Iterateur_VDF_Elem_bis.tpp

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#ifndef Iterateur_VDF_Elem_bis_TPP_included
#define Iterateur_VDF_Elem_bis_TPP_included
 
template <class _TYPE_>
void  Iterateur_VDF_Elem<_TYPE_>::modifier_flux() const
{
  if (op_base->equation().inconnue().le_nom().debute_par("temperature")
      && !( sub_type(Operateur_Diff_base,op_base.valeur()) && ref_cast(Operateur_Diff_base,op_base.valeur()).diffusivite().le_nom() == "conductivite" ) )
    {
      DoubleTab& flux_bords=op_base->flux_bords();
      const Domaine_VDF& le_dom_vdf=ref_cast(Domaine_VDF,op_base->equation().domaine_dis());
      const Champ_base& rho = (op_base->equation()).milieu().masse_volumique();
      const Champ_Don_base& Cp = (op_base->equation()).milieu().capacite_calorifique();
      const IntTab& face_voisins=le_dom_vdf.face_voisins();
      int rho_uniforme = sub_type(Champ_Uniforme,rho) ? 1 : 0, cp_uniforme = sub_type(Champ_Uniforme,Cp) ? 1 : 0;
      int is_rho_u=op_base->equation().probleme().is_dilatable();
      if (is_rho_u)
        {
          const Operateur_base& op=op_base.valeur();
          is_rho_u=0;
          if (sub_type(Op_Conv_VDF_base,op))
            if (ref_cast(Op_Conv_VDF_base,op).vitesse().le_nom()=="rho_u") is_rho_u = 1;
        }
      const int nb_faces_bords = le_dom_vdf.nb_faces_bord();
      for (int face = 0; face < nb_faces_bords; face++)
        for(int k = 0; k < flux_bords.dimension(1); k++)
          {
            int e = (face_voisins(face, 0) != -1) ? face_voisins(face, 0) : face_voisins(face, 1);
            const double rho_ = (is_rho_u) ? 1.0 : rho.valeurs()(!rho_uniforme * e, k);
            flux_bords(face, k) *= rho_ * Cp.valeurs()(!cp_uniforme * e, k);
          }
    }
}
 
template <class _TYPE_>
int Iterateur_VDF_Elem<_TYPE_>::impr(Sortie& os) const
{
  const Domaine_VDF& le_dom_vdf=ref_cast(Domaine_VDF,op_base->equation().domaine_dis());
  const Domaine& madomaine=le_dom->domaine();
  const int impr_bord=(madomaine.bords_a_imprimer().est_vide() ? 0:1);
  const Schema_Temps_base& sch = la_zcl->equation().probleme().schema_temps();
  double temps = sch.temps_courant();
  DoubleTab& flux_bords=op_base->flux_bords();
  DoubleVect bilan(flux_bords.dimension(1));
  int k,face;
  int nb_front_Cl=le_dom->nb_front_Cl();
  DoubleTrav flux_bords2( 3, nb_front_Cl , flux_bords.dimension(1));
  flux_bords2=0;
  /*flux_bord(k)          ->   flux_bords2(0,num_cl,k) */
  /*flux_bord_perio1(k)   ->   flux_bords2(1,num_cl,k) */
  /*flux_bord_perio2(k)   ->   flux_bords2(2,num_cl,k) */
  for (int num_cl=0; num_cl<nb_front_Cl; num_cl++)
    {
      const Cond_lim& la_cl = la_zcl->les_conditions_limites(num_cl);
      const Front_VF& frontiere_dis = ref_cast(Front_VF,la_cl->frontiere_dis());
      int ndeb = frontiere_dis.num_premiere_face();
      int nfin = ndeb + frontiere_dis.nb_faces();
      int periodicite = (type_cl(la_cl)==periodique?1:0);
      for (face=ndeb; face<nfin; face++)
        for(k=0; k<flux_bords.dimension(1); k++)
          {
            flux_bords2(0,num_cl,k)+=flux_bords(face, k);
            if(periodicite)
              {
                if( face < (ndeb+frontiere_dis.nb_faces()/2) ) flux_bords2(1,num_cl,k)+=flux_bords(face, k);
                else flux_bords2(2,num_cl,k)+=flux_bords(face, k);
              }
          }
    } /* fin for num_cl */
  mp_sum_for_each_item(flux_bords2);
  if (je_suis_maitre())
    {
      op_base->ouvrir_fichier(Flux,"",1);
      Flux.add_col(temps);
      for (int num_cl=0; num_cl<nb_front_Cl; num_cl++)
        {
          const Cond_lim& la_cl = la_zcl->les_conditions_limites(num_cl);
          int periodicite = (type_cl(la_cl)==periodique?1:0);
          for(k=0; k<flux_bords.dimension(1); k++)
            {
              bilan(k)+=flux_bords2(0,num_cl,k);
              if(periodicite)
                {
                  Flux.add_col(flux_bords2(1,num_cl,k));
                  Flux.add_col(flux_bords2(2,num_cl,k));
                }
              else Flux.add_col(flux_bords2(0,num_cl,k));
            }
        }
      for(k=0; k<flux_bords.dimension(1); k++)
        Flux.add_col(bilan(k));
      Flux << finl;
    }
  const LIST(Nom)& Liste_bords_a_imprimer = le_dom->domaine().bords_a_imprimer();
  if (!Liste_bords_a_imprimer.est_vide())
    {
      EcrFicPartage Flux_face;
      op_base->ouvrir_fichier_partage(Flux_face,"",impr_bord);
      for (int num_cl=0; num_cl<nb_front_Cl; num_cl++)
        {
          const Frontiere_dis_base& la_fr = la_zcl->les_conditions_limites(num_cl)->frontiere_dis();
          const Cond_lim& la_cl = la_zcl->les_conditions_limites(num_cl);
          const Front_VF& frontiere_dis = ref_cast(Front_VF,la_cl->frontiere_dis());
          int ndeb = frontiere_dis.num_premiere_face(), nfin = ndeb + frontiere_dis.nb_faces();
          if (madomaine.bords_a_imprimer().contient(la_fr.le_nom()))
            {
              Flux_face << "# Flux par face sur " << la_fr.le_nom() << " au temps " << temps << " : " << finl;
              for (face=ndeb; face<nfin; face++)
                {
                  if (dimension == 2)
                    Flux_face << "# Face a x= " << le_dom->xv(face,0) << " y= " << le_dom->xv(face,1);
                  else if (dimension == 3)
                    Flux_face << "# Face a x= " << le_dom->xv(face,0) << " y= " << le_dom->xv(face,1) << " z= " << le_dom->xv(face,2);
                  for(k=0; k<flux_bords.dimension(1); k++)
                    {
                      if (!est_egal(le_dom_vdf.face_surfaces(face),0., 1.e-20))
                        {
                          Flux_face << " surface_face(m2)= " << le_dom_vdf.face_surfaces(face);
                          Flux_face << " flux_par_surface(W/m2)= " << flux_bords(face, k)/le_dom_vdf.face_surfaces(face);
                        }
                      Flux_face << " flux(W)= " << flux_bords(face, k);
                    }
                  Flux_face << finl;
                }
              Flux_face.syncfile();
            }
        }
    }
  return 1;
}
 
////////////////////////////////////////////////////////////////////////////////////////////
// A virer un jour .. voir avec le baltik Rayonnement
template <class _TYPE_>
void Iterateur_VDF_Elem<_TYPE_>::contribuer_au_second_membre(DoubleTab& resu) const
{
  ((_TYPE_&) flux_evaluateur).mettre_a_jour();
  const int ncomp = resu.line_size();
  assert(resu.nb_dim() < 3 && la_zcl && le_dom);
  assert(op_base->flux_bords().dimension(0)==le_dom->nb_faces_bord()); /* resize deja fait */
  if (ncomp == 1)
    {
      contribuer_au_second_membre_bords<SingleDouble>(ncomp,resu);
      contribuer_au_second_membre_interne<SingleDouble>(ncomp,resu);
    }
  else
    {
      contribuer_au_second_membre_bords<ArrOfDouble>(ncomp,resu);
      contribuer_au_second_membre_interne<ArrOfDouble>(ncomp,resu);
    }
}
 
template <class _TYPE_> template <typename Type_Double>
void Iterateur_VDF_Elem<_TYPE_>::contribuer_au_second_membre_bords(const int ncomp, DoubleTab& resu) const
{
  for (int num_cl = 0; num_cl < le_dom->nb_front_Cl(); num_cl++)
    {
      const Cond_lim& la_cl = la_zcl->les_conditions_limites(num_cl);
      const Front_VF& frontiere_dis = ref_cast(Front_VF,la_cl->frontiere_dis());
      const int ndeb = frontiere_dis.num_premiere_face(), nfin = ndeb + frontiere_dis.nb_faces();
      switch(type_cl(la_cl))
        {
        case navier :
          contribuer_au_second_membre_bords_<_TYPE_::CALC_FLUX_FACES_SYMM,Type_Double>((const Symetrie&) la_cl.valeur(),ndeb,nfin,ncomp,resu);
          break;
        case sortie_libre :
          contribuer_au_second_membre_bords_<_TYPE_::CALC_FLUX_FACES_SORTIE_LIB,Type_Double>((const Neumann_sortie_libre&) la_cl.valeur(),ndeb,nfin,ncomp,resu);
          break;
        case entree_fluide :
          contribuer_au_second_membre_bords_<_TYPE_::CALC_FLUX_FACES_ENTREE_FL,Type_Double>((const Dirichlet_entree_fluide&) la_cl.valeur(),ndeb,nfin,ncomp,resu);
          break;
        case paroi_fixe :
          contribuer_au_second_membre_bords_<_TYPE_::CALC_FLUX_FACES_PAR_FIXE,Type_Double>((const Dirichlet_paroi_fixe&) la_cl.valeur(),ndeb,nfin,ncomp,resu);
          break;
        case paroi_defilante :
          contribuer_au_second_membre_bords_<_TYPE_::CALC_FLUX_FACES_PAR_DEFIL,Type_Double>((const Dirichlet_paroi_defilante&) la_cl.valeur(),ndeb,nfin,ncomp,resu);
          break;
        case paroi_adiabatique :
          contribuer_au_second_membre_bords_<_TYPE_::CALC_FLUX_FACES_PAR_ADIAB,Type_Double>((const Neumann_paroi_adiabatique&) la_cl.valeur(),ndeb,nfin,ncomp,resu);
          break;
        case paroi :
          contribuer_au_second_membre_bords_<_TYPE_::CALC_FLUX_FACES_PAR,Type_Double>((const Neumann_paroi&) la_cl.valeur(),ndeb,nfin,ncomp,resu);
          break;
        case echange_global_impose :
          contribuer_au_second_membre_bords_<_TYPE_::CALC_FLUX_FACES_ECH_GLOB_IMP,Type_Double>((const Echange_global_impose&) la_cl.valeur(),ndeb,nfin,ncomp,resu);
          break;
        case periodique :
          contribuer_au_second_membre_bords_<_TYPE_::CALC_FLUX_FACES_PERIO,Type_Double>((const Periodique&) la_cl.valeur(),ndeb,nfin,ncomp,resu);
          break;
        case echange_externe_impose :
          contribuer_au_second_membre_bords_<Type_Double>((const Echange_externe_impose&)la_cl.valeur(), ndeb,nfin,num_cl,ncomp,frontiere_dis,resu);
          break;
        default :
          Cerr << "On ne reconnait pas la condition limite : " << la_cl.valeur() << " , dans T_It_VDF_Elem<_TYPE_>::contribuer_au_second_membre_bords" << finl;
          Process::exit();
          break;
        }
    }
}
 
template <class _TYPE_> template <typename Type_Double>
void Iterateur_VDF_Elem<_TYPE_>::contribuer_au_second_membre_interne(const int ncomp, DoubleTab& resu) const
{
  Type_Double flux(ncomp);
  const Domaine_VDF& domaine_VDF = le_dom.valeur();
  const int ndeb = domaine_VDF.premiere_face_int(), nfin = domaine_VDF.nb_faces();
  for (int face = ndeb; face < nfin; face++)
    {
      const int elem0 = elem(face,0), elem1 = elem(face,1);
      flux_evaluateur.secmem_faces_interne(face, flux);
      for (int k = 0; k < ncomp; k++)
        {
          resu(elem0,k) += flux[k];
          resu(elem1,k) -= flux[k];
        }
    }
}
 
template <class _TYPE_> template <bool should_calc_flux, typename Type_Double, typename BC>
void Iterateur_VDF_Elem<_TYPE_>::contribuer_au_second_membre_bords_(const BC& cl, const int ndeb, const int nfin, const int ncomp, DoubleTab& resu) const
{
  constexpr bool is_Periodique = std::is_same<BC,Periodique>::value;
  if (should_calc_flux)
    {
      Type_Double flux(ncomp);
      for (int face = ndeb; face < nfin; face++)
        {
          flux_evaluateur.secmem_face(face, cl, ndeb, flux); // Generic code
          is_Periodique ? fill_flux_tables_(face,ncomp,0.5 /* coeff */,flux,resu) : fill_flux_tables_(face,ncomp,1.0 /* coeff */,flux,resu);
        }
    }
}
 
template <class _TYPE_> template <typename Type_Double>
void Iterateur_VDF_Elem<_TYPE_>::contribuer_au_second_membre_bords_(const Echange_externe_impose& cl, const int ndeb, const int nfin, const int num_cl, const int ncomp, const Front_VF& frontiere_dis, DoubleTab& resu) const
{
  if (_TYPE_::CALC_FLUX_FACES_ECH_EXT_IMP)
    {
      Type_Double flux(ncomp);
      int boundary_index=-1;
      if (le_dom->front_VF(num_cl).le_nom() == frontiere_dis.le_nom()) boundary_index = num_cl;
      for (int face = ndeb; face < nfin; face++)
        {
          int local_face=le_dom->front_VF(boundary_index).num_local_face(face);
          flux_evaluateur.secmem_face(boundary_index,face,local_face, cl, ndeb, flux);
          fill_flux_tables_(face,ncomp,1.0 /* coeff */,flux,resu);
        }
    }
}
 
#endif /* Iterateur_VDF_Elem_bis_TPP_included */