LPsteamTurbine.Q = LPsteamTurbine.C_in.Q;
+ LPsteamTurbine.P_in = LPsteamTurbine.C_in.P;
+ LPsteamTurbine.P_out = LPsteamTurbine.C_out.P;
+ LPsteamTurbine.Xi = inStream(LPsteamTurbine.C_in.Xi_outflow);
+ LPsteamTurbine.C_in.h_outflow = 1000000.0;
+ LPsteamTurbine.C_in.Xi_outflow = zeros(0);
+ LPsteamTurbine.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (LPsteamTurbine.P_in, LPsteamTurbine.h_in, LPsteamTurbine.Xi, 0, 0);
+ LPsteamTurbine.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (LPsteamTurbine.P_out, LPsteamTurbine.h_out, LPsteamTurbine.Xi, 0, 0);
+ LPsteamTurbine.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ LPsteamTurbine.state_in);
+ LPsteamTurbine.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ LPsteamTurbine.state_out);
+ LPsteamTurbine.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ LPsteamTurbine.state_in);
+ LPsteamTurbine.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ LPsteamTurbine.state_out);
+ LPsteamTurbine.rho = (LPsteamTurbine.rho_in+LPsteamTurbine.rho_out)/2;
+ LPsteamTurbine.Qv_in = LPsteamTurbine.Q/LPsteamTurbine.rho_in;
+ LPsteamTurbine.Qv_out = -LPsteamTurbine.Q/LPsteamTurbine.rho_out;
+ LPsteamTurbine.Qv = (LPsteamTurbine.Qv_in-LPsteamTurbine.Qv_out)/2;
+ LPsteamTurbine.P_out-LPsteamTurbine.P_in = LPsteamTurbine.DP;
+ LPsteamTurbine.Q*(LPsteamTurbine.h_out-LPsteamTurbine.h_in) =
+ LPsteamTurbine.W;
+ LPsteamTurbine.h_out-LPsteamTurbine.h_in = LPsteamTurbine.DH;
+ LPsteamTurbine.T_out-LPsteamTurbine.T_in = LPsteamTurbine.DT;
+ LPsteamTurbine.C_in.Q+LPsteamTurbine.C_out.Q = 0;
+ LPsteamTurbine.C_out.Xi_outflow = inStream(LPsteamTurbine.C_in.Xi_outflow);
+ assert(LPsteamTurbine.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // end of extends
+ equation
+ LPsteamTurbine.Q = sqrt((LPsteamTurbine.P_in^2-LPsteamTurbine.P_out^2)/(
+ LPsteamTurbine.Cst*LPsteamTurbine.T_in*LPsteamTurbine.x_in));
+ LPsteamTurbine.state_is = Modelica.Media.Water.WaterIF97_ph.setState_psX_Unique25
+ (LPsteamTurbine.P_out, Modelica.Media.Water.WaterIF97_ph.specificEntropy_Unique29
+ (
+ LPsteamTurbine.state_in), {1.0}, 0, 0);
+ LPsteamTurbine.h_is = Modelica.Media.Water.WaterIF97_ph.specificEnthalpy_Unique30
+ (
+ LPsteamTurbine.state_is);
+ LPsteamTurbine.DH = LPsteamTurbine.xm*LPsteamTurbine.eta_is*(
+ LPsteamTurbine.h_is-LPsteamTurbine.h_in);
+ LPsteamTurbine.W = LPsteamTurbine.C_W_out.W;
+ LPsteamTurbine.h_vap_sat_in = Modelica.Media.Water.WaterIF97_ph.dewEnthalpy_Unique31
+ (
+ Modelica.Media.Water.WaterIF97_ph.setSat_p_Unique32(LPsteamTurbine.P_in));
+ LPsteamTurbine.h_liq_sat_in = Modelica.Media.Water.WaterIF97_ph.bubbleEnthalpy_Unique34
+ (
+ Modelica.Media.Water.WaterIF97_ph.setSat_p_Unique32(LPsteamTurbine.P_in));
+ LPsteamTurbine.x_in = min((LPsteamTurbine.h_in-LPsteamTurbine.h_liq_sat_in)/
+ (LPsteamTurbine.h_vap_sat_in-LPsteamTurbine.h_liq_sat_in), 1);
+ LPsteamTurbine.h_vap_sat_out = Modelica.Media.Water.WaterIF97_ph.dewEnthalpy_Unique31
+ (
+ Modelica.Media.Water.WaterIF97_ph.setSat_p_Unique32(LPsteamTurbine.P_out));
+ LPsteamTurbine.h_liq_sat_out = Modelica.Media.Water.WaterIF97_ph.bubbleEnthalpy_Unique34
+ (
+ Modelica.Media.Water.WaterIF97_ph.setSat_p_Unique32(LPsteamTurbine.P_out));
+ LPsteamTurbine.x_out = min((LPsteamTurbine.h_out-LPsteamTurbine.h_liq_sat_out)
+ /(LPsteamTurbine.h_vap_sat_out-LPsteamTurbine.h_liq_sat_out), 1);
+ LPsteamTurbine.xm = (LPsteamTurbine.x_in+LPsteamTurbine.x_out)/2;
+
+ // Component T_w_ReH_out_sensor.flow_model
+ // class MetroscopeModelingLibrary.WaterSteam.BaseClasses.IsoPHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ T_w_ReH_out_sensor.flow_model.h_in = inStream(T_w_ReH_out_sensor.flow_model.C_in.h_outflow);
+ T_w_ReH_out_sensor.flow_model.h_out = T_w_ReH_out_sensor.flow_model.C_out.h_outflow;
+ T_w_ReH_out_sensor.flow_model.Q = T_w_ReH_out_sensor.flow_model.C_in.Q;
+ T_w_ReH_out_sensor.flow_model.P_in = T_w_ReH_out_sensor.flow_model.C_in.P;
+ T_w_ReH_out_sensor.flow_model.P_out = T_w_ReH_out_sensor.flow_model.C_out.P;
+ T_w_ReH_out_sensor.flow_model.Xi = inStream(T_w_ReH_out_sensor.flow_model.C_in.Xi_outflow);
+ T_w_ReH_out_sensor.flow_model.C_in.h_outflow = 1000000.0;
+ T_w_ReH_out_sensor.flow_model.C_in.Xi_outflow = zeros(0);
+ T_w_ReH_out_sensor.flow_model.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (T_w_ReH_out_sensor.flow_model.P_in, T_w_ReH_out_sensor.flow_model.h_in,
+ T_w_ReH_out_sensor.flow_model.Xi, 0, 0);
+ T_w_ReH_out_sensor.flow_model.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (T_w_ReH_out_sensor.flow_model.P_out, T_w_ReH_out_sensor.flow_model.h_out,
+ T_w_ReH_out_sensor.flow_model.Xi, 0, 0);
+ T_w_ReH_out_sensor.flow_model.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ T_w_ReH_out_sensor.flow_model.state_in);
+ T_w_ReH_out_sensor.flow_model.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ T_w_ReH_out_sensor.flow_model.state_out);
+ T_w_ReH_out_sensor.flow_model.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ T_w_ReH_out_sensor.flow_model.state_in);
+ T_w_ReH_out_sensor.flow_model.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ T_w_ReH_out_sensor.flow_model.state_out);
+ T_w_ReH_out_sensor.flow_model.rho = (T_w_ReH_out_sensor.flow_model.rho_in+
+ T_w_ReH_out_sensor.flow_model.rho_out)/2;
+ T_w_ReH_out_sensor.flow_model.Qv_in = T_w_ReH_out_sensor.flow_model.Q/
+ T_w_ReH_out_sensor.flow_model.rho_in;
+ T_w_ReH_out_sensor.flow_model.Qv_out = -T_w_ReH_out_sensor.flow_model.Q/
+ T_w_ReH_out_sensor.flow_model.rho_out;
+ T_w_ReH_out_sensor.flow_model.Qv = (T_w_ReH_out_sensor.flow_model.Qv_in-
+ T_w_ReH_out_sensor.flow_model.Qv_out)/2;
+ T_w_ReH_out_sensor.flow_model.P_out-T_w_ReH_out_sensor.flow_model.P_in =
+ T_w_ReH_out_sensor.flow_model.DP;
+ T_w_ReH_out_sensor.flow_model.Q*(T_w_ReH_out_sensor.flow_model.h_out-
+ T_w_ReH_out_sensor.flow_model.h_in) = T_w_ReH_out_sensor.flow_model.W;
+ T_w_ReH_out_sensor.flow_model.h_out-T_w_ReH_out_sensor.flow_model.h_in =
+ T_w_ReH_out_sensor.flow_model.DH;
+ T_w_ReH_out_sensor.flow_model.T_out-T_w_ReH_out_sensor.flow_model.T_in =
+ T_w_ReH_out_sensor.flow_model.DT;
+ T_w_ReH_out_sensor.flow_model.C_in.Q+T_w_ReH_out_sensor.flow_model.C_out.Q
+ = 0;
+ T_w_ReH_out_sensor.flow_model.C_out.Xi_outflow = inStream(T_w_ReH_out_sensor.flow_model.C_in.Xi_outflow);
+ assert(T_w_ReH_out_sensor.flow_model.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPHFlowModel
+ equation
+ T_w_ReH_out_sensor.flow_model.P = T_w_ReH_out_sensor.flow_model.P_in;
+ T_w_ReH_out_sensor.flow_model.h = T_w_ReH_out_sensor.flow_model.h_in;
+ T_w_ReH_out_sensor.flow_model.T = T_w_ReH_out_sensor.flow_model.T_in;
+ T_w_ReH_out_sensor.flow_model.DP = 0;
+ T_w_ReH_out_sensor.flow_model.DH = 0;
+ // end of extends
+
+ // Component T_w_ReH_out_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.WaterSteam.TemperatureSensor
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.BaseSensor
+ equation
+ if ( not T_w_ReH_out_sensor.faulty_flow_rate) then
+ T_w_ReH_out_sensor.mass_flow_rate_bias = 0;
+ end if;
+ T_w_ReH_out_sensor.P = T_w_ReH_out_sensor.C_in.P;
+ T_w_ReH_out_sensor.Q = T_w_ReH_out_sensor.C_in.Q+T_w_ReH_out_sensor.mass_flow_rate_bias;
+ T_w_ReH_out_sensor.Xi = inStream(T_w_ReH_out_sensor.C_in.Xi_outflow);
+ T_w_ReH_out_sensor.h = inStream(T_w_ReH_out_sensor.C_in.h_outflow);
+ T_w_ReH_out_sensor.state = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (T_w_ReH_out_sensor.P, T_w_ReH_out_sensor.h, T_w_ReH_out_sensor.Xi, 0, 0);
+ assert(T_w_ReH_out_sensor.Q > 0, "Wrong flow sign in inline sensor. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.TemperatureSensor
+ equation
+ T_w_ReH_out_sensor.T = T_w_ReH_out_sensor.flow_model.T;
+ T_w_ReH_out_sensor.T_degC+273.15 = T_w_ReH_out_sensor.T;
+ T_w_ReH_out_sensor.T_degF = T_w_ReH_out_sensor.T_degC*1.8+32;
+ if (T_w_ReH_out_sensor.signal_unit == "degC") then
+ T_w_ReH_out_sensor.T_sensor = T_w_ReH_out_sensor.T_degC;
+ elseif (T_w_ReH_out_sensor.signal_unit == "degF") then
+ T_w_ReH_out_sensor.T_sensor = T_w_ReH_out_sensor.T_degF;
+ elseif (T_w_ReH_out_sensor.signal_unit == "K") then
+ T_w_ReH_out_sensor.T_sensor = T_w_ReH_out_sensor.T;
+ else
+ assert(false, "Unavailable unit selected for %name");
+ end if;
+ // end of extends
+ equation
+ T_w_ReH_out_sensor.flow_model.C_in.P = T_w_ReH_out_sensor.C_in.P;
+ T_w_ReH_out_sensor.C_in.Q-T_w_ReH_out_sensor.flow_model.C_in.Q = 0.0;
+ T_w_ReH_out_sensor.flow_model.C_out.P = T_w_ReH_out_sensor.C_out.P;
+ T_w_ReH_out_sensor.C_out.Q-T_w_ReH_out_sensor.flow_model.C_out.Q = 0.0;
+
+ // Component P_w_ReH_out_sensor.flow_model
+ // class MetroscopeModelingLibrary.WaterSteam.BaseClasses.IsoPHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ P_w_ReH_out_sensor.flow_model.h_in = inStream(P_w_ReH_out_sensor.flow_model.C_in.h_outflow);
+ P_w_ReH_out_sensor.flow_model.h_out = P_w_ReH_out_sensor.flow_model.C_out.h_outflow;
+ P_w_ReH_out_sensor.flow_model.Q = P_w_ReH_out_sensor.flow_model.C_in.Q;
+ P_w_ReH_out_sensor.flow_model.P_in = P_w_ReH_out_sensor.flow_model.C_in.P;
+ P_w_ReH_out_sensor.flow_model.P_out = P_w_ReH_out_sensor.flow_model.C_out.P;
+ P_w_ReH_out_sensor.flow_model.Xi = inStream(P_w_ReH_out_sensor.flow_model.C_in.Xi_outflow);
+ P_w_ReH_out_sensor.flow_model.C_in.h_outflow = 1000000.0;
+ P_w_ReH_out_sensor.flow_model.C_in.Xi_outflow = zeros(0);
+ P_w_ReH_out_sensor.flow_model.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (P_w_ReH_out_sensor.flow_model.P_in, P_w_ReH_out_sensor.flow_model.h_in,
+ P_w_ReH_out_sensor.flow_model.Xi, 0, 0);
+ P_w_ReH_out_sensor.flow_model.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (P_w_ReH_out_sensor.flow_model.P_out, P_w_ReH_out_sensor.flow_model.h_out,
+ P_w_ReH_out_sensor.flow_model.Xi, 0, 0);
+ P_w_ReH_out_sensor.flow_model.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ P_w_ReH_out_sensor.flow_model.state_in);
+ P_w_ReH_out_sensor.flow_model.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ P_w_ReH_out_sensor.flow_model.state_out);
+ P_w_ReH_out_sensor.flow_model.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ P_w_ReH_out_sensor.flow_model.state_in);
+ P_w_ReH_out_sensor.flow_model.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ P_w_ReH_out_sensor.flow_model.state_out);
+ P_w_ReH_out_sensor.flow_model.rho = (P_w_ReH_out_sensor.flow_model.rho_in+
+ P_w_ReH_out_sensor.flow_model.rho_out)/2;
+ P_w_ReH_out_sensor.flow_model.Qv_in = P_w_ReH_out_sensor.flow_model.Q/
+ P_w_ReH_out_sensor.flow_model.rho_in;
+ P_w_ReH_out_sensor.flow_model.Qv_out = -P_w_ReH_out_sensor.flow_model.Q/
+ P_w_ReH_out_sensor.flow_model.rho_out;
+ P_w_ReH_out_sensor.flow_model.Qv = (P_w_ReH_out_sensor.flow_model.Qv_in-
+ P_w_ReH_out_sensor.flow_model.Qv_out)/2;
+ P_w_ReH_out_sensor.flow_model.P_out-P_w_ReH_out_sensor.flow_model.P_in =
+ P_w_ReH_out_sensor.flow_model.DP;
+ P_w_ReH_out_sensor.flow_model.Q*(P_w_ReH_out_sensor.flow_model.h_out-
+ P_w_ReH_out_sensor.flow_model.h_in) = P_w_ReH_out_sensor.flow_model.W;
+ P_w_ReH_out_sensor.flow_model.h_out-P_w_ReH_out_sensor.flow_model.h_in =
+ P_w_ReH_out_sensor.flow_model.DH;
+ P_w_ReH_out_sensor.flow_model.T_out-P_w_ReH_out_sensor.flow_model.T_in =
+ P_w_ReH_out_sensor.flow_model.DT;
+ P_w_ReH_out_sensor.flow_model.C_in.Q+P_w_ReH_out_sensor.flow_model.C_out.Q
+ = 0;
+ P_w_ReH_out_sensor.flow_model.C_out.Xi_outflow = inStream(P_w_ReH_out_sensor.flow_model.C_in.Xi_outflow);
+ assert(P_w_ReH_out_sensor.flow_model.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPHFlowModel
+ equation
+ P_w_ReH_out_sensor.flow_model.P = P_w_ReH_out_sensor.flow_model.P_in;
+ P_w_ReH_out_sensor.flow_model.h = P_w_ReH_out_sensor.flow_model.h_in;
+ P_w_ReH_out_sensor.flow_model.T = P_w_ReH_out_sensor.flow_model.T_in;
+ P_w_ReH_out_sensor.flow_model.DP = 0;
+ P_w_ReH_out_sensor.flow_model.DH = 0;
+ // end of extends
+
+ // Component P_w_ReH_out_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.WaterSteam.PressureSensor
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.BaseSensor
+ equation
+ if ( not P_w_ReH_out_sensor.faulty_flow_rate) then
+ P_w_ReH_out_sensor.mass_flow_rate_bias = 0;
+ end if;
+ P_w_ReH_out_sensor.P = P_w_ReH_out_sensor.C_in.P;
+ P_w_ReH_out_sensor.Q = P_w_ReH_out_sensor.C_in.Q+P_w_ReH_out_sensor.mass_flow_rate_bias;
+ P_w_ReH_out_sensor.Xi = inStream(P_w_ReH_out_sensor.C_in.Xi_outflow);
+ P_w_ReH_out_sensor.h = inStream(P_w_ReH_out_sensor.C_in.h_outflow);
+ P_w_ReH_out_sensor.state = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (P_w_ReH_out_sensor.P, P_w_ReH_out_sensor.h, P_w_ReH_out_sensor.Xi, 0, 0);
+ assert(P_w_ReH_out_sensor.Q > 0, "Wrong flow sign in inline sensor. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.PressureSensor
+ equation
+ P_w_ReH_out_sensor.P_barA = P_w_ReH_out_sensor.P*1E-05;
+ P_w_ReH_out_sensor.P_psiA = P_w_ReH_out_sensor.P*0.000145038;
+ P_w_ReH_out_sensor.P_MPaA = P_w_ReH_out_sensor.P*1E-06;
+ P_w_ReH_out_sensor.P_kPaA = P_w_ReH_out_sensor.P*0.001;
+ P_w_ReH_out_sensor.P_barG = P_w_ReH_out_sensor.P_barA-1;
+ P_w_ReH_out_sensor.P_psiG = P_w_ReH_out_sensor.P_psiA-14.50377377;
+ P_w_ReH_out_sensor.P_MPaG = P_w_ReH_out_sensor.P_MPaA-0.1;
+ P_w_ReH_out_sensor.P_kPaG = P_w_ReH_out_sensor.P_kPaA-100;
+ P_w_ReH_out_sensor.P_mbar = P_w_ReH_out_sensor.P*0.01;
+ P_w_ReH_out_sensor.P_inHg = P_w_ReH_out_sensor.P*0.0002953006;
+ if (P_w_ReH_out_sensor.signal_unit == "barA") then
+ P_w_ReH_out_sensor.P_sensor = P_w_ReH_out_sensor.P_barA;
+ elseif (P_w_ReH_out_sensor.signal_unit == "barG") then
+ P_w_ReH_out_sensor.P_sensor = P_w_ReH_out_sensor.P_barG;
+ elseif (P_w_ReH_out_sensor.signal_unit == "mbar") then
+ P_w_ReH_out_sensor.P_sensor = P_w_ReH_out_sensor.P_mbar;
+ elseif (P_w_ReH_out_sensor.signal_unit == "MPaA") then
+ P_w_ReH_out_sensor.P_sensor = P_w_ReH_out_sensor.P_MPaA;
+ elseif (P_w_ReH_out_sensor.signal_unit == "kPaA") then
+ P_w_ReH_out_sensor.P_sensor = P_w_ReH_out_sensor.P_kPaA;
+ else
+ P_w_ReH_out_sensor.P_sensor = P_w_ReH_out_sensor.P;
+ end if;
+ // end of extends
+ equation
+ P_w_ReH_out_sensor.flow_model.C_in.P = P_w_ReH_out_sensor.C_in.P;
+ P_w_ReH_out_sensor.C_in.Q-P_w_ReH_out_sensor.flow_model.C_in.Q = 0.0;
+ P_w_ReH_out_sensor.flow_model.C_out.P = P_w_ReH_out_sensor.C_out.P;
+ P_w_ReH_out_sensor.C_out.Q-P_w_ReH_out_sensor.flow_model.C_out.Q = 0.0;
+
+ // Component P_Cond_sensor.flow_model
+ // class MetroscopeModelingLibrary.WaterSteam.BaseClasses.IsoPHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ P_Cond_sensor.flow_model.h_in = inStream(P_Cond_sensor.flow_model.C_in.h_outflow);
+ P_Cond_sensor.flow_model.h_out = P_Cond_sensor.flow_model.C_out.h_outflow;
+ P_Cond_sensor.flow_model.Q = P_Cond_sensor.flow_model.C_in.Q;
+ P_Cond_sensor.flow_model.P_in = P_Cond_sensor.flow_model.C_in.P;
+ P_Cond_sensor.flow_model.P_out = P_Cond_sensor.flow_model.C_out.P;
+ P_Cond_sensor.flow_model.Xi = inStream(P_Cond_sensor.flow_model.C_in.Xi_outflow);
+ P_Cond_sensor.flow_model.C_in.h_outflow = 1000000.0;
+ P_Cond_sensor.flow_model.C_in.Xi_outflow = zeros(0);
+ P_Cond_sensor.flow_model.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (P_Cond_sensor.flow_model.P_in, P_Cond_sensor.flow_model.h_in,
+ P_Cond_sensor.flow_model.Xi, 0, 0);
+ P_Cond_sensor.flow_model.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (P_Cond_sensor.flow_model.P_out, P_Cond_sensor.flow_model.h_out,
+ P_Cond_sensor.flow_model.Xi, 0, 0);
+ P_Cond_sensor.flow_model.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ P_Cond_sensor.flow_model.state_in);
+ P_Cond_sensor.flow_model.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ P_Cond_sensor.flow_model.state_out);
+ P_Cond_sensor.flow_model.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ P_Cond_sensor.flow_model.state_in);
+ P_Cond_sensor.flow_model.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ P_Cond_sensor.flow_model.state_out);
+ P_Cond_sensor.flow_model.rho = (P_Cond_sensor.flow_model.rho_in+
+ P_Cond_sensor.flow_model.rho_out)/2;
+ P_Cond_sensor.flow_model.Qv_in = P_Cond_sensor.flow_model.Q/
+ P_Cond_sensor.flow_model.rho_in;
+ P_Cond_sensor.flow_model.Qv_out = -P_Cond_sensor.flow_model.Q/
+ P_Cond_sensor.flow_model.rho_out;
+ P_Cond_sensor.flow_model.Qv = (P_Cond_sensor.flow_model.Qv_in-
+ P_Cond_sensor.flow_model.Qv_out)/2;
+ P_Cond_sensor.flow_model.P_out-P_Cond_sensor.flow_model.P_in =
+ P_Cond_sensor.flow_model.DP;
+ P_Cond_sensor.flow_model.Q*(P_Cond_sensor.flow_model.h_out-
+ P_Cond_sensor.flow_model.h_in) = P_Cond_sensor.flow_model.W;
+ P_Cond_sensor.flow_model.h_out-P_Cond_sensor.flow_model.h_in =
+ P_Cond_sensor.flow_model.DH;
+ P_Cond_sensor.flow_model.T_out-P_Cond_sensor.flow_model.T_in =
+ P_Cond_sensor.flow_model.DT;
+ P_Cond_sensor.flow_model.C_in.Q+P_Cond_sensor.flow_model.C_out.Q = 0;
+ P_Cond_sensor.flow_model.C_out.Xi_outflow = inStream(P_Cond_sensor.flow_model.C_in.Xi_outflow);
+ assert(P_Cond_sensor.flow_model.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPHFlowModel
+ equation
+ P_Cond_sensor.flow_model.P = P_Cond_sensor.flow_model.P_in;
+ P_Cond_sensor.flow_model.h = P_Cond_sensor.flow_model.h_in;
+ P_Cond_sensor.flow_model.T = P_Cond_sensor.flow_model.T_in;
+ P_Cond_sensor.flow_model.DP = 0;
+ P_Cond_sensor.flow_model.DH = 0;
+ // end of extends
+
+ // Component P_Cond_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.WaterSteam.PressureSensor
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.BaseSensor
+ equation
+ if ( not P_Cond_sensor.faulty_flow_rate) then
+ P_Cond_sensor.mass_flow_rate_bias = 0;
+ end if;
+ P_Cond_sensor.P = P_Cond_sensor.C_in.P;
+ P_Cond_sensor.Q = P_Cond_sensor.C_in.Q+P_Cond_sensor.mass_flow_rate_bias;
+ P_Cond_sensor.Xi = inStream(P_Cond_sensor.C_in.Xi_outflow);
+ P_Cond_sensor.h = inStream(P_Cond_sensor.C_in.h_outflow);
+ P_Cond_sensor.state = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (P_Cond_sensor.P, P_Cond_sensor.h, P_Cond_sensor.Xi, 0, 0);
+ assert(P_Cond_sensor.Q > 0, "Wrong flow sign in inline sensor. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.PressureSensor
+ equation
+ P_Cond_sensor.P_barA = P_Cond_sensor.P*1E-05;
+ P_Cond_sensor.P_psiA = P_Cond_sensor.P*0.000145038;
+ P_Cond_sensor.P_MPaA = P_Cond_sensor.P*1E-06;
+ P_Cond_sensor.P_kPaA = P_Cond_sensor.P*0.001;
+ P_Cond_sensor.P_barG = P_Cond_sensor.P_barA-1;
+ P_Cond_sensor.P_psiG = P_Cond_sensor.P_psiA-14.50377377;
+ P_Cond_sensor.P_MPaG = P_Cond_sensor.P_MPaA-0.1;
+ P_Cond_sensor.P_kPaG = P_Cond_sensor.P_kPaA-100;
+ P_Cond_sensor.P_mbar = P_Cond_sensor.P*0.01;
+ P_Cond_sensor.P_inHg = P_Cond_sensor.P*0.0002953006;
+ if (P_Cond_sensor.signal_unit == "barA") then
+ P_Cond_sensor.P_sensor = P_Cond_sensor.P_barA;
+ elseif (P_Cond_sensor.signal_unit == "barG") then
+ P_Cond_sensor.P_sensor = P_Cond_sensor.P_barG;
+ elseif (P_Cond_sensor.signal_unit == "mbar") then
+ P_Cond_sensor.P_sensor = P_Cond_sensor.P_mbar;
+ elseif (P_Cond_sensor.signal_unit == "MPaA") then
+ P_Cond_sensor.P_sensor = P_Cond_sensor.P_MPaA;
+ elseif (P_Cond_sensor.signal_unit == "kPaA") then
+ P_Cond_sensor.P_sensor = P_Cond_sensor.P_kPaA;
+ else
+ P_Cond_sensor.P_sensor = P_Cond_sensor.P;
+ end if;
+ // end of extends
+ equation
+ P_Cond_sensor.flow_model.C_in.P = P_Cond_sensor.C_in.P;
+ P_Cond_sensor.C_in.Q-P_Cond_sensor.flow_model.C_in.Q = 0.0;
+ P_Cond_sensor.flow_model.C_out.P = P_Cond_sensor.C_out.P;
+ P_Cond_sensor.C_out.Q-P_Cond_sensor.flow_model.C_out.Q = 0.0;
+
+ // Component P_source_air_sensor.flow_model
+ // class MetroscopeModelingLibrary.FlueGases.BaseClasses.IsoPHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ P_source_air_sensor.flow_model.h_in = inStream(P_source_air_sensor.flow_model.C_in.h_outflow);
+ P_source_air_sensor.flow_model.h_out = P_source_air_sensor.flow_model.C_out.h_outflow;
+ P_source_air_sensor.flow_model.Q = P_source_air_sensor.flow_model.C_in.Q;
+ P_source_air_sensor.flow_model.P_in = P_source_air_sensor.flow_model.C_in.P;
+ P_source_air_sensor.flow_model.P_out = P_source_air_sensor.flow_model.C_out.P;
+ P_source_air_sensor.flow_model.Xi = inStream(P_source_air_sensor.flow_model.C_in.Xi_outflow);
+ P_source_air_sensor.flow_model.C_in.h_outflow = 1000000.0;
+ P_source_air_sensor.flow_model.C_in.Xi_outflow = zeros(5);
+ P_source_air_sensor.flow_model.state_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (P_source_air_sensor.flow_model.P_in, P_source_air_sensor.flow_model.h_in,
+ P_source_air_sensor.flow_model.Xi);
+ P_source_air_sensor.flow_model.state_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (P_source_air_sensor.flow_model.P_out, P_source_air_sensor.flow_model.h_out,
+ P_source_air_sensor.flow_model.Xi);
+ P_source_air_sensor.flow_model.T_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ P_source_air_sensor.flow_model.state_in);
+ P_source_air_sensor.flow_model.T_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ P_source_air_sensor.flow_model.state_out);
+ P_source_air_sensor.flow_model.rho_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ P_source_air_sensor.flow_model.state_in);
+ P_source_air_sensor.flow_model.rho_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ P_source_air_sensor.flow_model.state_out);
+ P_source_air_sensor.flow_model.rho = (P_source_air_sensor.flow_model.rho_in
+ +P_source_air_sensor.flow_model.rho_out)/2;
+ P_source_air_sensor.flow_model.Qv_in = P_source_air_sensor.flow_model.Q/
+ P_source_air_sensor.flow_model.rho_in;
+ P_source_air_sensor.flow_model.Qv_out = -P_source_air_sensor.flow_model.Q
+ /P_source_air_sensor.flow_model.rho_out;
+ P_source_air_sensor.flow_model.Qv = (P_source_air_sensor.flow_model.Qv_in-
+ P_source_air_sensor.flow_model.Qv_out)/2;
+ P_source_air_sensor.flow_model.P_out-P_source_air_sensor.flow_model.P_in
+ = P_source_air_sensor.flow_model.DP;
+ P_source_air_sensor.flow_model.Q*(P_source_air_sensor.flow_model.h_out-
+ P_source_air_sensor.flow_model.h_in) = P_source_air_sensor.flow_model.W;
+ P_source_air_sensor.flow_model.h_out-P_source_air_sensor.flow_model.h_in
+ = P_source_air_sensor.flow_model.DH;
+ P_source_air_sensor.flow_model.T_out-P_source_air_sensor.flow_model.T_in
+ = P_source_air_sensor.flow_model.DT;
+ P_source_air_sensor.flow_model.C_in.Q+P_source_air_sensor.flow_model.C_out.Q
+ = 0;
+ P_source_air_sensor.flow_model.C_out.Xi_outflow = inStream(
+ P_source_air_sensor.flow_model.C_in.Xi_outflow);
+ assert(P_source_air_sensor.flow_model.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPHFlowModel
+ equation
+ P_source_air_sensor.flow_model.P = P_source_air_sensor.flow_model.P_in;
+ P_source_air_sensor.flow_model.h = P_source_air_sensor.flow_model.h_in;
+ P_source_air_sensor.flow_model.T = P_source_air_sensor.flow_model.T_in;
+ P_source_air_sensor.flow_model.DP = 0;
+ P_source_air_sensor.flow_model.DH = 0;
+ // end of extends
+
+ // Component P_source_air_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.FlueGases.PressureSensor
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.BaseSensor
+ equation
+ if ( not P_source_air_sensor.faulty_flow_rate) then
+ P_source_air_sensor.mass_flow_rate_bias = 0;
+ end if;
+ P_source_air_sensor.P = P_source_air_sensor.C_in.P;
+ P_source_air_sensor.Q = P_source_air_sensor.C_in.Q+P_source_air_sensor.mass_flow_rate_bias;
+ P_source_air_sensor.Xi = inStream(P_source_air_sensor.C_in.Xi_outflow);
+ P_source_air_sensor.h = inStream(P_source_air_sensor.C_in.h_outflow);
+ P_source_air_sensor.state = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (P_source_air_sensor.P, P_source_air_sensor.h, P_source_air_sensor.Xi);
+ assert(P_source_air_sensor.Q > 0, "Wrong flow sign in inline sensor. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.PressureSensor
+ equation
+ P_source_air_sensor.P_barA = P_source_air_sensor.P*1E-05;
+ P_source_air_sensor.P_psiA = P_source_air_sensor.P*0.000145038;
+ P_source_air_sensor.P_MPaA = P_source_air_sensor.P*1E-06;
+ P_source_air_sensor.P_kPaA = P_source_air_sensor.P*0.001;
+ P_source_air_sensor.P_barG = P_source_air_sensor.P_barA-1;
+ P_source_air_sensor.P_psiG = P_source_air_sensor.P_psiA-14.50377377;
+ P_source_air_sensor.P_MPaG = P_source_air_sensor.P_MPaA-0.1;
+ P_source_air_sensor.P_kPaG = P_source_air_sensor.P_kPaA-100;
+ P_source_air_sensor.P_mbar = P_source_air_sensor.P*0.01;
+ P_source_air_sensor.P_inHg = P_source_air_sensor.P*0.0002953006;
+ if (P_source_air_sensor.signal_unit == "barA") then
+ P_source_air_sensor.P_sensor = P_source_air_sensor.P_barA;
+ elseif (P_source_air_sensor.signal_unit == "barG") then
+ P_source_air_sensor.P_sensor = P_source_air_sensor.P_barG;
+ elseif (P_source_air_sensor.signal_unit == "mbar") then
+ P_source_air_sensor.P_sensor = P_source_air_sensor.P_mbar;
+ elseif (P_source_air_sensor.signal_unit == "MPaA") then
+ P_source_air_sensor.P_sensor = P_source_air_sensor.P_MPaA;
+ elseif (P_source_air_sensor.signal_unit == "kPaA") then
+ P_source_air_sensor.P_sensor = P_source_air_sensor.P_kPaA;
+ else
+ P_source_air_sensor.P_sensor = P_source_air_sensor.P;
+ end if;
+ // end of extends
+ equation
+ P_source_air_sensor.flow_model.C_in.P = P_source_air_sensor.C_in.P;
+ P_source_air_sensor.C_in.Q-P_source_air_sensor.flow_model.C_in.Q = 0.0;
+ P_source_air_sensor.flow_model.C_out.P = P_source_air_sensor.C_out.P;
+ P_source_air_sensor.C_out.Q-P_source_air_sensor.flow_model.C_out.Q = 0.0;
+
+ // Component T_source_air_sensor.flow_model
+ // class MetroscopeModelingLibrary.FlueGases.BaseClasses.IsoPHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ T_source_air_sensor.flow_model.h_in = inStream(T_source_air_sensor.flow_model.C_in.h_outflow);
+ T_source_air_sensor.flow_model.h_out = T_source_air_sensor.flow_model.C_out.h_outflow;
+ T_source_air_sensor.flow_model.Q = T_source_air_sensor.flow_model.C_in.Q;
+ T_source_air_sensor.flow_model.P_in = T_source_air_sensor.flow_model.C_in.P;
+ T_source_air_sensor.flow_model.P_out = T_source_air_sensor.flow_model.C_out.P;
+ T_source_air_sensor.flow_model.Xi = inStream(T_source_air_sensor.flow_model.C_in.Xi_outflow);
+ T_source_air_sensor.flow_model.C_in.h_outflow = 1000000.0;
+ T_source_air_sensor.flow_model.C_in.Xi_outflow = zeros(5);
+ T_source_air_sensor.flow_model.state_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (T_source_air_sensor.flow_model.P_in, T_source_air_sensor.flow_model.h_in,
+ T_source_air_sensor.flow_model.Xi);
+ T_source_air_sensor.flow_model.state_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (T_source_air_sensor.flow_model.P_out, T_source_air_sensor.flow_model.h_out,
+ T_source_air_sensor.flow_model.Xi);
+ T_source_air_sensor.flow_model.T_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ T_source_air_sensor.flow_model.state_in);
+ T_source_air_sensor.flow_model.T_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ T_source_air_sensor.flow_model.state_out);
+ T_source_air_sensor.flow_model.rho_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ T_source_air_sensor.flow_model.state_in);
+ T_source_air_sensor.flow_model.rho_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ T_source_air_sensor.flow_model.state_out);
+ T_source_air_sensor.flow_model.rho = (T_source_air_sensor.flow_model.rho_in
+ +T_source_air_sensor.flow_model.rho_out)/2;
+ T_source_air_sensor.flow_model.Qv_in = T_source_air_sensor.flow_model.Q/
+ T_source_air_sensor.flow_model.rho_in;
+ T_source_air_sensor.flow_model.Qv_out = -T_source_air_sensor.flow_model.Q
+ /T_source_air_sensor.flow_model.rho_out;
+ T_source_air_sensor.flow_model.Qv = (T_source_air_sensor.flow_model.Qv_in-
+ T_source_air_sensor.flow_model.Qv_out)/2;
+ T_source_air_sensor.flow_model.P_out-T_source_air_sensor.flow_model.P_in
+ = T_source_air_sensor.flow_model.DP;
+ T_source_air_sensor.flow_model.Q*(T_source_air_sensor.flow_model.h_out-
+ T_source_air_sensor.flow_model.h_in) = T_source_air_sensor.flow_model.W;
+ T_source_air_sensor.flow_model.h_out-T_source_air_sensor.flow_model.h_in
+ = T_source_air_sensor.flow_model.DH;
+ T_source_air_sensor.flow_model.T_out-T_source_air_sensor.flow_model.T_in
+ = T_source_air_sensor.flow_model.DT;
+ T_source_air_sensor.flow_model.C_in.Q+T_source_air_sensor.flow_model.C_out.Q
+ = 0;
+ T_source_air_sensor.flow_model.C_out.Xi_outflow = inStream(
+ T_source_air_sensor.flow_model.C_in.Xi_outflow);
+ assert(T_source_air_sensor.flow_model.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPHFlowModel
+ equation
+ T_source_air_sensor.flow_model.P = T_source_air_sensor.flow_model.P_in;
+ T_source_air_sensor.flow_model.h = T_source_air_sensor.flow_model.h_in;
+ T_source_air_sensor.flow_model.T = T_source_air_sensor.flow_model.T_in;
+ T_source_air_sensor.flow_model.DP = 0;
+ T_source_air_sensor.flow_model.DH = 0;
+ // end of extends
+
+ // Component T_source_air_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.FlueGases.TemperatureSensor
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.BaseSensor
+ equation
+ if ( not T_source_air_sensor.faulty_flow_rate) then
+ T_source_air_sensor.mass_flow_rate_bias = 0;
+ end if;
+ T_source_air_sensor.P = T_source_air_sensor.C_in.P;
+ T_source_air_sensor.Q = T_source_air_sensor.C_in.Q+T_source_air_sensor.mass_flow_rate_bias;
+ T_source_air_sensor.Xi = inStream(T_source_air_sensor.C_in.Xi_outflow);
+ T_source_air_sensor.h = inStream(T_source_air_sensor.C_in.h_outflow);
+ T_source_air_sensor.state = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (T_source_air_sensor.P, T_source_air_sensor.h, T_source_air_sensor.Xi);
+ assert(T_source_air_sensor.Q > 0, "Wrong flow sign in inline sensor. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.TemperatureSensor
+ equation
+ T_source_air_sensor.T = T_source_air_sensor.flow_model.T;
+ T_source_air_sensor.T_degC+273.15 = T_source_air_sensor.T;
+ T_source_air_sensor.T_degF = T_source_air_sensor.T_degC*1.8+32;
+ if (T_source_air_sensor.signal_unit == "degC") then
+ T_source_air_sensor.T_sensor = T_source_air_sensor.T_degC;
+ elseif (T_source_air_sensor.signal_unit == "degF") then
+ T_source_air_sensor.T_sensor = T_source_air_sensor.T_degF;
+ elseif (T_source_air_sensor.signal_unit == "K") then
+ T_source_air_sensor.T_sensor = T_source_air_sensor.T;
+ else
+ assert(false, "Unavailable unit selected for %name");
+ end if;
+ // end of extends
+ equation
+ T_source_air_sensor.flow_model.C_in.P = T_source_air_sensor.C_in.P;
+ T_source_air_sensor.C_in.Q-T_source_air_sensor.flow_model.C_in.Q = 0.0;
+ T_source_air_sensor.flow_model.C_out.P = T_source_air_sensor.C_out.P;
+ T_source_air_sensor.C_out.Q-T_source_air_sensor.flow_model.C_out.Q = 0.0;
+
+ // Component Q_source_air_sensor.flow_model
+ // class MetroscopeModelingLibrary.FlueGases.BaseClasses.IsoPHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ Q_source_air_sensor.flow_model.h_in = inStream(Q_source_air_sensor.flow_model.C_in.h_outflow);
+ Q_source_air_sensor.flow_model.h_out = Q_source_air_sensor.flow_model.C_out.h_outflow;
+ Q_source_air_sensor.flow_model.Q = Q_source_air_sensor.flow_model.C_in.Q;
+ Q_source_air_sensor.flow_model.P_in = Q_source_air_sensor.flow_model.C_in.P;
+ Q_source_air_sensor.flow_model.P_out = Q_source_air_sensor.flow_model.C_out.P;
+ Q_source_air_sensor.flow_model.Xi = inStream(Q_source_air_sensor.flow_model.C_in.Xi_outflow);
+ Q_source_air_sensor.flow_model.C_in.h_outflow = 1000000.0;
+ Q_source_air_sensor.flow_model.C_in.Xi_outflow = zeros(5);
+ Q_source_air_sensor.flow_model.state_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (Q_source_air_sensor.flow_model.P_in, Q_source_air_sensor.flow_model.h_in,
+ Q_source_air_sensor.flow_model.Xi);
+ Q_source_air_sensor.flow_model.state_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (Q_source_air_sensor.flow_model.P_out, Q_source_air_sensor.flow_model.h_out,
+ Q_source_air_sensor.flow_model.Xi);
+ Q_source_air_sensor.flow_model.T_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ Q_source_air_sensor.flow_model.state_in);
+ Q_source_air_sensor.flow_model.T_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ Q_source_air_sensor.flow_model.state_out);
+ Q_source_air_sensor.flow_model.rho_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ Q_source_air_sensor.flow_model.state_in);
+ Q_source_air_sensor.flow_model.rho_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ Q_source_air_sensor.flow_model.state_out);
+ Q_source_air_sensor.flow_model.rho = (Q_source_air_sensor.flow_model.rho_in
+ +Q_source_air_sensor.flow_model.rho_out)/2;
+ Q_source_air_sensor.flow_model.Qv_in = Q_source_air_sensor.flow_model.Q/
+ Q_source_air_sensor.flow_model.rho_in;
+ Q_source_air_sensor.flow_model.Qv_out = -Q_source_air_sensor.flow_model.Q
+ /Q_source_air_sensor.flow_model.rho_out;
+ Q_source_air_sensor.flow_model.Qv = (Q_source_air_sensor.flow_model.Qv_in-
+ Q_source_air_sensor.flow_model.Qv_out)/2;
+ Q_source_air_sensor.flow_model.P_out-Q_source_air_sensor.flow_model.P_in
+ = Q_source_air_sensor.flow_model.DP;
+ Q_source_air_sensor.flow_model.Q*(Q_source_air_sensor.flow_model.h_out-
+ Q_source_air_sensor.flow_model.h_in) = Q_source_air_sensor.flow_model.W;
+ Q_source_air_sensor.flow_model.h_out-Q_source_air_sensor.flow_model.h_in
+ = Q_source_air_sensor.flow_model.DH;
+ Q_source_air_sensor.flow_model.T_out-Q_source_air_sensor.flow_model.T_in
+ = Q_source_air_sensor.flow_model.DT;
+ Q_source_air_sensor.flow_model.C_in.Q+Q_source_air_sensor.flow_model.C_out.Q
+ = 0;
+ Q_source_air_sensor.flow_model.C_out.Xi_outflow = inStream(
+ Q_source_air_sensor.flow_model.C_in.Xi_outflow);
+ assert(Q_source_air_sensor.flow_model.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPHFlowModel
+ equation
+ Q_source_air_sensor.flow_model.P = Q_source_air_sensor.flow_model.P_in;
+ Q_source_air_sensor.flow_model.h = Q_source_air_sensor.flow_model.h_in;
+ Q_source_air_sensor.flow_model.T = Q_source_air_sensor.flow_model.T_in;
+ Q_source_air_sensor.flow_model.DP = 0;
+ Q_source_air_sensor.flow_model.DH = 0;
+ // end of extends
+
+ // Component Q_source_air_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.FlueGases.FlowSensor
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.BaseSensor
+ equation
+ if ( not Q_source_air_sensor.faulty_flow_rate) then
+ Q_source_air_sensor.mass_flow_rate_bias = 0;
+ end if;
+ Q_source_air_sensor.P = Q_source_air_sensor.C_in.P;
+ Q_source_air_sensor.Q = Q_source_air_sensor.C_in.Q+Q_source_air_sensor.mass_flow_rate_bias;
+ Q_source_air_sensor.Xi = inStream(Q_source_air_sensor.C_in.Xi_outflow);
+ Q_source_air_sensor.h = inStream(Q_source_air_sensor.C_in.h_outflow);
+ Q_source_air_sensor.state = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (Q_source_air_sensor.P, Q_source_air_sensor.h, Q_source_air_sensor.Xi);
+ assert(Q_source_air_sensor.Q > 0, "Wrong flow sign in inline sensor. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.FlowSensor
+ equation
+ Q_source_air_sensor.Qv = Q_source_air_sensor.Q/MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ Q_source_air_sensor.state);
+ Q_source_air_sensor.Q_lm = Q_source_air_sensor.Qv*60000;
+ Q_source_air_sensor.Q_th = Q_source_air_sensor.Q*3.6;
+ Q_source_air_sensor.Q_lbs = Q_source_air_sensor.Q*2.2046;
+ Q_source_air_sensor.Q_Mlbh = Q_source_air_sensor.Q*0.0079366414387;
+ if (Q_source_air_sensor.signal_unit == "l/m") then
+ Q_source_air_sensor.Q_sensor = Q_source_air_sensor.Q_lm;
+ elseif (Q_source_air_sensor.signal_unit == "t/h") then
+ Q_source_air_sensor.Q_sensor = Q_source_air_sensor.Q_th;
+ else
+ Q_source_air_sensor.Q_sensor = Q_source_air_sensor.Q;
+ end if;
+ // end of extends
+ equation
+ Q_source_air_sensor.flow_model.C_in.P = Q_source_air_sensor.C_in.P;
+ Q_source_air_sensor.C_in.Q-Q_source_air_sensor.flow_model.C_in.Q = 0.0;
+ Q_source_air_sensor.flow_model.C_out.P = Q_source_air_sensor.C_out.P;
+ Q_source_air_sensor.C_out.Q-Q_source_air_sensor.flow_model.C_out.Q = 0.0;
+
+ // Component T_circulating_water_in_sensor.flow_model
+ // class MetroscopeModelingLibrary.WaterSteam.BaseClasses.IsoPHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ T_circulating_water_in_sensor.flow_model.h_in = inStream(T_circulating_water_in_sensor.flow_model.C_in.h_outflow);
+ T_circulating_water_in_sensor.flow_model.h_out = T_circulating_water_in_sensor.flow_model.C_out.h_outflow;
+ T_circulating_water_in_sensor.flow_model.Q = T_circulating_water_in_sensor.flow_model.C_in.Q;
+ T_circulating_water_in_sensor.flow_model.P_in = T_circulating_water_in_sensor.flow_model.C_in.P;
+ T_circulating_water_in_sensor.flow_model.P_out = T_circulating_water_in_sensor.flow_model.C_out.P;
+ T_circulating_water_in_sensor.flow_model.Xi = inStream(T_circulating_water_in_sensor.flow_model.C_in.Xi_outflow);
+ T_circulating_water_in_sensor.flow_model.C_in.h_outflow = 1000000.0;
+ T_circulating_water_in_sensor.flow_model.C_in.Xi_outflow = zeros(0);
+ T_circulating_water_in_sensor.flow_model.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (T_circulating_water_in_sensor.flow_model.P_in, T_circulating_water_in_sensor.flow_model.h_in,
+ T_circulating_water_in_sensor.flow_model.Xi, 0, 0);
+ T_circulating_water_in_sensor.flow_model.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (T_circulating_water_in_sensor.flow_model.P_out, T_circulating_water_in_sensor.flow_model.h_out,
+ T_circulating_water_in_sensor.flow_model.Xi, 0, 0);
+ T_circulating_water_in_sensor.flow_model.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ T_circulating_water_in_sensor.flow_model.state_in);
+ T_circulating_water_in_sensor.flow_model.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ T_circulating_water_in_sensor.flow_model.state_out);
+ T_circulating_water_in_sensor.flow_model.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ T_circulating_water_in_sensor.flow_model.state_in);
+ T_circulating_water_in_sensor.flow_model.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ T_circulating_water_in_sensor.flow_model.state_out);
+ T_circulating_water_in_sensor.flow_model.rho = (T_circulating_water_in_sensor.flow_model.rho_in
+ +T_circulating_water_in_sensor.flow_model.rho_out)/2;
+ T_circulating_water_in_sensor.flow_model.Qv_in = T_circulating_water_in_sensor.flow_model.Q
+ /T_circulating_water_in_sensor.flow_model.rho_in;
+ T_circulating_water_in_sensor.flow_model.Qv_out = -T_circulating_water_in_sensor.flow_model.Q
+ /T_circulating_water_in_sensor.flow_model.rho_out;
+ T_circulating_water_in_sensor.flow_model.Qv = (T_circulating_water_in_sensor.flow_model.Qv_in
+ -T_circulating_water_in_sensor.flow_model.Qv_out)/2;
+ T_circulating_water_in_sensor.flow_model.P_out-T_circulating_water_in_sensor.flow_model.P_in
+ = T_circulating_water_in_sensor.flow_model.DP;
+ T_circulating_water_in_sensor.flow_model.Q*(T_circulating_water_in_sensor.flow_model.h_out
+ -T_circulating_water_in_sensor.flow_model.h_in) = T_circulating_water_in_sensor.flow_model.W;
+ T_circulating_water_in_sensor.flow_model.h_out-T_circulating_water_in_sensor.flow_model.h_in
+ = T_circulating_water_in_sensor.flow_model.DH;
+ T_circulating_water_in_sensor.flow_model.T_out-T_circulating_water_in_sensor.flow_model.T_in
+ = T_circulating_water_in_sensor.flow_model.DT;
+ T_circulating_water_in_sensor.flow_model.C_in.Q+T_circulating_water_in_sensor.flow_model.C_out.Q
+ = 0;
+ T_circulating_water_in_sensor.flow_model.C_out.Xi_outflow = inStream(
+ T_circulating_water_in_sensor.flow_model.C_in.Xi_outflow);
+ assert(T_circulating_water_in_sensor.flow_model.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPHFlowModel
+ equation
+ T_circulating_water_in_sensor.flow_model.P = T_circulating_water_in_sensor.flow_model.P_in;
+ T_circulating_water_in_sensor.flow_model.h = T_circulating_water_in_sensor.flow_model.h_in;
+ T_circulating_water_in_sensor.flow_model.T = T_circulating_water_in_sensor.flow_model.T_in;
+ T_circulating_water_in_sensor.flow_model.DP = 0;
+ T_circulating_water_in_sensor.flow_model.DH = 0;
+ // end of extends
+
+ // Component T_circulating_water_in_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.WaterSteam.TemperatureSensor
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.BaseSensor
+ equation
+ if ( not T_circulating_water_in_sensor.faulty_flow_rate) then
+ T_circulating_water_in_sensor.mass_flow_rate_bias = 0;
+ end if;
+ T_circulating_water_in_sensor.P = T_circulating_water_in_sensor.C_in.P;
+ T_circulating_water_in_sensor.Q = T_circulating_water_in_sensor.C_in.Q+
+ T_circulating_water_in_sensor.mass_flow_rate_bias;
+ T_circulating_water_in_sensor.Xi = inStream(T_circulating_water_in_sensor.C_in.Xi_outflow);
+ T_circulating_water_in_sensor.h = inStream(T_circulating_water_in_sensor.C_in.h_outflow);
+ T_circulating_water_in_sensor.state = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (T_circulating_water_in_sensor.P, T_circulating_water_in_sensor.h,
+ T_circulating_water_in_sensor.Xi, 0, 0);
+ assert(T_circulating_water_in_sensor.Q > 0, "Wrong flow sign in inline sensor. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.TemperatureSensor
+ equation
+ T_circulating_water_in_sensor.T = T_circulating_water_in_sensor.flow_model.T;
+ T_circulating_water_in_sensor.T_degC+273.15 = T_circulating_water_in_sensor.T;
+ T_circulating_water_in_sensor.T_degF = T_circulating_water_in_sensor.T_degC
+ *1.8+32;
+ if (T_circulating_water_in_sensor.signal_unit == "degC") then
+ T_circulating_water_in_sensor.T_sensor = T_circulating_water_in_sensor.T_degC;
+ elseif (T_circulating_water_in_sensor.signal_unit == "degF") then
+ T_circulating_water_in_sensor.T_sensor = T_circulating_water_in_sensor.T_degF;
+ elseif (T_circulating_water_in_sensor.signal_unit == "K") then
+ T_circulating_water_in_sensor.T_sensor = T_circulating_water_in_sensor.T;
+ else
+ assert(false, "Unavailable unit selected for %name");
+ end if;
+ // end of extends
+ equation
+ T_circulating_water_in_sensor.flow_model.C_in.P = T_circulating_water_in_sensor.C_in.P;
+ T_circulating_water_in_sensor.C_in.Q-T_circulating_water_in_sensor.flow_model.C_in.Q
+ = 0.0;
+ T_circulating_water_in_sensor.flow_model.C_out.P = T_circulating_water_in_sensor.C_out.P;
+ T_circulating_water_in_sensor.C_out.Q-T_circulating_water_in_sensor.flow_model.C_out.Q
+ = 0.0;
+
+ // Component P_circulating_water_in_sensor.flow_model
+ // class MetroscopeModelingLibrary.WaterSteam.BaseClasses.IsoPHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ P_circulating_water_in_sensor.flow_model.h_in = inStream(P_circulating_water_in_sensor.flow_model.C_in.h_outflow);
+ P_circulating_water_in_sensor.flow_model.h_out = P_circulating_water_in_sensor.flow_model.C_out.h_outflow;
+ P_circulating_water_in_sensor.flow_model.Q = P_circulating_water_in_sensor.flow_model.C_in.Q;
+ P_circulating_water_in_sensor.flow_model.P_in = P_circulating_water_in_sensor.flow_model.C_in.P;
+ P_circulating_water_in_sensor.flow_model.P_out = P_circulating_water_in_sensor.flow_model.C_out.P;
+ P_circulating_water_in_sensor.flow_model.Xi = inStream(P_circulating_water_in_sensor.flow_model.C_in.Xi_outflow);
+ P_circulating_water_in_sensor.flow_model.C_in.h_outflow = 1000000.0;
+ P_circulating_water_in_sensor.flow_model.C_in.Xi_outflow = zeros(0);
+ P_circulating_water_in_sensor.flow_model.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (P_circulating_water_in_sensor.flow_model.P_in, P_circulating_water_in_sensor.flow_model.h_in,
+ P_circulating_water_in_sensor.flow_model.Xi, 0, 0);
+ P_circulating_water_in_sensor.flow_model.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (P_circulating_water_in_sensor.flow_model.P_out, P_circulating_water_in_sensor.flow_model.h_out,
+ P_circulating_water_in_sensor.flow_model.Xi, 0, 0);
+ P_circulating_water_in_sensor.flow_model.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ P_circulating_water_in_sensor.flow_model.state_in);
+ P_circulating_water_in_sensor.flow_model.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ P_circulating_water_in_sensor.flow_model.state_out);
+ P_circulating_water_in_sensor.flow_model.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ P_circulating_water_in_sensor.flow_model.state_in);
+ P_circulating_water_in_sensor.flow_model.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ P_circulating_water_in_sensor.flow_model.state_out);
+ P_circulating_water_in_sensor.flow_model.rho = (P_circulating_water_in_sensor.flow_model.rho_in
+ +P_circulating_water_in_sensor.flow_model.rho_out)/2;
+ P_circulating_water_in_sensor.flow_model.Qv_in = P_circulating_water_in_sensor.flow_model.Q
+ /P_circulating_water_in_sensor.flow_model.rho_in;
+ P_circulating_water_in_sensor.flow_model.Qv_out = -P_circulating_water_in_sensor.flow_model.Q
+ /P_circulating_water_in_sensor.flow_model.rho_out;
+ P_circulating_water_in_sensor.flow_model.Qv = (P_circulating_water_in_sensor.flow_model.Qv_in
+ -P_circulating_water_in_sensor.flow_model.Qv_out)/2;
+ P_circulating_water_in_sensor.flow_model.P_out-P_circulating_water_in_sensor.flow_model.P_in
+ = P_circulating_water_in_sensor.flow_model.DP;
+ P_circulating_water_in_sensor.flow_model.Q*(P_circulating_water_in_sensor.flow_model.h_out
+ -P_circulating_water_in_sensor.flow_model.h_in) = P_circulating_water_in_sensor.flow_model.W;
+ P_circulating_water_in_sensor.flow_model.h_out-P_circulating_water_in_sensor.flow_model.h_in
+ = P_circulating_water_in_sensor.flow_model.DH;
+ P_circulating_water_in_sensor.flow_model.T_out-P_circulating_water_in_sensor.flow_model.T_in
+ = P_circulating_water_in_sensor.flow_model.DT;
+ P_circulating_water_in_sensor.flow_model.C_in.Q+P_circulating_water_in_sensor.flow_model.C_out.Q
+ = 0;
+ P_circulating_water_in_sensor.flow_model.C_out.Xi_outflow = inStream(
+ P_circulating_water_in_sensor.flow_model.C_in.Xi_outflow);
+ assert(P_circulating_water_in_sensor.flow_model.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPHFlowModel
+ equation
+ P_circulating_water_in_sensor.flow_model.P = P_circulating_water_in_sensor.flow_model.P_in;
+ P_circulating_water_in_sensor.flow_model.h = P_circulating_water_in_sensor.flow_model.h_in;
+ P_circulating_water_in_sensor.flow_model.T = P_circulating_water_in_sensor.flow_model.T_in;
+ P_circulating_water_in_sensor.flow_model.DP = 0;
+ P_circulating_water_in_sensor.flow_model.DH = 0;
+ // end of extends
+
+ // Component P_circulating_water_in_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.WaterSteam.PressureSensor
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.BaseSensor
+ equation
+ if ( not P_circulating_water_in_sensor.faulty_flow_rate) then
+ P_circulating_water_in_sensor.mass_flow_rate_bias = 0;
+ end if;
+ P_circulating_water_in_sensor.P = P_circulating_water_in_sensor.C_in.P;
+ P_circulating_water_in_sensor.Q = P_circulating_water_in_sensor.C_in.Q+
+ P_circulating_water_in_sensor.mass_flow_rate_bias;
+ P_circulating_water_in_sensor.Xi = inStream(P_circulating_water_in_sensor.C_in.Xi_outflow);
+ P_circulating_water_in_sensor.h = inStream(P_circulating_water_in_sensor.C_in.h_outflow);
+ P_circulating_water_in_sensor.state = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (P_circulating_water_in_sensor.P, P_circulating_water_in_sensor.h,
+ P_circulating_water_in_sensor.Xi, 0, 0);
+ assert(P_circulating_water_in_sensor.Q > 0, "Wrong flow sign in inline sensor. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.PressureSensor
+ equation
+ P_circulating_water_in_sensor.P_barA = P_circulating_water_in_sensor.P*
+ 1E-05;
+ P_circulating_water_in_sensor.P_psiA = P_circulating_water_in_sensor.P*
+ 0.000145038;
+ P_circulating_water_in_sensor.P_MPaA = P_circulating_water_in_sensor.P*
+ 1E-06;
+ P_circulating_water_in_sensor.P_kPaA = P_circulating_water_in_sensor.P*
+ 0.001;
+ P_circulating_water_in_sensor.P_barG = P_circulating_water_in_sensor.P_barA
+ -1;
+ P_circulating_water_in_sensor.P_psiG = P_circulating_water_in_sensor.P_psiA
+ -14.50377377;
+ P_circulating_water_in_sensor.P_MPaG = P_circulating_water_in_sensor.P_MPaA
+ -0.1;
+ P_circulating_water_in_sensor.P_kPaG = P_circulating_water_in_sensor.P_kPaA
+ -100;
+ P_circulating_water_in_sensor.P_mbar = P_circulating_water_in_sensor.P*
+ 0.01;
+ P_circulating_water_in_sensor.P_inHg = P_circulating_water_in_sensor.P*
+ 0.0002953006;
+ if (P_circulating_water_in_sensor.signal_unit == "barA") then
+ P_circulating_water_in_sensor.P_sensor = P_circulating_water_in_sensor.P_barA;
+ elseif (P_circulating_water_in_sensor.signal_unit == "barG") then
+ P_circulating_water_in_sensor.P_sensor = P_circulating_water_in_sensor.P_barG;
+ elseif (P_circulating_water_in_sensor.signal_unit == "mbar") then
+ P_circulating_water_in_sensor.P_sensor = P_circulating_water_in_sensor.P_mbar;
+ elseif (P_circulating_water_in_sensor.signal_unit == "MPaA") then
+ P_circulating_water_in_sensor.P_sensor = P_circulating_water_in_sensor.P_MPaA;
+ elseif (P_circulating_water_in_sensor.signal_unit == "kPaA") then
+ P_circulating_water_in_sensor.P_sensor = P_circulating_water_in_sensor.P_kPaA;
+ else
+ P_circulating_water_in_sensor.P_sensor = P_circulating_water_in_sensor.P;
+ end if;
+ // end of extends
+ equation
+ P_circulating_water_in_sensor.flow_model.C_in.P = P_circulating_water_in_sensor.C_in.P;
+ P_circulating_water_in_sensor.C_in.Q-P_circulating_water_in_sensor.flow_model.C_in.Q
+ = 0.0;
+ P_circulating_water_in_sensor.flow_model.C_out.P = P_circulating_water_in_sensor.C_out.P;
+ P_circulating_water_in_sensor.C_out.Q-P_circulating_water_in_sensor.flow_model.C_out.Q
+ = 0.0;
+
+ // Component LPST_control_valve
+ // class MetroscopeModelingLibrary.WaterSteam.Pipes.SlideValve
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ LPST_control_valve.h_in = inStream(LPST_control_valve.C_in.h_outflow);
+ LPST_control_valve.h_out = LPST_control_valve.C_out.h_outflow;
+ LPST_control_valve.Q = LPST_control_valve.C_in.Q;
+ LPST_control_valve.P_in = LPST_control_valve.C_in.P;
+ LPST_control_valve.P_out = LPST_control_valve.C_out.P;
+ LPST_control_valve.Xi = inStream(LPST_control_valve.C_in.Xi_outflow);
+ LPST_control_valve.C_in.h_outflow = 1000000.0;
+ LPST_control_valve.C_in.Xi_outflow = zeros(0);
+ LPST_control_valve.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (LPST_control_valve.P_in, LPST_control_valve.h_in, LPST_control_valve.Xi,
+ 0, 0);
+ LPST_control_valve.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (LPST_control_valve.P_out, LPST_control_valve.h_out, LPST_control_valve.Xi,
+ 0, 0);
+ LPST_control_valve.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ LPST_control_valve.state_in);
+ LPST_control_valve.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ LPST_control_valve.state_out);
+ LPST_control_valve.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ LPST_control_valve.state_in);
+ LPST_control_valve.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ LPST_control_valve.state_out);
+ LPST_control_valve.rho = (LPST_control_valve.rho_in+LPST_control_valve.rho_out)
+ /2;
+ LPST_control_valve.Qv_in = LPST_control_valve.Q/LPST_control_valve.rho_in;
+ LPST_control_valve.Qv_out = -LPST_control_valve.Q/LPST_control_valve.rho_out;
+ LPST_control_valve.Qv = (LPST_control_valve.Qv_in-LPST_control_valve.Qv_out)
+ /2;
+ LPST_control_valve.P_out-LPST_control_valve.P_in = LPST_control_valve.DP;
+ LPST_control_valve.Q*(LPST_control_valve.h_out-LPST_control_valve.h_in) =
+ LPST_control_valve.W;
+ LPST_control_valve.h_out-LPST_control_valve.h_in = LPST_control_valve.DH;
+ LPST_control_valve.T_out-LPST_control_valve.T_in = LPST_control_valve.DT;
+ LPST_control_valve.C_in.Q+LPST_control_valve.C_out.Q = 0;
+ LPST_control_valve.C_out.Xi_outflow = inStream(LPST_control_valve.C_in.Xi_outflow);
+ assert(LPST_control_valve.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoHFlowModel
+ equation
+ LPST_control_valve.h = LPST_control_valve.h_in;
+ LPST_control_valve.DH = 0;
+ // extends MetroscopeModelingLibrary.Partial.Pipes.SlideValve
+ equation
+ if ( not LPST_control_valve.faulty) then
+ LPST_control_valve.closed_valve = 0;
+ end if;
+ LPST_control_valve.DP*(1-LPST_control_valve.closed_valve/100)^2*
+ LPST_control_valve.Cv*abs(LPST_control_valve.Cv) = -1733000000000.0*abs
+ (LPST_control_valve.Q)*LPST_control_valve.Q/LPST_control_valve.rho_in^2;
+ // end of extends
+
+ // Component P_LPST_in_sensor.flow_model
+ // class MetroscopeModelingLibrary.WaterSteam.BaseClasses.IsoPHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ P_LPST_in_sensor.flow_model.h_in = inStream(P_LPST_in_sensor.flow_model.C_in.h_outflow);
+ P_LPST_in_sensor.flow_model.h_out = P_LPST_in_sensor.flow_model.C_out.h_outflow;
+ P_LPST_in_sensor.flow_model.Q = P_LPST_in_sensor.flow_model.C_in.Q;
+ P_LPST_in_sensor.flow_model.P_in = P_LPST_in_sensor.flow_model.C_in.P;
+ P_LPST_in_sensor.flow_model.P_out = P_LPST_in_sensor.flow_model.C_out.P;
+ P_LPST_in_sensor.flow_model.Xi = inStream(P_LPST_in_sensor.flow_model.C_in.Xi_outflow);
+ P_LPST_in_sensor.flow_model.C_in.h_outflow = 1000000.0;
+ P_LPST_in_sensor.flow_model.C_in.Xi_outflow = zeros(0);
+ P_LPST_in_sensor.flow_model.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (P_LPST_in_sensor.flow_model.P_in, P_LPST_in_sensor.flow_model.h_in,
+ P_LPST_in_sensor.flow_model.Xi, 0, 0);
+ P_LPST_in_sensor.flow_model.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (P_LPST_in_sensor.flow_model.P_out, P_LPST_in_sensor.flow_model.h_out,
+ P_LPST_in_sensor.flow_model.Xi, 0, 0);
+ P_LPST_in_sensor.flow_model.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ P_LPST_in_sensor.flow_model.state_in);
+ P_LPST_in_sensor.flow_model.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ P_LPST_in_sensor.flow_model.state_out);
+ P_LPST_in_sensor.flow_model.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ P_LPST_in_sensor.flow_model.state_in);
+ P_LPST_in_sensor.flow_model.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ P_LPST_in_sensor.flow_model.state_out);
+ P_LPST_in_sensor.flow_model.rho = (P_LPST_in_sensor.flow_model.rho_in+
+ P_LPST_in_sensor.flow_model.rho_out)/2;
+ P_LPST_in_sensor.flow_model.Qv_in = P_LPST_in_sensor.flow_model.Q/
+ P_LPST_in_sensor.flow_model.rho_in;
+ P_LPST_in_sensor.flow_model.Qv_out = -P_LPST_in_sensor.flow_model.Q/
+ P_LPST_in_sensor.flow_model.rho_out;
+ P_LPST_in_sensor.flow_model.Qv = (P_LPST_in_sensor.flow_model.Qv_in-
+ P_LPST_in_sensor.flow_model.Qv_out)/2;
+ P_LPST_in_sensor.flow_model.P_out-P_LPST_in_sensor.flow_model.P_in =
+ P_LPST_in_sensor.flow_model.DP;
+ P_LPST_in_sensor.flow_model.Q*(P_LPST_in_sensor.flow_model.h_out-
+ P_LPST_in_sensor.flow_model.h_in) = P_LPST_in_sensor.flow_model.W;
+ P_LPST_in_sensor.flow_model.h_out-P_LPST_in_sensor.flow_model.h_in =
+ P_LPST_in_sensor.flow_model.DH;
+ P_LPST_in_sensor.flow_model.T_out-P_LPST_in_sensor.flow_model.T_in =
+ P_LPST_in_sensor.flow_model.DT;
+ P_LPST_in_sensor.flow_model.C_in.Q+P_LPST_in_sensor.flow_model.C_out.Q = 0;
+ P_LPST_in_sensor.flow_model.C_out.Xi_outflow = inStream(P_LPST_in_sensor.flow_model.C_in.Xi_outflow);
+ assert(P_LPST_in_sensor.flow_model.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPHFlowModel
+ equation
+ P_LPST_in_sensor.flow_model.P = P_LPST_in_sensor.flow_model.P_in;
+ P_LPST_in_sensor.flow_model.h = P_LPST_in_sensor.flow_model.h_in;
+ P_LPST_in_sensor.flow_model.T = P_LPST_in_sensor.flow_model.T_in;
+ P_LPST_in_sensor.flow_model.DP = 0;
+ P_LPST_in_sensor.flow_model.DH = 0;
+ // end of extends
+
+ // Component P_LPST_in_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.WaterSteam.PressureSensor
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.BaseSensor
+ equation
+ if ( not P_LPST_in_sensor.faulty_flow_rate) then
+ P_LPST_in_sensor.mass_flow_rate_bias = 0;
+ end if;
+ P_LPST_in_sensor.P = P_LPST_in_sensor.C_in.P;
+ P_LPST_in_sensor.Q = P_LPST_in_sensor.C_in.Q+P_LPST_in_sensor.mass_flow_rate_bias;
+ P_LPST_in_sensor.Xi = inStream(P_LPST_in_sensor.C_in.Xi_outflow);
+ P_LPST_in_sensor.h = inStream(P_LPST_in_sensor.C_in.h_outflow);
+ P_LPST_in_sensor.state = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (P_LPST_in_sensor.P, P_LPST_in_sensor.h, P_LPST_in_sensor.Xi, 0, 0);
+ assert(P_LPST_in_sensor.Q > 0, "Wrong flow sign in inline sensor. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.PressureSensor
+ equation
+ P_LPST_in_sensor.P_barA = P_LPST_in_sensor.P*1E-05;
+ P_LPST_in_sensor.P_psiA = P_LPST_in_sensor.P*0.000145038;
+ P_LPST_in_sensor.P_MPaA = P_LPST_in_sensor.P*1E-06;
+ P_LPST_in_sensor.P_kPaA = P_LPST_in_sensor.P*0.001;
+ P_LPST_in_sensor.P_barG = P_LPST_in_sensor.P_barA-1;
+ P_LPST_in_sensor.P_psiG = P_LPST_in_sensor.P_psiA-14.50377377;
+ P_LPST_in_sensor.P_MPaG = P_LPST_in_sensor.P_MPaA-0.1;
+ P_LPST_in_sensor.P_kPaG = P_LPST_in_sensor.P_kPaA-100;
+ P_LPST_in_sensor.P_mbar = P_LPST_in_sensor.P*0.01;
+ P_LPST_in_sensor.P_inHg = P_LPST_in_sensor.P*0.0002953006;
+ if (P_LPST_in_sensor.signal_unit == "barA") then
+ P_LPST_in_sensor.P_sensor = P_LPST_in_sensor.P_barA;
+ elseif (P_LPST_in_sensor.signal_unit == "barG") then
+ P_LPST_in_sensor.P_sensor = P_LPST_in_sensor.P_barG;
+ elseif (P_LPST_in_sensor.signal_unit == "mbar") then
+ P_LPST_in_sensor.P_sensor = P_LPST_in_sensor.P_mbar;
+ elseif (P_LPST_in_sensor.signal_unit == "MPaA") then
+ P_LPST_in_sensor.P_sensor = P_LPST_in_sensor.P_MPaA;
+ elseif (P_LPST_in_sensor.signal_unit == "kPaA") then
+ P_LPST_in_sensor.P_sensor = P_LPST_in_sensor.P_kPaA;
+ else
+ P_LPST_in_sensor.P_sensor = P_LPST_in_sensor.P;
+ end if;
+ // end of extends
+ equation
+ P_LPST_in_sensor.flow_model.C_in.P = P_LPST_in_sensor.C_in.P;
+ P_LPST_in_sensor.C_in.Q-P_LPST_in_sensor.flow_model.C_in.Q = 0.0;
+ P_LPST_in_sensor.flow_model.C_out.P = P_LPST_in_sensor.C_out.P;
+ P_LPST_in_sensor.C_out.Q-P_LPST_in_sensor.flow_model.C_out.Q = 0.0;
+
+ // Component pumpRec
+ // class MetroscopeModelingLibrary.WaterSteam.Machines.FixedSpeedPump
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ pumpRec.h_in = inStream(pumpRec.C_in.h_outflow);
+ pumpRec.h_out = pumpRec.C_out.h_outflow;
+ pumpRec.Q = pumpRec.C_in.Q;
+ pumpRec.P_in = pumpRec.C_in.P;
+ pumpRec.P_out = pumpRec.C_out.P;
+ pumpRec.Xi = inStream(pumpRec.C_in.Xi_outflow);
+ pumpRec.C_in.h_outflow = 1000000.0;
+ pumpRec.C_in.Xi_outflow = zeros(0);
+ pumpRec.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8(
+ pumpRec.P_in, pumpRec.h_in, pumpRec.Xi, 0, 0);
+ pumpRec.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (pumpRec.P_out, pumpRec.h_out, pumpRec.Xi, 0, 0);
+ pumpRec.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12(
+ pumpRec.state_in);
+ pumpRec.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12(
+ pumpRec.state_out);
+ pumpRec.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13(
+ pumpRec.state_in);
+ pumpRec.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13(
+ pumpRec.state_out);
+ pumpRec.rho = (pumpRec.rho_in+pumpRec.rho_out)/2;
+ pumpRec.Qv_in = pumpRec.Q/pumpRec.rho_in;
+ pumpRec.Qv_out = -pumpRec.Q/pumpRec.rho_out;
+ pumpRec.Qv = (pumpRec.Qv_in-pumpRec.Qv_out)/2;
+ pumpRec.P_out-pumpRec.P_in = pumpRec.DP;
+ pumpRec.Q*(pumpRec.h_out-pumpRec.h_in) = pumpRec.W;
+ pumpRec.h_out-pumpRec.h_in = pumpRec.DH;
+ pumpRec.T_out-pumpRec.T_in = pumpRec.DT;
+ pumpRec.C_in.Q+pumpRec.C_out.Q = 0;
+ pumpRec.C_out.Xi_outflow = inStream(pumpRec.C_in.Xi_outflow);
+ assert(pumpRec.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.Machines.FixedSpeedPump
+ equation
+ pumpRec.DP = pumpRec.rho*9.80665*pumpRec.hn;
+ pumpRec.DH = 9.80665*pumpRec.hn/pumpRec.rh;
+ // end of extends
+
+ // Component T_pumpRec_out_sensor.flow_model
+ // class MetroscopeModelingLibrary.WaterSteam.BaseClasses.IsoPHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ T_pumpRec_out_sensor.flow_model.h_in = inStream(T_pumpRec_out_sensor.flow_model.C_in.h_outflow);
+ T_pumpRec_out_sensor.flow_model.h_out = T_pumpRec_out_sensor.flow_model.C_out.h_outflow;
+ T_pumpRec_out_sensor.flow_model.Q = T_pumpRec_out_sensor.flow_model.C_in.Q;
+ T_pumpRec_out_sensor.flow_model.P_in = T_pumpRec_out_sensor.flow_model.C_in.P;
+ T_pumpRec_out_sensor.flow_model.P_out = T_pumpRec_out_sensor.flow_model.C_out.P;
+ T_pumpRec_out_sensor.flow_model.Xi = inStream(T_pumpRec_out_sensor.flow_model.C_in.Xi_outflow);
+ T_pumpRec_out_sensor.flow_model.C_in.h_outflow = 1000000.0;
+ T_pumpRec_out_sensor.flow_model.C_in.Xi_outflow = zeros(0);
+ T_pumpRec_out_sensor.flow_model.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (T_pumpRec_out_sensor.flow_model.P_in, T_pumpRec_out_sensor.flow_model.h_in,
+ T_pumpRec_out_sensor.flow_model.Xi, 0, 0);
+ T_pumpRec_out_sensor.flow_model.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (T_pumpRec_out_sensor.flow_model.P_out, T_pumpRec_out_sensor.flow_model.h_out,
+ T_pumpRec_out_sensor.flow_model.Xi, 0, 0);
+ T_pumpRec_out_sensor.flow_model.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ T_pumpRec_out_sensor.flow_model.state_in);
+ T_pumpRec_out_sensor.flow_model.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ T_pumpRec_out_sensor.flow_model.state_out);
+ T_pumpRec_out_sensor.flow_model.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ T_pumpRec_out_sensor.flow_model.state_in);
+ T_pumpRec_out_sensor.flow_model.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ T_pumpRec_out_sensor.flow_model.state_out);
+ T_pumpRec_out_sensor.flow_model.rho = (T_pumpRec_out_sensor.flow_model.rho_in
+ +T_pumpRec_out_sensor.flow_model.rho_out)/2;
+ T_pumpRec_out_sensor.flow_model.Qv_in = T_pumpRec_out_sensor.flow_model.Q/
+ T_pumpRec_out_sensor.flow_model.rho_in;
+ T_pumpRec_out_sensor.flow_model.Qv_out = -T_pumpRec_out_sensor.flow_model.Q
+ /T_pumpRec_out_sensor.flow_model.rho_out;
+ T_pumpRec_out_sensor.flow_model.Qv = (T_pumpRec_out_sensor.flow_model.Qv_in
+ -T_pumpRec_out_sensor.flow_model.Qv_out)/2;
+ T_pumpRec_out_sensor.flow_model.P_out-T_pumpRec_out_sensor.flow_model.P_in
+ = T_pumpRec_out_sensor.flow_model.DP;
+ T_pumpRec_out_sensor.flow_model.Q*(T_pumpRec_out_sensor.flow_model.h_out-
+ T_pumpRec_out_sensor.flow_model.h_in) = T_pumpRec_out_sensor.flow_model.W;
+ T_pumpRec_out_sensor.flow_model.h_out-T_pumpRec_out_sensor.flow_model.h_in
+ = T_pumpRec_out_sensor.flow_model.DH;
+ T_pumpRec_out_sensor.flow_model.T_out-T_pumpRec_out_sensor.flow_model.T_in
+ = T_pumpRec_out_sensor.flow_model.DT;
+ T_pumpRec_out_sensor.flow_model.C_in.Q+T_pumpRec_out_sensor.flow_model.C_out.Q
+ = 0;
+ T_pumpRec_out_sensor.flow_model.C_out.Xi_outflow = inStream(
+ T_pumpRec_out_sensor.flow_model.C_in.Xi_outflow);
+ assert(T_pumpRec_out_sensor.flow_model.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPHFlowModel
+ equation
+ T_pumpRec_out_sensor.flow_model.P = T_pumpRec_out_sensor.flow_model.P_in;
+ T_pumpRec_out_sensor.flow_model.h = T_pumpRec_out_sensor.flow_model.h_in;
+ T_pumpRec_out_sensor.flow_model.T = T_pumpRec_out_sensor.flow_model.T_in;
+ T_pumpRec_out_sensor.flow_model.DP = 0;
+ T_pumpRec_out_sensor.flow_model.DH = 0;
+ // end of extends
+
+ // Component T_pumpRec_out_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.WaterSteam.TemperatureSensor
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.BaseSensor
+ equation
+ if ( not T_pumpRec_out_sensor.faulty_flow_rate) then
+ T_pumpRec_out_sensor.mass_flow_rate_bias = 0;
+ end if;
+ T_pumpRec_out_sensor.P = T_pumpRec_out_sensor.C_in.P;
+ T_pumpRec_out_sensor.Q = T_pumpRec_out_sensor.C_in.Q+T_pumpRec_out_sensor.mass_flow_rate_bias;
+ T_pumpRec_out_sensor.Xi = inStream(T_pumpRec_out_sensor.C_in.Xi_outflow);
+ T_pumpRec_out_sensor.h = inStream(T_pumpRec_out_sensor.C_in.h_outflow);
+ T_pumpRec_out_sensor.state = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (T_pumpRec_out_sensor.P, T_pumpRec_out_sensor.h, T_pumpRec_out_sensor.Xi,
+ 0, 0);
+ assert(T_pumpRec_out_sensor.Q > 0, "Wrong flow sign in inline sensor. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.TemperatureSensor
+ equation
+ T_pumpRec_out_sensor.T = T_pumpRec_out_sensor.flow_model.T;
+ T_pumpRec_out_sensor.T_degC+273.15 = T_pumpRec_out_sensor.T;
+ T_pumpRec_out_sensor.T_degF = T_pumpRec_out_sensor.T_degC*1.8+32;
+ if (T_pumpRec_out_sensor.signal_unit == "degC") then
+ T_pumpRec_out_sensor.T_sensor = T_pumpRec_out_sensor.T_degC;
+ elseif (T_pumpRec_out_sensor.signal_unit == "degF") then
+ T_pumpRec_out_sensor.T_sensor = T_pumpRec_out_sensor.T_degF;
+ elseif (T_pumpRec_out_sensor.signal_unit == "K") then
+ T_pumpRec_out_sensor.T_sensor = T_pumpRec_out_sensor.T;
+ else
+ assert(false, "Unavailable unit selected for %name");
+ end if;
+ // end of extends
+ equation
+ T_pumpRec_out_sensor.flow_model.C_in.P = T_pumpRec_out_sensor.C_in.P;
+ T_pumpRec_out_sensor.C_in.Q-T_pumpRec_out_sensor.flow_model.C_in.Q = 0.0;
+ T_pumpRec_out_sensor.flow_model.C_out.P = T_pumpRec_out_sensor.C_out.P;
+ T_pumpRec_out_sensor.C_out.Q-T_pumpRec_out_sensor.flow_model.C_out.Q = 0.0;
+
+ // Component P_pumpRec_out_sensor.flow_model
+ // class MetroscopeModelingLibrary.WaterSteam.BaseClasses.IsoPHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ P_pumpRec_out_sensor.flow_model.h_in = inStream(P_pumpRec_out_sensor.flow_model.C_in.h_outflow);
+ P_pumpRec_out_sensor.flow_model.h_out = P_pumpRec_out_sensor.flow_model.C_out.h_outflow;
+ P_pumpRec_out_sensor.flow_model.Q = P_pumpRec_out_sensor.flow_model.C_in.Q;
+ P_pumpRec_out_sensor.flow_model.P_in = P_pumpRec_out_sensor.flow_model.C_in.P;
+ P_pumpRec_out_sensor.flow_model.P_out = P_pumpRec_out_sensor.flow_model.C_out.P;
+ P_pumpRec_out_sensor.flow_model.Xi = inStream(P_pumpRec_out_sensor.flow_model.C_in.Xi_outflow);
+ P_pumpRec_out_sensor.flow_model.C_in.h_outflow = 1000000.0;
+ P_pumpRec_out_sensor.flow_model.C_in.Xi_outflow = zeros(0);
+ P_pumpRec_out_sensor.flow_model.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (P_pumpRec_out_sensor.flow_model.P_in, P_pumpRec_out_sensor.flow_model.h_in,
+ P_pumpRec_out_sensor.flow_model.Xi, 0, 0);
+ P_pumpRec_out_sensor.flow_model.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (P_pumpRec_out_sensor.flow_model.P_out, P_pumpRec_out_sensor.flow_model.h_out,
+ P_pumpRec_out_sensor.flow_model.Xi, 0, 0);
+ P_pumpRec_out_sensor.flow_model.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ P_pumpRec_out_sensor.flow_model.state_in);
+ P_pumpRec_out_sensor.flow_model.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ P_pumpRec_out_sensor.flow_model.state_out);
+ P_pumpRec_out_sensor.flow_model.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ P_pumpRec_out_sensor.flow_model.state_in);
+ P_pumpRec_out_sensor.flow_model.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ P_pumpRec_out_sensor.flow_model.state_out);
+ P_pumpRec_out_sensor.flow_model.rho = (P_pumpRec_out_sensor.flow_model.rho_in
+ +P_pumpRec_out_sensor.flow_model.rho_out)/2;
+ P_pumpRec_out_sensor.flow_model.Qv_in = P_pumpRec_out_sensor.flow_model.Q/
+ P_pumpRec_out_sensor.flow_model.rho_in;
+ P_pumpRec_out_sensor.flow_model.Qv_out = -P_pumpRec_out_sensor.flow_model.Q
+ /P_pumpRec_out_sensor.flow_model.rho_out;
+ P_pumpRec_out_sensor.flow_model.Qv = (P_pumpRec_out_sensor.flow_model.Qv_in
+ -P_pumpRec_out_sensor.flow_model.Qv_out)/2;
+ P_pumpRec_out_sensor.flow_model.P_out-P_pumpRec_out_sensor.flow_model.P_in
+ = P_pumpRec_out_sensor.flow_model.DP;
+ P_pumpRec_out_sensor.flow_model.Q*(P_pumpRec_out_sensor.flow_model.h_out-
+ P_pumpRec_out_sensor.flow_model.h_in) = P_pumpRec_out_sensor.flow_model.W;
+ P_pumpRec_out_sensor.flow_model.h_out-P_pumpRec_out_sensor.flow_model.h_in
+ = P_pumpRec_out_sensor.flow_model.DH;
+ P_pumpRec_out_sensor.flow_model.T_out-P_pumpRec_out_sensor.flow_model.T_in
+ = P_pumpRec_out_sensor.flow_model.DT;
+ P_pumpRec_out_sensor.flow_model.C_in.Q+P_pumpRec_out_sensor.flow_model.C_out.Q
+ = 0;
+ P_pumpRec_out_sensor.flow_model.C_out.Xi_outflow = inStream(
+ P_pumpRec_out_sensor.flow_model.C_in.Xi_outflow);
+ assert(P_pumpRec_out_sensor.flow_model.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPHFlowModel
+ equation
+ P_pumpRec_out_sensor.flow_model.P = P_pumpRec_out_sensor.flow_model.P_in;
+ P_pumpRec_out_sensor.flow_model.h = P_pumpRec_out_sensor.flow_model.h_in;
+ P_pumpRec_out_sensor.flow_model.T = P_pumpRec_out_sensor.flow_model.T_in;
+ P_pumpRec_out_sensor.flow_model.DP = 0;
+ P_pumpRec_out_sensor.flow_model.DH = 0;
+ // end of extends
+
+ // Component P_pumpRec_out_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.WaterSteam.PressureSensor
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.BaseSensor
+ equation
+ if ( not P_pumpRec_out_sensor.faulty_flow_rate) then
+ P_pumpRec_out_sensor.mass_flow_rate_bias = 0;
+ end if;
+ P_pumpRec_out_sensor.P = P_pumpRec_out_sensor.C_in.P;
+ P_pumpRec_out_sensor.Q = P_pumpRec_out_sensor.C_in.Q+P_pumpRec_out_sensor.mass_flow_rate_bias;
+ P_pumpRec_out_sensor.Xi = inStream(P_pumpRec_out_sensor.C_in.Xi_outflow);
+ P_pumpRec_out_sensor.h = inStream(P_pumpRec_out_sensor.C_in.h_outflow);
+ P_pumpRec_out_sensor.state = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (P_pumpRec_out_sensor.P, P_pumpRec_out_sensor.h, P_pumpRec_out_sensor.Xi,
+ 0, 0);
+ assert(P_pumpRec_out_sensor.Q > 0, "Wrong flow sign in inline sensor. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.PressureSensor
+ equation
+ P_pumpRec_out_sensor.P_barA = P_pumpRec_out_sensor.P*1E-05;
+ P_pumpRec_out_sensor.P_psiA = P_pumpRec_out_sensor.P*0.000145038;
+ P_pumpRec_out_sensor.P_MPaA = P_pumpRec_out_sensor.P*1E-06;
+ P_pumpRec_out_sensor.P_kPaA = P_pumpRec_out_sensor.P*0.001;
+ P_pumpRec_out_sensor.P_barG = P_pumpRec_out_sensor.P_barA-1;
+ P_pumpRec_out_sensor.P_psiG = P_pumpRec_out_sensor.P_psiA-14.50377377;
+ P_pumpRec_out_sensor.P_MPaG = P_pumpRec_out_sensor.P_MPaA-0.1;
+ P_pumpRec_out_sensor.P_kPaG = P_pumpRec_out_sensor.P_kPaA-100;
+ P_pumpRec_out_sensor.P_mbar = P_pumpRec_out_sensor.P*0.01;
+ P_pumpRec_out_sensor.P_inHg = P_pumpRec_out_sensor.P*0.0002953006;
+ if (P_pumpRec_out_sensor.signal_unit == "barA") then
+ P_pumpRec_out_sensor.P_sensor = P_pumpRec_out_sensor.P_barA;
+ elseif (P_pumpRec_out_sensor.signal_unit == "barG") then
+ P_pumpRec_out_sensor.P_sensor = P_pumpRec_out_sensor.P_barG;
+ elseif (P_pumpRec_out_sensor.signal_unit == "mbar") then
+ P_pumpRec_out_sensor.P_sensor = P_pumpRec_out_sensor.P_mbar;
+ elseif (P_pumpRec_out_sensor.signal_unit == "MPaA") then
+ P_pumpRec_out_sensor.P_sensor = P_pumpRec_out_sensor.P_MPaA;
+ elseif (P_pumpRec_out_sensor.signal_unit == "kPaA") then
+ P_pumpRec_out_sensor.P_sensor = P_pumpRec_out_sensor.P_kPaA;
+ else
+ P_pumpRec_out_sensor.P_sensor = P_pumpRec_out_sensor.P;
+ end if;
+ // end of extends
+ equation
+ P_pumpRec_out_sensor.flow_model.C_in.P = P_pumpRec_out_sensor.C_in.P;
+ P_pumpRec_out_sensor.C_in.Q-P_pumpRec_out_sensor.flow_model.C_in.Q = 0.0;
+ P_pumpRec_out_sensor.flow_model.C_out.P = P_pumpRec_out_sensor.C_out.P;
+ P_pumpRec_out_sensor.C_out.Q-P_pumpRec_out_sensor.flow_model.C_out.Q = 0.0;
+
+ // Component Q_pumpRec_out_sensor.flow_model
+ // class MetroscopeModelingLibrary.WaterSteam.BaseClasses.IsoPHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ Q_pumpRec_out_sensor.flow_model.h_in = inStream(Q_pumpRec_out_sensor.flow_model.C_in.h_outflow);
+ Q_pumpRec_out_sensor.flow_model.h_out = Q_pumpRec_out_sensor.flow_model.C_out.h_outflow;
+ Q_pumpRec_out_sensor.flow_model.Q = Q_pumpRec_out_sensor.flow_model.C_in.Q;
+ Q_pumpRec_out_sensor.flow_model.P_in = Q_pumpRec_out_sensor.flow_model.C_in.P;
+ Q_pumpRec_out_sensor.flow_model.P_out = Q_pumpRec_out_sensor.flow_model.C_out.P;
+ Q_pumpRec_out_sensor.flow_model.Xi = inStream(Q_pumpRec_out_sensor.flow_model.C_in.Xi_outflow);
+ Q_pumpRec_out_sensor.flow_model.C_in.h_outflow = 1000000.0;
+ Q_pumpRec_out_sensor.flow_model.C_in.Xi_outflow = zeros(0);
+ Q_pumpRec_out_sensor.flow_model.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (Q_pumpRec_out_sensor.flow_model.P_in, Q_pumpRec_out_sensor.flow_model.h_in,
+ Q_pumpRec_out_sensor.flow_model.Xi, 0, 0);
+ Q_pumpRec_out_sensor.flow_model.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (Q_pumpRec_out_sensor.flow_model.P_out, Q_pumpRec_out_sensor.flow_model.h_out,
+ Q_pumpRec_out_sensor.flow_model.Xi, 0, 0);
+ Q_pumpRec_out_sensor.flow_model.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ Q_pumpRec_out_sensor.flow_model.state_in);
+ Q_pumpRec_out_sensor.flow_model.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ Q_pumpRec_out_sensor.flow_model.state_out);
+ Q_pumpRec_out_sensor.flow_model.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ Q_pumpRec_out_sensor.flow_model.state_in);
+ Q_pumpRec_out_sensor.flow_model.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ Q_pumpRec_out_sensor.flow_model.state_out);
+ Q_pumpRec_out_sensor.flow_model.rho = (Q_pumpRec_out_sensor.flow_model.rho_in
+ +Q_pumpRec_out_sensor.flow_model.rho_out)/2;
+ Q_pumpRec_out_sensor.flow_model.Qv_in = Q_pumpRec_out_sensor.flow_model.Q/
+ Q_pumpRec_out_sensor.flow_model.rho_in;
+ Q_pumpRec_out_sensor.flow_model.Qv_out = -Q_pumpRec_out_sensor.flow_model.Q
+ /Q_pumpRec_out_sensor.flow_model.rho_out;
+ Q_pumpRec_out_sensor.flow_model.Qv = (Q_pumpRec_out_sensor.flow_model.Qv_in
+ -Q_pumpRec_out_sensor.flow_model.Qv_out)/2;
+ Q_pumpRec_out_sensor.flow_model.P_out-Q_pumpRec_out_sensor.flow_model.P_in
+ = Q_pumpRec_out_sensor.flow_model.DP;
+ Q_pumpRec_out_sensor.flow_model.Q*(Q_pumpRec_out_sensor.flow_model.h_out-
+ Q_pumpRec_out_sensor.flow_model.h_in) = Q_pumpRec_out_sensor.flow_model.W;
+ Q_pumpRec_out_sensor.flow_model.h_out-Q_pumpRec_out_sensor.flow_model.h_in
+ = Q_pumpRec_out_sensor.flow_model.DH;
+ Q_pumpRec_out_sensor.flow_model.T_out-Q_pumpRec_out_sensor.flow_model.T_in
+ = Q_pumpRec_out_sensor.flow_model.DT;
+ Q_pumpRec_out_sensor.flow_model.C_in.Q+Q_pumpRec_out_sensor.flow_model.C_out.Q
+ = 0;
+ Q_pumpRec_out_sensor.flow_model.C_out.Xi_outflow = inStream(
+ Q_pumpRec_out_sensor.flow_model.C_in.Xi_outflow);
+ assert(Q_pumpRec_out_sensor.flow_model.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPHFlowModel
+ equation
+ Q_pumpRec_out_sensor.flow_model.P = Q_pumpRec_out_sensor.flow_model.P_in;
+ Q_pumpRec_out_sensor.flow_model.h = Q_pumpRec_out_sensor.flow_model.h_in;
+ Q_pumpRec_out_sensor.flow_model.T = Q_pumpRec_out_sensor.flow_model.T_in;
+ Q_pumpRec_out_sensor.flow_model.DP = 0;
+ Q_pumpRec_out_sensor.flow_model.DH = 0;
+ // end of extends
+
+ // Component Q_pumpRec_out_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.WaterSteam.FlowSensor
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.BaseSensor
+ equation
+ if ( not Q_pumpRec_out_sensor.faulty_flow_rate) then
+ Q_pumpRec_out_sensor.mass_flow_rate_bias = 0;
+ end if;
+ Q_pumpRec_out_sensor.P = Q_pumpRec_out_sensor.C_in.P;
+ Q_pumpRec_out_sensor.Q = Q_pumpRec_out_sensor.C_in.Q+Q_pumpRec_out_sensor.mass_flow_rate_bias;
+ Q_pumpRec_out_sensor.Xi = inStream(Q_pumpRec_out_sensor.C_in.Xi_outflow);
+ Q_pumpRec_out_sensor.h = inStream(Q_pumpRec_out_sensor.C_in.h_outflow);
+ Q_pumpRec_out_sensor.state = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (Q_pumpRec_out_sensor.P, Q_pumpRec_out_sensor.h, Q_pumpRec_out_sensor.Xi,
+ 0, 0);
+ assert(Q_pumpRec_out_sensor.Q > 0, "Wrong flow sign in inline sensor. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.FlowSensor
+ equation
+ Q_pumpRec_out_sensor.Qv = Q_pumpRec_out_sensor.Q/Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ Q_pumpRec_out_sensor.state);
+ Q_pumpRec_out_sensor.Q_lm = Q_pumpRec_out_sensor.Qv*60000;
+ Q_pumpRec_out_sensor.Q_th = Q_pumpRec_out_sensor.Q*3.6;
+ Q_pumpRec_out_sensor.Q_lbs = Q_pumpRec_out_sensor.Q*2.2046;
+ Q_pumpRec_out_sensor.Q_Mlbh = Q_pumpRec_out_sensor.Q*0.0079366414387;
+ if (Q_pumpRec_out_sensor.signal_unit == "l/m") then
+ Q_pumpRec_out_sensor.Q_sensor = Q_pumpRec_out_sensor.Q_lm;
+ elseif (Q_pumpRec_out_sensor.signal_unit == "t/h") then
+ Q_pumpRec_out_sensor.Q_sensor = Q_pumpRec_out_sensor.Q_th;
+ else
+ Q_pumpRec_out_sensor.Q_sensor = Q_pumpRec_out_sensor.Q;
+ end if;
+ // end of extends
+ equation
+ Q_pumpRec_out_sensor.flow_model.C_in.P = Q_pumpRec_out_sensor.C_in.P;
+ Q_pumpRec_out_sensor.C_in.Q-Q_pumpRec_out_sensor.flow_model.C_in.Q = 0.0;
+ Q_pumpRec_out_sensor.flow_model.C_out.P = Q_pumpRec_out_sensor.C_out.P;
+ Q_pumpRec_out_sensor.C_out.Q-Q_pumpRec_out_sensor.flow_model.C_out.Q = 0.0;
+
+ // Component T_w_eco_in_sensor.flow_model
+ // class MetroscopeModelingLibrary.WaterSteam.BaseClasses.IsoPHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ T_w_eco_in_sensor.flow_model.h_in = inStream(T_w_eco_in_sensor.flow_model.C_in.h_outflow);
+ T_w_eco_in_sensor.flow_model.h_out = T_w_eco_in_sensor.flow_model.C_out.h_outflow;
+ T_w_eco_in_sensor.flow_model.Q = T_w_eco_in_sensor.flow_model.C_in.Q;
+ T_w_eco_in_sensor.flow_model.P_in = T_w_eco_in_sensor.flow_model.C_in.P;
+ T_w_eco_in_sensor.flow_model.P_out = T_w_eco_in_sensor.flow_model.C_out.P;
+ T_w_eco_in_sensor.flow_model.Xi = inStream(T_w_eco_in_sensor.flow_model.C_in.Xi_outflow);
+ T_w_eco_in_sensor.flow_model.C_in.h_outflow = 1000000.0;
+ T_w_eco_in_sensor.flow_model.C_in.Xi_outflow = zeros(0);
+ T_w_eco_in_sensor.flow_model.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (T_w_eco_in_sensor.flow_model.P_in, T_w_eco_in_sensor.flow_model.h_in,
+ T_w_eco_in_sensor.flow_model.Xi, 0, 0);
+ T_w_eco_in_sensor.flow_model.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (T_w_eco_in_sensor.flow_model.P_out, T_w_eco_in_sensor.flow_model.h_out,
+ T_w_eco_in_sensor.flow_model.Xi, 0, 0);
+ T_w_eco_in_sensor.flow_model.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ T_w_eco_in_sensor.flow_model.state_in);
+ T_w_eco_in_sensor.flow_model.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ T_w_eco_in_sensor.flow_model.state_out);
+ T_w_eco_in_sensor.flow_model.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ T_w_eco_in_sensor.flow_model.state_in);
+ T_w_eco_in_sensor.flow_model.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ T_w_eco_in_sensor.flow_model.state_out);
+ T_w_eco_in_sensor.flow_model.rho = (T_w_eco_in_sensor.flow_model.rho_in+
+ T_w_eco_in_sensor.flow_model.rho_out)/2;
+ T_w_eco_in_sensor.flow_model.Qv_in = T_w_eco_in_sensor.flow_model.Q/
+ T_w_eco_in_sensor.flow_model.rho_in;
+ T_w_eco_in_sensor.flow_model.Qv_out = -T_w_eco_in_sensor.flow_model.Q/
+ T_w_eco_in_sensor.flow_model.rho_out;
+ T_w_eco_in_sensor.flow_model.Qv = (T_w_eco_in_sensor.flow_model.Qv_in-
+ T_w_eco_in_sensor.flow_model.Qv_out)/2;
+ T_w_eco_in_sensor.flow_model.P_out-T_w_eco_in_sensor.flow_model.P_in =
+ T_w_eco_in_sensor.flow_model.DP;
+ T_w_eco_in_sensor.flow_model.Q*(T_w_eco_in_sensor.flow_model.h_out-
+ T_w_eco_in_sensor.flow_model.h_in) = T_w_eco_in_sensor.flow_model.W;
+ T_w_eco_in_sensor.flow_model.h_out-T_w_eco_in_sensor.flow_model.h_in =
+ T_w_eco_in_sensor.flow_model.DH;
+ T_w_eco_in_sensor.flow_model.T_out-T_w_eco_in_sensor.flow_model.T_in =
+ T_w_eco_in_sensor.flow_model.DT;
+ T_w_eco_in_sensor.flow_model.C_in.Q+T_w_eco_in_sensor.flow_model.C_out.Q
+ = 0;
+ T_w_eco_in_sensor.flow_model.C_out.Xi_outflow = inStream(T_w_eco_in_sensor.flow_model.C_in.Xi_outflow);
+ assert(T_w_eco_in_sensor.flow_model.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPHFlowModel
+ equation
+ T_w_eco_in_sensor.flow_model.P = T_w_eco_in_sensor.flow_model.P_in;
+ T_w_eco_in_sensor.flow_model.h = T_w_eco_in_sensor.flow_model.h_in;
+ T_w_eco_in_sensor.flow_model.T = T_w_eco_in_sensor.flow_model.T_in;
+ T_w_eco_in_sensor.flow_model.DP = 0;
+ T_w_eco_in_sensor.flow_model.DH = 0;
+ // end of extends
+
+ // Component T_w_eco_in_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.WaterSteam.TemperatureSensor
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.BaseSensor
+ equation
+ if ( not T_w_eco_in_sensor.faulty_flow_rate) then
+ T_w_eco_in_sensor.mass_flow_rate_bias = 0;
+ end if;
+ T_w_eco_in_sensor.P = T_w_eco_in_sensor.C_in.P;
+ T_w_eco_in_sensor.Q = T_w_eco_in_sensor.C_in.Q+T_w_eco_in_sensor.mass_flow_rate_bias;
+ T_w_eco_in_sensor.Xi = inStream(T_w_eco_in_sensor.C_in.Xi_outflow);
+ T_w_eco_in_sensor.h = inStream(T_w_eco_in_sensor.C_in.h_outflow);
+ T_w_eco_in_sensor.state = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (T_w_eco_in_sensor.P, T_w_eco_in_sensor.h, T_w_eco_in_sensor.Xi, 0, 0);
+ assert(T_w_eco_in_sensor.Q > 0, "Wrong flow sign in inline sensor. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.TemperatureSensor
+ equation
+ T_w_eco_in_sensor.T = T_w_eco_in_sensor.flow_model.T;
+ T_w_eco_in_sensor.T_degC+273.15 = T_w_eco_in_sensor.T;
+ T_w_eco_in_sensor.T_degF = T_w_eco_in_sensor.T_degC*1.8+32;
+ if (T_w_eco_in_sensor.signal_unit == "degC") then
+ T_w_eco_in_sensor.T_sensor = T_w_eco_in_sensor.T_degC;
+ elseif (T_w_eco_in_sensor.signal_unit == "degF") then
+ T_w_eco_in_sensor.T_sensor = T_w_eco_in_sensor.T_degF;
+ elseif (T_w_eco_in_sensor.signal_unit == "K") then
+ T_w_eco_in_sensor.T_sensor = T_w_eco_in_sensor.T;
+ else
+ assert(false, "Unavailable unit selected for %name");
+ end if;
+ // end of extends
+ equation
+ T_w_eco_in_sensor.flow_model.C_in.P = T_w_eco_in_sensor.C_in.P;
+ T_w_eco_in_sensor.C_in.Q-T_w_eco_in_sensor.flow_model.C_in.Q = 0.0;
+ T_w_eco_in_sensor.flow_model.C_out.P = T_w_eco_in_sensor.C_out.P;
+ T_w_eco_in_sensor.C_out.Q-T_w_eco_in_sensor.flow_model.C_out.Q = 0.0;
+
+ // Component pumpRec_controlValve
+ // class MetroscopeModelingLibrary.WaterSteam.Pipes.ControlValve
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ pumpRec_controlValve.h_in = inStream(pumpRec_controlValve.C_in.h_outflow);
+ pumpRec_controlValve.h_out = pumpRec_controlValve.C_out.h_outflow;
+ pumpRec_controlValve.Q = pumpRec_controlValve.C_in.Q;
+ pumpRec_controlValve.P_in = pumpRec_controlValve.C_in.P;
+ pumpRec_controlValve.P_out = pumpRec_controlValve.C_out.P;
+ pumpRec_controlValve.Xi = inStream(pumpRec_controlValve.C_in.Xi_outflow);
+ pumpRec_controlValve.C_in.h_outflow = 1000000.0;
+ pumpRec_controlValve.C_in.Xi_outflow = zeros(0);
+ pumpRec_controlValve.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (pumpRec_controlValve.P_in, pumpRec_controlValve.h_in, pumpRec_controlValve.Xi,
+ 0, 0);
+ pumpRec_controlValve.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (pumpRec_controlValve.P_out, pumpRec_controlValve.h_out,
+ pumpRec_controlValve.Xi, 0, 0);
+ pumpRec_controlValve.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ pumpRec_controlValve.state_in);
+ pumpRec_controlValve.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ pumpRec_controlValve.state_out);
+ pumpRec_controlValve.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ pumpRec_controlValve.state_in);
+ pumpRec_controlValve.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ pumpRec_controlValve.state_out);
+ pumpRec_controlValve.rho = (pumpRec_controlValve.rho_in+pumpRec_controlValve.rho_out)
+ /2;
+ pumpRec_controlValve.Qv_in = pumpRec_controlValve.Q/pumpRec_controlValve.rho_in;
+ pumpRec_controlValve.Qv_out = -pumpRec_controlValve.Q/pumpRec_controlValve.rho_out;
+ pumpRec_controlValve.Qv = (pumpRec_controlValve.Qv_in-pumpRec_controlValve.Qv_out)
+ /2;
+ pumpRec_controlValve.P_out-pumpRec_controlValve.P_in = pumpRec_controlValve.DP;
+ pumpRec_controlValve.Q*(pumpRec_controlValve.h_out-pumpRec_controlValve.h_in)
+ = pumpRec_controlValve.W;
+ pumpRec_controlValve.h_out-pumpRec_controlValve.h_in = pumpRec_controlValve.DH;
+ pumpRec_controlValve.T_out-pumpRec_controlValve.T_in = pumpRec_controlValve.DT;
+ pumpRec_controlValve.C_in.Q+pumpRec_controlValve.C_out.Q = 0;
+ pumpRec_controlValve.C_out.Xi_outflow = inStream(pumpRec_controlValve.C_in.Xi_outflow);
+ assert(pumpRec_controlValve.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoHFlowModel
+ equation
+ pumpRec_controlValve.h = pumpRec_controlValve.h_in;
+ pumpRec_controlValve.DH = 0;
+ // extends MetroscopeModelingLibrary.Partial.Pipes.ControlValve
+ equation
+ pumpRec_controlValve.DP*pumpRec_controlValve.Cv*abs(pumpRec_controlValve.Cv)
+ = -1733000000000.0*abs(pumpRec_controlValve.Q)*pumpRec_controlValve.Q/
+ pumpRec_controlValve.rho_in^2;
+ pumpRec_controlValve.Cv = pumpRec_controlValve.Opening*pumpRec_controlValve.Cv_max;
+ // end of extends
+
+ // Component pumpRec_opening_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.Outline.OpeningSensor
+ equation
+ pumpRec_opening_sensor.Opening_pc = pumpRec_opening_sensor.Opening*100;
+ if (pumpRec_opening_sensor.output_signal_unit == "%") then
+ pumpRec_opening_sensor.opening_sensor = pumpRec_opening_sensor.Opening_pc;
+ else
+ pumpRec_opening_sensor.opening_sensor = pumpRec_opening_sensor.Opening;
+ end if;
+
+ // Component P_flue_gas_sink_sensor.flow_model
+ // class MetroscopeModelingLibrary.FlueGases.BaseClasses.IsoPHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ P_flue_gas_sink_sensor.flow_model.h_in = inStream(P_flue_gas_sink_sensor.flow_model.C_in.h_outflow);
+ P_flue_gas_sink_sensor.flow_model.h_out = P_flue_gas_sink_sensor.flow_model.C_out.h_outflow;
+ P_flue_gas_sink_sensor.flow_model.Q = P_flue_gas_sink_sensor.flow_model.C_in.Q;
+ P_flue_gas_sink_sensor.flow_model.P_in = P_flue_gas_sink_sensor.flow_model.C_in.P;
+ P_flue_gas_sink_sensor.flow_model.P_out = P_flue_gas_sink_sensor.flow_model.C_out.P;
+ P_flue_gas_sink_sensor.flow_model.Xi = inStream(P_flue_gas_sink_sensor.flow_model.C_in.Xi_outflow);
+ P_flue_gas_sink_sensor.flow_model.C_in.h_outflow = 1000000.0;
+ P_flue_gas_sink_sensor.flow_model.C_in.Xi_outflow = zeros(5);
+ P_flue_gas_sink_sensor.flow_model.state_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (P_flue_gas_sink_sensor.flow_model.P_in, P_flue_gas_sink_sensor.flow_model.h_in,
+ P_flue_gas_sink_sensor.flow_model.Xi);
+ P_flue_gas_sink_sensor.flow_model.state_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (P_flue_gas_sink_sensor.flow_model.P_out, P_flue_gas_sink_sensor.flow_model.h_out,
+ P_flue_gas_sink_sensor.flow_model.Xi);
+ P_flue_gas_sink_sensor.flow_model.T_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ P_flue_gas_sink_sensor.flow_model.state_in);
+ P_flue_gas_sink_sensor.flow_model.T_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ P_flue_gas_sink_sensor.flow_model.state_out);
+ P_flue_gas_sink_sensor.flow_model.rho_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ P_flue_gas_sink_sensor.flow_model.state_in);
+ P_flue_gas_sink_sensor.flow_model.rho_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ P_flue_gas_sink_sensor.flow_model.state_out);
+ P_flue_gas_sink_sensor.flow_model.rho = (P_flue_gas_sink_sensor.flow_model.rho_in
+ +P_flue_gas_sink_sensor.flow_model.rho_out)/2;
+ P_flue_gas_sink_sensor.flow_model.Qv_in = P_flue_gas_sink_sensor.flow_model.Q
+ /P_flue_gas_sink_sensor.flow_model.rho_in;
+ P_flue_gas_sink_sensor.flow_model.Qv_out = -P_flue_gas_sink_sensor.flow_model.Q
+ /P_flue_gas_sink_sensor.flow_model.rho_out;
+ P_flue_gas_sink_sensor.flow_model.Qv = (P_flue_gas_sink_sensor.flow_model.Qv_in
+ -P_flue_gas_sink_sensor.flow_model.Qv_out)/2;
+ P_flue_gas_sink_sensor.flow_model.P_out-P_flue_gas_sink_sensor.flow_model.P_in
+ = P_flue_gas_sink_sensor.flow_model.DP;
+ P_flue_gas_sink_sensor.flow_model.Q*(P_flue_gas_sink_sensor.flow_model.h_out
+ -P_flue_gas_sink_sensor.flow_model.h_in) = P_flue_gas_sink_sensor.flow_model.W;
+ P_flue_gas_sink_sensor.flow_model.h_out-P_flue_gas_sink_sensor.flow_model.h_in
+ = P_flue_gas_sink_sensor.flow_model.DH;
+ P_flue_gas_sink_sensor.flow_model.T_out-P_flue_gas_sink_sensor.flow_model.T_in
+ = P_flue_gas_sink_sensor.flow_model.DT;
+ P_flue_gas_sink_sensor.flow_model.C_in.Q+P_flue_gas_sink_sensor.flow_model.C_out.Q
+ = 0;
+ P_flue_gas_sink_sensor.flow_model.C_out.Xi_outflow = inStream(
+ P_flue_gas_sink_sensor.flow_model.C_in.Xi_outflow);
+ assert(P_flue_gas_sink_sensor.flow_model.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPHFlowModel
+ equation
+ P_flue_gas_sink_sensor.flow_model.P = P_flue_gas_sink_sensor.flow_model.P_in;
+ P_flue_gas_sink_sensor.flow_model.h = P_flue_gas_sink_sensor.flow_model.h_in;
+ P_flue_gas_sink_sensor.flow_model.T = P_flue_gas_sink_sensor.flow_model.T_in;
+ P_flue_gas_sink_sensor.flow_model.DP = 0;
+ P_flue_gas_sink_sensor.flow_model.DH = 0;
+ // end of extends
+
+ // Component P_flue_gas_sink_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.FlueGases.PressureSensor
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.BaseSensor
+ equation
+ if ( not P_flue_gas_sink_sensor.faulty_flow_rate) then
+ P_flue_gas_sink_sensor.mass_flow_rate_bias = 0;
+ end if;
+ P_flue_gas_sink_sensor.P = P_flue_gas_sink_sensor.C_in.P;
+ P_flue_gas_sink_sensor.Q = P_flue_gas_sink_sensor.C_in.Q+P_flue_gas_sink_sensor.mass_flow_rate_bias;
+ P_flue_gas_sink_sensor.Xi = inStream(P_flue_gas_sink_sensor.C_in.Xi_outflow);
+ P_flue_gas_sink_sensor.h = inStream(P_flue_gas_sink_sensor.C_in.h_outflow);
+ P_flue_gas_sink_sensor.state = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (P_flue_gas_sink_sensor.P, P_flue_gas_sink_sensor.h, P_flue_gas_sink_sensor.Xi);
+ assert(P_flue_gas_sink_sensor.Q > 0, "Wrong flow sign in inline sensor. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.PressureSensor
+ equation
+ P_flue_gas_sink_sensor.P_barA = P_flue_gas_sink_sensor.P*1E-05;
+ P_flue_gas_sink_sensor.P_psiA = P_flue_gas_sink_sensor.P*0.000145038;
+ P_flue_gas_sink_sensor.P_MPaA = P_flue_gas_sink_sensor.P*1E-06;
+ P_flue_gas_sink_sensor.P_kPaA = P_flue_gas_sink_sensor.P*0.001;
+ P_flue_gas_sink_sensor.P_barG = P_flue_gas_sink_sensor.P_barA-1;
+ P_flue_gas_sink_sensor.P_psiG = P_flue_gas_sink_sensor.P_psiA-14.50377377;
+ P_flue_gas_sink_sensor.P_MPaG = P_flue_gas_sink_sensor.P_MPaA-0.1;
+ P_flue_gas_sink_sensor.P_kPaG = P_flue_gas_sink_sensor.P_kPaA-100;
+ P_flue_gas_sink_sensor.P_mbar = P_flue_gas_sink_sensor.P*0.01;
+ P_flue_gas_sink_sensor.P_inHg = P_flue_gas_sink_sensor.P*0.0002953006;
+ if (P_flue_gas_sink_sensor.signal_unit == "barA") then
+ P_flue_gas_sink_sensor.P_sensor = P_flue_gas_sink_sensor.P_barA;
+ elseif (P_flue_gas_sink_sensor.signal_unit == "barG") then
+ P_flue_gas_sink_sensor.P_sensor = P_flue_gas_sink_sensor.P_barG;
+ elseif (P_flue_gas_sink_sensor.signal_unit == "mbar") then
+ P_flue_gas_sink_sensor.P_sensor = P_flue_gas_sink_sensor.P_mbar;
+ elseif (P_flue_gas_sink_sensor.signal_unit == "MPaA") then
+ P_flue_gas_sink_sensor.P_sensor = P_flue_gas_sink_sensor.P_MPaA;
+ elseif (P_flue_gas_sink_sensor.signal_unit == "kPaA") then
+ P_flue_gas_sink_sensor.P_sensor = P_flue_gas_sink_sensor.P_kPaA;
+ else
+ P_flue_gas_sink_sensor.P_sensor = P_flue_gas_sink_sensor.P;
+ end if;
+ // end of extends
+ equation
+ P_flue_gas_sink_sensor.flow_model.C_in.P = P_flue_gas_sink_sensor.C_in.P;
+ P_flue_gas_sink_sensor.C_in.Q-P_flue_gas_sink_sensor.flow_model.C_in.Q = 0.0;
+ P_flue_gas_sink_sensor.flow_model.C_out.P = P_flue_gas_sink_sensor.C_out.P;
+ P_flue_gas_sink_sensor.C_out.Q-P_flue_gas_sink_sensor.flow_model.C_out.Q =
+ 0.0;
+
+ // Component sink
+ // class MetroscopeModelingLibrary.Power.BoundaryConditions.Sink
+ equation
+ sink.W_in = sink.C_in.W;
+
+ // Component P_fuel_source_sensor.flow_model
+ // class MetroscopeModelingLibrary.Fuel.BaseClasses.IsoPHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ P_fuel_source_sensor.flow_model.h_in = inStream(P_fuel_source_sensor.flow_model.C_in.h_outflow);
+ P_fuel_source_sensor.flow_model.h_out = P_fuel_source_sensor.flow_model.C_out.h_outflow;
+ P_fuel_source_sensor.flow_model.Q = P_fuel_source_sensor.flow_model.C_in.Q;
+ P_fuel_source_sensor.flow_model.P_in = P_fuel_source_sensor.flow_model.C_in.P;
+ P_fuel_source_sensor.flow_model.P_out = P_fuel_source_sensor.flow_model.C_out.P;
+ P_fuel_source_sensor.flow_model.Xi = inStream(P_fuel_source_sensor.flow_model.C_in.Xi_outflow);
+ P_fuel_source_sensor.flow_model.C_in.h_outflow = 1000000.0;
+ P_fuel_source_sensor.flow_model.C_in.Xi_outflow = zeros(6);
+ P_fuel_source_sensor.flow_model.state_in = MetroscopeModelingLibrary.Utilities.Media.FuelMedium.setState_phX_Unique43
+ (P_fuel_source_sensor.flow_model.P_in, P_fuel_source_sensor.flow_model.h_in,
+ P_fuel_source_sensor.flow_model.Xi);
+ P_fuel_source_sensor.flow_model.state_out = MetroscopeModelingLibrary.Utilities.Media.FuelMedium.setState_phX_Unique43
+ (P_fuel_source_sensor.flow_model.P_out, P_fuel_source_sensor.flow_model.h_out,
+ P_fuel_source_sensor.flow_model.Xi);
+ P_fuel_source_sensor.flow_model.T_in = MetroscopeModelingLibrary.Utilities.Media.FuelMedium.temperature_Unique48
+ (
+ P_fuel_source_sensor.flow_model.state_in);
+ P_fuel_source_sensor.flow_model.T_out = MetroscopeModelingLibrary.Utilities.Media.FuelMedium.temperature_Unique48
+ (
+ P_fuel_source_sensor.flow_model.state_out);
+ P_fuel_source_sensor.flow_model.rho_in = MetroscopeModelingLibrary.Utilities.Media.FuelMedium.density_Unique49
+ (
+ P_fuel_source_sensor.flow_model.state_in);
+ P_fuel_source_sensor.flow_model.rho_out = MetroscopeModelingLibrary.Utilities.Media.FuelMedium.density_Unique49
+ (
+ P_fuel_source_sensor.flow_model.state_out);
+ P_fuel_source_sensor.flow_model.rho = (P_fuel_source_sensor.flow_model.rho_in
+ +P_fuel_source_sensor.flow_model.rho_out)/2;
+ P_fuel_source_sensor.flow_model.Qv_in = P_fuel_source_sensor.flow_model.Q/
+ P_fuel_source_sensor.flow_model.rho_in;
+ P_fuel_source_sensor.flow_model.Qv_out = -P_fuel_source_sensor.flow_model.Q
+ /P_fuel_source_sensor.flow_model.rho_out;
+ P_fuel_source_sensor.flow_model.Qv = (P_fuel_source_sensor.flow_model.Qv_in
+ -P_fuel_source_sensor.flow_model.Qv_out)/2;
+ P_fuel_source_sensor.flow_model.P_out-P_fuel_source_sensor.flow_model.P_in
+ = P_fuel_source_sensor.flow_model.DP;
+ P_fuel_source_sensor.flow_model.Q*(P_fuel_source_sensor.flow_model.h_out-
+ P_fuel_source_sensor.flow_model.h_in) = P_fuel_source_sensor.flow_model.W;
+ P_fuel_source_sensor.flow_model.h_out-P_fuel_source_sensor.flow_model.h_in
+ = P_fuel_source_sensor.flow_model.DH;
+ P_fuel_source_sensor.flow_model.T_out-P_fuel_source_sensor.flow_model.T_in
+ = P_fuel_source_sensor.flow_model.DT;
+ P_fuel_source_sensor.flow_model.C_in.Q+P_fuel_source_sensor.flow_model.C_out.Q
+ = 0;
+ P_fuel_source_sensor.flow_model.C_out.Xi_outflow = inStream(
+ P_fuel_source_sensor.flow_model.C_in.Xi_outflow);
+ assert(P_fuel_source_sensor.flow_model.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPHFlowModel
+ equation
+ P_fuel_source_sensor.flow_model.P = P_fuel_source_sensor.flow_model.P_in;
+ P_fuel_source_sensor.flow_model.h = P_fuel_source_sensor.flow_model.h_in;
+ P_fuel_source_sensor.flow_model.T = P_fuel_source_sensor.flow_model.T_in;
+ P_fuel_source_sensor.flow_model.DP = 0;
+ P_fuel_source_sensor.flow_model.DH = 0;
+ // end of extends
+
+ // Component P_fuel_source_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.Fuel.PressureSensor
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.BaseSensor
+ equation
+ if ( not P_fuel_source_sensor.faulty_flow_rate) then
+ P_fuel_source_sensor.mass_flow_rate_bias = 0;
+ end if;
+ P_fuel_source_sensor.P = P_fuel_source_sensor.C_in.P;
+ P_fuel_source_sensor.Q = P_fuel_source_sensor.C_in.Q+P_fuel_source_sensor.mass_flow_rate_bias;
+ P_fuel_source_sensor.Xi = inStream(P_fuel_source_sensor.C_in.Xi_outflow);
+ P_fuel_source_sensor.h = inStream(P_fuel_source_sensor.C_in.h_outflow);
+ P_fuel_source_sensor.state = MetroscopeModelingLibrary.Utilities.Media.FuelMedium.setState_phX_Unique43
+ (P_fuel_source_sensor.P, P_fuel_source_sensor.h, P_fuel_source_sensor.Xi);
+ assert(P_fuel_source_sensor.Q > 0, "Wrong flow sign in inline sensor. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.PressureSensor
+ equation
+ P_fuel_source_sensor.P_barA = P_fuel_source_sensor.P*1E-05;
+ P_fuel_source_sensor.P_psiA = P_fuel_source_sensor.P*0.000145038;
+ P_fuel_source_sensor.P_MPaA = P_fuel_source_sensor.P*1E-06;
+ P_fuel_source_sensor.P_kPaA = P_fuel_source_sensor.P*0.001;
+ P_fuel_source_sensor.P_barG = P_fuel_source_sensor.P_barA-1;
+ P_fuel_source_sensor.P_psiG = P_fuel_source_sensor.P_psiA-14.50377377;
+ P_fuel_source_sensor.P_MPaG = P_fuel_source_sensor.P_MPaA-0.1;
+ P_fuel_source_sensor.P_kPaG = P_fuel_source_sensor.P_kPaA-100;
+ P_fuel_source_sensor.P_mbar = P_fuel_source_sensor.P*0.01;
+ P_fuel_source_sensor.P_inHg = P_fuel_source_sensor.P*0.0002953006;
+ if (P_fuel_source_sensor.signal_unit == "barA") then
+ P_fuel_source_sensor.P_sensor = P_fuel_source_sensor.P_barA;
+ elseif (P_fuel_source_sensor.signal_unit == "barG") then
+ P_fuel_source_sensor.P_sensor = P_fuel_source_sensor.P_barG;
+ elseif (P_fuel_source_sensor.signal_unit == "mbar") then
+ P_fuel_source_sensor.P_sensor = P_fuel_source_sensor.P_mbar;
+ elseif (P_fuel_source_sensor.signal_unit == "MPaA") then
+ P_fuel_source_sensor.P_sensor = P_fuel_source_sensor.P_MPaA;
+ elseif (P_fuel_source_sensor.signal_unit == "kPaA") then
+ P_fuel_source_sensor.P_sensor = P_fuel_source_sensor.P_kPaA;
+ else
+ P_fuel_source_sensor.P_sensor = P_fuel_source_sensor.P;
+ end if;
+ // end of extends
+ equation
+ P_fuel_source_sensor.flow_model.C_in.P = P_fuel_source_sensor.C_in.P;
+ P_fuel_source_sensor.C_in.Q-P_fuel_source_sensor.flow_model.C_in.Q = 0.0;
+ P_fuel_source_sensor.flow_model.C_out.P = P_fuel_source_sensor.C_out.P;
+ P_fuel_source_sensor.C_out.Q-P_fuel_source_sensor.flow_model.C_out.Q = 0.0;
+
+ // Component T_fuel_source_sensor.flow_model
+ // class MetroscopeModelingLibrary.Fuel.BaseClasses.IsoPHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ T_fuel_source_sensor.flow_model.h_in = inStream(T_fuel_source_sensor.flow_model.C_in.h_outflow);
+ T_fuel_source_sensor.flow_model.h_out = T_fuel_source_sensor.flow_model.C_out.h_outflow;
+ T_fuel_source_sensor.flow_model.Q = T_fuel_source_sensor.flow_model.C_in.Q;
+ T_fuel_source_sensor.flow_model.P_in = T_fuel_source_sensor.flow_model.C_in.P;
+ T_fuel_source_sensor.flow_model.P_out = T_fuel_source_sensor.flow_model.C_out.P;
+ T_fuel_source_sensor.flow_model.Xi = inStream(T_fuel_source_sensor.flow_model.C_in.Xi_outflow);
+ T_fuel_source_sensor.flow_model.C_in.h_outflow = 1000000.0;
+ T_fuel_source_sensor.flow_model.C_in.Xi_outflow = zeros(6);
+ T_fuel_source_sensor.flow_model.state_in = MetroscopeModelingLibrary.Utilities.Media.FuelMedium.setState_phX_Unique43
+ (T_fuel_source_sensor.flow_model.P_in, T_fuel_source_sensor.flow_model.h_in,
+ T_fuel_source_sensor.flow_model.Xi);
+ T_fuel_source_sensor.flow_model.state_out = MetroscopeModelingLibrary.Utilities.Media.FuelMedium.setState_phX_Unique43
+ (T_fuel_source_sensor.flow_model.P_out, T_fuel_source_sensor.flow_model.h_out,
+ T_fuel_source_sensor.flow_model.Xi);
+ T_fuel_source_sensor.flow_model.T_in = MetroscopeModelingLibrary.Utilities.Media.FuelMedium.temperature_Unique48
+ (
+ T_fuel_source_sensor.flow_model.state_in);
+ T_fuel_source_sensor.flow_model.T_out = MetroscopeModelingLibrary.Utilities.Media.FuelMedium.temperature_Unique48
+ (
+ T_fuel_source_sensor.flow_model.state_out);
+ T_fuel_source_sensor.flow_model.rho_in = MetroscopeModelingLibrary.Utilities.Media.FuelMedium.density_Unique49
+ (
+ T_fuel_source_sensor.flow_model.state_in);
+ T_fuel_source_sensor.flow_model.rho_out = MetroscopeModelingLibrary.Utilities.Media.FuelMedium.density_Unique49
+ (
+ T_fuel_source_sensor.flow_model.state_out);
+ T_fuel_source_sensor.flow_model.rho = (T_fuel_source_sensor.flow_model.rho_in
+ +T_fuel_source_sensor.flow_model.rho_out)/2;
+ T_fuel_source_sensor.flow_model.Qv_in = T_fuel_source_sensor.flow_model.Q/
+ T_fuel_source_sensor.flow_model.rho_in;
+ T_fuel_source_sensor.flow_model.Qv_out = -T_fuel_source_sensor.flow_model.Q
+ /T_fuel_source_sensor.flow_model.rho_out;
+ T_fuel_source_sensor.flow_model.Qv = (T_fuel_source_sensor.flow_model.Qv_in
+ -T_fuel_source_sensor.flow_model.Qv_out)/2;
+ T_fuel_source_sensor.flow_model.P_out-T_fuel_source_sensor.flow_model.P_in
+ = T_fuel_source_sensor.flow_model.DP;
+ T_fuel_source_sensor.flow_model.Q*(T_fuel_source_sensor.flow_model.h_out-
+ T_fuel_source_sensor.flow_model.h_in) = T_fuel_source_sensor.flow_model.W;
+ T_fuel_source_sensor.flow_model.h_out-T_fuel_source_sensor.flow_model.h_in
+ = T_fuel_source_sensor.flow_model.DH;
+ T_fuel_source_sensor.flow_model.T_out-T_fuel_source_sensor.flow_model.T_in
+ = T_fuel_source_sensor.flow_model.DT;
+ T_fuel_source_sensor.flow_model.C_in.Q+T_fuel_source_sensor.flow_model.C_out.Q
+ = 0;
+ T_fuel_source_sensor.flow_model.C_out.Xi_outflow = inStream(
+ T_fuel_source_sensor.flow_model.C_in.Xi_outflow);
+ assert(T_fuel_source_sensor.flow_model.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPHFlowModel
+ equation
+ T_fuel_source_sensor.flow_model.P = T_fuel_source_sensor.flow_model.P_in;
+ T_fuel_source_sensor.flow_model.h = T_fuel_source_sensor.flow_model.h_in;
+ T_fuel_source_sensor.flow_model.T = T_fuel_source_sensor.flow_model.T_in;
+ T_fuel_source_sensor.flow_model.DP = 0;
+ T_fuel_source_sensor.flow_model.DH = 0;
+ // end of extends
+
+ // Component T_fuel_source_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.Fuel.TemperatureSensor
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.BaseSensor
+ equation
+ if ( not T_fuel_source_sensor.faulty_flow_rate) then
+ T_fuel_source_sensor.mass_flow_rate_bias = 0;
+ end if;
+ T_fuel_source_sensor.P = T_fuel_source_sensor.C_in.P;
+ T_fuel_source_sensor.Q = T_fuel_source_sensor.C_in.Q+T_fuel_source_sensor.mass_flow_rate_bias;
+ T_fuel_source_sensor.Xi = inStream(T_fuel_source_sensor.C_in.Xi_outflow);
+ T_fuel_source_sensor.h = inStream(T_fuel_source_sensor.C_in.h_outflow);
+ T_fuel_source_sensor.state = MetroscopeModelingLibrary.Utilities.Media.FuelMedium.setState_phX_Unique43
+ (T_fuel_source_sensor.P, T_fuel_source_sensor.h, T_fuel_source_sensor.Xi);
+ assert(T_fuel_source_sensor.Q > 0, "Wrong flow sign in inline sensor. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.TemperatureSensor
+ equation
+ T_fuel_source_sensor.T = T_fuel_source_sensor.flow_model.T;
+ T_fuel_source_sensor.T_degC+273.15 = T_fuel_source_sensor.T;
+ T_fuel_source_sensor.T_degF = T_fuel_source_sensor.T_degC*1.8+32;
+ if (T_fuel_source_sensor.signal_unit == "degC") then
+ T_fuel_source_sensor.T_sensor = T_fuel_source_sensor.T_degC;
+ elseif (T_fuel_source_sensor.signal_unit == "degF") then
+ T_fuel_source_sensor.T_sensor = T_fuel_source_sensor.T_degF;
+ elseif (T_fuel_source_sensor.signal_unit == "K") then
+ T_fuel_source_sensor.T_sensor = T_fuel_source_sensor.T;
+ else
+ assert(false, "Unavailable unit selected for %name");
+ end if;
+ // end of extends
+ equation
+ T_fuel_source_sensor.flow_model.C_in.P = T_fuel_source_sensor.C_in.P;
+ T_fuel_source_sensor.C_in.Q-T_fuel_source_sensor.flow_model.C_in.Q = 0.0;
+ T_fuel_source_sensor.flow_model.C_out.P = T_fuel_source_sensor.C_out.P;
+ T_fuel_source_sensor.C_out.Q-T_fuel_source_sensor.flow_model.C_out.Q = 0.0;
+
+ // Component Q_fuel_source_sensor.flow_model
+ // class MetroscopeModelingLibrary.Fuel.BaseClasses.IsoPHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ Q_fuel_source_sensor.flow_model.h_in = inStream(Q_fuel_source_sensor.flow_model.C_in.h_outflow);
+ Q_fuel_source_sensor.flow_model.h_out = Q_fuel_source_sensor.flow_model.C_out.h_outflow;
+ Q_fuel_source_sensor.flow_model.Q = Q_fuel_source_sensor.flow_model.C_in.Q;
+ Q_fuel_source_sensor.flow_model.P_in = Q_fuel_source_sensor.flow_model.C_in.P;
+ Q_fuel_source_sensor.flow_model.P_out = Q_fuel_source_sensor.flow_model.C_out.P;
+ Q_fuel_source_sensor.flow_model.Xi = inStream(Q_fuel_source_sensor.flow_model.C_in.Xi_outflow);
+ Q_fuel_source_sensor.flow_model.C_in.h_outflow = 1000000.0;
+ Q_fuel_source_sensor.flow_model.C_in.Xi_outflow = zeros(6);
+ Q_fuel_source_sensor.flow_model.state_in = MetroscopeModelingLibrary.Utilities.Media.FuelMedium.setState_phX_Unique43
+ (Q_fuel_source_sensor.flow_model.P_in, Q_fuel_source_sensor.flow_model.h_in,
+ Q_fuel_source_sensor.flow_model.Xi);
+ Q_fuel_source_sensor.flow_model.state_out = MetroscopeModelingLibrary.Utilities.Media.FuelMedium.setState_phX_Unique43
+ (Q_fuel_source_sensor.flow_model.P_out, Q_fuel_source_sensor.flow_model.h_out,
+ Q_fuel_source_sensor.flow_model.Xi);
+ Q_fuel_source_sensor.flow_model.T_in = MetroscopeModelingLibrary.Utilities.Media.FuelMedium.temperature_Unique48
+ (
+ Q_fuel_source_sensor.flow_model.state_in);
+ Q_fuel_source_sensor.flow_model.T_out = MetroscopeModelingLibrary.Utilities.Media.FuelMedium.temperature_Unique48
+ (
+ Q_fuel_source_sensor.flow_model.state_out);
+ Q_fuel_source_sensor.flow_model.rho_in = MetroscopeModelingLibrary.Utilities.Media.FuelMedium.density_Unique49
+ (
+ Q_fuel_source_sensor.flow_model.state_in);
+ Q_fuel_source_sensor.flow_model.rho_out = MetroscopeModelingLibrary.Utilities.Media.FuelMedium.density_Unique49
+ (
+ Q_fuel_source_sensor.flow_model.state_out);
+ Q_fuel_source_sensor.flow_model.rho = (Q_fuel_source_sensor.flow_model.rho_in
+ +Q_fuel_source_sensor.flow_model.rho_out)/2;
+ Q_fuel_source_sensor.flow_model.Qv_in = Q_fuel_source_sensor.flow_model.Q/
+ Q_fuel_source_sensor.flow_model.rho_in;
+ Q_fuel_source_sensor.flow_model.Qv_out = -Q_fuel_source_sensor.flow_model.Q
+ /Q_fuel_source_sensor.flow_model.rho_out;
+ Q_fuel_source_sensor.flow_model.Qv = (Q_fuel_source_sensor.flow_model.Qv_in
+ -Q_fuel_source_sensor.flow_model.Qv_out)/2;
+ Q_fuel_source_sensor.flow_model.P_out-Q_fuel_source_sensor.flow_model.P_in
+ = Q_fuel_source_sensor.flow_model.DP;
+ Q_fuel_source_sensor.flow_model.Q*(Q_fuel_source_sensor.flow_model.h_out-
+ Q_fuel_source_sensor.flow_model.h_in) = Q_fuel_source_sensor.flow_model.W;
+ Q_fuel_source_sensor.flow_model.h_out-Q_fuel_source_sensor.flow_model.h_in
+ = Q_fuel_source_sensor.flow_model.DH;
+ Q_fuel_source_sensor.flow_model.T_out-Q_fuel_source_sensor.flow_model.T_in
+ = Q_fuel_source_sensor.flow_model.DT;
+ Q_fuel_source_sensor.flow_model.C_in.Q+Q_fuel_source_sensor.flow_model.C_out.Q
+ = 0;
+ Q_fuel_source_sensor.flow_model.C_out.Xi_outflow = inStream(
+ Q_fuel_source_sensor.flow_model.C_in.Xi_outflow);
+ assert(Q_fuel_source_sensor.flow_model.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPHFlowModel
+ equation
+ Q_fuel_source_sensor.flow_model.P = Q_fuel_source_sensor.flow_model.P_in;
+ Q_fuel_source_sensor.flow_model.h = Q_fuel_source_sensor.flow_model.h_in;
+ Q_fuel_source_sensor.flow_model.T = Q_fuel_source_sensor.flow_model.T_in;
+ Q_fuel_source_sensor.flow_model.DP = 0;
+ Q_fuel_source_sensor.flow_model.DH = 0;
+ // end of extends
+
+ // Component Q_fuel_source_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.Fuel.FlowSensor
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.BaseSensor
+ equation
+ if ( not Q_fuel_source_sensor.faulty_flow_rate) then
+ Q_fuel_source_sensor.mass_flow_rate_bias = 0;
+ end if;
+ Q_fuel_source_sensor.P = Q_fuel_source_sensor.C_in.P;
+ Q_fuel_source_sensor.Q = Q_fuel_source_sensor.C_in.Q+Q_fuel_source_sensor.mass_flow_rate_bias;
+ Q_fuel_source_sensor.Xi = inStream(Q_fuel_source_sensor.C_in.Xi_outflow);
+ Q_fuel_source_sensor.h = inStream(Q_fuel_source_sensor.C_in.h_outflow);
+ Q_fuel_source_sensor.state = MetroscopeModelingLibrary.Utilities.Media.FuelMedium.setState_phX_Unique43
+ (Q_fuel_source_sensor.P, Q_fuel_source_sensor.h, Q_fuel_source_sensor.Xi);
+ assert(Q_fuel_source_sensor.Q > 0, "Wrong flow sign in inline sensor. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.FlowSensor
+ equation
+ Q_fuel_source_sensor.Qv = Q_fuel_source_sensor.Q/MetroscopeModelingLibrary.Utilities.Media.FuelMedium.density_Unique49
+ (
+ Q_fuel_source_sensor.state);
+ Q_fuel_source_sensor.Q_lm = Q_fuel_source_sensor.Qv*60000;
+ Q_fuel_source_sensor.Q_th = Q_fuel_source_sensor.Q*3.6;
+ Q_fuel_source_sensor.Q_lbs = Q_fuel_source_sensor.Q*2.2046;
+ Q_fuel_source_sensor.Q_Mlbh = Q_fuel_source_sensor.Q*0.0079366414387;
+ if (Q_fuel_source_sensor.signal_unit == "l/m") then
+ Q_fuel_source_sensor.Q_sensor = Q_fuel_source_sensor.Q_lm;
+ elseif (Q_fuel_source_sensor.signal_unit == "t/h") then
+ Q_fuel_source_sensor.Q_sensor = Q_fuel_source_sensor.Q_th;
+ else
+ Q_fuel_source_sensor.Q_sensor = Q_fuel_source_sensor.Q;
+ end if;
+ // end of extends
+ equation
+ Q_fuel_source_sensor.flow_model.C_in.P = Q_fuel_source_sensor.C_in.P;
+ Q_fuel_source_sensor.C_in.Q-Q_fuel_source_sensor.flow_model.C_in.Q = 0.0;
+ Q_fuel_source_sensor.flow_model.C_out.P = Q_fuel_source_sensor.C_out.P;
+ Q_fuel_source_sensor.C_out.Q-Q_fuel_source_sensor.flow_model.C_out.Q = 0.0;
+
+ // Component GT_generator
+ // class MetroscopeModelingLibrary.Power.Machines.Generator
+ equation
+ GT_generator.W_shaft = GT_generator.C_in.W;
+ GT_generator.W_elec+GT_generator.W_shaft*GT_generator.eta = 0;
+ GT_generator.C_out.W = GT_generator.W_elec;
+
+ // Component ST_generator
+ // class MetroscopeModelingLibrary.Power.Machines.Generator
+ equation
+ ST_generator.W_shaft = ST_generator.C_in.W;
+ ST_generator.W_elec+ST_generator.W_shaft*ST_generator.eta = 0;
+ ST_generator.C_out.W = ST_generator.W_elec;
+
+ // Component T_flue_gas_sink_sensor.flow_model
+ // class MetroscopeModelingLibrary.FlueGases.BaseClasses.IsoPHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ T_flue_gas_sink_sensor.flow_model.h_in = inStream(T_flue_gas_sink_sensor.flow_model.C_in.h_outflow);
+ T_flue_gas_sink_sensor.flow_model.h_out = T_flue_gas_sink_sensor.flow_model.C_out.h_outflow;
+ T_flue_gas_sink_sensor.flow_model.Q = T_flue_gas_sink_sensor.flow_model.C_in.Q;
+ T_flue_gas_sink_sensor.flow_model.P_in = T_flue_gas_sink_sensor.flow_model.C_in.P;
+ T_flue_gas_sink_sensor.flow_model.P_out = T_flue_gas_sink_sensor.flow_model.C_out.P;
+ T_flue_gas_sink_sensor.flow_model.Xi = inStream(T_flue_gas_sink_sensor.flow_model.C_in.Xi_outflow);
+ T_flue_gas_sink_sensor.flow_model.C_in.h_outflow = 1000000.0;
+ T_flue_gas_sink_sensor.flow_model.C_in.Xi_outflow = zeros(5);
+ T_flue_gas_sink_sensor.flow_model.state_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (T_flue_gas_sink_sensor.flow_model.P_in, T_flue_gas_sink_sensor.flow_model.h_in,
+ T_flue_gas_sink_sensor.flow_model.Xi);
+ T_flue_gas_sink_sensor.flow_model.state_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (T_flue_gas_sink_sensor.flow_model.P_out, T_flue_gas_sink_sensor.flow_model.h_out,
+ T_flue_gas_sink_sensor.flow_model.Xi);
+ T_flue_gas_sink_sensor.flow_model.T_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ T_flue_gas_sink_sensor.flow_model.state_in);
+ T_flue_gas_sink_sensor.flow_model.T_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ T_flue_gas_sink_sensor.flow_model.state_out);
+ T_flue_gas_sink_sensor.flow_model.rho_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ T_flue_gas_sink_sensor.flow_model.state_in);
+ T_flue_gas_sink_sensor.flow_model.rho_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ T_flue_gas_sink_sensor.flow_model.state_out);
+ T_flue_gas_sink_sensor.flow_model.rho = (T_flue_gas_sink_sensor.flow_model.rho_in
+ +T_flue_gas_sink_sensor.flow_model.rho_out)/2;
+ T_flue_gas_sink_sensor.flow_model.Qv_in = T_flue_gas_sink_sensor.flow_model.Q
+ /T_flue_gas_sink_sensor.flow_model.rho_in;
+ T_flue_gas_sink_sensor.flow_model.Qv_out = -T_flue_gas_sink_sensor.flow_model.Q
+ /T_flue_gas_sink_sensor.flow_model.rho_out;
+ T_flue_gas_sink_sensor.flow_model.Qv = (T_flue_gas_sink_sensor.flow_model.Qv_in
+ -T_flue_gas_sink_sensor.flow_model.Qv_out)/2;
+ T_flue_gas_sink_sensor.flow_model.P_out-T_flue_gas_sink_sensor.flow_model.P_in
+ = T_flue_gas_sink_sensor.flow_model.DP;
+ T_flue_gas_sink_sensor.flow_model.Q*(T_flue_gas_sink_sensor.flow_model.h_out
+ -T_flue_gas_sink_sensor.flow_model.h_in) = T_flue_gas_sink_sensor.flow_model.W;
+ T_flue_gas_sink_sensor.flow_model.h_out-T_flue_gas_sink_sensor.flow_model.h_in
+ = T_flue_gas_sink_sensor.flow_model.DH;
+ T_flue_gas_sink_sensor.flow_model.T_out-T_flue_gas_sink_sensor.flow_model.T_in
+ = T_flue_gas_sink_sensor.flow_model.DT;
+ T_flue_gas_sink_sensor.flow_model.C_in.Q+T_flue_gas_sink_sensor.flow_model.C_out.Q
+ = 0;
+ T_flue_gas_sink_sensor.flow_model.C_out.Xi_outflow = inStream(
+ T_flue_gas_sink_sensor.flow_model.C_in.Xi_outflow);
+ assert(T_flue_gas_sink_sensor.flow_model.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPHFlowModel
+ equation
+ T_flue_gas_sink_sensor.flow_model.P = T_flue_gas_sink_sensor.flow_model.P_in;
+ T_flue_gas_sink_sensor.flow_model.h = T_flue_gas_sink_sensor.flow_model.h_in;
+ T_flue_gas_sink_sensor.flow_model.T = T_flue_gas_sink_sensor.flow_model.T_in;
+ T_flue_gas_sink_sensor.flow_model.DP = 0;
+ T_flue_gas_sink_sensor.flow_model.DH = 0;
+ // end of extends
+
+ // Component T_flue_gas_sink_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.FlueGases.TemperatureSensor
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.BaseSensor
+ equation
+ if ( not T_flue_gas_sink_sensor.faulty_flow_rate) then
+ T_flue_gas_sink_sensor.mass_flow_rate_bias = 0;
+ end if;
+ T_flue_gas_sink_sensor.P = T_flue_gas_sink_sensor.C_in.P;
+ T_flue_gas_sink_sensor.Q = T_flue_gas_sink_sensor.C_in.Q+T_flue_gas_sink_sensor.mass_flow_rate_bias;
+ T_flue_gas_sink_sensor.Xi = inStream(T_flue_gas_sink_sensor.C_in.Xi_outflow);
+ T_flue_gas_sink_sensor.h = inStream(T_flue_gas_sink_sensor.C_in.h_outflow);
+ T_flue_gas_sink_sensor.state = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (T_flue_gas_sink_sensor.P, T_flue_gas_sink_sensor.h, T_flue_gas_sink_sensor.Xi);
+ assert(T_flue_gas_sink_sensor.Q > 0, "Wrong flow sign in inline sensor. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.TemperatureSensor
+ equation
+ T_flue_gas_sink_sensor.T = T_flue_gas_sink_sensor.flow_model.T;
+ T_flue_gas_sink_sensor.T_degC+273.15 = T_flue_gas_sink_sensor.T;
+ T_flue_gas_sink_sensor.T_degF = T_flue_gas_sink_sensor.T_degC*1.8+32;
+ if (T_flue_gas_sink_sensor.signal_unit == "degC") then
+ T_flue_gas_sink_sensor.T_sensor = T_flue_gas_sink_sensor.T_degC;
+ elseif (T_flue_gas_sink_sensor.signal_unit == "degF") then
+ T_flue_gas_sink_sensor.T_sensor = T_flue_gas_sink_sensor.T_degF;
+ elseif (T_flue_gas_sink_sensor.signal_unit == "K") then
+ T_flue_gas_sink_sensor.T_sensor = T_flue_gas_sink_sensor.T;
+ else
+ assert(false, "Unavailable unit selected for %name");
+ end if;
+ // end of extends
+ equation
+ T_flue_gas_sink_sensor.flow_model.C_in.P = T_flue_gas_sink_sensor.C_in.P;
+ T_flue_gas_sink_sensor.C_in.Q-T_flue_gas_sink_sensor.flow_model.C_in.Q = 0.0;
+ T_flue_gas_sink_sensor.flow_model.C_out.P = T_flue_gas_sink_sensor.C_out.P;
+ T_flue_gas_sink_sensor.C_out.Q-T_flue_gas_sink_sensor.flow_model.C_out.Q =
+ 0.0;
+
+ // Component AirFilter
+ // class MetroscopeModelingLibrary.FlueGases.Pipes.Filter
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ AirFilter.h_in = inStream(AirFilter.C_in.h_outflow);
+ AirFilter.h_out = AirFilter.C_out.h_outflow;
+ AirFilter.Q = AirFilter.C_in.Q;
+ AirFilter.P_in = AirFilter.C_in.P;
+ AirFilter.P_out = AirFilter.C_out.P;
+ AirFilter.Xi = inStream(AirFilter.C_in.Xi_outflow);
+ AirFilter.C_in.h_outflow = 1000000.0;
+ AirFilter.C_in.Xi_outflow = zeros(5);
+ AirFilter.state_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (AirFilter.P_in, AirFilter.h_in, AirFilter.Xi);
+ AirFilter.state_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (AirFilter.P_out, AirFilter.h_out, AirFilter.Xi);
+ AirFilter.T_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ AirFilter.state_in);
+ AirFilter.T_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ AirFilter.state_out);
+ AirFilter.rho_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ AirFilter.state_in);
+ AirFilter.rho_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ AirFilter.state_out);
+ AirFilter.rho = (AirFilter.rho_in+AirFilter.rho_out)/2;
+ AirFilter.Qv_in = AirFilter.Q/AirFilter.rho_in;
+ AirFilter.Qv_out = -AirFilter.Q/AirFilter.rho_out;
+ AirFilter.Qv = (AirFilter.Qv_in-AirFilter.Qv_out)/2;
+ AirFilter.P_out-AirFilter.P_in = AirFilter.DP;
+ AirFilter.Q*(AirFilter.h_out-AirFilter.h_in) = AirFilter.W;
+ AirFilter.h_out-AirFilter.h_in = AirFilter.DH;
+ AirFilter.T_out-AirFilter.T_in = AirFilter.DT;
+ AirFilter.C_in.Q+AirFilter.C_out.Q = 0;
+ AirFilter.C_out.Xi_outflow = inStream(AirFilter.C_in.Xi_outflow);
+ assert(AirFilter.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoHFlowModel
+ equation
+ AirFilter.h = AirFilter.h_in;
+ AirFilter.DH = 0;
+ // extends MetroscopeModelingLibrary.Partial.Pipes.FrictionPipe
+ equation
+ if ( not AirFilter.faulty) then
+ AirFilter.fouling = 0;
+ end if;
+ AirFilter.DP = -(1+AirFilter.fouling/100)*AirFilter.Kfr*AirFilter.Q*abs(
+ AirFilter.Q)/AirFilter.rho_in;
+ // end of extends
+
+ // Component P_filter_out_sensor.flow_model
+ // class MetroscopeModelingLibrary.FlueGases.BaseClasses.IsoPHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ P_filter_out_sensor.flow_model.h_in = inStream(P_filter_out_sensor.flow_model.C_in.h_outflow);
+ P_filter_out_sensor.flow_model.h_out = P_filter_out_sensor.flow_model.C_out.h_outflow;
+ P_filter_out_sensor.flow_model.Q = P_filter_out_sensor.flow_model.C_in.Q;
+ P_filter_out_sensor.flow_model.P_in = P_filter_out_sensor.flow_model.C_in.P;
+ P_filter_out_sensor.flow_model.P_out = P_filter_out_sensor.flow_model.C_out.P;
+ P_filter_out_sensor.flow_model.Xi = inStream(P_filter_out_sensor.flow_model.C_in.Xi_outflow);
+ P_filter_out_sensor.flow_model.C_in.h_outflow = 1000000.0;
+ P_filter_out_sensor.flow_model.C_in.Xi_outflow = zeros(5);
+ P_filter_out_sensor.flow_model.state_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (P_filter_out_sensor.flow_model.P_in, P_filter_out_sensor.flow_model.h_in,
+ P_filter_out_sensor.flow_model.Xi);
+ P_filter_out_sensor.flow_model.state_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (P_filter_out_sensor.flow_model.P_out, P_filter_out_sensor.flow_model.h_out,
+ P_filter_out_sensor.flow_model.Xi);
+ P_filter_out_sensor.flow_model.T_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ P_filter_out_sensor.flow_model.state_in);
+ P_filter_out_sensor.flow_model.T_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ P_filter_out_sensor.flow_model.state_out);
+ P_filter_out_sensor.flow_model.rho_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ P_filter_out_sensor.flow_model.state_in);
+ P_filter_out_sensor.flow_model.rho_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ P_filter_out_sensor.flow_model.state_out);
+ P_filter_out_sensor.flow_model.rho = (P_filter_out_sensor.flow_model.rho_in
+ +P_filter_out_sensor.flow_model.rho_out)/2;
+ P_filter_out_sensor.flow_model.Qv_in = P_filter_out_sensor.flow_model.Q/
+ P_filter_out_sensor.flow_model.rho_in;
+ P_filter_out_sensor.flow_model.Qv_out = -P_filter_out_sensor.flow_model.Q
+ /P_filter_out_sensor.flow_model.rho_out;
+ P_filter_out_sensor.flow_model.Qv = (P_filter_out_sensor.flow_model.Qv_in-
+ P_filter_out_sensor.flow_model.Qv_out)/2;
+ P_filter_out_sensor.flow_model.P_out-P_filter_out_sensor.flow_model.P_in
+ = P_filter_out_sensor.flow_model.DP;
+ P_filter_out_sensor.flow_model.Q*(P_filter_out_sensor.flow_model.h_out-
+ P_filter_out_sensor.flow_model.h_in) = P_filter_out_sensor.flow_model.W;
+ P_filter_out_sensor.flow_model.h_out-P_filter_out_sensor.flow_model.h_in
+ = P_filter_out_sensor.flow_model.DH;
+ P_filter_out_sensor.flow_model.T_out-P_filter_out_sensor.flow_model.T_in
+ = P_filter_out_sensor.flow_model.DT;
+ P_filter_out_sensor.flow_model.C_in.Q+P_filter_out_sensor.flow_model.C_out.Q
+ = 0;
+ P_filter_out_sensor.flow_model.C_out.Xi_outflow = inStream(
+ P_filter_out_sensor.flow_model.C_in.Xi_outflow);
+ assert(P_filter_out_sensor.flow_model.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPHFlowModel
+ equation
+ P_filter_out_sensor.flow_model.P = P_filter_out_sensor.flow_model.P_in;
+ P_filter_out_sensor.flow_model.h = P_filter_out_sensor.flow_model.h_in;
+ P_filter_out_sensor.flow_model.T = P_filter_out_sensor.flow_model.T_in;
+ P_filter_out_sensor.flow_model.DP = 0;
+ P_filter_out_sensor.flow_model.DH = 0;
+ // end of extends
+
+ // Component P_filter_out_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.FlueGases.PressureSensor
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.BaseSensor
+ equation
+ if ( not P_filter_out_sensor.faulty_flow_rate) then
+ P_filter_out_sensor.mass_flow_rate_bias = 0;
+ end if;
+ P_filter_out_sensor.P = P_filter_out_sensor.C_in.P;
+ P_filter_out_sensor.Q = P_filter_out_sensor.C_in.Q+P_filter_out_sensor.mass_flow_rate_bias;
+ P_filter_out_sensor.Xi = inStream(P_filter_out_sensor.C_in.Xi_outflow);
+ P_filter_out_sensor.h = inStream(P_filter_out_sensor.C_in.h_outflow);
+ P_filter_out_sensor.state = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (P_filter_out_sensor.P, P_filter_out_sensor.h, P_filter_out_sensor.Xi);
+ assert(P_filter_out_sensor.Q > 0, "Wrong flow sign in inline sensor. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.PressureSensor
+ equation
+ P_filter_out_sensor.P_barA = P_filter_out_sensor.P*1E-05;
+ P_filter_out_sensor.P_psiA = P_filter_out_sensor.P*0.000145038;
+ P_filter_out_sensor.P_MPaA = P_filter_out_sensor.P*1E-06;
+ P_filter_out_sensor.P_kPaA = P_filter_out_sensor.P*0.001;
+ P_filter_out_sensor.P_barG = P_filter_out_sensor.P_barA-1;
+ P_filter_out_sensor.P_psiG = P_filter_out_sensor.P_psiA-14.50377377;
+ P_filter_out_sensor.P_MPaG = P_filter_out_sensor.P_MPaA-0.1;
+ P_filter_out_sensor.P_kPaG = P_filter_out_sensor.P_kPaA-100;
+ P_filter_out_sensor.P_mbar = P_filter_out_sensor.P*0.01;
+ P_filter_out_sensor.P_inHg = P_filter_out_sensor.P*0.0002953006;
+ if (P_filter_out_sensor.signal_unit == "barA") then
+ P_filter_out_sensor.P_sensor = P_filter_out_sensor.P_barA;
+ elseif (P_filter_out_sensor.signal_unit == "barG") then
+ P_filter_out_sensor.P_sensor = P_filter_out_sensor.P_barG;
+ elseif (P_filter_out_sensor.signal_unit == "mbar") then
+ P_filter_out_sensor.P_sensor = P_filter_out_sensor.P_mbar;
+ elseif (P_filter_out_sensor.signal_unit == "MPaA") then
+ P_filter_out_sensor.P_sensor = P_filter_out_sensor.P_MPaA;
+ elseif (P_filter_out_sensor.signal_unit == "kPaA") then
+ P_filter_out_sensor.P_sensor = P_filter_out_sensor.P_kPaA;
+ else
+ P_filter_out_sensor.P_sensor = P_filter_out_sensor.P;
+ end if;
+ // end of extends
+ equation
+ P_filter_out_sensor.flow_model.C_in.P = P_filter_out_sensor.C_in.P;
+ P_filter_out_sensor.C_in.Q-P_filter_out_sensor.flow_model.C_in.Q = 0.0;
+ P_filter_out_sensor.flow_model.C_out.P = P_filter_out_sensor.C_out.P;
+ P_filter_out_sensor.C_out.Q-P_filter_out_sensor.flow_model.C_out.Q = 0.0;
+
+ // Component HPsuperheater2.HX
+ // class MetroscopeModelingLibrary.Power.HeatExchange.NTUHeatExchange
+ equation
+ HPsuperheater2.HX.W_max = HPsuperheater2.HX.QCpMIN*(HPsuperheater2.HX.T_hot_in
+ -HPsuperheater2.HX.T_cold_in);
+ HPsuperheater2.HX.W = HPsuperheater2.HX.epsilon*HPsuperheater2.HX.W_max;
+ HPsuperheater2.HX.NTU = HPsuperheater2.HX.Kth*HPsuperheater2.HX.S/
+ HPsuperheater2.HX.QCpMIN;
+ HPsuperheater2.HX.Cr = HPsuperheater2.HX.QCpMIN/HPsuperheater2.HX.QCpMAX;
+ if (HPsuperheater2.HX.config == "shell_and_tubes_two_passes") then
+ if (HPsuperheater2.HX.QCp_max_side == "hot") then
+ HPsuperheater2.HX.QCpMAX = HPsuperheater2.HX.Q_hot*HPsuperheater2.HX.Cp_hot;
+ HPsuperheater2.HX.QCpMIN = HPsuperheater2.HX.Q_cold*HPsuperheater2.HX.Cp_cold;
+ elseif (HPsuperheater2.HX.QCp_max_side == "cold") then
+ HPsuperheater2.HX.QCpMIN = HPsuperheater2.HX.Q_hot*HPsuperheater2.HX.Cp_hot;
+ HPsuperheater2.HX.QCpMAX = HPsuperheater2.HX.Q_cold*HPsuperheater2.HX.Cp_cold;
+ else
+ HPsuperheater2.HX.QCpMIN = min(HPsuperheater2.HX.Q_hot*HPsuperheater2.HX.Cp_hot,
+ HPsuperheater2.HX.Q_cold*HPsuperheater2.HX.Cp_cold);
+ HPsuperheater2.HX.QCpMAX = max(HPsuperheater2.HX.Q_hot*HPsuperheater2.HX.Cp_hot,
+ HPsuperheater2.HX.Q_cold*HPsuperheater2.HX.Cp_cold);
+ end if;
+ assert(HPsuperheater2.HX.QCpMIN < HPsuperheater2.HX.QCpMAX,
+ "QCPMIN is higher than QCpMAX");
+ HPsuperheater2.HX.epsilon = 2/(1+HPsuperheater2.HX.Cr+sqrt(1+
+ HPsuperheater2.HX.Cr^2)*(1+exp( -HPsuperheater2.HX.NTU*(1+
+ HPsuperheater2.HX.Cr^2)^0.5))/(1-exp( -HPsuperheater2.HX.NTU*(1+
+ HPsuperheater2.HX.Cr^2)^0.5)));
+ elseif (HPsuperheater2.HX.config == "monophasic_cross_current") then
+ if (HPsuperheater2.HX.mixed_fluid == "hot") then
+ if (HPsuperheater2.HX.QCp_max_side == "hot") then
+ HPsuperheater2.HX.QCpMAX = HPsuperheater2.HX.Q_hot*HPsuperheater2.HX.Cp_hot;
+ HPsuperheater2.HX.QCpMIN = HPsuperheater2.HX.Q_cold*HPsuperheater2.HX.Cp_cold;
+ assert(HPsuperheater2.HX.QCpMIN < HPsuperheater2.HX.QCpMAX,
+ "QCPMIN is higher than QCpMAX");
+ HPsuperheater2.HX.epsilon = (1-exp( -HPsuperheater2.HX.Cr*(1-exp( -
+ HPsuperheater2.HX.NTU))))/HPsuperheater2.HX.Cr;
+ elseif (HPsuperheater2.HX.QCp_max_side == "cold") then
+ HPsuperheater2.HX.QCpMIN = HPsuperheater2.HX.Q_hot*HPsuperheater2.HX.Cp_hot;
+ HPsuperheater2.HX.QCpMAX = HPsuperheater2.HX.Q_cold*HPsuperheater2.HX.Cp_cold;
+ assert(HPsuperheater2.HX.QCpMIN < HPsuperheater2.HX.QCpMAX,
+ "QCPMIN is higher than QCpMAX");
+ HPsuperheater2.HX.epsilon = 1-exp( -(1-exp( -HPsuperheater2.HX.Cr*
+ HPsuperheater2.HX.NTU))/HPsuperheater2.HX.Cr);
+ else
+ if (HPsuperheater2.HX.Q_hot*HPsuperheater2.HX.Cp_hot <
+ HPsuperheater2.HX.Q_cold*HPsuperheater2.HX.Cp_cold) then
+ HPsuperheater2.HX.QCpMIN = HPsuperheater2.HX.Q_hot*HPsuperheater2.HX.Cp_hot;
+ HPsuperheater2.HX.QCpMAX = HPsuperheater2.HX.Q_cold*HPsuperheater2.HX.Cp_cold;
+ HPsuperheater2.HX.epsilon = 1-exp( -(1-exp( -HPsuperheater2.HX.Cr*
+ HPsuperheater2.HX.NTU))/HPsuperheater2.HX.Cr);
+ else
+ HPsuperheater2.HX.QCpMAX = HPsuperheater2.HX.Q_hot*HPsuperheater2.HX.Cp_hot;
+ HPsuperheater2.HX.QCpMIN = HPsuperheater2.HX.Q_cold*HPsuperheater2.HX.Cp_cold;
+ HPsuperheater2.HX.epsilon = (1-exp( -HPsuperheater2.HX.Cr*(1-exp( -
+ HPsuperheater2.HX.NTU))))/HPsuperheater2.HX.Cr;
+ end if;
+ end if;
+ else
+ if (HPsuperheater2.HX.QCp_max_side == "hot") then
+ HPsuperheater2.HX.QCpMAX = HPsuperheater2.HX.Q_hot*HPsuperheater2.HX.Cp_hot;
+ HPsuperheater2.HX.QCpMIN = HPsuperheater2.HX.Q_cold*HPsuperheater2.HX.Cp_cold;
+ assert(HPsuperheater2.HX.QCpMIN < HPsuperheater2.HX.QCpMAX,
+ "QCPMIN is higher than QCpMAX");
+ HPsuperheater2.HX.epsilon = 1-exp( -(1-exp( -HPsuperheater2.HX.Cr*
+ HPsuperheater2.HX.NTU))/HPsuperheater2.HX.Cr);
+ elseif (HPsuperheater2.HX.QCp_max_side == "cold") then
+ HPsuperheater2.HX.QCpMIN = HPsuperheater2.HX.Q_hot*HPsuperheater2.HX.Cp_hot;
+ HPsuperheater2.HX.QCpMAX = HPsuperheater2.HX.Q_cold*HPsuperheater2.HX.Cp_cold;
+ assert(HPsuperheater2.HX.QCpMIN < HPsuperheater2.HX.QCpMAX,
+ "QCPMIN is higher than QCpMAX");
+ HPsuperheater2.HX.epsilon = (1-exp( -HPsuperheater2.HX.Cr*(1-exp( -
+ HPsuperheater2.HX.NTU))))/HPsuperheater2.HX.Cr;
+ else
+ if (HPsuperheater2.HX.Q_hot*HPsuperheater2.HX.Cp_hot <
+ HPsuperheater2.HX.Q_cold*HPsuperheater2.HX.Cp_cold) then
+ HPsuperheater2.HX.QCpMIN = HPsuperheater2.HX.Q_hot*HPsuperheater2.HX.Cp_hot;
+ HPsuperheater2.HX.QCpMAX = HPsuperheater2.HX.Q_cold*HPsuperheater2.HX.Cp_cold;
+ HPsuperheater2.HX.epsilon = (1-exp( -HPsuperheater2.HX.Cr*(1-exp( -
+ HPsuperheater2.HX.NTU))))/HPsuperheater2.HX.Cr;
+ else
+ HPsuperheater2.HX.QCpMAX = HPsuperheater2.HX.Q_hot*HPsuperheater2.HX.Cp_hot;
+ HPsuperheater2.HX.QCpMIN = HPsuperheater2.HX.Q_cold*HPsuperheater2.HX.Cp_cold;
+ HPsuperheater2.HX.epsilon = 1-exp( -(1-exp( -HPsuperheater2.HX.Cr*
+ HPsuperheater2.HX.NTU))/HPsuperheater2.HX.Cr);
+ end if;
+ end if;
+ end if;
+ elseif (HPsuperheater2.HX.config == "monophasic_counter_current") then
+ if (HPsuperheater2.HX.QCp_max_side == "hot") then
+ HPsuperheater2.HX.QCpMAX = HPsuperheater2.HX.Q_hot*HPsuperheater2.HX.Cp_hot;
+ HPsuperheater2.HX.QCpMIN = HPsuperheater2.HX.Q_cold*HPsuperheater2.HX.Cp_cold;
+ elseif (HPsuperheater2.HX.QCp_max_side == "cold") then
+ HPsuperheater2.HX.QCpMIN = HPsuperheater2.HX.Q_hot*HPsuperheater2.HX.Cp_hot;
+ HPsuperheater2.HX.QCpMAX = HPsuperheater2.HX.Q_cold*HPsuperheater2.HX.Cp_cold;
+ else
+ HPsuperheater2.HX.QCpMIN = min(HPsuperheater2.HX.Q_hot*HPsuperheater2.HX.Cp_hot,
+ HPsuperheater2.HX.Q_cold*HPsuperheater2.HX.Cp_cold);
+ HPsuperheater2.HX.QCpMAX = max(HPsuperheater2.HX.Q_hot*HPsuperheater2.HX.Cp_hot,
+ HPsuperheater2.HX.Q_cold*HPsuperheater2.HX.Cp_cold);
+ end if;
+ assert(HPsuperheater2.HX.QCpMIN < HPsuperheater2.HX.QCpMAX,
+ "QCPMIN is higher than QCpMAX");
+ HPsuperheater2.HX.epsilon = (1-exp( -HPsuperheater2.HX.NTU*(1-
+ HPsuperheater2.HX.Cr)))/(1-HPsuperheater2.HX.Cr*exp( -HPsuperheater2.HX.NTU
+ *(1-HPsuperheater2.HX.Cr)));
+ elseif (HPsuperheater2.HX.config == "evaporator") then
+ HPsuperheater2.HX.QCpMAX = 10000000000.0;
+ HPsuperheater2.HX.QCpMIN = HPsuperheater2.HX.Q_hot*HPsuperheater2.HX.Cp_hot;
+ HPsuperheater2.HX.epsilon = 1-exp( -HPsuperheater2.HX.NTU);
+ elseif (HPsuperheater2.HX.config == "condenser") then
+ HPsuperheater2.HX.QCpMAX = 10000000000.0;
+ HPsuperheater2.HX.QCpMIN = HPsuperheater2.HX.Q_cold*HPsuperheater2.HX.Cp_cold;
+ HPsuperheater2.HX.epsilon = 1-exp( -HPsuperheater2.HX.NTU);
+ else
+ HPsuperheater2.HX.QCpMAX = 0;
+ HPsuperheater2.HX.QCpMIN = 0;
+ HPsuperheater2.HX.epsilon = 0;
+ end if;
+ assert(HPsuperheater2.HX.config == "evaporator" or HPsuperheater2.HX.config
+ == "condenser" or HPsuperheater2.HX.config == "shell_and_tubes_two_passes"
+ or HPsuperheater2.HX.config == "monophasic_cross_current" or
+ HPsuperheater2.HX.config == "monophasic_counter_current", "config parameter of NTUHeatExchange should be one of 'shell_and_tubes_two_passes', 'condenser', 'evaporator', 'monophasic_cross_current', or 'monophasic_counter_current'");
+ assert(HPsuperheater2.HX.mixed_fluid == "hot" or HPsuperheater2.HX.mixed_fluid
+ == "cold", "mixed_fluid parameter of NTUHeatExchange should be 'hot' or 'cold'");
+ assert(HPsuperheater2.HX.W > 0, "Heat exchange is done in the wrong direction",
+ AssertionLevel.warning);
+
+ // Component HPsuperheater2.hot_side
+ // class MetroscopeModelingLibrary.FlueGases.BaseClasses.IsoPFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ HPsuperheater2.hot_side.h_in = inStream(HPsuperheater2.hot_side.C_in.h_outflow);
+ HPsuperheater2.hot_side.h_out = HPsuperheater2.hot_side.C_out.h_outflow;
+ HPsuperheater2.hot_side.Q = HPsuperheater2.hot_side.C_in.Q;
+ HPsuperheater2.hot_side.P_in = HPsuperheater2.hot_side.C_in.P;
+ HPsuperheater2.hot_side.P_out = HPsuperheater2.hot_side.C_out.P;
+ HPsuperheater2.hot_side.Xi = inStream(HPsuperheater2.hot_side.C_in.Xi_outflow);
+ HPsuperheater2.hot_side.C_in.h_outflow = 1000000.0;
+ HPsuperheater2.hot_side.C_in.Xi_outflow = zeros(5);
+ HPsuperheater2.hot_side.state_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (HPsuperheater2.hot_side.P_in, HPsuperheater2.hot_side.h_in,
+ HPsuperheater2.hot_side.Xi);
+ HPsuperheater2.hot_side.state_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (HPsuperheater2.hot_side.P_out, HPsuperheater2.hot_side.h_out,
+ HPsuperheater2.hot_side.Xi);
+ HPsuperheater2.hot_side.T_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ HPsuperheater2.hot_side.state_in);
+ HPsuperheater2.hot_side.T_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ HPsuperheater2.hot_side.state_out);
+ HPsuperheater2.hot_side.rho_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ HPsuperheater2.hot_side.state_in);
+ HPsuperheater2.hot_side.rho_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ HPsuperheater2.hot_side.state_out);
+ HPsuperheater2.hot_side.rho = (HPsuperheater2.hot_side.rho_in+
+ HPsuperheater2.hot_side.rho_out)/2;
+ HPsuperheater2.hot_side.Qv_in = HPsuperheater2.hot_side.Q/HPsuperheater2.hot_side.rho_in;
+ HPsuperheater2.hot_side.Qv_out = -HPsuperheater2.hot_side.Q/
+ HPsuperheater2.hot_side.rho_out;
+ HPsuperheater2.hot_side.Qv = (HPsuperheater2.hot_side.Qv_in-
+ HPsuperheater2.hot_side.Qv_out)/2;
+ HPsuperheater2.hot_side.P_out-HPsuperheater2.hot_side.P_in =
+ HPsuperheater2.hot_side.DP;
+ HPsuperheater2.hot_side.Q*(HPsuperheater2.hot_side.h_out-HPsuperheater2.hot_side.h_in)
+ = HPsuperheater2.hot_side.W;
+ HPsuperheater2.hot_side.h_out-HPsuperheater2.hot_side.h_in =
+ HPsuperheater2.hot_side.DH;
+ HPsuperheater2.hot_side.T_out-HPsuperheater2.hot_side.T_in =
+ HPsuperheater2.hot_side.DT;
+ HPsuperheater2.hot_side.C_in.Q+HPsuperheater2.hot_side.C_out.Q = 0;
+ HPsuperheater2.hot_side.C_out.Xi_outflow = inStream(HPsuperheater2.hot_side.C_in.Xi_outflow);
+ assert(HPsuperheater2.hot_side.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPFlowModel
+ equation
+ HPsuperheater2.hot_side.P = HPsuperheater2.hot_side.P_in;
+ HPsuperheater2.hot_side.DP = 0;
+ // end of extends
+ equation
+ HPsuperheater2.hot_side.W = HPsuperheater2.hot_side.W_input;
+
+ // Component HPsuperheater2.cold_side
+ // class MetroscopeModelingLibrary.WaterSteam.BaseClasses.IsoPFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ HPsuperheater2.cold_side.h_in = inStream(HPsuperheater2.cold_side.C_in.h_outflow);
+ HPsuperheater2.cold_side.h_out = HPsuperheater2.cold_side.C_out.h_outflow;
+ HPsuperheater2.cold_side.Q = HPsuperheater2.cold_side.C_in.Q;
+ HPsuperheater2.cold_side.P_in = HPsuperheater2.cold_side.C_in.P;
+ HPsuperheater2.cold_side.P_out = HPsuperheater2.cold_side.C_out.P;
+ HPsuperheater2.cold_side.Xi = inStream(HPsuperheater2.cold_side.C_in.Xi_outflow);
+ HPsuperheater2.cold_side.C_in.h_outflow = 1000000.0;
+ HPsuperheater2.cold_side.C_in.Xi_outflow = zeros(0);
+ HPsuperheater2.cold_side.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (HPsuperheater2.cold_side.P_in, HPsuperheater2.cold_side.h_in,
+ HPsuperheater2.cold_side.Xi, 0, 0);
+ HPsuperheater2.cold_side.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (HPsuperheater2.cold_side.P_out, HPsuperheater2.cold_side.h_out,
+ HPsuperheater2.cold_side.Xi, 0, 0);
+ HPsuperheater2.cold_side.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ HPsuperheater2.cold_side.state_in);
+ HPsuperheater2.cold_side.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ HPsuperheater2.cold_side.state_out);
+ HPsuperheater2.cold_side.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ HPsuperheater2.cold_side.state_in);
+ HPsuperheater2.cold_side.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ HPsuperheater2.cold_side.state_out);
+ HPsuperheater2.cold_side.rho = (HPsuperheater2.cold_side.rho_in+
+ HPsuperheater2.cold_side.rho_out)/2;
+ HPsuperheater2.cold_side.Qv_in = HPsuperheater2.cold_side.Q/
+ HPsuperheater2.cold_side.rho_in;
+ HPsuperheater2.cold_side.Qv_out = -HPsuperheater2.cold_side.Q/
+ HPsuperheater2.cold_side.rho_out;
+ HPsuperheater2.cold_side.Qv = (HPsuperheater2.cold_side.Qv_in-
+ HPsuperheater2.cold_side.Qv_out)/2;
+ HPsuperheater2.cold_side.P_out-HPsuperheater2.cold_side.P_in =
+ HPsuperheater2.cold_side.DP;
+ HPsuperheater2.cold_side.Q*(HPsuperheater2.cold_side.h_out-
+ HPsuperheater2.cold_side.h_in) = HPsuperheater2.cold_side.W;
+ HPsuperheater2.cold_side.h_out-HPsuperheater2.cold_side.h_in =
+ HPsuperheater2.cold_side.DH;
+ HPsuperheater2.cold_side.T_out-HPsuperheater2.cold_side.T_in =
+ HPsuperheater2.cold_side.DT;
+ HPsuperheater2.cold_side.C_in.Q+HPsuperheater2.cold_side.C_out.Q = 0;
+ HPsuperheater2.cold_side.C_out.Xi_outflow = inStream(HPsuperheater2.cold_side.C_in.Xi_outflow);
+ assert(HPsuperheater2.cold_side.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPFlowModel
+ equation
+ HPsuperheater2.cold_side.P = HPsuperheater2.cold_side.P_in;
+ HPsuperheater2.cold_side.DP = 0;
+ // end of extends
+ equation
+ HPsuperheater2.cold_side.W = HPsuperheater2.cold_side.W_input;
+
+ // Component HPsuperheater2.cold_side_pipe
+ // class MetroscopeModelingLibrary.WaterSteam.Pipes.FrictionPipe
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ HPsuperheater2.cold_side_pipe.h_in = inStream(HPsuperheater2.cold_side_pipe.C_in.h_outflow);
+ HPsuperheater2.cold_side_pipe.h_out = HPsuperheater2.cold_side_pipe.C_out.h_outflow;
+ HPsuperheater2.cold_side_pipe.Q = HPsuperheater2.cold_side_pipe.C_in.Q;
+ HPsuperheater2.cold_side_pipe.P_in = HPsuperheater2.cold_side_pipe.C_in.P;
+ HPsuperheater2.cold_side_pipe.P_out = HPsuperheater2.cold_side_pipe.C_out.P;
+ HPsuperheater2.cold_side_pipe.Xi = inStream(HPsuperheater2.cold_side_pipe.C_in.Xi_outflow);
+ HPsuperheater2.cold_side_pipe.C_in.h_outflow = 1000000.0;
+ HPsuperheater2.cold_side_pipe.C_in.Xi_outflow = zeros(0);
+ HPsuperheater2.cold_side_pipe.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (HPsuperheater2.cold_side_pipe.P_in, HPsuperheater2.cold_side_pipe.h_in,
+ HPsuperheater2.cold_side_pipe.Xi, 0, 0);
+ HPsuperheater2.cold_side_pipe.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (HPsuperheater2.cold_side_pipe.P_out, HPsuperheater2.cold_side_pipe.h_out,
+ HPsuperheater2.cold_side_pipe.Xi, 0, 0);
+ HPsuperheater2.cold_side_pipe.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ HPsuperheater2.cold_side_pipe.state_in);
+ HPsuperheater2.cold_side_pipe.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ HPsuperheater2.cold_side_pipe.state_out);
+ HPsuperheater2.cold_side_pipe.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ HPsuperheater2.cold_side_pipe.state_in);
+ HPsuperheater2.cold_side_pipe.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ HPsuperheater2.cold_side_pipe.state_out);
+ HPsuperheater2.cold_side_pipe.rho = (HPsuperheater2.cold_side_pipe.rho_in+
+ HPsuperheater2.cold_side_pipe.rho_out)/2;
+ HPsuperheater2.cold_side_pipe.Qv_in = HPsuperheater2.cold_side_pipe.Q/
+ HPsuperheater2.cold_side_pipe.rho_in;
+ HPsuperheater2.cold_side_pipe.Qv_out = -HPsuperheater2.cold_side_pipe.Q/
+ HPsuperheater2.cold_side_pipe.rho_out;
+ HPsuperheater2.cold_side_pipe.Qv = (HPsuperheater2.cold_side_pipe.Qv_in-
+ HPsuperheater2.cold_side_pipe.Qv_out)/2;
+ HPsuperheater2.cold_side_pipe.P_out-HPsuperheater2.cold_side_pipe.P_in =
+ HPsuperheater2.cold_side_pipe.DP;
+ HPsuperheater2.cold_side_pipe.Q*(HPsuperheater2.cold_side_pipe.h_out-
+ HPsuperheater2.cold_side_pipe.h_in) = HPsuperheater2.cold_side_pipe.W;
+ HPsuperheater2.cold_side_pipe.h_out-HPsuperheater2.cold_side_pipe.h_in =
+ HPsuperheater2.cold_side_pipe.DH;
+ HPsuperheater2.cold_side_pipe.T_out-HPsuperheater2.cold_side_pipe.T_in =
+ HPsuperheater2.cold_side_pipe.DT;
+ HPsuperheater2.cold_side_pipe.C_in.Q+HPsuperheater2.cold_side_pipe.C_out.Q
+ = 0;
+ HPsuperheater2.cold_side_pipe.C_out.Xi_outflow = inStream(HPsuperheater2.cold_side_pipe.C_in.Xi_outflow);
+ assert(HPsuperheater2.cold_side_pipe.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoHFlowModel
+ equation
+ HPsuperheater2.cold_side_pipe.h = HPsuperheater2.cold_side_pipe.h_in;
+ HPsuperheater2.cold_side_pipe.DH = 0;
+ // extends MetroscopeModelingLibrary.Partial.Pipes.FrictionPipe
+ equation
+ if ( not HPsuperheater2.cold_side_pipe.faulty) then
+ HPsuperheater2.cold_side_pipe.fouling = 0;
+ end if;
+ HPsuperheater2.cold_side_pipe.DP = -(1+HPsuperheater2.cold_side_pipe.fouling
+ /100)*HPsuperheater2.cold_side_pipe.Kfr*HPsuperheater2.cold_side_pipe.Q*
+ abs(HPsuperheater2.cold_side_pipe.Q)/HPsuperheater2.cold_side_pipe.rho_in;
+ // end of extends
+
+ // Component HPsuperheater2
+ // class MetroscopeModelingLibrary.MultiFluid.HeatExchangers.Superheater
+ // extends MetroscopeModelingLibrary.Partial.HeatExchangers.WaterFlueGasesMonophasicHX
+ equation
+ if ( not HPsuperheater2.faulty) then
+ HPsuperheater2.fouling = 0;
+ end if;
+ HPsuperheater2.Q_cold = HPsuperheater2.cold_side.Q;
+ HPsuperheater2.Q_hot = HPsuperheater2.hot_side.Q;
+ HPsuperheater2.T_cold_in = HPsuperheater2.cold_side_pipe.T_in;
+ HPsuperheater2.T_cold_out = HPsuperheater2.cold_side.T_out;
+ HPsuperheater2.T_hot_in = HPsuperheater2.hot_side.T_in;
+ HPsuperheater2.T_hot_out = HPsuperheater2.hot_side.T_out;
+ HPsuperheater2.cold_side.W = HPsuperheater2.W;
+ HPsuperheater2.hot_side.W+HPsuperheater2.cold_side.W = 0;
+ HPsuperheater2.HX.W = HPsuperheater2.W;
+ HPsuperheater2.HX.Kth = HPsuperheater2.Kth*(1-HPsuperheater2.fouling/100);
+ HPsuperheater2.HX.S = HPsuperheater2.S;
+ HPsuperheater2.HX.Q_cold = HPsuperheater2.Q_cold;
+ HPsuperheater2.HX.Q_hot = HPsuperheater2.Q_hot;
+ HPsuperheater2.HX.T_cold_in = HPsuperheater2.T_cold_in;
+ HPsuperheater2.HX.T_hot_in = HPsuperheater2.T_hot_in;
+ HPsuperheater2.HX.Cp_cold = (HPsuperheater2.Cp_cold_min+HPsuperheater2.Cp_cold_max)
+ /2;
+ HPsuperheater2.HX.Cp_hot = (HPsuperheater2.Cp_hot_min+HPsuperheater2.Cp_hot_max)
+ /2;
+ HPsuperheater2.DT_hot_in_side = HPsuperheater2.T_hot_in-HPsuperheater2.T_cold_out;
+ HPsuperheater2.DT_hot_out_side = HPsuperheater2.T_hot_out-HPsuperheater2.T_cold_in;
+ HPsuperheater2.pinch = min(HPsuperheater2.DT_hot_in_side, HPsuperheater2.DT_hot_out_side);
+ assert(HPsuperheater2.pinch > 0, "A negative pinch is reached",
+ AssertionLevel.warning);
+ assert(HPsuperheater2.pinch > 1 or HPsuperheater2.pinch < 0,
+ "A very low pinch (<1) is reached", AssertionLevel.warning);
+ HPsuperheater2.maximum_achiveable_temperature_difference =
+ HPsuperheater2.hot_side.T_in-HPsuperheater2.cold_side.T_in;
+ if (HPsuperheater2.nominal_DT_default) then
+ HPsuperheater2.nominal_cold_side_temperature_rise = HPsuperheater2.hot_side.T_in
+ -HPsuperheater2.cold_side.T_in;
+ HPsuperheater2.nominal_hot_side_temperature_drop = HPsuperheater2.hot_side.T_in
+ -HPsuperheater2.cold_side.T_in;
+ end if;
+ HPsuperheater2.Cp_cold_min = Modelica.Media.Water.WaterIF97_ph.specificHeatCapacityCp_Unique14
+ (
+ HPsuperheater2.cold_side.state_in);
+ HPsuperheater2.state_cold_out = Modelica.Media.Water.WaterIF97_ph.setState_pTX_Unique15
+ (HPsuperheater2.cold_side.P_in, HPsuperheater2.cold_side.T_in+
+ HPsuperheater2.nominal_cold_side_temperature_rise, HPsuperheater2.cold_side.Xi,
+ 0, 0);
+ HPsuperheater2.Cp_cold_max = Modelica.Media.Water.WaterIF97_ph.specificHeatCapacityCp_Unique14
+ (
+ HPsuperheater2.state_cold_out);
+ HPsuperheater2.Cp_hot_max = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.specificHeatCapacityCp_Unique18
+ (
+ HPsuperheater2.hot_side.state_in);
+ HPsuperheater2.state_hot_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_pTX_Unique19
+ (HPsuperheater2.hot_side.P_in, HPsuperheater2.hot_side.T_in-
+ HPsuperheater2.nominal_hot_side_temperature_drop, HPsuperheater2.hot_side.Xi);
+ HPsuperheater2.Cp_hot_min = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.specificHeatCapacityCp_Unique18
+ (
+ HPsuperheater2.state_hot_out);
+ // end of extends
+ equation
+ HPsuperheater2.STR = HPsuperheater2.T_cold_out-HPsuperheater2.T_cold_in;
+ HPsuperheater2.DT_superheat = HPsuperheater2.T_cold_out-Modelica.Media.Water.WaterIF97_ph.saturationTemperature_Unique21
+ (HPsuperheater2.cold_side_pipe.P_in);
+ HPsuperheater2.cold_side_pipe.C_in.P = HPsuperheater2.C_cold_in.P;
+ HPsuperheater2.C_cold_in.Q-HPsuperheater2.cold_side_pipe.C_in.Q = 0.0;
+ HPsuperheater2.cold_side.C_out.P = HPsuperheater2.C_cold_out.P;
+ HPsuperheater2.C_cold_out.Q-HPsuperheater2.cold_side.C_out.Q = 0.0;
+ HPsuperheater2.hot_side.C_in.P = HPsuperheater2.C_hot_in.P;
+ HPsuperheater2.C_hot_in.Q-HPsuperheater2.hot_side.C_in.Q = 0.0;
+ HPsuperheater2.hot_side.C_out.P = HPsuperheater2.C_hot_out.P;
+ HPsuperheater2.C_hot_out.Q-HPsuperheater2.hot_side.C_out.Q = 0.0;
+ HPsuperheater2.cold_side_pipe.Kfr = HPsuperheater2.Kfr_cold;
+ HPsuperheater2.cold_side_pipe.C_out.P = HPsuperheater2.cold_side.C_in.P;
+ HPsuperheater2.cold_side.C_in.Q+HPsuperheater2.cold_side_pipe.C_out.Q = 0.0;
+
+ // Component T_w_HPSH2_out_sensor.flow_model
+ // class MetroscopeModelingLibrary.WaterSteam.BaseClasses.IsoPHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ T_w_HPSH2_out_sensor.flow_model.h_in = inStream(T_w_HPSH2_out_sensor.flow_model.C_in.h_outflow);
+ T_w_HPSH2_out_sensor.flow_model.h_out = T_w_HPSH2_out_sensor.flow_model.C_out.h_outflow;
+ T_w_HPSH2_out_sensor.flow_model.Q = T_w_HPSH2_out_sensor.flow_model.C_in.Q;
+ T_w_HPSH2_out_sensor.flow_model.P_in = T_w_HPSH2_out_sensor.flow_model.C_in.P;
+ T_w_HPSH2_out_sensor.flow_model.P_out = T_w_HPSH2_out_sensor.flow_model.C_out.P;
+ T_w_HPSH2_out_sensor.flow_model.Xi = inStream(T_w_HPSH2_out_sensor.flow_model.C_in.Xi_outflow);
+ T_w_HPSH2_out_sensor.flow_model.C_in.h_outflow = 1000000.0;
+ T_w_HPSH2_out_sensor.flow_model.C_in.Xi_outflow = zeros(0);
+ T_w_HPSH2_out_sensor.flow_model.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (T_w_HPSH2_out_sensor.flow_model.P_in, T_w_HPSH2_out_sensor.flow_model.h_in,
+ T_w_HPSH2_out_sensor.flow_model.Xi, 0, 0);
+ T_w_HPSH2_out_sensor.flow_model.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (T_w_HPSH2_out_sensor.flow_model.P_out, T_w_HPSH2_out_sensor.flow_model.h_out,
+ T_w_HPSH2_out_sensor.flow_model.Xi, 0, 0);
+ T_w_HPSH2_out_sensor.flow_model.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ T_w_HPSH2_out_sensor.flow_model.state_in);
+ T_w_HPSH2_out_sensor.flow_model.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ T_w_HPSH2_out_sensor.flow_model.state_out);
+ T_w_HPSH2_out_sensor.flow_model.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ T_w_HPSH2_out_sensor.flow_model.state_in);
+ T_w_HPSH2_out_sensor.flow_model.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ T_w_HPSH2_out_sensor.flow_model.state_out);
+ T_w_HPSH2_out_sensor.flow_model.rho = (T_w_HPSH2_out_sensor.flow_model.rho_in
+ +T_w_HPSH2_out_sensor.flow_model.rho_out)/2;
+ T_w_HPSH2_out_sensor.flow_model.Qv_in = T_w_HPSH2_out_sensor.flow_model.Q/
+ T_w_HPSH2_out_sensor.flow_model.rho_in;
+ T_w_HPSH2_out_sensor.flow_model.Qv_out = -T_w_HPSH2_out_sensor.flow_model.Q
+ /T_w_HPSH2_out_sensor.flow_model.rho_out;
+ T_w_HPSH2_out_sensor.flow_model.Qv = (T_w_HPSH2_out_sensor.flow_model.Qv_in
+ -T_w_HPSH2_out_sensor.flow_model.Qv_out)/2;
+ T_w_HPSH2_out_sensor.flow_model.P_out-T_w_HPSH2_out_sensor.flow_model.P_in
+ = T_w_HPSH2_out_sensor.flow_model.DP;
+ T_w_HPSH2_out_sensor.flow_model.Q*(T_w_HPSH2_out_sensor.flow_model.h_out-
+ T_w_HPSH2_out_sensor.flow_model.h_in) = T_w_HPSH2_out_sensor.flow_model.W;
+ T_w_HPSH2_out_sensor.flow_model.h_out-T_w_HPSH2_out_sensor.flow_model.h_in
+ = T_w_HPSH2_out_sensor.flow_model.DH;
+ T_w_HPSH2_out_sensor.flow_model.T_out-T_w_HPSH2_out_sensor.flow_model.T_in
+ = T_w_HPSH2_out_sensor.flow_model.DT;
+ T_w_HPSH2_out_sensor.flow_model.C_in.Q+T_w_HPSH2_out_sensor.flow_model.C_out.Q
+ = 0;
+ T_w_HPSH2_out_sensor.flow_model.C_out.Xi_outflow = inStream(
+ T_w_HPSH2_out_sensor.flow_model.C_in.Xi_outflow);
+ assert(T_w_HPSH2_out_sensor.flow_model.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPHFlowModel
+ equation
+ T_w_HPSH2_out_sensor.flow_model.P = T_w_HPSH2_out_sensor.flow_model.P_in;
+ T_w_HPSH2_out_sensor.flow_model.h = T_w_HPSH2_out_sensor.flow_model.h_in;
+ T_w_HPSH2_out_sensor.flow_model.T = T_w_HPSH2_out_sensor.flow_model.T_in;
+ T_w_HPSH2_out_sensor.flow_model.DP = 0;
+ T_w_HPSH2_out_sensor.flow_model.DH = 0;
+ // end of extends
+
+ // Component T_w_HPSH2_out_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.WaterSteam.TemperatureSensor
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.BaseSensor
+ equation
+ if ( not T_w_HPSH2_out_sensor.faulty_flow_rate) then
+ T_w_HPSH2_out_sensor.mass_flow_rate_bias = 0;
+ end if;
+ T_w_HPSH2_out_sensor.P = T_w_HPSH2_out_sensor.C_in.P;
+ T_w_HPSH2_out_sensor.Q = T_w_HPSH2_out_sensor.C_in.Q+T_w_HPSH2_out_sensor.mass_flow_rate_bias;
+ T_w_HPSH2_out_sensor.Xi = inStream(T_w_HPSH2_out_sensor.C_in.Xi_outflow);
+ T_w_HPSH2_out_sensor.h = inStream(T_w_HPSH2_out_sensor.C_in.h_outflow);
+ T_w_HPSH2_out_sensor.state = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (T_w_HPSH2_out_sensor.P, T_w_HPSH2_out_sensor.h, T_w_HPSH2_out_sensor.Xi,
+ 0, 0);
+ assert(T_w_HPSH2_out_sensor.Q > 0, "Wrong flow sign in inline sensor. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.TemperatureSensor
+ equation
+ T_w_HPSH2_out_sensor.T = T_w_HPSH2_out_sensor.flow_model.T;
+ T_w_HPSH2_out_sensor.T_degC+273.15 = T_w_HPSH2_out_sensor.T;
+ T_w_HPSH2_out_sensor.T_degF = T_w_HPSH2_out_sensor.T_degC*1.8+32;
+ if (T_w_HPSH2_out_sensor.signal_unit == "degC") then
+ T_w_HPSH2_out_sensor.T_sensor = T_w_HPSH2_out_sensor.T_degC;
+ elseif (T_w_HPSH2_out_sensor.signal_unit == "degF") then
+ T_w_HPSH2_out_sensor.T_sensor = T_w_HPSH2_out_sensor.T_degF;
+ elseif (T_w_HPSH2_out_sensor.signal_unit == "K") then
+ T_w_HPSH2_out_sensor.T_sensor = T_w_HPSH2_out_sensor.T;
+ else
+ assert(false, "Unavailable unit selected for %name");
+ end if;
+ // end of extends
+ equation
+ T_w_HPSH2_out_sensor.flow_model.C_in.P = T_w_HPSH2_out_sensor.C_in.P;
+ T_w_HPSH2_out_sensor.C_in.Q-T_w_HPSH2_out_sensor.flow_model.C_in.Q = 0.0;
+ T_w_HPSH2_out_sensor.flow_model.C_out.P = T_w_HPSH2_out_sensor.C_out.P;
+ T_w_HPSH2_out_sensor.C_out.Q-T_w_HPSH2_out_sensor.flow_model.C_out.Q = 0.0;
+
+ // Component P_w_HPSH2_out_sensor.flow_model
+ // class MetroscopeModelingLibrary.WaterSteam.BaseClasses.IsoPHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ P_w_HPSH2_out_sensor.flow_model.h_in = inStream(P_w_HPSH2_out_sensor.flow_model.C_in.h_outflow);
+ P_w_HPSH2_out_sensor.flow_model.h_out = P_w_HPSH2_out_sensor.flow_model.C_out.h_outflow;
+ P_w_HPSH2_out_sensor.flow_model.Q = P_w_HPSH2_out_sensor.flow_model.C_in.Q;
+ P_w_HPSH2_out_sensor.flow_model.P_in = P_w_HPSH2_out_sensor.flow_model.C_in.P;
+ P_w_HPSH2_out_sensor.flow_model.P_out = P_w_HPSH2_out_sensor.flow_model.C_out.P;
+ P_w_HPSH2_out_sensor.flow_model.Xi = inStream(P_w_HPSH2_out_sensor.flow_model.C_in.Xi_outflow);
+ P_w_HPSH2_out_sensor.flow_model.C_in.h_outflow = 1000000.0;
+ P_w_HPSH2_out_sensor.flow_model.C_in.Xi_outflow = zeros(0);
+ P_w_HPSH2_out_sensor.flow_model.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (P_w_HPSH2_out_sensor.flow_model.P_in, P_w_HPSH2_out_sensor.flow_model.h_in,
+ P_w_HPSH2_out_sensor.flow_model.Xi, 0, 0);
+ P_w_HPSH2_out_sensor.flow_model.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (P_w_HPSH2_out_sensor.flow_model.P_out, P_w_HPSH2_out_sensor.flow_model.h_out,
+ P_w_HPSH2_out_sensor.flow_model.Xi, 0, 0);
+ P_w_HPSH2_out_sensor.flow_model.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ P_w_HPSH2_out_sensor.flow_model.state_in);
+ P_w_HPSH2_out_sensor.flow_model.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ P_w_HPSH2_out_sensor.flow_model.state_out);
+ P_w_HPSH2_out_sensor.flow_model.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ P_w_HPSH2_out_sensor.flow_model.state_in);
+ P_w_HPSH2_out_sensor.flow_model.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ P_w_HPSH2_out_sensor.flow_model.state_out);
+ P_w_HPSH2_out_sensor.flow_model.rho = (P_w_HPSH2_out_sensor.flow_model.rho_in
+ +P_w_HPSH2_out_sensor.flow_model.rho_out)/2;
+ P_w_HPSH2_out_sensor.flow_model.Qv_in = P_w_HPSH2_out_sensor.flow_model.Q/
+ P_w_HPSH2_out_sensor.flow_model.rho_in;
+ P_w_HPSH2_out_sensor.flow_model.Qv_out = -P_w_HPSH2_out_sensor.flow_model.Q
+ /P_w_HPSH2_out_sensor.flow_model.rho_out;
+ P_w_HPSH2_out_sensor.flow_model.Qv = (P_w_HPSH2_out_sensor.flow_model.Qv_in
+ -P_w_HPSH2_out_sensor.flow_model.Qv_out)/2;
+ P_w_HPSH2_out_sensor.flow_model.P_out-P_w_HPSH2_out_sensor.flow_model.P_in
+ = P_w_HPSH2_out_sensor.flow_model.DP;
+ P_w_HPSH2_out_sensor.flow_model.Q*(P_w_HPSH2_out_sensor.flow_model.h_out-
+ P_w_HPSH2_out_sensor.flow_model.h_in) = P_w_HPSH2_out_sensor.flow_model.W;
+ P_w_HPSH2_out_sensor.flow_model.h_out-P_w_HPSH2_out_sensor.flow_model.h_in
+ = P_w_HPSH2_out_sensor.flow_model.DH;
+ P_w_HPSH2_out_sensor.flow_model.T_out-P_w_HPSH2_out_sensor.flow_model.T_in
+ = P_w_HPSH2_out_sensor.flow_model.DT;
+ P_w_HPSH2_out_sensor.flow_model.C_in.Q+P_w_HPSH2_out_sensor.flow_model.C_out.Q
+ = 0;
+ P_w_HPSH2_out_sensor.flow_model.C_out.Xi_outflow = inStream(
+ P_w_HPSH2_out_sensor.flow_model.C_in.Xi_outflow);
+ assert(P_w_HPSH2_out_sensor.flow_model.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPHFlowModel
+ equation
+ P_w_HPSH2_out_sensor.flow_model.P = P_w_HPSH2_out_sensor.flow_model.P_in;
+ P_w_HPSH2_out_sensor.flow_model.h = P_w_HPSH2_out_sensor.flow_model.h_in;
+ P_w_HPSH2_out_sensor.flow_model.T = P_w_HPSH2_out_sensor.flow_model.T_in;
+ P_w_HPSH2_out_sensor.flow_model.DP = 0;
+ P_w_HPSH2_out_sensor.flow_model.DH = 0;
+ // end of extends
+
+ // Component P_w_HPSH2_out_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.WaterSteam.PressureSensor
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.BaseSensor
+ equation
+ if ( not P_w_HPSH2_out_sensor.faulty_flow_rate) then
+ P_w_HPSH2_out_sensor.mass_flow_rate_bias = 0;
+ end if;
+ P_w_HPSH2_out_sensor.P = P_w_HPSH2_out_sensor.C_in.P;
+ P_w_HPSH2_out_sensor.Q = P_w_HPSH2_out_sensor.C_in.Q+P_w_HPSH2_out_sensor.mass_flow_rate_bias;
+ P_w_HPSH2_out_sensor.Xi = inStream(P_w_HPSH2_out_sensor.C_in.Xi_outflow);
+ P_w_HPSH2_out_sensor.h = inStream(P_w_HPSH2_out_sensor.C_in.h_outflow);
+ P_w_HPSH2_out_sensor.state = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (P_w_HPSH2_out_sensor.P, P_w_HPSH2_out_sensor.h, P_w_HPSH2_out_sensor.Xi,
+ 0, 0);
+ assert(P_w_HPSH2_out_sensor.Q > 0, "Wrong flow sign in inline sensor. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.PressureSensor
+ equation
+ P_w_HPSH2_out_sensor.P_barA = P_w_HPSH2_out_sensor.P*1E-05;
+ P_w_HPSH2_out_sensor.P_psiA = P_w_HPSH2_out_sensor.P*0.000145038;
+ P_w_HPSH2_out_sensor.P_MPaA = P_w_HPSH2_out_sensor.P*1E-06;
+ P_w_HPSH2_out_sensor.P_kPaA = P_w_HPSH2_out_sensor.P*0.001;
+ P_w_HPSH2_out_sensor.P_barG = P_w_HPSH2_out_sensor.P_barA-1;
+ P_w_HPSH2_out_sensor.P_psiG = P_w_HPSH2_out_sensor.P_psiA-14.50377377;
+ P_w_HPSH2_out_sensor.P_MPaG = P_w_HPSH2_out_sensor.P_MPaA-0.1;
+ P_w_HPSH2_out_sensor.P_kPaG = P_w_HPSH2_out_sensor.P_kPaA-100;
+ P_w_HPSH2_out_sensor.P_mbar = P_w_HPSH2_out_sensor.P*0.01;
+ P_w_HPSH2_out_sensor.P_inHg = P_w_HPSH2_out_sensor.P*0.0002953006;
+ if (P_w_HPSH2_out_sensor.signal_unit == "barA") then
+ P_w_HPSH2_out_sensor.P_sensor = P_w_HPSH2_out_sensor.P_barA;
+ elseif (P_w_HPSH2_out_sensor.signal_unit == "barG") then
+ P_w_HPSH2_out_sensor.P_sensor = P_w_HPSH2_out_sensor.P_barG;
+ elseif (P_w_HPSH2_out_sensor.signal_unit == "mbar") then
+ P_w_HPSH2_out_sensor.P_sensor = P_w_HPSH2_out_sensor.P_mbar;
+ elseif (P_w_HPSH2_out_sensor.signal_unit == "MPaA") then
+ P_w_HPSH2_out_sensor.P_sensor = P_w_HPSH2_out_sensor.P_MPaA;
+ elseif (P_w_HPSH2_out_sensor.signal_unit == "kPaA") then
+ P_w_HPSH2_out_sensor.P_sensor = P_w_HPSH2_out_sensor.P_kPaA;
+ else
+ P_w_HPSH2_out_sensor.P_sensor = P_w_HPSH2_out_sensor.P;
+ end if;
+ // end of extends
+ equation
+ P_w_HPSH2_out_sensor.flow_model.C_in.P = P_w_HPSH2_out_sensor.C_in.P;
+ P_w_HPSH2_out_sensor.C_in.Q-P_w_HPSH2_out_sensor.flow_model.C_in.Q = 0.0;
+ P_w_HPSH2_out_sensor.flow_model.C_out.P = P_w_HPSH2_out_sensor.C_out.P;
+ P_w_HPSH2_out_sensor.C_out.Q-P_w_HPSH2_out_sensor.flow_model.C_out.Q = 0.0;
+
+ // Component deSH_controlValve
+ // class MetroscopeModelingLibrary.WaterSteam.Pipes.ControlValve
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ deSH_controlValve.h_in = inStream(deSH_controlValve.C_in.h_outflow);
+ deSH_controlValve.h_out = deSH_controlValve.C_out.h_outflow;
+ deSH_controlValve.Q = deSH_controlValve.C_in.Q;
+ deSH_controlValve.P_in = deSH_controlValve.C_in.P;
+ deSH_controlValve.P_out = deSH_controlValve.C_out.P;
+ deSH_controlValve.Xi = inStream(deSH_controlValve.C_in.Xi_outflow);
+ deSH_controlValve.C_in.h_outflow = 1000000.0;
+ deSH_controlValve.C_in.Xi_outflow = zeros(0);
+ deSH_controlValve.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (deSH_controlValve.P_in, deSH_controlValve.h_in, deSH_controlValve.Xi, 0,
+ 0);
+ deSH_controlValve.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (deSH_controlValve.P_out, deSH_controlValve.h_out, deSH_controlValve.Xi,
+ 0, 0);
+ deSH_controlValve.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ deSH_controlValve.state_in);
+ deSH_controlValve.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ deSH_controlValve.state_out);
+ deSH_controlValve.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ deSH_controlValve.state_in);
+ deSH_controlValve.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ deSH_controlValve.state_out);
+ deSH_controlValve.rho = (deSH_controlValve.rho_in+deSH_controlValve.rho_out)
+ /2;
+ deSH_controlValve.Qv_in = deSH_controlValve.Q/deSH_controlValve.rho_in;
+ deSH_controlValve.Qv_out = -deSH_controlValve.Q/deSH_controlValve.rho_out;
+ deSH_controlValve.Qv = (deSH_controlValve.Qv_in-deSH_controlValve.Qv_out)/2;
+ deSH_controlValve.P_out-deSH_controlValve.P_in = deSH_controlValve.DP;
+ deSH_controlValve.Q*(deSH_controlValve.h_out-deSH_controlValve.h_in) =
+ deSH_controlValve.W;
+ deSH_controlValve.h_out-deSH_controlValve.h_in = deSH_controlValve.DH;
+ deSH_controlValve.T_out-deSH_controlValve.T_in = deSH_controlValve.DT;
+ deSH_controlValve.C_in.Q+deSH_controlValve.C_out.Q = 0;
+ deSH_controlValve.C_out.Xi_outflow = inStream(deSH_controlValve.C_in.Xi_outflow);
+ assert(deSH_controlValve.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoHFlowModel
+ equation
+ deSH_controlValve.h = deSH_controlValve.h_in;
+ deSH_controlValve.DH = 0;
+ // extends MetroscopeModelingLibrary.Partial.Pipes.ControlValve
+ equation
+ deSH_controlValve.DP*deSH_controlValve.Cv*abs(deSH_controlValve.Cv) = -
+ 1733000000000.0*abs(deSH_controlValve.Q)*deSH_controlValve.Q/
+ deSH_controlValve.rho_in^2;
+ deSH_controlValve.Cv = deSH_controlValve.Opening*deSH_controlValve.Cv_max;
+ // end of extends
+
+ // Component deSH_opening_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.Outline.OpeningSensor
+ equation
+ deSH_opening_sensor.Opening_pc = deSH_opening_sensor.Opening*100;
+ if (deSH_opening_sensor.output_signal_unit == "%") then
+ deSH_opening_sensor.opening_sensor = deSH_opening_sensor.Opening_pc;
+ else
+ deSH_opening_sensor.opening_sensor = deSH_opening_sensor.Opening;
+ end if;
+
+ // Component Q_deSH_sensor.flow_model
+ // class MetroscopeModelingLibrary.WaterSteam.BaseClasses.IsoPHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ Q_deSH_sensor.flow_model.h_in = inStream(Q_deSH_sensor.flow_model.C_in.h_outflow);
+ Q_deSH_sensor.flow_model.h_out = Q_deSH_sensor.flow_model.C_out.h_outflow;
+ Q_deSH_sensor.flow_model.Q = Q_deSH_sensor.flow_model.C_in.Q;
+ Q_deSH_sensor.flow_model.P_in = Q_deSH_sensor.flow_model.C_in.P;
+ Q_deSH_sensor.flow_model.P_out = Q_deSH_sensor.flow_model.C_out.P;
+ Q_deSH_sensor.flow_model.Xi = inStream(Q_deSH_sensor.flow_model.C_in.Xi_outflow);
+ Q_deSH_sensor.flow_model.C_in.h_outflow = 1000000.0;
+ Q_deSH_sensor.flow_model.C_in.Xi_outflow = zeros(0);
+ Q_deSH_sensor.flow_model.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (Q_deSH_sensor.flow_model.P_in, Q_deSH_sensor.flow_model.h_in,
+ Q_deSH_sensor.flow_model.Xi, 0, 0);
+ Q_deSH_sensor.flow_model.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (Q_deSH_sensor.flow_model.P_out, Q_deSH_sensor.flow_model.h_out,
+ Q_deSH_sensor.flow_model.Xi, 0, 0);
+ Q_deSH_sensor.flow_model.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ Q_deSH_sensor.flow_model.state_in);
+ Q_deSH_sensor.flow_model.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ Q_deSH_sensor.flow_model.state_out);
+ Q_deSH_sensor.flow_model.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ Q_deSH_sensor.flow_model.state_in);
+ Q_deSH_sensor.flow_model.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ Q_deSH_sensor.flow_model.state_out);
+ Q_deSH_sensor.flow_model.rho = (Q_deSH_sensor.flow_model.rho_in+
+ Q_deSH_sensor.flow_model.rho_out)/2;
+ Q_deSH_sensor.flow_model.Qv_in = Q_deSH_sensor.flow_model.Q/
+ Q_deSH_sensor.flow_model.rho_in;
+ Q_deSH_sensor.flow_model.Qv_out = -Q_deSH_sensor.flow_model.Q/
+ Q_deSH_sensor.flow_model.rho_out;
+ Q_deSH_sensor.flow_model.Qv = (Q_deSH_sensor.flow_model.Qv_in-
+ Q_deSH_sensor.flow_model.Qv_out)/2;
+ Q_deSH_sensor.flow_model.P_out-Q_deSH_sensor.flow_model.P_in =
+ Q_deSH_sensor.flow_model.DP;
+ Q_deSH_sensor.flow_model.Q*(Q_deSH_sensor.flow_model.h_out-
+ Q_deSH_sensor.flow_model.h_in) = Q_deSH_sensor.flow_model.W;
+ Q_deSH_sensor.flow_model.h_out-Q_deSH_sensor.flow_model.h_in =
+ Q_deSH_sensor.flow_model.DH;
+ Q_deSH_sensor.flow_model.T_out-Q_deSH_sensor.flow_model.T_in =
+ Q_deSH_sensor.flow_model.DT;
+ Q_deSH_sensor.flow_model.C_in.Q+Q_deSH_sensor.flow_model.C_out.Q = 0;
+ Q_deSH_sensor.flow_model.C_out.Xi_outflow = inStream(Q_deSH_sensor.flow_model.C_in.Xi_outflow);
+ assert(Q_deSH_sensor.flow_model.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPHFlowModel
+ equation
+ Q_deSH_sensor.flow_model.P = Q_deSH_sensor.flow_model.P_in;
+ Q_deSH_sensor.flow_model.h = Q_deSH_sensor.flow_model.h_in;
+ Q_deSH_sensor.flow_model.T = Q_deSH_sensor.flow_model.T_in;
+ Q_deSH_sensor.flow_model.DP = 0;
+ Q_deSH_sensor.flow_model.DH = 0;
+ // end of extends
+
+ // Component Q_deSH_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.WaterSteam.FlowSensor
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.BaseSensor
+ equation
+ if ( not Q_deSH_sensor.faulty_flow_rate) then
+ Q_deSH_sensor.mass_flow_rate_bias = 0;
+ end if;
+ Q_deSH_sensor.P = Q_deSH_sensor.C_in.P;
+ Q_deSH_sensor.Q = Q_deSH_sensor.C_in.Q+Q_deSH_sensor.mass_flow_rate_bias;
+ Q_deSH_sensor.Xi = inStream(Q_deSH_sensor.C_in.Xi_outflow);
+ Q_deSH_sensor.h = inStream(Q_deSH_sensor.C_in.h_outflow);
+ Q_deSH_sensor.state = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (Q_deSH_sensor.P, Q_deSH_sensor.h, Q_deSH_sensor.Xi, 0, 0);
+ assert(Q_deSH_sensor.Q > 0, "Wrong flow sign in inline sensor. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.FlowSensor
+ equation
+ Q_deSH_sensor.Qv = Q_deSH_sensor.Q/Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ Q_deSH_sensor.state);
+ Q_deSH_sensor.Q_lm = Q_deSH_sensor.Qv*60000;
+ Q_deSH_sensor.Q_th = Q_deSH_sensor.Q*3.6;
+ Q_deSH_sensor.Q_lbs = Q_deSH_sensor.Q*2.2046;
+ Q_deSH_sensor.Q_Mlbh = Q_deSH_sensor.Q*0.0079366414387;
+ if (Q_deSH_sensor.signal_unit == "l/m") then
+ Q_deSH_sensor.Q_sensor = Q_deSH_sensor.Q_lm;
+ elseif (Q_deSH_sensor.signal_unit == "t/h") then
+ Q_deSH_sensor.Q_sensor = Q_deSH_sensor.Q_th;
+ else
+ Q_deSH_sensor.Q_sensor = Q_deSH_sensor.Q;
+ end if;
+ // end of extends
+ equation
+ Q_deSH_sensor.flow_model.C_in.P = Q_deSH_sensor.C_in.P;
+ Q_deSH_sensor.C_in.Q-Q_deSH_sensor.flow_model.C_in.Q = 0.0;
+ Q_deSH_sensor.flow_model.C_out.P = Q_deSH_sensor.C_out.P;
+ Q_deSH_sensor.C_out.Q-Q_deSH_sensor.flow_model.C_out.Q = 0.0;
+
+ // Component Evap_controlValve
+ // class MetroscopeModelingLibrary.WaterSteam.Pipes.ControlValve
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ Evap_controlValve.h_in = inStream(Evap_controlValve.C_in.h_outflow);
+ Evap_controlValve.h_out = Evap_controlValve.C_out.h_outflow;
+ Evap_controlValve.Q = Evap_controlValve.C_in.Q;
+ Evap_controlValve.P_in = Evap_controlValve.C_in.P;
+ Evap_controlValve.P_out = Evap_controlValve.C_out.P;
+ Evap_controlValve.Xi = inStream(Evap_controlValve.C_in.Xi_outflow);
+ Evap_controlValve.C_in.h_outflow = 1000000.0;
+ Evap_controlValve.C_in.Xi_outflow = zeros(0);
+ Evap_controlValve.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (Evap_controlValve.P_in, Evap_controlValve.h_in, Evap_controlValve.Xi, 0,
+ 0);
+ Evap_controlValve.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (Evap_controlValve.P_out, Evap_controlValve.h_out, Evap_controlValve.Xi,
+ 0, 0);
+ Evap_controlValve.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ Evap_controlValve.state_in);
+ Evap_controlValve.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ Evap_controlValve.state_out);
+ Evap_controlValve.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ Evap_controlValve.state_in);
+ Evap_controlValve.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ Evap_controlValve.state_out);
+ Evap_controlValve.rho = (Evap_controlValve.rho_in+Evap_controlValve.rho_out)
+ /2;
+ Evap_controlValve.Qv_in = Evap_controlValve.Q/Evap_controlValve.rho_in;
+ Evap_controlValve.Qv_out = -Evap_controlValve.Q/Evap_controlValve.rho_out;
+ Evap_controlValve.Qv = (Evap_controlValve.Qv_in-Evap_controlValve.Qv_out)/2;
+ Evap_controlValve.P_out-Evap_controlValve.P_in = Evap_controlValve.DP;
+ Evap_controlValve.Q*(Evap_controlValve.h_out-Evap_controlValve.h_in) =
+ Evap_controlValve.W;
+ Evap_controlValve.h_out-Evap_controlValve.h_in = Evap_controlValve.DH;
+ Evap_controlValve.T_out-Evap_controlValve.T_in = Evap_controlValve.DT;
+ Evap_controlValve.C_in.Q+Evap_controlValve.C_out.Q = 0;
+ Evap_controlValve.C_out.Xi_outflow = inStream(Evap_controlValve.C_in.Xi_outflow);
+ assert(Evap_controlValve.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoHFlowModel
+ equation
+ Evap_controlValve.h = Evap_controlValve.h_in;
+ Evap_controlValve.DH = 0;
+ // extends MetroscopeModelingLibrary.Partial.Pipes.ControlValve
+ equation
+ Evap_controlValve.DP*Evap_controlValve.Cv*abs(Evap_controlValve.Cv) = -
+ 1733000000000.0*abs(Evap_controlValve.Q)*Evap_controlValve.Q/
+ Evap_controlValve.rho_in^2;
+ Evap_controlValve.Cv = Evap_controlValve.Opening*Evap_controlValve.Cv_max;
+ // end of extends
+
+ // Component Evap_opening_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.Outline.OpeningSensor
+ equation
+ Evap_opening_sensor.Opening_pc = Evap_opening_sensor.Opening*100;
+ if (Evap_opening_sensor.output_signal_unit == "%") then
+ Evap_opening_sensor.opening_sensor = Evap_opening_sensor.Opening_pc;
+ else
+ Evap_opening_sensor.opening_sensor = Evap_opening_sensor.Opening;
+ end if;
+
+ // Component moistAir_to_FlueGases.sink
+ // class MetroscopeModelingLibrary.MoistAir.BoundaryConditions.Sink
+ // extends MetroscopeModelingLibrary.Partial.BoundaryConditions.FluidSink
+ equation
+ moistAir_to_FlueGases.sink.C_in.P = moistAir_to_FlueGases.sink.P_in;
+ moistAir_to_FlueGases.sink.C_in.Q = moistAir_to_FlueGases.sink.Q_in;
+ inStream(moistAir_to_FlueGases.sink.C_in.h_outflow) = moistAir_to_FlueGases.sink.h_in;
+ inStream(moistAir_to_FlueGases.sink.C_in.Xi_outflow) = moistAir_to_FlueGases.sink.Xi_in;
+ moistAir_to_FlueGases.sink.state_in = setState_phX_Unique50(
+ moistAir_to_FlueGases.sink.P_in, moistAir_to_FlueGases.sink.h_in,
+ moistAir_to_FlueGases.sink.Xi_in);
+ moistAir_to_FlueGases.sink.T_in = temperature_Unique68(
+ moistAir_to_FlueGases.sink.state_in);
+ moistAir_to_FlueGases.sink.Qv_in = moistAir_to_FlueGases.sink.Q_in/
+ density_Unique69(
+ moistAir_to_FlueGases.sink.state_in);
+ moistAir_to_FlueGases.sink.C_in.h_outflow = 0;
+ moistAir_to_FlueGases.sink.C_in.Xi_outflow = zeros(1);
+ // end of extends
+ equation
+ moistAir_to_FlueGases.sink.Xi_in[1] = massFraction_pTphi_Unique71(
+ moistAir_to_FlueGases.sink.P_in, moistAir_to_FlueGases.sink.T_in,
+ moistAir_to_FlueGases.sink.relative_humidity);
+
+ // Component moistAir_to_FlueGases.source
+ // class MetroscopeModelingLibrary.FlueGases.BoundaryConditions.Source
+ // extends MetroscopeModelingLibrary.Partial.BoundaryConditions.FluidSource
+ equation
+ moistAir_to_FlueGases.source.C_out.P = moistAir_to_FlueGases.source.P_out;
+ moistAir_to_FlueGases.source.C_out.Q = moistAir_to_FlueGases.source.Q_out;
+ moistAir_to_FlueGases.source.C_out.h_outflow = moistAir_to_FlueGases.source.h_out;
+ moistAir_to_FlueGases.source.C_out.Xi_outflow = moistAir_to_FlueGases.source.Xi_out;
+ moistAir_to_FlueGases.source.state_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (moistAir_to_FlueGases.source.P_out, moistAir_to_FlueGases.source.h_out,
+ moistAir_to_FlueGases.source.Xi_out);
+ moistAir_to_FlueGases.source.T_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ moistAir_to_FlueGases.source.state_out);
+ moistAir_to_FlueGases.source.Qv_out = moistAir_to_FlueGases.source.Q_out/
+ MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ moistAir_to_FlueGases.source.state_out);
+ // end of extends
+
+ // Component moistAir_to_FlueGases
+ // class MetroscopeModelingLibrary.MultiFluid.Converters.MoistAir_to_FlueGases
+ equation
+ moistAir_to_FlueGases.source.P_out = moistAir_to_FlueGases.sink.P_in;
+ moistAir_to_FlueGases.source.Q_out = -moistAir_to_FlueGases.sink.Q_in;
+ moistAir_to_FlueGases.source.Xi_out[1] = (1-moistAir_to_FlueGases.sink.Xi_in
+ [1])*0.768;
+ moistAir_to_FlueGases.source.Xi_out[2] = (1-moistAir_to_FlueGases.sink.Xi_in
+ [1])*0.232;
+ moistAir_to_FlueGases.source.Xi_out[3] = moistAir_to_FlueGases.sink.Xi_in[1];
+ moistAir_to_FlueGases.source.Xi_out[4] = 0;
+ moistAir_to_FlueGases.source.Xi_out[5] = 0;
+ moistAir_to_FlueGases.sink.T_in = moistAir_to_FlueGases.source.T_out;
+ moistAir_to_FlueGases.sink.C_in.P = moistAir_to_FlueGases.inlet.P;
+ moistAir_to_FlueGases.inlet.Q-moistAir_to_FlueGases.sink.C_in.Q = 0.0;
+ moistAir_to_FlueGases.source.C_out.P = moistAir_to_FlueGases.outlet.P;
+ moistAir_to_FlueGases.outlet.Q-moistAir_to_FlueGases.source.C_out.Q = 0.0;
+
+ // Component source_air
+ // class MetroscopeModelingLibrary.MoistAir.BoundaryConditions.Source
+ // extends MetroscopeModelingLibrary.Partial.BoundaryConditions.FluidSource
+ equation
+ source_air.C_out.P = source_air.P_out;
+ source_air.C_out.Q = source_air.Q_out;
+ source_air.C_out.h_outflow = source_air.h_out;
+ source_air.C_out.Xi_outflow = source_air.Xi_out;
+ source_air.state_out = setState_phX_Unique50(source_air.P_out,
+ source_air.h_out, source_air.Xi_out);
+ source_air.T_out = temperature_Unique68(
+ source_air.state_out);
+ source_air.Qv_out = source_air.Q_out/density_Unique69(
+ source_air.state_out);
+ // end of extends
+ equation
+ source_air.Xi_out[1] = massFraction_pTphi_Unique71(source_air.P_out,
+ source_air.T_out, source_air.relative_humidity);
+
+ // Component T_HPST_out_sensor.flow_model
+ // class MetroscopeModelingLibrary.WaterSteam.BaseClasses.IsoPHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ T_HPST_out_sensor.flow_model.h_in = inStream(T_HPST_out_sensor.flow_model.C_in.h_outflow);
+ T_HPST_out_sensor.flow_model.h_out = T_HPST_out_sensor.flow_model.C_out.h_outflow;
+ T_HPST_out_sensor.flow_model.Q = T_HPST_out_sensor.flow_model.C_in.Q;
+ T_HPST_out_sensor.flow_model.P_in = T_HPST_out_sensor.flow_model.C_in.P;
+ T_HPST_out_sensor.flow_model.P_out = T_HPST_out_sensor.flow_model.C_out.P;
+ T_HPST_out_sensor.flow_model.Xi = inStream(T_HPST_out_sensor.flow_model.C_in.Xi_outflow);
+ T_HPST_out_sensor.flow_model.C_in.h_outflow = 1000000.0;
+ T_HPST_out_sensor.flow_model.C_in.Xi_outflow = zeros(0);
+ T_HPST_out_sensor.flow_model.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (T_HPST_out_sensor.flow_model.P_in, T_HPST_out_sensor.flow_model.h_in,
+ T_HPST_out_sensor.flow_model.Xi, 0, 0);
+ T_HPST_out_sensor.flow_model.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (T_HPST_out_sensor.flow_model.P_out, T_HPST_out_sensor.flow_model.h_out,
+ T_HPST_out_sensor.flow_model.Xi, 0, 0);
+ T_HPST_out_sensor.flow_model.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ T_HPST_out_sensor.flow_model.state_in);
+ T_HPST_out_sensor.flow_model.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ T_HPST_out_sensor.flow_model.state_out);
+ T_HPST_out_sensor.flow_model.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ T_HPST_out_sensor.flow_model.state_in);
+ T_HPST_out_sensor.flow_model.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ T_HPST_out_sensor.flow_model.state_out);
+ T_HPST_out_sensor.flow_model.rho = (T_HPST_out_sensor.flow_model.rho_in+
+ T_HPST_out_sensor.flow_model.rho_out)/2;
+ T_HPST_out_sensor.flow_model.Qv_in = T_HPST_out_sensor.flow_model.Q/
+ T_HPST_out_sensor.flow_model.rho_in;
+ T_HPST_out_sensor.flow_model.Qv_out = -T_HPST_out_sensor.flow_model.Q/
+ T_HPST_out_sensor.flow_model.rho_out;
+ T_HPST_out_sensor.flow_model.Qv = (T_HPST_out_sensor.flow_model.Qv_in-
+ T_HPST_out_sensor.flow_model.Qv_out)/2;
+ T_HPST_out_sensor.flow_model.P_out-T_HPST_out_sensor.flow_model.P_in =
+ T_HPST_out_sensor.flow_model.DP;
+ T_HPST_out_sensor.flow_model.Q*(T_HPST_out_sensor.flow_model.h_out-
+ T_HPST_out_sensor.flow_model.h_in) = T_HPST_out_sensor.flow_model.W;
+ T_HPST_out_sensor.flow_model.h_out-T_HPST_out_sensor.flow_model.h_in =
+ T_HPST_out_sensor.flow_model.DH;
+ T_HPST_out_sensor.flow_model.T_out-T_HPST_out_sensor.flow_model.T_in =
+ T_HPST_out_sensor.flow_model.DT;
+ T_HPST_out_sensor.flow_model.C_in.Q+T_HPST_out_sensor.flow_model.C_out.Q
+ = 0;
+ T_HPST_out_sensor.flow_model.C_out.Xi_outflow = inStream(T_HPST_out_sensor.flow_model.C_in.Xi_outflow);
+ assert(T_HPST_out_sensor.flow_model.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPHFlowModel
+ equation
+ T_HPST_out_sensor.flow_model.P = T_HPST_out_sensor.flow_model.P_in;
+ T_HPST_out_sensor.flow_model.h = T_HPST_out_sensor.flow_model.h_in;
+ T_HPST_out_sensor.flow_model.T = T_HPST_out_sensor.flow_model.T_in;
+ T_HPST_out_sensor.flow_model.DP = 0;
+ T_HPST_out_sensor.flow_model.DH = 0;
+ // end of extends
+
+ // Component T_HPST_out_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.WaterSteam.TemperatureSensor
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.BaseSensor
+ equation
+ if ( not T_HPST_out_sensor.faulty_flow_rate) then
+ T_HPST_out_sensor.mass_flow_rate_bias = 0;
+ end if;
+ T_HPST_out_sensor.P = T_HPST_out_sensor.C_in.P;
+ T_HPST_out_sensor.Q = T_HPST_out_sensor.C_in.Q+T_HPST_out_sensor.mass_flow_rate_bias;
+ T_HPST_out_sensor.Xi = inStream(T_HPST_out_sensor.C_in.Xi_outflow);
+ T_HPST_out_sensor.h = inStream(T_HPST_out_sensor.C_in.h_outflow);
+ T_HPST_out_sensor.state = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (T_HPST_out_sensor.P, T_HPST_out_sensor.h, T_HPST_out_sensor.Xi, 0, 0);
+ assert(T_HPST_out_sensor.Q > 0, "Wrong flow sign in inline sensor. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.TemperatureSensor
+ equation
+ T_HPST_out_sensor.T = T_HPST_out_sensor.flow_model.T;
+ T_HPST_out_sensor.T_degC+273.15 = T_HPST_out_sensor.T;
+ T_HPST_out_sensor.T_degF = T_HPST_out_sensor.T_degC*1.8+32;
+ if (T_HPST_out_sensor.signal_unit == "degC") then
+ T_HPST_out_sensor.T_sensor = T_HPST_out_sensor.T_degC;
+ elseif (T_HPST_out_sensor.signal_unit == "degF") then
+ T_HPST_out_sensor.T_sensor = T_HPST_out_sensor.T_degF;
+ elseif (T_HPST_out_sensor.signal_unit == "K") then
+ T_HPST_out_sensor.T_sensor = T_HPST_out_sensor.T;
+ else
+ assert(false, "Unavailable unit selected for %name");
+ end if;
+ // end of extends
+ equation
+ T_HPST_out_sensor.flow_model.C_in.P = T_HPST_out_sensor.C_in.P;
+ T_HPST_out_sensor.C_in.Q-T_HPST_out_sensor.flow_model.C_in.Q = 0.0;
+ T_HPST_out_sensor.flow_model.C_out.P = T_HPST_out_sensor.C_out.P;
+ T_HPST_out_sensor.C_out.Q-T_HPST_out_sensor.flow_model.C_out.Q = 0.0;
+
+ // Component displayer.flow_model
+ // class MetroscopeModelingLibrary.WaterSteam.BaseClasses.IsoPHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ displayer.flow_model.h_in = inStream(displayer.flow_model.C_in.h_outflow);
+ displayer.flow_model.h_out = displayer.flow_model.C_out.h_outflow;
+ displayer.flow_model.Q = displayer.flow_model.C_in.Q;
+ displayer.flow_model.P_in = displayer.flow_model.C_in.P;
+ displayer.flow_model.P_out = displayer.flow_model.C_out.P;
+ displayer.flow_model.Xi = inStream(displayer.flow_model.C_in.Xi_outflow);
+ displayer.flow_model.C_in.h_outflow = 1000000.0;
+ displayer.flow_model.C_in.Xi_outflow = zeros(0);
+ displayer.flow_model.state_in = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (displayer.flow_model.P_in, displayer.flow_model.h_in, displayer.flow_model.Xi,
+ 0, 0);
+ displayer.flow_model.state_out = Modelica.Media.Water.WaterIF97_ph.setState_phX_Unique8
+ (displayer.flow_model.P_out, displayer.flow_model.h_out,
+ displayer.flow_model.Xi, 0, 0);
+ displayer.flow_model.T_in = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ displayer.flow_model.state_in);
+ displayer.flow_model.T_out = Modelica.Media.Water.WaterIF97_ph.temperature_Unique12
+ (
+ displayer.flow_model.state_out);
+ displayer.flow_model.rho_in = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ displayer.flow_model.state_in);
+ displayer.flow_model.rho_out = Modelica.Media.Water.WaterIF97_ph.density_Unique13
+ (
+ displayer.flow_model.state_out);
+ displayer.flow_model.rho = (displayer.flow_model.rho_in+displayer.flow_model.rho_out)
+ /2;
+ displayer.flow_model.Qv_in = displayer.flow_model.Q/displayer.flow_model.rho_in;
+ displayer.flow_model.Qv_out = -displayer.flow_model.Q/displayer.flow_model.rho_out;
+ displayer.flow_model.Qv = (displayer.flow_model.Qv_in-displayer.flow_model.Qv_out)
+ /2;
+ displayer.flow_model.P_out-displayer.flow_model.P_in = displayer.flow_model.DP;
+ displayer.flow_model.Q*(displayer.flow_model.h_out-displayer.flow_model.h_in)
+ = displayer.flow_model.W;
+ displayer.flow_model.h_out-displayer.flow_model.h_in = displayer.flow_model.DH;
+ displayer.flow_model.T_out-displayer.flow_model.T_in = displayer.flow_model.DT;
+ displayer.flow_model.C_in.Q+displayer.flow_model.C_out.Q = 0;
+ displayer.flow_model.C_out.Xi_outflow = inStream(displayer.flow_model.C_in.Xi_outflow);
+ assert(displayer.flow_model.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPHFlowModel
+ equation
+ displayer.flow_model.P = displayer.flow_model.P_in;
+ displayer.flow_model.h = displayer.flow_model.h_in;
+ displayer.flow_model.T = displayer.flow_model.T_in;
+ displayer.flow_model.DP = 0;
+ displayer.flow_model.DH = 0;
+ // end of extends
+
+ // Component displayer
+ // class MetroscopeModelingLibrary.Sensors.Displayer.WaterDisplayer
+ equation
+ displayer.flow_model.C_in.P = displayer.C_in.P;
+ displayer.C_in.Q-displayer.flow_model.C_in.Q = 0.0;
+ displayer.flow_model.C_out.P = displayer.C_out.P;
+ displayer.C_out.Q-displayer.flow_model.C_out.Q = 0.0;
+
+ // Component fuelDisplayer.flow_model
+ // class MetroscopeModelingLibrary.Fuel.BaseClasses.IsoPHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ fuelDisplayer.flow_model.h_in = inStream(fuelDisplayer.flow_model.C_in.h_outflow);
+ fuelDisplayer.flow_model.h_out = fuelDisplayer.flow_model.C_out.h_outflow;
+ fuelDisplayer.flow_model.Q = fuelDisplayer.flow_model.C_in.Q;
+ fuelDisplayer.flow_model.P_in = fuelDisplayer.flow_model.C_in.P;
+ fuelDisplayer.flow_model.P_out = fuelDisplayer.flow_model.C_out.P;
+ fuelDisplayer.flow_model.Xi = inStream(fuelDisplayer.flow_model.C_in.Xi_outflow);
+ fuelDisplayer.flow_model.C_in.h_outflow = 1000000.0;
+ fuelDisplayer.flow_model.C_in.Xi_outflow = zeros(6);
+ fuelDisplayer.flow_model.state_in = MetroscopeModelingLibrary.Utilities.Media.FuelMedium.setState_phX_Unique43
+ (fuelDisplayer.flow_model.P_in, fuelDisplayer.flow_model.h_in,
+ fuelDisplayer.flow_model.Xi);
+ fuelDisplayer.flow_model.state_out = MetroscopeModelingLibrary.Utilities.Media.FuelMedium.setState_phX_Unique43
+ (fuelDisplayer.flow_model.P_out, fuelDisplayer.flow_model.h_out,
+ fuelDisplayer.flow_model.Xi);
+ fuelDisplayer.flow_model.T_in = MetroscopeModelingLibrary.Utilities.Media.FuelMedium.temperature_Unique48
+ (
+ fuelDisplayer.flow_model.state_in);
+ fuelDisplayer.flow_model.T_out = MetroscopeModelingLibrary.Utilities.Media.FuelMedium.temperature_Unique48
+ (
+ fuelDisplayer.flow_model.state_out);
+ fuelDisplayer.flow_model.rho_in = MetroscopeModelingLibrary.Utilities.Media.FuelMedium.density_Unique49
+ (
+ fuelDisplayer.flow_model.state_in);
+ fuelDisplayer.flow_model.rho_out = MetroscopeModelingLibrary.Utilities.Media.FuelMedium.density_Unique49
+ (
+ fuelDisplayer.flow_model.state_out);
+ fuelDisplayer.flow_model.rho = (fuelDisplayer.flow_model.rho_in+
+ fuelDisplayer.flow_model.rho_out)/2;
+ fuelDisplayer.flow_model.Qv_in = fuelDisplayer.flow_model.Q/
+ fuelDisplayer.flow_model.rho_in;
+ fuelDisplayer.flow_model.Qv_out = -fuelDisplayer.flow_model.Q/
+ fuelDisplayer.flow_model.rho_out;
+ fuelDisplayer.flow_model.Qv = (fuelDisplayer.flow_model.Qv_in-
+ fuelDisplayer.flow_model.Qv_out)/2;
+ fuelDisplayer.flow_model.P_out-fuelDisplayer.flow_model.P_in =
+ fuelDisplayer.flow_model.DP;
+ fuelDisplayer.flow_model.Q*(fuelDisplayer.flow_model.h_out-
+ fuelDisplayer.flow_model.h_in) = fuelDisplayer.flow_model.W;
+ fuelDisplayer.flow_model.h_out-fuelDisplayer.flow_model.h_in =
+ fuelDisplayer.flow_model.DH;
+ fuelDisplayer.flow_model.T_out-fuelDisplayer.flow_model.T_in =
+ fuelDisplayer.flow_model.DT;
+ fuelDisplayer.flow_model.C_in.Q+fuelDisplayer.flow_model.C_out.Q = 0;
+ fuelDisplayer.flow_model.C_out.Xi_outflow = inStream(fuelDisplayer.flow_model.C_in.Xi_outflow);
+ assert(fuelDisplayer.flow_model.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPHFlowModel
+ equation
+ fuelDisplayer.flow_model.P = fuelDisplayer.flow_model.P_in;
+ fuelDisplayer.flow_model.h = fuelDisplayer.flow_model.h_in;
+ fuelDisplayer.flow_model.T = fuelDisplayer.flow_model.T_in;
+ fuelDisplayer.flow_model.DP = 0;
+ fuelDisplayer.flow_model.DH = 0;
+ // end of extends
+
+ // Component fuelDisplayer
+ // class MetroscopeModelingLibrary.Sensors.Displayer.FuelDisplayer
+ equation
+ fuelDisplayer.flow_model.C_in.P = fuelDisplayer.C_in.P;
+ fuelDisplayer.C_in.Q-fuelDisplayer.flow_model.C_in.Q = 0.0;
+ fuelDisplayer.flow_model.C_out.P = fuelDisplayer.C_out.P;
+ fuelDisplayer.C_out.Q-fuelDisplayer.flow_model.C_out.Q = 0.0;
+
+ // Component moistAirDisplayer.flow_model
+ // class MetroscopeModelingLibrary.MoistAir.BaseClasses.IsoPHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ moistAirDisplayer.flow_model.h_in = inStream(moistAirDisplayer.flow_model.C_in.h_outflow);
+ moistAirDisplayer.flow_model.h_out = moistAirDisplayer.flow_model.C_out.h_outflow;
+ moistAirDisplayer.flow_model.Q = moistAirDisplayer.flow_model.C_in.Q;
+ moistAirDisplayer.flow_model.P_in = moistAirDisplayer.flow_model.C_in.P;
+ moistAirDisplayer.flow_model.P_out = moistAirDisplayer.flow_model.C_out.P;
+ moistAirDisplayer.flow_model.Xi = inStream(moistAirDisplayer.flow_model.C_in.Xi_outflow);
+ moistAirDisplayer.flow_model.C_in.h_outflow = 1000000.0;
+ moistAirDisplayer.flow_model.C_in.Xi_outflow = zeros(1);
+ moistAirDisplayer.flow_model.state_in = setState_phX_Unique50(
+ moistAirDisplayer.flow_model.P_in, moistAirDisplayer.flow_model.h_in,
+ moistAirDisplayer.flow_model.Xi);
+ moistAirDisplayer.flow_model.state_out = setState_phX_Unique50(
+ moistAirDisplayer.flow_model.P_out, moistAirDisplayer.flow_model.h_out,
+ moistAirDisplayer.flow_model.Xi);
+ moistAirDisplayer.flow_model.T_in = temperature_Unique68(
+ moistAirDisplayer.flow_model.state_in);
+ moistAirDisplayer.flow_model.T_out = temperature_Unique68(
+ moistAirDisplayer.flow_model.state_out);
+ moistAirDisplayer.flow_model.rho_in = density_Unique69(
+ moistAirDisplayer.flow_model.state_in);
+ moistAirDisplayer.flow_model.rho_out = density_Unique69(
+ moistAirDisplayer.flow_model.state_out);
+ moistAirDisplayer.flow_model.rho = (moistAirDisplayer.flow_model.rho_in+
+ moistAirDisplayer.flow_model.rho_out)/2;
+ moistAirDisplayer.flow_model.Qv_in = moistAirDisplayer.flow_model.Q/
+ moistAirDisplayer.flow_model.rho_in;
+ moistAirDisplayer.flow_model.Qv_out = -moistAirDisplayer.flow_model.Q/
+ moistAirDisplayer.flow_model.rho_out;
+ moistAirDisplayer.flow_model.Qv = (moistAirDisplayer.flow_model.Qv_in-
+ moistAirDisplayer.flow_model.Qv_out)/2;
+ moistAirDisplayer.flow_model.P_out-moistAirDisplayer.flow_model.P_in =
+ moistAirDisplayer.flow_model.DP;
+ moistAirDisplayer.flow_model.Q*(moistAirDisplayer.flow_model.h_out-
+ moistAirDisplayer.flow_model.h_in) = moistAirDisplayer.flow_model.W;
+ moistAirDisplayer.flow_model.h_out-moistAirDisplayer.flow_model.h_in =
+ moistAirDisplayer.flow_model.DH;
+ moistAirDisplayer.flow_model.T_out-moistAirDisplayer.flow_model.T_in =
+ moistAirDisplayer.flow_model.DT;
+ moistAirDisplayer.flow_model.C_in.Q+moistAirDisplayer.flow_model.C_out.Q
+ = 0;
+ moistAirDisplayer.flow_model.C_out.Xi_outflow = inStream(moistAirDisplayer.flow_model.C_in.Xi_outflow);
+ assert(moistAirDisplayer.flow_model.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPHFlowModel
+ equation
+ moistAirDisplayer.flow_model.P = moistAirDisplayer.flow_model.P_in;
+ moistAirDisplayer.flow_model.h = moistAirDisplayer.flow_model.h_in;
+ moistAirDisplayer.flow_model.T = moistAirDisplayer.flow_model.T_in;
+ moistAirDisplayer.flow_model.DP = 0;
+ moistAirDisplayer.flow_model.DH = 0;
+ // end of extends
+
+ // Component moistAirDisplayer
+ // class MetroscopeModelingLibrary.Sensors.Displayer.MoistAirDisplayer
+ equation
+ moistAirDisplayer.flow_model.C_in.P = moistAirDisplayer.C_in.P;
+ moistAirDisplayer.C_in.Q-moistAirDisplayer.flow_model.C_in.Q = 0.0;
+ moistAirDisplayer.flow_model.C_out.P = moistAirDisplayer.C_out.P;
+ moistAirDisplayer.C_out.Q-moistAirDisplayer.flow_model.C_out.Q = 0.0;
+
+ // Component flueGasesDisplayer.flow_model
+ // class MetroscopeModelingLibrary.FlueGases.BaseClasses.IsoPHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ flueGasesDisplayer.flow_model.h_in = inStream(flueGasesDisplayer.flow_model.C_in.h_outflow);
+ flueGasesDisplayer.flow_model.h_out = flueGasesDisplayer.flow_model.C_out.h_outflow;
+ flueGasesDisplayer.flow_model.Q = flueGasesDisplayer.flow_model.C_in.Q;
+ flueGasesDisplayer.flow_model.P_in = flueGasesDisplayer.flow_model.C_in.P;
+ flueGasesDisplayer.flow_model.P_out = flueGasesDisplayer.flow_model.C_out.P;
+ flueGasesDisplayer.flow_model.Xi = inStream(flueGasesDisplayer.flow_model.C_in.Xi_outflow);
+ flueGasesDisplayer.flow_model.C_in.h_outflow = 1000000.0;
+ flueGasesDisplayer.flow_model.C_in.Xi_outflow = zeros(5);
+ flueGasesDisplayer.flow_model.state_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (flueGasesDisplayer.flow_model.P_in, flueGasesDisplayer.flow_model.h_in,
+ flueGasesDisplayer.flow_model.Xi);
+ flueGasesDisplayer.flow_model.state_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (flueGasesDisplayer.flow_model.P_out, flueGasesDisplayer.flow_model.h_out,
+ flueGasesDisplayer.flow_model.Xi);
+ flueGasesDisplayer.flow_model.T_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ flueGasesDisplayer.flow_model.state_in);
+ flueGasesDisplayer.flow_model.T_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ flueGasesDisplayer.flow_model.state_out);
+ flueGasesDisplayer.flow_model.rho_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ flueGasesDisplayer.flow_model.state_in);
+ flueGasesDisplayer.flow_model.rho_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ flueGasesDisplayer.flow_model.state_out);
+ flueGasesDisplayer.flow_model.rho = (flueGasesDisplayer.flow_model.rho_in+
+ flueGasesDisplayer.flow_model.rho_out)/2;
+ flueGasesDisplayer.flow_model.Qv_in = flueGasesDisplayer.flow_model.Q/
+ flueGasesDisplayer.flow_model.rho_in;
+ flueGasesDisplayer.flow_model.Qv_out = -flueGasesDisplayer.flow_model.Q/
+ flueGasesDisplayer.flow_model.rho_out;
+ flueGasesDisplayer.flow_model.Qv = (flueGasesDisplayer.flow_model.Qv_in-
+ flueGasesDisplayer.flow_model.Qv_out)/2;
+ flueGasesDisplayer.flow_model.P_out-flueGasesDisplayer.flow_model.P_in =
+ flueGasesDisplayer.flow_model.DP;
+ flueGasesDisplayer.flow_model.Q*(flueGasesDisplayer.flow_model.h_out-
+ flueGasesDisplayer.flow_model.h_in) = flueGasesDisplayer.flow_model.W;
+ flueGasesDisplayer.flow_model.h_out-flueGasesDisplayer.flow_model.h_in =
+ flueGasesDisplayer.flow_model.DH;
+ flueGasesDisplayer.flow_model.T_out-flueGasesDisplayer.flow_model.T_in =
+ flueGasesDisplayer.flow_model.DT;
+ flueGasesDisplayer.flow_model.C_in.Q+flueGasesDisplayer.flow_model.C_out.Q
+ = 0;
+ flueGasesDisplayer.flow_model.C_out.Xi_outflow = inStream(flueGasesDisplayer.flow_model.C_in.Xi_outflow);
+ assert(flueGasesDisplayer.flow_model.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPHFlowModel
+ equation
+ flueGasesDisplayer.flow_model.P = flueGasesDisplayer.flow_model.P_in;
+ flueGasesDisplayer.flow_model.h = flueGasesDisplayer.flow_model.h_in;
+ flueGasesDisplayer.flow_model.T = flueGasesDisplayer.flow_model.T_in;
+ flueGasesDisplayer.flow_model.DP = 0;
+ flueGasesDisplayer.flow_model.DH = 0;
+ // end of extends
+
+ // Component flueGasesDisplayer
+ // class MetroscopeModelingLibrary.Sensors.Displayer.FlueGasesDisplayer
+ equation
+ flueGasesDisplayer.flow_model.C_in.P = flueGasesDisplayer.C_in.P;
+ flueGasesDisplayer.C_in.Q-flueGasesDisplayer.flow_model.C_in.Q = 0.0;
+ flueGasesDisplayer.flow_model.C_out.P = flueGasesDisplayer.C_out.P;
+ flueGasesDisplayer.C_out.Q-flueGasesDisplayer.flow_model.C_out.Q = 0.0;
+
+ // Component Relative_Humidity_sensor.flow_model
+ // class MetroscopeModelingLibrary.MoistAir.BaseClasses.IsoPHFlowModel
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ Relative_Humidity_sensor.flow_model.h_in = inStream(Relative_Humidity_sensor.flow_model.C_in.h_outflow);
+ Relative_Humidity_sensor.flow_model.h_out = Relative_Humidity_sensor.flow_model.C_out.h_outflow;
+ Relative_Humidity_sensor.flow_model.Q = Relative_Humidity_sensor.flow_model.C_in.Q;
+ Relative_Humidity_sensor.flow_model.P_in = Relative_Humidity_sensor.flow_model.C_in.P;
+ Relative_Humidity_sensor.flow_model.P_out = Relative_Humidity_sensor.flow_model.C_out.P;
+ Relative_Humidity_sensor.flow_model.Xi = inStream(Relative_Humidity_sensor.flow_model.C_in.Xi_outflow);
+ Relative_Humidity_sensor.flow_model.C_in.h_outflow = 1000000.0;
+ Relative_Humidity_sensor.flow_model.C_in.Xi_outflow = zeros(1);
+ Relative_Humidity_sensor.flow_model.state_in = setState_phX_Unique50(
+ Relative_Humidity_sensor.flow_model.P_in, Relative_Humidity_sensor.flow_model.h_in,
+ Relative_Humidity_sensor.flow_model.Xi);
+ Relative_Humidity_sensor.flow_model.state_out = setState_phX_Unique50(
+ Relative_Humidity_sensor.flow_model.P_out, Relative_Humidity_sensor.flow_model.h_out,
+ Relative_Humidity_sensor.flow_model.Xi);
+ Relative_Humidity_sensor.flow_model.T_in = temperature_Unique68(
+ Relative_Humidity_sensor.flow_model.state_in);
+ Relative_Humidity_sensor.flow_model.T_out = temperature_Unique68(
+ Relative_Humidity_sensor.flow_model.state_out);
+ Relative_Humidity_sensor.flow_model.rho_in = density_Unique69(
+ Relative_Humidity_sensor.flow_model.state_in);
+ Relative_Humidity_sensor.flow_model.rho_out = density_Unique69(
+ Relative_Humidity_sensor.flow_model.state_out);
+ Relative_Humidity_sensor.flow_model.rho = (Relative_Humidity_sensor.flow_model.rho_in
+ +Relative_Humidity_sensor.flow_model.rho_out)/2;
+ Relative_Humidity_sensor.flow_model.Qv_in = Relative_Humidity_sensor.flow_model.Q
+ /Relative_Humidity_sensor.flow_model.rho_in;
+ Relative_Humidity_sensor.flow_model.Qv_out = -Relative_Humidity_sensor.flow_model.Q
+ /Relative_Humidity_sensor.flow_model.rho_out;
+ Relative_Humidity_sensor.flow_model.Qv = (Relative_Humidity_sensor.flow_model.Qv_in
+ -Relative_Humidity_sensor.flow_model.Qv_out)/2;
+ Relative_Humidity_sensor.flow_model.P_out-Relative_Humidity_sensor.flow_model.P_in
+ = Relative_Humidity_sensor.flow_model.DP;
+ Relative_Humidity_sensor.flow_model.Q*(Relative_Humidity_sensor.flow_model.h_out
+ -Relative_Humidity_sensor.flow_model.h_in) = Relative_Humidity_sensor.flow_model.W;
+ Relative_Humidity_sensor.flow_model.h_out-Relative_Humidity_sensor.flow_model.h_in
+ = Relative_Humidity_sensor.flow_model.DH;
+ Relative_Humidity_sensor.flow_model.T_out-Relative_Humidity_sensor.flow_model.T_in
+ = Relative_Humidity_sensor.flow_model.DT;
+ Relative_Humidity_sensor.flow_model.C_in.Q+Relative_Humidity_sensor.flow_model.C_out.Q
+ = 0;
+ Relative_Humidity_sensor.flow_model.C_out.Xi_outflow = inStream(
+ Relative_Humidity_sensor.flow_model.C_in.Xi_outflow);
+ assert(Relative_Humidity_sensor.flow_model.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoPHFlowModel
+ equation
+ Relative_Humidity_sensor.flow_model.P = Relative_Humidity_sensor.flow_model.P_in;
+ Relative_Humidity_sensor.flow_model.h = Relative_Humidity_sensor.flow_model.h_in;
+ Relative_Humidity_sensor.flow_model.T = Relative_Humidity_sensor.flow_model.T_in;
+ Relative_Humidity_sensor.flow_model.DP = 0;
+ Relative_Humidity_sensor.flow_model.DH = 0;
+ // end of extends
+
+ // Component Relative_Humidity_sensor
+ // class MetroscopeModelingLibrary.Sensors_Control.MoistAir.RelativeHumiditySensor
+ // extends MetroscopeModelingLibrary.Partial.Sensors_Control.BaseSensor
+ equation
+ if ( not Relative_Humidity_sensor.faulty_flow_rate) then
+ Relative_Humidity_sensor.mass_flow_rate_bias = 0;
+ end if;
+ Relative_Humidity_sensor.P = Relative_Humidity_sensor.C_in.P;
+ Relative_Humidity_sensor.Q = Relative_Humidity_sensor.C_in.Q+
+ Relative_Humidity_sensor.mass_flow_rate_bias;
+ Relative_Humidity_sensor.Xi = inStream(Relative_Humidity_sensor.C_in.Xi_outflow);
+ Relative_Humidity_sensor.h = inStream(Relative_Humidity_sensor.C_in.h_outflow);
+ Relative_Humidity_sensor.state = setState_phX_Unique50(Relative_Humidity_sensor.P,
+ Relative_Humidity_sensor.h, Relative_Humidity_sensor.Xi);
+ assert(Relative_Humidity_sensor.Q > 0, "Wrong flow sign in inline sensor. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // end of extends
+ equation
+ Relative_Humidity_sensor.flow_model.Xi[1] = massFraction_pTphi_Unique71(
+ Relative_Humidity_sensor.P, Relative_Humidity_sensor.flow_model.T_in,
+ Relative_Humidity_sensor.relative_humidity);
+ Relative_Humidity_sensor.relative_humidity_pc = Relative_Humidity_sensor.relative_humidity
+ *100;
+ if (Relative_Humidity_sensor.signal_unit == "") then
+ Relative_Humidity_sensor.H_sensor = Relative_Humidity_sensor.relative_humidity;
+ elseif (Relative_Humidity_sensor.signal_unit == "%") then
+ Relative_Humidity_sensor.H_sensor = Relative_Humidity_sensor.relative_humidity_pc;
+ end if;
+ Relative_Humidity_sensor.flow_model.C_in.P = Relative_Humidity_sensor.C_in.P;
+ Relative_Humidity_sensor.C_in.Q-Relative_Humidity_sensor.flow_model.C_in.Q
+ = 0.0;
+ Relative_Humidity_sensor.flow_model.C_out.P = Relative_Humidity_sensor.C_out.P;
+ Relative_Humidity_sensor.C_out.Q-Relative_Humidity_sensor.flow_model.C_out.Q
+ = 0.0;
+
+ // Component HRSG_friction
+ // class MetroscopeModelingLibrary.FlueGases.Pipes.FrictionPipe
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.FlowModel
+ equation
+ HRSG_friction.h_in = inStream(HRSG_friction.C_in.h_outflow);
+ HRSG_friction.h_out = HRSG_friction.C_out.h_outflow;
+ HRSG_friction.Q = HRSG_friction.C_in.Q;
+ HRSG_friction.P_in = HRSG_friction.C_in.P;
+ HRSG_friction.P_out = HRSG_friction.C_out.P;
+ HRSG_friction.Xi = inStream(HRSG_friction.C_in.Xi_outflow);
+ HRSG_friction.C_in.h_outflow = 1000000.0;
+ HRSG_friction.C_in.Xi_outflow = zeros(5);
+ HRSG_friction.state_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (HRSG_friction.P_in, HRSG_friction.h_in, HRSG_friction.Xi);
+ HRSG_friction.state_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.setState_phX_Unique1
+ (HRSG_friction.P_out, HRSG_friction.h_out, HRSG_friction.Xi);
+ HRSG_friction.T_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ HRSG_friction.state_in);
+ HRSG_friction.T_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.temperature_Unique6
+ (
+ HRSG_friction.state_out);
+ HRSG_friction.rho_in = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ HRSG_friction.state_in);
+ HRSG_friction.rho_out = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.density_Unique7
+ (
+ HRSG_friction.state_out);
+ HRSG_friction.rho = (HRSG_friction.rho_in+HRSG_friction.rho_out)/2;
+ HRSG_friction.Qv_in = HRSG_friction.Q/HRSG_friction.rho_in;
+ HRSG_friction.Qv_out = -HRSG_friction.Q/HRSG_friction.rho_out;
+ HRSG_friction.Qv = (HRSG_friction.Qv_in-HRSG_friction.Qv_out)/2;
+ HRSG_friction.P_out-HRSG_friction.P_in = HRSG_friction.DP;
+ HRSG_friction.Q*(HRSG_friction.h_out-HRSG_friction.h_in) = HRSG_friction.W;
+ HRSG_friction.h_out-HRSG_friction.h_in = HRSG_friction.DH;
+ HRSG_friction.T_out-HRSG_friction.T_in = HRSG_friction.DT;
+ HRSG_friction.C_in.Q+HRSG_friction.C_out.Q = 0;
+ HRSG_friction.C_out.Xi_outflow = inStream(HRSG_friction.C_in.Xi_outflow);
+ assert(HRSG_friction.Q > 0, "Wrong flow sign. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve",
+ AssertionLevel.warning);
+ // extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoHFlowModel
+ equation
+ HRSG_friction.h = HRSG_friction.h_in;
+ HRSG_friction.DH = 0;
+ // extends MetroscopeModelingLibrary.Partial.Pipes.FrictionPipe
+ equation
+ if ( not HRSG_friction.faulty) then
+ HRSG_friction.fouling = 0;
+ end if;
+ HRSG_friction.DP = -(1+HRSG_friction.fouling/100)*HRSG_friction.Kfr*
+ HRSG_friction.Q*abs(HRSG_friction.Q)/HRSG_friction.rho_in;
+ // end of extends
+
+ // This model
+ // class MetroscopeModelingLibrary.Examples.CCGT.MetroscopiaCCGT.MetroscopiaCCGT_reverse
+ equation
+ source_fuel.Xi_out = {0.9, 0.05, 0, 0, 0.025, 0.025};
+ combustionChamber.Kfr = 0.001;
+ combustionChamber.eta = 0.9999;
+ evaporator.x_steam_out = 1;
+ condenser.water_height = 1;
+ condenser.C_incond = 0;
+ condenser.P_offset = 0;
+ condenser.Kfr_cold = 0;
+ Q_source_air_sensor.C_out.P = AirFilter.C_in.P;
+ AirFilter.C_in.Q+Q_source_air_sensor.C_out.Q = 0.0;
+ P_filter_out_sensor.C_in.P = AirFilter.C_out.P;
+ AirFilter.C_out.Q+P_filter_out_sensor.C_in.Q = 0.0;
+ Filter_Kfr = AirFilter.Kfr;
+ P_w_eco_out_sensor.C_out.P = Evap_controlValve.C_in.P;
+ Evap_controlValve.C_in.Q+P_w_eco_out_sensor.C_out.Q = 0.0;
+ T_w_eco_out_sensor.C_in.P = Evap_controlValve.C_out.P;
+ Evap_controlValve.C_out.Q+T_w_eco_out_sensor.C_in.Q = 0.0;
+ Evap_controlValve_Cv_max = Evap_controlValve.Cv_max;
+ Evap_opening_sensor.Opening = Evap_controlValve.Opening;
+ Evap_opening_sensor.opening_sensor = Evap_opening;
+ GT_generator.C_in.W+airCompressor.C_W_in.W+gasTurbine.C_W_shaft.W = 0.0;
+ GT_generator.C_out.W+W_GT_sensor.C_in.W = 0.0;
+ displayer.C_out.P = HPST_control_valve.C_in.P;
+ HPST_control_valve.C_in.Q+displayer.C_out.Q = 0.0;
+ P_HPST_in_sensor.C_in.P = HPST_control_valve.C_out.P;
+ HPST_control_valve.C_out.Q+P_HPST_in_sensor.C_in.Q = 0.0;
+ HPST_control_valve_Cv = HPST_control_valve.Cv;
+ HPsteamTurbine.C_W_out.W+LPsteamTurbine.C_W_out.W+ST_generator.C_in.W = 0.0;
+ P_HPST_in_sensor.C_out.P = HPsteamTurbine.C_in.P;
+ HPsteamTurbine.C_in.Q+P_HPST_in_sensor.C_out.Q = 0.0;
+ P_HPST_out_sensor.C_in.P = HPsteamTurbine.C_out.P;
+ HPsteamTurbine.C_out.Q+P_HPST_out_sensor.C_in.Q = 0.0;
+ HPsteamTurbine_Cst = HPsteamTurbine.Cst;
+ HPsteamTurbine_eta_is = HPsteamTurbine.eta_is;
+ P_w_evap_out_sensor.C_out.P = HPsuperheater1.C_cold_in.P;
+ HPsuperheater1.C_cold_in.Q+P_w_evap_out_sensor.C_out.Q = 0.0;
+ T_w_HPSH1_out_sensor.C_in.P = HPsuperheater1.C_cold_out.P;
+ HPsuperheater1.C_cold_out.Q+T_w_HPSH1_out_sensor.C_in.Q = 0.0;
+ HPsuperheater2.C_hot_out.P = HPsuperheater1.C_hot_in.P;
+ HPsuperheater1.C_hot_in.Q+HPsuperheater2.C_hot_out.Q = 0.0;
+ Reheater.C_hot_in.P = HPsuperheater1.C_hot_out.P;
+ HPsuperheater1.C_hot_out.Q+Reheater.C_hot_in.Q = 0.0;
+ HPsuperheater1_Kfr_cold = HPsuperheater1.Kfr_cold;
+ HPsuperheater1_Kth = HPsuperheater1.Kth;
+ P_w_HPSH1_out_sensor.C_out.P = HPsuperheater2.C_cold_in.P;
+ deSH_controlValve.C_out.P = HPsuperheater2.C_cold_in.P;
+ HPsuperheater2.C_cold_in.Q+P_w_HPSH1_out_sensor.C_out.Q+deSH_controlValve.C_out.Q
+ = 0.0;
+ T_w_HPSH2_out_sensor.C_in.P = HPsuperheater2.C_cold_out.P;
+ HPsuperheater2.C_cold_out.Q+T_w_HPSH2_out_sensor.C_in.Q = 0.0;
+ turbine_P_out_sensor.C_out.P = HPsuperheater2.C_hot_in.P;
+ HPsuperheater2.C_hot_in.Q+turbine_P_out_sensor.C_out.Q = 0.0;
+ HPsuperheater2_Kfr_cold = HPsuperheater2.Kfr_cold;
+ HPsuperheater2_Kth = HPsuperheater2.Kth;
+ evaporator.C_hot_out.P = HRSG_friction.C_in.P;
+ HRSG_friction.C_in.Q+evaporator.C_hot_out.Q = 0.0;
+ economiser.C_hot_in.P = HRSG_friction.C_out.P;
+ HRSG_friction.C_out.Q+economiser.C_hot_in.Q = 0.0;
+ HRSG_friction_Kfr = HRSG_friction.Kfr;
+ P_w_ReH_out_sensor.C_out.P = LPST_control_valve.C_in.P;
+ LPST_control_valve.C_in.Q+P_w_ReH_out_sensor.C_out.Q = 0.0;
+ P_LPST_in_sensor.C_in.P = LPST_control_valve.C_out.P;
+ LPST_control_valve.C_out.Q+P_LPST_in_sensor.C_in.Q = 0.0;
+ LPST_control_valve_Cv = LPST_control_valve.Cv;
+ P_LPST_in_sensor.C_out.P = LPsteamTurbine.C_in.P;
+ LPsteamTurbine.C_in.Q+P_LPST_in_sensor.C_out.Q = 0.0;
+ P_Cond_sensor.C_in.P = LPsteamTurbine.C_out.P;
+ LPsteamTurbine.C_out.Q+P_Cond_sensor.C_in.Q = 0.0;
+ LPsteamTurbine_Cst = LPsteamTurbine.Cst;
+ LPsteamTurbine_eta_is = LPsteamTurbine.eta_is;
+ P_Cond_sensor.P_sensor = P_Cond;
+ condenser.C_hot_in.P = P_Cond_sensor.C_out.P;
+ P_Cond_sensor.C_out.Q+condenser.C_hot_in.Q = 0.0;
+ P_HPST_in_sensor.P_sensor = P_HPST_in;
+ P_HPST_out_sensor.P_sensor = P_HPST_out;
+ T_HPST_out_sensor.C_in.P = P_HPST_out_sensor.C_out.P;
+ P_HPST_out_sensor.C_out.Q+T_HPST_out_sensor.C_in.Q = 0.0;
+ P_LPST_in_sensor.P_sensor = P_LPST_in;
+ P_circulating_water_in_sensor.P_sensor = P_circulating_water_in;
+ T_circulating_water_in_sensor.C_out.P = P_circulating_water_in_sensor.C_in.P;
+ P_circulating_water_in_sensor.C_in.Q+T_circulating_water_in_sensor.C_out.Q
+ = 0.0;
+ condenser.C_cold_in.P = P_circulating_water_in_sensor.C_out.P;
+ P_circulating_water_in_sensor.C_out.Q+condenser.C_cold_in.Q = 0.0;
+ P_filter_out_sensor.P_sensor = P_filter_out;
+ airCompressor.C_in.P = P_filter_out_sensor.C_out.P;
+ P_filter_out_sensor.C_out.Q+airCompressor.C_in.Q = 0.0;
+ P_flue_gas_sink_sensor.P_sensor = P_flue_gas_sink;
+ T_flue_gas_sink_sensor.C_out.P = P_flue_gas_sink_sensor.C_in.P;
+ P_flue_gas_sink_sensor.C_in.Q+T_flue_gas_sink_sensor.C_out.Q = 0.0;
+ flue_gas_sink.C_in.P = P_flue_gas_sink_sensor.C_out.P;
+ P_flue_gas_sink_sensor.C_out.Q+flue_gas_sink.C_in.Q = 0.0;
+ P_fuel_source_sensor.P_sensor = P_fuel_source;
+ T_fuel_source_sensor.C_out.P = P_fuel_source_sensor.C_in.P;
+ P_fuel_source_sensor.C_in.Q+T_fuel_source_sensor.C_out.Q = 0.0;
+ Q_fuel_source_sensor.C_in.P = P_fuel_source_sensor.C_out.P;
+ P_fuel_source_sensor.C_out.Q+Q_fuel_source_sensor.C_in.Q = 0.0;
+ P_pumpRec_out_sensor.P_sensor = P_pumpRec_out;
+ T_pumpRec_out_sensor.C_out.P = P_pumpRec_out_sensor.C_in.P;
+ P_pumpRec_out_sensor.C_in.Q+T_pumpRec_out_sensor.C_out.Q = 0.0;
+ Q_pumpRec_out_sensor.C_in.P = P_pumpRec_out_sensor.C_out.P;
+ P_pumpRec_out_sensor.C_out.Q+Q_pumpRec_out_sensor.C_in.Q = 0.0;
+ P_pump_out_sensor.P_sensor = P_pump_out;
+ T_pump_out_sensor.C_out.P = P_pump_out_sensor.C_in.P;
+ P_pump_out_sensor.C_in.Q+T_pump_out_sensor.C_out.Q = 0.0;
+ Q_pump_out_sensor.C_in.P = P_pump_out_sensor.C_out.P;
+ P_pump_out_sensor.C_out.Q+Q_pump_out_sensor.C_in.Q = 0.0;
+ P_source_air_sensor.P_sensor = P_source_air;
+ flueGasesDisplayer.C_out.P = P_source_air_sensor.C_in.P;
+ P_source_air_sensor.C_in.Q+flueGasesDisplayer.C_out.Q = 0.0;
+ T_source_air_sensor.C_in.P = P_source_air_sensor.C_out.P;
+ P_source_air_sensor.C_out.Q+T_source_air_sensor.C_in.Q = 0.0;
+ P_w_HPSH1_out_sensor.P_sensor = P_w_HPSH1_out;
+ P_w_ReH_out_sensor.P_sensor = P_w_HPSH1_out1;
+ T_w_HPSH1_out_sensor.C_out.P = P_w_HPSH1_out_sensor.C_in.P;
+ P_w_HPSH1_out_sensor.C_in.Q+T_w_HPSH1_out_sensor.C_out.Q = 0.0;
+ P_w_HPSH2_out_sensor.P_sensor = P_w_HPSH2_out;
+ T_w_HPSH2_out_sensor.C_out.P = P_w_HPSH2_out_sensor.C_in.P;
+ P_w_HPSH2_out_sensor.C_in.Q+T_w_HPSH2_out_sensor.C_out.Q = 0.0;
+ displayer.C_in.P = P_w_HPSH2_out_sensor.C_out.P;
+ P_w_HPSH2_out_sensor.C_out.Q+displayer.C_in.Q = 0.0;
+ T_w_ReH_out_sensor.C_out.P = P_w_ReH_out_sensor.C_in.P;
+ P_w_ReH_out_sensor.C_in.Q+T_w_ReH_out_sensor.C_out.Q = 0.0;
+ P_w_eco_out_sensor.P_sensor = P_w_eco_out;
+ economiser.C_cold_out.P = P_w_eco_out_sensor.C_in.P;
+ pumpRec.C_in.P = P_w_eco_out_sensor.C_in.P;
+ P_w_eco_out_sensor.C_in.Q+economiser.C_cold_out.Q+pumpRec.C_in.Q = 0.0;
+ P_w_evap_out_sensor.P_sensor = P_w_evap_out;
+ evaporator.C_cold_out.P = P_w_evap_out_sensor.C_in.P;
+ P_w_evap_out_sensor.C_in.Q+evaporator.C_cold_out.Q = 0.0;
+ Q_deSH_sensor.Q_sensor = Q_deSH;
+ Q_pump_out_sensor.C_out.P = Q_deSH_sensor.C_in.P;
+ loopBreaker.C_in.P = Q_deSH_sensor.C_in.P;
+ pumpRec_controlValve.C_out.P = Q_deSH_sensor.C_in.P;
+ Q_deSH_sensor.C_in.Q+Q_pump_out_sensor.C_out.Q+loopBreaker.C_in.Q+
+ pumpRec_controlValve.C_out.Q = 0.0;
+ deSH_controlValve.C_in.P = Q_deSH_sensor.C_out.P;
+ Q_deSH_sensor.C_out.Q+deSH_controlValve.C_in.Q = 0.0;
+ Q_fuel_source_sensor.Q_sensor = Q_fuel_source;
+ combustionChamber.inlet1.P = Q_fuel_source_sensor.C_out.P;
+ Q_fuel_source_sensor.C_out.Q+combustionChamber.inlet1.Q = 0.0;
+ Q_pumpRec_out_sensor.Q_sensor = Q_pumpRec_out;
+ pumpRec_controlValve.C_in.P = Q_pumpRec_out_sensor.C_out.P;
+ Q_pumpRec_out_sensor.C_out.Q+pumpRec_controlValve.C_in.Q = 0.0;
+ Q_pump_out_sensor.Q_sensor = Q_pump_out;
+ Q_source_air_sensor.Q_sensor = Q_source_air;
+ T_source_air_sensor.C_out.P = Q_source_air_sensor.C_in.P;
+ Q_source_air_sensor.C_in.Q+T_source_air_sensor.C_out.Q = 0.0;
+ T_HPST_out_sensor.C_out.P = Reheater.C_cold_in.P;
+ Reheater.C_cold_in.Q+T_HPST_out_sensor.C_out.Q = 0.0;
+ T_w_ReH_out_sensor.C_in.P = Reheater.C_cold_out.P;
+ Reheater.C_cold_out.Q+T_w_ReH_out_sensor.C_in.Q = 0.0;
+ evaporator.C_hot_in.P = Reheater.C_hot_out.P;
+ Reheater.C_hot_out.Q+evaporator.C_hot_in.Q = 0.0;
+ Reheater_Kfr_cold = Reheater.Kfr_cold;
+ Reheater_Kth = Reheater.Kth;
+ Relative_Humidity_sensor.H_sensor = Relative_Humidity;
+ source_air.C_out.P = Relative_Humidity_sensor.C_in.P;
+ Relative_Humidity_sensor.C_in.Q+source_air.C_out.Q = 0.0;
+ moistAirDisplayer.C_in.P = Relative_Humidity_sensor.C_out.P;
+ Relative_Humidity_sensor.C_out.Q+moistAirDisplayer.C_in.Q = 0.0;
+ ST_generator.C_out.W+W_ST_out_sensor.C_in.W = 0.0;
+ T_HPST_out_sensor.T_sensor = T_HPST_out;
+ T_circulating_water_in_sensor.T_sensor = T_circulating_water_in;
+ circulating_water_source.C_out.P = T_circulating_water_in_sensor.C_in.P;
+ T_circulating_water_in_sensor.C_in.Q+circulating_water_source.C_out.Q = 0.0;
+ T_circulating_water_out_sensor.T_sensor = T_circulating_water_out;
+ condenser.C_cold_out.P = T_circulating_water_out_sensor.C_in.P;
+ T_circulating_water_out_sensor.C_in.Q+condenser.C_cold_out.Q = 0.0;
+ circulating_water_sink.C_in.P = T_circulating_water_out_sensor.C_out.P;
+ T_circulating_water_out_sensor.C_out.Q+circulating_water_sink.C_in.Q = 0.0;
+ T_flue_gas_sink_sensor.T_sensor = T_flue_gas_sink;
+ economiser.C_hot_out.P = T_flue_gas_sink_sensor.C_in.P;
+ T_flue_gas_sink_sensor.C_in.Q+economiser.C_hot_out.Q = 0.0;
+ T_fuel_source_sensor.T_sensor = T_fuel_source;
+ fuelDisplayer.C_out.P = T_fuel_source_sensor.C_in.P;
+ T_fuel_source_sensor.C_in.Q+fuelDisplayer.C_out.Q = 0.0;
+ T_pumpRec_out_sensor.T_sensor = T_pumpRec_out;
+ pumpRec.C_out.P = T_pumpRec_out_sensor.C_in.P;
+ T_pumpRec_out_sensor.C_in.Q+pumpRec.C_out.Q = 0.0;
+ T_pump_out_sensor.T_sensor = T_pump_out;
+ pump.C_out.P = T_pump_out_sensor.C_in.P;
+ T_pump_out_sensor.C_in.Q+pump.C_out.Q = 0.0;
+ T_source_air_sensor.T_sensor = T_source_air;
+ T_w_HPSH1_out_sensor.T_sensor = T_w_HPSH1_out;
+ T_w_ReH_out_sensor.T_sensor = T_w_HPSH1_out1;
+ T_w_HPSH2_out_sensor.T_sensor = T_w_HPSH2_out;
+ T_w_eco_in_sensor.T_sensor = T_w_eco_in;
+ loopBreaker.C_out.P = T_w_eco_in_sensor.C_in.P;
+ T_w_eco_in_sensor.C_in.Q+loopBreaker.C_out.Q = 0.0;
+ economiser.C_cold_in.P = T_w_eco_in_sensor.C_out.P;
+ T_w_eco_in_sensor.C_out.Q+economiser.C_cold_in.Q = 0.0;
+ T_w_eco_out_sensor.T_sensor = T_w_eco_out;
+ evaporator.C_cold_in.P = T_w_eco_out_sensor.C_out.P;
+ T_w_eco_out_sensor.C_out.Q+evaporator.C_cold_in.Q = 0.0;
+ W_GT_sensor.W_sensor = W_GT;
+ W_GT_sensor.C_out.W+sink_power.C_in.W = 0.0;
+ W_ST_out_sensor.W_sensor = W_ST_out;
+ W_ST_out_sensor.C_out.W+sink.C_in.W = 0.0;
+ compressor_P_out_sensor.C_in.P = airCompressor.C_out.P;
+ airCompressor.C_out.Q+compressor_P_out_sensor.C_in.Q = 0.0;
+ compressor_eta_is = airCompressor.eta_is;
+ compression_rate = airCompressor.tau;
+ compressor_T_out_sensor.C_out.P = combustionChamber.inlet.P;
+ combustionChamber.inlet.Q+compressor_T_out_sensor.C_out.Q = 0.0;
+ gasTurbine.C_in.P = combustionChamber.outlet.P;
+ combustionChamber.outlet.Q+gasTurbine.C_in.Q = 0.0;
+ compressor_P_out_sensor.P_sensor = compressor_P_out;
+ compressor_T_out_sensor.C_in.P = compressor_P_out_sensor.C_out.P;
+ compressor_P_out_sensor.C_out.Q+compressor_T_out_sensor.C_in.Q = 0.0;
+ compressor_T_out_sensor.T_sensor = compressor_T_out;
+ pump.C_in.P = condenser.C_hot_out.P;
+ condenser.C_hot_out.Q+pump.C_in.Q = 0.0;
+ condenser_Kth = condenser.Kth;
+ condenser_Qv_cold_in = condenser.Qv_cold_in;
+ deSH_controlValve_Cv_max = deSH_controlValve.Cv_max;
+ deSH_opening_sensor.Opening = deSH_controlValve.Opening;
+ deSH_opening_sensor.opening_sensor = deSH_opening;
+ economizer_Kfr_cold = economiser.Kfr_cold;
+ economizer_Kth = economiser.Kth;
+ moistAir_to_FlueGases.outlet.P = flueGasesDisplayer.C_in.P;
+ flueGasesDisplayer.C_in.Q+moistAir_to_FlueGases.outlet.Q = 0.0;
+ source_fuel.C_out.P = fuelDisplayer.C_in.P;
+ fuelDisplayer.C_in.Q+source_fuel.C_out.Q = 0.0;
+ turbine_T_out_sensor.C_in.P = gasTurbine.C_out.P;
+ gasTurbine.C_out.Q+turbine_T_out_sensor.C_in.Q = 0.0;
+ turbine_eta_is = gasTurbine.eta_is;
+ moistAir_to_FlueGases.inlet.P = moistAirDisplayer.C_out.P;
+ moistAirDisplayer.C_out.Q+moistAir_to_FlueGases.inlet.Q = 0.0;
+ pump_hn = pump.hn;
+ pump_rh = pump.rh;
+ pumpRec_hn = pumpRec.hn;
+ pumpRec_rh = pumpRec.rh;
+ pumpRec_controlValve_Cv_max = pumpRec_controlValve.Cv_max;
+ pumpRec_opening_sensor.Opening = pumpRec_controlValve.Opening;
+ pumpRec_opening_sensor.opening_sensor = pumpRec_opening;
+ turbine_P_out_sensor.P_sensor = turbine_P_out;
+ turbine_T_out_sensor.C_out.P = turbine_P_out_sensor.C_in.P;
+ turbine_P_out_sensor.C_in.Q+turbine_T_out_sensor.C_out.Q = 0.0;
+ turbine_T_out_sensor.T_sensor = turbine_T_out;
+
+end MetroscopiaCCGT_reverse;
diff --git a/MetroscopeModelingLibrary/MoistAir/Pipes/Pipe.mo b/MetroscopeModelingLibrary/MoistAir/Pipes/Pipe.mo
index d608f8be..e9bbdd38 100644
--- a/MetroscopeModelingLibrary/MoistAir/Pipes/Pipe.mo
+++ b/MetroscopeModelingLibrary/MoistAir/Pipes/Pipe.mo
@@ -2,7 +2,8 @@ within MetroscopeModelingLibrary.MoistAir.Pipes;
model Pipe
extends MetroscopeModelingLibrary.Utilities.Icons.KeepingScaleIcon;
package MoistAirMedium = MetroscopeModelingLibrary.Utilities.Media.MoistAirMedium;
- extends Partial.Pipes.Pipe(
+ extends Partial.Pipes.FrictionPipe
+ (
redeclare MetroscopeModelingLibrary.MoistAir.Connectors.Inlet C_in,
redeclare MetroscopeModelingLibrary.MoistAir.Connectors.Outlet C_out,
redeclare package Medium = MoistAirMedium) annotation(IconMap(primitivesVisible=false));
diff --git a/MetroscopeModelingLibrary/MultiFluid/HeatExchangers/AirCooledCondenser.mo b/MetroscopeModelingLibrary/MultiFluid/HeatExchangers/AirCooledCondenser.mo
index 128c3e0b..761cd571 100644
--- a/MetroscopeModelingLibrary/MultiFluid/HeatExchangers/AirCooledCondenser.mo
+++ b/MetroscopeModelingLibrary/MultiFluid/HeatExchangers/AirCooledCondenser.mo
@@ -6,9 +6,7 @@ model AirCooledCondenser
import MetroscopeModelingLibrary.Utilities.Units;
import MetroscopeModelingLibrary.Utilities.Units.Inputs;
- Inputs.InputArea S;
- Units.HeatExchangeCoefficient Kth;
- Inputs.InputFrictionCoefficient Kfr_hot;
+ parameter Units.Area S = 10000;
Units.Power W;
@@ -25,9 +23,10 @@ model AirCooledCondenser
Units.Pressure Psat(start=Psat_0, nominal=Psat_0);
Units.Temperature Tsat(start=Tsat_0);
- Units.Pressure P_incond(start=0.001e5);
- Inputs.InputReal C_incond(unit="mol/m3", min=0) "Incondensable molar concentration";
- Inputs.InputPressure P_offset(start=0) "Offset correction for ideal gas law";
+ parameter Units.Pressure P_incond = 0;
+ Real C_incond(unit="mol/m3", min=0)
+ "Incondensable molar concentration";
+ parameter Units.Pressure P_offset = 0 "Offset correction for ideal gas law";
constant Real R(unit="J/(mol.K)") = Modelica.Constants.R "ideal gas constant";
// Failure modes
@@ -105,8 +104,7 @@ model AirCooledCondenser
rotation=270,
origin={0,-50})));
- MetroscopeModelingLibrary.WaterSteam.Pipes.Pipe hot_side_pipe annotation (
- Placement(transformation(
+ MetroscopeModelingLibrary.WaterSteam.Pipes.FrictionPipe hot_side_pipe annotation (Placement(transformation(
extent={{-10,-10},{10,10}},
rotation=270,
origin={-50,80})));
@@ -115,6 +113,20 @@ model AirCooledCondenser
extent={{-10,-10},{10,10}},
rotation=180,
origin={0,14})));
+ Utilities.Interfaces.GenericReal Kth annotation (Placement(transformation(
+ extent={{-10,-10},{10,10}},
+ rotation=90,
+ origin={-80,120}), iconTransformation(
+ extent={{-10,-10},{10,10}},
+ rotation=90,
+ origin={-80,110})));
+ Utilities.Interfaces.GenericReal Kfr_hot annotation (Placement(transformation(
+ extent={{-10,-10},{10,10}},
+ rotation=90,
+ origin={80,120}), iconTransformation(
+ extent={{-10,-10},{10,10}},
+ rotation=90,
+ origin={80,110})));
equation
// Failure modes
@@ -145,7 +157,6 @@ equation
incondensables_out.DP = + P_incond;
// Pressure losses
- hot_side_pipe.delta_z = 0;
hot_side_pipe.Kfr = Kfr_hot;
/* Condensation */
@@ -186,6 +197,7 @@ equation
connect(C_cold_in, cold_side_condensing.C_in) annotation (Line(points={{-100,0},{-13.5,0}},color={85,170,255}));
connect(cold_side_condensing.C_out, C_cold_out) annotation (Line(points={{13.5,0},{90,0}}, color={85,170,255}));
connect(hot_side_condensing.C_out, incondensables_out.C_in) annotation (Line(points={{14.5,30},{30,30},{30,-20},{0,-20},{0,-40}}, color={28,108,200}));
+ connect(Kth, Kth) annotation (Line(points={{-80,120},{-80,120}}, color={0,0,127}));
annotation (Icon(coordinateSystem(preserveAspectRatio=false, extent={{-100,-80},
{100,100}}), graphics={
Ellipse(
diff --git a/MetroscopeModelingLibrary/MultiFluid/HeatExchangers/AirCooledCondenser_with_subcooling.mo b/MetroscopeModelingLibrary/MultiFluid/HeatExchangers/AirCooledCondenser_with_subcooling.mo
index 0dd323c2..e1f1eea7 100644
--- a/MetroscopeModelingLibrary/MultiFluid/HeatExchangers/AirCooledCondenser_with_subcooling.mo
+++ b/MetroscopeModelingLibrary/MultiFluid/HeatExchangers/AirCooledCondenser_with_subcooling.mo
@@ -111,8 +111,7 @@ model AirCooledCondenser_with_subcooling
rotation=270,
origin={0,-50})));
- MetroscopeModelingLibrary.WaterSteam.Pipes.Pipe hot_side_pipe annotation (
- Placement(transformation(
+ MetroscopeModelingLibrary.WaterSteam.Pipes.FrictionPipe hot_side_pipe annotation (Placement(transformation(
extent={{-10,-10},{10,10}},
rotation=270,
origin={-50,80})));
diff --git a/MetroscopeModelingLibrary/MultiFluid/HeatExchangers/Economiser.mo b/MetroscopeModelingLibrary/MultiFluid/HeatExchangers/Economiser.mo
index 5e40edfc..2680e6fb 100644
--- a/MetroscopeModelingLibrary/MultiFluid/HeatExchangers/Economiser.mo
+++ b/MetroscopeModelingLibrary/MultiFluid/HeatExchangers/Economiser.mo
@@ -20,7 +20,7 @@ equation
lineColor={0,0,0},
fillColor={215,215,215},
fillPattern=FillPattern.Solid), Line(
- points={{40,80},{40,-80},{10,-80},{12,80},{-12,80},{-14,-80},{-40,-80},{-40,78}},
+ points={{40,80},{40,-52},{10,-52},{12,52},{-12,52},{-12,-52},{-40,-52},{-40,78}},
color={28,108,200},
smooth=Smooth.Bezier,
thickness=1)}));
diff --git a/MetroscopeModelingLibrary/MultiFluid/HeatExchangers/Evaporator.mo b/MetroscopeModelingLibrary/MultiFluid/HeatExchangers/Evaporator.mo
index 84dc09b2..d40dac31 100644
--- a/MetroscopeModelingLibrary/MultiFluid/HeatExchangers/Evaporator.mo
+++ b/MetroscopeModelingLibrary/MultiFluid/HeatExchangers/Evaporator.mo
@@ -6,19 +6,16 @@ model Evaporator
import MetroscopeModelingLibrary.Utilities.Units.Inputs;
// Pressure Losses
- Inputs.InputFrictionCoefficient Kfr_cold;
- Inputs.InputFrictionCoefficient Kfr_hot(start=0);
- Inputs.InputArea S;
+ parameter Units.Area S = 15000;
+ parameter Units.MassFraction x_steam_out = 1; // Steam mass fraction at water outlet
// Heating
Units.Power W_heating;
// Vaporisation
- Inputs.InputHeatExchangeCoefficient Kth;
parameter String HX_config="evaporator";
Units.Power W_vap;
- Units.MassFraction x_steam_out(start=1); // Steam mass fraction at water outlet
Units.SpecificEnthalpy h_vap_sat(start=h_vap_sat_0);
Units.SpecificEnthalpy h_liq_sat(start=h_liq_sat_0);
Units.Temperature Tsat(start=T_cold_out_0);
@@ -62,31 +59,26 @@ model Evaporator
parameter Units.SpecificEnthalpy h_hot_in_0 = 8.05e5;
parameter Units.SpecificEnthalpy h_hot_out_0 = 6.5e5;
- FlueGases.Pipes.Pipe hot_side_pipe(Q_0=Q_hot_0, h_0=h_hot_in_0, P_in_0=P_hot_in_0, P_out_0=P_hot_out_0) annotation (Placement(transformation(extent={{-58,-30},{-38,-10}})));
Power.HeatExchange.NTUHeatExchange HX_vaporising(config=HX_config, T_cold_in_0=T_cold_in_0) annotation (Placement(transformation(
extent={{-10,-10},{10,10}},
rotation=0,
- origin={-20,0})));
+ origin={-20,16})));
FlueGases.BaseClasses.IsoPFlowModel hot_side_vaporising(Q_0=Q_hot_0, P_0=P_hot_out_0, h_in_0=h_hot_in_0) annotation (Placement(transformation(
extent={{10,-10},{-10,10}},
rotation=180,
- origin={-20,-20})));
+ origin={-20,0})));
WaterSteam.BaseClasses.IsoPFlowModel cold_side_vaporising(Q_0=Q_cold_0, P_in_0=P_cold_out_0, h_in_0=h_liq_sat_0, h_out_0=h_vap_sat_0) annotation (Placement(transformation(
extent={{10,10},{-10,-10}},
rotation=0,
- origin={-20,20})));
- WaterSteam.Pipes.Pipe cold_side_pipe(Q_0=Q_cold_0, h_0=h_cold_in_0, P_in_0=P_cold_in_0, P_out_0=P_cold_out_0) annotation (Placement(transformation(
- extent={{10,-10},{-10,10}},
- rotation=90,
- origin={42,34})));
+ origin={-20,30})));
FlueGases.BaseClasses.IsoPFlowModel hot_side_heating(Q_0=Q_hot_0, P_0=P_hot_out_0, h_out_0=h_hot_out_0) annotation (Placement(transformation(
extent={{10,-10},{-10,10}},
rotation=180,
- origin={20,-20})));
+ origin={20,0})));
WaterSteam.BaseClasses.IsoPFlowModel cold_side_heating(Q_0=Q_cold_0, h_in_0=h_cold_in_0, P_0=P_cold_out_0, h_out_0=h_liq_sat_0) annotation (Placement(transformation(
extent={{10,10},{-10,-10}},
rotation=0,
- origin={20,20})));
+ origin={20,30})));
FlueGases.Connectors.Inlet C_hot_in(Q(start=Q_hot_0), P(start=P_hot_in_0)) annotation (Placement(transformation(
extent={{-110,-10},{-90,10}}),iconTransformation(extent={{-110,-10},{-90,10}})));
FlueGases.Connectors.Outlet C_hot_out(Q(start=-Q_hot_0), P(start=P_hot_out_0), h_outflow(start = h_hot_out_0)) annotation (Placement(transformation(
@@ -95,6 +87,13 @@ model Evaporator
extent={{30,70},{50,90}}), iconTransformation(extent={{30,70},{50,90}})));
WaterSteam.Connectors.Outlet C_cold_out(Q(start=-Q_cold_0), P(start=P_cold_out_0), h_outflow(start = h_vap_sat_0)) annotation (Placement(transformation(extent={{-50,70},{-30,90}}), iconTransformation(extent={{-50,70},{-30,90}})));
+ Utilities.Interfaces.GenericReal Kth annotation (Placement(transformation(
+ extent={{-10,-10},{10,10}},
+ rotation=270,
+ origin={0,-60}), iconTransformation(
+ extent={{-10,-10},{10,10}},
+ rotation=270,
+ origin={0,-70})));
equation
// Failure modes
if not faulty then
@@ -115,12 +114,6 @@ equation
// Indicators
T_approach = cold_side_heating.DT;
- // Pressure losses
- cold_side_pipe.delta_z=0;
- cold_side_pipe.Kfr = Kfr_cold;
- hot_side_pipe.delta_z=0;
- hot_side_pipe.Kfr = Kfr_hot;
-
/* heating*/
// Energy balance
hot_side_heating.W + cold_side_heating.W = 0;
@@ -157,15 +150,12 @@ equation
assert(pinch > 0, "A negative pinch is reached", AssertionLevel.warning); // Ensure a positive pinch
assert(pinch > 1 or pinch < 0, "A very low pinch (<1) is reached", AssertionLevel.warning); // Ensure a sufficient pinch
- connect(hot_side_pipe.C_out,hot_side_vaporising. C_in) annotation (Line(points={{-38,-20},{-30,-20}}, color={95,95,95}));
- connect(C_cold_in,cold_side_pipe. C_in) annotation (Line(points={{40,80},{40,58},{42,58},{42,44}},
- color={28,108,200}));
- connect(hot_side_pipe.C_in,C_hot_in) annotation (Line(points={{-58,-20},{-100,-20},{-100,0}},color={95,95,95}));
- connect(cold_side_vaporising.C_in,cold_side_heating. C_out) annotation (Line(points={{-10,20},{10,20}}, color={28,108,200}));
- connect(cold_side_pipe.C_out,cold_side_heating. C_in) annotation (Line(points={{42,24},{42,20},{30,20}}, color={28,108,200}));
- connect(hot_side_vaporising.C_out,hot_side_heating. C_in) annotation (Line(points={{-10,-20},{10,-20}}, color={95,95,95}));
- connect(hot_side_heating.C_out,C_hot_out) annotation (Line(points={{30,-20},{100,-20},{100,0}},color={95,95,95}));
- connect(cold_side_vaporising.C_out, C_cold_out) annotation (Line(points={{-30,20},{-30,80},{-40,80}}, color={28,108,200}));
+ connect(cold_side_vaporising.C_in,cold_side_heating. C_out) annotation (Line(points={{-10,30},{10,30}}, color={28,108,200}));
+ connect(hot_side_vaporising.C_out,hot_side_heating. C_in) annotation (Line(points={{-10,0},{10,0}}, color={95,95,95}));
+ connect(hot_side_heating.C_out,C_hot_out) annotation (Line(points={{30,0},{100,0}}, color={95,95,95}));
+ connect(cold_side_vaporising.C_out, C_cold_out) annotation (Line(points={{-30,30},{-40,30},{-40,80}}, color={28,108,200}));
+ connect(hot_side_vaporising.C_in, C_hot_in) annotation (Line(points={{-30,0},{-100,0}}, color={95,95,95}));
+ connect(cold_side_heating.C_in, C_cold_in) annotation (Line(points={{30,30},{40,30},{40,80}}, color={28,108,200}));
annotation (Icon(coordinateSystem(preserveAspectRatio=false), graphics={
Rectangle(
extent={{-100,60},{100,-60}},
diff --git a/MetroscopeModelingLibrary/MultiFluid/HeatExchangers/FuelHeater.mo b/MetroscopeModelingLibrary/MultiFluid/HeatExchangers/FuelHeater.mo
index 7ed73876..2fd2dbd6 100644
--- a/MetroscopeModelingLibrary/MultiFluid/HeatExchangers/FuelHeater.mo
+++ b/MetroscopeModelingLibrary/MultiFluid/HeatExchangers/FuelHeater.mo
@@ -6,10 +6,6 @@ model FuelHeater
import MetroscopeModelingLibrary.Utilities.Units;
import MetroscopeModelingLibrary.Utilities.Units.Inputs;
- // Pressure Losses
- Inputs.InputFrictionCoefficient Kfr_cold;
- Inputs.InputFrictionCoefficient Kfr_hot;
-
// Cp estimation temperatures: estimated temperature differences for both the hot and cold fluids
parameter Boolean nominal_DT_default = true;
Units.Temperature maximum_achiveable_temperature_difference;
@@ -19,8 +15,7 @@ model FuelHeater
// Heating
parameter String QCp_max_side = "undefined";// On fuel heater, QCp_hot may be close to QCp_cold
parameter String HX_config = "monophasic_counter_current";
- Inputs.InputArea S;
- Inputs.InputHeatExchangeCoefficient Kth;
+ parameter Units.Area S = 3000;
Units.Power W;
// Definitions
@@ -82,11 +77,37 @@ model FuelHeater
origin={10,28})));
Fuel.Pipes.Pipe cold_side_pipe(Q_0=Q_cold_0, h_0=h_cold_in_0, T_0=T_cold_in_0, P_in_0=P_cold_in_0, P_out_0=P_cold_out_0) annotation (Placement(transformation(extent={{-52,-10},{-32,10}})));
Fuel.BaseClasses.IsoPFlowModel cold_side(Q_0=Q_cold_0, h_in_0=h_cold_in_0, T_in_0=T_cold_in_0, P_0=P_cold_in_0, T_out_0=T_cold_out_0, h_out_0=h_cold_out_0) annotation (Placement(transformation(extent={{0,-10},{20,10}})));
- WaterSteam.Pipes.Pipe hot_side_pipe(Q_0=Q_hot_0, h_0=h_hot_in_0, P_in_0=P_hot_in_0, P_out_0=P_hot_out_0) annotation (Placement(transformation(
+ WaterSteam.Pipes.FrictionPipe hot_side_pipe(
+ Q_0=Q_hot_0,
+ h_0=h_hot_in_0,
+ P_in_0=P_hot_in_0,
+ P_out_0=P_hot_out_0) annotation (Placement(transformation(
extent={{10,-10},{-10,10}},
rotation=90,
origin={40,44})));
+ Utilities.Interfaces.GenericReal Kth annotation (Placement(transformation(
+ extent={{-20,-20},{20,20}},
+ rotation=90,
+ origin={-90,80}), iconTransformation(
+ extent={{-20,-20},{20,20}},
+ rotation=270,
+ origin={80,-80})));
+ Utilities.Interfaces.GenericReal Kfr_cold annotation (Placement(
+ transformation(
+ extent={{-20,-20},{20,20}},
+ rotation=90,
+ origin={-42,20}), iconTransformation(
+ extent={{-20,-20},{20,20}},
+ rotation=180,
+ origin={-120,-40})));
+ Utilities.Interfaces.GenericReal Kfr_hot annotation (Placement(transformation(
+ extent={{-20,-20},{20,20}},
+ rotation=90,
+ origin={20,52}), iconTransformation(
+ extent={{-20,-20},{20,20}},
+ rotation=90,
+ origin={80,80})));
equation
// Failure modes
@@ -106,12 +127,6 @@ equation
// Energy balance
hot_side.W + cold_side.W = 0;
- // Pressure losses
- cold_side_pipe.delta_z = 0;
- cold_side_pipe.Kfr = Kfr_cold;
- hot_side_pipe.delta_z = 0;
- hot_side_pipe.Kfr = Kfr_hot;
-
// Power Exchange
HX.W = W;
HX.S = S;
@@ -152,7 +167,12 @@ equation
connect(hot_side.C_in, hot_side_pipe.C_out) annotation (Line(points={{20,28},{40,28},{40,34}}, color={28,108,200}));
connect(hot_side_pipe.C_in, C_hot_in) annotation (Line(points={{40,54},{40,80}}, color={28,108,200}));
connect(hot_side.C_out, C_hot_out) annotation (Line(points={{0,28},{-20,28},{-20,-80},{-40,-80}}, color={28,108,200}));
- annotation (Icon(coordinateSystem(preserveAspectRatio=false), graphics={
+ connect(cold_side_pipe.Kfr, Kfr_cold)
+ annotation (Line(points={{-42,4},{-42,4},{-42,20}}, color={0,0,127}));
+ connect(hot_side_pipe.Kfr, Kfr_hot)
+ annotation (Line(points={{36,44},{20,44},{20,52}}, color={0,0,127}));
+ annotation (Icon(coordinateSystem(preserveAspectRatio=false, extent={{-140,
+ -100},{100,100}}), graphics={
Rectangle(
extent={{-100,60},{100,-60}},
lineColor={0,0,0},
@@ -163,5 +183,6 @@ equation
thickness=1,
smooth=Smooth.Bezier),
Line(points={{122,-56}}, color={102,44,145})}),
- Diagram(coordinateSystem(preserveAspectRatio=false)));
+ Diagram(coordinateSystem(preserveAspectRatio=false, extent={
+ {-140,-100},{100,100}})));
end FuelHeater;
diff --git a/MetroscopeModelingLibrary/MultiFluid/HeatExchangers/HXmoistAirWater.mo b/MetroscopeModelingLibrary/MultiFluid/HeatExchangers/HXmoistAirWater.mo
index de2c8513..20c731ff 100644
--- a/MetroscopeModelingLibrary/MultiFluid/HeatExchangers/HXmoistAirWater.mo
+++ b/MetroscopeModelingLibrary/MultiFluid/HeatExchangers/HXmoistAirWater.mo
@@ -51,7 +51,7 @@ model HXmoistAirWater
extent={{10,10},{-10,-10}},
rotation=0,
origin={2,34})));
- WaterSteam.Pipes.Pipe cold_side_pipe(Q_0=Q_cold_0, T_in_0=T_cold_in_0) annotation (Placement(transformation(
+ WaterSteam.Pipes.FrictionPipe cold_side_pipe(Q_0=Q_cold_0, T_in_0=T_cold_in_0) annotation (Placement(transformation(
extent={{10,-10},{-10,10}},
rotation=90,
origin={-16,-24})));
diff --git a/MetroscopeModelingLibrary/MultiFluid/HeatExchangers/LMTDFuelHeater.mo b/MetroscopeModelingLibrary/MultiFluid/HeatExchangers/LMTDFuelHeater.mo
index a1e91e6a..854ede74 100644
--- a/MetroscopeModelingLibrary/MultiFluid/HeatExchangers/LMTDFuelHeater.mo
+++ b/MetroscopeModelingLibrary/MultiFluid/HeatExchangers/LMTDFuelHeater.mo
@@ -53,7 +53,12 @@ model LMTDFuelHeater
extent={{10,10},{-10,-10}},
rotation=0,
origin={10,28})));
- WaterSteam.Pipes.Pipe hot_side_pipe(Q_0=Q_hot_0, P_in_0 = P_hot_in_0, P_out_0 = P_hot_out_0, h_0 = h_hot_in_0, T_0 = T_hot_in_0) annotation (Placement(transformation(
+ WaterSteam.Pipes.FrictionPipe hot_side_pipe(
+ Q_0=Q_hot_0,
+ P_in_0=P_hot_in_0,
+ P_out_0=P_hot_out_0,
+ h_0=h_hot_in_0,
+ T_0=T_hot_in_0) annotation (Placement(transformation(
extent={{10,-10},{-10,10}},
rotation=90,
origin={-14,-24})));
diff --git a/MetroscopeModelingLibrary/MultiFluid/HeatExchangers/Superheater.mo b/MetroscopeModelingLibrary/MultiFluid/HeatExchangers/Superheater.mo
index 4f8c1b4f..2d9dcdc6 100644
--- a/MetroscopeModelingLibrary/MultiFluid/HeatExchangers/Superheater.mo
+++ b/MetroscopeModelingLibrary/MultiFluid/HeatExchangers/Superheater.mo
@@ -35,7 +35,7 @@ equation
lineColor={0,0,0},
fillColor={215,215,215},
fillPattern=FillPattern.Solid), Line(
- points={{40,80},{40,-72},{10,-72},{12,80},{-12,80},{-10,-72},{-40,-72},{-40,80}},
+ points={{40,80},{40,-52},{10,-52},{12,50},{-10,50},{-12,-52},{-40,-52},{-40,80}},
color={28,108,200},
smooth=Smooth.Bezier,
thickness=1,
diff --git a/MetroscopeModelingLibrary/MultiFluid/Machines/CombustionChamber.mo b/MetroscopeModelingLibrary/MultiFluid/Machines/CombustionChamber.mo
index 99753496..b4e78f94 100644
--- a/MetroscopeModelingLibrary/MultiFluid/Machines/CombustionChamber.mo
+++ b/MetroscopeModelingLibrary/MultiFluid/Machines/CombustionChamber.mo
@@ -12,8 +12,8 @@ model CombustionChamber
// Performance parameters
//Inputs.Input
- Inputs.InputFrictionCoefficient Kfr(start=0);
- Inputs.InputReal eta(start=0.99457); // The value given is found in performance document of GE
+ parameter Units.FrictionCoefficient Kfr_constant = 0;
+ parameter Real eta_constant=0.99457; // The value given is found in performance document of GE
// Power released by the combustion
Inputs.InputPower Wth;
@@ -65,7 +65,21 @@ model CombustionChamber
origin={0,-22})));
FlueGases.BoundaryConditions.Source source_exhaust annotation (Placement(transformation(extent={{12,-10},{32,10}})));
FlueGases.BoundaryConditions.Sink sink_air(h_in(start=h_in_air_0)) annotation (Placement(transformation(extent={{-32,-10},{-12,10}})));
- FlueGases.Pipes.Pipe pressure_loss annotation (Placement(transformation(extent={{46,-10},{66,10}})));
+ FlueGases.Pipes.FrictionPipe pressure_loss annotation (Placement(transformation(extent={{46,-10},{66,10}})));
+ Utilities.Interfaces.GenericReal Kfr(start=Kfr_constant) annotation (Placement(transformation(
+ extent={{-10,-10},{10,10}},
+ rotation=90,
+ origin={30,110}), iconTransformation(
+ extent={{-10,-10},{10,10}},
+ rotation=90,
+ origin={30,110})));
+ Utilities.Interfaces.GenericReal eta(start=eta_constant) annotation (Placement(transformation(
+ extent={{-10,-10},{10,10}},
+ rotation=90,
+ origin={-30,100}),iconTransformation(
+ extent={{-10,-10},{10,10}},
+ rotation=90,
+ origin={-30,110})));
equation
// Definitions
@@ -102,8 +116,6 @@ equation
// Mechanical Balance
sink_air.P_in - source_exhaust.P_out = 0;
- pressure_loss.delta_z = 0;
- pressure_loss.Kfr = Kfr;
// Energy balance
Wth = eta*Q_fuel*LHV;
@@ -126,16 +138,12 @@ equation
connect(sink_fuel.C_in, inlet1) annotation (Line(points={{-2.77556e-16,-27},{-2.77556e-16,-63.5},{0,-63.5},{0,-100}}, color={213,213,0}));
connect(source_exhaust.C_out, pressure_loss.C_in) annotation (Line(points={{27,0},{46,0}}, color={95,95,95}));
connect(pressure_loss.C_out, outlet) annotation (Line(points={{66,0},{100,0}}, color={95,95,95}));
+ connect(pressure_loss.Kfr, Kfr) annotation (Line(points={{56,4},{56,110},{30,110}}, color={0,0,127}));
annotation (
Diagram(coordinateSystem(
preserveAspectRatio=false,
extent={{-100,-100},{100,100}},
grid={2,2})),
- Window(
- x=0.03,
- y=0.02,
- width=0.95,
- height=0.95),
Icon(coordinateSystem(
preserveAspectRatio=false,
extent={{-100,-100},{100,100}},
diff --git a/MetroscopeModelingLibrary/MultiFluid/Machines/CombustionChamberWithRefMoistAir.mo b/MetroscopeModelingLibrary/MultiFluid/Machines/CombustionChamberWithRefMoistAir.mo
index 4b0e97c8..ec32a86a 100644
--- a/MetroscopeModelingLibrary/MultiFluid/Machines/CombustionChamberWithRefMoistAir.mo
+++ b/MetroscopeModelingLibrary/MultiFluid/Machines/CombustionChamberWithRefMoistAir.mo
@@ -67,7 +67,7 @@ model CombustionChamberwithRefMoistAir
Fuel.BoundaryConditions.Sink sink_fuel annotation (Placement(transformation(extent={{-10,-10},{10,10}}, rotation=90, origin={0,-22})));
FlueGases.BoundaryConditions.Source source_exhaust annotation (Placement(transformation(extent={{12,-10},{32,10}})));
FlueGases.BoundaryConditions.Sink sink_air(h_in(start=h_in_air_0)) annotation (Placement(transformation(extent={{-32,-10},{-12,10}})));
- FlueGases.Pipes.Pipe pressure_loss annotation (Placement(transformation(extent={{46,-10},{66,10}})));
+ FlueGases.Pipes.FrictionPipe pressure_loss annotation (Placement(transformation(extent={{46,-10},{66,10}})));
Converters.RefMoistAir_to_FlueGases refMoistAir_to_FlueGases annotation (Placement(transformation(
extent={{-10,-10},{10,10}},
diff --git a/MetroscopeModelingLibrary/Partial/HeatExchangers/WaterFlueGasesMonophasicHX.mo b/MetroscopeModelingLibrary/Partial/HeatExchangers/WaterFlueGasesMonophasicHX.mo
index ec360c06..c87800e3 100644
--- a/MetroscopeModelingLibrary/Partial/HeatExchangers/WaterFlueGasesMonophasicHX.mo
+++ b/MetroscopeModelingLibrary/Partial/HeatExchangers/WaterFlueGasesMonophasicHX.mo
@@ -4,10 +4,7 @@ partial model WaterFlueGasesMonophasicHX
import MetroscopeModelingLibrary.Utilities.Units;
import MetroscopeModelingLibrary.Utilities.Units.Inputs;
- Inputs.InputArea S;
- Inputs.InputHeatExchangeCoefficient Kth;
- Inputs.InputFrictionCoefficient Kfr_cold;
- Inputs.InputFrictionCoefficient Kfr_hot;
+ parameter Units.Area S = 3000;
// Cp estimation temperatures: estimated temperature differences for both the hot and cold fluids
parameter Boolean nominal_DT_default = true;
@@ -75,25 +72,42 @@ partial model WaterFlueGasesMonophasicHX
extent={{30,70},{50,90}}), iconTransformation(extent={{30,70},{50,90}})));
WaterSteam.Connectors.Outlet C_cold_out(Q(start=-Q_cold_0), P(start=P_cold_out_0), h_outflow(start= h_cold_out_0)) annotation (Placement(transformation(
extent={{-50,72},{-30,92}}), iconTransformation(extent={{-50,70},{-30,90}})));
- FlueGases.Pipes.Pipe hot_side_pipe(Q_0=Q_hot_0, h_0=h_hot_in_0, P_in_0=P_hot_in_0, P_out_0=P_hot_out_0) annotation (Placement(transformation(extent={{-50,-10},{-30,10}})));
Power.HeatExchange.NTUHeatExchange HX(config=config, mixed_fluid=mixed_fluid, QCp_max_side=QCp_max_side,T_cold_in_0=T_cold_in_0) annotation (Placement(transformation(
extent={{-10,-10},{10,10}},
rotation=0,
- origin={4,10})));
+ origin={0,16})));
FlueGases.BaseClasses.IsoPFlowModel hot_side(Q_0=Q_hot_0, h_in_0=h_hot_in_0, T_out_0=T_hot_out_0, P_0=P_hot_out_0, h_out_0=h_hot_out_0) annotation (Placement(
transformation(
extent={{10,-10},{-10,10}},
- rotation=180,
- origin={4,-6})));
+ rotation=180)));
WaterSteam.BaseClasses.IsoPFlowModel cold_side(Q_0=Q_cold_0, h_in_0=h_cold_in_0, T_in_0=T_cold_in_0, P_0=P_cold_in_0, T_out_0=T_cold_out_0, h_out_0=h_cold_out_0) annotation (Placement(
transformation(
extent={{10,10},{-10,-10}},
rotation=0,
- origin={6,24})));
- WaterSteam.Pipes.Pipe cold_side_pipe(Q_0=Q_cold_0, h_0=h_cold_in_0, T_0=T_cold_in_0, P_in_0=P_cold_in_0, P_out_0=P_cold_out_0) annotation (Placement(transformation(
- extent={{10,-10},{-10,10}},
+ origin={0,30})));
+ WaterSteam.Pipes.FrictionPipe cold_side_pipe(
+ Q_0=Q_cold_0,
+ h_0=h_cold_in_0,
+ T_0=T_cold_in_0,
+ P_in_0=P_cold_in_0,
+ P_out_0=P_cold_out_0) annotation (Placement(transformation(
+ extent={{10,10},{-10,-10}},
rotation=90,
- origin={30,42})));
+ origin={40,50})));
+ Utilities.Interfaces.GenericReal Kth annotation (Placement(transformation(
+ extent={{-10,-10},{10,10}},
+ rotation=270,
+ origin={-50,-70}), iconTransformation(
+ extent={{-10,-10},{10,10}},
+ rotation=270,
+ origin={-50,-70})));
+ Utilities.Interfaces.GenericReal Kfr_cold annotation (Placement(transformation(
+ extent={{-10,-10},{10,10}},
+ rotation=270,
+ origin={50,-70}), iconTransformation(
+ extent={{-10,-10},{10,10}},
+ rotation=270,
+ origin={50,-70})));
equation
// Failure modes
if not faulty then
@@ -101,26 +115,20 @@ equation
end if;
// Definitions
- Q_cold =cold_side.Q;
- Q_hot =hot_side.Q;
+ Q_cold = cold_side.Q;
+ Q_hot = hot_side.Q;
T_cold_in = cold_side_pipe.T_in;
T_cold_out = cold_side.T_out;
- T_hot_in = hot_side_pipe.T_in;
+ T_hot_in = hot_side.T_in;
T_hot_out = hot_side.T_out;
cold_side.W = W;
// Energy balance
hot_side.W + cold_side.W = 0;
- // Pressure losses
- cold_side_pipe.delta_z=0;
- cold_side_pipe.Kfr = Kfr_cold;
- hot_side_pipe.delta_z=0;
- hot_side_pipe.Kfr = Kfr_hot;
-
// Power Exchange
HX.W = W;
- HX.Kth = Kth*(1-fouling/100);
+ HX.Kth = Kth*(1-fouling/100);
HX.S = S;
HX.Q_cold = Q_cold;
HX.Q_hot = Q_hot;
@@ -162,23 +170,19 @@ equation
hot_side.Xi);
Cp_hot_min =MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium.specificHeatCapacityCp(state_hot_out); // fg outlet Cp
- connect(cold_side.C_in, cold_side_pipe.C_out) annotation (Line(points={{16,24},{30,24},{30,32}}, color={28,108,200}));
- connect(cold_side_pipe.C_in, C_cold_in) annotation (Line(points={{30,52},{30,66},{30,80},{40,80}},
- color={28,108,200}));
- connect(cold_side.C_out, C_cold_out) annotation (Line(points={{-4,24},{-18,24},{-18,22},{-40,22},{-40,82}}, color={28,108,200}));
- connect(hot_side.C_in, hot_side_pipe.C_out) annotation (Line(points={{-6,-6},{-22,-6},{-22,0},{-30,0}}, color={95,95,95}));
- connect(hot_side_pipe.C_in, C_hot_in) annotation (Line(points={{-50,0},{-100,0}},color={95,95,95}));
- connect(hot_side.C_out, C_hot_out) annotation (Line(points={{14,-6},{100,-6},{100,0}},
- color={95,95,95}));
- connect(C_hot_out, C_hot_out) annotation (Line(points={{100,0},{62,0},{62,-6},{100,-6},{100,0}},
- color={95,95,95}));
+ connect(cold_side.C_in, cold_side_pipe.C_out) annotation (Line(points={{10,30},{40,30},{40,40}}, color={28,108,200}));
+ connect(cold_side_pipe.C_in, C_cold_in) annotation (Line(points={{40,60},{40,80}}, color={28,108,200}));
+ connect(cold_side.C_out, C_cold_out) annotation (Line(points={{-10,30},{-40,30},{-40,82}}, color={28,108,200}));
+ connect(hot_side.C_out, C_hot_out) annotation (Line(points={{10,0},{100,0}}, color={95,95,95}));
+ connect(hot_side.C_in, C_hot_in) annotation (Line(points={{-10,0},{-100,0}}, color={95,95,95}));
+ connect(Kfr_cold, cold_side_pipe.Kfr) annotation (Line(points={{50,-70},{50,50},{44,50}}, color={0,0,127}));
annotation (Icon(coordinateSystem(preserveAspectRatio=false), graphics={
Rectangle(
extent={{-100,60},{100,-60}},
lineColor={0,0,0},
fillColor={215,215,215},
fillPattern=FillPattern.Solid), Line(
- points={{40,80},{40,-80},{14,-80},{12,80},{-14,80},{-16,-80},{-40,-80},{-40,80}},
+ points={{40,80},{40,-52},{14,-52},{14,52},{-14,52},{-16,-52},{-40,-52},{-40,80}},
color={0,0,0},
smooth=Smooth.Bezier,
thickness=1)}), Diagram(coordinateSystem(preserveAspectRatio=false)));
diff --git a/MetroscopeModelingLibrary/Partial/Machines/FixedSpeedPump.mo b/MetroscopeModelingLibrary/Partial/Machines/FixedSpeedPump.mo
index 5f664aa2..abbfed4d 100644
--- a/MetroscopeModelingLibrary/Partial/Machines/FixedSpeedPump.mo
+++ b/MetroscopeModelingLibrary/Partial/Machines/FixedSpeedPump.mo
@@ -7,17 +7,13 @@ partial model FixedSpeedPump
import MetroscopeModelingLibrary.Utilities.Units.Inputs;
import MetroscopeModelingLibrary.Utilities.Constants;
- Units.Yield rh "Hydraulic efficiency"; // Function of Qv
- Units.Height hn(start=10) "Pump head"; // Function of Qv
-
- Units.Power Wh "Hydraulic power";
-
+ Utilities.Interfaces.GenericReal rh annotation (Placement(transformation(extent={{-96,50},{-76,70}}), iconTransformation(extent={{-80,20},
+ {-120,60}})));
+ Utilities.Interfaces.GenericReal hn annotation (Placement(transformation(extent={{-74,70},{-54,90}}), iconTransformation(extent={{-58,60},
+ {-98,100}})));
equation
// Outlet variation
DP = rho*Constants.g*hn;
DH = Constants.g *hn/rh;
-
- // Hydraulic power
- Wh = Qv * DP / rh; // = Qv*rho * g*hn/rh = Q * DH = W
end FixedSpeedPump;
diff --git a/MetroscopeModelingLibrary/Partial/Machines/Pump.mo b/MetroscopeModelingLibrary/Partial/Machines/Pump.mo
index 6dec766b..3e6225bc 100644
--- a/MetroscopeModelingLibrary/Partial/Machines/Pump.mo
+++ b/MetroscopeModelingLibrary/Partial/Machines/Pump.mo
@@ -1,12 +1,12 @@
within MetroscopeModelingLibrary.Partial.Machines;
partial model Pump
- extends BaseClasses.FlowModel(P_out_0=10e5) annotation(IconMap(primitivesVisible=false));
- extends MetroscopeModelingLibrary.Utilities.Icons.Machines.PumpIcon;
+ extends MetroscopeModelingLibrary.Partial.Machines.FixedSpeedPump;
import MetroscopeModelingLibrary.Utilities.Units;
import MetroscopeModelingLibrary.Utilities.Units.Inputs;
import MetroscopeModelingLibrary.Utilities.Constants;
+ Inputs.InputReal rm(start=0.85);
Real VRotn(start=1400, min=0, nominal=2000) "Nominal rotational speed";
Inputs.InputReal a1(start=0) "x^2 coef. of the pump characteristics hn = f(vol_flow) (s2/m5)";
Inputs.InputReal a2(start=0) "x coef. of the pump characteristics hn = f(vol_flow) (s/m2)";
@@ -15,16 +15,10 @@ partial model Pump
Inputs.InputReal b2(start=0) "x coef. of the pump efficiency characteristics rh = f(vol_flow) (s/m3)";
Inputs.InputReal b3(start=0.8) "Constant coef. of the pump efficiency characteristics rh = f(vol_flow) (s.u.)";
- Inputs.InputYield rm(start=0.85) "Product of the pump mechanical and electrical efficiencies";
Inputs.InputYield rh_min(start=0.20) "Minimum efficiency to avoid zero crossings";
- Real rh "Hydraulic efficiency";
- Units.Height hn(start=10) "Pump head";
Units.Fraction R(start=1) "Reduced rotational speed";
- Units.Power Wh "Hydraulic power";
- Units.PositivePower Wm "Mechanical power";
-
Modelica.Blocks.Interfaces.RealInput VRot "Pump rotational speed" annotation (Placement(
transformation(extent={{-20,-20},{20,20}},
rotation=270,
@@ -47,16 +41,7 @@ equation
hn = a1*Qv^2 + a2*Qv*R + a3*R^2;
rh =noEvent(max(if (R > 1e-5) then b1*Qv^2/R^2 + b2*Qv/R + b3 else b3, rh_min));
- // Outlet variation
- DP = rho*Constants.g*hn;
- DH = Constants.g *hn/rh;
-
- // Mechanical power
- Wm = C_power.W; // C_power.W is positive since it is power fed to the component
- Wm = W/rm; // Wm is positive since it is the power produced by the pump
-
- // Hydraulic power
- Wh = Qv * DP / rh; // = Qv*rho * g*hn/rh = Q * DH = W
+ C_power.W = W/rm;
annotation (Icon(graphics={
Line(
points={{-100,-100},{100,100}},
diff --git a/MetroscopeModelingLibrary/Partial/Pipes/ControlValve.mo b/MetroscopeModelingLibrary/Partial/Pipes/ControlValve.mo
index a5eefbb4..51995458 100644
--- a/MetroscopeModelingLibrary/Partial/Pipes/ControlValve.mo
+++ b/MetroscopeModelingLibrary/Partial/Pipes/ControlValve.mo
@@ -5,7 +5,7 @@ partial model ControlValve
import MetroscopeModelingLibrary.Utilities.Units.Inputs;
import MetroscopeModelingLibrary.Utilities.Constants;
- Inputs.InputCv Cv_max(start=1e4) "Maximum CV";
+ parameter Units.Cv Cv_max_constant = 1e4 "Maximum CV";
Units.Cv Cv(start=1e4) "Cv";
Modelica.Blocks.Interfaces.RealInput Opening(unit="1", min=0., max=1., nominal=0.5) annotation (Placement(
transformation(extent={{-20,-20},{20,20}},
@@ -15,6 +15,13 @@ partial model ControlValve
rotation=-90,
origin={0,160})));
+ Utilities.Interfaces.GenericReal Cv_max(start=Cv_max_constant) annotation (Placement(transformation(
+ extent={{-10,-10},{10,10}},
+ rotation=180,
+ origin={-40,110}), iconTransformation(
+ extent={{-10,-10},{10,10}},
+ rotation=180,
+ origin={-40,110})));
equation
/* Pressure loss */
DP*Cv*abs(Cv) = -1.733e12*abs(Q)*Q/rho_in^2;
diff --git a/MetroscopeModelingLibrary/Partial/Pipes/FrictionPipe.mo b/MetroscopeModelingLibrary/Partial/Pipes/FrictionPipe.mo
new file mode 100644
index 00000000..b50362bf
--- /dev/null
+++ b/MetroscopeModelingLibrary/Partial/Pipes/FrictionPipe.mo
@@ -0,0 +1,88 @@
+within MetroscopeModelingLibrary.Partial.Pipes;
+partial model FrictionPipe
+ extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoHFlowModel annotation(IconMap(primitivesVisible=false));
+ import MetroscopeModelingLibrary.Utilities.Units;
+ import MetroscopeModelingLibrary.Utilities.Units.Inputs;
+ import MetroscopeModelingLibrary.Utilities.Constants;
+
+ // Failure modes
+ parameter Boolean faulty = false;
+ Units.Percentage fouling; // Fouling coefficient
+
+ parameter Units.FrictionCoefficient Kfr_constant = -DP_0*rho_0/(Q_0*Q_0);
+ Utilities.Interfaces.GenericReal Kfr(start=Kfr_constant) annotation (Placement(transformation(
+ extent={{-10,-10},{10,10}},
+ rotation=90,
+ origin={0,40}), iconTransformation(
+ extent={{-10,-10},{10,10}},
+ rotation=90,
+ origin={0,40})));
+equation
+ // Failure modes
+ if not faulty then
+ fouling = 0;
+ end if;
+
+ DP = - (1+ fouling/100)*Kfr*Q*abs(Q)/rho_in; // homotopy((1+ fouling/100)*Kfr*Q*abs(Q)/rho_in, DP_0/Q_0*Q);
+ annotation (
+ Diagram(coordinateSystem(
+ preserveAspectRatio=true,
+ extent={{-100,-100},{100,100}},
+ grid={2,2}), graphics={Rectangle(
+ extent={{-100,20},{100,-20}},
+ lineColor={0,0,255},
+ fillColor={85,255,85},
+ fillPattern=FillPattern.Solid),
+ Line(points={{-80,20},{-76,18},{-72,20}}, color={28,108,200}),
+ Line(points={{-72,20},{-68,18},{-64,20}}, color={28,108,200}),
+ Line(points={{-56,20},{-52,18},{-48,20}}, color={28,108,200}),
+ Line(points={{-64,20},{-60,18},{-56,20}}, color={28,108,200}),
+ Line(points={{-24,20},{-20,18},{-16,20}}, color={28,108,200}),
+ Line(points={{-32,20},{-28,18},{-24,20}}, color={28,108,200}),
+ Line(points={{-40,20},{-36,18},{-32,20}}, color={28,108,200}),
+ Line(points={{-48,20},{-44,18},{-40,20}}, color={28,108,200}),
+ Line(points={{-16,20},{-12,18},{-8,20}}, color={28,108,200}),
+ Line(points={{-8,20},{-4,18},{0,20}}, color={28,108,200}),
+ Line(points={{8,20},{12,18},{16,20}}, color={28,108,200}),
+ Line(points={{0,20},{4,18},{8,20}}, color={28,108,200}),
+ Line(points={{40,20},{44,18},{48,20}}, color={28,108,200}),
+ Line(points={{32,20},{36,18},{40,20}}, color={28,108,200}),
+ Line(points={{24,20},{28,18},{32,20}}, color={28,108,200}),
+ Line(points={{16,20},{20,18},{24,20}}, color={28,108,200}),
+ Line(points={{72,20},{76,18},{80,20}}, color={28,108,200}),
+ Line(points={{64,20},{68,18},{72,20}}, color={28,108,200}),
+ Line(points={{56,20},{60,18},{64,20}}, color={28,108,200}),
+ Line(points={{48,20},{52,18},{56,20}}, color={28,108,200}),
+ Line(points={{-80,-20},{-76,-18},{-72,-20}}, color={28,108,200}),
+ Line(points={{-72,-20},{-68,-18},{-64,-20}}, color={28,108,200}),
+ Line(points={{-56,-20},{-52,-18},{-48,-20}}, color={28,108,200}),
+ Line(points={{-64,-20},{-60,-18},{-56,-20}}, color={28,108,200}),
+ Line(points={{-24,-20},{-20,-18},{-16,-20}}, color={28,108,200}),
+ Line(points={{-32,-20},{-28,-18},{-24,-20}}, color={28,108,200}),
+ Line(points={{-40,-20},{-36,-18},{-32,-20}}, color={28,108,200}),
+ Line(points={{-48,-20},{-44,-18},{-40,-20}}, color={28,108,200}),
+ Line(points={{-16,-20},{-12,-18},{-8,-20}}, color={28,108,200}),
+ Line(points={{-8,-20},{-4,-18},{0,-20}}, color={28,108,200}),
+ Line(points={{8,-20},{12,-18},{16,-20}}, color={28,108,200}),
+ Line(points={{0,-20},{4,-18},{8,-20}}, color={28,108,200}),
+ Line(points={{40,-20},{44,-18},{48,-20}}, color={28,108,200}),
+ Line(points={{32,-20},{36,-18},{40,-20}}, color={28,108,200}),
+ Line(points={{24,-20},{28,-18},{32,-20}}, color={28,108,200}),
+ Line(points={{16,-20},{20,-18},{24,-20}}, color={28,108,200}),
+ Line(points={{72,-20},{76,-18},{80,-20}}, color={28,108,200}),
+ Line(points={{64,-20},{68,-18},{72,-20}}, color={28,108,200}),
+ Line(points={{56,-20},{60,-18},{64,-20}}, color={28,108,200}),
+ Line(points={{48,-20},{52,-18},{56,-20}}, color={28,108,200})}),
+ Icon(coordinateSystem(
+ preserveAspectRatio=true,
+ extent={{-100,-100},{100,100}},
+ grid={2,2}), graphics={Rectangle(
+ extent={{-100,30},{100,-30}},
+ lineColor={0,0,255},
+ fillColor={85,255,85},
+ fillPattern=FillPattern.Solid), Text(
+ extent={{-12,14},{16,-14}},
+ lineColor={0,0,255},
+ fillColor={85,255,85},
+ fillPattern=FillPattern.Solid)}));
+end FrictionPipe;
diff --git a/MetroscopeModelingLibrary/Partial/Pipes/Pipe.mo b/MetroscopeModelingLibrary/Partial/Pipes/HeightVariationPipe.mo
similarity index 60%
rename from MetroscopeModelingLibrary/Partial/Pipes/Pipe.mo
rename to MetroscopeModelingLibrary/Partial/Pipes/HeightVariationPipe.mo
index 008b0a2f..767b312e 100644
--- a/MetroscopeModelingLibrary/Partial/Pipes/Pipe.mo
+++ b/MetroscopeModelingLibrary/Partial/Pipes/HeightVariationPipe.mo
@@ -1,30 +1,19 @@
within MetroscopeModelingLibrary.Partial.Pipes;
-partial model Pipe
+partial model HeightVariationPipe
extends MetroscopeModelingLibrary.Partial.BaseClasses.IsoHFlowModel annotation(IconMap(primitivesVisible=false));
import MetroscopeModelingLibrary.Utilities.Units;
- import MetroscopeModelingLibrary.Utilities.Units.Inputs;
import MetroscopeModelingLibrary.Utilities.Constants;
- Inputs.InputFrictionCoefficient Kfr(start=10) "Friction pressure loss coefficient";
- Inputs.InputDifferentialHeight delta_z(nominal=5) "Height difference between outlet and inlet";
- Units.DifferentialPressure DP_f "Singular pressure loss";
- Units.DifferentialPressure DP_z "Singular pressure loss";
-
- // Failure modes
- parameter Boolean faulty = false;
- Units.Percentage fouling; // Fouling coefficient
-
+ parameter Units.Height delta_z_constant = 10;
+ Utilities.Interfaces.GenericReal delta_z(start=delta_z_constant, nominal=delta_z_constant) annotation (Placement(transformation(
+ extent={{-10,-10},{10,10}},
+ rotation=90,
+ origin={0,40}), iconTransformation(
+ extent={{-18,-18},{18,18}},
+ rotation=90,
+ origin={0,48})));
equation
-
- // Failure modes
- if not faulty then
- fouling = 0;
- end if;
-
- DP_f = - (1+ fouling/100)*Kfr*Q*abs(Q)/rho_in;
- DP_z = - rho_in*Constants.g*delta_z;
-
- DP = DP_f + DP_z;
+ DP = - rho_in*Constants.g*delta_z;
annotation (
Diagram(coordinateSystem(
preserveAspectRatio=true,
@@ -46,4 +35,4 @@ equation
lineColor={0,0,255},
fillColor={85,255,85},
fillPattern=FillPattern.Solid)}));
-end Pipe;
+end HeightVariationPipe;
diff --git a/MetroscopeModelingLibrary/Partial/Pipes/SlideValve.mo b/MetroscopeModelingLibrary/Partial/Pipes/SlideValve.mo
index ad4d2b2e..9ff9946d 100644
--- a/MetroscopeModelingLibrary/Partial/Pipes/SlideValve.mo
+++ b/MetroscopeModelingLibrary/Partial/Pipes/SlideValve.mo
@@ -5,11 +5,19 @@ partial model SlideValve
import MetroscopeModelingLibrary.Utilities.Units.Inputs;
import MetroscopeModelingLibrary.Utilities.Constants;
- Inputs.InputCv Cv(start=1e4) "Cv of the valve";
parameter Boolean faulty = false;
Units.Percentage closed_valve; // Valve not fully opened
+ parameter Real Cv_constant = 1e4;
+
+ Utilities.Interfaces.GenericReal Cv(start=Cv_constant) annotation (Placement(transformation(
+ extent={{-10,-10},{10,10}},
+ rotation=180,
+ origin={-40,110}), iconTransformation(
+ extent={{-10,-10},{10,10}},
+ rotation=180,
+ origin={-40,110})));
equation
// Failure modes
if not faulty then
diff --git a/MetroscopeModelingLibrary/Partial/Pipes/package.order b/MetroscopeModelingLibrary/Partial/Pipes/package.order
index bffc8386..48bdbc41 100644
--- a/MetroscopeModelingLibrary/Partial/Pipes/package.order
+++ b/MetroscopeModelingLibrary/Partial/Pipes/package.order
@@ -1,4 +1,5 @@
-Pipe
+FrictionPipe
+HeightVariationPipe
ControlValve
SlideValve
HeatLoss
diff --git a/MetroscopeModelingLibrary/Partial/Sensors_Control/BaseSensor.mo b/MetroscopeModelingLibrary/Partial/Sensors_Control/BaseSensor.mo
new file mode 100644
index 00000000..2cd5f1ef
--- /dev/null
+++ b/MetroscopeModelingLibrary/Partial/Sensors_Control/BaseSensor.mo
@@ -0,0 +1,67 @@
+within MetroscopeModelingLibrary.Partial.Sensors_Control;
+partial model BaseSensor
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.InlineSensorIcon;
+
+ replaceable package Medium = MetroscopeModelingLibrary.Partial.Media.PartialMedium;
+ import MetroscopeModelingLibrary.Utilities.Units;
+
+ // Initialization parameters
+ parameter Units.PositiveMassFlowRate Q_0=100;
+ parameter Units.Pressure P_0 = 1e5;
+ parameter Units.SpecificEnthalpy h_0 = 5e5;
+
+ // Input Quantity
+ Units.PositiveMassFlowRate Q(start=Q_0, nominal=Q_0) "Component mass flow rate";
+ Units.MassFraction Xi[Medium.nXi] "Component mass fractions";
+ Units.Pressure P(start=P_0) "Pressure of the fluid into the component";
+ Units.SpecificEnthalpy h(start=h_0) "Enthalpy of the fluid into the component";
+ Medium.ThermodynamicState state;
+
+ // Failure modes
+ parameter Boolean faulty_flow_rate = false;
+ Units.MassFlowRate mass_flow_rate_bias(start=0); // mass_flow_rate_bias > 0 means that more mass flow enters the component
+
+ // Icon parameters
+ parameter String sensor_function = "Unidentified" "Specify if the sensor is a BC or used for calibration"
+ annotation(choices(choice="Unidentified" "No specific function", choice="BC" "Boundary condition", choice="Calibration" "Used for calibration"));
+ parameter String causality = "" "Specify which parameter is calibrated by this sensor";
+ outer parameter Boolean show_causality = true "Used to show or not the causality";
+
+ replaceable Connectors.FluidInlet C_in(Q(start=Q_0, nominal=Q_0), P(start=P_0, nominal=P_0), redeclare package Medium = Medium) annotation (Placement(transformation(extent={{-110,-10},{-90,10}})));
+ replaceable Connectors.FluidOutlet C_out(Q(start=-Q_0, nominal=Q_0), P(start=P_0, nominal=P_0), redeclare package Medium = Medium) annotation (Placement(transformation(extent={{90,-10},{110,10}})));
+ replaceable BaseClasses.IsoPHFlowModel flow_model annotation (Placement(transformation(extent={{-10,-10},{10,10}})));
+equation
+ if not faulty_flow_rate then
+ mass_flow_rate_bias = 0;
+ end if;
+
+ P = C_in.P;
+ Q = C_in.Q + mass_flow_rate_bias;
+ Xi = inStream(C_in.Xi_outflow);
+ h = inStream(C_in.h_outflow);
+
+ state = Medium.setState_phX(P, h, Xi);
+
+ assert(Q > 0, "Wrong flow sign in inline sensor. Common causes : outlet connected as if it was inlet and vice versa, or Positive/NegativeMassflowrate misuse. Recall : inlet flow is positive, outlet is negatve", AssertionLevel.warning);
+ connect(flow_model.C_in, C_in) annotation (Line(points={{-10,0},{-100,0}}, color={95,95,95}));
+ connect(flow_model.C_out, C_out) annotation (Line(points={{10,0},{100,0}}, color={0,0,0}));
+ annotation (Icon(
+ graphics={
+ Rectangle(
+ extent={{-100,100},{100,-100}},
+ lineColor={0,0,0},
+ pattern=LinePattern.None,
+ fillColor=if sensor_function == "BC" then {238, 46, 47} elseif sensor_function == "Calibration" then {107, 175, 17} else {255, 255, 255},
+ fillPattern=if sensor_function == "BC" or sensor_function == "Calibration" then FillPattern.Solid else FillPattern.None),
+ Text(
+ extent={{-100,-120},{100,-160}},
+ textColor={107,175,17},
+ textString=if show_causality then "%causality" else ""),
+ Line(
+ points={{100,-60},{140,-60},{140,-140},{100,-140}},
+ color={107,175,17},
+ arrow=if causality == "" or show_causality == false then {Arrow.None,Arrow.None} else {Arrow.None,Arrow.Filled},
+ thickness=0.5,
+ pattern=if causality == "" or show_causality == false then LinePattern.None else LinePattern.Solid,
+ smooth=Smooth.Bezier)}));
+end BaseSensor;
diff --git a/MetroscopeModelingLibrary/Partial/Sensors_Control/DeltaPressureSensor.mo b/MetroscopeModelingLibrary/Partial/Sensors_Control/DeltaPressureSensor.mo
new file mode 100644
index 00000000..c130d1c0
--- /dev/null
+++ b/MetroscopeModelingLibrary/Partial/Sensors_Control/DeltaPressureSensor.mo
@@ -0,0 +1,95 @@
+within MetroscopeModelingLibrary.Partial.Sensors_Control;
+partial model DeltaPressureSensor
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.OutlineSensorIcon;
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.DeltaPressureIcon;
+ replaceable package Medium =
+ MetroscopeModelingLibrary.Partial.Media.PartialMedium;
+
+
+ parameter Real DP_start = 0.05 "Write here the build value of the quantity. This value will be used in the simulation.";
+
+ parameter String display_unit = "bar" "Specify the display unit"
+ annotation(choices(choice="bar", choice="mbar", choice="psi", choice="Pa"));
+ parameter String signal_unit = "bar" "Specify the signal unit. This should be the unit of DP_start and of the tag linked to the sensor." annotation(choices(choice="bar", choice="mbar", choice="psi", choice="Pa"));
+
+ parameter Utilities.Units.DifferentialPressure DP_0=1e4;
+ Utilities.Units.DifferentialPressure DP(start=DP_0, nominal=DP_0);
+ Real DP_bar(unit="bar", start=DP_0*Utilities.Constants.Pa_to_barA); // Pressure difference in bar
+ Real DP_mbar(unit="mbar", start=DP_0*Utilities.Constants.Pa_to_mbar); // Pressure difference in mbar
+ Real DP_psi(start=DP_0*Utilities.Constants.Pa_to_psiA); // Pressure difference in PSI
+
+ // Icon parameters
+ parameter String sensor_function = "Unidentified" "Specify if the sensor is a BC or used for calibration"
+ annotation(choices(choice="Unidentified" "No specific function", choice="BC" "Boundary condition", choice="Calibration" "Used for calibration"));
+ parameter String causality = "" "Specify which parameter is calibrated by this sensor";
+ outer parameter Boolean show_causality = true "Used to show or not the causality";
+ outer parameter Boolean display_output = false "Used to switch ON or OFF output display";
+
+
+ replaceable Partial.Connectors.FluidInlet C_in(redeclare package Medium = Medium) annotation (Placement(transformation(extent={{-110,-10},{-90,10}})));
+ replaceable Partial.Connectors.FluidOutlet C_out(redeclare package Medium = Medium) annotation (Placement(transformation(extent={{90,-10},{110,10}})));
+ Utilities.Interfaces.GenericReal DP_sensor(start=DP_start) annotation (Placement(transformation(
+ extent={{-10,-10},{10,10}},
+ rotation=90,
+ origin={0,100}), iconTransformation(
+ extent={{-10,-10},{10,10}},
+ rotation=90,
+ origin={0,100})));
+equation
+ // No inlet except pressure
+ C_in.Q = 0;
+ C_in.h_outflow = 0;
+ C_in.Xi_outflow = zeros(Medium.nXi);
+
+ // No outlet except pressure
+ C_out.Q = 0;
+ C_out.h_outflow = 0;
+ C_out.Xi_outflow = zeros(Medium.nXi);
+
+ // Conversions
+ DP = C_out.P - C_in.P;
+ DP_bar =DP*Utilities.Constants.Pa_to_barA;
+ DP_mbar =DP*Utilities.Constants.Pa_to_mbar;
+ DP_psi =DP*Utilities.Constants.Pa_to_psiA;
+
+ if signal_unit == "bar" then
+ DP_sensor = DP_bar;
+ elseif signal_unit == "mbar" then
+ DP_sensor = DP_mbar;
+ elseif signal_unit == "psi" then
+ DP_sensor = DP_psi;
+ else
+ DP_sensor = DP;
+ end if;
+
+ annotation (Icon(graphics={Text(
+ extent={{-100,-160},{102,-200}},
+ textColor={0,0,0},
+ textString=if display_output then
+ if display_unit == "mbar" then DynamicSelect("",String(DP_mbar)+" mbar")
+ else if display_unit == "psi" then DynamicSelect("",String(DP_psi)+" psi")
+ else if display_unit == "Pa" then DynamicSelect("",String(DP)+" Pa")
+ else DynamicSelect("",String(DP_bar)+" bar")
+ else ""),
+ Rectangle(
+ extent={{-100,100},{100,-100}},
+ lineColor={0,0,0},
+ pattern=LinePattern.None,
+ fillColor=if sensor_function == "BC" then {238, 46, 47} elseif sensor_function == "Calibration" then {107, 175, 17} else {255, 255, 255},
+ fillPattern=if sensor_function == "BC" or sensor_function == "Calibration" then FillPattern.Solid else FillPattern.None),
+ Text(
+ extent={{-100,160},{100,120}},
+ textColor={85,170,255},
+ textString="%name"),
+ Text(
+ extent={{-100,-120},{100,-160}},
+ textColor={107,175,17},
+ textString=if show_causality then "%causality" else ""),
+ Line(
+ points={{100,-60},{140,-60},{140,-140},{100,-140}},
+ color={107,175,17},
+ arrow=if causality == "" or show_causality == false then {Arrow.None,Arrow.None} else {Arrow.None,Arrow.Filled},
+ thickness=0.5,
+ pattern=if causality == "" or show_causality == false then LinePattern.None else LinePattern.Solid,
+ smooth=Smooth.Bezier)}));
+end DeltaPressureSensor;
diff --git a/MetroscopeModelingLibrary/Partial/Sensors_Control/FlowSensor.mo b/MetroscopeModelingLibrary/Partial/Sensors_Control/FlowSensor.mo
new file mode 100644
index 00000000..e7328cb0
--- /dev/null
+++ b/MetroscopeModelingLibrary/Partial/Sensors_Control/FlowSensor.mo
@@ -0,0 +1,68 @@
+within MetroscopeModelingLibrary.Partial.Sensors_Control;
+partial model FlowSensor
+ extends BaseSensor(faulty_flow_rate=faulty) annotation(IconMap(primitivesVisible=true));
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.InlineSensorIcon;
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.FlowIcon;
+
+ import MetroscopeModelingLibrary.Utilities.Units;
+ import MetroscopeModelingLibrary.Utilities.Constants;
+
+
+ parameter Units.PositiveMassFlowRate Q_start = 100 "Write here the build value of the quantity. This value will be used in the simulation.";
+ parameter String signal_unit = "kg/s" "Specify the signal unit. This should be the unit of Q_start and of the tag linked to the sensor." annotation(choices(choice="kg/s", choice="m3/s", choice="l/m", choice="t/h", choice="lb/s", choice="Mlb/h"));
+
+ parameter String display_unit = "kg/s" "Specify the display unit" annotation(choices(choice="kg/s", choice="m3/s", choice="l/m", choice="t/h", choice="lb/s", choice="Mlb/h"));
+
+
+ Units.VolumeFlowRate Qv;
+ Real Q_lm; // Flow rate in liter per minute;
+
+ Real Q_th(start=Q_0*Constants.kgs_to_th, nominal=Q_0*Constants.kgs_to_th); // Flow rate in tons per hour
+ Real Q_lbs(start=Q_0*Constants.kgs_to_lbs, nominal=Q_0*Constants.kgs_to_lbs); // Flow rate in pounds per second;
+ Real Q_Mlbh(start=Q_0*Constants.kgs_to_Mlbh, nominal=Q_0*Constants.kgs_to_Mlbh); // Flow rate in pounds per second;
+
+ // Failure modes
+ parameter Boolean faulty = false;
+
+ outer parameter Boolean display_output = true "Used to switch ON or OFF output display";
+
+
+ Utilities.Interfaces.GenericReal Q_sensor(start=Q_start) annotation (Placement(transformation(
+ extent={{-10,-10},{10,10}},
+ rotation=90,
+ origin={0,100}), iconTransformation(
+ extent={{-10,-10},{10,10}},
+ rotation=90,
+ origin={0,100})));
+equation
+ Qv = Q / Medium.density(state);
+ Q_lm = Qv * Constants.m3s_to_lm;
+ Q_th = Q * Constants.kgs_to_th;
+ Q_lbs = Q * Constants.kgs_to_lbs;
+ Q_Mlbh = Q * Constants.kgs_to_Mlbh;
+
+ if signal_unit == "l/m" then
+ Q_sensor = Q_lm;
+ elseif signal_unit == "t/h" then
+ Q_sensor = Q_th;
+ elseif signal_unit == "lb/s" then
+ Q_sensor = Q_lbs;
+ elseif signal_unit == "Mlbh" then
+ Q_sensor = Q_Mlbh;
+ else
+ Q_sensor = Q;
+ end if;
+
+ connect(Q_sensor, Q_sensor) annotation (Line(points={{0,100},{0,100}}, color={0,0,127}));
+ annotation (Icon(graphics={Text(
+ extent={{-100,-160},{102,-200}},
+ textColor={0,0,0},
+ textString=if display_output then
+ if display_unit == "m3/s" then DynamicSelect("",String(Qv)+" m3/s")
+ else if display_unit == "l/m" then DynamicSelect("",String(Q_lm)+" l/m")
+ else if display_unit == "t/h" then DynamicSelect("",String(Q_th)+" t/h")
+ else if display_unit == "lb/s" then DynamicSelect("",String(Q_lbs)+" lb/s")
+ else if display_unit == "Mlb/h" then DynamicSelect("",String(Q_Mlbh)+" Mlb/h")
+ else DynamicSelect("",String(Q)+" kg/s")
+ else "")}));
+end FlowSensor;
diff --git a/MetroscopeModelingLibrary/Partial/Sensors_Control/PressureSensor.mo b/MetroscopeModelingLibrary/Partial/Sensors_Control/PressureSensor.mo
new file mode 100644
index 00000000..284dcbcd
--- /dev/null
+++ b/MetroscopeModelingLibrary/Partial/Sensors_Control/PressureSensor.mo
@@ -0,0 +1,86 @@
+within MetroscopeModelingLibrary.Partial.Sensors_Control;
+partial model PressureSensor
+ extends BaseSensor annotation(IconMap(primitivesVisible=true));
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.InlineSensorIcon;
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.PressureIcon;
+
+ import MetroscopeModelingLibrary.Utilities.Units;
+ import MetroscopeModelingLibrary.Utilities.Constants;
+
+ parameter Real P_start = 1 "Write here the build value of the quantity. This value will be used in the simulation.";
+ parameter String signal_unit = "barA" "Specify the signal unit. This should be the unit of P_start and of the tag linked to the sensor." annotation(choices(choice="barA", choice="barG", choice="mbar", choice="MPaA", choice="kPaA"));
+
+ parameter String display_unit = "barA" "Specify the display unit"
+ annotation(choices(choice="barA", choice="barG", choice="mbar", choice="MPaA", choice="kPaA",choice="psiA",choice="psiG",choice="inHg"));
+
+
+ // All nominal values of gauge pressures are set to the absolute pressure value to avoid zero nominal value
+
+ Real P_barG(nominal=P_0, start=P_0*Constants.Pa_to_barA - Constants.atmospheric_pressure_in_bar); // Relative (gauge) pressure in bar
+
+ Real P_psiG(nominal = P_0*Constants.Pa_to_psiA, start = P_0*Constants.Pa_to_psiA - Constants.P0_psiG_in_psiA); // Relative (gauge) pressure in psi
+ Real P_MPaG(nominal = P_0*Constants.Pa_to_MPaA, start = P_0*Constants.Pa_to_MPaA - Constants.P0_MPaG_in_MPaA); // Relative (gauge) pressure in mega pascal
+ Real P_kPaG(nominal = P_0*Constants.Pa_to_kPaA, start = P_0*Constants.Pa_to_kPaA - Constants.P0_kPaG_in_kPaA); // Relative (gauge) pressure in kilo pascal
+ Real P_barA(nominal = P_0*Constants.Pa_to_barA, start = P_0*Constants.Pa_to_barA, unit="bar"); // Absolute pressure in bar
+ Real P_psiA(nominal = P_0*Constants.Pa_to_psiA, start = P_0*Constants.Pa_to_psiA); // Absolute pressure in psi
+ Real P_MPaA(nominal = P_0*Constants.Pa_to_MPaA, start = P_0*Constants.Pa_to_MPaA); // Absolute pressure in mega pascal
+ Real P_kPaA(nominal = P_0*Constants.Pa_to_kPaA, start = P_0*Constants.Pa_to_kPaA); // Absolute pressure in kilo pascal
+
+ Real P_inHg(nominal = P_0*Constants.Pa_to_inHg, start = P_0*Constants.Pa_to_inHg); // Absolute pressure in inches of mercury
+ Real P_mbar(nominal = P_0*Constants.Pa_to_mbar, start = P_0*Constants.Pa_to_mbar, unit="mbar"); // Absolute pressure in milibar
+
+ outer parameter Boolean display_output = true "Used to switch ON or OFF output display";
+
+Utilities.Interfaces.GenericReal P_sensor(start=P_start)
+ annotation (Placement(transformation(
+ extent={{-10,-10},{10,10}},
+ rotation=90,
+ origin={0,100}), iconTransformation(
+ extent={{-10,-10},{10,10}},
+ rotation=90,
+ origin={0,100})));
+equation
+ P_barA = P * Constants.Pa_to_barA;
+ P_psiA = P * Constants.Pa_to_psiA;
+ P_MPaA = P * Constants.Pa_to_MPaA;
+ P_kPaA = P * Constants.Pa_to_kPaA;
+
+ P_barG =P_barA - Constants.atmospheric_pressure_in_bar;
+ P_psiG = P_psiA - Constants.P0_psiG_in_psiA;
+ P_MPaG = P_MPaA - Constants.P0_MPaG_in_MPaA;
+ P_kPaG = P_kPaA - Constants.P0_kPaG_in_kPaA;
+
+ P_mbar = P * Constants.Pa_to_mbar;
+ P_inHg = P * Constants.Pa_to_inHg;
+
+ if signal_unit == "barA" then
+ P_sensor = P_barA;
+ elseif signal_unit == "barG" then
+ P_sensor = P_barG;
+ elseif signal_unit == "mbar" then
+ P_sensor = P_mbar;
+ elseif signal_unit == "MPaA" then
+ P_sensor = P_MPaA;
+ elseif signal_unit == "kPaA" then
+ P_sensor = P_kPaA;
+ elseif signal_unit == "psiG" then
+ P_sensor=P_psiG;
+ elseif signal_unit == "psiA" then
+ P_sensor=P_psiA;
+ elseif signal_unit == "inHg" then
+ P_sensor=P_inHg;
+ else
+ P_sensor = P;
+ end if;
+
+ annotation (Icon(graphics={Text(
+ extent={{-100,-160},{102,-200}},
+ textColor={0,0,0},
+ textString=if display_output then
+ if display_unit == "barG" then DynamicSelect("",String(P_barG)+" barG")
+ else if display_unit == "mbar" then DynamicSelect("",String(P_mbar)+" mbar")
+ else if display_unit == "MPaA" then DynamicSelect("",String(P_MPaA)+" MPaA")
+ else if display_unit == "kPaA" then DynamicSelect("",String(P_kPaA)+" kPaA")
+ else DynamicSelect("",String(P_barA)+" barA")
+ else "")}));
+end PressureSensor;
diff --git a/MetroscopeModelingLibrary/Partial/Sensors_Control/TemperatureSensor.mo b/MetroscopeModelingLibrary/Partial/Sensors_Control/TemperatureSensor.mo
new file mode 100644
index 00000000..45677e9b
--- /dev/null
+++ b/MetroscopeModelingLibrary/Partial/Sensors_Control/TemperatureSensor.mo
@@ -0,0 +1,61 @@
+within MetroscopeModelingLibrary.Partial.Sensors_Control;
+partial model TemperatureSensor
+ extends BaseSensor annotation(IconMap(primitivesVisible=true));
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.InlineSensorIcon;
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.TemperatureIcon;
+
+ import MetroscopeModelingLibrary.Utilities.Units;
+ import MetroscopeModelingLibrary.Utilities.Constants;
+
+ // Initialization parameters
+ parameter Real T_start = 300 "Write here the build value of the quantity. This value will be used in the simulation.";
+
+ parameter String signal_unit = "degC" "Specify the signal unit. This should be the unit of T_start and of the tag linked to the sensor." annotation (choices(choice="degC", choice="K", choice="degF"));
+
+ parameter String display_unit = "degC" "Specify the display unit"
+ annotation(choices(choice="degC", choice="K", choice="degF"));
+
+ parameter Units.Temperature T_0 = 300;
+
+
+ Units.Temperature T(start=T_0); // Temperature in SI Units : K
+ Real T_degC(unit="degC", start=T_0 +Constants.T0_degC_in_K, nominal=T_0 +Constants.T0_degC_in_K); // Temperature in degC
+ Real T_degF(unit="degF",
+ start=(T_0 +Constants.T0_degC_in_K) *Constants.degC_to_degF +Constants.T0_degC_in_degF,
+ nominal=(T_0 +Constants.T0_degC_in_K) *Constants.degC_to_degF +Constants.T0_degC_in_degF); // Temperature in degF
+
+
+ outer parameter Boolean display_output = true "Used to switch ON or OFF output display";
+
+
+ Utilities.Interfaces.GenericReal T_sensor(start=T_start) annotation (Placement(transformation(
+ extent={{-10,-10},{10,10}},
+ rotation=90,
+ origin={0,100}), iconTransformation(
+ extent={{-10,-10},{10,10}},
+ rotation=90,
+ origin={0,100})));
+equation
+ T =flow_model.T;
+ T_degC +Constants.T0_degC_in_K = T; // Conversion K to Celsius
+ T_degF = T_degC*Constants.degC_to_degF +Constants.T0_degC_in_degF; // Conversion Celsius to Farenheit
+
+ if signal_unit == "degC" then
+ T_sensor = T_degC;
+ elseif signal_unit == "degF" then
+ T_sensor = T_degF;
+ elseif signal_unit == "K" then
+ T_sensor = T;
+ else
+ assert(false, "Unavailable unit selected for %name");
+ end if;
+
+ annotation (Icon(graphics={Text(
+ extent={{-100,-160},{102,-200}},
+ textColor={0,0,0},
+ textString=if display_output then
+ if display_unit == "K" then DynamicSelect("",String(T)+" K")
+ else if display_unit == "degF" then DynamicSelect("",String(T_degF)+" degF")
+ else DynamicSelect("",String(T_degC)+" degC")
+ else "")}));
+end TemperatureSensor;
diff --git a/MetroscopeModelingLibrary/Partial/Sensors_Control/package.mo b/MetroscopeModelingLibrary/Partial/Sensors_Control/package.mo
new file mode 100644
index 00000000..e5c52712
--- /dev/null
+++ b/MetroscopeModelingLibrary/Partial/Sensors_Control/package.mo
@@ -0,0 +1,55 @@
+within MetroscopeModelingLibrary.Partial;
+package Sensors_Control
+
+annotation (Icon(graphics={
+ Rectangle(
+ lineColor={200,200,200},
+ fillColor={248,248,248},
+ fillPattern=FillPattern.HorizontalCylinder,
+ extent={{-100,-100},{100,100}},
+ radius=25.0),
+ Ellipse(
+ extent={{-80,80},{80,-80}},
+ lineColor={215,215,215},
+ fillColor={215,215,215},
+ fillPattern=FillPattern.Solid),
+ Ellipse(
+ extent={{-55,55},{55,-55}},
+ lineColor={255,255,255},
+ fillColor={255,255,255},
+ fillPattern=FillPattern.Solid),
+ Rectangle(
+ lineColor={128,128,128},
+ extent={{-100,-100},{100,100}},
+ radius=25.0),
+ Ellipse(
+ fillColor={245,245,245},
+ fillPattern=FillPattern.Solid,
+ extent={{-56,-56},{56,56}}),
+ Line(points={{0,56},{0,26}}),
+ Line(points={{28,8},{48.2,29.3}}),
+ Line(points={{-28,10},{-48.2,29.3}}),
+ Ellipse(
+ lineColor={64,64,64},
+ fillColor={255,255,255},
+ extent={{-12,-50},{12,-26}}),
+ Polygon(
+ rotation=-17.5,
+ fillColor={64,64,64},
+ pattern=LinePattern.None,
+ fillPattern=FillPattern.Solid,
+ points={{-5.0,0.0},{-2.0,60.0},{0.0,65.0},{2.0,60.0},{5.0,0.0}},
+ origin={2,-34}),
+ Ellipse(
+ fillColor={64,64,64},
+ pattern=LinePattern.None,
+ fillPattern=FillPattern.Solid,
+ extent={{-7,-45},{7,-31}}),
+ Rectangle(
+ extent={{-61.1127,14.0711},{61.1127,-14.0711}},
+ lineColor={215,215,215},
+ fillColor={215,215,215},
+ fillPattern=FillPattern.Solid,
+ rotation=45,
+ origin={2.83704,2.73655})}));
+end Sensors_Control;
diff --git a/MetroscopeModelingLibrary/Partial/Sensors_Control/package.order b/MetroscopeModelingLibrary/Partial/Sensors_Control/package.order
new file mode 100644
index 00000000..bbacbddf
--- /dev/null
+++ b/MetroscopeModelingLibrary/Partial/Sensors_Control/package.order
@@ -0,0 +1,5 @@
+BaseSensor
+TemperatureSensor
+PressureSensor
+FlowSensor
+DeltaPressureSensor
diff --git a/MetroscopeModelingLibrary/Partial/package.order b/MetroscopeModelingLibrary/Partial/package.order
index ff344d83..61d96ffa 100644
--- a/MetroscopeModelingLibrary/Partial/package.order
+++ b/MetroscopeModelingLibrary/Partial/package.order
@@ -3,6 +3,7 @@ Connectors
BoundaryConditions
BaseClasses
Sensors
+Sensors_Control
Pipes
Machines
HeatExchangers
diff --git a/MetroscopeModelingLibrary/Power/Machines/Generator.mo b/MetroscopeModelingLibrary/Power/Machines/Generator.mo
index 1998b206..951f33da 100644
--- a/MetroscopeModelingLibrary/Power/Machines/Generator.mo
+++ b/MetroscopeModelingLibrary/Power/Machines/Generator.mo
@@ -3,7 +3,7 @@ model Generator
import MetroscopeModelingLibrary.Utilities.Units;
import MetroscopeModelingLibrary.Utilities.Units.Inputs;
- Inputs.InputYield eta(start=0.998) "Generator's efficiency";
+ parameter Units.Yield eta = 0.998 "Generator's efficiency";
Units.NegativePower W_elec "Electrical power produced by the generator";
Units.PositivePower W_shaft "Mechanical power received by the generator";
diff --git a/MetroscopeModelingLibrary/RefMoistAir/Pipes/Pipe.mo b/MetroscopeModelingLibrary/RefMoistAir/Pipes/Pipe.mo
index 949a1139..312eb213 100644
--- a/MetroscopeModelingLibrary/RefMoistAir/Pipes/Pipe.mo
+++ b/MetroscopeModelingLibrary/RefMoistAir/Pipes/Pipe.mo
@@ -2,7 +2,8 @@ within MetroscopeModelingLibrary.RefMoistAir.Pipes;
model Pipe
extends MetroscopeModelingLibrary.Utilities.Icons.KeepingScaleIcon;
package RefMoistAirMedium = MetroscopeModelingLibrary.Utilities.Media.RefMoistAirMedium;
- extends Partial.Pipes.Pipe(
+ extends Partial.Pipes.FrictionPipe
+ (
redeclare MetroscopeModelingLibrary.RefMoistAir.Connectors.Inlet C_in,
redeclare MetroscopeModelingLibrary.RefMoistAir.Connectors.Outlet C_out,
redeclare package Medium = RefMoistAirMedium) annotation(IconMap(primitivesVisible=false));
diff --git a/MetroscopeModelingLibrary/Sensors_Control/FlueGases/DeltaPressureSensor.mo b/MetroscopeModelingLibrary/Sensors_Control/FlueGases/DeltaPressureSensor.mo
new file mode 100644
index 00000000..910ed0cc
--- /dev/null
+++ b/MetroscopeModelingLibrary/Sensors_Control/FlueGases/DeltaPressureSensor.mo
@@ -0,0 +1,13 @@
+within MetroscopeModelingLibrary.Sensors_Control.FlueGases;
+model DeltaPressureSensor
+ package FlueGasesMedium = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium;
+
+ extends Partial.Sensors_Control.DeltaPressureSensor(
+ redeclare MetroscopeModelingLibrary.FlueGases.Connectors.Inlet C_in,
+ redeclare MetroscopeModelingLibrary.FlueGases.Connectors.Outlet C_out,
+ redeclare package Medium = FlueGasesMedium) annotation (IconMap(primitivesVisible=true));
+
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.OutlineSensorIcon;
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.DeltaPressureIcon;
+
+end DeltaPressureSensor;
diff --git a/MetroscopeModelingLibrary/Sensors_Control/FlueGases/FlowSensor.mo b/MetroscopeModelingLibrary/Sensors_Control/FlueGases/FlowSensor.mo
new file mode 100644
index 00000000..092262cd
--- /dev/null
+++ b/MetroscopeModelingLibrary/Sensors_Control/FlueGases/FlowSensor.mo
@@ -0,0 +1,14 @@
+within MetroscopeModelingLibrary.Sensors_Control.FlueGases;
+model FlowSensor
+ package FlueGasesMedium = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium;
+
+ extends Partial.Sensors_Control.FlowSensor(
+ redeclare MetroscopeModelingLibrary.FlueGases.Connectors.Inlet C_in,
+ redeclare MetroscopeModelingLibrary.FlueGases.Connectors.Outlet C_out,
+ redeclare MetroscopeModelingLibrary.FlueGases.BaseClasses.IsoPHFlowModel flow_model,
+ redeclare package Medium = FlueGasesMedium) annotation (IconMap(primitivesVisible=true));
+
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.FlueGasesSensorIcon;
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.FlowIcon;
+
+end FlowSensor;
diff --git a/MetroscopeModelingLibrary/Sensors_Control/FlueGases/PressureSensor.mo b/MetroscopeModelingLibrary/Sensors_Control/FlueGases/PressureSensor.mo
new file mode 100644
index 00000000..f256fd27
--- /dev/null
+++ b/MetroscopeModelingLibrary/Sensors_Control/FlueGases/PressureSensor.mo
@@ -0,0 +1,14 @@
+within MetroscopeModelingLibrary.Sensors_Control.FlueGases;
+model PressureSensor
+ package FlueGasesMedium = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium;
+
+ extends Partial.Sensors_Control.PressureSensor(
+ redeclare MetroscopeModelingLibrary.FlueGases.Connectors.Inlet C_in,
+ redeclare MetroscopeModelingLibrary.FlueGases.Connectors.Outlet C_out,
+ redeclare MetroscopeModelingLibrary.FlueGases.BaseClasses.IsoPHFlowModel flow_model,
+ redeclare package Medium = FlueGasesMedium) annotation (IconMap(primitivesVisible=true));
+
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.FlueGasesSensorIcon;
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.PressureIcon;
+
+end PressureSensor;
diff --git a/MetroscopeModelingLibrary/Sensors_Control/FlueGases/TemperatureSensor.mo b/MetroscopeModelingLibrary/Sensors_Control/FlueGases/TemperatureSensor.mo
new file mode 100644
index 00000000..f65dc42b
--- /dev/null
+++ b/MetroscopeModelingLibrary/Sensors_Control/FlueGases/TemperatureSensor.mo
@@ -0,0 +1,14 @@
+within MetroscopeModelingLibrary.Sensors_Control.FlueGases;
+model TemperatureSensor
+ package FlueGasesMedium = MetroscopeModelingLibrary.Utilities.Media.FlueGasesMedium;
+
+ extends Partial.Sensors_Control.TemperatureSensor(
+ redeclare MetroscopeModelingLibrary.FlueGases.Connectors.Inlet C_in,
+ redeclare MetroscopeModelingLibrary.FlueGases.Connectors.Outlet C_out,
+ redeclare MetroscopeModelingLibrary.FlueGases.BaseClasses.IsoPHFlowModel flow_model,
+ redeclare package Medium = FlueGasesMedium) annotation (IconMap(primitivesVisible=true));
+
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.FlueGasesSensorIcon;
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.TemperatureIcon;
+
+end TemperatureSensor;
diff --git a/MetroscopeModelingLibrary/Sensors_Control/FlueGases/package.mo b/MetroscopeModelingLibrary/Sensors_Control/FlueGases/package.mo
new file mode 100644
index 00000000..90a218b3
--- /dev/null
+++ b/MetroscopeModelingLibrary/Sensors_Control/FlueGases/package.mo
@@ -0,0 +1,63 @@
+within MetroscopeModelingLibrary.Sensors_Control;
+package FlueGases
+
+ annotation (Icon(graphics={
+ Rectangle(
+ lineColor={200,200,200},
+ fillColor={248,248,248},
+ fillPattern=FillPattern.HorizontalCylinder,
+ extent={{-100,-100},{100,100}},
+ radius=25.0),
+ Rectangle(
+ lineColor={128,128,128},
+ extent={{-100,-100},{100,100}},
+ radius=25.0),
+ Rectangle(
+ lineColor={200,200,200},
+ fillColor={248,248,248},
+ fillPattern=FillPattern.HorizontalCylinder,
+ extent={{-100,-100},{100,100}},
+ radius=25.0),
+ Rectangle(
+ lineColor={128,128,128},
+ extent={{-100,-100},{100,100}},
+ radius=25.0),
+ Ellipse(
+ lineColor={102,102,102},
+ fillColor={204,204,204},
+ pattern=LinePattern.None,
+ fillPattern=FillPattern.Sphere,
+ extent={{-60,-60},{60,60}}),
+ Rectangle(
+ lineColor={200,200,200},
+ fillColor={248,248,248},
+ fillPattern=FillPattern.HorizontalCylinder,
+ extent={{-100,-100},{100,100}},
+ radius=25.0),
+ Rectangle(
+ lineColor={128,128,128},
+ extent={{-100,-100},{100,100}},
+ radius=25.0),
+ Ellipse(
+ lineColor={102,102,102},
+ fillColor={204,204,204},
+ pattern=LinePattern.None,
+ fillPattern=FillPattern.Sphere,
+ extent={{-60,-60},{60,60}}),
+ Rectangle(
+ lineColor={200,200,200},
+ fillColor={248,248,248},
+ fillPattern=FillPattern.HorizontalCylinder,
+ extent={{-100,-100},{100,100}},
+ radius=25.0),
+ Rectangle(
+ lineColor={128,128,128},
+ extent={{-100,-100},{100,100}},
+ radius=25.0),
+ Ellipse(
+ lineColor={102,102,102},
+ fillColor={95,95,95},
+ pattern=LinePattern.None,
+ fillPattern=FillPattern.Solid,
+ extent={{-60,-60},{60,60}})}));
+end FlueGases;
diff --git a/MetroscopeModelingLibrary/Sensors_Control/FlueGases/package.order b/MetroscopeModelingLibrary/Sensors_Control/FlueGases/package.order
new file mode 100644
index 00000000..2df6680e
--- /dev/null
+++ b/MetroscopeModelingLibrary/Sensors_Control/FlueGases/package.order
@@ -0,0 +1,4 @@
+TemperatureSensor
+PressureSensor
+DeltaPressureSensor
+FlowSensor
diff --git a/MetroscopeModelingLibrary/Sensors_Control/Fuel/Chromatograph.mo b/MetroscopeModelingLibrary/Sensors_Control/Fuel/Chromatograph.mo
new file mode 100644
index 00000000..de3058bc
--- /dev/null
+++ b/MetroscopeModelingLibrary/Sensors_Control/Fuel/Chromatograph.mo
@@ -0,0 +1,118 @@
+within MetroscopeModelingLibrary.Sensors_Control.Fuel;
+model Chromatograph
+ Utilities.Interfaces.GenericReal X_CO2 annotation (Placement(transformation(
+ extent={{-10,-10},{10,10}},
+ rotation=90,
+ origin={20,40}), iconTransformation(
+ extent={{-16,-16},{16,16}},
+ rotation=90,
+ origin={84,36})));
+ package FuelMedium = MetroscopeModelingLibrary.Utilities.Media.FuelMedium;
+
+ extends Partial.Sensors.BaseSensor(
+ redeclare MetroscopeModelingLibrary.Fuel.Connectors.Inlet C_in,
+ redeclare MetroscopeModelingLibrary.Fuel.Connectors.Outlet C_out,
+ redeclare MetroscopeModelingLibrary.Fuel.BaseClasses.IsoPHFlowModel flow_model,
+ redeclare package Medium = FuelMedium) annotation (IconMap(primitivesVisible=true));
+
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.FuelSensorIcon;
+
+ // Atomic mass
+ constant Real amC=12.01115 "Carbon atomic mass";
+ constant Real amH=1.00797 "Hydrogen atomic mass";
+ constant Real amO=15.9994 "Oxygen atomic mass";
+ constant Real amN=14.0067 "Nitrogen atomic mass";
+
+ // Molar mass of species of interest
+ Real amCH4 "CH4 molecular mass";
+ Real amC2H6 "C2H6 molecular mass";
+ Real amC3H8 "C3H8 molecular mass";
+ Real amC4H10 "C4H10 molecular mass";
+ Real amCO2 "CO2 molecular mass";
+ Real amN2 "H2O molecular mass";
+
+ // Mole fractions
+ Real X_molar_CH4(start=0.92);
+ Real X_molar_C2H6(start=0.048);
+ Real X_molar_C3H8(start=0.005);
+ Real X_molar_C4H10_n_butane(start=0.002);
+ Real X_molar_N2(start=0.015);
+ Real X_molar_CO2(start=0.01);
+
+ // Mean molecular mass
+ Real mean_molecular_mass(start=17);
+
+ Utilities.Interfaces.GenericReal X_C2H6 annotation (Placement(transformation(
+ extent={{-10,-10},{10,10}},
+ rotation=90,
+ origin={-60,40}), iconTransformation(
+ extent={{-16,-16},{16,16}},
+ rotation=90,
+ origin={-60,76})));
+ Utilities.Interfaces.GenericReal X_C3H8 annotation (Placement(transformation(
+ extent={{-10,-10},{10,10}},
+ rotation=90,
+ origin={-40,40}), iconTransformation(
+ extent={{-16,-16},{16,16}},
+ rotation=90,
+ origin={-22,104})));
+ Utilities.Interfaces.GenericReal X_C4H10_n_butane annotation (Placement(
+ transformation(
+ extent={{-10,-10},{10,10}},
+ rotation=90,
+ origin={-20,40}), iconTransformation(
+ extent={{-16,-16},{16,16}},
+ rotation=90,
+ origin={20,104})));
+ Utilities.Interfaces.GenericReal X_N2 annotation (Placement(transformation(
+ extent={{-10,-10},{10,10}},
+ rotation=90,
+ origin={0,40}), iconTransformation(
+ extent={{-16,-16},{16,16}},
+ rotation=90,
+ origin={60,78})));
+equation
+
+ // Molar mass of species of interest
+public
+ Utilities.Interfaces.GenericReal X_CH4 annotation (Placement(transformation(
+ extent={{-10,-10},{10,10}},
+ rotation=90,
+ origin={-80,40}), iconTransformation(
+ extent={{-16,-16},{16,16}},
+ rotation=90,
+ origin={-84,38})));
+equation
+ amCH4 = amC + 4*amH;
+ amC2H6 = 2*amC + 6*amH;
+ amC3H8 = 3*amC + 8*amH;
+ amC4H10 = 4*amC + 10*amH;
+ amN2 = 2*amN;
+ amCO2 = amC + 2*amO;
+
+ // Composition mass fraction
+ X_CH4/100 = Xi[1]; // methane
+ X_C2H6/100 = Xi[2]; // ethane
+ X_C3H8/100 = Xi[3]; // propane
+ X_C4H10_n_butane/100 = Xi[4]; // butane
+ X_N2/100 = Xi[5]; // nitrogen
+ X_CO2/100 = Xi[6]; // carbon dioxyde
+
+ // Mean Molecular Mass: this gives the correct results only if the molar fraction is given as an input, if the mass fraction is given, this quantity is useless
+ mean_molecular_mass = X_molar_CH4*amCH4 + X_molar_C2H6*amC2H6 + X_molar_C3H8*amC3H8 + X_molar_C4H10_n_butane*amC4H10 + X_molar_N2*amN2 + X_molar_CO2*amCO2;
+
+ // Mass and mole fraction relation
+ X_molar_CH4 = X_CH4/amCH4 * mean_molecular_mass;
+ X_molar_C2H6 = X_C2H6/amC2H6 * mean_molecular_mass;
+ X_molar_C3H8 = X_C3H8/amC3H8 * mean_molecular_mass;
+ X_molar_C4H10_n_butane = X_C4H10_n_butane/amC4H10 * mean_molecular_mass;
+ X_molar_N2 = X_N2/amN2 * mean_molecular_mass;
+ X_molar_CO2 = X_CO2/amCO2 * mean_molecular_mass;
+
+ annotation (Icon(coordinateSystem(extent={{-100,-100},{100,100}}),
+ graphics={Text(
+ extent={{-60,60},{60,-60}},
+ textColor={0,0,0},
+ textString="X")}), Diagram(coordinateSystem(extent={{-100,-100},{100,
+ 100}})));
+end Chromatograph;
diff --git a/MetroscopeModelingLibrary/Sensors_Control/Fuel/DeltaPressureSensor.mo b/MetroscopeModelingLibrary/Sensors_Control/Fuel/DeltaPressureSensor.mo
new file mode 100644
index 00000000..1b95c4c4
--- /dev/null
+++ b/MetroscopeModelingLibrary/Sensors_Control/Fuel/DeltaPressureSensor.mo
@@ -0,0 +1,13 @@
+within MetroscopeModelingLibrary.Sensors_Control.Fuel;
+model DeltaPressureSensor
+ package FuelMedium = MetroscopeModelingLibrary.Utilities.Media.FuelMedium;
+
+ extends Partial.Sensors_Control.DeltaPressureSensor(
+ redeclare MetroscopeModelingLibrary.Fuel.Connectors.Inlet C_in,
+ redeclare MetroscopeModelingLibrary.Fuel.Connectors.Outlet C_out,
+ redeclare package Medium = FuelMedium) annotation (IconMap(primitivesVisible=true));
+
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.OutlineSensorIcon;
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.DeltaPressureIcon;
+
+end DeltaPressureSensor;
diff --git a/MetroscopeModelingLibrary/Sensors_Control/Fuel/FlowSensor.mo b/MetroscopeModelingLibrary/Sensors_Control/Fuel/FlowSensor.mo
new file mode 100644
index 00000000..d6c076c2
--- /dev/null
+++ b/MetroscopeModelingLibrary/Sensors_Control/Fuel/FlowSensor.mo
@@ -0,0 +1,14 @@
+within MetroscopeModelingLibrary.Sensors_Control.Fuel;
+model FlowSensor
+ package FuelMedium = MetroscopeModelingLibrary.Utilities.Media.FuelMedium;
+
+ extends Partial.Sensors_Control.FlowSensor(
+ redeclare MetroscopeModelingLibrary.Fuel.Connectors.Inlet C_in,
+ redeclare MetroscopeModelingLibrary.Fuel.Connectors.Outlet C_out,
+ redeclare MetroscopeModelingLibrary.Fuel.BaseClasses.IsoPHFlowModel flow_model,
+ redeclare package Medium = FuelMedium) annotation (IconMap(primitivesVisible=true));
+
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.FuelSensorIcon;
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.FlowIcon;
+
+end FlowSensor;
diff --git a/MetroscopeModelingLibrary/Sensors_Control/Fuel/PressureSensor.mo b/MetroscopeModelingLibrary/Sensors_Control/Fuel/PressureSensor.mo
new file mode 100644
index 00000000..9106a6bb
--- /dev/null
+++ b/MetroscopeModelingLibrary/Sensors_Control/Fuel/PressureSensor.mo
@@ -0,0 +1,14 @@
+within MetroscopeModelingLibrary.Sensors_Control.Fuel;
+model PressureSensor
+ package FuelMedium = MetroscopeModelingLibrary.Utilities.Media.FuelMedium;
+
+ extends Partial.Sensors_Control.PressureSensor(
+ redeclare MetroscopeModelingLibrary.Fuel.Connectors.Inlet C_in,
+ redeclare MetroscopeModelingLibrary.Fuel.Connectors.Outlet C_out,
+ redeclare MetroscopeModelingLibrary.Fuel.BaseClasses.IsoPHFlowModel flow_model,
+ redeclare package Medium = FuelMedium) annotation (IconMap(primitivesVisible=true));
+
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.FuelSensorIcon;
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.PressureIcon;
+
+end PressureSensor;
diff --git a/MetroscopeModelingLibrary/Sensors_Control/Fuel/TemperatureSensor.mo b/MetroscopeModelingLibrary/Sensors_Control/Fuel/TemperatureSensor.mo
new file mode 100644
index 00000000..32d7f843
--- /dev/null
+++ b/MetroscopeModelingLibrary/Sensors_Control/Fuel/TemperatureSensor.mo
@@ -0,0 +1,14 @@
+within MetroscopeModelingLibrary.Sensors_Control.Fuel;
+model TemperatureSensor
+ package FuelMedium = MetroscopeModelingLibrary.Utilities.Media.FuelMedium;
+
+ extends Partial.Sensors_Control.TemperatureSensor(
+ redeclare MetroscopeModelingLibrary.Fuel.Connectors.Inlet C_in,
+ redeclare MetroscopeModelingLibrary.Fuel.Connectors.Outlet C_out,
+ redeclare MetroscopeModelingLibrary.Fuel.BaseClasses.IsoPHFlowModel flow_model,
+ redeclare package Medium = FuelMedium) annotation (IconMap(primitivesVisible=true));
+
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.FuelSensorIcon;
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.TemperatureIcon;
+
+end TemperatureSensor;
diff --git a/MetroscopeModelingLibrary/Sensors_Control/Fuel/package.mo b/MetroscopeModelingLibrary/Sensors_Control/Fuel/package.mo
new file mode 100644
index 00000000..487f4af3
--- /dev/null
+++ b/MetroscopeModelingLibrary/Sensors_Control/Fuel/package.mo
@@ -0,0 +1,63 @@
+within MetroscopeModelingLibrary.Sensors_Control;
+package Fuel
+
+ annotation (Icon(graphics={
+ Rectangle(
+ lineColor={200,200,200},
+ fillColor={248,248,248},
+ fillPattern=FillPattern.HorizontalCylinder,
+ extent={{-100,-100},{100,100}},
+ radius=25.0),
+ Rectangle(
+ lineColor={128,128,128},
+ extent={{-100,-100},{100,100}},
+ radius=25.0),
+ Rectangle(
+ lineColor={200,200,200},
+ fillColor={248,248,248},
+ fillPattern=FillPattern.HorizontalCylinder,
+ extent={{-100,-100},{100,100}},
+ radius=25.0),
+ Rectangle(
+ lineColor={128,128,128},
+ extent={{-100,-100},{100,100}},
+ radius=25.0),
+ Ellipse(
+ lineColor={102,102,102},
+ fillColor={204,204,204},
+ pattern=LinePattern.None,
+ fillPattern=FillPattern.Sphere,
+ extent={{-60,-60},{60,60}}),
+ Rectangle(
+ lineColor={200,200,200},
+ fillColor={248,248,248},
+ fillPattern=FillPattern.HorizontalCylinder,
+ extent={{-100,-100},{100,100}},
+ radius=25.0),
+ Rectangle(
+ lineColor={128,128,128},
+ extent={{-100,-100},{100,100}},
+ radius=25.0),
+ Ellipse(
+ lineColor={102,102,102},
+ fillColor={204,204,204},
+ pattern=LinePattern.None,
+ fillPattern=FillPattern.Sphere,
+ extent={{-60,-60},{60,60}}),
+ Rectangle(
+ lineColor={200,200,200},
+ fillColor={248,248,248},
+ fillPattern=FillPattern.HorizontalCylinder,
+ extent={{-100,-100},{100,100}},
+ radius=25.0),
+ Rectangle(
+ lineColor={128,128,128},
+ extent={{-100,-100},{100,100}},
+ radius=25.0),
+ Ellipse(
+ lineColor={102,102,102},
+ fillColor={213,213,0},
+ pattern=LinePattern.None,
+ fillPattern=FillPattern.Solid,
+ extent={{-60,-60},{60,60}})}));
+end Fuel;
diff --git a/MetroscopeModelingLibrary/Sensors_Control/Fuel/package.order b/MetroscopeModelingLibrary/Sensors_Control/Fuel/package.order
new file mode 100644
index 00000000..6645a5ce
--- /dev/null
+++ b/MetroscopeModelingLibrary/Sensors_Control/Fuel/package.order
@@ -0,0 +1,5 @@
+TemperatureSensor
+PressureSensor
+DeltaPressureSensor
+FlowSensor
+Chromatograph
diff --git a/MetroscopeModelingLibrary/Sensors_Control/MoistAir/DeltaPressureSensor.mo b/MetroscopeModelingLibrary/Sensors_Control/MoistAir/DeltaPressureSensor.mo
new file mode 100644
index 00000000..0995f336
--- /dev/null
+++ b/MetroscopeModelingLibrary/Sensors_Control/MoistAir/DeltaPressureSensor.mo
@@ -0,0 +1,13 @@
+within MetroscopeModelingLibrary.Sensors_Control.MoistAir;
+model DeltaPressureSensor
+ package MoistAirMedium = MetroscopeModelingLibrary.Utilities.Media.MoistAirMedium;
+
+ extends Partial.Sensors_Control.DeltaPressureSensor(
+ redeclare MetroscopeModelingLibrary.MoistAir.Connectors.Inlet C_in,
+ redeclare MetroscopeModelingLibrary.MoistAir.Connectors.Outlet C_out,
+ redeclare package Medium = MoistAirMedium) annotation (IconMap(primitivesVisible=true));
+
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.OutlineSensorIcon;
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.DeltaPressureIcon;
+
+end DeltaPressureSensor;
diff --git a/MetroscopeModelingLibrary/Sensors_Control/MoistAir/FlowSensor.mo b/MetroscopeModelingLibrary/Sensors_Control/MoistAir/FlowSensor.mo
new file mode 100644
index 00000000..eb8aa57d
--- /dev/null
+++ b/MetroscopeModelingLibrary/Sensors_Control/MoistAir/FlowSensor.mo
@@ -0,0 +1,14 @@
+within MetroscopeModelingLibrary.Sensors_Control.MoistAir;
+model FlowSensor
+ package MoistAirMedium = MetroscopeModelingLibrary.Utilities.Media.MoistAirMedium;
+
+ extends Partial.Sensors_Control.FlowSensor(
+ redeclare MetroscopeModelingLibrary.MoistAir.Connectors.Inlet C_in,
+ redeclare MetroscopeModelingLibrary.MoistAir.Connectors.Outlet C_out,
+ redeclare MetroscopeModelingLibrary.MoistAir.BaseClasses.IsoPHFlowModel flow_model,
+ redeclare package Medium = MoistAirMedium) annotation (IconMap(primitivesVisible=true));
+
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.MoistAirSensorIcon;
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.FlowIcon;
+
+end FlowSensor;
diff --git a/MetroscopeModelingLibrary/Sensors_Control/MoistAir/PressureSensor.mo b/MetroscopeModelingLibrary/Sensors_Control/MoistAir/PressureSensor.mo
new file mode 100644
index 00000000..481b2115
--- /dev/null
+++ b/MetroscopeModelingLibrary/Sensors_Control/MoistAir/PressureSensor.mo
@@ -0,0 +1,14 @@
+within MetroscopeModelingLibrary.Sensors_Control.MoistAir;
+model PressureSensor
+ package MoistAirMedium = MetroscopeModelingLibrary.Utilities.Media.MoistAirMedium;
+
+ extends Partial.Sensors_Control.PressureSensor(
+ redeclare MetroscopeModelingLibrary.MoistAir.Connectors.Inlet C_in,
+ redeclare MetroscopeModelingLibrary.MoistAir.Connectors.Outlet C_out,
+ redeclare MetroscopeModelingLibrary.MoistAir.BaseClasses.IsoPHFlowModel flow_model,
+ redeclare package Medium = MoistAirMedium) annotation (IconMap(primitivesVisible=true));
+
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.MoistAirSensorIcon;
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.PressureIcon;
+
+end PressureSensor;
diff --git a/MetroscopeModelingLibrary/Sensors_Control/MoistAir/RelativeHumiditySensor.mo b/MetroscopeModelingLibrary/Sensors_Control/MoistAir/RelativeHumiditySensor.mo
new file mode 100644
index 00000000..4364d287
--- /dev/null
+++ b/MetroscopeModelingLibrary/Sensors_Control/MoistAir/RelativeHumiditySensor.mo
@@ -0,0 +1,50 @@
+within MetroscopeModelingLibrary.Sensors_Control.MoistAir;
+model RelativeHumiditySensor
+ package MoistAirMedium = MetroscopeModelingLibrary.Utilities.Media.MoistAirMedium;
+
+ extends MetroscopeModelingLibrary.Partial.Sensors_Control.BaseSensor(
+ redeclare MetroscopeModelingLibrary.MoistAir.Connectors.Inlet C_in,
+ redeclare MetroscopeModelingLibrary.MoistAir.Connectors.Outlet C_out,
+ redeclare MetroscopeModelingLibrary.MoistAir.BaseClasses.IsoPHFlowModel flow_model,
+ redeclare package Medium = MoistAirMedium) annotation (IconMap(primitivesVisible=true));
+
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.MoistAirSensorIcon;
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.RelativeHumidityIcon;
+
+ // Relative Humidity
+ parameter Real input_H = 0.5;
+ parameter Real relative_humidity_0 = 0.5;
+ Real relative_humidity(start=relative_humidity_0, min=0, max=1);
+ Real relative_humidity_pc(start=relative_humidity_0*100, min=0, max=100);
+
+ // Display
+ parameter String display_unit = "%" "Specify the display unit" annotation(choices(choice="", choice="%"));
+ outer parameter Boolean display_output = false "Used to switch ON or OFF output display";
+ parameter String signal_unit = "%" annotation (choices(choice="", choice="%"));
+
+ Utilities.Interfaces.GenericReal H_sensor(start=input_H) annotation (Placement(transformation(
+ extent={{-10,-10},{10,10}},
+ rotation=90,
+ origin={0,100}), iconTransformation(
+ extent={{-10,-10},{10,10}},
+ rotation=90,
+ origin={0,100})));
+equation
+ flow_model.Xi[1] = MoistAirMedium.massFraction_pTphi(P, flow_model.T_in, relative_humidity);
+ relative_humidity_pc = relative_humidity*100;
+
+
+ if signal_unit == "" then
+ H_sensor = relative_humidity;
+ elseif signal_unit == "%" then
+ H_sensor = relative_humidity_pc;
+ end if;
+
+ annotation (Icon(graphics={Text(
+ extent={{-100,-160},{102,-200}},
+ textColor={0,0,0},
+ textString=if display_output then
+ DynamicSelect("",String(relative_humidity_pc)+" %%")
+ else "")}));
+
+end RelativeHumiditySensor;
diff --git a/MetroscopeModelingLibrary/Sensors_Control/MoistAir/TemperatureSensor.mo b/MetroscopeModelingLibrary/Sensors_Control/MoistAir/TemperatureSensor.mo
new file mode 100644
index 00000000..7ce846a3
--- /dev/null
+++ b/MetroscopeModelingLibrary/Sensors_Control/MoistAir/TemperatureSensor.mo
@@ -0,0 +1,14 @@
+within MetroscopeModelingLibrary.Sensors_Control.MoistAir;
+model TemperatureSensor
+ package MoistAirMedium = MetroscopeModelingLibrary.Utilities.Media.MoistAirMedium;
+
+ extends Partial.Sensors_Control.TemperatureSensor(
+ redeclare MetroscopeModelingLibrary.MoistAir.Connectors.Inlet C_in,
+ redeclare MetroscopeModelingLibrary.MoistAir.Connectors.Outlet C_out,
+ redeclare MetroscopeModelingLibrary.MoistAir.BaseClasses.IsoPHFlowModel flow_model,
+ redeclare package Medium = MoistAirMedium) annotation (IconMap(primitivesVisible=true));
+
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.MoistAirSensorIcon;
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.TemperatureIcon;
+
+end TemperatureSensor;
diff --git a/MetroscopeModelingLibrary/Sensors_Control/MoistAir/package.mo b/MetroscopeModelingLibrary/Sensors_Control/MoistAir/package.mo
new file mode 100644
index 00000000..f53bc088
--- /dev/null
+++ b/MetroscopeModelingLibrary/Sensors_Control/MoistAir/package.mo
@@ -0,0 +1,20 @@
+within MetroscopeModelingLibrary.Sensors_Control;
+package MoistAir
+
+ annotation (Icon(graphics={
+ Rectangle(
+ lineColor={200,200,200},
+ fillColor={248,248,248},
+ fillPattern=FillPattern.HorizontalCylinder,
+ extent={{-100,-100},{100,100}},
+ radius=25.0),
+ Rectangle(
+ lineColor={128,128,128},
+ extent={{-100,-100},{100,100}},
+ radius=25.0),
+ Ellipse(
+ fillColor={85,170,255},
+ fillPattern=FillPattern.Solid,
+ extent={{-60,-60},{60,60}},
+ pattern=LinePattern.None)}));
+end MoistAir;
diff --git a/MetroscopeModelingLibrary/Sensors_Control/MoistAir/package.order b/MetroscopeModelingLibrary/Sensors_Control/MoistAir/package.order
new file mode 100644
index 00000000..26b15a71
--- /dev/null
+++ b/MetroscopeModelingLibrary/Sensors_Control/MoistAir/package.order
@@ -0,0 +1,5 @@
+TemperatureSensor
+PressureSensor
+DeltaPressureSensor
+FlowSensor
+RelativeHumiditySensor
diff --git a/MetroscopeModelingLibrary/Sensors_Control/Outline/OpeningSensor.mo b/MetroscopeModelingLibrary/Sensors_Control/Outline/OpeningSensor.mo
new file mode 100644
index 00000000..c40fdf06
--- /dev/null
+++ b/MetroscopeModelingLibrary/Sensors_Control/Outline/OpeningSensor.mo
@@ -0,0 +1,70 @@
+within MetroscopeModelingLibrary.Sensors_Control.Outline;
+model OpeningSensor
+
+ import MetroscopeModelingLibrary.Utilities.Units.Inputs;
+
+ parameter Utilities.Units.Percentage Opening_pc_0 = 15;
+ Inputs.InputPercentage Opening_pc(unit="1", start=Opening_pc_0, min=0, max=100, nominal=Opening_pc_0); // Opening in percentage
+
+ // Icon parameters
+ parameter String sensor_function = "Unidentified" "Specify if the sensor is a BC or used for calibration"
+ annotation(choices(choice="Unidentified" "No specific function", choice="BC" "Boundary condition", choice="Calibration" "Used for calibration"));
+ parameter String causality = "" "Specify which parameter is calibrated by this sensor";
+ parameter Boolean display_output = true "Used to switch ON or OFF output display";
+ parameter String output_signal_unit = "%" annotation(choices(choice="%" "percentage, between 0 and 100", choice="" "No unit, between 0 and 1"));
+
+ Modelica.Blocks.Interfaces.RealOutput Opening(unit="1", min=0, max=1, nominal=Opening_pc_0/100, start=Opening_pc_0/100)
+ annotation (Placement(transformation(
+ extent={{-27,-27},{27,27}},
+ rotation=270,
+ origin={0,-20}), iconTransformation(extent={{-27,-27},{27,27}},
+ rotation=270,
+ origin={0,-102})));
+ Utilities.Interfaces.GenericReal opening_sensor annotation (Placement(transformation(
+ extent={{-10,-10},{10,10}},
+ rotation=90,
+ origin={0,102}), iconTransformation(
+ extent={{-10,-10},{10,10}},
+ rotation=90,
+ origin={0,102})));
+equation
+ Opening_pc = Opening * 100;
+
+ if output_signal_unit == "%" then
+ opening_sensor = Opening_pc;
+ else
+ opening_sensor = Opening;
+ end if;
+ annotation (Icon(graphics={ Text(
+ extent={{-100,200},{100,160}},
+ textColor={0,0,0},
+ textString=if display_output then DynamicSelect("",String(Opening_pc)+" %%")
+ else ""),
+ Rectangle(
+ extent={{-100,100},{100,-100}},
+ lineColor={0,0,0},
+ pattern=LinePattern.None,
+ fillColor=if sensor_function == "BC" then {238, 46, 47} elseif sensor_function == "Calibration" then {107, 175, 17} else {255, 255, 255},
+ fillPattern=if sensor_function == "BC" or sensor_function == "Calibration" then FillPattern.Solid else FillPattern.None),
+ Text(
+ extent={{-100,-120},{100,-160}},
+ textColor={107,175,17},
+ textString=if causality <> "" then "%causality" else ""),
+ Line(
+ points={{100,-60},{140,-60},{140,-140},{100,-140}},
+ color={107,175,17},
+ arrow=if causality == "" then {Arrow.None,Arrow.None} else {Arrow.None,Arrow.Filled},
+ thickness=0.5,
+ pattern=if causality == "" then LinePattern.None else LinePattern.Solid,
+ smooth=Smooth.Bezier),
+ Ellipse(
+ extent={{-100,100},{100,-98}},
+ lineColor={0,0,0},
+ fillColor={255,255,255},
+ fillPattern=FillPattern.Solid,
+ lineThickness=0.5),
+ Text(
+ extent={{-60,60},{60,-60}},
+ textColor={0,0,0},
+ textString="O")}));
+end OpeningSensor;
diff --git a/MetroscopeModelingLibrary/Sensors_Control/Outline/VRotSensor.mo b/MetroscopeModelingLibrary/Sensors_Control/Outline/VRotSensor.mo
new file mode 100644
index 00000000..a0187dcc
--- /dev/null
+++ b/MetroscopeModelingLibrary/Sensors_Control/Outline/VRotSensor.mo
@@ -0,0 +1,13 @@
+within MetroscopeModelingLibrary.Sensors_Control.Outline;
+model VRotSensor
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.OutlineSensorIcon;
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.VRotIcon;
+ import MetroscopeModelingLibrary.Utilities.Units.Inputs;
+
+ Modelica.Blocks.Interfaces.RealOutput VRot(min=0, nominal=2000, start=2000) "rotations per minute" annotation (Placement(transformation(
+ extent={{-27,-27},{27,27}},
+ rotation=270,
+ origin={1,-17}), iconTransformation(extent={{-27,-27},{27,27}},
+ rotation=270,
+ origin={0,-102})));
+end VRotSensor;
diff --git a/MetroscopeModelingLibrary/Sensors_Control/Outline/package.mo b/MetroscopeModelingLibrary/Sensors_Control/Outline/package.mo
new file mode 100644
index 00000000..5435a1e4
--- /dev/null
+++ b/MetroscopeModelingLibrary/Sensors_Control/Outline/package.mo
@@ -0,0 +1,26 @@
+within MetroscopeModelingLibrary.Sensors_Control;
+package Outline
+
+annotation (Icon(graphics={
+ Rectangle(
+ lineColor={200,200,200},
+ fillColor={248,248,248},
+ fillPattern=FillPattern.HorizontalCylinder,
+ extent={{-100,-100},{100,100}},
+ radius=25.0),
+ Rectangle(
+ lineColor={128,128,128},
+ extent={{-100,-100},{100,100}},
+ radius=25.0),
+ Ellipse(
+ extent={{-70,70},{70,-70}},
+ lineColor={0,0,0},
+ fillColor={255,255,255},
+ fillPattern=FillPattern.Solid,
+ lineThickness=0.5),
+ Polygon(
+ points={{-20,-57},{0,-91},{20,-57},{-20,-57}},
+ lineColor={0,0,0},
+ fillColor={255,255,255},
+ fillPattern=FillPattern.Solid)}));
+end Outline;
diff --git a/MetroscopeModelingLibrary/Sensors_Control/Outline/package.order b/MetroscopeModelingLibrary/Sensors_Control/Outline/package.order
new file mode 100644
index 00000000..d4ba4ced
--- /dev/null
+++ b/MetroscopeModelingLibrary/Sensors_Control/Outline/package.order
@@ -0,0 +1,2 @@
+OpeningSensor
+VRotSensor
diff --git a/MetroscopeModelingLibrary/Sensors_Control/Power/PowerSensor.mo b/MetroscopeModelingLibrary/Sensors_Control/Power/PowerSensor.mo
new file mode 100644
index 00000000..b6b8e43c
--- /dev/null
+++ b/MetroscopeModelingLibrary/Sensors_Control/Power/PowerSensor.mo
@@ -0,0 +1,81 @@
+within MetroscopeModelingLibrary.Sensors_Control.Power;
+model PowerSensor
+
+ import MetroscopeModelingLibrary.Utilities.Units.Inputs;
+
+ Utilities.Units.Power W;
+ // Power in W
+ Real W_MW(min=0, nominal=100, start=100); // Power in MW
+
+ // Icon parameters
+ parameter String sensor_function = "Unidentified" "Specify if the sensor is a BC or used for calibration"
+ annotation(choices(choice="Unidentified" "No specific function", choice="BC" "Boundary condition", choice="Calibration" "Used for calibration"));
+ parameter String causality = "" "Specify which parameter is calibrated by this sensor";
+ outer parameter Boolean show_causality = true "Used to show or not the causality";
+ parameter String display_unit = "MW" "Specify the display unit"
+ annotation(choices(choice="MW", choice="W"));
+ outer parameter Boolean display_output = false "Used to switch ON or OFF output display";
+ parameter String output_signal_unit = "MW" annotation(choices(choice="MW", choice="W"));
+
+ MetroscopeModelingLibrary.Power.Connectors.Inlet C_in annotation (Placement(transformation(extent={{-110,-10},{-90,10}}), iconTransformation(extent={{-110,-10},{-90,10}})));
+ MetroscopeModelingLibrary.Power.Connectors.Outlet C_out annotation (Placement(transformation(extent={{88,-10},{108,10}}), iconTransformation(extent={{88,-10},{108,10}})));
+ Utilities.Interfaces.GenericReal W_sensor annotation (Placement(transformation(
+ extent={{-10,-10},{10,10}},
+ rotation=90,
+ origin={0,100}), iconTransformation(
+ extent={{-10,-10},{10,10}},
+ rotation=90,
+ origin={0,100})));
+equation
+ // Conservation of power
+ C_in.W + C_out.W = 0; // C_out.W < 0 if power flows out of component, as for mass flows
+
+ // Measure
+ W = C_in.W;
+ W_MW = W/1e6;
+
+ if output_signal_unit == "MW" then
+ W_sensor = W_MW;
+ else
+ W_sensor = W;
+ end if;
+
+ annotation (Icon(graphics={Text(
+ extent={{-100,-160},{102,-200}},
+ textColor={0,0,0},
+ textString=if display_output then
+ if display_unit == "W" then DynamicSelect("",String(W)+" W")
+ else DynamicSelect("",String(W_MW)+" MW")
+ else ""),
+ Rectangle(
+ extent={{-100,100},{100,-100}},
+ lineColor={0,0,0},
+ pattern=LinePattern.None,
+ fillColor=if sensor_function == "BC" then {238, 46, 47} elseif sensor_function == "Calibration" then {107, 175, 17} else {255, 255, 255},
+ fillPattern=if sensor_function == "BC" or sensor_function == "Calibration" then FillPattern.Solid else FillPattern.None),
+ Text(
+ extent={{-100,-120},{100,-160}},
+ textColor={107,175,17},
+ textString=if show_causality then "%causality" else ""),
+ Line(
+ points={{100,-60},{140,-60},{140,-140},{100,-140}},
+ color={107,175,17},
+ arrow=if causality == "" or show_causality == false then {Arrow.None,Arrow.None} else {Arrow.None,Arrow.Filled},
+ thickness=0.5,
+ pattern=if causality == "" or show_causality == false then LinePattern.None else LinePattern.Solid,
+ smooth=Smooth.Bezier),
+ Ellipse(
+ extent={{-100,100},{100,-100}},
+ lineColor={0,0,0},
+ fillColor={244,125,35},
+ fillPattern=FillPattern.Solid),
+ Ellipse(
+ extent={{-80,80},{80,-80}},
+ fillColor={255,255,255},
+ fillPattern=FillPattern.Solid,
+ pattern=LinePattern.None),
+ Text(
+ extent={{-60,60},{60,-60}},
+ textColor={0,0,0},
+ textString="W")}));
+end PowerSensor;
diff --git a/MetroscopeModelingLibrary/Sensors_Control/Power/package.mo b/MetroscopeModelingLibrary/Sensors_Control/Power/package.mo
new file mode 100644
index 00000000..05b201dd
--- /dev/null
+++ b/MetroscopeModelingLibrary/Sensors_Control/Power/package.mo
@@ -0,0 +1,20 @@
+within MetroscopeModelingLibrary.Sensors_Control;
+package Power
+ annotation (Icon(graphics={
+ Rectangle(
+ lineColor={200,200,200},
+ fillColor={248,248,248},
+ fillPattern=FillPattern.HorizontalCylinder,
+ extent={{-100,-100},{100,100}},
+ radius=25.0),
+ Rectangle(
+ lineColor={128,128,128},
+ extent={{-100,-100},{100,100}},
+ radius=25.0),
+ Ellipse(
+ lineColor={102,102,102},
+ fillColor={244,125,35},
+ pattern=LinePattern.None,
+ fillPattern=FillPattern.Solid,
+ extent={{-60,-60},{60,60}})}));
+end Power;
diff --git a/MetroscopeModelingLibrary/Sensors_Control/Power/package.order b/MetroscopeModelingLibrary/Sensors_Control/Power/package.order
new file mode 100644
index 00000000..ea210bc9
--- /dev/null
+++ b/MetroscopeModelingLibrary/Sensors_Control/Power/package.order
@@ -0,0 +1 @@
+PowerSensor
diff --git a/MetroscopeModelingLibrary/Sensors_Control/WaterSteam/DeltaPressureSensor.mo b/MetroscopeModelingLibrary/Sensors_Control/WaterSteam/DeltaPressureSensor.mo
new file mode 100644
index 00000000..6cdafa87
--- /dev/null
+++ b/MetroscopeModelingLibrary/Sensors_Control/WaterSteam/DeltaPressureSensor.mo
@@ -0,0 +1,13 @@
+within MetroscopeModelingLibrary.Sensors_Control.WaterSteam;
+model DeltaPressureSensor
+ package WaterSteamMedium = MetroscopeModelingLibrary.Utilities.Media.WaterSteamMedium;
+
+ extends Partial.Sensors_Control.DeltaPressureSensor(
+ redeclare MetroscopeModelingLibrary.WaterSteam.Connectors.Inlet C_in,
+ redeclare MetroscopeModelingLibrary.WaterSteam.Connectors.Outlet C_out,
+ redeclare package Medium = WaterSteamMedium) annotation (IconMap(primitivesVisible=true));
+
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.OutlineSensorIcon;
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.DeltaPressureIcon;
+
+end DeltaPressureSensor;
diff --git a/MetroscopeModelingLibrary/Sensors_Control/WaterSteam/FlowSensor.mo b/MetroscopeModelingLibrary/Sensors_Control/WaterSteam/FlowSensor.mo
new file mode 100644
index 00000000..aa6246d0
--- /dev/null
+++ b/MetroscopeModelingLibrary/Sensors_Control/WaterSteam/FlowSensor.mo
@@ -0,0 +1,13 @@
+within MetroscopeModelingLibrary.Sensors_Control.WaterSteam;
+model FlowSensor
+ package WaterSteamMedium = MetroscopeModelingLibrary.Utilities.Media.WaterSteamMedium;
+
+ extends Partial.Sensors_Control.FlowSensor(
+ redeclare MetroscopeModelingLibrary.WaterSteam.Connectors.Inlet C_in,
+ redeclare MetroscopeModelingLibrary.WaterSteam.Connectors.Outlet C_out,
+ redeclare MetroscopeModelingLibrary.WaterSteam.BaseClasses.IsoPHFlowModel flow_model,
+ redeclare package Medium = WaterSteamMedium) annotation (IconMap(primitivesVisible=true));
+
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.WaterSensorIcon;
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.FlowIcon;
+end FlowSensor;
diff --git a/MetroscopeModelingLibrary/Sensors_Control/WaterSteam/PressureSensor.mo b/MetroscopeModelingLibrary/Sensors_Control/WaterSteam/PressureSensor.mo
new file mode 100644
index 00000000..aacf84d3
--- /dev/null
+++ b/MetroscopeModelingLibrary/Sensors_Control/WaterSteam/PressureSensor.mo
@@ -0,0 +1,13 @@
+within MetroscopeModelingLibrary.Sensors_Control.WaterSteam;
+model PressureSensor
+ package WaterSteamMedium = MetroscopeModelingLibrary.Utilities.Media.WaterSteamMedium;
+
+ extends Partial.Sensors_Control.PressureSensor(
+ redeclare MetroscopeModelingLibrary.WaterSteam.Connectors.Inlet C_in,
+ redeclare MetroscopeModelingLibrary.WaterSteam.Connectors.Outlet C_out,
+ redeclare MetroscopeModelingLibrary.WaterSteam.BaseClasses.IsoPHFlowModel flow_model,
+ redeclare package Medium = WaterSteamMedium) annotation (IconMap(primitivesVisible=true));
+
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.WaterSensorIcon;
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.PressureIcon;
+end PressureSensor;
diff --git a/MetroscopeModelingLibrary/Sensors_Control/WaterSteam/TemperatureSensor.mo b/MetroscopeModelingLibrary/Sensors_Control/WaterSteam/TemperatureSensor.mo
new file mode 100644
index 00000000..2688b82c
--- /dev/null
+++ b/MetroscopeModelingLibrary/Sensors_Control/WaterSteam/TemperatureSensor.mo
@@ -0,0 +1,14 @@
+within MetroscopeModelingLibrary.Sensors_Control.WaterSteam;
+model TemperatureSensor
+ package WaterSteamMedium = MetroscopeModelingLibrary.Utilities.Media.WaterSteamMedium;
+
+ extends Partial.Sensors_Control.TemperatureSensor(
+ redeclare MetroscopeModelingLibrary.WaterSteam.Connectors.Inlet C_in,
+ redeclare MetroscopeModelingLibrary.WaterSteam.Connectors.Outlet C_out,
+ redeclare MetroscopeModelingLibrary.WaterSteam.BaseClasses.IsoPHFlowModel flow_model,
+ redeclare package Medium = WaterSteamMedium) annotation (IconMap(primitivesVisible=true));
+
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.WaterSensorIcon;
+ extends MetroscopeModelingLibrary.Utilities.Icons.Sensors.TemperatureIcon;
+
+end TemperatureSensor;
diff --git a/MetroscopeModelingLibrary/Sensors_Control/WaterSteam/package.mo b/MetroscopeModelingLibrary/Sensors_Control/WaterSteam/package.mo
new file mode 100644
index 00000000..42165297
--- /dev/null
+++ b/MetroscopeModelingLibrary/Sensors_Control/WaterSteam/package.mo
@@ -0,0 +1,21 @@
+within MetroscopeModelingLibrary.Sensors_Control;
+package WaterSteam
+
+ annotation (Icon(graphics={
+ Rectangle(
+ lineColor={200,200,200},
+ fillColor={248,248,248},
+ fillPattern=FillPattern.HorizontalCylinder,
+ extent={{-100,-100},{100,100}},
+ radius=25.0),
+ Rectangle(
+ lineColor={128,128,128},
+ extent={{-100,-100},{100,100}},
+ radius=25.0),
+ Ellipse(
+ lineColor={102,102,102},
+ fillColor={28,108,200},
+ pattern=LinePattern.None,
+ fillPattern=FillPattern.Solid,
+ extent={{-60,-60},{60,60}})}));
+end WaterSteam;
diff --git a/MetroscopeModelingLibrary/Sensors_Control/WaterSteam/package.order b/MetroscopeModelingLibrary/Sensors_Control/WaterSteam/package.order
new file mode 100644
index 00000000..2df6680e
--- /dev/null
+++ b/MetroscopeModelingLibrary/Sensors_Control/WaterSteam/package.order
@@ -0,0 +1,4 @@
+TemperatureSensor
+PressureSensor
+DeltaPressureSensor
+FlowSensor
diff --git a/MetroscopeModelingLibrary/Sensors_Control/package.mo b/MetroscopeModelingLibrary/Sensors_Control/package.mo
new file mode 100644
index 00000000..fec0aade
--- /dev/null
+++ b/MetroscopeModelingLibrary/Sensors_Control/package.mo
@@ -0,0 +1,44 @@
+within MetroscopeModelingLibrary;
+package Sensors_Control
+
+annotation (Icon(graphics={
+ Rectangle(
+ lineColor={200,200,200},
+ fillColor={248,248,248},
+ fillPattern=FillPattern.HorizontalCylinder,
+ extent={{-100,-100},{100,100}},
+ radius=25.0),
+ Rectangle(
+ lineColor={128,128,128},
+ extent={{-100,-100},{100,100}},
+ radius=25.0),
+ Ellipse(
+ fillColor={245,245,245},
+ fillPattern=FillPattern.Solid,
+ extent={{-70,-70},{70,70}}),
+ Line(points={{0,70},{0,40}}),
+ Line(points={{22.9,32.8},{40.2,57.3}}),
+ Line(points={{-22.9,32.8},{-40.2,57.3}}),
+ Line(points={{37.6,13.7},{65.8,23.9}}),
+ Line(points={{-37.6,13.7},{-65.8,23.9}}),
+ Ellipse(
+ lineColor={64,64,64},
+ fillColor={255,255,255},
+ extent={{-12,-12},{12,12}}),
+ Polygon(
+ rotation=-17.5,
+ fillColor={64,64,64},
+ pattern=LinePattern.None,
+ fillPattern=FillPattern.Solid,
+ points={{-5.0,0.0},{-2.0,60.0},{0.0,65.0},{2.0,60.0},{5.0,0.0}}),
+ Ellipse(
+ fillColor={64,64,64},
+ pattern=LinePattern.None,
+ fillPattern=FillPattern.Solid,
+ extent={{-7,-7},{7,7}})}),
+ Documentation(info="
+ Licensed by Metroscope under the Modelica License 2
+Copyright © 2023, Metroscope.
+This Modelica package is free software and the use is completely at your own risk; it can be redistributed and/or modified under the terms of the Modelica License 2.
+"));
+end Sensors_Control;
diff --git a/MetroscopeModelingLibrary/Sensors_Control/package.order b/MetroscopeModelingLibrary/Sensors_Control/package.order
new file mode 100644
index 00000000..25b15fc1
--- /dev/null
+++ b/MetroscopeModelingLibrary/Sensors_Control/package.order
@@ -0,0 +1,6 @@
+WaterSteam
+FlueGases
+Fuel
+MoistAir
+Power
+Outline
diff --git a/MetroscopeModelingLibrary/Tests/FlueGases/Pipes/Pipe_direct.mo b/MetroscopeModelingLibrary/Tests/FlueGases/Pipes/Pipe_direct.mo
index 313ba736..114e3472 100644
--- a/MetroscopeModelingLibrary/Tests/FlueGases/Pipes/Pipe_direct.mo
+++ b/MetroscopeModelingLibrary/Tests/FlueGases/Pipes/Pipe_direct.mo
@@ -15,7 +15,7 @@ model Pipe_direct
MetroscopeModelingLibrary.FlueGases.BoundaryConditions.Source source annotation (Placement(transformation(extent={{-38,-10},{-18,10}})));
MetroscopeModelingLibrary.FlueGases.BoundaryConditions.Sink sink annotation (Placement(transformation(extent={{18,-10},{38,10}})));
- MetroscopeModelingLibrary.FlueGases.Pipes.Pipe pipe annotation (Placement(transformation(extent={{-10,-10},{10,10}})));
+ MetroscopeModelingLibrary.FlueGases.Pipes.FrictionPipe pipe annotation (Placement(transformation(extent={{-10,-10},{10,10}})));
equation
// Boundary conditions
diff --git a/MetroscopeModelingLibrary/Tests/FlueGases/Pipes/Pipe_reverse.mo b/MetroscopeModelingLibrary/Tests/FlueGases/Pipes/Pipe_reverse.mo
index 244ebac2..2171a7d5 100644
--- a/MetroscopeModelingLibrary/Tests/FlueGases/Pipes/Pipe_reverse.mo
+++ b/MetroscopeModelingLibrary/Tests/FlueGases/Pipes/Pipe_reverse.mo
@@ -20,7 +20,7 @@ model Pipe_reverse
MetroscopeModelingLibrary.FlueGases.BoundaryConditions.Source source annotation (Placement(transformation(extent={{-38,-10},{-18,10}})));
MetroscopeModelingLibrary.FlueGases.BoundaryConditions.Sink sink annotation (Placement(transformation(extent={{68,-10},{88,10}})));
- MetroscopeModelingLibrary.FlueGases.Pipes.Pipe pipe annotation (Placement(transformation(extent={{-10,-10},{10,10}})));
+ MetroscopeModelingLibrary.FlueGases.Pipes.FrictionPipe pipe annotation (Placement(transformation(extent={{-10,-10},{10,10}})));
MetroscopeModelingLibrary.Sensors.FlueGases.PressureSensor P_out_sensor annotation (Placement(transformation(extent={{28,-10},{48,10}})));
equation
diff --git a/MetroscopeModelingLibrary/Tests/Multifluid/HeatExchangers/AirCooledCondenser_direct.mo b/MetroscopeModelingLibrary/Tests/Multifluid/HeatExchangers/AirCooledCondenser_direct.mo
index 6bb82cd5..3718005c 100644
--- a/MetroscopeModelingLibrary/Tests/Multifluid/HeatExchangers/AirCooledCondenser_direct.mo
+++ b/MetroscopeModelingLibrary/Tests/Multifluid/HeatExchangers/AirCooledCondenser_direct.mo
@@ -12,15 +12,6 @@ model AirCooledCondenser_direct
input Real T_cold_source(start=10) "degC";
input Utilities.Units.Fraction cold_source_relative_humidity(start=0.80) "1";
- // Parameters
- parameter Utilities.Units.Pressure P_offset = 0;
- parameter Real C_incond = 0;
- parameter Utilities.Units.Area S = 150000 "m2";
-
- // Calibrated parameters
- parameter Utilities.Units.HeatExchangeCoefficient Kth = 10;
- parameter Utilities.Units.FrictionCoefficient Kfr_hot = 0;
-
// Sensors for calibration
output Real P_cond(start=91) "mbarA";
@@ -35,8 +26,10 @@ model AirCooledCondenser_direct
MetroscopeModelingLibrary.MoistAir.BoundaryConditions.Source cold_source(h_out(start=25400))
annotation (Placement(transformation(extent={{-56,-10},{-36,10}})));
MetroscopeModelingLibrary.MoistAir.BoundaryConditions.Sink cold_sink(h_in(start=28028.451)) annotation (Placement(transformation(extent={{34,-10},{54,10}})));
- MultiFluid.HeatExchangers.AirCooledCondenser airCooledCondenser(
+ MultiFluid.HeatExchangers.AirCooledCondenser airCooledCondenser(S=150000,
cold_side_condensing(h_out(start=28243.033))) annotation (Placement(transformation(extent={{-16,-16},{16,20}})));
+ Utilities.Interfaces.RealExpression Kth(y=10) annotation (Placement(transformation(extent={{-44,40},{-24,60}})));
+ Utilities.Interfaces.RealExpression Kfr(y=0) annotation (Placement(transformation(extent={{14,40},{34,60}})));
equation
//Hot source
@@ -51,20 +44,16 @@ equation
//ACC
// Parameters
- airCooledCondenser.S = S;
airCooledCondenser.Q_cold = Q_cold;
- airCooledCondenser.P_offset = P_offset;
- airCooledCondenser.C_incond = C_incond;
// Calibrated parameter
- airCooledCondenser.Kth = Kth;
- airCooledCondenser.Kfr_hot = Kfr_hot;
-
connect(airCooledCondenser.C_cold_out, cold_sink.C_in)
annotation (Line(points={{14.4,0},{39,0}}, color={85,170,255}));
connect(airCooledCondenser.C_cold_in, cold_source.C_out)
- annotation (Line(points={{-14.08,0},{-41,0}},color={85,170,255}));
+ annotation (Line(points={{-16,0},{-41,0}}, color={85,170,255}));
connect(condensate_sink.C_in, airCooledCondenser.C_hot_out) annotation (Line(points={{8.88178e-16,-57},{8.88178e-16,-35.5},{0,-35.5},{0,-14}}, color={28,108,200}));
connect(turbine_outlet.C_out, airCooledCondenser.C_hot_in) annotation (Line(points={{-8.88178e-16,65},{-8.88178e-16,41.5},{0.32,41.5},{0.32,18}}, color={28,108,200}));
+ connect(Kth.y, airCooledCondenser.Kth) annotation (Line(points={{-34,45},{-34,22},{-12.8,22}}, color={0,0,127}));
+ connect(Kfr.y, airCooledCondenser.Kfr_hot) annotation (Line(points={{24,45},{24,22},{12.8,22}}, color={0,0,127}));
annotation (Icon(coordinateSystem(preserveAspectRatio=false, extent={{-100,
-100},{100,100}})),
Diagram(coordinateSystem(preserveAspectRatio=false,
diff --git a/MetroscopeModelingLibrary/Tests/Multifluid/HeatExchangers/AirCooledCondenser_reverse.mo b/MetroscopeModelingLibrary/Tests/Multifluid/HeatExchangers/AirCooledCondenser_reverse.mo
index eee463f9..a5ae587c 100644
--- a/MetroscopeModelingLibrary/Tests/Multifluid/HeatExchangers/AirCooledCondenser_reverse.mo
+++ b/MetroscopeModelingLibrary/Tests/Multifluid/HeatExchangers/AirCooledCondenser_reverse.mo
@@ -12,14 +12,6 @@ model AirCooledCondenser_reverse
input Real T_cold_source(start=10) "degC";
input Utilities.Units.Fraction cold_source_relative_humidity(start=0.80) "1";
- // Parameters
- parameter Utilities.Units.Pressure P_offset = 0;
- parameter Real C_incond = 0;
- parameter Utilities.Units.Area S = 150000 "m2";
-
- // Calibrated parameters
- output Utilities.Units.HeatExchangeCoefficient Kth(start=10);
- parameter Utilities.Units.FrictionCoefficient Kfr_hot = 0;
// Sensors for calibration
input Real P_cond(start=91) "mbarA";
@@ -36,12 +28,17 @@ model AirCooledCondenser_reverse
annotation (Placement(transformation(extent={{-56,-10},{-36,10}})));
MetroscopeModelingLibrary.MoistAir.BoundaryConditions.Sink cold_sink(h_in(start=28028.451)) annotation (Placement(transformation(extent={{34,-10},{54,10}})));
MultiFluid.HeatExchangers.AirCooledCondenser airCooledCondenser(
+ S=150000,
+ P_incond=0,
+ P_offset=0,
cold_side_condensing(h_out(start=28243.033))) annotation (Placement(transformation(extent={{-16,-16},{16,20}})));
MetroscopeModelingLibrary.Sensors.WaterSteam.PressureSensor P_cond_sensor
annotation (Placement(transformation(
extent={{-7,-7},{7,7}},
rotation=270,
- origin={1,37})));
+ origin={1,41})));
+ Utilities.Interfaces.RealOutput ACC_Kth annotation (Placement(transformation(extent={{-32,34},{-24,42}}), iconTransformation(extent={{-116,26},{-96,46}})));
+ Utilities.Interfaces.RealExpression ACC_Kfr_hot annotation (Placement(transformation(extent={{30,36},{50,56}})));
equation
//Hot source
@@ -52,28 +49,22 @@ equation
cold_source.P_out = P_cold_source * 1e5;
cold_source.T_out = T_cold_source + 273.15;
cold_source.relative_humidity = cold_source_relative_humidity;
+ cold_source.Q_out = - Q_cold;
- //ACC
- // Parameters
- airCooledCondenser.S = S;
- airCooledCondenser.Q_cold = Q_cold;
- airCooledCondenser.P_offset = P_offset;
- airCooledCondenser.C_incond = C_incond;
- // Calibrated parameter
- airCooledCondenser.Kth = Kth;
- airCooledCondenser.Kfr_hot = Kfr_hot;
- // Observable for calibration
+ // Observable for calibration
P_cond_sensor.P_mbar = P_cond;
connect(airCooledCondenser.C_cold_out, cold_sink.C_in)
- annotation (Line(points={{14.4,0},{39,0}}, color={85,170,255}));
+ annotation (Line(points={{16,0},{39,0}}, color={85,170,255}));
connect(airCooledCondenser.C_cold_in, cold_source.C_out)
- annotation (Line(points={{-14.08,0},{-41,0}},color={85,170,255}));
- connect(turbine_outlet.C_out, P_cond_sensor.C_in) annotation (Line(points={{-8.88178e-16,
- 65},{0,65},{0,44},{1,44}}, color={28,108,200}));
+ annotation (Line(points={{-16,0},{-41,0}}, color={85,170,255}));
+ connect(turbine_outlet.C_out, P_cond_sensor.C_in) annotation (Line(points={{0,65},{0,48},{1,48}},
+ color={28,108,200}));
connect(airCooledCondenser.C_hot_in, P_cond_sensor.C_out) annotation (Line(
- points={{0.32,18},{0,18},{0,30},{1,30}}, color={28,108,200}));
- connect(condensate_sink.C_in, airCooledCondenser.C_hot_out) annotation (Line(points={{8.88178e-16,-57},{8.88178e-16,-35.5},{0,-35.5},{0,-14}}, color={28,108,200}));
+ points={{0,20},{0,34},{1,34}}, color={28,108,200}));
+ connect(condensate_sink.C_in, airCooledCondenser.C_hot_out) annotation (Line(points={{0,-57},{0,-35.5},{0,-35.5},{0,-16}}, color={28,108,200}));
+ connect(airCooledCondenser.Kth, ACC_Kth) annotation (Line(points={{-12.8,22},{-14,22},{-14,38},{-28,38}}, color={0,0,127}));
+ connect(ACC_Kfr_hot.y, airCooledCondenser.Kfr_hot) annotation (Line(points={{40,41},{40,22},{12.8,22}}, color={0,0,127}));
annotation (Icon(coordinateSystem(preserveAspectRatio=false, extent={{-100,
-100},{100,100}})),
Diagram(coordinateSystem(preserveAspectRatio=false,
diff --git a/MetroscopeModelingLibrary/Tests/Multifluid/Machines/CombustionChamberwithRefMoistAir_testLHV.mo b/MetroscopeModelingLibrary/Tests/Multifluid/Machines/CombustionChamberwithRefMoistAir_testLHV.mo
new file mode 100644
index 00000000..d8aea989
--- /dev/null
+++ b/MetroscopeModelingLibrary/Tests/Multifluid/Machines/CombustionChamberwithRefMoistAir_testLHV.mo
@@ -0,0 +1,55 @@
+within MetroscopeModelingLibrary.Tests.Multifluid.Machines;
+model CombustionChamberwithRefMoistAir_testLHV
+ extends MetroscopeModelingLibrary.Utilities.Icons.Tests.MultifluidTestIcon;
+ import MetroscopeModelingLibrary.Utilities.Units;
+
+ // Boundary conditions
+ input Units.Pressure source_P(start=17e5) "Pa";
+ input Units.Temperature source_T(start=409.7225) "deg_C";
+ input Units.NegativeMassFlowRate source_Q(start=-500) "kg/s";
+
+ input Units.Pressure P_fuel(start = 30e5);
+ input Units.SpecificEnthalpy h_fuel(start=0.9e6);
+ input Units.PositiveMassFlowRate Q_fuel(start=15);
+
+ input Units.SpecificEnthalpy LHV_plant(start=47276868) "Directly assigned in combustion chamber modifiers";
+
+ // Parameters
+ parameter Units.FrictionCoefficient combustion_chamber_Kfr = 0.1;
+
+ MultiFluid.Machines.CombustionChamberwithRefMoistAir
+ combustion_chamber annotation (Placement(transformation(extent={{-10,-10},{10,10}})));
+ MetroscopeModelingLibrary.Fuel.BoundaryConditions.Source source_fuel annotation (Placement(transformation(
+ extent={{-10,-10},{10,10}},
+ rotation=90,
+ origin={0,-38})));
+ MetroscopeModelingLibrary.RefMoistAir.BoundaryConditions.Source
+ source_air annotation (Placement(transformation(extent={{-48,-10},{-28,10}})));
+ MetroscopeModelingLibrary.FlueGases.BoundaryConditions.Sink sink_exhaust annotation (Placement(transformation(extent={{28,-10},{48,10}})));
+equation
+
+ // Boundary conditions for RefMoistAir
+ source_air.P_out = source_P;
+ source_air.Q_out = source_Q;
+ source_air.T_out = source_T + 273.15;
+ source_air.Xi_out[1] = 0;
+
+ // Fuel boundary conditions
+ source_fuel.P_out = P_fuel;
+ source_fuel.h_out = h_fuel;
+ source_fuel.Q_out = - Q_fuel;
+ source_fuel.X_molar_CH4 = 93.71*1e-2;
+ source_fuel.X_molar_C2H6 = 4.29*1e-2;
+ source_fuel.X_molar_C3H8 = 0.53*1e-2;
+ source_fuel.X_molar_C4H10_n_butane = 0.09*1e-2;
+ source_fuel.X_molar_N2 = 0.85*1e-2;
+ source_fuel.X_molar_CO2 = 0.53*1e-2;
+
+ // Parameters
+ combustion_chamber.Kfr = combustion_chamber_Kfr;
+ combustion_chamber.eta = 0.999;
+
+ connect(combustion_chamber.inlet1, source_fuel.C_out) annotation (Line(points={{0,-10},{0,-33},{2.77556e-16,-33}}, color={213,213,0}));
+ connect(combustion_chamber.inlet, source_air.C_out) annotation (Line(points={{-10,0},{-33,0}}, color={95,95,95}));
+ connect(combustion_chamber.outlet, sink_exhaust.C_in) annotation (Line(points={{10,0},{33,0}}, color={95,95,95}));
+end CombustionChamberwithRefMoistAir_testLHV;
diff --git a/MetroscopeModelingLibrary/Tests/WaterSteam/HeatExchangers/LiqLiqHX_direct.mo b/MetroscopeModelingLibrary/Tests/WaterSteam/HeatExchangers/LiqLiqHX_direct.mo
index a0a3db21..e7f66257 100644
--- a/MetroscopeModelingLibrary/Tests/WaterSteam/HeatExchangers/LiqLiqHX_direct.mo
+++ b/MetroscopeModelingLibrary/Tests/WaterSteam/HeatExchangers/LiqLiqHX_direct.mo
@@ -39,7 +39,6 @@ equation
cold_source.T_out = 273.15 + T_cold_source;
cold_source.Q_out = - Q_cold_source;
- liqLiqHX.S = S;
liqLiqHX.Kth = Kth;
liqLiqHX.Kfr_hot = Kfr_hot;
liqLiqHX.Kfr_cold = Kfr_cold;
diff --git a/MetroscopeModelingLibrary/Tests/WaterSteam/HeatExchangers/LiqLiqHX_reverse.mo b/MetroscopeModelingLibrary/Tests/WaterSteam/HeatExchangers/LiqLiqHX_reverse.mo
index ffc1776a..31b6d7aa 100644
--- a/MetroscopeModelingLibrary/Tests/WaterSteam/HeatExchangers/LiqLiqHX_reverse.mo
+++ b/MetroscopeModelingLibrary/Tests/WaterSteam/HeatExchangers/LiqLiqHX_reverse.mo
@@ -52,8 +52,6 @@ equation
cold_source.T_out = 273.15 + T_cold_source;
cold_source.Q_out = - Q_cold_source;
- // Parameters
- liqLiqHX.S = S;
// Inputs for calibration
T_cold_out_sensor.T_degC = T_cold_out;
diff --git a/MetroscopeModelingLibrary/Tests/WaterSteam/HeatExchangers/Superheater_reverse.mo b/MetroscopeModelingLibrary/Tests/WaterSteam/HeatExchangers/Superheater_reverse.mo
index 842d53ce..e9f32831 100644
--- a/MetroscopeModelingLibrary/Tests/WaterSteam/HeatExchangers/Superheater_reverse.mo
+++ b/MetroscopeModelingLibrary/Tests/WaterSteam/HeatExchangers/Superheater_reverse.mo
@@ -28,13 +28,14 @@ model Superheater_reverse
.MetroscopeModelingLibrary.WaterSteam.BoundaryConditions.Source hot_steam_source annotation (Placement(transformation(extent={{-70,-2},{-50,18}})));
.MetroscopeModelingLibrary.WaterSteam.BoundaryConditions.Sink drains_sink annotation (Placement(transformation(extent={{70,-10},{90,10}})));
.MetroscopeModelingLibrary.WaterSteam.BoundaryConditions.Source cold_steam_source annotation (Placement(transformation(extent={{-42,-50},{-22,-30}})));
- .MetroscopeModelingLibrary.WaterSteam.BoundaryConditions.Sink superheated_steam_sink annotation (Placement(transformation(extent={{16,30},{36,50}})));
+ .MetroscopeModelingLibrary.WaterSteam.BoundaryConditions.Sink superheated_steam_sink annotation (Placement(transformation(extent={{16,70},
+ {36,90}})));
.MetroscopeModelingLibrary.WaterSteam.HeatExchangers.Superheater superheater annotation (Placement(transformation(extent={{-16,-8},{16,8}})));
.MetroscopeModelingLibrary.WaterSteam.BoundaryConditions.Sink vent_sink annotation (Placement(transformation(extent={{70,-30},{90,-10}})));
MetroscopeModelingLibrary.Sensors.WaterSteam.TemperatureSensor superheated_steam_temperature_sensor annotation (Placement(transformation(
extent={{-10,-10},{10,10}},
rotation=90,
- origin={0,24})));
+ origin={0,62})));
MetroscopeModelingLibrary.Sensors.WaterSteam.PressureSensor drains_pressure_sensor(Q_0=50)
annotation (Placement(transformation(extent={{38,-10},{58,10}})));
equation
@@ -67,10 +68,10 @@ equation
{20,-20},{20,-7.8},{16,-7.8}},
color={28,108,200}));
connect(superheater.C_cold_out, superheated_steam_temperature_sensor.C_in)
- annotation (Line(points={{0,8},{-5.55112e-16,8},{-5.55112e-16,14}},
+ annotation (Line(points={{0,8},{0,52}},
color={28,108,200}));
connect(superheated_steam_temperature_sensor.C_out, superheated_steam_sink.C_in)
- annotation (Line(points={{5.55112e-16,34},{5.55112e-16,40},{21,40}}, color={
+ annotation (Line(points={{0,72},{0,80},{21,80}}, color={
28,108,200}));
connect(superheater.C_hot_out, drains_pressure_sensor.C_in)
annotation (Line(points={{16,0},{38,0}}, color={28,108,200}));
diff --git a/MetroscopeModelingLibrary/Tests/WaterSteam/Machines/Pump_reverse.mo b/MetroscopeModelingLibrary/Tests/WaterSteam/Machines/Pump_reverse.mo
index 06b8d472..2a6f5fa3 100644
--- a/MetroscopeModelingLibrary/Tests/WaterSteam/Machines/Pump_reverse.mo
+++ b/MetroscopeModelingLibrary/Tests/WaterSteam/Machines/Pump_reverse.mo
@@ -42,12 +42,12 @@ equation
// Component parameters
pump.VRotn = pump_VRotn;
- pump.rm = 0.85;
pump.a1 = 0;
pump.a2 = 0;
pump.b1 = 0;
pump.b2 = 0;
pump.rh_min = 0.2;
+ pump.rm = 0.85;
// Calibrated parameters
pump.a3 = pump_a3;
diff --git a/MetroscopeModelingLibrary/Tests/WaterSteam/Pipes/Pipe_direct.mo b/MetroscopeModelingLibrary/Tests/WaterSteam/Pipes/Pipe_direct.mo
index 7b6af57f..2e1905af 100644
--- a/MetroscopeModelingLibrary/Tests/WaterSteam/Pipes/Pipe_direct.mo
+++ b/MetroscopeModelingLibrary/Tests/WaterSteam/Pipes/Pipe_direct.mo
@@ -18,7 +18,7 @@ model Pipe_direct
rotation=0,
origin={90,-6.10623e-16})));
- .MetroscopeModelingLibrary.WaterSteam.Pipes.Pipe pipe annotation (Placement(transformation(extent={{-16.5,-16.3333},{16.5,16.3333}})));
+ .MetroscopeModelingLibrary.WaterSteam.Pipes.FrictionPipe pipe annotation (Placement(transformation(extent={{-16.5,-16.3333},{16.5,16.3333}})));
equation
diff --git a/MetroscopeModelingLibrary/Tests/WaterSteam/Pipes/Pipe_reverse.mo b/MetroscopeModelingLibrary/Tests/WaterSteam/Pipes/Pipe_reverse.mo
index 0d0adcf6..bdb5fb5a 100644
--- a/MetroscopeModelingLibrary/Tests/WaterSteam/Pipes/Pipe_reverse.mo
+++ b/MetroscopeModelingLibrary/Tests/WaterSteam/Pipes/Pipe_reverse.mo
@@ -23,7 +23,7 @@ model Pipe_reverse
rotation=0,
origin={90,-6.10623e-16})));
- .MetroscopeModelingLibrary.WaterSteam.Pipes.Pipe pipe annotation (Placement(transformation(extent={{-16.5,-16.3333},{16.5,16.3333}})));
+ .MetroscopeModelingLibrary.WaterSteam.Pipes.FrictionPipe pipe annotation (Placement(transformation(extent={{-16.5,-16.3333},{16.5,16.3333}})));
MetroscopeModelingLibrary.Sensors.WaterSteam.DeltaPressureSensor DP_sensor annotation (Placement(transformation(extent={{-10,30},{10,50}})));
equation
diff --git a/MetroscopeModelingLibrary/Tests/WaterSteam/Pipes/SlideValve_direct_connector.mo b/MetroscopeModelingLibrary/Tests/WaterSteam/Pipes/SlideValve_direct_connector.mo
new file mode 100644
index 00000000..472f726c
--- /dev/null
+++ b/MetroscopeModelingLibrary/Tests/WaterSteam/Pipes/SlideValve_direct_connector.mo
@@ -0,0 +1,56 @@
+within MetroscopeModelingLibrary.Tests.WaterSteam.Pipes;
+model SlideValve_direct_connector
+ extends MetroscopeModelingLibrary.Utilities.Icons.Tests.WaterSteamTestIcon;
+
+ .MetroscopeModelingLibrary.WaterSteam.BoundaryConditions.Source source(h_out(start=1e6)) annotation (Placement(transformation(extent={{-194,-10},{-174,10}})));
+ .MetroscopeModelingLibrary.WaterSteam.BoundaryConditions.Sink sink annotation (Placement(transformation(
+ extent={{-10,-10},{10,10}},
+ rotation=0,
+ origin={-6,-6.10623e-16})));
+
+ Sensors_Control.WaterSteam.PressureSensor P_out_sensor(sensor_function="Calibration",
+ init_P=9) annotation (Placement(transformation(extent={{-38,-10},{-18,10}})));
+ Sensors_Control.WaterSteam.TemperatureSensor T_in_sensor(
+ sensor_function="BC", init_T=180,
+ signal_unit="degC") annotation (Placement(transformation(extent={{-170,-10},{-150,10}})));
+ Sensors_Control.WaterSteam.PressureSensor P_in_sensor(
+ sensor_function="BC", init_P=10,
+ signal_unit="barA") annotation (Placement(transformation(extent={{-140,-10},{-120,10}})));
+ Sensors_Control.WaterSteam.FlowSensor Q_in_sensor(
+ sensor_function="BC", init_Q=100,
+ signal_unit="kg/s") annotation (Placement(transformation(extent={{-110,-10},{-90,10}})));
+ Utilities.Interfaces.RealInput T_in annotation (Placement(transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-160,22}), iconTransformation(extent={{-420,-50},{-380,-10}})));
+ Utilities.Interfaces.RealInput P_in annotation (Placement(transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-130,22}), iconTransformation(extent={{-308,-48},{-268,-8}})));
+ Utilities.Interfaces.RealInput Q_in annotation (Placement(transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-100,22}), iconTransformation(extent={{-294,-44},{-254,-4}})));
+ Utilities.Interfaces.RealOutput P_out annotation (Placement(transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-28,22}), iconTransformation(extent={{-280,-16},{-240,24}})));
+ Utilities.Interfaces.RealInput Cv annotation (Placement(transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-62,42}), iconTransformation(extent={{-394,-120},{-354,-80}})));
+equation
+
+ connect(slide_valve.C_out, P_out_sensor.C_in) annotation (Line(points={{-45.5,-1.81818e-06},{-42,-1.81818e-06},{-42,0},{-38,0}}, color={28,108,200}));
+ connect(sink.C_in, P_out_sensor.C_out) annotation (Line(points={{-11,0},{-18,0}}, color={28,108,200}));
+ connect(T_in_sensor.C_in, source.C_out) annotation (Line(points={{-170,0},{-179,0}}, color={28,108,200}));
+ connect(P_in_sensor.C_in, T_in_sensor.C_out) annotation (Line(points={{-140,0},{-150,0}}, color={28,108,200}));
+ connect(slide_valve.C_in, Q_in_sensor.C_out) annotation (Line(points={{-78.5,0},{-90,0}}, color={28,108,200}));
+ connect(Q_in_sensor.C_in, P_in_sensor.C_out) annotation (Line(points={{-110,0},{-120,0}}, color={28,108,200}));
+ connect(T_in_sensor.T_sensor, T_in) annotation (Line(points={{-160,10},{-160,22}}, color={0,0,127}));
+ connect(P_in_sensor.P_sensor, P_in) annotation (Line(points={{-130,10},{-130,22}}, color={0,0,127}));
+ connect(Q_in_sensor.Q_sensor, Q_in) annotation (Line(points={{-100,10},{-100,22}}, color={0,0,127}));
+ connect(P_out_sensor.P_sensor, P_out) annotation (Line(points={{-28,10},{-28,22}}, color={0,0,127}));
+ connect(slide_valve.Cv_signal, Cv) annotation (Line(points={{-62,24.0545},{-62,42}}, color={0,0,127}));
+ annotation (Diagram(coordinateSystem(extent={{-240,-100},{20,100}})), Icon(coordinateSystem(extent={{-100,-100},{100,100}})));
+end SlideValve_direct_connector;
diff --git a/MetroscopeModelingLibrary/Tests/WaterSteam/Pipes/SlideValve_reverse.mo b/MetroscopeModelingLibrary/Tests/WaterSteam/Pipes/SlideValve_reverse.mo
index 336f072f..d0cbb9da 100644
--- a/MetroscopeModelingLibrary/Tests/WaterSteam/Pipes/SlideValve_reverse.mo
+++ b/MetroscopeModelingLibrary/Tests/WaterSteam/Pipes/SlideValve_reverse.mo
@@ -2,12 +2,6 @@ within MetroscopeModelingLibrary.Tests.WaterSteam.Pipes;
model SlideValve_reverse
extends MetroscopeModelingLibrary.Utilities.Icons.Tests.WaterSteamTestIcon;
- /* Note
- The slide valve is fully open, therefore the causality is different from a control valve.
- The slide valve cannot act as a pressure cut.
- Pressure does propagate through the slide valve in the direct mode.
- */
-
// Boundary conditions
input Utilities.Units.SpecificEnthalpy source_h(start=1e6);
input Utilities.Units.Pressure source_P(
diff --git a/MetroscopeModelingLibrary/Tests/WaterSteam/Pipes/SlideValve_reverse_connector.mo b/MetroscopeModelingLibrary/Tests/WaterSteam/Pipes/SlideValve_reverse_connector.mo
new file mode 100644
index 00000000..f977250e
--- /dev/null
+++ b/MetroscopeModelingLibrary/Tests/WaterSteam/Pipes/SlideValve_reverse_connector.mo
@@ -0,0 +1,66 @@
+within MetroscopeModelingLibrary.Tests.WaterSteam.Pipes;
+model SlideValve_reverse_connector
+ extends MetroscopeModelingLibrary.Utilities.Icons.Tests.WaterSteamTestIcon;
+ /*
+ Model Inputs:
+ T_in
+ P_in
+ Q_in
+ P_out
+
+ Model Outputs:
+ Cv
+ */
+
+ .MetroscopeModelingLibrary.WaterSteam.BoundaryConditions.Source source(h_out(start=1e6)) annotation (Placement(transformation(extent={{-194,-10},{-174,10}})));
+ .MetroscopeModelingLibrary.WaterSteam.BoundaryConditions.Sink sink annotation (Placement(transformation(
+ extent={{-10,-10},{10,10}},
+ rotation=0,
+ origin={-6,-6.10623e-16})));
+
+ Sensors_Control.WaterSteam.PressureSensor P_out_sensor(sensor_function="Calibration",
+ init_P=9) annotation (Placement(transformation(extent={{-38,-10},{-18,10}})));
+ Sensors_Control.WaterSteam.TemperatureSensor T_in_sensor(
+ sensor_function="BC", init_T=180,
+ signal_unit="degC") annotation (Placement(transformation(extent={{-170,-10},{-150,10}})));
+ Sensors_Control.WaterSteam.PressureSensor P_in_sensor(
+ sensor_function="BC", init_P=10,
+ signal_unit="barA") annotation (Placement(transformation(extent={{-140,-10},{-120,10}})));
+ Sensors_Control.WaterSteam.FlowSensor Q_in_sensor(
+ sensor_function="BC", init_Q=100,
+ signal_unit="kg/s") annotation (Placement(transformation(extent={{-110,-10},{-90,10}})));
+ Utilities.Interfaces.RealInput T_in annotation (Placement(transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-160,22}), iconTransformation(extent={{-420,-50},{-380,-10}})));
+ Utilities.Interfaces.RealInput P_in annotation (Placement(transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-130,22}), iconTransformation(extent={{-308,-48},{-268,-8}})));
+ Utilities.Interfaces.RealInput Q_in annotation (Placement(transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-100,22}), iconTransformation(extent={{-294,-44},{-254,-4}})));
+ Utilities.Interfaces.RealInput P_out annotation (Placement(transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-28,22}), iconTransformation(extent={{-280,-16},{-240,24}})));
+ Utilities.Interfaces.RealOutput Cv annotation (Placement(transformation(
+ extent={{-4,-4},{4,4}},
+ rotation=270,
+ origin={-62,40}), iconTransformation(extent={{-266,-42},{-246,-22}})));
+equation
+
+ connect(slide_valve.C_out, P_out_sensor.C_in) annotation (Line(points={{-45.5,-1.81818e-06},{-42,-1.81818e-06},{-42,0},{-38,0}}, color={28,108,200}));
+ connect(sink.C_in, P_out_sensor.C_out) annotation (Line(points={{-11,0},{-18,0}}, color={28,108,200}));
+ connect(T_in_sensor.C_in, source.C_out) annotation (Line(points={{-170,0},{-179,0}}, color={28,108,200}));
+ connect(P_in_sensor.C_in, T_in_sensor.C_out) annotation (Line(points={{-140,0},{-150,0}}, color={28,108,200}));
+ connect(slide_valve.C_in, Q_in_sensor.C_out) annotation (Line(points={{-78.5,0},{-90,0}}, color={28,108,200}));
+ connect(Q_in_sensor.C_in, P_in_sensor.C_out) annotation (Line(points={{-110,0},{-120,0}}, color={28,108,200}));
+ connect(T_in_sensor.T_sensor, T_in) annotation (Line(points={{-160,10},{-160,22}}, color={0,0,127}));
+ connect(P_in_sensor.P_sensor, P_in) annotation (Line(points={{-130,10},{-130,22}}, color={0,0,127}));
+ connect(Q_in_sensor.Q_sensor, Q_in) annotation (Line(points={{-100,10},{-100,22}}, color={0,0,127}));
+ connect(P_out_sensor.P_sensor, P_out) annotation (Line(points={{-28,10},{-28,22}}, color={0,0,127}));
+ connect(Cv, slide_valve.Cv_signal) annotation (Line(points={{-62,40},{-62,24.0545}}, color={0,0,127}));
+ annotation (Diagram(coordinateSystem(extent={{-240,-100},{20,100}})), Icon(coordinateSystem(extent={{-100,-100},{100,100}})));
+end SlideValve_reverse_connector;
diff --git a/MetroscopeModelingLibrary/Tests/WaterSteam/Pipes/package.order b/MetroscopeModelingLibrary/Tests/WaterSteam/Pipes/package.order
index 6cdbaf33..c6b70c69 100644
--- a/MetroscopeModelingLibrary/Tests/WaterSteam/Pipes/package.order
+++ b/MetroscopeModelingLibrary/Tests/WaterSteam/Pipes/package.order
@@ -11,3 +11,5 @@ Leak
SlideValve_reverse
SlideValve_direct
Manifold
+SlideValve_reverse_connector
+SlideValve_direct_connector
diff --git a/MetroscopeModelingLibrary/Utilities/Functions/ListInputsOutputs.mo b/MetroscopeModelingLibrary/Utilities/Functions/ListInputsOutputs.mo
new file mode 100644
index 00000000..51c90730
--- /dev/null
+++ b/MetroscopeModelingLibrary/Utilities/Functions/ListInputsOutputs.mo
@@ -0,0 +1,47 @@
+within MetroscopeModelingLibrary.Utilities.Functions;
+function ListInputsOutputs
+
+input String modelPath "Model path";
+ output String realInputNames "Extracted RealInput variable names with label";
+ output String realOutputNames "Extracted RealOutput variable names with label";
+protected
+ //String filePath;
+ String[:] fileContent;
+ String line, remaining, name;
+ Integer posInput, posOutput, startIndex, nextIndex;
+ String inputsList = "";
+ String outputsList = "";
+algorithm
+ // Read the file
+ // filePath := Modelica.Utilities.Files.fullPathName(modelPath);
+ fileContent := Modelica.Utilities.Streams.readFile(modelPath);
+
+ // Loop through each line
+ for i in 1:size(fileContent, 1) loop
+ line := fileContent[i];
+
+ // Check for RealInput
+ posInput := Modelica.Utilities.Strings.find(line, "RealInput");
+ if posInput > 0 then
+ startIndex := posInput + 9;
+ remaining := Modelica.Utilities.Strings.substring(line, startIndex + 1, Modelica.Utilities.Strings.length(line));
+ (name, nextIndex) := Modelica.Utilities.Strings.scanIdentifier(remaining, 1);
+ inputsList := inputsList + name + "\n";
+ end if;
+
+ // Check for RealOutput
+ posOutput := Modelica.Utilities.Strings.find(line, "RealOutput");
+ if posOutput > 0 then
+ startIndex := posOutput + 10;
+ remaining := Modelica.Utilities.Strings.substring(line, startIndex + 1, Modelica.Utilities.Strings.length(line));
+ (name, nextIndex) := Modelica.Utilities.Strings.scanIdentifier(remaining, 1);
+ outputsList := outputsList + name + "\n";
+ end if;
+ end for;
+
+ // Add headers before returning
+ realInputNames := "Model Inputs:\n" + inputsList;
+ realOutputNames := "Model Outputs:\n" + outputsList;
+
+
+end ListInputsOutputs;
diff --git a/MetroscopeModelingLibrary/Utilities/Functions/package.mo b/MetroscopeModelingLibrary/Utilities/Functions/package.mo
new file mode 100644
index 00000000..cba69afe
--- /dev/null
+++ b/MetroscopeModelingLibrary/Utilities/Functions/package.mo
@@ -0,0 +1,3 @@
+within MetroscopeModelingLibrary.Utilities;
+package Functions
+end Functions;
diff --git a/MetroscopeModelingLibrary/Utilities/Functions/package.order b/MetroscopeModelingLibrary/Utilities/Functions/package.order
new file mode 100644
index 00000000..06116c89
--- /dev/null
+++ b/MetroscopeModelingLibrary/Utilities/Functions/package.order
@@ -0,0 +1 @@
+ListInputsOutputs
diff --git a/MetroscopeModelingLibrary/Utilities/Interfaces/BoundaryCondition.mo b/MetroscopeModelingLibrary/Utilities/Interfaces/BoundaryCondition.mo
new file mode 100644
index 00000000..909a05d4
--- /dev/null
+++ b/MetroscopeModelingLibrary/Utilities/Interfaces/BoundaryCondition.mo
@@ -0,0 +1,40 @@
+within MetroscopeModelingLibrary.Utilities.Interfaces;
+connector BoundaryCondition
+ = input Real "'input Real' as connector" annotation (
+ Dialog,
+ signalLogging=true,
+ defaultComponentName="u",
+ Icon(graphics={
+ Text(
+ extent={{-100,-160},{102,-200}},
+ textColor={0,0,0},
+ textString=DynamicSelect("",String(start))),
+ Polygon(
+ lineColor={28,108,200},
+ fillColor={238,46,47},
+ fillPattern=FillPattern.Solid,
+ points={{-100.0,100.0},{100.0,0.0},{-100.0,-100.0}})},
+ coordinateSystem(extent={{-100.0,-100.0},{100.0,100.0}},
+ preserveAspectRatio=true,
+ initialScale=0.2)),
+ Diagram(
+ coordinateSystem(preserveAspectRatio=true,
+ initialScale=0.2,
+ extent={{-20,-20},{20,20}}),
+ graphics={
+ Polygon(
+ lineColor={238,46,47},
+ fillColor={238,46,47},
+ fillPattern=FillPattern.Solid,
+ points={{0,10},{20,0},{0,-10},{0,10}}),
+ Text(
+ textColor={238,46,47},
+ extent={{-80,-20},{0,20}},
+ textString="%name",
+ origin={-20,40},
+ rotation=90)}),
+ Documentation(info="
+
+Connector with one input signal of type Real.
+
+"));
diff --git a/MetroscopeModelingLibrary/Utilities/Interfaces/CalibrationInput.mo b/MetroscopeModelingLibrary/Utilities/Interfaces/CalibrationInput.mo
new file mode 100644
index 00000000..07de02fc
--- /dev/null
+++ b/MetroscopeModelingLibrary/Utilities/Interfaces/CalibrationInput.mo
@@ -0,0 +1,40 @@
+within MetroscopeModelingLibrary.Utilities.Interfaces;
+connector CalibrationInput
+ = input Real "'input Real' as connector" annotation (
+ Dialog,
+ signalLogging=true,
+ defaultComponentName="u",
+ Icon(graphics={
+ Text(
+ extent={{-100,-160},{102,-200}},
+ textColor={0,0,0},
+ textString=DynamicSelect("",String(start))),
+ Polygon(
+ lineColor={28,108,200},
+ fillColor={0,140,72},
+ fillPattern=FillPattern.Solid,
+ points={{-100.0,100.0},{100.0,0.0},{-100.0,-100.0}})},
+ coordinateSystem(extent={{-100.0,-100.0},{100.0,100.0}},
+ preserveAspectRatio=true,
+ initialScale=0.2)),
+ Diagram(
+ coordinateSystem(preserveAspectRatio=true,
+ initialScale=0.2,
+ extent={{-20,-20},{20,20}}),
+ graphics={
+ Polygon(
+ lineColor={0,140,72},
+ fillColor={0,140,72},
+ fillPattern=FillPattern.Solid,
+ points={{0,10},{20,0},{0,-10},{0,10}}),
+ Text(
+ textColor={0,140,72},
+ extent={{-80,-20},{0,20}},
+ textString="%name",
+ origin={-20,40},
+ rotation=90)}),
+ Documentation(info="
+
+Connector with one input signal of type Real.
+
+"));
diff --git a/MetroscopeModelingLibrary/Utilities/Interfaces/GenericReal.mo b/MetroscopeModelingLibrary/Utilities/Interfaces/GenericReal.mo
new file mode 100644
index 00000000..292730f6
--- /dev/null
+++ b/MetroscopeModelingLibrary/Utilities/Interfaces/GenericReal.mo
@@ -0,0 +1,33 @@
+within MetroscopeModelingLibrary.Utilities.Interfaces;
+connector GenericReal = Real "generic connector" annotation (
+ defaultComponentName="u",
+ Icon(
+ coordinateSystem(preserveAspectRatio=true,
+ extent={{-100.0,-100.0},{100.0,100.0}}),
+ graphics={
+ Polygon(
+ lineColor={0,0,127},
+ fillColor={255,255,255},
+ fillPattern=FillPattern.Solid,
+ points={{-100.0,100.0},{100.0,0.0},{-100.0,-100.0}})}),
+ Diagram(
+ coordinateSystem(preserveAspectRatio=true,
+ extent={{-20,-20},{20,20}},
+ initialScale=0.2),
+ graphics={
+ Text(
+ textColor={0,0,127},
+ extent={{-80,-20},{0,20}},
+ textString="%name",
+ origin={-20,40},
+ rotation=90),
+ Polygon(
+ lineColor={0,0,127},
+ fillColor={255,255,255},
+ fillPattern=FillPattern.Solid,
+ points={{0,10},{20,0},{0,-10},{0,10}})}),
+ Documentation(info="
+
+Connector with one input signal of type Real.
+
+"));
diff --git a/MetroscopeModelingLibrary/Utilities/Interfaces/Observable.mo b/MetroscopeModelingLibrary/Utilities/Interfaces/Observable.mo
new file mode 100644
index 00000000..011c5aef
--- /dev/null
+++ b/MetroscopeModelingLibrary/Utilities/Interfaces/Observable.mo
@@ -0,0 +1,33 @@
+within MetroscopeModelingLibrary.Utilities.Interfaces;
+connector Observable = output Real "'output Real' as connector" annotation (
+ defaultComponentName="y",
+ Icon(
+ coordinateSystem(preserveAspectRatio=true,
+ extent={{-100.0,-100.0},{100.0,100.0}}),
+ graphics={
+ Polygon(
+ lineColor={0,0,127},
+ fillColor={255,255,255},
+ fillPattern=FillPattern.Solid,
+ points={{-100.0,100.0},{100.0,0.0},{-100.0,-100.0}})}),
+ Diagram(
+ coordinateSystem(preserveAspectRatio=true,
+ extent={{-20,-20},{20,20}},
+ initialScale=0.2),
+ graphics={
+ Text(
+ textColor={0,0,127},
+ extent={{-80,-20},{0,20}},
+ textString="%name",
+ origin={-20,40},
+ rotation=90),
+ Polygon(
+ lineColor={0,0,127},
+ fillColor={255,255,255},
+ fillPattern=FillPattern.Solid,
+ points={{0,10},{20,0},{0,-10},{0,10}})}),
+ Documentation(info="
+
+Connector with one output signal of type Real.
+
+"));
diff --git a/MetroscopeModelingLibrary/Utilities/Interfaces/RealExpression.mo b/MetroscopeModelingLibrary/Utilities/Interfaces/RealExpression.mo
new file mode 100644
index 00000000..5d4605ac
--- /dev/null
+++ b/MetroscopeModelingLibrary/Utilities/Interfaces/RealExpression.mo
@@ -0,0 +1,41 @@
+within MetroscopeModelingLibrary.Utilities.Interfaces;
+block RealExpression "Set output signal to a time varying Real expression"
+
+ Modelica.Blocks.Interfaces.RealOutput y=0.0 "Value of Real output"
+ annotation (Dialog(group="Time varying output signal"), Placement(
+ transformation(extent={{-10,-10},{10,10}},
+ rotation=270,
+ origin={0,-50}), iconTransformation(
+ extent={{-10,-10},{10,10}},
+ rotation=270,
+ origin={0,-50})));
+
+ annotation (Icon(coordinateSystem(
+ preserveAspectRatio=false,
+ extent={{-100,-100},{100,100}}), graphics={
+ Rectangle(
+ extent={{-100,40},{100,-40}},
+ fillColor={215,215,215},
+ fillPattern=FillPattern.Solid,
+ pattern=LinePattern.None),
+ Text(
+ extent={{-96,15},{96,-15}},
+ textColor={0,0,0},
+ textString="%y"),
+ Text(
+ extent={{-100,80},{100,40}},
+ textColor={0,0,0},
+ textString="%name")}), Documentation(info="
+
+The (time varying) Real output signal of this block can be defined in its
+parameter menu via variable y. The purpose is to support the
+easy definition of Real expressions in a block diagram. For example,
+in the y-menu the definition \"if time < 1 then 0 else 1\" can be given in order
+to define that the output signal is one, if time ≥ 1 and otherwise
+it is zero. Note, that \"time\" is a built-in variable that is always
+accessible and represents the \"model time\" and that
+variable y is both a variable and a connector.
+
+"));
+
+end RealExpression;
diff --git a/MetroscopeModelingLibrary/Utilities/Interfaces/RealInput.mo b/MetroscopeModelingLibrary/Utilities/Interfaces/RealInput.mo
new file mode 100644
index 00000000..14e3e6a2
--- /dev/null
+++ b/MetroscopeModelingLibrary/Utilities/Interfaces/RealInput.mo
@@ -0,0 +1,39 @@
+within MetroscopeModelingLibrary.Utilities.Interfaces;
+connector RealInput = input Real "'input Real' as connector" annotation (
+ Dialog,
+ signalLogging=true,
+ defaultComponentName="u",
+ Icon(graphics={
+ Text(
+ extent={{-100,-160},{102,-200}},
+ textColor={0,0,0},
+ textString=DynamicSelect("",String(start))),
+ Polygon(
+ lineColor={0,0,127},
+ fillColor={0,0,127},
+ fillPattern=FillPattern.Solid,
+ points={{-100.0,100.0},{100.0,0.0},{-100.0,-100.0}})},
+ coordinateSystem(extent={{-100.0,-100.0},{100.0,100.0}},
+ preserveAspectRatio=true,
+ initialScale=0.2)),
+ Diagram(
+ coordinateSystem(preserveAspectRatio=true,
+ initialScale=0.2,
+ extent={{-20,-20},{20,20}}),
+ graphics={
+ Polygon(
+ lineColor={0,0,127},
+ fillColor={0,0,127},
+ fillPattern=FillPattern.Solid,
+ points={{0,10},{20,0},{0,-10},{0,10}}),
+ Text(
+ textColor={0,0,127},
+ extent={{-80,-20},{0,20}},
+ textString="%name",
+ origin={-20,40},
+ rotation=90)}),
+ Documentation(info="
+
+Connector with one input signal of type Real.
+
+"));
diff --git a/MetroscopeModelingLibrary/Utilities/Interfaces/RealOutput.mo b/MetroscopeModelingLibrary/Utilities/Interfaces/RealOutput.mo
new file mode 100644
index 00000000..5422aa20
--- /dev/null
+++ b/MetroscopeModelingLibrary/Utilities/Interfaces/RealOutput.mo
@@ -0,0 +1,33 @@
+within MetroscopeModelingLibrary.Utilities.Interfaces;
+connector RealOutput = output Real "'output Real' as connector" annotation (
+ defaultComponentName="y",
+ Icon(
+ coordinateSystem(preserveAspectRatio=true,
+ extent={{-100.0,-100.0},{100.0,100.0}}),
+ graphics={
+ Polygon(
+ lineColor={0,0,127},
+ fillColor={255,255,255},
+ fillPattern=FillPattern.Solid,
+ points={{-100.0,100.0},{100.0,0.0},{-100.0,-100.0}})}),
+ Diagram(
+ coordinateSystem(preserveAspectRatio=true,
+ extent={{-20,-20},{20,20}},
+ initialScale=0.2),
+ graphics={
+ Text(
+ textColor={0,0,127},
+ extent={{-80,-20},{0,20}},
+ textString="%name",
+ origin={-20,40},
+ rotation=90),
+ Polygon(
+ lineColor={0,0,127},
+ fillColor={255,255,255},
+ fillPattern=FillPattern.Solid,
+ points={{0,10},{20,0},{0,-10},{0,10}})}),
+ Documentation(info="
+
+Connector with one output signal of type Real.
+
+"));
diff --git a/MetroscopeModelingLibrary/Utilities/Interfaces/package.mo b/MetroscopeModelingLibrary/Utilities/Interfaces/package.mo
new file mode 100644
index 00000000..55b5d6de
--- /dev/null
+++ b/MetroscopeModelingLibrary/Utilities/Interfaces/package.mo
@@ -0,0 +1,3 @@
+within MetroscopeModelingLibrary.Utilities;
+package Interfaces
+end Interfaces;
diff --git a/MetroscopeModelingLibrary/Utilities/Interfaces/package.order b/MetroscopeModelingLibrary/Utilities/Interfaces/package.order
new file mode 100644
index 00000000..6e59b029
--- /dev/null
+++ b/MetroscopeModelingLibrary/Utilities/Interfaces/package.order
@@ -0,0 +1,7 @@
+GenericReal
+RealInput
+RealOutput
+RealExpression
+BoundaryCondition
+CalibrationInput
+Observable
diff --git a/MetroscopeModelingLibrary/Utilities/package.order b/MetroscopeModelingLibrary/Utilities/package.order
index 07824677..01e58259 100644
--- a/MetroscopeModelingLibrary/Utilities/package.order
+++ b/MetroscopeModelingLibrary/Utilities/package.order
@@ -2,3 +2,5 @@ Icons
Units
Constants
Media
+Interfaces
+Functions
diff --git a/MetroscopeModelingLibrary/WaterSteam/HeatExchangers/Condenser.mo b/MetroscopeModelingLibrary/WaterSteam/HeatExchangers/Condenser.mo
index 595fc01b..6e88ce9d 100644
--- a/MetroscopeModelingLibrary/WaterSteam/HeatExchangers/Condenser.mo
+++ b/MetroscopeModelingLibrary/WaterSteam/HeatExchangers/Condenser.mo
@@ -5,11 +5,8 @@ model Condenser
import MetroscopeModelingLibrary.Utilities.Units;
import MetroscopeModelingLibrary.Utilities.Units.Inputs;
- Inputs.InputHeight water_height;
- Inputs.InputFrictionCoefficient Kfr_cold;
- Inputs.InputArea S;
- Units.HeatExchangeCoefficient Kth;
- Units.VolumeFlowRate Qv_cold_in(start=Q_cold_0/1e3);
+ parameter Inputs.InputHeight water_height=1;
+ parameter Units.Area S = 50000;
parameter String QCp_max_side = "cold";
@@ -27,8 +24,7 @@ model Condenser
Units.Pressure P_incond(start=0.0);
Units.DifferentialPressure water_height_DP(start = water_height_DP_0);
- Inputs.InputReal C_incond(unit="mol/m3", min=0, start=0) "Incondensable molar concentration";
- Inputs.InputPressure P_offset(start=0) "Offset correction for ideal gas law";
+ parameter Inputs.InputPressure P_offset=0 "Offset correction for ideal gas law";
constant Real R(unit="J/(mol.K)") = Modelica.Constants.R "ideal gas constant";
// Failure modes
@@ -60,11 +56,12 @@ model Condenser
Connectors.Outlet C_cold_out(Q(start=-Q_cold_0), P(start=P_cold_out_0))
annotation (Placement(transformation(extent={{88,-10},{108,10}}),iconTransformation(extent={{88,-10},{108,10}})));
- Pipes.Pipe cold_side_pipe(
+ Pipes.FrictionPipe cold_side_pipe(
P_in_0=P_cold_in_0,
- P_out_0=P_cold_out_0, Q_0=Q_cold_0,
+ P_out_0=P_cold_out_0,
+ Q_0=Q_cold_0,
T_0=T_cold_in_0,
- h_0=h_cold_in_0) annotation (Placement(transformation(extent={{-80,30},{-60,50}})));
+ h_0=h_cold_in_0) annotation (Placement(transformation(extent={{-80,-10},{-60,10}})));
BaseClasses.IsoPFlowModel hot_side(
T_in_0=Tsat_0,
T_out_0=Tsat_0,
@@ -79,10 +76,10 @@ model Condenser
h_in_0=h_cold_in_0,
h_out_0=h_cold_out_0, Q_0=Q_cold_0,
P_0=P_cold_out_0) annotation (Placement(transformation(extent={{-24,-24},{24,24}})));
- Pipes.Pipe water_height_pipe(
+ Pipes.HeightVariationPipe water_height_pipe(
Q_0=Q_hot_0,
P_in_0=Psat_0,
- P_out_0=Psat_0+water_height_DP_0,
+ P_out_0=Psat_0 + water_height_DP_0,
T_0=Tsat_0,
h_0=h_liq_sat_0) annotation (Placement(transformation(
extent={{-10,-10},{10,10}},
@@ -100,6 +97,35 @@ model Condenser
rotation=270,
origin={-40,-18})));
+ Utilities.Interfaces.GenericReal Qv_cold_in annotation (Placement(transformation(
+ extent={{-10,-10},{10,10}},
+ rotation=180,
+ origin={-110,50}), iconTransformation(
+ extent={{-10,-10},{10,10}},
+ rotation=180,
+ origin={-110,80})));
+ Utilities.Interfaces.GenericReal Kfr_cold annotation (Placement(transformation(
+ extent={{-10,-10},{10,10}},
+ rotation=180,
+ origin={-110,80}), iconTransformation(
+ extent={{-10,-10},{10,10}},
+ rotation=180,
+ origin={-110,40})));
+ Utilities.Interfaces.GenericReal Kth annotation (Placement(transformation(
+ extent={{-10,-10},{10,10}},
+ rotation=90,
+ origin={-80,110}), iconTransformation(
+ extent={{-10,-10},{10,10}},
+ rotation=90,
+ origin={-64,110})));
+ Utilities.Interfaces.GenericReal C_incond annotation (Placement(
+ transformation(
+ extent={{-10,-10},{10,10}},
+ rotation=90,
+ origin={-40,110}), iconTransformation(
+ extent={{-10,-10},{10,10}},
+ rotation=90,
+ origin={64,110})));
equation
// Failure modes
@@ -126,10 +152,8 @@ equation
hot_side.W + cold_side.W = 0;
// Pressure losses
- cold_side_pipe.delta_z=0;
cold_side_pipe.Kfr = Kfr_cold;
water_height_pipe.delta_z = - water_height;
- water_height_pipe.Kfr = 0;
water_height_pipe.DP = water_height_DP;
// Incondensables
@@ -151,7 +175,7 @@ equation
0 = Tsat - T_cold_out - (Tsat - T_cold_in)*exp(Kth*(1-fouling/100)*S*((T_cold_in - T_cold_out)/W));
connect(cold_side_pipe.C_out, cold_side.C_in) annotation (Line(
- points={{-60,40},{-52,40},{-52,0},{-24,0}},
+ points={{-60,0},{-24,0}},
color={28,108,200},
thickness=1));
connect(cold_side.C_out, C_cold_out) annotation (Line(
@@ -159,7 +183,7 @@ equation
color={28,108,200},
thickness=1));
connect(cold_side_pipe.C_in, C_cold_in) annotation (Line(
- points={{-80,40},{-90,40},{-90,0},{-100,0}},
+ points={{-80,0},{-100,0}},
color={28,108,200},
thickness=1));
connect(water_height_pipe.C_out, C_hot_out) annotation (Line(
diff --git a/MetroscopeModelingLibrary/WaterSteam/HeatExchangers/DryReheater.mo b/MetroscopeModelingLibrary/WaterSteam/HeatExchangers/DryReheater.mo
index ec9d47d4..5e3ffcdd 100644
--- a/MetroscopeModelingLibrary/WaterSteam/HeatExchangers/DryReheater.mo
+++ b/MetroscopeModelingLibrary/WaterSteam/HeatExchangers/DryReheater.mo
@@ -5,10 +5,7 @@ model DryReheater
import MetroscopeModelingLibrary.Utilities.Units;
import MetroscopeModelingLibrary.Utilities.Units.Inputs;
- Inputs.InputFrictionCoefficient Kfr_hot;
- Inputs.InputFrictionCoefficient Kfr_cold;
- Inputs.InputArea S;
- Units.HeatExchangeCoefficient Kth;
+ parameter Inputs.InputArea S=100;
Units.SpecificEnthalpy h_vap_sat(start=h_vap_sat_0);
Units.SpecificEnthalpy h_liq_sat(start=h_liq_sat_0);
@@ -65,19 +62,12 @@ model DryReheater
P(start=P_cold_out_0),
h_outflow(start=h_cold_out_0)) annotation (Placement(transformation(extent={{150,-10},{170,10}}), iconTransformation(extent={{150,-10},{170,10}})));
- Pipes.Pipe cold_side_pipe(
+ Pipes.FrictionPipe cold_side_pipe(
P_in_0=P_cold_in_0,
- P_out_0=P_cold_out_0, Q_0=Q_cold_0,
+ P_out_0=P_cold_out_0,
+ Q_0=Q_cold_0,
T_0=T_cold_in_0,
- h_0=h_cold_in_0) annotation (Placement(transformation(extent={{-140,-10},{-120,10}})));
- Pipes.Pipe hot_side_pipe(
- P_in_0=P_hot_in_0,
- P_out_0=P_hot_out_0, Q_0=Q_hot_0,
- T_0=T_hot_in_0,
- h_0=h_hot_in_0) annotation (Placement(transformation(
- extent={{-10,-10},{10,10}},
- rotation=270,
- origin={0,56})));
+ h_0=h_cold_in_0) annotation (Placement(transformation(extent={{-140,-10},{-120,10}})));
BaseClasses.IsoPFlowModel hot_side_deheating(
T_in_0=T_hot_in_0,
T_out_0=T_hot_in_0,
@@ -115,6 +105,20 @@ model DryReheater
rotation=90,
origin={144,-18})));
Pipes.Leak partition_plate annotation (Placement(transformation(extent={{-98,-64},{-78,-44}})));
+ Utilities.Interfaces.GenericReal Kfr_cold annotation (Placement(
+ transformation(
+ extent={{-20,-20},{20,20}},
+ rotation=270,
+ origin={-130,78}), iconTransformation(extent={{-20,-20},{20,20}},
+ rotation=180,
+ origin={-180,40})));
+ Utilities.Interfaces.GenericReal Kth annotation (Placement(transformation(
+ extent={{-20,-20},{20,20}},
+ rotation=270,
+ origin={-90,78}), iconTransformation(
+ extent={{-20,-20},{20,20}},
+ rotation=90,
+ origin={-80,100})));
protected
parameter Units.SpecificEnthalpy h_vap_sat_0 = WaterSteamMedium.dewEnthalpy(WaterSteamMedium.setSat_p(P_hot_out_0));
parameter Units.SpecificEnthalpy h_liq_sat_0 = WaterSteamMedium.bubbleEnthalpy(WaterSteamMedium.setSat_p(P_hot_out_0));
@@ -134,23 +138,17 @@ equation
Q_hot_out = C_hot_out.Q;
T_cold_in = cold_side_pipe.T_in;
T_cold_out =final_mix_cold.T_out;
- T_hot_in = hot_side_pipe.T_in;
+ T_hot_in = hot_side_deheating.T_in;
T_hot_out = final_mix_hot.T_out;
Tsat = hot_side_deheating.T_out;
h_vap_sat = WaterSteamMedium.dewEnthalpy(WaterSteamMedium.setSat_p(hot_side_deheating.P_in));
h_liq_sat = WaterSteamMedium.bubbleEnthalpy(WaterSteamMedium.setSat_p(hot_side_deheating.P_in));
- // Pressure losses
- cold_side_pipe.delta_z=0;
- cold_side_pipe.Kfr = Kfr_cold;
- hot_side_pipe.delta_z=0;
- hot_side_pipe.Kfr = Kfr_hot;
-
/* Deheating */
// Energy balance
hot_side_deheating.W + cold_side_deheating.W = 0;
- cold_side_deheating.W =W_deheat;
+ cold_side_deheating.W = W_deheat;
// Power Exchange
if hot_side_deheating.h_in > h_vap_sat then
@@ -162,14 +160,14 @@ equation
/* Condensing */
// Energy Balance
hot_side_condensing.W + cold_side_condensing.W = 0;
- cold_side_condensing.W =W_cond;
+ cold_side_condensing.W = W_cond;
// Power Exchange
hot_side_condensing.h_out = h_liq_sat;
- HX_condensing.W =W_cond;
+ HX_condensing.W = W_cond;
HX_condensing.Kth = Kth*(1-fouling/100);
- HX_condensing.S =S;
+ HX_condensing.S = S;
HX_condensing.Q_cold = cold_side_condensing.Q;
HX_condensing.Q_hot = hot_side_condensing.Q;
HX_condensing.T_cold_in = cold_side_condensing.T_in;
@@ -196,14 +194,6 @@ equation
points={{-140,0},{-162,0}},
color={28,108,200},
thickness=1));
- connect(C_hot_in, hot_side_pipe.C_in) annotation (Line(
- points={{0,80},{0,71},{1.77636e-15,71},{1.77636e-15,66}},
- color={238,46,47},
- thickness=1));
- connect(hot_side_pipe.C_out, hot_side_deheating.C_in) annotation (Line(
- points={{-1.77636e-15,46},{-1.77636e-15,40},{134,40},{134,19},{94,19}},
- color={238,46,47},
- thickness=1));
connect(hot_side_deheating.C_out, hot_side_condensing.C_in) annotation (Line(
points={{48,19},{48,20},{-36,20},{-36,21}},
color={238,46,47},
@@ -240,6 +230,12 @@ equation
points={{144,-8},{144,0},{160,0}},
color={28,108,200},
thickness=1));
+ connect(Kfr_cold, cold_side_pipe.Kfr)
+ annotation (Line(points={{-130,78},{-130,4}}, color={0,0,127}));
+ connect(hot_side_deheating.C_in, C_hot_in) annotation (Line(
+ points={{94,19},{120,19},{120,60},{0,60},{0,80}},
+ color={255,0,0},
+ thickness=1));
annotation (Icon(coordinateSystem(extent={{-160,-80},{160,80}}),
graphics={
Polygon(
diff --git a/MetroscopeModelingLibrary/WaterSteam/HeatExchangers/LiqLiqHX.mo b/MetroscopeModelingLibrary/WaterSteam/HeatExchangers/LiqLiqHX.mo
index f4f2ba02..857ded26 100644
--- a/MetroscopeModelingLibrary/WaterSteam/HeatExchangers/LiqLiqHX.mo
+++ b/MetroscopeModelingLibrary/WaterSteam/HeatExchangers/LiqLiqHX.mo
@@ -4,11 +4,9 @@ model LiqLiqHX
import MetroscopeModelingLibrary.Utilities.Units;
import MetroscopeModelingLibrary.Utilities.Units.Inputs;
- Inputs.InputFrictionCoefficient Kfr_hot;
- Inputs.InputFrictionCoefficient Kfr_cold;
- Inputs.InputArea S;
- Inputs.InputHeatExchangeCoefficient Kth;
+
+ parameter Inputs.InputArea S=100;
parameter String QCp_max_side = "cold";
parameter String HX_config = "shell_and_tubes_two_passes"; // Valid for U-shaped tubes. Otherwise use "monophasic_cross_current"
@@ -51,8 +49,18 @@ model LiqLiqHX
Connectors.Outlet C_hot_out(Q(start=Q_cold_0), P(start=P_hot_out_0), h_outflow(start=h_hot_out_0)) annotation (Placement(transformation(extent={{-10,-90},{10,-70}}), iconTransformation(extent={{-10,-90},{10,-70}})));
Connectors.Outlet C_cold_out(Q(start=-Q_cold_0), P(start=P_cold_out_0), h_outflow(start=h_cold_out_0)) annotation (Placement(transformation(extent={{150,-10},{170,10}}), iconTransformation(extent={{150,-10},{170,10}})));
- Pipes.Pipe cold_side_pipe(Q_0=Q_cold_0, P_in_0 = P_cold_in_0, P_out_0 = P_cold_out_0, h_0 = h_cold_in_0, T_0 = T_cold_in_0) annotation (Placement(transformation(extent={{-140,-10},{-120,10}})));
- Pipes.Pipe hot_side_pipe(Q_0=Q_hot_0, P_in_0 = P_hot_in_0, P_out_0 = P_hot_out_0, h_0 = h_hot_in_0, T_0 = T_hot_in_0) annotation (Placement(transformation(
+ Pipes.FrictionPipe cold_side_pipe(
+ Q_0=Q_cold_0,
+ P_in_0=P_cold_in_0,
+ P_out_0=P_cold_out_0,
+ h_0=h_cold_in_0,
+ T_0=T_cold_in_0) annotation (Placement(transformation(extent={{-140,-10},{-120,10}})));
+ Pipes.FrictionPipe hot_side_pipe(
+ Q_0=Q_hot_0,
+ P_in_0=P_hot_in_0,
+ P_out_0=P_hot_out_0,
+ h_0=h_hot_in_0,
+ T_0=T_hot_in_0) annotation (Placement(transformation(
extent={{-10,-10},{10,10}},
rotation=270,
origin={0,52})));
@@ -66,6 +74,27 @@ model LiqLiqHX
extent={{-10,-10},{10,10}},
rotation=180,
origin={0,-6})));
+ Utilities.Interfaces.GenericReal Kth annotation (Placement(transformation(
+ extent={{-20,-20},{20,20}},
+ rotation=270,
+ origin={-68,64}), iconTransformation(
+ extent={{-20,-20},{20,20}},
+ rotation=90,
+ origin={-96,100})));
+ Utilities.Interfaces.GenericReal Kfr_cold annotation (Placement(transformation(
+ extent={{-20,-20},{20,20}},
+ rotation=270,
+ origin={-128,56}), iconTransformation(
+ extent={{-20,20},{20,-20}},
+ rotation=180,
+ origin={-180,32})));
+ Utilities.Interfaces.GenericReal Kfr_hot annotation (Placement(transformation(
+ extent={{-20,-20},{20,20}},
+ rotation=270,
+ origin={50,72}), iconTransformation(
+ extent={{-20,-20},{20,20}},
+ rotation=90,
+ origin={48,100})));
equation
// Failure modes
@@ -85,11 +114,6 @@ equation
// Energy balance
hot_side.W + cold_side.W = 0;
- // Pressure losses
- cold_side_pipe.delta_z = 0;
- cold_side_pipe.Kfr = Kfr_cold;
- hot_side_pipe.delta_z = 0;
- hot_side_pipe.Kfr = Kfr_hot;
// Power Exchange
HX.W = W;
@@ -134,6 +158,8 @@ equation
points={{-24,21},{-30,21},{-30,20},{-40,20},{-40,-60},{0,-60},{0,-80}},
color={238,46,47},
thickness=1));
+ connect(cold_side_pipe.Kfr, Kfr_cold) annotation (Line(points={{-130,4},{-130,32},{-128,32},{-128,56}}, color={0,0,127}));
+ connect(hot_side_pipe.Kfr, Kfr_hot) annotation (Line(points={{4,52},{24,52},{24,72},{50,72}}, color={0,0,127}));
annotation (Icon(coordinateSystem(preserveAspectRatio=false, extent={{-160,-80},
{160,80}}), graphics={
Polygon(
diff --git a/MetroscopeModelingLibrary/WaterSteam/HeatExchangers/Reactor.mo b/MetroscopeModelingLibrary/WaterSteam/HeatExchangers/Reactor.mo
index 19ea3d0a..94c03b02 100644
--- a/MetroscopeModelingLibrary/WaterSteam/HeatExchangers/Reactor.mo
+++ b/MetroscopeModelingLibrary/WaterSteam/HeatExchangers/Reactor.mo
@@ -6,7 +6,6 @@ model Reactor
import MetroscopeModelingLibrary.Utilities.Units.Inputs;
import MetroscopeModelingLibrary.Utilities.Units;
- Inputs.InputMassFraction vapor_fraction;
Inputs.InputPressure steam_pressure;
Units.SpecificEnthalpy h_vap_sat;
@@ -33,6 +32,10 @@ model Reactor
rotation=180,
origin={2,0})));
Power.Connectors.Inlet C_thermal_power annotation (Placement(transformation(extent={{-40,-10},{-20,10}}), iconTransformation(extent={{-40,-10},{-20,10}})));
+ Utilities.Interfaces.GenericReal vapor_fraction annotation (Placement(transformation(
+ extent={{-20,-20},{20,20}},
+ rotation=270,
+ origin={-30,84}), iconTransformation(extent={{44,66},{58,80}})));
equation
// Fault modes
@@ -64,6 +67,7 @@ equation
color={28,108,200}));
connect(feedwater_sink.C_in, feedwater_inlet) annotation (Line(points={{7,-1.11022e-15},{18.5,-1.11022e-15},{18.5,0},{30,0}},
color={28,108,200}));
+ connect(vapor_fraction, vapor_fraction) annotation (Line(points={{-30,84},{-30,84}}, color={0,0,127}));
annotation (Icon(coordinateSystem(preserveAspectRatio=false, extent={{-60,-100},{60,100}}),
graphics={
Rectangle(
diff --git a/MetroscopeModelingLibrary/WaterSteam/HeatExchangers/Reheater.mo b/MetroscopeModelingLibrary/WaterSteam/HeatExchangers/Reheater.mo
index cdcf61ff..6c7f57e2 100644
--- a/MetroscopeModelingLibrary/WaterSteam/HeatExchangers/Reheater.mo
+++ b/MetroscopeModelingLibrary/WaterSteam/HeatExchangers/Reheater.mo
@@ -5,24 +5,19 @@ model Reheater
import MetroscopeModelingLibrary.Utilities.Units;
import MetroscopeModelingLibrary.Utilities.Units.Inputs;
- Inputs.InputFrictionCoefficient Kfr_hot;
- Inputs.InputFrictionCoefficient Kfr_cold;
-
Units.Power W;
- Inputs.InputArea S;
- Inputs.InputFraction level(min= 0, max=1, start = 0.3);
+ parameter Inputs.InputArea S=100;
+ parameter Inputs.InputFraction level(min=0, max=1)=0.3;
// Deheating
Units.Power W_deheat;
// Condensation
Units.Area S_cond;
- Units.HeatExchangeCoefficient Kth_cond;
Units.Power W_cond;
// Subcooling
Units.Area S_subc;
- Inputs.InputHeatExchangeCoefficient Kth_subc;
Units.Power W_subc;
Units.SpecificEnthalpy h_vap_sat(start=h_vap_sat_0);
@@ -81,19 +76,12 @@ model Reheater
Connectors.Outlet C_cold_out(Q(start=-Q_cold_0), P(start=P_cold_out_0),
h_outflow(start=h_cold_out_0)) annotation (Placement(transformation(extent={{150,-10},{170,10}}), iconTransformation(extent={{150,-10},{170,10}})));
- Pipes.Pipe cold_side_pipe(
+ Pipes.FrictionPipe cold_side_pipe(
P_in_0=P_cold_in_0,
- P_out_0=P_cold_out_0, Q_0=Q_cold_0,
+ P_out_0=P_cold_out_0,
+ Q_0=Q_cold_0,
T_0=T_cold_in_0,
- h_0=h_cold_in_0) annotation (Placement(transformation(extent={{-140,-10},{-120,10}})));
- Pipes.Pipe hot_side_pipe(
- P_in_0=P_hot_in_0,
- P_out_0=P_hot_out_0, Q_0=Q_hot_0,
- T_0=T_hot_in_0,
- h_0=h_hot_in_0) annotation (Placement(transformation(
- extent={{-10,-10},{10,10}},
- rotation=270,
- origin={0,56})));
+ h_0=h_cold_in_0) annotation (Placement(transformation(extent={{-140,-10},{-120,10}})));
BaseClasses.IsoPFlowModel hot_side_deheating(
T_in_0=T_hot_in_0,
T_out_0=T_hot_in_0,
@@ -102,7 +90,7 @@ model Reheater
P_0=P_hot_out_0) annotation (Placement(transformation(
extent={{-23,-23},{23,23}},
rotation=180,
- origin={101,19})));
+ origin={100,20})));
BaseClasses.IsoPFlowModel cold_side_deheating(
T_in_0=T_cold_out_0,
T_out_0=T_cold_out_0,
@@ -117,7 +105,7 @@ model Reheater
P_0=P_hot_out_0) annotation (Placement(transformation(
extent={{-23,-23},{23,23}},
rotation=180,
- origin={23,19})));
+ origin={20,20})));
BaseClasses.IsoPFlowModel cold_side_condensing(
T_in_0=0.5*(T_cold_in_0 + T_cold_out_0),
T_out_0=T_cold_out_0,
@@ -137,7 +125,7 @@ model Reheater
P_0=P_hot_out_0) annotation (Placement(transformation(
extent={{-23,-23},{23,23}},
rotation=180,
- origin={-55,19})));
+ origin={-68,20})));
BaseClasses.IsoPFlowModel cold_side_subcooling(
T_in_0=T_cold_in_0,
T_out_0=0.5*(T_cold_in_0 + T_cold_out_0),
@@ -156,11 +144,38 @@ model Reheater
rotation=90,
origin={144,-18})));
Pipes.Leak tube_rupture annotation (Placement(transformation(extent={{-94,-24},{-74,-4}})));
- BaseClasses.IsoPHFlowModel final_mix_hot annotation (Placement(transformation(extent={{-58,-72},{-38,-52}})));
+ BaseClasses.IsoPHFlowModel final_mix_hot annotation (Placement(transformation(extent={{-60,-70},
+ {-40,-50}})));
protected
parameter Units.SpecificEnthalpy h_vap_sat_0 = WaterSteamMedium.dewEnthalpy(WaterSteamMedium.setSat_p(P_hot_out_0));
parameter Units.SpecificEnthalpy h_liq_sat_0 = WaterSteamMedium.bubbleEnthalpy(WaterSteamMedium.setSat_p(P_hot_out_0));
+public
+ Utilities.Interfaces.GenericReal Kfr_cold annotation (Placement(
+ transformation(
+ extent={{-20,-20},{20,20}},
+ rotation=270,
+ origin={-130,50}), iconTransformation(extent={{-20,-20},{20,20}},
+ rotation=180,
+ origin={-180,40})));
+public
+ Utilities.Interfaces.GenericReal Kth_cond annotation (Placement(
+ transformation(
+ extent={{-20,-20},{20,20}},
+ rotation=270,
+ origin={-110,80}), iconTransformation(
+ extent={{-20,-20},{20,20}},
+ rotation=270,
+ origin={-78,-100})));
+public
+ Utilities.Interfaces.GenericReal Kth_subc annotation (Placement(
+ transformation(
+ extent={{-20,-20},{20,20}},
+ rotation=270,
+ origin={-150,80}), iconTransformation(
+ extent={{-20,-20},{20,20}},
+ rotation=90,
+ origin={-80,100})));
equation
// Failure modes
@@ -179,7 +194,7 @@ equation
T_cold_in = cold_side_pipe.T_in;
T_cold_out = final_mix_cold.T_out;
// A IsoPHFlowModel is necessary to have a full thermodynamic state with temperature calculation at the cold outlet
- T_hot_in = hot_side_pipe.T_in;
+ T_hot_in = hot_side_deheating.T_in;
T_hot_out = final_mix_hot.T_out;
W = W_deheat + W_cond + W_subc;
@@ -187,12 +202,6 @@ equation
h_vap_sat = WaterSteamMedium.dewEnthalpy(WaterSteamMedium.setSat_p(hot_side_deheating.P_in));
h_liq_sat = WaterSteamMedium.bubbleEnthalpy(WaterSteamMedium.setSat_p(hot_side_deheating.P_in));
- // Pressure losses
- cold_side_pipe.delta_z = 0;
- cold_side_pipe.Kfr = Kfr_cold;
- hot_side_pipe.delta_z = 0;
- hot_side_pipe.Kfr = Kfr_hot;
-
/* Deheating */
// Energy balance
hot_side_deheating.W + cold_side_deheating.W = 0;
@@ -259,16 +268,8 @@ equation
points={{-140,0},{-162,0}},
color={28,108,200},
thickness=1));
- connect(C_hot_in, hot_side_pipe.C_in) annotation (Line(
- points={{0,80},{0,71},{1.77636e-15,71},{1.77636e-15,66}},
- color={238,46,47},
- thickness=1));
- connect(hot_side_pipe.C_out, hot_side_deheating.C_in) annotation (Line(
- points={{-1.77636e-15,46},{-1.77636e-15,38},{132,38},{132,19},{124,19}},
- color={238,46,47},
- thickness=1));
connect(hot_side_deheating.C_out, hot_side_condensing.C_in) annotation (Line(
- points={{78,19},{46,19}},
+ points={{77,20},{43,20}},
color={238,46,47},
thickness=1));
@@ -280,7 +281,7 @@ equation
connect(partition_plate.C_in, cold_side_pipe.C_out) annotation (Line(points={{-110,-68},{-114,-68},{-114,0},{-120,0}}, color={217,67,180}));
connect(hot_side_condensing.C_out, hot_side_subcooling.C_in) annotation (Line(
- points={{-3.55271e-15,19},{-32,19}},
+ points={{-3,20},{-45,20}},
color={238,46,47},
thickness=1));
connect(cold_side_condensing.C_in, cold_side_subcooling.C_out) annotation (
@@ -304,11 +305,19 @@ equation
points={{-78,-34},{-114,-34},{-114,0},{-120,0}},
color={28,108,200},
thickness=1));
- connect(final_mix_hot.C_out, C_hot_out) annotation (Line(points={{-38,-62},{0,-62},{0,-80}}, color={238,46,47},
+ connect(final_mix_hot.C_out, C_hot_out) annotation (Line(points={{-40,-60},{0,
+ -60},{0,-80}}, color={238,46,47},
thickness=1));
- connect(tube_rupture.C_out, final_mix_hot.C_in) annotation (Line(points={{-74,-14},{-66,-14},{-66,-6},{-102,-6},{-102,-62},{-58,-62}}, color={217,67,180}));
+ connect(tube_rupture.C_out, final_mix_hot.C_in) annotation (Line(points={{-74,-14},
+ {-66,-14},{-66,-6},{-102,-6},{-102,-60},{-60,-60}}, color={217,67,180}));
connect(hot_side_subcooling.C_out, final_mix_hot.C_in) annotation (Line(
- points={{-78,19},{-78,18},{-102,18},{-102,-62},{-58,-62}},
+ points={{-91,20},{-100,20},{-100,-60},{-60,-60}},
+ color={255,0,0},
+ thickness=1));
+ connect(cold_side_pipe.Kfr, Kfr_cold)
+ annotation (Line(points={{-130,4},{-130,50}}, color={0,0,127}));
+ connect(hot_side_deheating.C_in, C_hot_in) annotation (Line(
+ points={{123,20},{140,20},{140,40},{0,40},{0,80}},
color={255,0,0},
thickness=1));
annotation (Icon(coordinateSystem(preserveAspectRatio=false, extent={{-160,-80},
diff --git a/MetroscopeModelingLibrary/WaterSteam/HeatExchangers/SteamGenerator.mo b/MetroscopeModelingLibrary/WaterSteam/HeatExchangers/SteamGenerator.mo
index 16e73484..044d54d1 100644
--- a/MetroscopeModelingLibrary/WaterSteam/HeatExchangers/SteamGenerator.mo
+++ b/MetroscopeModelingLibrary/WaterSteam/HeatExchangers/SteamGenerator.mo
@@ -6,7 +6,6 @@ model SteamGenerator
import MetroscopeModelingLibrary.Utilities.Units.Inputs;
import MetroscopeModelingLibrary.Utilities.Units;
- Inputs.InputMassFraction vapor_fraction;
Inputs.InputPressure steam_pressure;
Inputs.InputPositiveMassFlowRate Q_purge;
Units.Pressure P_purge;
@@ -40,6 +39,11 @@ model SteamGenerator
rotation=270,
origin={0,-82})));
Power.Connectors.Inlet C_thermal_power annotation (Placement(transformation(extent={{-40,-10},{-20,10}}), iconTransformation(extent={{-40,-10},{-20,10}})));
+ Utilities.Interfaces.GenericReal vapor_fraction annotation (Placement(
+ transformation(
+ extent={{-20,-20},{20,20}},
+ rotation=270,
+ origin={-30,100}), iconTransformation(extent={{44,66},{58,80}})));
equation
// Fault modes
@@ -66,8 +70,8 @@ equation
thermal_power = C_thermal_power.W;
// Purge
+ P_purge = steam_source.P_out;
purge_source.h_out = Water.bubbleEnthalpy(Water.setSat_p(P_purge));
-
purge_source.P_out = P_purge;
connect(steam_source.C_out, steam_outlet) annotation (Line(points={{2.77556e-16,
diff --git a/MetroscopeModelingLibrary/WaterSteam/HeatExchangers/Superheater.mo b/MetroscopeModelingLibrary/WaterSteam/HeatExchangers/Superheater.mo
index c0f6815a..e8951074 100644
--- a/MetroscopeModelingLibrary/WaterSteam/HeatExchangers/Superheater.mo
+++ b/MetroscopeModelingLibrary/WaterSteam/HeatExchangers/Superheater.mo
@@ -5,18 +5,13 @@ model Superheater
import MetroscopeModelingLibrary.Utilities.Units;
import MetroscopeModelingLibrary.Utilities.Units.Inputs;
- // Pressure Losses
- Inputs.InputFrictionCoefficient Kfr_hot;
- Inputs.InputFrictionCoefficient Kfr_cold;
-
// Deheating
Units.Power W_deheat;
// Condensation
Units.Power W_cond;
parameter String HX_config="condenser";
- Inputs.InputArea S;
- Units.HeatExchangeCoefficient Kth;
+ parameter Inputs.InputArea S=100;
Units.SpecificEnthalpy h_vap_sat_hot(start=h_vap_sat_0);
Units.SpecificEnthalpy h_liq_sat_hot(start=h_liq_sat_0);
Units.Temperature Tsat_hot;
@@ -27,7 +22,7 @@ model Superheater
Units.Temperature Tsat_cold(start=T_cold_in_0);
// Ventilation
- Units.PositiveMassFlowRate Q_vent(start=Q_vent_0);
+ parameter Units.PositiveMassFlowRate Q_vent = 1;
Units.PositiveMassFlowRate Q_vent_faulty(start=Q_vent_0);
// Definitions
@@ -86,22 +81,6 @@ model Superheater
P(start=P_cold_out_0),
h_outflow(start=h_cold_out_0)) annotation (Placement(transformation(extent={{-10,70},{10,90}}),iconTransformation(extent={{-10,70},{10,90}})));
- Pipes.Pipe cold_side_pipe(
- P_in_0=P_cold_in_0,
- P_out_0=P_cold_out_0, Q_0=Q_cold_0,
- T_0=T_cold_in_0,
- h_0=h_cold_in_0) annotation (Placement(transformation(
- extent={{-10,-10},{10,10}},
- rotation=0,
- origin={16,-64})));
- Pipes.Pipe hot_side_pipe(
- P_in_0=P_hot_in_0,
- P_out_0=P_hot_out_0, Q_0=Q_hot_0,
- T_0=T_hot_in_0,
- h_0=h_hot_in_0) annotation (Placement(transformation(
- extent={{-10,-10},{10,10}},
- rotation=0,
- origin={-130,0})));
BaseClasses.IsoPFlowModel hot_side_deheating(
T_in_0=T_hot_in_0,
T_out_0=T_hot_out_0,
@@ -171,6 +150,14 @@ protected
parameter Units.SpecificEnthalpy h_vap_sat_0 = WaterSteamMedium.dewEnthalpy(WaterSteamMedium.setSat_p(P_hot_out_0));
parameter Units.SpecificEnthalpy h_liq_sat_0 = WaterSteamMedium.bubbleEnthalpy(WaterSteamMedium.setSat_p(P_hot_out_0));
+public
+ Utilities.Interfaces.GenericReal Kth annotation (Placement(transformation(
+ extent={{-20,-20},{20,20}},
+ rotation=270,
+ origin={90,60}), iconTransformation(
+ extent={{-20,-20},{20,20}},
+ rotation=90,
+ origin={-80,100})));
equation
// Failure modes
@@ -184,33 +171,28 @@ equation
Q_hot_in = C_hot_in.Q;
Q_cold_out = C_cold_out.Q;
Q_hot_out = C_hot_out.Q;
- T_cold_in = cold_side_pipe.T_in;
+ T_cold_in = cold_side_vaporising.T_in;
T_cold_out = final_mix_cold.T_out;
- T_hot_in = hot_side_pipe.T_in;
+ T_hot_in = hot_side_deheating.T_in;
T_hot_out = hot_side_vaporising.T_out;
W = W_deheat + W_cond + W_vap;
// Ventilation
Q_vent_faulty = - C_vent.Q; // 1e-3 is used as a protection against zero flow in case the vent is totally closed
Q_vent_faulty = Q_vent*(1-closed_vent/100) + 1e-3;
- // Pressure losses
- cold_side_pipe.delta_z = 0;
- cold_side_pipe.Kfr = Kfr_cold;
- hot_side_pipe.delta_z = 0;
- hot_side_pipe.Kfr = Kfr_hot;
// Saturation
Tsat_hot = hot_side_deheating.T_out;
h_vap_sat_hot = WaterSteamMedium.dewEnthalpy(WaterSteamMedium.setSat_p(hot_side_deheating.P_in));
h_liq_sat_hot = WaterSteamMedium.bubbleEnthalpy(WaterSteamMedium.setSat_p(hot_side_deheating.P_in));
- Tsat_cold = cold_side_pipe.T_out;
- h_vap_sat_cold = WaterSteamMedium.dewEnthalpy(WaterSteamMedium.setSat_p(cold_side_pipe.P_out));
+ Tsat_cold = cold_side_vaporising.T_in;
+ h_vap_sat_cold = WaterSteamMedium.dewEnthalpy(WaterSteamMedium.setSat_p(cold_side_vaporising.P_in));
/* Deheating on hot side, superheating on cold side */
// Energy balance
hot_side_deheating.W + cold_side_deheating.W = 0;
- cold_side_deheating.W =W_deheat;
+ cold_side_deheating.W = W_deheat;
// Power Exchange
if hot_side_deheating.h_in > h_vap_sat_hot then
@@ -260,15 +242,6 @@ equation
// Internal leaks
tube_rupture.Q = 1e-5 + tube_rupture_leak;
- connect(cold_side_pipe.C_in, C_cold_in) annotation (Line(
- points={{6,-64},{0,-64},{0,-80}},
- color={28,108,200},
- thickness=1));
- connect(C_hot_in, hot_side_pipe.C_in) annotation (Line(
- points={{-160,0},{-140,0}},
- color={238,46,47},
- thickness=1));
-
connect(cold_side_condensing.C_out, cold_side_deheating.C_in) annotation (
Line(
points={{39,18},{39,30}},
@@ -279,10 +252,6 @@ equation
connect(tube_rupture.C_in, hot_side_deheating.C_in) annotation (Line(points={{-6,38},{-12,38},{-12,66},{-34,66},{-34,60}}, color={217,67,180}));
connect(C_hot_in, C_hot_in)
annotation (Line(points={{-160,0},{-160,0}}, color={28,108,200}));
- connect(cold_side_pipe.C_out, cold_side_vaporising.C_in)
- annotation (Line(points={{26,-64},{39,-64},{39,-60}},
- color={28,108,200},
- thickness=1));
connect(cold_side_vaporising.C_out, cold_side_condensing.C_in)
annotation (Line(points={{39,-26},{39,-16}}, color={28,108,200},
thickness=1));
@@ -300,10 +269,6 @@ equation
points={{-34,28},{-34,18}},
color={238,46,47},
thickness=1));
- connect(hot_side_pipe.C_out, hot_side_deheating.C_in) annotation (Line(
- points={{-120,0},{-80,0},{-80,66},{-34,66},{-34,60}},
- color={238,46,47},
- thickness=1));
connect(final_mix_cold.C_out, C_cold_out) annotation (Line(
points={{4,62},{0,62},{0,80}},
color={28,108,200},
@@ -312,6 +277,13 @@ equation
points={{24,62},{39,62},{39,60}},
color={28,108,200},
thickness=1));
+ connect(C_hot_in, hot_side_deheating.C_in) annotation (Line(
+ points={{-160,0},{-120,0},{-120,66},{-34,66},{-34,60}},
+ color={255,0,0},
+ thickness=1));
+ connect(cold_side_vaporising.C_in, C_cold_in) annotation (Line(points={{39,-60},
+ {38.5,-60},{38.5,-66},{0,-66},{0,-80}}, color={28,108,200},
+ thickness=1));
annotation (Icon(coordinateSystem(extent={{-160,-80},{160,80}}),
graphics={
Polygon(
diff --git a/MetroscopeModelingLibrary/WaterSteam/Machines/SteamTurbine.mo b/MetroscopeModelingLibrary/WaterSteam/Machines/SteamTurbine.mo
index 955b3349..3b4b7ffa 100644
--- a/MetroscopeModelingLibrary/WaterSteam/Machines/SteamTurbine.mo
+++ b/MetroscopeModelingLibrary/WaterSteam/Machines/SteamTurbine.mo
@@ -13,8 +13,10 @@ model SteamTurbine
redeclare MetroscopeModelingLibrary.WaterSteam.Connectors.Outlet C_out,
redeclare package Medium = WaterSteamMedium) annotation (IconMap(primitivesVisible=false));
- Utilities.Units.Inputs.InputCst Cst "Stodola's ellipse coefficient";
- Utilities.Units.Inputs.InputYield eta_is(start=0.8) "Nominal isentropic efficiency";
+ import MetroscopeModelingLibrary.Utilities.Units;
+
+ parameter Units.Cst Cst_constant = 1e4;
+ parameter Units.Yield eta_is_constant = 0.9;
Utilities.Units.MassFraction x_in(start=x_in_0);
Utilities.Units.MassFraction x_out(start=x_out_0);
@@ -41,6 +43,21 @@ protected
parameter Utilities.Units.SpecificEnthalpy h_vap_out_0=WaterSteamMedium.dewEnthalpy(WaterSteamMedium.setSat_p(P_out_0));
parameter Utilities.Units.SpecificEnthalpy h_liq_out_0=WaterSteamMedium.bubbleEnthalpy(WaterSteamMedium.setSat_p(P_out_0));
+public
+ Utilities.Interfaces.GenericReal eta_is annotation (Placement(transformation(
+ extent={{-10,-10},{10,10}},
+ rotation=90,
+ origin={-70,76}), iconTransformation(
+ extent={{-16,-16},{16,16}},
+ rotation=90,
+ origin={-22,92})));
+ Utilities.Interfaces.GenericReal Cst annotation (Placement(transformation(
+ extent={{-10,-10},{10,10}},
+ rotation=90,
+ origin={-86,70}), iconTransformation(
+ extent={{-16,-16},{16,16}},
+ rotation=90,
+ origin={-66,82})));
equation
// Stodola's ellipse law
Q = sqrt((P_in^2 - P_out^2)/(Cst*T_in*x_in));
diff --git a/MetroscopeModelingLibrary/WaterSteam/Pipes/FrictionPipe.mo b/MetroscopeModelingLibrary/WaterSteam/Pipes/FrictionPipe.mo
new file mode 100644
index 00000000..4005b5f2
--- /dev/null
+++ b/MetroscopeModelingLibrary/WaterSteam/Pipes/FrictionPipe.mo
@@ -0,0 +1,176 @@
+within MetroscopeModelingLibrary.WaterSteam.Pipes;
+model FrictionPipe
+ extends MetroscopeModelingLibrary.Utilities.Icons.KeepingScaleIcon;
+ package WaterSteamMedium = MetroscopeModelingLibrary.Utilities.Media.WaterSteamMedium;
+ extends Partial.Pipes.FrictionPipe
+ (
+ redeclare MetroscopeModelingLibrary.WaterSteam.Connectors.Inlet C_in,
+ redeclare MetroscopeModelingLibrary.WaterSteam.Connectors.Outlet C_out,
+ redeclare package Medium = WaterSteamMedium) annotation(IconMap(primitivesVisible=false));
+ annotation (Icon(coordinateSystem(preserveAspectRatio=false), graphics={
+ Rectangle(
+ extent={{-100,30},{100,-30}},
+ lineColor={28,108,200},
+ fillColor={28,108,200},
+ fillPattern=FillPattern.Solid),
+ Line(
+ points={{-80,30},{-76,24},{-72,30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{-72,30},{-68,24},{-64,30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{-56,30},{-52,24},{-48,30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{-64,30},{-60,24},{-56,30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{-24,30},{-20,24},{-16,30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{-32,30},{-28,24},{-24,30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{-40,30},{-36,24},{-32,30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{-48,30},{-44,24},{-40,30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{-16,30},{-12,24},{-8,30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{-8,30},{-4,24},{0,30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{8,30},{12,24},{16,30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{0,30},{4,24},{8,30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{40,30},{44,24},{48,30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{32,30},{36,24},{40,30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{24,30},{28,24},{32,30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{16,30},{20,24},{24,30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{72,30},{76,24},{80,30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{64,30},{68,24},{72,30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{56,30},{60,24},{64,30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{48,30},{52,24},{56,30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{-80,-30},{-76,-24},{-72,-30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{-72,-30},{-68,-24},{-64,-30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{-56,-30},{-52,-24},{-48,-30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{-64,-30},{-60,-24},{-56,-30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{-24,-30},{-20,-24},{-16,-30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{-32,-30},{-28,-24},{-24,-30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{-40,-30},{-36,-24},{-32,-30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{-48,-30},{-44,-24},{-40,-30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{-16,-30},{-12,-24},{-8,-30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{-8,-30},{-4,-24},{0,-30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{8,-30},{12,-24},{16,-30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{0,-30},{4,-24},{8,-30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{40,-30},{44,-24},{48,-30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{32,-30},{36,-24},{40,-30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{24,-30},{28,-24},{32,-30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{16,-30},{20,-24},{24,-30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{72,-30},{76,-24},{80,-30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{64,-30},{68,-24},{72,-30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{56,-30},{60,-24},{64,-30}},
+ color={0,0,0},
+ thickness=0.5),
+ Line(
+ points={{48,-30},{52,-24},{56,-30}},
+ color={0,0,0},
+ thickness=0.5)}), Diagram(coordinateSystem(preserveAspectRatio=false)));
+end FrictionPipe;
diff --git a/MetroscopeModelingLibrary/WaterSteam/Pipes/Pipe.mo b/MetroscopeModelingLibrary/WaterSteam/Pipes/HeightVariationPipe.mo
similarity index 89%
rename from MetroscopeModelingLibrary/WaterSteam/Pipes/Pipe.mo
rename to MetroscopeModelingLibrary/WaterSteam/Pipes/HeightVariationPipe.mo
index de728c30..ee68e28e 100644
--- a/MetroscopeModelingLibrary/WaterSteam/Pipes/Pipe.mo
+++ b/MetroscopeModelingLibrary/WaterSteam/Pipes/HeightVariationPipe.mo
@@ -1,8 +1,8 @@
within MetroscopeModelingLibrary.WaterSteam.Pipes;
-model Pipe
+model HeightVariationPipe
extends MetroscopeModelingLibrary.Utilities.Icons.KeepingScaleIcon;
package WaterSteamMedium = MetroscopeModelingLibrary.Utilities.Media.WaterSteamMedium;
- extends Partial.Pipes.Pipe(
+ extends Partial.Pipes.HeightVariationPipe(
redeclare MetroscopeModelingLibrary.WaterSteam.Connectors.Inlet C_in,
redeclare MetroscopeModelingLibrary.WaterSteam.Connectors.Outlet C_out,
redeclare package Medium = WaterSteamMedium) annotation(IconMap(primitivesVisible=false));
@@ -12,4 +12,4 @@ model Pipe
lineColor={28,108,200},
fillColor={28,108,200},
fillPattern=FillPattern.Solid)}), Diagram(coordinateSystem(preserveAspectRatio=false)));
-end Pipe;
+end HeightVariationPipe;
diff --git a/MetroscopeModelingLibrary/WaterSteam/Pipes/SteamExtractionSplitter.mo b/MetroscopeModelingLibrary/WaterSteam/Pipes/SteamExtractionSplitter.mo
index 4d464702..43a9514e 100644
--- a/MetroscopeModelingLibrary/WaterSteam/Pipes/SteamExtractionSplitter.mo
+++ b/MetroscopeModelingLibrary/WaterSteam/Pipes/SteamExtractionSplitter.mo
@@ -25,7 +25,7 @@ model SteamExtractionSplitter
Units.MassFraction x_main_out(start=x_0) "Vapor mass fraction at main outlet";
Units.MassFraction x_in(start=x_0) "Vapor mass fraction at inlet";
- Inputs.InputFraction alpha(start=1) "Extraction paramater";
+ parameter Inputs.InputFraction alpha=1 "Extraction paramater";
// Components
BaseClasses.IsoPFlowModel extracted_flow(
diff --git a/MetroscopeModelingLibrary/WaterSteam/Pipes/package.order b/MetroscopeModelingLibrary/WaterSteam/Pipes/package.order
index 8ea3aeea..f3449318 100644
--- a/MetroscopeModelingLibrary/WaterSteam/Pipes/package.order
+++ b/MetroscopeModelingLibrary/WaterSteam/Pipes/package.order
@@ -1,5 +1,6 @@
SteamExtractionSplitter
-Pipe
+FrictionPipe
+HeightVariationPipe
ControlValve
SlideValve
HeatLoss
diff --git a/MetroscopeModelingLibrary/WaterSteam/Volumes/SteamDryer.mo b/MetroscopeModelingLibrary/WaterSteam/Volumes/SteamDryer.mo
index 8ab74e7c..f83d7d81 100644
--- a/MetroscopeModelingLibrary/WaterSteam/Volumes/SteamDryer.mo
+++ b/MetroscopeModelingLibrary/WaterSteam/Volumes/SteamDryer.mo
@@ -12,7 +12,7 @@ model SteamDryer
Units.PositiveMassFlowRate Q_in(start=Q_in_0);
// Inlet mass flow rate
- Units.MassFraction x_steam_out(start=1); // Steam mass fraction at steam outlet
+ parameter Units.MassFraction x_steam_out=0.99; // Steam mass fraction at steam outlet
// Initialization parameters
parameter Units.Pressure P_0 = 10e5;
diff --git a/MetroscopeModelingLibrary/package.order b/MetroscopeModelingLibrary/package.order
index 9691af6e..0ed95343 100644
--- a/MetroscopeModelingLibrary/package.order
+++ b/MetroscopeModelingLibrary/package.order
@@ -1,6 +1,7 @@
Utilities
Partial
Sensors
+Sensors_Control
WaterSteam
FlueGases
Fuel