Schedule CoilHeatingWater_Impl::availabilitySchedule() const {
OptionalSchedule value = getObject<ModelObject>().getModelObjectTarget<Schedule>(OS_Coil_Heating_WaterFields::AvailabilityScheduleName);
if (!value){
// it is an error if we get here, however we don't want to crash
// so we hook up to global always on schedule
LOG(Error, "Required availability schedule not set, using 'Always On' schedule");
value = this->model().alwaysOnDiscreteSchedule();
OS_ASSERT(value);
const_cast<CoilHeatingWater_Impl*>(this)->setAvailabilitySchedule(*value);
value = getObject<ModelObject>().getModelObjectTarget<Schedule>(OS_Coil_Heating_WaterFields::AvailabilityScheduleName);
}
OS_ASSERT(value);
return value.get();
}
boost::optional<IdfObject> ForwardTranslator::translateThermostatSetpointDualSetpoint( ThermostatSetpointDualSetpoint& modelObject )
{
IdfObject tsds(openstudio::IddObjectType::ThermostatSetpoint_DualSetpoint);
m_idfObjects.push_back(tsds);
OptionalString s = modelObject.name();
if( s )
{
tsds.setName(*s);
}
OptionalSchedule sched = modelObject.getHeatingSchedule();
if(sched)
{
translateAndMapModelObject(*sched);
tsds.setString(ThermostatSetpoint_DualSetpointFields::HeatingSetpointTemperatureScheduleName,sched->name().get());
}
sched = modelObject.getCoolingSchedule();
if(sched)
{
translateAndMapModelObject(*sched);
tsds.setString(ThermostatSetpoint_DualSetpointFields::CoolingSetpointTemperatureScheduleName,sched->name().get());
}
return boost::optional<IdfObject>(tsds);
}
boost::optional<IdfObject> ForwardTranslator::translateCoilCoolingDXTwoSpeedWithoutUnitary( model::CoilCoolingDXTwoSpeed & modelObject )
{
//setup two boost optionals to use to store get method returns
boost::optional<std::string> s;
boost::optional<double> d;
//create the IdfObject that will be the coil
IdfObject idfObject(IddObjectType::Coil_Cooling_DX_TwoSpeed);
//Name
m_idfObjects.push_back(idfObject);
s = modelObject.name();
if( s )
{
idfObject.setName(*s);
}
// A2 , \field Availability Schedule Name
Schedule sched = modelObject.getAvailabilitySchedule();
translateAndMapModelObject(sched);
idfObject.setString(Coil_Cooling_DX_TwoSpeedFields::AvailabilityScheduleName,
sched.name().get() );
// N1 , \field Rated High Speed Total Cooling Capacity
d = modelObject.getRatedHighSpeedTotalCoolingCapacity();
if( d )
{
idfObject.setDouble(Coil_Cooling_DX_TwoSpeedFields::RatedHighSpeedTotalCoolingCapacity,*d);
}
else
{
idfObject.setString(Coil_Cooling_DX_TwoSpeedFields::RatedHighSpeedTotalCoolingCapacity,"Autosize");
}
// N2 , \field Rated High Speed Sensible Heat Ratio
d = modelObject.getRatedHighSpeedSensibleHeatRatio();
if( d )
{
idfObject.setDouble(Coil_Cooling_DX_TwoSpeedFields::RatedHighSpeedSensibleHeatRatio,*d);
}
else
{
idfObject.setString(Coil_Cooling_DX_TwoSpeedFields::RatedHighSpeedSensibleHeatRatio,"Autosize");
}
// N3 , \field Rated High Speed COP
d = modelObject.getRatedHighSpeedCOP();
if( d )
{
idfObject.setDouble(Coil_Cooling_DX_TwoSpeedFields::RatedHighSpeedCOP,*d);
}
// N4 , \field Rated High Speed Air Flow Rate
d = modelObject.getRatedHighSpeedAirFlowRate();
if( d )
{
idfObject.setDouble(Coil_Cooling_DX_TwoSpeedFields::RatedHighSpeedAirFlowRate,*d);
}
else
{
idfObject.setString(Coil_Cooling_DX_TwoSpeedFields::RatedHighSpeedAirFlowRate,"Autosize");
}
//A3 , \field Air Inlet Node Name
OptionalModelObject omo = modelObject.inletModelObject();
if( omo )
{
translateAndMapModelObject(*omo);
s = omo->name();
if(s)
{
idfObject.setString(Coil_Cooling_DX_TwoSpeedFields::AirInletNodeName,*s );
}
}
//A4 , \field Air Outlet Node Name
omo= modelObject.outletModelObject();
if( omo )
{
translateAndMapModelObject(*omo);
s = omo->name();
if(s)
{
idfObject.setString(Coil_Cooling_DX_TwoSpeedFields::AirOutletNodeName,*s);
}
}
// A5 , \field Total Cooling Capacity Function of Temperature Curve Name
Curve cb = modelObject.getTotalCoolingCapacityFunctionOfTemperatureCurve();
translateAndMapModelObject(cb);
idfObject.setString(Coil_Cooling_DX_TwoSpeedFields::TotalCoolingCapacityFunctionofTemperatureCurveName,
cb.name().get());
// A6 , \field Total Cooling Capacity Function of Flow Fraction Curve Name
cb = modelObject.getTotalCoolingCapacityFunctionOfFlowFractionCurve();
translateAndMapModelObject(cb);
idfObject.setString(Coil_Cooling_DX_TwoSpeedFields::TotalCoolingCapacityFunctionofFlowFractionCurveName,
cb.name().get());
// A7 , \field Energy Input Ratio Function of Temperature Curve Name
cb =modelObject.getEnergyInputRatioFunctionOfTemperatureCurve();
translateAndMapModelObject(cb);
idfObject.setString(Coil_Cooling_DX_TwoSpeedFields::EnergyInputRatioFunctionofTemperatureCurveName,
cb.name().get());
// A8 , \field Energy Input Ratio Function of Flow Fraction Curve Name
Curve cq = modelObject.getEnergyInputRatioFunctionOfFlowFractionCurve();
translateAndMapModelObject(cq);
idfObject.setString(Coil_Cooling_DX_TwoSpeedFields::EnergyInputRatioFunctionofFlowFractionCurveName,
cq.name().get());
// A9 , \field Part Load Fraction Correlation Curve Name
cq = modelObject.getPartLoadFractionCorrelationCurve();
translateAndMapModelObject(cq);
idfObject.setString(Coil_Cooling_DX_TwoSpeedFields::PartLoadFractionCorrelationCurveName,
cq.name().get());
// N5 , \field Rated Low Speed Total Cooling Capacity
d = modelObject.getRatedLowSpeedTotalCoolingCapacity();
if( d )
{
idfObject.setDouble(Coil_Cooling_DX_TwoSpeedFields::RatedLowSpeedTotalCoolingCapacity,*d);
}
else
{
idfObject.setString(Coil_Cooling_DX_TwoSpeedFields::RatedLowSpeedTotalCoolingCapacity,"Autosize");
}
// N6 , \field Rated Low Speed Sensible Heat Ratio
d = modelObject.getRatedLowSpeedSensibleHeatRatio();
if( d )
{
idfObject.setDouble(Coil_Cooling_DX_TwoSpeedFields::RatedLowSpeedSensibleHeatRatio,*d);
}
else
{
idfObject.setString(Coil_Cooling_DX_TwoSpeedFields::RatedLowSpeedSensibleHeatRatio,"Autosize");
}
// N7 , \field Rated Low Speed COP
d = modelObject.getRatedLowSpeedCOP();
if( d )
{
idfObject.setDouble(Coil_Cooling_DX_TwoSpeedFields::RatedLowSpeedCOP,*d);
}
// N8 , \field Rated Low Speed Air Flow Rate
d = modelObject.getRatedLowSpeedAirFlowRate();
if( d )
{
idfObject.setDouble(Coil_Cooling_DX_TwoSpeedFields::RatedLowSpeedAirFlowRate,*d);
}
else
{
idfObject.setString(Coil_Cooling_DX_TwoSpeedFields::RatedLowSpeedAirFlowRate,"Autosize");
}
// A10, \field Low Speed Total Cooling Capacity Function of Temperature Curve Name
cq = modelObject.getLowSpeedTotalCoolingCapacityFunctionOfTemperatureCurve();
translateAndMapModelObject(cq);
idfObject.setString(Coil_Cooling_DX_TwoSpeedFields::LowSpeedTotalCoolingCapacityFunctionofTemperatureCurveName,
cq.name().get());
// A11, \field Low Speed Energy Input Ratio Function of Temperature Curve Name
cq = modelObject.getLowSpeedEnergyInputRatioFunctionOfTemperatureCurve();
translateAndMapModelObject(cq);
idfObject.setString(Coil_Cooling_DX_TwoSpeedFields::LowSpeedEnergyInputRatioFunctionofTemperatureCurveName,
cq.name().get());
// A12, \field Condenser Air Inlet Node Name
s=modelObject.getCondenserAirInletNodeName();
if(s)
{
idfObject.setString(Coil_Cooling_DX_TwoSpeedFields::CondenserAirInletNodeName,*s);
}
// A13, \field Condenser Type
idfObject.setString(Coil_Cooling_DX_TwoSpeedFields::CondenserType,modelObject.getCondenserType());
// N9, \field High Speed Evaporative Condenser Effectiveness
d=modelObject.getHighSpeedEvaporativeCondenserEffectiveness();
if(d)
{
idfObject.setDouble(Coil_Cooling_DX_TwoSpeedFields::HighSpeedEvaporativeCondenserEffectiveness,*d);
}
// N10, \field High Speed Evaporative Condenser Air Flow Rate
d=modelObject.getHighSpeedEvaporativeCondenserAirFlowRate();
if(d)
{
idfObject.setDouble(Coil_Cooling_DX_TwoSpeedFields::HighSpeedEvaporativeCondenserAirFlowRate,*d);
}
// N11, \field High Speed Evaporative Condenser Pump Rated Power Consumption
d=modelObject.getHighSpeedEvaporativeCondenserPumpRatedPowerConsumption();
if(d)
{
idfObject.setDouble(Coil_Cooling_DX_TwoSpeedFields::HighSpeedEvaporativeCondenserPumpRatedPowerConsumption,*d);
}
// N12, \field Low Speed Evaporative Condenser Effectiveness
d=modelObject.getLowSpeedEvaporativeCondenserEffectiveness();
if(d)
{
idfObject.setDouble(Coil_Cooling_DX_TwoSpeedFields::LowSpeedEvaporativeCondenserEffectiveness,*d);
}
// N13, \field Low Speed Evaporative Condenser Air Flow Rate
d=modelObject.getLowSpeedEvaporativeCondenserAirFlowRate();
if(d)
{
idfObject.setDouble(Coil_Cooling_DX_TwoSpeedFields::LowSpeedEvaporativeCondenserAirFlowRate,*d);
}
// N14, \field Low Speed Evaporative Condenser Pump Rated Power Consumption
d=modelObject.getLowSpeedEvaporativeCondenserPumpRatedPowerConsumption();
if(d)
{
idfObject.setDouble(Coil_Cooling_DX_TwoSpeedFields::LowSpeedEvaporativeCondenserPumpRatedPowerConsumption,*d);
}
//TODO
// A14, \field Supply Water Storage Tank Name
//getSupplyWaterStorageTankName
//TODO
// A15, \field Condensate Collection Water Storage Tank Name
//getCondensateCollectionWaterStorageTankName
// N15, \field Basin Heater Capacity
d=modelObject.getBasinHeaterCapacity();
if(d)
{
idfObject.setDouble(Coil_Cooling_DX_TwoSpeedFields::BasinHeaterCapacity,*d);
}
// N16, \field Basin Heater Setpoint Temperature
d=modelObject.getBasinHeaterSetpointTemperature();
if(d)
{
idfObject.setDouble(Coil_Cooling_DX_TwoSpeedFields::BasinHeaterSetpointTemperature,*d);
}
// A16; \field Basin Heater Operating Schedule Name
OptionalSchedule os = modelObject.getBasinHeaterOperatingSchedule();
if( os )
{
translateAndMapModelObject(*os);
idfObject.setString(Coil_Cooling_DX_TwoSpeedFields::BasinHeaterOperatingScheduleName,
os->name().get() );
}
return idfObject;
}
boost::optional<IdfObject> ForwardTranslator::translatePumpConstantSpeed(
PumpConstantSpeed& modelObject)
{
boost::optional<std::string> s;
boost::optional<double> value;
OptionalSchedule schedule;
IdfObject idfObject(IddObjectType::Pump_ConstantSpeed);
m_idfObjects.push_back(idfObject);
// Name
s = modelObject.name();
if( s )
{
idfObject.setName(*s);
}
// InletNodeName
if( boost::optional<ModelObject> mo = modelObject.inletModelObject() )
{
if( boost::optional<Node> node = mo->optionalCast<Node>() )
{
idfObject.setString(Pump_ConstantSpeedFields::InletNodeName,node->name().get());
}
}
// OutletNodeName
if( boost::optional<ModelObject> mo = modelObject.outletModelObject() )
{
if( boost::optional<Node> node = mo->optionalCast<Node>() )
{
idfObject.setString(Pump_ConstantSpeedFields::OutletNodeName,node->name().get());
}
}
// RatedFlowRate
if( modelObject.isRatedFlowRateAutosized() )
{
idfObject.setString(Pump_ConstantSpeedFields::RatedFlowRate,"Autosize");
}
else if( (value = modelObject.ratedFlowRate()) )
{
idfObject.setDouble(Pump_ConstantSpeedFields::RatedFlowRate,value.get());
}
// RatedPumpHead
if( (value = modelObject.ratedPumpHead()) )
{
idfObject.setDouble(Pump_ConstantSpeedFields::RatedPumpHead,value.get());
}
// RatedPowerConsumption
if( modelObject.isRatedPowerConsumptionAutosized() )
{
idfObject.setString(Pump_ConstantSpeedFields::RatedPowerConsumption,"Autosize");
}
else if( (value = modelObject.ratedPowerConsumption()) )
{
idfObject.setDouble(Pump_ConstantSpeedFields::RatedPowerConsumption,value.get());
}
// MotorEfficiency
if( (value = modelObject.motorEfficiency()) )
{
idfObject.setDouble(Pump_ConstantSpeedFields::MotorEfficiency,value.get());
}
// FractionofMotorInefficienciestoFluidStream
if( (value = modelObject.fractionofMotorInefficienciestoFluidStream()) )
{
idfObject.setDouble(Pump_ConstantSpeedFields::FractionofMotorInefficienciestoFluidStream,value.get());
}
// PumpControlType
if( (s = modelObject.pumpControlType()) )
{
idfObject.setString(Pump_ConstantSpeedFields::PumpControlType,s.get());
}
// PumpFlowRateSchedule
if ((schedule = modelObject.pumpFlowRateSchedule())) {
idfObject.setString(Pump_ConstantSpeedFields::PumpFlowRateScheduleName,schedule->name().get());
}
// PumpCurve
if (OptionalCurve curve = modelObject.pumpCurve()) {
idfObject.setString(Pump_ConstantSpeedFields::PumpCurveName,curve->name().get());
}
// ImpellerDiameter
if ((value = modelObject.impellerDiameter())) {
idfObject.setDouble(Pump_ConstantSpeedFields::ImpellerDiameter,value.get());
}
// SkinLossRadiativeFraction
if ((value = modelObject.skinLossRadiativeFraction())) {
idfObject.setDouble(Pump_ConstantSpeedFields::SkinLossRadiativeFraction,value.get());
}
return idfObject;
}
boost::optional<IdfObject> ForwardTranslator::translateCoilCoolingDXSingleSpeedWithoutUnitary( model::CoilCoolingDXSingleSpeed & modelObject )
{
OptionalString s;
IdfObject idfObject(IddObjectType::Coil_Cooling_DX_SingleSpeed);
s = modelObject.name();
if( s )
{
idfObject.setName(*s);
}
// hook up required objects
try {
Schedule sched = modelObject.getAvailabilitySchedule();
translateAndMapModelObject(sched);
idfObject.setString(Coil_Cooling_DX_SingleSpeedFields::AvailabilityScheduleName,
sched.name().get() );
Curve cb = modelObject.getTotalCoolingCapacityFunctionOfTemperatureCurve();
translateAndMapModelObject(cb);
idfObject.setString(Coil_Cooling_DX_SingleSpeedFields::TotalCoolingCapacityFunctionofTemperatureCurveName,
cb.name().get());
Curve cq = modelObject.getTotalCoolingCapacityFunctionOfFlowFractionCurve();
translateAndMapModelObject(cq);
idfObject.setString(Coil_Cooling_DX_SingleSpeedFields::TotalCoolingCapacityFunctionofFlowFractionCurveName,
cq.name().get());
cb =modelObject.getEnergyInputRatioFunctionOfTemperatureCurve();
translateAndMapModelObject(cb);
idfObject.setString(Coil_Cooling_DX_SingleSpeedFields::EnergyInputRatioFunctionofTemperatureCurveName,
cb.name().get());
cq=modelObject.getEnergyInputRatioFunctionOfFlowFractionCurve();
translateAndMapModelObject(cq);
idfObject.setString(Coil_Cooling_DX_SingleSpeedFields::EnergyInputRatioFunctionofFlowFractionCurveName,
cq.name().get());
cq=modelObject.getPartLoadFractionCorrelationCurve();
translateAndMapModelObject(cq);
idfObject.setString(Coil_Cooling_DX_SingleSpeedFields::PartLoadFractionCorrelationCurveName,
cq.name().get());
}
catch (std::exception& e) {
LOG(Error,"Could not translate " << modelObject.briefDescription() << ", because "
<< e.what() << ".");
return boost::none;
}
OptionalDouble d = modelObject.ratedTotalCoolingCapacity();
if( d )
{
idfObject.setDouble(Coil_Cooling_DX_SingleSpeedFields::GrossRatedTotalCoolingCapacity,*d);
}
else
{
idfObject.setString(Coil_Cooling_DX_SingleSpeedFields::GrossRatedTotalCoolingCapacity,"Autosize");
}
d = modelObject.ratedSensibleHeatRatio();
if( d )
{
idfObject.setDouble(Coil_Cooling_DX_SingleSpeedFields::GrossRatedSensibleHeatRatio,*d);
}
else
{
idfObject.setString(Coil_Cooling_DX_SingleSpeedFields::GrossRatedSensibleHeatRatio,"Autosize");
}
d = modelObject.getRatedCOP();
if( d )
{
idfObject.setDouble(Coil_Cooling_DX_SingleSpeedFields::GrossRatedCoolingCOP,*d);
}
d = modelObject.ratedAirFlowRate();
if( d )
{
idfObject.setDouble(Coil_Cooling_DX_SingleSpeedFields::RatedAirFlowRate,*d);
}
else
{
idfObject.setString(Coil_Cooling_DX_SingleSpeedFields::RatedAirFlowRate,"Autosize");
}
d = modelObject.getRatedEvaporatorFanPowerPerVolumeFlowRate();
if( d )
{
idfObject.setDouble(Coil_Cooling_DX_SingleSpeedFields::RatedEvaporatorFanPowerPerVolumeFlowRate,*d);
}
OptionalModelObject omo = modelObject.inletModelObject();
if( omo )
{
translateAndMapModelObject(*omo);
s = omo->name();
if(s)
{
idfObject.setString(Coil_Cooling_DX_SingleSpeedFields::AirInletNodeName,*s );
}
}
omo= modelObject.outletModelObject();
if( omo )
{
translateAndMapModelObject(*omo);
s = omo->name();
if(s)
{
idfObject.setString(Coil_Cooling_DX_SingleSpeedFields::AirOutletNodeName,*s);
}
}
d=modelObject.getNominalTimeForCondensateRemovalToBegin();
if(d)
{
idfObject.setDouble(Coil_Cooling_DX_SingleSpeedFields::NominalTimeforCondensateRemovaltoBegin,*d);
}
d=modelObject.getRatioOfInitialMoistureEvaporationRateAndSteadyStateLatentCapacity();
if(d)
{
idfObject.setDouble(Coil_Cooling_DX_SingleSpeedFields::RatioofInitialMoistureEvaporationRateandSteadyStateLatentCapacity,*d);
}
d=modelObject.getMaximumCyclingRate();
if(d)
{
idfObject.setDouble(Coil_Cooling_DX_SingleSpeedFields::MaximumCyclingRate,*d);
}
d=modelObject.getLatentCapacityTimeConstant();
if(d)
{
idfObject.setDouble(Coil_Cooling_DX_SingleSpeedFields::LatentCapacityTimeConstant,*d);
}
s=modelObject.getCondenserAirInletNodeName();
if(s)
{
idfObject.setString(Coil_Cooling_DX_SingleSpeedFields::CondenserAirInletNodeName,*s);
}
idfObject.setString(Coil_Cooling_DX_SingleSpeedFields::CondenserType,modelObject.getCondenserType());
d=modelObject.getEvaporativeCondenserEffectiveness();
if(d)
{
idfObject.setDouble(Coil_Cooling_DX_SingleSpeedFields::EvaporativeCondenserEffectiveness,*d);
}
d=modelObject.getEvaporativeCondenserAirFlowRate();
if(d)
{
idfObject.setDouble(Coil_Cooling_DX_SingleSpeedFields::EvaporativeCondenserAirFlowRate,*d);
}
d=modelObject.getEvaporativeCondenserPumpRatedPowerConsumption();
if(d)
{
idfObject.setDouble(Coil_Cooling_DX_SingleSpeedFields::EvaporativeCondenserPumpRatedPowerConsumption,*d);
}
d=modelObject.getCrankcaseHeaterCapacity();
if(d)
{
idfObject.setDouble(Coil_Cooling_DX_SingleSpeedFields::CrankcaseHeaterCapacity,*d);
}
d=modelObject.getMaximumOutdoorDryBulbTemperatureForCrankcaseHeaterOperation();
if(d)
{
idfObject.setDouble(Coil_Cooling_DX_SingleSpeedFields::MaximumOutdoorDryBulbTemperatureforCrankcaseHeaterOperation,*d);
}
//TODO
//getSupplyWaterStorageTankName
//getCondensateCollectionWaterStorageTankName
d=modelObject.getBasinHeaterCapacity();
if(d)
{
idfObject.setDouble(Coil_Cooling_DX_SingleSpeedFields::BasinHeaterCapacity,*d);
}
d=modelObject.getBasinHeaterSetpointTemperature();
if(d)
{
idfObject.setDouble(Coil_Cooling_DX_SingleSpeedFields::BasinHeaterSetpointTemperature,*d);
}
OptionalSchedule os = modelObject.getBasinHeaterOperatingSchedule();
if( os )
{
translateAndMapModelObject(*os);
idfObject.setString(Coil_Cooling_DX_SingleSpeedFields::BasinHeaterOperatingScheduleName,
os->name().get() );
}
m_idfObjects.push_back(idfObject);
return idfObject;
}
boost::optional<IdfObject> ForwardTranslator::translatePumpVariableSpeed(
PumpVariableSpeed& modelObject)
{
boost::optional<std::string> s;
boost::optional<double> value;
OptionalSchedule schedule;
IdfObject idfObject(IddObjectType::Pump_VariableSpeed);
m_idfObjects.push_back(idfObject);
// Name
s = modelObject.name();
if( s )
{
idfObject.setName(*s);
}
// InletNodeName
if( boost::optional<ModelObject> mo = modelObject.inletModelObject() )
{
if( boost::optional<Node> node = mo->optionalCast<Node>() )
{
idfObject.setString(Pump_VariableSpeedFields::InletNodeName,node->name().get());
}
}
// OutletNodeName
if( boost::optional<ModelObject> mo = modelObject.outletModelObject() )
{
if( boost::optional<Node> node = mo->optionalCast<Node>() )
{
idfObject.setString(Pump_VariableSpeedFields::OutletNodeName,node->name().get());
}
}
// RatedFlowRate
if( modelObject.isRatedFlowRateAutosized() )
{
idfObject.setString(Pump_VariableSpeedFields::RatedFlowRate,"Autosize");
}
else if( value = modelObject.ratedFlowRate() )
{
idfObject.setDouble(Pump_VariableSpeedFields::RatedFlowRate,value.get());
}
// RatedPumpHead
if( value = modelObject.ratedPumpHead() )
{
idfObject.setDouble(Pump_VariableSpeedFields::RatedPumpHead,value.get());
}
// RatedPowerConsumption
if( modelObject.isRatedPowerConsumptionAutosized() )
{
idfObject.setString(Pump_VariableSpeedFields::RatedPowerConsumption,"Autosize");
}
else if( value = modelObject.ratedPowerConsumption() )
{
idfObject.setDouble(Pump_VariableSpeedFields::RatedPowerConsumption,value.get());
}
// MotorEfficiency
if( value = modelObject.motorEfficiency() )
{
idfObject.setDouble(Pump_VariableSpeedFields::MotorEfficiency,value.get());
}
// FractionofMotorInefficienciestoFluidStream
if( value = modelObject.fractionofMotorInefficienciestoFluidStream() )
{
idfObject.setDouble(Pump_VariableSpeedFields::FractionofMotorInefficienciestoFluidStream,value.get());
}
// Coefficient1ofthePartLoadPerformanceCurve
if( value = modelObject.coefficient1ofthePartLoadPerformanceCurve() )
{
idfObject.setDouble(Pump_VariableSpeedFields::Coefficient1ofthePartLoadPerformanceCurve,value.get());
}
// Coefficient2ofthePartLoadPerformanceCurve
if( value = modelObject.coefficient2ofthePartLoadPerformanceCurve() )
{
idfObject.setDouble(Pump_VariableSpeedFields::Coefficient2ofthePartLoadPerformanceCurve,value.get());
}
// Coefficient3ofthePartLoadPerformanceCurve
if( value = modelObject.coefficient3ofthePartLoadPerformanceCurve() )
{
idfObject.setDouble(Pump_VariableSpeedFields::Coefficient3ofthePartLoadPerformanceCurve,value.get());
}
// Coefficient4ofthePartLoadPerformanceCurve
if( value = modelObject.coefficient4ofthePartLoadPerformanceCurve() )
{
idfObject.setDouble(Pump_VariableSpeedFields::Coefficient4ofthePartLoadPerformanceCurve,value.get());
}
// MinimumFlowRate
if( value = modelObject.minimumFlowRate() )
{
idfObject.setDouble(Pump_VariableSpeedFields::MinimumFlowRate,value.get());
}
// PumpControlType
if( s = modelObject.pumpControlType() )
{
idfObject.setString(Pump_VariableSpeedFields::PumpControlType,s.get());
}
// PumpFlowRateSchedule
if (schedule = modelObject.pumpFlowRateSchedule()) {
idfObject.setString(Pump_VariableSpeedFields::PumpFlowRateScheduleName,schedule->name().get());
}
// PumpCurve
if (OptionalCurve curve = modelObject.pumpCurve()) {
idfObject.setString(Pump_VariableSpeedFields::PumpCurveName,curve->name().get());
}
// ImpellerDiameter
if (value = modelObject.impellerDiameter()) {
idfObject.setDouble(Pump_VariableSpeedFields::ImpellerDiameter,value.get());
}
// VFDControlType
if (s = modelObject.vFDControlType()) {
idfObject.setString(Pump_VariableSpeedFields::VFDControlType,s.get());
}
// PumpRPMSchedule
if (schedule = modelObject.pumpRPMSchedule()) {
idfObject.setString(Pump_VariableSpeedFields::PumprpmScheduleName,schedule->name().get());
}
// MinimumPressureSchedule
if (schedule = modelObject.minimumPressureSchedule()) {
idfObject.setString(Pump_VariableSpeedFields::MinimumPressureSchedule,schedule->name().get());
}
// MaximumPressureSchedule
if (schedule = modelObject.maximumPressureSchedule()) {
idfObject.setString(Pump_VariableSpeedFields::MaximumPressureSchedule,schedule->name().get());
}
// MinimumRPMSchedule
if (schedule = modelObject.minimumRPMSchedule()) {
idfObject.setString(Pump_VariableSpeedFields::MinimumRPMSchedule,schedule->name().get());
}
// MaximumRPMSchedule
if (schedule = modelObject.maximumRPMSchedule()) {
idfObject.setString(Pump_VariableSpeedFields::MaximumRPMSchedule,schedule->name().get());
}
return idfObject;
}