//test orphaning the generator before FT
TEST_F(EnergyPlusFixture, ForwardTranslatorGeneratorMicroTurbine_ELCD_Orphan)
{
// Create a model, a mchp, a mchpHR, a plantLoop and an electricalLoadCenter
Model model;
GeneratorMicroTurbine mchp = GeneratorMicroTurbine(model);
GeneratorMicroTurbineHeatRecovery mchpHR = GeneratorMicroTurbineHeatRecovery(model, mchp);
ASSERT_EQ(mchpHR, mchp.generatorMicroTurbineHeatRecovery().get());
PlantLoop plantLoop(model);
// Add a supply branch for the mchpHR
ASSERT_TRUE(plantLoop.addSupplyBranchForComponent(mchpHR));
// Create a WaterHeater:Mixed
WaterHeaterMixed waterHeater(model);
// Add it on the same branch as the chpHR, right after it
Node mchpHROutletNode = mchpHR.outletModelObject()->cast<Node>();
ASSERT_TRUE(waterHeater.addToNode(mchpHROutletNode));
// Create a plantEquipmentOperationHeatingLoad
PlantEquipmentOperationHeatingLoad operation(model);
operation.setName(plantLoop.name().get() + " PlantEquipmentOperationHeatingLoad");
ASSERT_TRUE(plantLoop.setPlantEquipmentOperationHeatingLoad(operation));
ASSERT_TRUE(operation.addEquipment(mchpHR));
ASSERT_TRUE(operation.addEquipment(waterHeater));
// Create an ELCD
ElectricLoadCenterDistribution elcd = ElectricLoadCenterDistribution(model);
elcd.setName("Capstone C65 ELCD");
elcd.setElectricalBussType("AlternatingCurrent");
elcd.addGenerator(mchp);
// orphan the generator from the ELCD
boost::optional<ElectricLoadCenterDistribution> elcd2 = mchp.electricLoadCenterDistribution();
elcd2.get().remove();
EXPECT_FALSE(mchp.electricLoadCenterDistribution());
// Forward Translates
ForwardTranslator forwardTranslator;
Workspace workspace = forwardTranslator.translateModel(model);
EXPECT_EQ(0u, forwardTranslator.errors().size());
//ASSERT_EQ(1u, workspace.getObjectsByType(IddObjectType::WaterHeater_Mixed).size());
ASSERT_EQ(0u, workspace.getObjectsByType(IddObjectType::ElectricLoadCenter_Distribution).size());
//model.save(toPath("./ForwardTranslatorGeneratorMicroTurbine_ELCD_orhpan.osm"), true);
//workspace.save(toPath("./ForwardTranslatorGeneratorMicroTurbine_ELCD_orphan.idf"), true);
}
boost::optional<IdfObject> ForwardTranslator::translateGeneratorMicroTurbine(model::GeneratorMicroTurbine & modelObject)
{
IdfObject idfObject = createRegisterAndNameIdfObject(openstudio::IddObjectType::Generator_MicroTurbine, modelObject);
//get the GeneratorMicroTurbineHeatRecovery as an optional straight component, if exists cast it to optional GeneratorMicroTurbineHeatRecovery
// if cast is successful, get the object of class GeneratorMicroTurbineHeatRecovery
boost::optional<GeneratorMicroTurbineHeatRecovery> generatorOptionalMicroTurbineHeatRecovery = modelObject.generatorMicroTurbineHeatRecovery();
// If there is a Heat Recovery Object
if (generatorOptionalMicroTurbineHeatRecovery) {
// Get it
GeneratorMicroTurbineHeatRecovery generatorMCHPHX = *generatorOptionalMicroTurbineHeatRecovery;
// HeatRecoveryWaterInletNodeName
// Inlet Node Name
if ( auto temp = generatorMCHPHX.inletModelObject() )
{
auto s = temp->name();
if(s)
{
idfObject.setString(openstudio::Generator_MicroTurbineFields::HeatRecoveryWaterInletNodeName,*s);
}
}
//HeatRecoveryWaterOutletNodeName
if ( auto temp = generatorMCHPHX.outletModelObject() ) {
auto s = temp->name();
if (s) {
idfObject.setString(openstudio::Generator_MicroTurbineFields::HeatRecoveryWaterOutletNodeName, *s);
}
}
//ReferenceThermalEfficiencyUsingLowerHeatValue
{
auto value = generatorMCHPHX.referenceThermalEfficiencyUsingLowerHeatValue();
idfObject.setDouble(Generator_MicroTurbineFields::ReferenceThermalEfficiencyUsingLowerHeatValue, value);
}
//ReferenceInletWaterTemperature (double)
idfObject.setDouble(Generator_MicroTurbineFields::ReferenceInletWaterTemperature, generatorMCHPHX.referenceInletWaterTemperature());
//HeatRecoveryWaterFlowOperatingMode
{
auto value = generatorMCHPHX.heatRecoveryWaterFlowOperatingMode();
idfObject.setString(Generator_MicroTurbineFields::HeatRecoveryWaterFlowOperatingMode,value);
}
//ReferenceHeatRecoveryWaterFlowRate (double)
idfObject.setDouble(Generator_MicroTurbineFields::ReferenceHeatRecoveryWaterFlowRate, generatorMCHPHX.referenceHeatRecoveryWaterFlowRate());
//HeatRecoveryWaterFlowRateFunctionofTemperatureandPowerCurve
if( auto curve = generatorMCHPHX.heatRecoveryWaterFlowRateFunctionofTemperatureandPowerCurve() ) {
if( auto _curve = translateAndMapModelObject(curve.get()) ) {
idfObject.setString(Generator_MicroTurbineFields::HeatRecoveryWaterFlowRateFunctionofTemperatureandPowerCurveName,_curve->name().get());
}
}
//ThermalEfficiencyFunctionofTemperatureandElevationCurve
if( auto curve = generatorMCHPHX.thermalEfficiencyFunctionofTemperatureandElevationCurve() ) {
if( auto _curve = translateAndMapModelObject(curve.get()) ) {
idfObject.setString(Generator_MicroTurbineFields::ThermalEfficiencyFunctionofTemperatureandElevationCurveName,_curve->name().get());
}
}
//HeatRecoveryRateFunctionofPartLoadRatioCurve
if( auto curve = generatorMCHPHX.heatRecoveryRateFunctionofPartLoadRatioCurve() ) {
if( auto _curve = translateAndMapModelObject(curve.get()) ) {
idfObject.setString(Generator_MicroTurbineFields::HeatRecoveryRateFunctionofPartLoadRatioCurveName,_curve->name().get());
}
}
//HeatRecoveryRateFunctionofInletWaterTemperatureCurve
if( auto curve = generatorMCHPHX.heatRecoveryRateFunctionofInletWaterTemperatureCurve() ) {
if( auto _curve = translateAndMapModelObject(curve.get()) ) {
idfObject.setString(Generator_MicroTurbineFields::HeatRecoveryRateFunctionofInletWaterTemperatureCurveName,_curve->name().get());
}
}
//HeatRecoveryRateFunctionofWaterFlowRateCurve
if( auto curve = generatorMCHPHX.heatRecoveryRateFunctionofWaterFlowRateCurve() ) {
if( auto _curve = translateAndMapModelObject(curve.get()) ) {
idfObject.setString(Generator_MicroTurbineFields::HeatRecoveryRateFunctionofWaterFlowRateCurveName,_curve->name().get());
}
}
//MinimumHeatRecoveryWaterFlowRate
{
auto value = generatorMCHPHX.minimumHeatRecoveryWaterFlowRate();
idfObject.setDouble(Generator_MicroTurbineFields::MinimumHeatRecoveryWaterFlowRate,value);
}
//MaximumHeatRecoveryWaterFlowRate
{
auto value = generatorMCHPHX.maximumHeatRecoveryWaterFlowRate();
idfObject.setDouble(Generator_MicroTurbineFields::MaximumHeatRecoveryWaterFlowRate,value);
}
//MaximumHeatRecoveryWaterTemperature
if( auto value = generatorMCHPHX.maximumHeatRecoveryWaterTemperature() )
{
idfObject.setDouble(Generator_MicroTurbineFields::MaximumHeatRecoveryWaterTemperature,value.get());
}
}
/// Doubles, non optional
//ReferenceElectricalPowerOutput
idfObject.setDouble(Generator_MicroTurbineFields::ReferenceElectricalPowerOutput, modelObject.referenceElectricalPowerOutput());
//ReferenceElectricalEfficiencyUsingLowerHeatingValue
idfObject.setDouble(Generator_MicroTurbineFields::ReferenceElectricalEfficiencyUsingLowerHeatingValue, modelObject.referenceElectricalEfficiencyUsingLowerHeatingValue());
/// Doubles, optional
//MinimumFullLoadElectricalPowerOutput
{
auto value = modelObject.minimumFullLoadElectricalPowerOutput();
idfObject.setDouble(Generator_MicroTurbineFields::MinimumFullLoadElectricalPowerOutput,value);
}
//MaximumFullLoadElectricalPowerOutput
{
auto value = modelObject.maximumFullLoadElectricalPowerOutput();
idfObject.setDouble(Generator_MicroTurbineFields::MaximumFullLoadElectricalPowerOutput,value);
}
//ReferenceCombustionAirInletTemperature
{
auto value = modelObject.referenceCombustionAirInletTemperature();
idfObject.setDouble(Generator_MicroTurbineFields::ReferenceCombustionAirInletTemperature,value);
}
//ReferenceCombustionAirInletHumidityRatio
{
auto value = modelObject.referenceCombustionAirInletHumidityRatio();
idfObject.setDouble(Generator_MicroTurbineFields::ReferenceCombustionAirInletHumidityRatio,value);
}
//ReferenceElevation
{
auto value = modelObject.referenceElevation();
idfObject.setDouble(Generator_MicroTurbineFields::ReferenceElevation,value);
}
//FuelHigherHeatingValue
{
auto value = modelObject.fuelHigherHeatingValue();
idfObject.setDouble(Generator_MicroTurbineFields::FuelHigherHeatingValue,value);
}
//FuelLowerHeatingValue
{
auto value = modelObject.fuelLowerHeatingValue();
idfObject.setDouble(Generator_MicroTurbineFields::FuelLowerHeatingValue,value);
}
//StandbyPower
{
auto value = modelObject.standbyPower();
idfObject.setDouble(Generator_MicroTurbineFields::StandbyPower,value);
}
//AncillaryPower
{
auto value = modelObject.ancillaryPower();
idfObject.setDouble(Generator_MicroTurbineFields::AncillaryPower,value);
}
//ReferenceExhaustAirMassFlowRate
if( auto value = modelObject.referenceExhaustAirMassFlowRate() )
{
idfObject.setDouble(Generator_MicroTurbineFields::ReferenceExhaustAirMassFlowRate,value.get());
}
//NominalExhaustAirOutletTemperature
if( auto value = modelObject.nominalExhaustAirOutletTemperature() )
{
idfObject.setDouble(Generator_MicroTurbineFields::NominalExhaustAirOutletTemperature,value.get());
}
/// Choice
//FuelType
{
auto s = modelObject.fuelType();
idfObject.setString(Generator_MicroTurbineFields::FuelType,s);
}
/// Nodes
// Will leave blank to assume outside air conditions
//CombustionAirInletNodeName
idfObject.setString(Generator_MicroTurbineFields::CombustionAirInletNodeName,"");
//CombustionAirOutletNodeName
idfObject.setString(Generator_MicroTurbineFields::CombustionAirOutletNodeName,"");
/// Curves, Not Optional
//ElectricalPowerFunctionofTemperatureandElevationCurve
{
auto curve = modelObject.electricalPowerFunctionofTemperatureandElevationCurve();
if( auto _curve = translateAndMapModelObject(curve) ) {
idfObject.setString(Generator_MicroTurbineFields::ElectricalPowerFunctionofTemperatureandElevationCurveName, _curve->name().get());
}
}
//ElectricalEfficiencyFunctionofTemperatureCurve
{
auto curve = modelObject.electricalEfficiencyFunctionofTemperatureCurve();
if( auto _curve = translateAndMapModelObject(curve) ) {
idfObject.setString(Generator_MicroTurbineFields::ElectricalEfficiencyFunctionofTemperatureCurveName, _curve->name().get());
}
}
//ElectricalEfficiencyFunctionofPartLoadRatioCurve
{
auto curve = modelObject.electricalEfficiencyFunctionofPartLoadRatioCurve();
if( auto _curve = translateAndMapModelObject(curve) ) {
idfObject.setString(Generator_MicroTurbineFields::ElectricalEfficiencyFunctionofPartLoadRatioCurveName, _curve->name().get());
}
}
/// Curves, Optional
//AncillaryPowerFunctionofFuelInputCurve
if( auto curve = modelObject.ancillaryPowerFunctionofFuelInputCurve() ) {
if( auto _curve = translateAndMapModelObject(curve.get()) ) {
idfObject.setString(Generator_MicroTurbineFields::AncillaryPowerFunctionofFuelInputCurveName, _curve->name().get());
}
}
//ExhaustAirFlowRateFunctionofTemperatureCurve
if( auto curve = modelObject.exhaustAirFlowRateFunctionofTemperatureCurve() ) {
if( auto _curve = translateAndMapModelObject(curve.get()) ) {
idfObject.setString(Generator_MicroTurbineFields::ExhaustAirFlowRateFunctionofTemperatureCurveName, _curve->name().get());
}
}
//ExhaustAirFlowRateFunctionofPartLoadRatioCurve
if( auto curve = modelObject.exhaustAirFlowRateFunctionofPartLoadRatioCurve() ) {
if( auto _curve = translateAndMapModelObject(curve.get()) ) {
idfObject.setString(Generator_MicroTurbineFields::ExhaustAirFlowRateFunctionofPartLoadRatioCurveName,_curve->name().get());
}
}
//ExhaustAirTemperatureFunctionofTemperatureCurve
if( auto curve = modelObject.exhaustAirTemperatureFunctionofTemperatureCurve() ) {
if( auto _curve = translateAndMapModelObject(curve.get()) ) {
idfObject.setString(Generator_MicroTurbineFields::ExhaustAirTemperatureFunctionofTemperatureCurveName, _curve->name().get());
}
}
//ExhaustAirTemperatureFunctionofPartLoadRatioCurve
if( auto curve = modelObject.exhaustAirTemperatureFunctionofPartLoadRatioCurve() ) {
if( auto _curve = translateAndMapModelObject(curve.get()) ) {
idfObject.setString(Generator_MicroTurbineFields::ExhaustAirTemperatureFunctionofPartLoadRatioCurveName, _curve->name().get());
}
}
return idfObject;
}
/**
* Tests whether the ForwarTranslator will handle the name of the GeneratorMicroTurbine correctly in the PlantEquipmentOperationHeatingLoad
**/
TEST_F(EnergyPlusFixture,ForwardTranslatorGeneratorMicroTurbine_ELCD_PlantLoop)
{
// TODO: Temporarily output the Log in the console with the Trace (-3) level
// for debug
// openstudio::Logger::instance().standardOutLogger().enable();
// openstudio::Logger::instance().standardOutLogger().setLogLevel(Trace);
// Create a model, a mchp, a mchpHR, a plantLoop and an electricalLoadCenter
Model model;
GeneratorMicroTurbine mchp = GeneratorMicroTurbine(model);
GeneratorMicroTurbineHeatRecovery mchpHR = GeneratorMicroTurbineHeatRecovery(model, mchp);
ASSERT_EQ(mchpHR, mchp.generatorMicroTurbineHeatRecovery().get());
PlantLoop plantLoop(model);
// Add a supply branch for the mchpHR
ASSERT_TRUE(plantLoop.addSupplyBranchForComponent(mchpHR));
// Create a WaterHeater:Mixed
WaterHeaterMixed waterHeater(model);
// Add it on the same branch as the chpHR, right after it
Node mchpHROutletNode = mchpHR.outletModelObject()->cast<Node>();
ASSERT_TRUE(waterHeater.addToNode(mchpHROutletNode));
// Create a plantEquipmentOperationHeatingLoad
PlantEquipmentOperationHeatingLoad operation(model);
operation.setName(plantLoop.name().get() + " PlantEquipmentOperationHeatingLoad");
ASSERT_TRUE(plantLoop.setPlantEquipmentOperationHeatingLoad(operation));
ASSERT_TRUE(operation.addEquipment(mchpHR));
ASSERT_TRUE(operation.addEquipment(waterHeater));
// Create an ELCD
ElectricLoadCenterDistribution elcd = ElectricLoadCenterDistribution(model);
elcd.setName("Capstone C65 ELCD");
elcd.setElectricalBussType("AlternatingCurrent");
elcd.addGenerator(mchp);
// Forward Translates
ForwardTranslator forwardTranslator;
Workspace workspace = forwardTranslator.translateModel(model);
EXPECT_EQ(0u, forwardTranslator.errors().size());
ASSERT_EQ(1u, workspace.getObjectsByType(IddObjectType::WaterHeater_Mixed).size());
ASSERT_EQ(1u, workspace.getObjectsByType(IddObjectType::ElectricLoadCenter_Distribution).size());
// The MicroTurbine should have been forward translated since there is an ELCD
WorkspaceObjectVector microTurbineObjects(workspace.getObjectsByType(IddObjectType::Generator_MicroTurbine));
EXPECT_EQ(1u, microTurbineObjects.size());
// Check that the HR nodes have been set
WorkspaceObject idf_mchp(microTurbineObjects[0]);
EXPECT_EQ(mchpHR.inletModelObject()->name().get(), idf_mchp.getString(Generator_MicroTurbineFields::HeatRecoveryWaterInletNodeName).get());
EXPECT_EQ(mchpHR.outletModelObject()->name().get(), idf_mchp.getString(Generator_MicroTurbineFields::HeatRecoveryWaterOutletNodeName).get());
OptionalWorkspaceObject idf_operation(workspace.getObjectByTypeAndName(IddObjectType::PlantEquipmentOperation_HeatingLoad,*(operation.name())));
ASSERT_TRUE(idf_operation);
// Get the extensible
ASSERT_EQ(1u, idf_operation->numExtensibleGroups());
// IdfExtensibleGroup eg = idf_operation.getExtensibleGroup(0);
// idf_operation.targets[0]
ASSERT_EQ(1u, idf_operation->targets().size());
WorkspaceObject plantEquipmentList(idf_operation->targets()[0]);
ASSERT_EQ(2u, plantEquipmentList.extensibleGroups().size());
IdfExtensibleGroup eg(plantEquipmentList.extensibleGroups()[0]);
ASSERT_EQ("Generator:MicroTurbine", eg.getString(PlantEquipmentListExtensibleFields::EquipmentObjectType).get());
// This fails
EXPECT_EQ(mchp.name().get(), eg.getString(PlantEquipmentListExtensibleFields::EquipmentName).get());
IdfExtensibleGroup eg2(plantEquipmentList.extensibleGroups()[1]);
ASSERT_EQ("WaterHeater:Mixed", eg2.getString(PlantEquipmentListExtensibleFields::EquipmentObjectType).get());
EXPECT_EQ(waterHeater.name().get(), eg2.getString(PlantEquipmentListExtensibleFields::EquipmentName).get());
model.save(toPath("./ForwardTranslatorGeneratorMicroTurbine_ELCD_PlantLoop.osm"), true);
workspace.save(toPath("./ForwardTranslatorGeneratorMicroTurbine_ELCD_PlantLoop.idf"), true);
}