MineralPhase Class Reference
Class that defines a mineral phase. More...
#include <MineralPhase.hpp>
Inheritance diagram for MineralPhase:
Collaboration diagram for MineralPhase:
Public Member Functions | |
MineralPhase () | |
Construct a default MineralPhase instance. | |
MineralPhase (const MineralMixture &mixture) | |
Construct a MineralPhase instance with a given mineral mixture. | |
MineralPhase (const MineralSpecies &species) | |
Construct a MineralPhase instance with given species. | |
auto | setChemicalModelIdeal () -> MineralPhase & |
Set the chemical model of the phase with the ideal solution model. | |
auto | setChemicalModelRedlichKister (double a0, double a1, double a2) -> MineralPhase & |
Set the chemical model of the phase with the Redlich-Kister solid solution binary model. More... | |
auto | mixture () const -> const MineralMixture & |
Return the MineralMixture instance. | |
Public Member Functions inherited from Phase | |
Phase () | |
Construct a default Phase instance. | |
Phase (std::string name, PhaseType type) | |
Construct a Phase instance with given fluid name and PhaseType. | |
auto | setName (std::string name) -> void |
Set the name of the phase. | |
auto | setType (PhaseType type) -> void |
Set the type of the phase. | |
auto | setSpecies (const std::vector< Species > &species) -> void |
Set the species of the phase. | |
auto | setThermoModel (const PhaseThermoModel &model) -> void |
Set the function that calculates the standard thermodynamic properties of the phase. | |
auto | setChemicalModel (const PhaseChemicalModel &model) -> void |
Set the function that calculates the chemical properties of the phase. | |
auto | numElements () const -> unsigned |
Return the number of elements in the phase. | |
auto | numSpecies () const -> unsigned |
Return the number of species in the phase. | |
auto | name () const -> std::string |
Return the name of the phase. | |
auto | type () const -> PhaseType |
Return the type of the phase. | |
auto | elements () const -> const std::vector< Element > & |
Return the elements of the phase. | |
auto | elements () -> std::vector< Element > & |
Return the elements of the phase. | |
auto | species () const -> const std::vector< Species > & |
Return the species of the phase. | |
auto | species () -> std::vector< Species > & |
Return the species of the phase. | |
auto | species (Index index) const -> const Species & |
Return the species of the phase with a given index. | |
auto | isFluid () const -> bool |
Return true if the state of matter of the phase is fluid, i.e., liquid, gas, or plasma. | |
auto | isSolid () const -> bool |
Return true if the phase type is solid. | |
auto | thermoModel () const -> const PhaseThermoModel & |
Return the thermodynamic model function of the phase. More... | |
auto | chemicalModel () const -> const PhaseChemicalModel & |
Return the chemical model function of the phase. More... | |
auto | indexSpecies (std::string name) const -> Index |
Return the index of a species in the phase. More... | |
auto | indexSpeciesWithError (std::string name) const -> Index |
Return the index of a species in the system. More... | |
auto | indexSpeciesAny (const std::vector< std::string > &names) const -> Index |
Return the index of the first species in the phase with any of the given names. More... | |
auto | indexSpeciesAnyWithError (const std::vector< std::string > &names) const -> Index |
Return the index of the first species in the phase with any of the given names. More... | |
auto | properties (PhaseThermoModelResult &res, double T, double P) const -> void |
Calculate the standard thermodynamic properties of the species in the phase. More... | |
auto | properties (PhaseChemicalModelResult &res, double T, double P, VectorConstRef n) const -> void |
Calculate the thermodynamic and chemical properties of the chemical system. More... | |
Detailed Description
Class that defines a mineral phase.
Member Function Documentation
◆ setChemicalModelRedlichKister()
auto setChemicalModelRedlichKister | ( | double | a0, |
double | a1, | ||
double | a2 | ||
) | -> MineralPhase& |
Set the chemical model of the phase with the Redlich-Kister solid solution binary model.
The Redlich-Kister model calculates the activity coefficient of the end-members in a solid solution using the equations:
\[\ln\gamma_{1}=x_{2}^{2}[a_{0}+a_{1}(3x_{1}-x_{2})+a_{2}(x_{1}-x_{2})(5x_{1}-x_{2})]\]
and
\[\ln\gamma_{2}=x_{1}^{2}[a_{0}-a_{1}(3x_{2}-x_{1})+a_{2}(x_{2}-x_{1})(5x_{2}-x_{1})].\]
The parameters \(a_0\), \(a_1\), and \(a_2\) must be provided. Set them to zero if not needed.
- Parameters
-
a0 The Redlich-Kister parameter a0 a1 The Redlich-Kister parameter a1 a2 The Redlich-Kister parameter a2
The documentation for this class was generated from the following files:
- Reaktoro/Thermodynamics/Phases/MineralPhase.hpp
- Reaktoro/Thermodynamics/Phases/MineralPhase.cpp