NavierStokesAssFE_decl.hpp

#ifndef NAVIERSTOKESASSFE_decl_hpp
#define NAVIERSTOKESASSFE_decl_hpp
#include "feddlib/problems/abstract/NonLinearProblem.hpp"
#include <Thyra_ProductVectorBase.hpp>
#include <Thyra_PreconditionerBase.hpp>
#include <Thyra_ModelEvaluatorBase_decl.hpp>
 
namespace FEDD{

 
template <class SC = default_sc, class LO = default_lo, class GO = default_go, class NO = default_no>
class NavierStokesAssFE : public NonLinearProblem<SC,LO,GO,NO>  {
 
public:

    typedef Problem<SC,LO,GO,NO> Problem_Type;
    typedef typename Problem_Type::Matrix_Type Matrix_Type;
    typedef typename Problem_Type::MatrixPtr_Type MatrixPtr_Type;
 
    typedef typename Problem_Type::MapConstPtr_Type MapConstPtr_Type;
 
    typedef typename Problem_Type::BlockMatrix_Type BlockMatrix_Type;
    typedef typename Problem_Type::BlockMatrixPtr_Type BlockMatrixPtr_Type;
 
    typedef typename Problem_Type::MultiVector_Type MultiVector_Type;
    typedef typename Problem_Type::MultiVectorPtr_Type MultiVectorPtr_Type;
    typedef typename Problem_Type::MultiVectorConstPtr_Type MultiVectorConstPtr_Type;
    typedef typename Problem_Type::BlockMultiVector_Type BlockMultiVector_Type;
    typedef typename Problem_Type::BlockMultiVectorPtr_Type BlockMultiVectorPtr_Type;
 
    typedef typename Problem_Type::DomainConstPtr_Type DomainConstPtr_Type;
    typedef typename Problem_Type::CommConstPtr_Type CommConstPtr_Type;
 
    typedef NonLinearProblem<SC,LO,GO,NO> NonLinearProblem_Type;
    typedef typename NonLinearProblem_Type::BlockMultiVectorPtrArray_Type BlockMultiVectorPtrArray_Type;
 
    typedef typename NonLinearProblem_Type::TpetraMatrix_Type TpetraMatrix_Type;
 
    typedef typename NonLinearProblem_Type::ThyraVecSpace_Type ThyraVecSpace_Type;
    typedef typename NonLinearProblem_Type::ThyraVec_Type ThyraVec_Type;
    typedef typename NonLinearProblem_Type::ThyraOp_Type ThyraOp_Type;
    typedef Thyra::BlockedLinearOpBase<SC> ThyraBlockOp_Type;
 
    typedef typename NonLinearProblem_Type::TpetraOp_Type TpetraOp_Type;


    NavierStokesAssFE( const DomainConstPtr_Type &domainVelocity, std::string FETypeVelocity, const DomainConstPtr_Type &domainPressure, std::string FETypePressure, ParameterListPtr_Type parameterList );
 
    virtual void info();
 
    virtual void assemble( std::string type = "" ) const;
    
    void assembleConstantMatrices() const;
    
    void assembleDivAndStab() const;
    
    void reAssemble( std::string type ) const;
    
    virtual void reAssemble( BlockMultiVectorPtr_Type previousSolution ) const{}
    
    //void reAssembleFSI(std::string type, MultiVectorPtr_Type u_minus_w, MatrixPtr_Type P) const;
    
    virtual void reAssemble(MatrixPtr_Type& massmatrix, std::string type ) const;
 
    virtual void reAssembleExtrapolation(BlockMultiVectorPtrArray_Type previousSolutions);
 
    virtual void calculateNonLinResidualVec(std::string type="standard", double time=0.) const; //standard or reverse
    
    void calculateNonLinResidualVecWithMeshVelo(std::string type, double time, MultiVectorPtr_Type u_minus_w, MatrixPtr_Type P) const;
//    virtual int ComputeDragLift(vec_dbl_ptr_Type &values);
 
    virtual void getValuesOfInterest( vec_dbl_Type& values ){}
    
    virtual void computeValuesOfInterestAndExport() {}
 
//    virtual void assembleExternal( std::string type ){}
    /*####################*/
 
    void computeSteadyPostprocessingViscosity_Solution(); // Compute the viscosity based on the current velocity solution and save it inside viscosity_element_
 
 
    mutable MatrixPtr_Type  A_;
    vec_int_ptr_Type pressureIDsLoc;
    MultiVectorPtr_Type u_rep_;
    MultiVectorPtr_Type p_rep_;
 
    MultiVectorPtr_Type viscosity_element_; //In case of a generalized-Newtonian fluid one can compute viscosity for visualization
 
public:
 
private:
 
 
 
};
}
#endif