Uses of Interface
org.episteme.core.measure.quantity.AmountOfSubstance
Packages that use AmountOfSubstance
Package
Description
Implements a comprehensive units framework enabling type-safe
Defines interfaces for physical quantities, organized by
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Uses of AmountOfSubstance in org.episteme.core.measure
Fields in org.episteme.core.measure with type parameters of type AmountOfSubstanceModifier and TypeFieldDescriptionstatic final Unit<AmountOfSubstance> Units.MOLEThe SI unit of amount of substance: mole (mol). -
Uses of AmountOfSubstance in org.episteme.core.measure.quantity
Subinterfaces with type arguments of type AmountOfSubstance in org.episteme.core.measure.quantity -
Uses of AmountOfSubstance in org.episteme.core.measure.units
Fields in org.episteme.core.measure.units with type parameters of type AmountOfSubstance -
Uses of AmountOfSubstance in org.episteme.natural.chemistry
Methods in org.episteme.natural.chemistry that return types with arguments of type AmountOfSubstanceModifier and TypeMethodDescriptionChemicalReaction.stoichiometry(String reactant, Quantity<AmountOfSubstance> molesReactant, String product) Calculate moles of product given moles of a limiting reactant.Method parameters in org.episteme.natural.chemistry with type arguments of type AmountOfSubstanceModifier and TypeMethodDescriptionChemicalReaction.stoichiometry(String reactant, Quantity<AmountOfSubstance> molesReactant, String product) Calculate moles of product given moles of a limiting reactant. -
Uses of AmountOfSubstance in org.episteme.natural.physics.classical.thermodynamics
Method parameters in org.episteme.natural.physics.classical.thermodynamics with type arguments of type AmountOfSubstanceModifier and TypeMethodDescriptionstatic RealThermodynamics.entropyChange(Quantity<AmountOfSubstance> n, Real Cv, Quantity<Temperature> T1, Quantity<Temperature> T2, Quantity<Volume> V1, Quantity<Volume> V2) Entropy change for ideal gasThermodynamics.idealGasPressure(Quantity<AmountOfSubstance> n, Quantity<Temperature> T, Quantity<Volume> V) Ideal gas law: PV = nRTThermodynamics.internalEnergyChange(Quantity<AmountOfSubstance> n, Real Cv, Quantity<Temperature> deltaT) Internal energy change: ÃŽâ€ÂÂU = nCvÃŽâ€ÂÂT