Eval_Conv_VDF_Elem_leaves.h

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#ifndef Eval_Conv_VDF_Elem_leaves_included
#define Eval_Conv_VDF_Elem_leaves_included
 
#include <Eval_Conv_VDF_Elem.h>
#include <Eval_Conv_VDF.h>
 
/// \cond DO_NOT_DOCUMENT
class Eval_Conv_VDF_Elem_leaves: public Eval_Conv_VDF_Elem<Eval_Conv_VDF_Elem_leaves>,
  public Eval_Conv_VDF {};
/// \endcond
 
/*
 * NOTA BENE : (pour tous les evals)
 * Les evaluateurs de flux convectifs calculent en fait le terme convectif qui figure au second
 * membre de l'equation d'evolution c.a.d l'oppose du flux convectif pour l'EXPLICITE.
 *
 * Dans le cas de la methode IMPLICITE les evaluateurs calculent la quantite qui figure dans le
 * premier membre de l'equation, nous ne prenons pas par consequent l'oppose en ce qui concerne
 * les termes pour la matrice, par contre pour le second membre nous procedons comme en explicite
 * mais en ne fesant intervenir que les valeurs fournies par les conditions limites.
 */
 
/*! @brief class Eval_Amont_VDF_Elem Evaluateur VDF pour la convection Le champ convecte est scalaire (Champ_P0_VDF)
 *
 *  Schema de convection Amont
 *
 */
class Eval_Amont_VDF_Elem : public Eval_Conv_VDF_Elem<Eval_Amont_VDF_Elem>, public Eval_Conv_VDF
{
public:
  static constexpr bool IS_AMONT = true;
};
 
/*! @brief class Eval_Centre_VDF_Elem Evaluateur VDF pour la convection Le champ convecte est scalaire (Champ_P0_VDF)
 *
 *  Schema de convection Centre ordre 2
 *
 */
class Eval_Centre_VDF_Elem : public Eval_Conv_VDF_Elem<Eval_Centre_VDF_Elem>, public Eval_Conv_VDF
{
public:
  static constexpr bool IS_CENTRE = true;
  inline int amont_amont(int face, int i) const override { return le_dom->amont_amont(face, i); }
  inline double dim_elem(int n1, int k) const override { return le_dom->dim_elem(n1,k); }
  inline double dist_elem(int n1, int n2, int k) const override { return le_dom->dist_elem(n1,n2,k); }
  inline double dist_face_elem1(int num_face,int n1) const { return le_dom->dist_face_elem1(num_face, n1); }
 
  template <typename Type_Double>
  inline void qcentre(const double psc, const int num0, const int num1, const int num0_0, const int num1_1,const int face,const DoubleTab& transporte, Type_Double& flux) const
  { qcentre2_impl<Type_Double>(psc,num0,num1,num0_0,num1_1,face,transporte,flux); }
};
 
/*! @brief class Eval_Centre4_VDF_Elem Evaluateur VDF pour la convection Le champ convecte est scalaire (Champ_P0_VDF)
 *
 *  Schema de convection Centre ordre 4
 *
 */
class Eval_Centre4_VDF_Elem : public Eval_Conv_VDF_Elem<Eval_Centre4_VDF_Elem>, public Eval_Conv_VDF
{
 
public:
  static constexpr bool IS_CENTRE4 = true;
  inline int amont_amont(int face, int i) const override { return le_dom->amont_amont(face, i); }
  inline double dist_elem(int n1, int n2, int k) const override { return le_dom->dist_elem_period(n1,n2,k); }
  template <typename Type_Double> inline void qcentre(const double ,const int ,const int ,const int ,const int ,const int , const DoubleTab& ,Type_Double& ) const;
};
 
template <typename Type_Double>
inline void Eval_Centre4_VDF_Elem::qcentre(const double psc, const int num0, const int num1, const int num0_0, const int num1_1, const int face, const DoubleTab& transporte, Type_Double& flux) const
{
  const int ori = orientation(face);
  const double dx = dist_elem(num0, num1, ori), dxam = dist_elem(num0_0, num0, ori), dxav = dist_elem(num1, num1_1, ori);
  qcentre4_impl<Type_Double>(ori,dx,dxam,dxav,psc,num0,num1,num0_0,num1_1,face,transporte,flux);
}
 
/*! @brief class Eval_Quick_VDF_Elem Evaluateur VDF pour la convection Le champ convecte est scalaire (Champ_P0_VDF)
 *
 *  Schema de convection Quick
 *
 */
class Eval_Quick_VDF_Elem : public Eval_Conv_VDF_Elem<Eval_Quick_VDF_Elem>, public Eval_Conv_VDF
{
public:
  static constexpr bool IS_QUICK = true;
  inline int amont_amont(int face, int i) const override { return le_dom->amont_amont(face, i); }
  inline double dim_elem(int n1, int k) const override { return le_dom->dim_elem(n1,k); }
  inline double dist_elem(int n1, int n2, int k) const override { return le_dom->dist_elem_period(n1,n2,k); }
  template <typename Type_Double> inline void quick_fram(const Type_Double&, const int, const int,const int, const int ,const int ,const DoubleTab&, Type_Double& ) const;
};
 
template <typename Type_Double>
inline void Eval_Quick_VDF_Elem::quick_fram(const Type_Double& psc, const int num0, const int num1,const int num0_0, const int num1_1, const int face,const DoubleTab& transporte, Type_Double& flux) const
{
  const int ori = orientation(face);
  const double dx = dist_elem(num0, num1, ori),
               dm0 = dim_elem(num0, ori), dxam0 = (num0_0!=-1?dist_elem(num0_0, num0, ori):0),
               dm1 = dim_elem(num1, ori), dxam1 = (num1_1!=-1?dist_elem(num1, num1_1, ori):0);
  quick_fram_impl<Type_Double>(ori,dx,dm0,dxam0,dm1,dxam1,psc,num0,num1,num0_0,num1_1,face,transporte,flux);
}
 
#endif /* Eval_Conv_VDF_Elem_leaves_included */