SS.Thermodynamics 1.2.0

export function capacity(kg mass, specificHeatCapacity specificHeat) -> heatCapacity

export function diffusivity(ThermalMaterial material) -> thermalDiffusivity

export function entropyAndExergyChange(ThermodynamicState initialState, ThermodynamicState finalState, double mass, double[] heatTransfers, double[] boundaryTemperatures, double ambientTemperature)->EntropyExergyChangeResult

export record EntropyExergyChangeResult(public double entropyChange, public double entropyTransfer, public double entropyGeneration, public double flowExergyChange, public double ambientTemperature, public bool secondLawConsistent, public string diagnostic)

export function idealGas(string name, double gasConstant, double specificHeatPressure, double referencePressure, double referenceTemperature, string provenance)->IdealGas

export record IdealGas(public string name, public double gasConstant, public double specificHeatPressure, public double specificHeatVolume, public double heatCapacityRatio, public double referencePressure, public double referenceTemperature, public string provenance)

export function idealGasProcess(IdealGas gas, ThermodynamicState initialState, ThermodynamicState finalState, string kind, double mass, double tolerance)->ThermodynamicProcess

export function idealGasStatePT(IdealGas gas, double pressure, double temperature)->ThermodynamicState

export function material(string name, density density, specificHeatCapacity specificHeat, thermalConductivity conductivity) -> ThermalMaterial

export function mixtureSpecificHeat(kg[] masses, specificHeatCapacity[] specificHeats) -> specificHeatCapacity

export function mixtureThermodynamicState(IdealGas[] components, double[] fractions, double pressure, double temperature, string equationOfState, string provenance)->MixtureThermodynamicStateResult

export record MixtureThermodynamicStateResult(public string[] components, public double[] fractions, public double gasConstant, public double specificHeatPressure, public double specificHeatVolume, public double heatCapacityRatio, public ThermodynamicState state, public string equationOfState, public string provenance)

export record RankineCycle(public double condenserPressure, public double boilerPressure, public double pumpWork, public double turbineWork, public double netWork, public double heatInput, public double heatRejected, public double efficiency, public double isentropicExhaustQuality, public double exhaustQuality, public double turbineEntropyGeneration, public double energyResidual, public bool valid, public string diagnostic, public string provenance)

export function saturatedAtPressure(SaturationTable table, double pressure, double quality)->SaturationState

export record SaturationState(public double pressure, public double temperature, public double quality, public double specificVolume, public double enthalpy, public double entropy, public string phase, public string provenance)

export function saturationTable(double[] pressures, double[] temperatures, double[] liquidEnthalpies, double[] vaporEnthalpies, double[] liquidEntropies, double[] vaporEntropies, double[] liquidSpecificVolumes, double[] vaporSpecificVolumes, string substance, string provenance)->SaturationTable

export record SaturationTable(public double[] pressures, public double[] temperatures, public double[] liquidEnthalpies, public double[] vaporEnthalpies, public double[] liquidEntropies, public double[] vaporEntropies, public double[] liquidSpecificVolumes, public double[] vaporSpecificVolumes, public int count, public string substance, public string provenance)

export function sensibleEnergy(kg mass, specificHeatCapacity specificHeat, deltaK temperatureChange) -> J

export function simpleRankineCycle(SaturationTable table, double condenserPressure, double boilerPressure, double boilerOutletEnthalpy, double boilerOutletEntropy, double pumpEfficiency, double turbineEfficiency)->RankineCycle

export record ThermalMaterial(public string name, public density density, public specificHeatCapacity specificHeat, public thermalConductivity conductivity)

export function thermodynamicCycleState(ThermodynamicState[] states, double[] heatByLeg, double[] workByLeg, double[] entropyGenerationByLeg, double tolerance)->ThermodynamicCycleStateResult

export record ThermodynamicCycleStateResult(public double netHeat, public double netWork, public double energyResidual, public double entropyGeneration, public int states, public bool closed, public bool phaseCompatible, public bool valid, public string diagnostic)

export record ThermodynamicProcess(public string kind, public double mass, public double work, public double heat, public double internalEnergyChange, public double enthalpyChange, public double entropyChange, public double entropyGeneration, public double firstLawResidual, public bool valid, public string diagnostic)

export record ThermodynamicState(public double pressure, public double temperature, public double density, public double specificVolume, public double internalEnergy, public double enthalpy, public double entropy, public string phase, public string provenance)

export function vaporLiquidFlash(double[] feedFractions, double[] equilibriumRatios, double tolerance, int maximumIterations)->VaporLiquidFlashResult

export record VaporLiquidFlashResult(public double vaporFraction, public double[] liquidFractions, public double[] vaporFractions, public double materialBalanceResidual, public int iterations, public string phase, public bool converged, public string diagnostic)