APETurbulenceSmagorinsky Class Reference

#include <APETurbulenceSmagorinsky.h>

Inherits APEuler.

Collaboration diagram for APETurbulenceSmagorinsky:

Public Member Functions
	APETurbulenceSmagorinsky ()
	APETurbulenceSmagorinsky (int &numberQPA, Eos **eos, tinyxml2::XMLElement *elementSmagorinsky, std::string fileName)
	APETurbulenceSmagorinsky constructor.
	~APETurbulenceSmagorinsky () override
void	addQuantityAddPhys (Cell *cell) override
	Add the quantities for the additional physics.
void	solveFluxAddPhys (CellInterface *cellInterface) override
	Solve the additional physics flux between two cells.
void	solveFluxAddPhysBoundary (CellInterface *cellInterface) override
	Solve the additional physics flux at a domain boundary.
void	solveFluxTurbulenceInner (CellInterface *cellInterface, const Coord &velocityLeft, const Coord &velocityRight, const Coord &gradULeft, const Coord &gradURight, const Coord &gradVLeft, const Coord &gradVRight, const Coord &gradWLeft, const Coord &gradWRight, const Coord &gradTLeft, const Coord &gradTRight, const double &gamma, const double &cv, const double &mu, const double &lambda, const double &rhoLeft, const double &rhoRight, const double &cellVolumeLeft, const Tensor &strainRateLeft, const Tensor &strainRateRight) const
	Solve the turbulence flux between two cells.
void	solveFluxTurbulenceNonReflecting (CellInterface *cellInterface, const Coord &velocityLeft, const Coord &gradULeft, const Coord &gradVLeft, const Coord &gradWLeft, const Coord &gradTLeft, const double &rhoLeft, const double &cellVolumeLeft, const Tensor &strainRateLeft) const
	Solve the turbulence flux at a boundary with a non-reflecting type.
void	solveFluxTurbulenceSymmetry (CellInterface *cellInterface, const Coord &gradULeft, const Coord &gradVLeft, const Coord &gradWLeft, const double &rhoLeft, const double &cellVolumeLeft, const Tensor &strainRateLeft, const double &mu) const
	Solve the turbulence flux at a boundary with a wall type in MRF case.
void	solveFluxTurbulenceOther () const
	Solve the turbulence flux at a boundary with non-defined type yet.
void	addNonCons (Cell *) override
	Add the non-conservative terms of the corresponding additional physics in a cell.
void	addSymmetricTermsRadialAxisOnX (Cell *) override
	Add the symmetrical terms of the corresponding additional physics in a cell (when radial axis is on X).
void	addSymmetricTermsRadialAxisOnY (Cell *) override
	Add the symmetrical terms of the corresponding additional physics in a cell (when radial axis is on Y).
void	communicationsAddPhys (const int &dim, const int &lvl) override
	Communication of the additional physics quantities for parallel purposes with Adaptive Mesh Refinement.
virtual void	computeTurbulenceParameters () const override
	Print the diagnostics for turbulence decay cases.
Public Member Functions inherited from APEuler
	APEuler ()
	~APEuler () override
Public Member Functions inherited from AddPhys
	AddPhys ()
virtual	~AddPhys ()
virtual std::string	whoAmI () const
virtual double	computeEnergyAddPhys (QuantitiesAddPhys *)
	Compute and send back mass energy linked to the physics (0 if no linked energy).
void	computeFluxAddPhys (CellInterface *cellInterface)
	Compute the additional physics flux between two cells.
void	computeFluxAddPhysBoundary (CellInterface *cellInterface)
	Compute the additional physics flux at a domain boundary.
void	addNonConsAddPhys (Cell *cell)
	Add the non-conservative terms of the additional physics in a cell.
virtual void	addFluxAddPhys (CellInterface *cellInterface, const double &coefAMR)
	Add the additional physics flux between two cells at the corresponding cell.
virtual void	subtractFluxAddPhys (CellInterface *cellInterface, const double &coefAMR)
	Subtract the additional physics flux between two cells at the corresponding cell.
virtual void	reinitializeColorFunction (std::vector< Cell * > *, const int &)
	Reinitialize the color function for the surface-tension terms with the volume fraction equation.
virtual bool	reinitializationActivated ()
	Send back true if the reinitialization of the color function is activated.
virtual const int &	getNumTransportAssociated () const
	Return the associated number of the transport equation (only used for surface tension).

Private Attributes
bool	m_Ducros
	Bool to turn on/off the Ducros flow sensor.
double	m_Cs
	Coefficient modelling the off-diagonal terms of the SGS stress tensor (nondimensional) (buffer).
double	m_Ci
	Coefficient modelling the trace of the SGS stress tensor (nondimensional) (buffer).
double	m_PrT
	Turbulent Prandtl number (nondimensional) (buffer).
double	m_cv
	Volume calorific energy (J/kg/K) (taken from the EOS class) (buffer).
double	m_gamma
	Polytropic constant (nondimensional) (taken from the EOS class) (buffer).
double	m_mu
	Dynamic viscosity (Pa.s) (molecular: taken from the EOS class) (buffer).
double	m_lambda
	Thermal conductivity (W/(m.K)) of phase (taken from the EOS class) (buffer).
int	m_numQPA
	Number of the associated variable for each cell (m_vecGrandeursAddPhys).
Coord	m_velocityLeft
	Left velocity vector for the flux computation (buffer).
Coord	m_gradULeft
	Left gradient of the velocity in the x-direction for the flux computation (buffer).
Coord	m_gradVLeft
	Left gradient of the velocity in the y-direction for the flux computation (buffer).
Coord	m_gradWLeft
	Left gradient of the velocity in the z-direction for the flux computation (buffer).
Tensor	m_tensorLeft
	Left tensor of the velocity gradients (buffer).
Coord	m_gradTLeft
	Left vector of the temperature gradients (buffer).
Coord	m_velocityRight
	Right velocity vector for the flux computation (buffer).
Coord	m_gradURight
	Right gradient of the velocity in the x-direction for the flux computation (buffer).
Coord	m_gradVRight
	Right gradient of the velocity in the y-direction for the flux computation (buffer).
Coord	m_gradWRight
	Right gradient of the velocity in the z-direction for the flux computation (buffer).
Tensor	m_tensorRight
	Right tensor of the velocity gradients (buffer).
Coord	m_gradTRight
	Right vector of the temperature gradients (buffer).
Coord	m_normal
	Normal vector of the corresponding face for the flux computation (buffer).
Coord	m_tangent
	Tangent vector of the corresponding face for the flux computation (buffer).
Coord	m_binormal
	Binormal vector of the corresponding face for the flux computation (buffer).

Constructor & Destructor Documentation

APETurbulenceSmagorinsky() [1/2]

APETurbulenceSmagorinsky::APETurbulenceSmagorinsky

(

)

APETurbulenceSmagorinsky() [2/2]

APETurbulenceSmagorinsky::APETurbulenceSmagorinsky	(	int &	numberQPA,
		Eos **	eos,
		tinyxml2::XMLElement *	elementSmagorinsky,
		std::string	fileName )

APETurbulenceSmagorinsky constructor.

Parameters

numberQPA	corresponding additional physic quantities number
eos	equation of state
elementSmagorinsky	XML element
fileName	string name of readed XML file

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~APETurbulenceSmagorinsky()

APETurbulenceSmagorinsky::~APETurbulenceSmagorinsky ( )

override

Member Function Documentation

addNonCons()

void APETurbulenceSmagorinsky::addNonCons ( Cell * )

inlineoverridevirtual

Add the non-conservative terms of the corresponding additional physics in a cell.

Parameters

cell

cell

Reimplemented from AddPhys.

addQuantityAddPhys()

void APETurbulenceSmagorinsky::addQuantityAddPhys ( Cell * )

overridevirtual

Add the quantities for the additional physics.

Parameters

cell	corresponding cell

Reimplemented from AddPhys.

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addSymmetricTermsRadialAxisOnX()

void APETurbulenceSmagorinsky::addSymmetricTermsRadialAxisOnX ( Cell * )

inlineoverridevirtual

Add the symmetrical terms of the corresponding additional physics in a cell (when radial axis is on X).

Parameters

cell

cell

Reimplemented from AddPhys.

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addSymmetricTermsRadialAxisOnY()

void APETurbulenceSmagorinsky::addSymmetricTermsRadialAxisOnY ( Cell * )

inlineoverridevirtual

Add the symmetrical terms of the corresponding additional physics in a cell (when radial axis is on Y).

Parameters

cell

cell

Reimplemented from AddPhys.

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communicationsAddPhys()

void APETurbulenceSmagorinsky::communicationsAddPhys ( const int & , const int &  )

overridevirtual

Communication of the additional physics quantities for parallel purposes with Adaptive Mesh Refinement.

Parameters

dim	dimension
lvl	level

Reimplemented from AddPhys.

computeTurbulenceParameters()

void APETurbulenceSmagorinsky::computeTurbulenceParameters ( ) const

overridevirtual

Print the diagnostics for turbulence decay cases.

Reimplemented from AddPhys.

solveFluxAddPhys()

void APETurbulenceSmagorinsky::solveFluxAddPhys ( CellInterface * )

overridevirtual

Solve the additional physics flux between two cells.

Parameters

cellInterface

cell interface

Reimplemented from AddPhys.

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solveFluxAddPhysBoundary()

void APETurbulenceSmagorinsky::solveFluxAddPhysBoundary ( CellInterface * )

overridevirtual

Solve the additional physics flux at a domain boundary.

Parameters

cellInterface

cell interface

Reimplemented from AddPhys.

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solveFluxTurbulenceInner()

void APETurbulenceSmagorinsky::solveFluxTurbulenceInner	(	CellInterface *	cellInterface,
		const Coord &	velocityLeft,
		const Coord &	velocityRight,
		const Coord &	gradULeft,
		const Coord &	gradURight,
		const Coord &	gradVLeft,
		const Coord &	gradVRight,
		const Coord &	gradWLeft,
		const Coord &	gradWRight,
		const Coord &	gradTLeft,
		const Coord &	gradTRight,
		const double &	gamma,
		const double &	cv,
		const double &	mu,
		const double &	lambda,
		const double &	rhoLeft,
		const double &	rhoRight,
		const double &	cellVolumeLeft,
		const Tensor &	strainRateLeft,
		const Tensor &	strainRateRight ) const

Solve the turbulence flux between two cells.

Parameters

velocityLeft	velocity of the left cell
velocityRight	velocity of the right cell
gradULeft	gradient of the velocity in the x-direction of the left cell
gradURight	gradient of the velocity in the x-direction of the right cell
gradVLeft	gradient of the velocity in the y-direction of the left cell
gradVRight	gradient of the velocity in the y-direction of the right cell
gradWLeft	gradient of the velocity in the z-direction of the left cell
gradWRight	gradient of the velocity in the z-direction of the right cell
gradTLeft	gradient of the temperature of the left cell
gradTRight	gradient of the temperature of the right cell
gamma	polytropic constant of the fluid
cv	volume calorific energy of the fluid
mu	dynamic molecular viscosity of the fluid
rhoLeft	density of the left cell
rhoRight	density of the right cell
cellVolumeLeft	volume of the left cell
strainRateLeft	strain rate tensor of the left cell
strainRateRight	strain rate tensor of the right cell

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solveFluxTurbulenceNonReflecting()

void APETurbulenceSmagorinsky::solveFluxTurbulenceNonReflecting	(	CellInterface *	cellInterface,
		const Coord &	velocityLeft,
		const Coord &	gradULeft,
		const Coord &	gradVLeft,
		const Coord &	gradWLeft,
		const Coord &	gradTLeft,
		const double &	rhoLeft,
		const double &	cellVolumeLeft,
		const Tensor &	strainRateLeft ) const

Solve the turbulence flux at a boundary with a non-reflecting type.

Parameters

velocityLeft	velocity of the left cell
gradULeft	gradient of the velocity in the x-direction of the left cell
gradVLeft	gradient of the velocity in the y-direction of the left cell
gradWLeft	gradient of the velocity in the z-direction of the left cell
gradTLeft	gradient of the temperature of the left cell
rhoLeft	density of the left cell
cellVolumeLeft	volume of the left cell
strainRateLeft	strain rate tensor of the left cell

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solveFluxTurbulenceOther()

void APETurbulenceSmagorinsky::solveFluxTurbulenceOther

(

)

const

Solve the turbulence flux at a boundary with non-defined type yet.

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solveFluxTurbulenceSymmetry()

void APETurbulenceSmagorinsky::solveFluxTurbulenceSymmetry	(	CellInterface *	cellInterface,
		const Coord &	gradULeft,
		const Coord &	gradVLeft,
		const Coord &	gradWLeft,
		const double &	rhoLeft,
		const double &	cellVolumeLeft,
		const Tensor &	strainRateLeft,
		const double &	mu ) const

Solve the turbulence flux at a boundary with a wall type in MRF case.

Parameters

velocityLeft	velocity of the left cell
densityLeft	density of the left cell
distLeft	distance between the center of the left cell and its corresponding edge
velocityWall	velocity of the wall in the Moving Reference Frame context (MRF)

Solve the turbulence flux at a boundary with a symmetry type

Parameters

gradULeft	gradient of the velocity in the x-direction of the left cell
gradVLeft	gradient of the velocity in the y-direction of the left cell
gradWLeft	gradient of the velocity in the z-direction of the left cell
rhoLeft	density of the left cell
cellVolumeLeft	volume of the left cell
strainRateLeft	strain rate tensor of the left cell
mu	dynamic molecular viscosity of the fluid

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Member Data Documentation

m_binormal

Coord APETurbulenceSmagorinsky::m_binormal

private

Binormal vector of the corresponding face for the flux computation (buffer).

m_Ci

double APETurbulenceSmagorinsky::m_Ci

private

Coefficient modelling the trace of the SGS stress tensor (nondimensional) (buffer).

m_Cs

double APETurbulenceSmagorinsky::m_Cs

private

Coefficient modelling the off-diagonal terms of the SGS stress tensor (nondimensional) (buffer).

m_cv

double APETurbulenceSmagorinsky::m_cv

private

Volume calorific energy (J/kg/K) (taken from the EOS class) (buffer).

m_Ducros

bool APETurbulenceSmagorinsky::m_Ducros

private

Bool to turn on/off the Ducros flow sensor.

m_gamma

double APETurbulenceSmagorinsky::m_gamma

private

Polytropic constant (nondimensional) (taken from the EOS class) (buffer).

m_gradTLeft

Coord APETurbulenceSmagorinsky::m_gradTLeft

private

Left vector of the temperature gradients (buffer).

m_gradTRight

Coord APETurbulenceSmagorinsky::m_gradTRight

private

Right vector of the temperature gradients (buffer).

m_gradULeft

Coord APETurbulenceSmagorinsky::m_gradULeft

private

Left gradient of the velocity in the x-direction for the flux computation (buffer).

m_gradURight

Coord APETurbulenceSmagorinsky::m_gradURight

private

Right gradient of the velocity in the x-direction for the flux computation (buffer).

m_gradVLeft

Coord APETurbulenceSmagorinsky::m_gradVLeft

private

Left gradient of the velocity in the y-direction for the flux computation (buffer).

m_gradVRight

Coord APETurbulenceSmagorinsky::m_gradVRight

private

Right gradient of the velocity in the y-direction for the flux computation (buffer).

m_gradWLeft

Coord APETurbulenceSmagorinsky::m_gradWLeft

private

Left gradient of the velocity in the z-direction for the flux computation (buffer).

m_gradWRight

Coord APETurbulenceSmagorinsky::m_gradWRight

private

Right gradient of the velocity in the z-direction for the flux computation (buffer).

m_lambda

double APETurbulenceSmagorinsky::m_lambda

private

Thermal conductivity (W/(m.K)) of phase (taken from the EOS class) (buffer).

m_mu

double APETurbulenceSmagorinsky::m_mu

private

Dynamic viscosity (Pa.s) (molecular: taken from the EOS class) (buffer).

m_normal

Coord APETurbulenceSmagorinsky::m_normal

private

Normal vector of the corresponding face for the flux computation (buffer).

m_numQPA

int APETurbulenceSmagorinsky::m_numQPA

private

Number of the associated variable for each cell (m_vecGrandeursAddPhys).

m_PrT

double APETurbulenceSmagorinsky::m_PrT

private

Turbulent Prandtl number (nondimensional) (buffer).

m_tangent

Coord APETurbulenceSmagorinsky::m_tangent

private

Tangent vector of the corresponding face for the flux computation (buffer).

m_tensorLeft

Tensor APETurbulenceSmagorinsky::m_tensorLeft

private

Left tensor of the velocity gradients (buffer).

m_tensorRight

Tensor APETurbulenceSmagorinsky::m_tensorRight

private

Right tensor of the velocity gradients (buffer).

m_velocityLeft

Coord APETurbulenceSmagorinsky::m_velocityLeft

private

Left velocity vector for the flux computation (buffer).

m_velocityRight

Coord APETurbulenceSmagorinsky::m_velocityRight

private

Right velocity vector for the flux computation (buffer).

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The documentation for this class was generated from the following files:

• /home/runner/work/ECOGEN/ECOGEN/doc_sources/src/AdditionalPhysics/Turbulence/APETurbulenceSmagorinsky.h
• /home/runner/work/ECOGEN/ECOGEN/doc_sources/src/AdditionalPhysics/Turbulence/APETurbulenceSmagorinsky.cpp