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CScalarFlux_TransLM< Double, FlowIndices, nDim, nVar > Class Template Reference

Convection and diffusion of the Langtry-Menter transition model, conservative with a diagonal, i/j-symmetric diffusion matrix. The coefficients depend only on the flow's mu/mu_t, not on the transported gamma/Re_theta, so no coefficientJacobians override is needed. More...

#include <trans_edge_flux.hpp>

Inheritance diagram for CScalarFlux_TransLM< Double, FlowIndices, nDim, nVar >:
[legend]

Public Types

using Base = CUpwScalarBase< Double, CScalarFlux_TransLM, FlowIndices, nDim, nVar >
 
using Int = typename Base::Int
 
using Base = CUpwScalarFlux< Double_, Derived, FlowIndices, nDim_, nVar_ >
 
- Public Types inherited from CUpwScalarBase< Double_, Derived, FlowIndices, nDim_, nVar_ >
using Double = Double_
 
using Int = typename CLaneTraits< Double_ >::Int
 

Public Member Functions

template<class VariableType >
CPair< Vector< Double, nVar > > coefficients (const FlowIndices &idx, Int iPoint, const EdgeSide< VariableType > &side_i, Int jPoint, const EdgeSide< VariableType > &side_j, const CPair< Double > &) const
 Diffusion coefficients, an i/j average of (mu+mu_t) for intermittency and of 2*(mu+mu_t) for the momentum-thickness Reynolds number; identical for both edge sides.
 
- Public Member Functions inherited from CUpwScalarBase< Double_, Derived, FlowIndices, nDim_, nVar_ >
 CUpwScalarBase (const CConfig &config, size_t nEqn_=nVar_)
 Constructor, inherited by the model with using Base::Base.
 
template<class VariableType >
EdgeResidual< Double, nVar > ComputeFlux (const ScalarFluxOptions &opt, Int iPoint, const EdgeSide< VariableType > &side_i, Int jPoint, const EdgeSide< VariableType > &side_j, const Vector< Double, nDim > &normal, const Double &massFlux) const
 
template<class VariableType >
void ComputeFlux (const ScalarFluxOptions &opt, Int iEdge, Int iPoint, const EdgeSide< VariableType > &side_i, Int jPoint, const EdgeSide< VariableType > &side_j, const Vector< Double, nDim > &normal, const Double &massFlux, UpdateType updateType, Double updateMask, CSysVector< su2double > &vector, CSysVector< su2double > &vectorDiff, SparseMatrixType &matrix) const
 Compute the flux of an edge and write it to the linear system.
 

Static Public Attributes

static constexpr bool Conservative = true
 
static constexpr bool DiagonalDiffusion = true
 
- Static Public Attributes inherited from CUpwScalarBase< Double_, Derived, FlowIndices, nDim_, nVar_ >
static constexpr int nDim = nDim_
 
static constexpr size_t nVar = nVar_
 
static constexpr size_t Size = EdgeResidual<Double_, nVar_>::Size
 Backing size, for the model to size the containers its coefficients() returns; nVar itself is Dynamic for a runtime model and never usable as a container size.
 
static constexpr bool DiffusionReadsDensity = false
 Whether the model's diffusion coefficients read the density, beyond the reading that Conservative already implies. A model that declares neither never gathers it.
 

Additional Inherited Members

- Protected Types inherited from CUpwScalarBase< Double_, Derived, FlowIndices, nDim_, nVar_ >
using Base = CUpwScalarFlux< Double_, Derived, FlowIndices, nDim_, nVar_ >
 
- Protected Types inherited from CUpwScalarFlux< Double_, Derived, FlowIndices, nDim_, nVar_ >
using Int = typename CLaneTraits< Double_ >::Int
 
- Protected Types inherited from CAvgGradScalarBase< Double, Derived, FlowIndices, nDim, nVar >
using Int = typename CLaneTraits< Double >::Int
 
- Protected Member Functions inherited from CUpwScalarFlux< Double_, Derived, FlowIndices, nDim_, nVar_ >
 CUpwScalarFlux (const CConfig &)
 
void finalizeFlux (const FlowIndices &, const ScalarFluxOptions &opt, Int, const EdgeSide< VariableType > &, Int, const EdgeSide< VariableType > &, const Double_ &a0, const Double_ &a1, const CPair< Double_ > &rho, const CPair< CScalarValues< Double_, Size > > &phi, EdgeResidual< Double_, nVar > &res) const
 Upwind convection of the transported variable, weighted by the density for a conservative model.
 
- Protected Member Functions inherited from CAvgGradScalarBase< Double, Derived, FlowIndices, nDim, nVar >
template<class VariableType >
void diffusionTerms (const FlowIndices &idx, const ScalarFluxOptions &opt, Int iPoint, const EdgeSide< VariableType > &side_i, Int jPoint, const EdgeSide< VariableType > &side_j, const CPair< Double > &rho, const Vector< Double, nDim > &normal, const Vector< Double, nDim > &vector_ij, EdgeResidual< Double, nVar > &res) const
 
template<class... Ts>
void coefficientJacobians (Ts &&...) const
 Contribution of the derivatives of the coefficients themselves.
 
template<class... Ts>
void extraDiffusionTerms (Ts &&...) const
 Diffusion of a model that transports more than one gradient, of states it synthesises from its own containers.
 
- Protected Attributes inherited from CUpwScalarBase< Double_, Derived, FlowIndices, nDim_, nVar_ >
const FlowIndices idx
 
const size_t nEqn
 Equations of the model, which a dynamic one gives to its base.
 
const su2double kappa
 MUSCL reconstruction parameters, read from CConfig once per construction (i.e. once per nonlinear iteration, see CScalarSolver::EdgeFluxResidual) instead of per edge; this is also where the scalar limiter's freezing (GetLimiterIter) is resolved, by collapsing its type to NONE once frozen. The flow limiter is not frozen this way: once the flow solver stops recomputing it, it keeps applying the last values it has.
 
const su2double umusclRamp
 
const su2double kappaFlow
 
const LIMITER limiterType
 
const LIMITER limiterTypeFlow
 
const bool musclFlow
 

Detailed Description

template<class Double, class FlowIndices, int nDim, size_t nVar = 2>
class CScalarFlux_TransLM< Double, FlowIndices, nDim, nVar >

Convection and diffusion of the Langtry-Menter transition model, conservative with a diagonal, i/j-symmetric diffusion matrix. The coefficients depend only on the flow's mu/mu_t, not on the transported gamma/Re_theta, so no coefficientJacobians override is needed.

Note
LM writes no finalizeFlux of its own: the inherited CUpwScalarFlux one is exactly flux(iVar) = a0*rho_i*phi_i(iVar) + a1*rho_j*phi_j(iVar), Conservative weighting by density, which is the model's whole convective term.

Member Typedef Documentation

◆ Base [1/2]

template<class Double , class FlowIndices , int nDim, size_t nVar = 2>
using CScalarFlux_TransLM< Double, FlowIndices, nDim, nVar >::Base = CUpwScalarBase<Double, CScalarFlux_TransLM, FlowIndices, nDim, nVar>

◆ Base [2/2]

template<class Double , class FlowIndices , int nDim, size_t nVar = 2>
using CUpwScalarBase< Double_, Derived, FlowIndices, nDim_, nVar_ >::Base = CUpwScalarFlux<Double_, Derived, FlowIndices, nDim_, nVar_>

◆ Int

template<class Double , class FlowIndices , int nDim, size_t nVar = 2>
using CScalarFlux_TransLM< Double, FlowIndices, nDim, nVar >::Int = typename Base::Int

Member Function Documentation

◆ coefficients()

template<class Double , class FlowIndices , int nDim, size_t nVar = 2>
template<class VariableType >
CPair< Vector< Double, nVar > > CScalarFlux_TransLM< Double, FlowIndices, nDim, nVar >::coefficients ( const FlowIndices &  idx,
Int  iPoint,
const EdgeSide< VariableType > &  side_i,
Int  jPoint,
const EdgeSide< VariableType > &  side_j,
const CPair< Double > &   
) const
inline

Diffusion coefficients, an i/j average of (mu+mu_t) for intermittency and of 2*(mu+mu_t) for the momentum-thickness Reynolds number; identical for both edge sides.

Member Data Documentation

◆ Conservative

template<class Double , class FlowIndices , int nDim, size_t nVar = 2>
constexpr bool CScalarFlux_TransLM< Double, FlowIndices, nDim, nVar >::Conservative = true
staticconstexpr

◆ DiagonalDiffusion

template<class Double , class FlowIndices , int nDim, size_t nVar = 2>
constexpr bool CScalarFlux_TransLM< Double, FlowIndices, nDim, nVar >::DiagonalDiffusion = true
staticconstexpr

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