PHengLEI-NCCR/CFD/TurbSolver/include/TurbSolver.h

116 lines
4.0 KiB
C++

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// P P H H E NN N G L E I +
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// Platform for Hybrid Engineering Simulation of Flows +
// China Aerodynamics Research and Development Center +
// (C) Copyright, Since 2010 +
//+++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++
//! @file TurbSolver.h
//! @brief turbulence solver.
//! @author He Xin, Bell, He Kun, He Xianyao, Liu Jian, Zhang Zipei, Li peng,
//! Ma Yankai, Zhang Yang, Wan Yunbo, Xu Gang.
#pragma once
#include "CFDSolver.h"
#include "Param_TurbSolver.h"
namespace PHSPACE
{
class ActionKey;
void Turb_MxDQ(RDouble *mat,RDouble *dq,int n_turb,RDouble *df);
class TurbSolver : public CFDSolver
{
private:
public:
TurbSolver();
~TurbSolver();
public:
void Solve();
void Action(ActionKey *actkey);
void FillActionKey(ActionKey *actkey, int action, int level);
void Post();
void PostSolve(Grid *gridIn, int stage, int level = 0);
void DumpResultFile(Grid *grid, int level = 0);
void UpdateResiduals(Grid *gridIn);
virtual void ResetWallScalar(Grid *gridIn) {};
virtual void InviscidFlux (Grid *gridIn){};
virtual void ViscousFlux (Grid *gridIn){};
virtual void DualTimeSource(Grid *gridIn){};
virtual void ZeroResidualOfSpecialCells(Grid *gridIn){};
void SourceFlux(Grid *gridIn);
virtual void SourceFluxOneEquation(Grid *gridIn){};
virtual void SourceFluxOneEquation(Grid *gridIn,bool chantstyle){};
virtual void SourceFluxTwoEquation(Grid *gridIn){};
virtual void FreeGradientProxy(Grid *gridIn){};
virtual void Diagonal(Grid *gridIn){};
virtual void InitSpectrum(Grid *gridIn){};
void ComputeViscousCoeff(Grid *gridIn){};
virtual void InitCGrid(Grid *fineGrid, Grid *coarseGrid){};
string CastName(const string &name);
//! Get the file name for Residual dumping.
virtual const string GetResidualFileName();
//! Get the file name for Restart info dumping.
virtual const string GetRestartFileName();
int GetNumberOfEquations();
//! Compare the outnstep in the flowfield file between the NS and turbulence.
void CompareOutStepOfFlowfieldFile(int outnstepofNS, int outnstepofTurb) const;
//! Get control paramters.
LIB_EXPORT Param_TurbSolver *GetControlParameters();
private:
void RegisterCFDSolverInterfaceField();
//! Register the interpoint field in the turbulent solver.
void RegisterCFDSolverInterpointField();
void RegisterOversetField();
void DeAllocateOversetInterfaceVar(Data_ParamFieldSuite *dataStore);
void InitCoarseGridsFlow ();
//! Prepare overset interface data for communication.
void PrepareOversetInterfaceData(Data_ParamFieldSuite *datastore, InterfaceDataProxy *interfaceDataProxy);
void InitDependentVariables();
};
const int RANS = 0;
const int DES = 1;
const int DDES = 2;
const int IDDES = 3;
//! Return the modified positive preserved working variable, if the SA nue is negative.
//! @param[in] nueNegative the input original negative nue.
//! @param[in] viscousLaminar the input original laminar viscous.
//! @param[in] rho the input original density.
//! Allmaras S R, 2012.
inline RDouble PositiveSA(RDouble &nueNegative, RDouble &viscousLaminar, RDouble &rho)
{
if(nueNegative < 0.0)
{
RDouble xsi = nueNegative / (viscousLaminar / rho);
RDouble xsi3 = xsi * xsi * xsi;
return nueNegative * (16.0 + xsi3) / (16.0 - xsi3);
}
else
{
return nueNegative;
}
}
}