Buildings.Templates.Plants.HeatPumps.Components.Validation
Package with validation models
Information
This package contains validation models for the classes within Buildings.Templates.Plants.HeatPumps.Components.
Extends from Modelica.Icons.ExamplesPackage (Icon for packages containing runnable examples).
Package Content
| Name | Description |
|---|---|
 HeatPumpGroupAirToWater
|
Validation model for heat pump group |
| PumpsPrimaryDedicated
|
Validation model for dedicated primary pump component |
| ValvesIsolation
|
Validation model for isolation valve component |
Buildings.Templates.Plants.HeatPumps.Components.Validation.HeatPumpGroupAirToWater
Validation model for heat pump group
Information
This model validates the model Buildings.Templates.Plants.HeatPumps.Components.HeatPumpGroups.AirToWater in a configuration in which the heat pump components are exposed to a constant differential pressure and a varying return temperature.
The model is configured to represent either a non-reversible heat pump
(component hpAwNrv) or a reversible heat pump
(component hpAw) that switches between cooling and heating
mode.
Extends from Modelica.Icons.Example (Icon for runnable examples).
Parameters
| Type | Name | Default | Description |
|---|---|---|---|
| replaceable package Medium | Buildings.Media.Water | CHW/HW medium | |
| Controller | datCtlPlaAwNrv | datCtlPlaAwNrv(cfg(have_hrc=... | Controller parameters |
| Controller | datCtlPlaAw | datCtlPlaAw(cfg(have_hrc=fal... | Controller parameters |
| HeatPumpGroup | datHpAwNrv | datHpAwNrv(final cpHeaWat_de... | Non-reversible AWHP parameters |
| HeatPumpGroup | datHpAw | datHpAw(final cpHeaWat_defau... | Reversible AWHP parameters |
| Dynamics | |||
| Conservation equations | |||
| Dynamics | energyDynamics | Modelica.Fluid.Types.Dynamic... | Type of energy balance: dynamic (3 initialization options) or steady state |
Connectors
| Type | Name | Description |
|---|---|---|
| replaceable package Medium | CHW/HW medium | |
| Bus | busPla | Plant controller |
| Bus | busHp[hpAw.nHp] | HP control bus |
Modelica definition
model HeatPumpGroupAirToWater
"Validation model for heat pump group"
extends Modelica.Icons.Example;
replaceable package Medium=Buildings.Media.Water
constrainedby Modelica.Media.Interfaces.PartialMedium
"CHW/HW medium";
parameter Modelica.Fluid.Types.Dynamics energyDynamics=Modelica.Fluid.Types.Dynamics.FixedInitial
"Type of energy balance: dynamic (3 initialization options) or steady state";
parameter Data.Controller datCtlPlaAwNrv(
cfg(
have_hrc = false,
have_inpSch = false,
have_chiWat=false,
typPumHeaWatPri=Buildings.Templates.Plants.HeatPumps.Types.PumpsPrimary.Variable,
typPumChiWatPri=Buildings.Templates.Plants.HeatPumps.Types.PumpsPrimary.None,
typPumHeaWatSec=Buildings.Templates.Plants.HeatPumps.Types.PumpsSecondary.None,
have_pumHeaWatPriVar=true,
have_pumChiWatPriVar=false,
typDis=Buildings.Templates.Plants.HeatPumps.Types.Distribution.Constant1Only,
have_pumChiWatPriDed=false,
nPumChiWatSec=0,
rhoHeaWat_default=Buildings.Media.Water.d_const,
typCtl=Buildings.Templates.Plants.HeatPumps.Types.Controller.OpenLoop,
is_rev=hpAwNrv.is_rev,
typ=hpAwNrv.typ,
rhoChiWat_default=Buildings.Media.Water.d_const,
cpChiWat_default=hpAwNrv.cpChiWat_default,
have_hotWat=false,
have_valChiWatMinByp=false,
have_valHeaWatMinByp=false,
have_valHpInlIso=false,
have_valHpOutIso=false,
typMod=hpAwNrv.typMod,
cpHeaWat_default=hpAwNrv.cpHeaWat_default,
cpSou_default=hpAwNrv.cpSou_default,
have_senDpChiWatRemWir=true,
typArrPumPri=Buildings.Templates.Components.Types.PumpArrangement.Dedicated,
nHp=hpAwNrv.nHp,
nPumHeaWatPri=hpAwNrv.nHp,
have_heaWat=true,
nPumHeaWatSec=0,
rhoSou_default=Buildings.Media.Air.dStp,
have_senDpHeaWatRemWir=true,
typPumChiWatSec=Buildings.Templates.Plants.HeatPumps.Types.PumpsSecondary.None,
nPumChiWatPri=hpAwNrv.nHp,
nSenDpHeaWatRem=1,
nSenDpChiWatRem=1,
nAirHan=0,
nEquZon=0),
THeaWatSup_nominal=datHpAwNrv.THeaWatSupHp_nominal,
dpChiWatRemSet_max=fill(Buildings.Templates.Data.Defaults.dpChiWatRemSet_max, datCtlPlaAwNrv.cfg.nSenDpChiWatRem),
dpHeaWatRemSet_max=fill(Buildings.Templates.Data.Defaults.dpHeaWatRemSet_max, datCtlPlaAwNrv.cfg.nSenDpHeaWatRem),
staEqu={fill(1, hpAwNrv.nHp)})
"Controller parameters";
parameter Data.Controller datCtlPlaAw(
cfg(
have_hrc = false,
have_inpSch = false,
have_chiWat=true,
typPumHeaWatPri=Buildings.Templates.Plants.HeatPumps.Types.PumpsPrimary.Variable,
typPumChiWatPri=Buildings.Templates.Plants.HeatPumps.Types.PumpsPrimary.Variable,
typPumHeaWatSec=Buildings.Templates.Plants.HeatPumps.Types.PumpsSecondary.None,
have_pumHeaWatPriVar=true,
have_pumChiWatPriVar=true,
typDis=Buildings.Templates.Plants.HeatPumps.Types.Distribution.Constant1Only,
have_pumChiWatPriDed=false,
nPumChiWatSec=0,
rhoHeaWat_default=Buildings.Media.Water.d_const,
typCtl=Buildings.Templates.Plants.HeatPumps.Types.Controller.OpenLoop,
is_rev=hpAw.is_rev,
typ=hpAw.typ,
rhoChiWat_default=Buildings.Media.Water.d_const,
cpChiWat_default=hpAw.cpChiWat_default,
have_hotWat=false,
have_valChiWatMinByp=false,
have_valHeaWatMinByp=false,
have_valHpInlIso=true,
have_valHpOutIso=true,
typMod=hpAw.typMod,
cpHeaWat_default=hpAw.cpHeaWat_default,
cpSou_default=hpAw.cpSou_default,
have_senDpChiWatRemWir=true,
typArrPumPri=Buildings.Templates.Components.Types.PumpArrangement.Dedicated,
nHp=hpAw.nHp,
nPumHeaWatPri=hpAw.nHp,
have_heaWat=true,
nPumHeaWatSec=0,
rhoSou_default=Buildings.Media.Air.dStp,
have_senDpHeaWatRemWir=true,
typPumChiWatSec=Buildings.Templates.Plants.HeatPumps.Types.PumpsSecondary.None,
nPumChiWatPri=hpAw.nHp,
nSenDpHeaWatRem=1,
nSenDpChiWatRem=1,
nAirHan=0,
nEquZon=0),
THeaWatSup_nominal=datHpAw.THeaWatSupHp_nominal,
TChiWatSup_nominal=datHpAw.TChiWatSupHp_nominal,
dpChiWatRemSet_max=fill(Buildings.Templates.Data.Defaults.dpChiWatRemSet_max, datCtlPlaAw.cfg.nSenDpChiWatRem),
dpHeaWatRemSet_max=fill(Buildings.Templates.Data.Defaults.dpHeaWatRemSet_max, datCtlPlaAw.cfg.nSenDpHeaWatRem),
staEqu={fill(1, hpAw.nHp)})
"Controller parameters";
parameter Buildings.Templates.Plants.HeatPumps.Components.Data.HeatPumpGroup datHpAwNrv(
final cpHeaWat_default=hpAwNrv.cpHeaWat_default,
final cpSou_default=hpAwNrv.cpSou_default,
final nHp=hpAwNrv.nHp,
final typ=hpAwNrv.typ,
final is_rev=hpAwNrv.is_rev,
final typMod=hpAwNrv.typMod,
mHeaWatHp_flow_nominal=datHpAwNrv.capHeaHp_nominal / abs(datHpAwNrv.THeaWatSupHp_nominal -
Buildings.Templates.Data.Defaults.THeaWatRetMed) / Buildings.Utilities.Psychrometrics.Constants.cpWatLiq,
dpHeaWatHp_nominal=Buildings.Templates.Data.Defaults.dpHeaWatHp,
capHeaHp_nominal=500E3,
THeaWatSupHp_nominal=Buildings.Templates.Data.Defaults.THeaWatSupMed,
TSouHeaHp_nominal=Buildings.Templates.Data.Defaults.TOutHpHeaLow,
perFitHp(
hea(
P=datHpAwNrv.capHeaHp_nominal / Buildings.Templates.Data.Defaults.COPHpAwHea,
coeQ={- 4.2670305442, - 0.7381077035, 6.0049480456, 0, 0},
coeP={- 4.9107455513, 5.3665308366, 0.5447612754, 0, 0},
TRefLoa=Buildings.Templates.Data.Defaults.THeaWatRetMed,
TRefSou=Buildings.Templates.Data.Defaults.TOutHpHeaLow)))
"Non-reversible AWHP parameters";
parameter Buildings.Templates.Plants.HeatPumps.Components.Data.HeatPumpGroup datHpAw(
final cpHeaWat_default=hpAw.cpHeaWat_default,
final cpSou_default=hpAw.cpSou_default,
final nHp=hpAw.nHp,
final typ=hpAw.typ,
final is_rev=hpAw.is_rev,
final typMod=hpAw.typMod,
mHeaWatHp_flow_nominal=datHpAw.capHeaHp_nominal / abs(datHpAw.THeaWatSupHp_nominal -
Buildings.Templates.Data.Defaults.THeaWatRetMed) / Buildings.Utilities.Psychrometrics.Constants.cpWatLiq,
dpHeaWatHp_nominal=Buildings.Templates.Data.Defaults.dpHeaWatHp,
capHeaHp_nominal=500E3,
THeaWatSupHp_nominal=Buildings.Templates.Data.Defaults.THeaWatSupMed,
TSouHeaHp_nominal=Buildings.Templates.Data.Defaults.TOutHpHeaLow,
mChiWatHp_flow_nominal=datHpAw.capCooHp_nominal / abs(datHpAw.TChiWatSupHp_nominal -
Buildings.Templates.Data.Defaults.TChiWatRet) / Buildings.Utilities.Psychrometrics.Constants.cpWatLiq,
capCooHp_nominal=500E3,
TChiWatSupHp_nominal=Buildings.Templates.Data.Defaults.TChiWatSup,
TSouCooHp_nominal=Buildings.Templates.Data.Defaults.TOutHpCoo,
perFitHp(
hea(
P=datHpAw.capHeaHp_nominal / Buildings.Templates.Data.Defaults.COPHpAwHea,
coeQ={- 4.2670305442, - 0.7381077035, 6.0049480456, 0, 0},
coeP={- 4.9107455513, 5.3665308366, 0.5447612754, 0, 0},
TRefLoa=Buildings.Templates.Data.Defaults.THeaWatRetMed,
TRefSou=Buildings.Templates.Data.Defaults.TOutHpHeaLow),
coo(
P=datHpAw.capCooHp_nominal / Buildings.Templates.Data.Defaults.COPHpAwCoo,
coeQ={- 2.2545246871, 6.9089257665, - 3.6548225094, 0, 0},
coeP={- 5.8086010402, 1.6894933858, 5.1167787436, 0, 0},
TRefLoa=Buildings.Templates.Data.Defaults.TChiWatRet,
TRefSou=Buildings.Templates.Data.Defaults.TOutHpCoo)))
"Reversible AWHP parameters";
Fluid.Sources.Boundary_pT sup(
redeclare final package Medium=Medium,
p=Buildings.Templates.Data.Defaults.pHeaWat_rel_nominal + 101325,
nPorts=hpAwNrv.nHp)
"Boundary condition at distribution system supply";
Fluid.Sources.Boundary_pT inlHp1(
redeclare final package Medium=Medium,
use_p_in=true,
use_T_in=true,
nPorts=hpAwNrv.nHp)
"Boundary conditions at HP inlet";
BoundaryConditions.WeatherData.ReaderTMY3 weaDat(
filNam=Modelica.Utilities.Files.loadResource(
"modelica://Buildings/Resources/weatherdata/USA_CA_San.Francisco.Intl.AP.724940_TMY3.mos"));
Fluid.Sensors.TemperatureTwoPort TRet1[hpAwNrv.nHp](
redeclare each final package Medium=Medium,
each final m_flow_nominal=datHpAwNrv.mHeaWatHp_flow_nominal)
"Return temperature";
Fluid.Sensors.TemperatureTwoPort TSup1[hpAwNrv.nHp](
redeclare each final package Medium=Medium,
each final m_flow_nominal=datHpAwNrv.mHeaWatHp_flow_nominal)
"Supply temperature";
Controls.OpenLoop ctlPlaAwNrv(
final cfg=datCtlPlaAwNrv.cfg,
final dat=datCtlPlaAwNrv)
"Plant controller";
HeatPumpGroups.AirToWater hpAwNrv(
redeclare final package MediumHeaWat=Medium,
nHp=3,
is_rev=false,
final dat=datHpAwNrv,
final energyDynamics=energyDynamics)
"Non reversible AWHP";
Buildings.Controls.OBC.CDL.Reals.Sources.Sin THeaWatRet(
amplitude=datHpAwNrv.THeaWatSupHp_nominal - datHpAwNrv.THeaWatRetHp_nominal,
freqHz=3 / 3000,
y(final unit="K",
displayUnit="degC"),
offset=datHpAwNrv.THeaWatRetHp_nominal,
startTime=0)
"HW return temperature value";
Buildings.Controls.OBC.CDL.Reals.Sources.Constant pHeaWatInl(
k=sup.p + datHpAwNrv.dpHeaWatHp_nominal)
"HW inlet pressure";
HeatPumpGroups.AirToWater hpAw(
redeclare final package MediumHeaWat=Medium,
nHp=3,
is_rev=true,
final dat=datHpAw,
final energyDynamics=energyDynamics)
"Reversible AWHP";
Controls.OpenLoop ctlPlaAw(
final cfg=datCtlPlaAw.cfg,
final dat=datCtlPlaAw)
"Plant controller";
Fluid.Sources.Boundary_pT inlHp(
redeclare final package Medium=Medium,
use_p_in=true,
use_T_in=true,
nPorts=hpAwNrv.nHp)
"Boundary conditions at HP inlet";
Fluid.Sensors.TemperatureTwoPort TRet[hpAw.nHp](
redeclare each final package Medium=Medium,
each final m_flow_nominal=datHpAw.mHeaWatHp_flow_nominal)
"Return temperature";
Fluid.Sources.Boundary_pT sup1(
redeclare final package Medium=Medium,
p=Buildings.Templates.Data.Defaults.pHeaWat_rel_nominal + 101325,
nPorts=hpAwNrv.nHp)
"Boundary condition at distribution system supply";
Fluid.Sensors.TemperatureTwoPort TSup[hpAw.nHp](
redeclare each final package Medium=Medium,
each final m_flow_nominal=datHpAw.mHeaWatHp_flow_nominal)
"Supply temperature";
Buildings.Controls.OBC.CDL.Reals.Sources.Sin THeaWatRet1(
amplitude=datHpAw.THeaWatSupHp_nominal - datHpAw.THeaWatRetHp_nominal,
freqHz=3 / 3000,
y(final unit="K",
displayUnit="degC"),
offset=datHpAw.THeaWatRetHp_nominal,
startTime=0)
"HW return temperature value";
Buildings.Controls.OBC.CDL.Reals.Sources.Sin TChiWatRet(
amplitude=datHpAw.TChiWatRetHp_nominal - datHpAw.TChiWatSupHp_nominal,
freqHz=3 / 3000,
y(final unit="K",
displayUnit="degC"),
offset=datHpAw.TChiWatRetHp_nominal,
startTime=0)
"CHW return temperature value";
Buildings.Controls.OBC.CDL.Reals.Sources.Constant pHeaWatInl1(
k=sup.p + hpAw.dpHeaWatHp_nominal)
"HW inlet pressure";
Buildings.Controls.OBC.CDL.Reals.Sources.Constant pChiWatInl(
k=sup.p + hpAw.dpChiWatHp_nominal)
"CHW inlet pressure";
Buildings.Controls.OBC.CDL.Reals.Switch TRetAct
"Active return temperature";
Buildings.Controls.OBC.CDL.Reals.Switch pInl_rel
"Active inlet gaupe pressure";
Buildings.Templates.Plants.HeatPumps.Interfaces.Bus busPla
"Plant controller";
Buildings.Templates.Components.Interfaces.Bus busHp[hpAw.nHp]
"HP control bus";
equation
connect(ctlPlaAwNrv.bus, hpAwNrv.bus);
connect(inlHp1.ports, TRet1.port_a);
connect(TRet1.port_b, hpAwNrv.ports_aChiHeaWat);
connect(hpAwNrv.ports_bChiHeaWat, TSup1.port_a);
connect(TSup1.port_b, sup.ports);
connect(weaDat.weaBus, hpAwNrv.busWea);
connect(THeaWatRet.y, inlHp1.T_in);
connect(pHeaWatInl.y, inlHp1.p_in);
connect(weaDat.weaBus, hpAw.busWea);
connect(ctlPlaAw.bus, hpAw.bus);
connect(inlHp.ports, TRet.port_a);
connect(TRet.port_b, hpAw.ports_aChiHeaWat);
connect(TSup.port_b, sup1.ports);
connect(hpAw.ports_bChiHeaWat, TSup.port_a);
connect(THeaWatRet1.y, TRetAct.u1);
connect(TChiWatRet.y, TRetAct.u3);
connect(pHeaWatInl1.y, pInl_rel.u1);
connect(pChiWatInl.y, pInl_rel.u3);
connect(pInl_rel.y, inlHp.p_in);
connect(TRetAct.y, inlHp.T_in);
connect(busPla, ctlPlaAw.bus);
connect(busPla.hp, busHp);
connect(busHp[1].y1Hea, pInl_rel.u2);
connect(pInl_rel.u2, TRetAct.u2);
end HeatPumpGroupAirToWater;
Buildings.Templates.Plants.HeatPumps.Components.Validation.PumpsPrimaryDedicated
Validation model for dedicated primary pump component
Information
This model validates the model Buildings.Templates.Plants.HeatPumps.Components.PumpsPrimaryDedicated for the following configurations.
-
Heating and cooling system with common constant speed dedicated primary pumps:
component
pumPriCom. -
Heating and cooling system with headered constant speed primary pumps:
component
pumPriHdr. -
Heating and cooling system with separate constant speed dedicated HW and CHW pumps:
component
pumPriSep. -
Heating-only system with variable speed dedicated primary pumps:
component
pumPriHea.
In each configuration, two identical heat pumps are represented by fixed flow resistances
(components hp*).
The model uses open loop controls and the simulation allows verifying that design flow is obtained in each loop and each heat pump when the pumps are enabled.
In the configurations with common constant speed dedicated primary pumps or
headered constant speed primary pumps, this requires adjusting the
design pressure drop of the balancing valves which are modeled by fixed flow
resistances in the isolation valve components
valHeaWatIso* and valChiWatIso*.
This adjustment is done programmatically using the function
Buildings.Templates.Utilities.computeBalancingPressureDrop.
Similarly, in the configuration with variable speed pumps pumPriHea,
the design head of the pumps is voluntarily chosen higher than necessary
and the required pump speed needed to provide the design HP flow is computed
at initialization by solving for a balancing valve pressure drop of zero.
Note that this requires solving a numerical Jacobian at initialization.
Although this is handled well by various Modelica tools, the parameter
use_spePumIni allows switching to a default value in
this validation model for better integration into the continuous integration
test workflow.
Extends from Modelica.Icons.Example (Icon for runnable examples).
Parameters
| Type | Name | Default | Description |
|---|---|---|---|
| replaceable package Medium | Buildings.Media.Water | CHW/HW medium | |
| Boolean | use_spePumIni | false | Set to true to compute pump speed at initialization, false to use default value |
| Real | r_N[pumPriHea.nPum] | Relative revolution, r_N=N/N_nominal [1] | |
| Real | r_NDef[pumPriHea.nPum] | fill(0.85, pumPriHea.nPum) | Default value for relative revolution, r_N=N/N_nominal [1] |
| Controller | datCtl | datCtl(cfg(have_pumHeaWatPri... | Controller parameters |
| Controller | datCtlNoDed | datCtlNoDed(cfg(have_pumHeaW... | Controller parameters |
| Controller | datCtlSep | datCtlSep(cfg(have_pumHeaWat... | Controller parameters |
| Controller | datCtlHea | datCtlHea(cfg(have_pumHeaWat... | Controller parameters |
| HeatPumpGroup | datHp | datHp(final nHp=2, final typ... | HP parameters |
| PumpMultiple | datPumPriCom | datPumPriCom(typ=Buildings.T... | Primary pump parameters |
| PumpMultiple | datPumHeaWat | datPumHeaWat(typ=Buildings.T... | Dedicated primary HW pump parameters |
| PumpMultiple | datPumChiWat | datPumChiWat(typ=Buildings.T... | Dedicated primary CHW pump parameters |
| PumpMultiple | datPumHeaWatHea | datPumHeaWatHea(typ=Building... | Dedicated primary HW pump parameters – Heating-only system |
| Dynamics | |||
| Conservation equations | |||
| Dynamics | energyDynamics | Modelica.Fluid.Types.Dynamic... | Type of energy balance: dynamic (3 initialization options) or steady state |
Connectors
| Type | Name | Description |
|---|---|---|
| replaceable package Medium | CHW/HW medium | |
| Bus | busPla | Plant control bus |
| Bus | busPla1 | Plant control bus |
| Bus | busPla2 | Plant control bus |
Modelica definition
model PumpsPrimaryDedicated
"Validation model for dedicated primary pump component"
extends Modelica.Icons.Example;
replaceable package Medium=Buildings.Media.Water
constrainedby Modelica.Media.Interfaces.PartialMedium
"CHW/HW medium";
parameter Boolean use_spePumIni = false
"Set to true to compute pump speed at initialization, false to use default value";
parameter Modelica.Fluid.Types.Dynamics energyDynamics=Modelica.Fluid.Types.Dynamics.FixedInitial
"Type of energy balance: dynamic (3 initialization options) or steady state";
// Calculation of pump speed to meet design flow.
parameter Real r_N[pumPriHea.nPum](
each final fixed=false,
each start=1,
each final unit="1")
"Relative revolution, r_N=N/N_nominal";
parameter Real r_NDef[pumPriHea.nPum](
each start=1,
each final unit="1")=fill(0.85, pumPriHea.nPum)
"Default value for relative revolution, r_N=N/N_nominal";
parameter Data.Controller datCtl(
cfg(
have_pumHeaWatPriVar=false,
have_pumChiWatPriVar=false,
have_inpSch=false,
have_hrc=false,
have_valHpOutIso=false,
have_valHpInlIso=true,
have_chiWat=true,
have_pumChiWatPriDed=false,
typPumHeaWatPri=Buildings.Templates.Plants.HeatPumps.Types.PumpsPrimary.Variable,
typPumChiWatPri=Buildings.Templates.Plants.HeatPumps.Types.PumpsPrimary.None,
typPumHeaWatSec=Buildings.Templates.Plants.HeatPumps.Types.PumpsSecondary.None,
typDis=Buildings.Templates.Plants.HeatPumps.Types.Distribution.Constant1Only,
nPumChiWatSec=0,
rhoHeaWat_default=Buildings.Media.Water.d_const,
typCtl=Buildings.Templates.Plants.HeatPumps.Types.Controller.OpenLoop,
is_rev=true,
typ=Buildings.Templates.Components.Types.HeatPump.AirToWater,
rhoChiWat_default=Buildings.Media.Water.d_const,
cpChiWat_default=Buildings.Utilities.Psychrometrics.Constants.cpWatLiq,
have_hotWat=false,
have_valChiWatMinByp=false,
have_valHeaWatMinByp=false,
typMod=Buildings.Templates.Components.Types.HeatPumpModel.EquationFit,
cpHeaWat_default=Buildings.Utilities.Psychrometrics.Constants.cpWatLiq,
cpSou_default=Buildings.Utilities.Psychrometrics.Constants.cpWatLiq,
have_senDpChiWatRemWir=true,
typArrPumPri=Buildings.Templates.Components.Types.PumpArrangement.Dedicated,
nHp=2,
nPumHeaWatPri=2,
have_heaWat=true,
nPumHeaWatSec=0,
rhoSou_default=Buildings.Media.Air.dStp,
have_senDpHeaWatRemWir=true,
typPumChiWatSec=Buildings.Templates.Plants.HeatPumps.Types.PumpsSecondary.None,
nPumChiWatPri=0,
nSenDpHeaWatRem=0,
nSenDpChiWatRem=0,
nAirHan=0,
nEquZon=0),
THeaWatSup_nominal=Buildings.Templates.Data.Defaults.THeaWatSupMed,
TChiWatSup_nominal=Buildings.Templates.Data.Defaults.TChiWatSup,
dpChiWatRemSet_max=fill(Buildings.Templates.Data.Defaults.dpChiWatRemSet_max, datCtl.cfg.nSenDpChiWatRem),
dpHeaWatRemSet_max=fill(Buildings.Templates.Data.Defaults.dpHeaWatRemSet_max, datCtl.cfg.nSenDpHeaWatRem),
staEqu={fill(1, datCtl.cfg.nHp)})
"Controller parameters";
parameter Data.Controller datCtlNoDed(
cfg(
have_pumHeaWatPriVar=false,
have_pumChiWatPriVar=false,
have_inpSch=false,
have_hrc=false,
have_valHpOutIso=false,
have_valHpInlIso=true,
have_chiWat=true,
have_pumChiWatPriDed=false,
typPumHeaWatPri=Buildings.Templates.Plants.HeatPumps.Types.PumpsPrimary.Variable,
typPumChiWatPri=Buildings.Templates.Plants.HeatPumps.Types.PumpsPrimary.Variable,
typPumHeaWatSec=Buildings.Templates.Plants.HeatPumps.Types.PumpsSecondary.None,
typDis=Buildings.Templates.Plants.HeatPumps.Types.Distribution.Constant1Only,
nPumChiWatSec=0,
rhoHeaWat_default=Buildings.Media.Water.d_const,
typCtl=Buildings.Templates.Plants.HeatPumps.Types.Controller.OpenLoop,
is_rev=true,
typ=Buildings.Templates.Components.Types.HeatPump.AirToWater,
rhoChiWat_default=Buildings.Media.Water.d_const,
cpChiWat_default=Buildings.Utilities.Psychrometrics.Constants.cpWatLiq,
have_hotWat=false,
have_valChiWatMinByp=false,
have_valHeaWatMinByp=false,
typMod=Buildings.Templates.Components.Types.HeatPumpModel.EquationFit,
cpHeaWat_default=Buildings.Utilities.Psychrometrics.Constants.cpWatLiq,
cpSou_default=Buildings.Utilities.Psychrometrics.Constants.cpWatLiq,
have_senDpChiWatRemWir=true,
typArrPumPri=Buildings.Templates.Components.Types.PumpArrangement.Headered,
nHp=2,
nPumHeaWatPri=2,
have_heaWat=true,
nPumHeaWatSec=0,
rhoSou_default=Buildings.Media.Air.dStp,
have_senDpHeaWatRemWir=true,
typPumChiWatSec=Buildings.Templates.Plants.HeatPumps.Types.PumpsSecondary.None,
nPumChiWatPri=0,
nSenDpHeaWatRem=0,
nSenDpChiWatRem=0,
nAirHan=0,
nEquZon=0),
THeaWatSup_nominal=Buildings.Templates.Data.Defaults.THeaWatSupMed,
TChiWatSup_nominal=Buildings.Templates.Data.Defaults.TChiWatSup,
dpChiWatRemSet_max=fill(Buildings.Templates.Data.Defaults.dpChiWatRemSet_max, datCtlNoDed.cfg.nSenDpChiWatRem),
dpHeaWatRemSet_max=fill(Buildings.Templates.Data.Defaults.dpHeaWatRemSet_max, datCtlNoDed.cfg.nSenDpHeaWatRem),
staEqu={fill(1, datCtlNoDed.cfg.nHp)})
"Controller parameters";
parameter Data.Controller datCtlSep(
cfg(
have_pumHeaWatPriVar=false,
have_pumChiWatPriVar=false,
have_inpSch=false,
have_hrc=false,
have_valHpOutIso=false,
have_valHpInlIso=true,
have_chiWat=true,
have_pumChiWatPriDed=true,
typPumHeaWatPri=Buildings.Templates.Plants.HeatPumps.Types.PumpsPrimary.Variable,
typPumChiWatPri=Buildings.Templates.Plants.HeatPumps.Types.PumpsPrimary.Variable,
typPumHeaWatSec=Buildings.Templates.Plants.HeatPumps.Types.PumpsSecondary.None,
typDis=Buildings.Templates.Plants.HeatPumps.Types.Distribution.Constant1Only,
nPumChiWatSec=0,
rhoHeaWat_default=Buildings.Media.Water.d_const,
typCtl=Buildings.Templates.Plants.HeatPumps.Types.Controller.OpenLoop,
is_rev=true,
typ=Buildings.Templates.Components.Types.HeatPump.AirToWater,
rhoChiWat_default=Buildings.Media.Water.d_const,
cpChiWat_default=Buildings.Utilities.Psychrometrics.Constants.cpWatLiq,
have_hotWat=false,
have_valChiWatMinByp=false,
have_valHeaWatMinByp=false,
typMod=Buildings.Templates.Components.Types.HeatPumpModel.EquationFit,
cpHeaWat_default=Buildings.Utilities.Psychrometrics.Constants.cpWatLiq,
cpSou_default=Buildings.Utilities.Psychrometrics.Constants.cpWatLiq,
have_senDpChiWatRemWir=true,
typArrPumPri=Buildings.Templates.Components.Types.PumpArrangement.Dedicated,
nHp=2,
nPumHeaWatPri=2,
nPumChiWatPri=2,
have_heaWat=true,
nPumHeaWatSec=0,
rhoSou_default=Buildings.Media.Air.dStp,
have_senDpHeaWatRemWir=true,
typPumChiWatSec=Buildings.Templates.Plants.HeatPumps.Types.PumpsSecondary.None,
nSenDpHeaWatRem=0,
nSenDpChiWatRem=0,
nAirHan=0,
nEquZon=0),
THeaWatSup_nominal=Buildings.Templates.Data.Defaults.THeaWatSupMed,
TChiWatSup_nominal=Buildings.Templates.Data.Defaults.TChiWatSup,
dpChiWatRemSet_max=fill(Buildings.Templates.Data.Defaults.dpChiWatRemSet_max, datCtlSep.cfg.nSenDpChiWatRem),
dpHeaWatRemSet_max=fill(Buildings.Templates.Data.Defaults.dpHeaWatRemSet_max, datCtlSep.cfg.nSenDpHeaWatRem),
staEqu={fill(1, datCtlSep.cfg.nHp)})
"Controller parameters";
parameter Data.Controller datCtlHea(
cfg(
have_pumHeaWatPriVar=true,
have_pumChiWatPriVar=false,
have_inpSch=false,
have_hrc=false,
have_valHpOutIso=false,
have_valHpInlIso=false,
have_chiWat=false,
have_pumChiWatPriDed=false,
typPumHeaWatPri=Buildings.Templates.Plants.HeatPumps.Types.PumpsPrimary.Variable,
typPumChiWatPri=Buildings.Templates.Plants.HeatPumps.Types.PumpsPrimary.None,
typPumHeaWatSec=Buildings.Templates.Plants.HeatPumps.Types.PumpsSecondary.None,
typDis=Buildings.Templates.Plants.HeatPumps.Types.Distribution.Constant1Only,
nPumChiWatSec=0,
rhoHeaWat_default=Buildings.Media.Water.d_const,
typCtl=Buildings.Templates.Plants.HeatPumps.Types.Controller.OpenLoop,
is_rev=false,
typ=Buildings.Templates.Components.Types.HeatPump.AirToWater,
rhoChiWat_default=Buildings.Media.Water.d_const,
cpChiWat_default=Buildings.Utilities.Psychrometrics.Constants.cpWatLiq,
have_hotWat=false,
have_valChiWatMinByp=false,
have_valHeaWatMinByp=false,
typMod=Buildings.Templates.Components.Types.HeatPumpModel.EquationFit,
cpHeaWat_default=Buildings.Utilities.Psychrometrics.Constants.cpWatLiq,
cpSou_default=Buildings.Utilities.Psychrometrics.Constants.cpWatLiq,
have_senDpChiWatRemWir=true,
typArrPumPri=Buildings.Templates.Components.Types.PumpArrangement.Dedicated,
nHp=2,
nPumHeaWatPri=2,
nPumChiWatPri=0,
have_heaWat=true,
nPumHeaWatSec=0,
rhoSou_default=Buildings.Media.Air.dStp,
have_senDpHeaWatRemWir=true,
typPumChiWatSec=Buildings.Templates.Plants.HeatPumps.Types.PumpsSecondary.None,
nSenDpHeaWatRem=0,
nSenDpChiWatRem=0,
nAirHan=0,
nEquZon=0),
THeaWatSup_nominal=Buildings.Templates.Data.Defaults.THeaWatSupMed,
dpChiWatRemSet_max=fill(Buildings.Templates.Data.Defaults.dpChiWatRemSet_max, datCtlHea.cfg.nSenDpChiWatRem),
dpHeaWatRemSet_max=fill(Buildings.Templates.Data.Defaults.dpHeaWatRemSet_max, datCtlHea.cfg.nSenDpHeaWatRem),
staEqu={fill(1, datCtlHea.cfg.nHp)})
"Controller parameters";
parameter Data.HeatPumpGroup datHp(
final nHp=2,
final typ=Buildings.Templates.Components.Types.HeatPump.AirToWater,
final is_rev=true,
final typMod=Buildings.Templates.Components.Types.HeatPumpModel.EquationFit,
mHeaWatHp_flow_nominal=datHp.capHeaHp_nominal / abs(datHp.THeaWatSupHp_nominal -
Buildings.Templates.Data.Defaults.THeaWatRetMed) / Buildings.Utilities.Psychrometrics.Constants.cpWatLiq,
dpHeaWatHp_nominal=Buildings.Templates.Data.Defaults.dpHeaWatHp,
capHeaHp_nominal=500E3,
THeaWatSupHp_nominal=Buildings.Templates.Data.Defaults.THeaWatSupMed,
TSouHeaHp_nominal=Buildings.Templates.Data.Defaults.TOutHpHeaLow,
mChiWatHp_flow_nominal=datHp.capCooHp_nominal / abs(datHp.TChiWatSupHp_nominal -
Buildings.Templates.Data.Defaults.TChiWatRet) / Buildings.Utilities.Psychrometrics.Constants.cpWatLiq,
capCooHp_nominal=500E3,
TChiWatSupHp_nominal=Buildings.Templates.Data.Defaults.TChiWatSup,
TSouCooHp_nominal=Buildings.Templates.Data.Defaults.TOutHpCoo,
perFitHp(
hea(
P=datHp.capHeaHp_nominal / Buildings.Templates.Data.Defaults.COPHpAwHea,
coeQ={- 4.2670305442, - 0.7381077035, 6.0049480456, 0, 0},
coeP={- 4.9107455513, 5.3665308366, 0.5447612754, 0, 0},
TRefLoa=Buildings.Templates.Data.Defaults.THeaWatRetMed,
TRefSou=Buildings.Templates.Data.Defaults.TOutHpHeaLow),
coo(
P=datHp.capCooHp_nominal / Buildings.Templates.Data.Defaults.COPHpAwCoo,
coeQ={- 2.2545246871, 6.9089257665, - 3.6548225094, 0, 0},
coeP={- 5.8086010402, 1.6894933858, 5.1167787436, 0, 0},
TRefLoa=Buildings.Templates.Data.Defaults.TChiWatRet,
TRefSou=Buildings.Templates.Data.Defaults.TOutHpCoo)))
"HP parameters";
parameter Buildings.Templates.Components.Data.PumpMultiple datPumPriCom(
typ=Buildings.Templates.Components.Types.Pump.Multiple,
nPum=datHp.nHp,
m_flow_nominal=fill(max(datHp.mHeaWatHp_flow_nominal, datHp.mChiWatHp_flow_nominal),
datHp.nHp),
dp_nominal=fill(max(datHp.dpHeaWatHp_nominal, datHp.dpChiWatHp_nominal) +
Buildings.Templates.Data.Defaults.dpValChe + max(max(valChiWatIsoCom.dpValve_nominal),
max(valHeaWatIsoCom.dpValve_nominal)), datHp.nHp))
"Primary pump parameters";
parameter Buildings.Templates.Components.Data.PumpMultiple datPumHeaWat(
typ=Buildings.Templates.Components.Types.Pump.Multiple,
nPum=datHp.nHp,
m_flow_nominal=fill(datHp.mHeaWatHp_flow_nominal, datHp.nHp),
dp_nominal=fill(datHp.dpHeaWatHp_nominal + Buildings.Templates.Data.Defaults.dpValChe
+ max(valHeaWatIsoCom.dpValve_nominal), datHp.nHp))
"Dedicated primary HW pump parameters";
parameter Buildings.Templates.Components.Data.PumpMultiple datPumChiWat(
typ=Buildings.Templates.Components.Types.Pump.Multiple,
nPum=datHp.nHp,
m_flow_nominal=fill(datHp.mChiWatHp_flow_nominal, datHp.nHp),
dp_nominal=fill(datHp.dpChiWatHp_nominal + Buildings.Templates.Data.Defaults.dpValChe
+ max(valHeaWatIsoCom.dpValve_nominal), datHp.nHp))
"Dedicated primary CHW pump parameters";
parameter Buildings.Templates.Components.Data.PumpMultiple datPumHeaWatHea(
typ=Buildings.Templates.Components.Types.Pump.Multiple,
nPum=datHp.nHp,
m_flow_nominal=fill(datHp.mHeaWatHp_flow_nominal, datHp.nHp),
dp_nominal=1.5 * fill(datHp.dpHeaWatHp_nominal + Buildings.Templates.Data.Defaults.dpValChe
+ max(valHeaWatIsoCom.dpValve_nominal), datHp.nHp))
"Dedicated primary HW pump parameters – Heating-only system";
final parameter Buildings.Templates.Components.Data.PumpSingle datPumSin[
pumPriCom.nHp](
each typ=datPumPriCom.typ,
m_flow_nominal=datPumPriCom.m_flow_nominal,
dp_nominal=datPumPriCom.dp_nominal,
per=datPumPriCom.per,
each rho_default=datPumPriCom.rho_default)
"Cast multiple pump record into single pump record array";
final parameter Buildings.Templates.Components.Data.PumpSingle datPumHeaWatHeaSin[pumPriHea.nHp](
each typ=datPumHeaWatHea.typ,
m_flow_nominal=datPumHeaWatHea.m_flow_nominal,
dp_nominal=datPumHeaWatHea.dp_nominal,
per=datPumHeaWatHea.per,
each rho_default=datPumHeaWatHea.rho_default)
"Cast multiple pump record into single pump record array";
Buildings.Templates.Plants.HeatPumps.Components.PumpsPrimaryDedicated
pumPriCom(
redeclare final package Medium = Medium,
nHp=2,
typArrPumPri=Buildings.Templates.Components.Types.PumpArrangement.Dedicated,
have_pumChiWatPriDed=false,
have_pumHeaWatPriVar=false,
have_pumChiWatPriVar=false,
datPumHeaWat=datPumPriCom,
final energyDynamics=energyDynamics)
"Primary pumps - Heating and cooling system with common constant speed dedicated primary pumps";
Fluid.FixedResistances.PressureDrop hpCom[pumPriCom.nHp](
redeclare each final package Medium = Medium,
each m_flow_nominal=datHp.mHeaWatHp_flow_nominal,
each dp_nominal=datHp.dpHeaWatHp_nominal) "Heat pump HX";
Fluid.Sources.Boundary_pT ret(
redeclare final package Medium=Medium,
p=Buildings.Templates.Data.Defaults.pHeaWat_rel_nominal + 101325,
nPorts=datHp.nHp)
"Boundary condition at return";
Controls.OpenLoop ctl(
final cfg=datCtl.cfg,
final dat=datCtl)
"Plant controller";
Buildings.Templates.Plants.HeatPumps.Components.PumpsPrimaryDedicated
pumPriNoDed(
redeclare final package Medium = Medium,
nHp=2,
typArrPumPri=Buildings.Templates.Components.Types.PumpArrangement.Headered,
have_pumChiWatPriDed=false,
have_pumHeaWatPriVar=false,
have_pumChiWatPriVar=false,
datPumHeaWat=datPumPriCom,
final energyDynamics=energyDynamics)
"No dedicated primary pumps (headered pumps)";
Fluid.FixedResistances.PressureDrop hpHdr[pumPriCom.nHp](
redeclare each final package Medium = Medium,
each m_flow_nominal=datHp.mHeaWatHp_flow_nominal,
each dp_nominal=datHp.dpHeaWatHp_nominal)
"Heat pump HX";
Fluid.Sources.Boundary_pT ret1(
redeclare final package Medium=Medium,
p=Buildings.Templates.Data.Defaults.pHeaWat_rel_nominal + 101325,
nPorts=datHp.nHp)
"Boundary condition at return";
Controls.OpenLoop ctlNoDed(
final cfg=datCtlNoDed.cfg,
final dat=datCtlNoDed)
"Plant controller";
Buildings.Templates.Components.Pumps.Multiple pumPriHdr(
have_var=false,
final energyDynamics=energyDynamics,
nPum=2,
dat=datPumPriCom) "Headered primary pumps";
Buildings.Templates.Plants.HeatPumps.Interfaces.Bus busPla
"Plant control bus";
Buildings.Templates.Plants.HeatPumps.Components.PumpsPrimaryDedicated pumPriSep(
redeclare final package Medium=Medium,
nHp=2,
typArrPumPri=Buildings.Templates.Components.Types.PumpArrangement.Dedicated,
have_pumChiWatPriDed=true,
have_pumHeaWatPriVar=false,
have_pumChiWatPriVar=false,
datPumHeaWat=datPumHeaWat,
final datPumChiWat=datPumChiWat,
final energyDynamics=energyDynamics)
"Primary pumps - Heating and cooling system with separate constant speed dedicated CHW pumps";
Fluid.Sources.Boundary_pT ret2(
redeclare final package Medium=Medium,
p=Buildings.Templates.Data.Defaults.pHeaWat_rel_nominal + 101325,
nPorts=datHp.nHp)
"Boundary condition at return";
Controls.OpenLoop ctlSep(
final cfg=datCtlSep.cfg,
final dat=datCtlSep)
"Plant controller";
Fluid.FixedResistances.PressureDrop hpSep[pumPriCom.nHp](
redeclare each final package Medium = Medium,
each m_flow_nominal=datHp.mHeaWatHp_flow_nominal,
each dp_nominal=datHp.dpHeaWatHp_nominal) "Heat pump HX";
Buildings.Templates.Components.Actuators.Valve valHeaWatIsoCom[datHp.nHp](
redeclare each final package Medium = Medium,
each typ=Buildings.Templates.Components.Types.Valve.TwoWayTwoPosition,
dat(
each m_flow_nominal=datHp.mHeaWatHp_flow_nominal,
each dpValve_nominal=Buildings.Templates.Data.Defaults.dpValIso,
dpFixed_nominal=
Buildings.Templates.Utilities.computeBalancingPressureDrop(
m_flow_nominal=fill(datHp.mHeaWatHp_flow_nominal, datHp.nHp),
dp_nominal=pumPriCom.dpValCheHeaWat_nominal*(datHp.mHeaWatHp_flow_nominal
/max(datHp.mHeaWatHp_flow_nominal, datHp.mChiWatHp_flow_nominal))^2 .+
fill(datHp.dpHeaWatHp_nominal, datHp.nHp) .+ valHeaWatIsoCom.dpValve_nominal,
datPum=datPumSin)),
each from_dp=true) "Primary HW loop isolation valve";
Buildings.Templates.Components.Actuators.Valve valChiWatIsoCom[datHp.nHp](
redeclare each final package Medium = Medium,
each typ=Buildings.Templates.Components.Types.Valve.TwoWayTwoPosition,
dat(
each m_flow_nominal=datHp.mChiWatHp_flow_nominal,
each dpValve_nominal=Buildings.Templates.Data.Defaults.dpValIso,
dpFixed_nominal=
Buildings.Templates.Utilities.computeBalancingPressureDrop(
m_flow_nominal=fill(datHp.mChiWatHp_flow_nominal, datHp.nHp),
dp_nominal=pumPriCom.dpValCheHeaWat_nominal*(datHp.mChiWatHp_flow_nominal
/max(datHp.mHeaWatHp_flow_nominal, datHp.mChiWatHp_flow_nominal))^2 .+
fill(datHp.dpChiWatHp_nominal, datHp.nHp) .+ valChiWatIsoCom.dpValve_nominal,
datPum=datPumSin)),
each from_dp=true) "Primary CHW loop isolation valve";
Buildings.Templates.Plants.HeatPumps.Interfaces.Bus busPla1
"Plant control bus";
Buildings.Templates.Components.Actuators.Valve valChiWatIsoHdr[datHp.nHp](
redeclare each final package Medium = Medium,
each typ=Buildings.Templates.Components.Types.Valve.TwoWayTwoPosition,
dat(
each m_flow_nominal=datHp.mChiWatHp_flow_nominal,
each dpValve_nominal=Buildings.Templates.Data.Defaults.dpValIso,
dpFixed_nominal=
Buildings.Templates.Utilities.computeBalancingPressureDrop(
m_flow_nominal=fill(datHp.mChiWatHp_flow_nominal, datHp.nHp),
dp_nominal=pumPriHdr.dpValChe_nominal*(datHp.mChiWatHp_flow_nominal/
max(datHp.mHeaWatHp_flow_nominal, datHp.mChiWatHp_flow_nominal))^2 .+
fill(datHp.dpChiWatHp_nominal, datHp.nHp) .+ valChiWatIsoCom.dpValve_nominal,
datPum=datPumSin)),
each from_dp=true) "Primary CHW loop isolation valve";
Buildings.Templates.Components.Actuators.Valve valHeaWatIsoHdr[datHp.nHp](
redeclare each final package Medium = Medium,
each typ=Buildings.Templates.Components.Types.Valve.TwoWayTwoPosition,
dat(
each m_flow_nominal=datHp.mHeaWatHp_flow_nominal,
each dpValve_nominal=Buildings.Templates.Data.Defaults.dpValIso,
dpFixed_nominal=
Buildings.Templates.Utilities.computeBalancingPressureDrop(
m_flow_nominal=fill(datHp.mHeaWatHp_flow_nominal, datHp.nHp),
dp_nominal=pumPriHdr.dpValChe_nominal*(datHp.mHeaWatHp_flow_nominal/
max(datHp.mHeaWatHp_flow_nominal, datHp.mChiWatHp_flow_nominal))^2 .+
fill(datHp.dpHeaWatHp_nominal, datHp.nHp) .+ valHeaWatIsoCom.dpValve_nominal,
datPum=datPumSin)),
each from_dp=true) "Primary HW loop isolation valve";
Buildings.Templates.Components.Actuators.Valve valHeaWatIsoSep[datHp.nHp](
redeclare each final package Medium=Medium,
each typ=Buildings.Templates.Components.Types.Valve.TwoWayTwoPosition,
dat(
each m_flow_nominal=datHp.mHeaWatHp_flow_nominal,
each dpValve_nominal=Buildings.Templates.Data.Defaults.dpValIso),
each from_dp=true,
each linearized=true)
"Primary HW loop isolation valve";
Buildings.Templates.Components.Actuators.Valve valChiWatIsoSep[datHp.nHp](
redeclare each final package Medium=Medium,
each typ=Buildings.Templates.Components.Types.Valve.TwoWayTwoPosition,
dat(
each m_flow_nominal=datHp.mChiWatHp_flow_nominal,
each dpValve_nominal=Buildings.Templates.Data.Defaults.dpValIso),
each from_dp=true,
each linearized=true)
"Primary CHW loop isolation valve";
Buildings.Templates.Plants.HeatPumps.Interfaces.Bus busPla2
"Plant control bus";
Buildings.Templates.Plants.HeatPumps.Components.PumpsPrimaryDedicated pumPriHea(
redeclare final package Medium=Medium,
nHp=2,
typArrPumPri=Buildings.Templates.Components.Types.PumpArrangement.Dedicated,
have_pumChiWatPriDed=false,
have_pumHeaWatPriVar=true,
have_pumChiWatPriVar=false,
datPumHeaWat=datPumHeaWatHea,
final energyDynamics=energyDynamics)
"Primary pumps - Heating-only system with variable speed dedicated primary pumps";
Fluid.Sources.Boundary_pT ret3(
redeclare final package Medium=Medium,
p=Buildings.Templates.Data.Defaults.pHeaWat_rel_nominal + 101325,
nPorts=1)
"Boundary condition at return";
Controls.OpenLoop ctlHea(
final cfg=datCtlHea.cfg,
final dat=datCtlHea,
yPumHeaWatPriDed(k=r_N))
"Plant controller";
Fluid.FixedResistances.PressureDrop hpHea[pumPriCom.nHp](
redeclare each final package Medium = Medium,
each m_flow_nominal=datHp.mHeaWatHp_flow_nominal,
each dp_nominal=datHp.dpHeaWatHp_nominal) "Heat pump HX";
Fluid.FixedResistances.PressureDrop priHeaWat(
redeclare final package Medium=Medium,
final m_flow_nominal=sum(datPumHeaWat.m_flow_nominal),
final dp_nominal=0)
"Primary HW loop";
initial equation
// Calculation of pump speed to provide design flow.
if use_spePumIni then
fill(0, pumPriHea.nHp)=Buildings.Templates.Utilities.computeBalancingPressureDrop(
m_flow_nominal=fill(datHp.mHeaWatHp_flow_nominal, pumPriHea.nHp),
dp_nominal=pumPriHea.dpValCheHeaWat_nominal .+ fill(datHp.dpHeaWatHp_nominal, pumPriHea.nHp) .+
fill(Buildings.Templates.Data.Defaults.dpValIso, pumPriHea.nHp),
datPum=datPumHeaWatHeaSin,
r_N=r_N);
else
r_N=r_NDef;
end if;
equation
for i in 1:(pumPriHea.nHp) loop
connect(pumPriHea.ports_bChiHeaWat[i], priHeaWat.port_a);
connect(priHeaWat.port_b, pumPriHea.ports_aChiHeaWat[i]);
end for;
connect(pumPriCom.ports_bChiHeaWatHp, hpCom.port_a);
connect(hpCom.port_b, pumPriCom.ports_aChiHeaWatHp);
connect(pumPriNoDed.ports_bChiHeaWatHp, hpHdr.port_a);
connect(hpHdr.port_b, pumPriNoDed.ports_aChiHeaWatHp);
connect(pumPriNoDed.ports_bChiHeaWat, pumPriHdr.ports_a);
connect(ctlNoDed.bus, busPla);
connect(busPla.pumHeaWatPri, pumPriHdr.bus);
connect(pumPriSep.ports_bChiHeaWatHp, hpSep.port_a);
connect(hpSep.port_b, pumPriSep.ports_aChiHeaWatHp);
connect(pumPriCom.ports_bChiHeaWat, valHeaWatIsoCom.port_a);
connect(valHeaWatIsoCom.port_b, pumPriCom.ports_aChiHeaWat);
connect(pumPriCom.ports_bChiHeaWat, valChiWatIsoCom.port_a);
connect(valChiWatIsoCom.port_b, pumPriCom.ports_aChiHeaWat);
connect(ctl.bus, busPla1);
connect(busPla1.valHeaWatHpInlIso, valHeaWatIsoCom.bus);
connect(busPla1.valChiWatHpInlIso, valChiWatIsoCom.bus);
connect(ret.ports, valHeaWatIsoCom.port_b);
connect(pumPriHdr.ports_b, valChiWatIsoHdr.port_a);
connect(pumPriHdr.ports_b, valHeaWatIsoHdr.port_a);
connect(valHeaWatIsoHdr.port_b, pumPriNoDed.ports_aChiHeaWat);
connect(valChiWatIsoHdr.port_b, pumPriNoDed.ports_aChiHeaWat);
connect(ret1.ports, valHeaWatIsoHdr.port_b);
connect(busPla.valHeaWatHpInlIso, valHeaWatIsoHdr.bus);
connect(busPla.valChiWatHpInlIso, valChiWatIsoHdr.bus);
connect(busPla1, pumPriCom.bus);
connect(busPla2.valHeaWatHpInlIso, valHeaWatIsoSep.bus);
connect(busPla2.valChiWatHpInlIso, valChiWatIsoSep.bus);
connect(ctlSep.bus, busPla2);
connect(pumPriSep.ports_bHeaWat, valHeaWatIsoSep.port_a);
connect(pumPriSep.ports_bChiWat, valChiWatIsoSep.port_a);
connect(valHeaWatIsoSep.port_b, pumPriSep.ports_aChiHeaWat);
connect(valChiWatIsoSep.port_b, pumPriSep.ports_aChiHeaWat);
connect(busPla2, pumPriSep.bus);
connect(pumPriHea.ports_bChiHeaWatHp, hpHea.port_a);
connect(hpHea.port_b, pumPriHea.ports_aChiHeaWatHp);
connect(ctlHea.bus, pumPriHea.bus);
connect(ret2.ports, valHeaWatIsoSep.port_b);
connect(ret3.ports[1], priHeaWat.port_b);
end PumpsPrimaryDedicated;
Buildings.Templates.Plants.HeatPumps.Components.Validation.ValvesIsolation
Validation model for isolation valve component
Information
This model validates the model Buildings.Templates.Plants.HeatPumps.Components.ValvesIsolation for the following configurations.
-
Heating and cooling system with common dedicated primary HW and CHW pumps
and isolation valves at both heat pump inlet and outlet:
component
valIsoCom. -
Heating-only system with isolation valves at heat pump inlet:
component
valIsoHeaInl. -
Heating and cooling system with separate dedicated primary HW and CHW pumps
and isolation valves at heat pump inlet:
component
valIsoSep.
In each configuration, two identical heat pumps are represented by fixed
flow resistances (components hp*).
The model uses open loop controls and the simulation allows verifying that design flow is obtained in each loop and each heat pump when the valves are open.
Extends from Modelica.Icons.Example (Icon for runnable examples).
Parameters
| Type | Name | Default | Description |
|---|---|---|---|
| Controller | typCtl | Buildings.Templates.Plants.H... | |
| replaceable package Medium | Buildings.Media.Water | CHW/HW medium | |
| Controller | datCtl | datCtl(cfg(have_pumHeaWatPri... | Controller parameters |
| Controller | datCtlHeaInl | datCtlHeaInl(cfg(have_pumHea... | Controller parameters |
| Controller | datCtlSep | datCtlSep(cfg(have_pumHeaWat... | Controller parameters |
| HeatPumpGroup | datHp | datHp(final nHp=2, final typ... | HP parameters |
| Dynamics | |||
| Conservation equations | |||
| Dynamics | energyDynamics | Modelica.Fluid.Types.Dynamic... | Type of energy balance: dynamic (3 initialization options) or steady state |
Connectors
| Type | Name | Description |
|---|---|---|
| replaceable package Medium | CHW/HW medium | |
| Bus | busPla | Plant controller |
| Bus | busPumHeaWatPri | Primary HW pump control bus |
| Bus | busPumChiWatPri | Primary CHW pump control bus |
Modelica definition
model ValvesIsolation
"Validation model for isolation valve component"
extends Modelica.Icons.Example;
parameter Buildings.Templates.Plants.HeatPumps.Types.Controller typCtl=
Buildings.Templates.Plants.HeatPumps.Types.Controller.OpenLoop;
replaceable package Medium=Buildings.Media.Water
constrainedby Modelica.Media.Interfaces.PartialMedium
"CHW/HW medium";
parameter Modelica.Fluid.Types.Dynamics energyDynamics=Modelica.Fluid.Types.Dynamics.FixedInitial
"Type of energy balance: dynamic (3 initialization options) or steady state";
parameter Data.Controller datCtl(
cfg(
have_pumHeaWatPriVar=true,
have_pumChiWatPriVar=false,
have_inpSch=false,
have_hrc=false,
have_valHpOutIso=valIsoCom.have_valHpOutIso,
have_valHpInlIso=valIsoCom.have_valHpInlIso,
have_chiWat=valIsoCom.have_chiWat,
have_pumChiWatPriDed=valIsoCom.have_pumChiWatPriDed,
typPumHeaWatPri=Buildings.Templates.Plants.HeatPumps.Types.PumpsPrimary.Variable,
typPumChiWatPri=Buildings.Templates.Plants.HeatPumps.Types.PumpsPrimary.None,
typPumHeaWatSec=Buildings.Templates.Plants.HeatPumps.Types.PumpsSecondary.None,
typDis=Buildings.Templates.Plants.HeatPumps.Types.Distribution.Constant1Only,
nPumChiWatSec=0,
rhoHeaWat_default=Buildings.Media.Water.d_const,
typCtl=Buildings.Templates.Plants.HeatPumps.Types.Controller.OpenLoop,
is_rev=true,
typ=Buildings.Templates.Components.Types.HeatPump.AirToWater,
rhoChiWat_default=Buildings.Media.Water.d_const,
cpChiWat_default=Buildings.Utilities.Psychrometrics.Constants.cpWatLiq,
have_hotWat=false,
have_valChiWatMinByp=false,
have_valHeaWatMinByp=false,
typMod=Buildings.Templates.Components.Types.HeatPumpModel.EquationFit,
cpHeaWat_default=Buildings.Utilities.Psychrometrics.Constants.cpWatLiq,
cpSou_default=Buildings.Utilities.Psychrometrics.Constants.cpWatLiq,
have_senDpChiWatRemWir=true,
typArrPumPri=Buildings.Templates.Components.Types.PumpArrangement.Dedicated,
nHp=2,
nPumHeaWatPri=2,
have_heaWat=true,
nPumHeaWatSec=0,
rhoSou_default=Buildings.Media.Air.dStp,
have_senDpHeaWatRemWir=true,
typPumChiWatSec=Buildings.Templates.Plants.HeatPumps.Types.PumpsSecondary.None,
nPumChiWatPri=0,
nSenDpHeaWatRem=0,
nSenDpChiWatRem=0,
nAirHan=0,
nEquZon=0),
THeaWatSup_nominal=Buildings.Templates.Data.Defaults.THeaWatSupMed,
TChiWatSup_nominal=Buildings.Templates.Data.Defaults.TChiWatSup,
dpChiWatRemSet_max=fill(Buildings.Templates.Data.Defaults.dpChiWatRemSet_max,
datCtl.cfg.nSenDpChiWatRem),
dpHeaWatRemSet_max=fill(Buildings.Templates.Data.Defaults.dpHeaWatRemSet_max,
datCtl.cfg.nSenDpHeaWatRem),
staEqu={fill(1, datCtl.cfg.nHp)}) "Controller parameters";
parameter Data.Controller datCtlHeaInl(
cfg(
have_pumHeaWatPriVar=true,
have_pumChiWatPriVar=false,
have_inpSch=false,
have_hrc=false,
have_valHpOutIso=valIsoHeaInl.have_valHpOutIso,
have_valHpInlIso=valIsoHeaInl.have_valHpInlIso,
have_chiWat=valIsoHeaInl.have_chiWat,
have_pumChiWatPriDed=valIsoHeaInl.have_pumChiWatPriDed,
typPumHeaWatPri=Buildings.Templates.Plants.HeatPumps.Types.PumpsPrimary.Variable,
typPumChiWatPri=Buildings.Templates.Plants.HeatPumps.Types.PumpsPrimary.None,
is_rev=false,
typPumHeaWatSec=Buildings.Templates.Plants.HeatPumps.Types.PumpsSecondary.None,
typDis=Buildings.Templates.Plants.HeatPumps.Types.Distribution.Constant1Only,
nPumChiWatSec=0,
rhoHeaWat_default=Buildings.Media.Water.d_const,
typCtl=Buildings.Templates.Plants.HeatPumps.Types.Controller.OpenLoop,
typ=Buildings.Templates.Components.Types.HeatPump.AirToWater,
rhoChiWat_default=Buildings.Media.Water.d_const,
cpChiWat_default=Buildings.Utilities.Psychrometrics.Constants.cpWatLiq,
have_hotWat=false,
have_valChiWatMinByp=false,
have_valHeaWatMinByp=false,
typMod=Buildings.Templates.Components.Types.HeatPumpModel.EquationFit,
cpHeaWat_default=Buildings.Utilities.Psychrometrics.Constants.cpWatLiq,
cpSou_default=Buildings.Utilities.Psychrometrics.Constants.cpWatLiq,
have_senDpChiWatRemWir=true,
typArrPumPri=Buildings.Templates.Components.Types.PumpArrangement.Dedicated,
nHp=2,
nPumHeaWatPri=2,
have_heaWat=true,
nPumHeaWatSec=0,
rhoSou_default=Buildings.Media.Air.dStp,
have_senDpHeaWatRemWir=true,
typPumChiWatSec=Buildings.Templates.Plants.HeatPumps.Types.PumpsSecondary.None,
nPumChiWatPri=0,
nSenDpHeaWatRem=0,
nSenDpChiWatRem=0,
nAirHan=0,
nEquZon=0),
THeaWatSup_nominal=Buildings.Templates.Data.Defaults.THeaWatSupMed,
TChiWatSup_nominal=Buildings.Templates.Data.Defaults.TChiWatSup,
dpChiWatRemSet_max=fill(Buildings.Templates.Data.Defaults.dpChiWatRemSet_max, datCtlHeaInl.cfg.nSenDpChiWatRem),
dpHeaWatRemSet_max=fill(Buildings.Templates.Data.Defaults.dpHeaWatRemSet_max, datCtlHeaInl.cfg.nSenDpHeaWatRem),
staEqu={fill(1, datCtlHeaInl.cfg.nHp)})
"Controller parameters";
parameter Data.Controller datCtlSep(
cfg(
have_pumHeaWatPriVar=true,
have_pumChiWatPriVar=false,
have_inpSch=false,
have_hrc=false,
have_valHpOutIso=valIsoSep.have_valHpOutIso,
have_valHpInlIso=valIsoSep.have_valHpInlIso,
have_chiWat=valIsoSep.have_chiWat,
have_pumChiWatPriDed=valIsoSep.have_pumChiWatPriDed,
typPumHeaWatPri=Buildings.Templates.Plants.HeatPumps.Types.PumpsPrimary.Variable,
typPumChiWatPri=Buildings.Templates.Plants.HeatPumps.Types.PumpsPrimary.Variable,
typPumHeaWatSec=Buildings.Templates.Plants.HeatPumps.Types.PumpsSecondary.None,
typDis=Buildings.Templates.Plants.HeatPumps.Types.Distribution.Constant1Only,
nPumChiWatSec=0,
rhoHeaWat_default=Buildings.Media.Water.d_const,
typCtl=Buildings.Templates.Plants.HeatPumps.Types.Controller.OpenLoop,
is_rev=true,
typ=Buildings.Templates.Components.Types.HeatPump.AirToWater,
rhoChiWat_default=Buildings.Media.Water.d_const,
cpChiWat_default=Buildings.Utilities.Psychrometrics.Constants.cpWatLiq,
have_hotWat=false,
have_valChiWatMinByp=false,
have_valHeaWatMinByp=false,
typMod=Buildings.Templates.Components.Types.HeatPumpModel.EquationFit,
cpHeaWat_default=Buildings.Utilities.Psychrometrics.Constants.cpWatLiq,
cpSou_default=Buildings.Utilities.Psychrometrics.Constants.cpWatLiq,
have_senDpChiWatRemWir=true,
typArrPumPri=Buildings.Templates.Components.Types.PumpArrangement.Dedicated,
nHp=2,
nPumHeaWatPri=2,
have_heaWat=true,
nPumHeaWatSec=0,
rhoSou_default=Buildings.Media.Air.dStp,
have_senDpHeaWatRemWir=true,
typPumChiWatSec=Buildings.Templates.Plants.HeatPumps.Types.PumpsSecondary.None,
nPumChiWatPri=2,
nSenDpHeaWatRem=0,
nSenDpChiWatRem=0,
nAirHan=0,
nEquZon=0),
THeaWatSup_nominal=Buildings.Templates.Data.Defaults.THeaWatSupMed,
TChiWatSup_nominal=Buildings.Templates.Data.Defaults.TChiWatSup,
dpChiWatRemSet_max=fill(Buildings.Templates.Data.Defaults.dpChiWatRemSet_max, datCtlSep.cfg.nSenDpChiWatRem),
dpHeaWatRemSet_max=fill(Buildings.Templates.Data.Defaults.dpHeaWatRemSet_max, datCtlSep.cfg.nSenDpHeaWatRem),
staEqu={fill(1, datCtlSep.cfg.nHp)})
"Controller parameters";
parameter Data.HeatPumpGroup datHp(
final nHp=2,
final typ=Buildings.Templates.Components.Types.HeatPump.AirToWater,
final is_rev=true,
final typMod=Buildings.Templates.Components.Types.HeatPumpModel.EquationFit,
mHeaWatHp_flow_nominal=datHp.capHeaHp_nominal / abs(datHp.THeaWatSupHp_nominal -
Buildings.Templates.Data.Defaults.THeaWatRetMed) / Buildings.Utilities.Psychrometrics.Constants.cpWatLiq,
dpHeaWatHp_nominal=Buildings.Templates.Data.Defaults.dpHeaWatHp,
capHeaHp_nominal=500E3,
THeaWatSupHp_nominal=Buildings.Templates.Data.Defaults.THeaWatSupMed,
TSouHeaHp_nominal=Buildings.Templates.Data.Defaults.TOutHpHeaLow,
mChiWatHp_flow_nominal=datHp.capCooHp_nominal / abs(datHp.TChiWatSupHp_nominal -
Buildings.Templates.Data.Defaults.TChiWatRet) / Buildings.Utilities.Psychrometrics.Constants.cpWatLiq,
capCooHp_nominal=500E3,
TChiWatSupHp_nominal=Buildings.Templates.Data.Defaults.TChiWatSup,
TSouCooHp_nominal=Buildings.Templates.Data.Defaults.TOutHpCoo,
perFitHp(
hea(
P=datHp.capHeaHp_nominal / Buildings.Templates.Data.Defaults.COPHpAwHea,
coeQ={- 4.2670305442, - 0.7381077035, 6.0049480456, 0, 0},
coeP={- 4.9107455513, 5.3665308366, 0.5447612754, 0, 0},
TRefLoa=Buildings.Templates.Data.Defaults.THeaWatRetMed,
TRefSou=Buildings.Templates.Data.Defaults.TOutHpHeaLow),
coo(
P=datHp.capCooHp_nominal / Buildings.Templates.Data.Defaults.COPHpAwCoo,
coeQ={- 2.2545246871, 6.9089257665, - 3.6548225094, 0, 0},
coeP={- 5.8086010402, 1.6894933858, 5.1167787436, 0, 0},
TRefLoa=Buildings.Templates.Data.Defaults.TChiWatRet,
TRefSou=Buildings.Templates.Data.Defaults.TOutHpCoo)))
"HP parameters";
Buildings.Templates.Plants.HeatPumps.Components.ValvesIsolation valIsoCom(
redeclare final package Medium = Medium,
nHp=2,
have_chiWat=true,
have_valHpInlIso=true,
have_valHpOutIso=true,
have_pumChiWatPriDed=false,
final mHeaWatHp_flow_nominal=fill(datHp.mHeaWatHp_flow_nominal, valIsoCom.nHp),
dpHeaWatHp_nominal=fill(datHp.dpHeaWatHp_nominal, valIsoCom.nHp),
mChiWatHp_flow_nominal=fill(datHp.mChiWatHp_flow_nominal, valIsoCom.nHp),
final energyDynamics=energyDynamics,
y_start=0)
"Isolation valves - Heating and cooling system with common dedicated primary HW and CHW pumps";
Fluid.FixedResistances.PressureDrop hpCom[valIsoCom.nHp](
redeclare each final package Medium = Medium,
m_flow_nominal=valIsoCom.mHeaWatHp_flow_nominal,
dp_nominal=fill(0, valIsoCom.nHp))
"Heat pump HX with zero fluid resistance: pressure drop computed in valve component";
Fluid.Sources.Boundary_pT retChiWat(
redeclare final package Medium = Medium,
p=supChiWat.p + max(valIsoCom.dpChiWat_nominal),
T=Buildings.Templates.Data.Defaults.TChiWatRet,
nPorts=1) "Boundary condition at CHW return";
Fluid.Sources.Boundary_pT retHeaWat(
redeclare final package Medium = Medium,
p=supHeaWat.p + max(valIsoCom.dpHeaWat_nominal),
T=Buildings.Templates.Data.Defaults.THeaWatRetMed,
nPorts=1) "Boundary condition at HW return";
Fluid.Sources.Boundary_pT supChiWat(
redeclare final package Medium=Medium,
p=Buildings.Templates.Data.Defaults.pChiWat_rel_nominal + 101325,
nPorts=1)
"Boundary condition at CHW supply";
Fluid.Sources.Boundary_pT supHeaWat(
redeclare final package Medium=Medium,
p=Buildings.Templates.Data.Defaults.pHeaWat_rel_nominal + 101325,
nPorts=1)
"Boundary condition at HW supply";
Controls.OpenLoop ctl(
final cfg=datCtl.cfg,
final dat=datCtl)
"Plant controller";
Buildings.Templates.Plants.HeatPumps.Components.ValvesIsolation valIsoHeaInl(
redeclare final package Medium = Medium,
nHp=2,
have_chiWat=false,
have_pumChiWatPriDed=false,
have_valHpInlIso=true,
have_valHpOutIso=false,
final mHeaWatHp_flow_nominal=fill(datHp.mHeaWatHp_flow_nominal, valIsoCom.nHp),
dpHeaWatHp_nominal=fill(datHp.dpHeaWatHp_nominal, valIsoCom.nHp),
mChiWatHp_flow_nominal=fill(datHp.mChiWatHp_flow_nominal, valIsoCom.nHp),
final energyDynamics=energyDynamics,
y_start=0)
"Isolation valves - Heating-only system with isolation valves at HP inlet";
Fluid.FixedResistances.PressureDrop hpHea[valIsoHeaInl.nHp](
redeclare each final package Medium=Medium,
m_flow_nominal=valIsoHeaInl.mHeaWatHp_flow_nominal,
dp_nominal=fill(0, valIsoHeaInl.nHp))
"Heat pump HX with zero fluid resistance: pressure drop computed in valve component";
Fluid.Sources.Boundary_pT retHeaWat1(
redeclare final package Medium=Medium,
p=supHeaWat1.p + max(valIsoHeaInl.dpHeaWat_nominal),
T=Buildings.Templates.Data.Defaults.THeaWatRetMed,
nPorts=1)
"Boundary condition at HW return";
Fluid.Sources.Boundary_pT supHeaWat1(
redeclare final package Medium=Medium,
p=Buildings.Templates.Data.Defaults.pHeaWat_rel_nominal + 101325,
nPorts=1)
"Boundary condition at HW supply";
Controls.OpenLoop ctlHeaInl(
final cfg=datCtlHeaInl.cfg,
final dat=datCtlHeaInl)
"Plant controller";
Buildings.Templates.Plants.HeatPumps.Components.ValvesIsolation valIsoSep(
redeclare final package Medium = Medium,
nHp=2,
have_chiWat=true,
have_valHpInlIso=true,
have_valHpOutIso=false,
have_pumChiWatPriDed=true,
final mHeaWatHp_flow_nominal=fill(datHp.mHeaWatHp_flow_nominal, valIsoCom.nHp),
dpHeaWatHp_nominal=fill(datHp.dpHeaWatHp_nominal, valIsoCom.nHp),
mChiWatHp_flow_nominal=fill(datHp.mChiWatHp_flow_nominal, valIsoCom.nHp),
final energyDynamics=energyDynamics,
y_start=0,
from_dp=false)
"Isolation valves - Heating and cooling system with separate dedicated primary HW and CHW pumps";
Fluid.FixedResistances.PressureDrop hpSep[valIsoSep.nHp](
redeclare each final package Medium=Medium,
m_flow_nominal=valIsoSep.mHeaWatHp_flow_nominal,
dp_nominal=fill(0, valIsoSep.nHp))
"Heat pump HX with zero fluid resistance: pressure drop computed in valve component";
Fluid.Sources.Boundary_pT supHeaWat2(
redeclare final package Medium=Medium,
p=Buildings.Templates.Data.Defaults.pHeaWat_rel_nominal + 101325,
nPorts=2)
"Boundary condition at HW supply";
Controls.OpenLoop ctlSep(
final cfg=datCtlSep.cfg,
final dat=datCtlSep)
"Plant controller";
Fluid.Movers.Preconfigured.SpeedControlled_y pumChiWatPri[2](
redeclare each final package Medium=Medium,
each addPowerToMedium=false,
each m_flow_nominal=datHp.mChiWatHp_flow_nominal,
each final energyDynamics=energyDynamics,
dp_nominal=valIsoSep.dpChiWat_nominal + cheValChiWat.dpValve_nominal)
"Primary CHW pump";
Fluid.Movers.Preconfigured.SpeedControlled_y pumHeaWatPri[2](
redeclare each final package Medium=Medium,
each addPowerToMedium=false,
each m_flow_nominal=datHp.mHeaWatHp_flow_nominal,
each final energyDynamics=energyDynamics,
dp_nominal=valIsoSep.dpHeaWat_nominal + cheValHeaWat.dpValve_nominal)
"Primary HW pump";
Buildings.Templates.Plants.HeatPumps.Interfaces.Bus busPla
"Plant controller";
Buildings.Controls.OBC.CDL.Conversions.BooleanToReal yPumHeaWatPri[2]
"Primary HW pump speed command";
Buildings.Controls.OBC.CDL.Conversions.BooleanToReal yPumChiWatPri[2]
"Primary CHW pump speed command";
Buildings.Templates.Components.Interfaces.Bus busPumHeaWatPri
"Primary HW pump control bus";
Buildings.Templates.Components.Interfaces.Bus busPumChiWatPri
"Primary CHW pump control bus";
Fluid.FixedResistances.CheckValve cheValHeaWat[2](
redeclare each final package Medium=Medium,
each m_flow_nominal=datHp.mHeaWatHp_flow_nominal,
each dpValve_nominal=Buildings.Templates.Data.Defaults.dpValChe)
"Check valve";
Fluid.FixedResistances.CheckValve cheValChiWat[2](
redeclare each final package Medium=Medium,
each m_flow_nominal=datHp.mChiWatHp_flow_nominal,
each dpValve_nominal=Buildings.Templates.Data.Defaults.dpValChe)
"Check valve";
equation
connect(retHeaWat.ports[1], valIsoCom.port_aHeaWat);
connect(retChiWat.ports[1], valIsoCom.port_aChiWat);
connect(valIsoCom.port_bChiWat, supChiWat.ports[1]);
connect(valIsoCom.port_bHeaWat, supHeaWat.ports[1]);
connect(ctl.bus, valIsoCom.bus);
connect(retHeaWat1.ports[1], valIsoHeaInl.port_aHeaWat);
connect(valIsoHeaInl.port_bHeaWat, supHeaWat1.ports[1]);
connect(ctlHeaInl.bus, valIsoHeaInl.bus);
connect(valIsoCom.ports_bChiHeaWatHp, hpCom.port_a);
connect(hpCom.port_b, valIsoCom.ports_aChiHeaWatHp);
connect(valIsoHeaInl.ports_bChiHeaWatHp, hpHea.port_a);
connect(hpHea.port_b, valIsoHeaInl.ports_aChiHeaWatHp);
connect(valIsoSep.port_bHeaWat, supHeaWat2.ports[1]);
connect(ctlSep.bus, valIsoSep.bus);
connect(valIsoSep.ports_bChiHeaWatHp, hpSep.port_a);
connect(supHeaWat2.ports[2], valIsoSep.port_aHeaWat);
connect(ctlSep.bus, busPla);
connect(busPla.pumHeaWatPri, busPumHeaWatPri);
connect(busPumHeaWatPri.y1, yPumHeaWatPri.u);
connect(yPumHeaWatPri.y, pumHeaWatPri.y);
connect(busPla.pumChiWatPri, busPumChiWatPri);
connect(busPumChiWatPri.y1, yPumChiWatPri.u);
connect(yPumChiWatPri.y, pumChiWatPri.y);
connect(pumHeaWatPri.port_b, cheValHeaWat.port_a);
connect(cheValHeaWat.port_b, valIsoSep.ports_aHeaWatHp);
connect(cheValChiWat.port_b, valIsoSep.ports_aChiWatHp);
connect(pumChiWatPri.port_b, cheValChiWat.port_a);
connect(hpSep.port_b, pumChiWatPri.port_a);
connect(hpSep.port_b, pumHeaWatPri.port_a);
connect(valIsoSep.port_bChiWat, valIsoSep.port_aChiWat);
end ValvesIsolation;