Foam | |
fvsc | |
fvscStencil | This is a method for calculation the differential operators without tangential derivatives. They are further used in the calculation of the QGD terms |
GaussVolPointBase | |
GaussVolPointBase1D | |
GaussVolPointBase2D | |
GaussVolPointBase3D | |
GaussVolPoint | |
GaussVolPoint1D | This is a method for approximating derivatives of tangents to a face (1D case). They are further used in the calculation of the QGD terms |
GaussVolPoint2D | This is a method for approximating derivatives of tangents to a face (2D case). They are further used in the calculation of the QGD terms |
GaussVolPoint3D | This is a method for approximating derivatives of tangents to a face (3D case). They are further used in the calculation of the QGD terms |
GaussVolPointBase | This is a method for approximating derivatives of tangents to a face. They are further used in the calculation of the QGD terms |
GaussVolPointBase1D | |
GaussVolPointBase2D | |
GaussVolPointBase3D | |
GaussVolPointStencil | Methods calculation of differential operators without tangential derivatives |
leastSquaresBase | |
leastSquares | |
extendedFaceStencilCalculateWeights | Base methods for calculating weights |
extendedFaceStencilFindNeighbours | Base methods for finding neighbours |
extendedFaceStencilScalarGrad | |
leastSquaresBase | Base methods for calculating weights and finding neighbours |
leastSquaresStencil | Realisation least squares method for calculationg of differential operators |
leastSquaresOpt | |
extendedFaceStencilFormVfValues | Function for filling of array which contain which will contain the cells necessary for use by several processors. Source file extendedFaceStencilScalarDer.C extendedFaceStencilScalarGradOpt.C leastSquaresStencilOpt.C |
extendedFaceStencilScalarDer | Methods for optimal calculating of directional derivative. With parallel realisation |
extendedFaceStencilScalarGradOpt | Methods for optimal calculating of directional derivative. With parallel realisation |
leastSquaresStencilOpt | Methods for optimal calculating of directional derivative. With parallel realisation |
reduced | |
reducedFaceNormalStencil | Methods calculating of differential operators without tangential direvatives |
qgd | |
constScPrModel1 | Class describing QGD model coefficients using constant values for Sc^{QGD}, Pr^{QGD} and specified field: |
constScPrModel1n | Class describing QGD model coefficients using constant values for Sc^{QGD}, Pr^{QGD} and specified field: |
constScPrModel2 | Class describing QGD model coefficients using constant values for Sc^{QGD}, Pr^{QGD} and specified field: |
constTau | Class for case constant and uniform distribution |
H2bynuQHD | Class for one of possible ways of tau calculating |
HbyUQHD | Class for one of possible ways of $$ calculating. in this case $$ parameter is calculating by |
QGDCoeffs | Base class for all classes describing QGD model coefficients. Provides interfaces for accessing QGD/QHD models coefficients ^{QGD}, ^{QGD}, ^{QGD}, ^{QGD}, h^{QGD} |
T0byGr | Class for to calculate $$ as inverse proportional of Grashoff number. in this case $$ parameter is calculated by |
varScModel5 | Class describing QGD model coefficients using dynamic values for Sc^{QGD}, Pr^{QGD} and specified field: |
varScModel6 | Class describing QGD model coefficients using dynamic values for Sc^{QGD}, Pr^{QGD} and specified field: |
varScModel7 | Class describing QGD model coefficients using dynamic values for Sc^{QGD}, Pr^{QGD} and specified field: |
twoPhaseConstTau | |
psiQGDThermo | Possible thermo properties for thermo model |
cosVelocityFvPatchVectorField | This boundary condition sets the pressure gradient to the provided value such that the flux on the boundary is that specified by the velocity boundary condition |
qgdFluxFvPatchScalarField | This boundary condition sets the pressure gradient to the provided value such that the flux on the boundary is that specified by the velocity boundary condition |
qhdFluxFvPatchScalarField | This boundary condition sets the pressure gradient to the provided value such that the flux on the boundary is that specified by the velocity boundary condition |
powerLawTransport | Constant properties Transport package. Templated into a given thermodynamics package (needed for thermal conductivity) |
psiQGDReactionThermo | Foam::psiQGDReactionThermo |
hePsiQGDThermo | Energy for a perfect gas mixture with QGD equations |
psiQGDThermo | Class describing thermophysical properties of perfect gas with motion governed by Quasi- Gas dynamics equations |
QGDThermo | Abstract base class for classes implementing thermophysical properties of gases and fluids governed by regularized equations (QGD & QHD) |
heRhoQGDThermo | |
rhoQGDThermo | Basic thermodynamic properties based on density |
mQhdFluxFvPatchScalarField | This boundary condition sets the pressure gradient to the provided value such that the flux on the boundary is that specified by the velocity boundary condition |
qInterfaceProperties | Contains the interface properties |
constTwoPhaseProperties | |
twoPhaseIcoQGDThermo | Thermodynamics and mechanics class for incompressible two-phase mixture of immiscible components |
fvsc | Methods calculating of differential operators |
heRhoThermo | Energy for a mixture based on density |
twoPhaseConstTau | Class for one of possible ways of tau calculating |