// This file is part of the Herezh++ application. // // The finite element software Herezh++ is dedicated to the field // of mechanics for large transformations of solid structures. // It is developed by Gérard Rio (APP: IDDN.FR.010.0106078.000.R.P.2006.035.20600) // INSTITUT DE RECHERCHE DUPUY DE LÔME (IRDL) . // // Herezh++ is distributed under GPL 3 license ou ultérieure. // // Copyright (C) 1997-2022 Université Bretagne Sud (France) // AUTHOR : Gérard Rio // E-MAIL : gerardrio56@free.fr // // This program is free software: you can redistribute it and/or modify // it under the terms of the GNU General Public License as published by // the Free Software Foundation, either version 3 of the License, // or (at your option) any later version. // // This program is distributed in the hope that it will be useful, // but WITHOUT ANY WARRANTY; without even the implied warranty // of MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. // See the GNU General Public License for more details. // // You should have received a copy of the GNU General Public License // along with this program. If not, see . // // For more information, please consult: . # include "Met_Sfe1.h" # include "Util.h" // ========================================================================================= // vu la taille des executables le fichier est decompose en quatre // le premier : Met_Sfe1s1.cp concerne les constructeurs, destructeur et // la gestion des variables // le second : Met_Sfe1s2.cp concerne le calcul des grandeurs publics // le troisieme : Met_Sfe1s3.cp concerne le calcul des grandeurs protegees, et des courbures pour SFE1 et SFE2 et QSFE1 // le quatrième : Met_Sfe1s4.cp concerne le calcul des courbures pour les éléments SFE3 et QSFE3 // ========================================================================================= // ----------- déclaration des variables statiques --------------------------- Tableau Met_Sfe1::indi; // indicateur utilisé par Verif_Dcourbure int Met_Sfe1::indic_Verif_DcourbureSFE = 0; // ----------- fin de déclaration des variables statiques -------------------- Met_Sfe1::Met_Sfe1 () : // constructeur par defaut mettant les pointeurs a NULL Met_abstraite(), Ia(3), curb_0(),curb_t(),curb_tdt(), dcurb_t(),dcurb_tdt() ,norme_N_t(0.), norme_N_tdt(0.) ,N_0(ParaGlob::Dimension()),N_t(ParaGlob::Dimension()),N_tdt(ParaGlob::Dimension()) ,N_alpha_0_1(ParaGlob::Dimension()),N_alpha_0_2(ParaGlob::Dimension()) ,N_alpha_t_1(ParaGlob::Dimension()),N_alpha_t_2(ParaGlob::Dimension()) ,N_alpha_tdt_1(ParaGlob::Dimension()),N_alpha_tdt_2(ParaGlob::Dimension()) ,d_aijBB_t(),d_aijBB_tdt(),d_aijHH_t(),d_aijHH_tdt(),d_ajacobien_t(),d_ajacobien_tdt() ,nbNoeudCentral(0),tCalEpais(0),epais(),d_epais(NULL),PtCourbure(NULL),PtDcourbure(NULL) ,PtTest_courbure_anormale(NULL) ,type_calcul_jacobien(1) { P0 = NULL; Pt = NULL; Ptdt = NULL; aiB_0 = NULL;aiB_t = NULL; aiB_tdt = NULL; aiH_0 = NULL;aiH_t = NULL;aiH_tdt = NULL; aijBB_0 = NULL;aijBB_t = NULL;aijBB_tdt = NULL; aijHH_0 = NULL;aijHH_t = NULL;aijHH_tdt = NULL; d_aiB_t = NULL;d_N_t=NULL;d_N_alpha_t_1=NULL;d_N_alpha_t_2=NULL; d_aiB_tdt = NULL;d_N_tdt=NULL;d_N_alpha_tdt_1=NULL;d_N_alpha_tdt_2=NULL; d_aiH_t = NULL;d_aiH_tdt = NULL; // def de Ia for (int ii=1;ii<=3;ii++) Ia(ii)(ii) = 1.; if (indi.Taille() != 5) // tableau indi { indi.Change_taille(5);indi(1) = 1; indi(2) = 2; indi(3) = 3; indi(4) = 1; indi(5) = 2;}; // pour la courbure, par défaut SFE1 PtCourbure = &Met_Sfe1::Courbure2; PtDcourbure = &Met_Sfe1::Dcourbure2; PtTest_courbure_anormale = &Met_Sfe1::Test_courbure_anormale2; Init_conteneur_de_retour_pourFacette(); // Init des conteneurs de retour de fonction }; // constructeur permettant de dimensionner uniquement certaine variables // dim = dimension de l'espace, ici forcément = 3 // nbvec = nb de vecteur des bases, tab = liste des variables a initialiser Met_Sfe1::Met_Sfe1 ( const DdlElement& tabddl,int nbvec ,const Tableau& tabb, Enum_interpol enui ,int nb_noeud_central): Met_abstraite(3,nbvec,tabddl,tabb,nb_noeud_central,(nbvec==3 ? nb_noeud_central : 0)) ,Ia(3), // dimension 3 et nombre de vecteur // et nb_noeud_central noeuds central curb_0(),curb_t(),curb_tdt(), dcurb_t(tab_ddl.NbDdl_famille(X1)),dcurb_tdt(tab_ddl.NbDdl_famille(X1)) ,N_0(ParaGlob::Dimension()),N_t(ParaGlob::Dimension()),N_tdt(ParaGlob::Dimension()) ,norme_N_t(0.), norme_N_tdt(0.) ,N_alpha_0_1(ParaGlob::Dimension()),N_alpha_0_2(ParaGlob::Dimension()) ,N_alpha_t_1(ParaGlob::Dimension()),N_alpha_t_2(ParaGlob::Dimension()) ,N_alpha_tdt_1(ParaGlob::Dimension()),N_alpha_tdt_2(ParaGlob::Dimension()) ,d_aijBB_t(),d_aijBB_tdt(),d_aijHH_t(),d_aijHH_tdt(),d_ajacobien_t(),d_ajacobien_tdt() ,nbNoeudCentral(nb_noeud_central),tCalEpais(nbvec == 3),epais(),d_epais(NULL) ,PtCourbure(NULL),PtDcourbure(NULL),PtTest_courbure_anormale(NULL) ,type_calcul_jacobien(1) { AllocSfe1(); // def de Ia for (int ii=1;ii<=3;ii++) Ia(ii)(ii) = 1.; if (indi.Taille() != 5) // tableau indi { indi.Change_taille(5);indi(1) = 1; indi(2) = 2; indi(3) = 3; indi(4) = 1; indi(5) = 2;}; // pour la courbure switch (enui) { case SFE1: case SFE1_3D: case QSFE1 : {PtCourbure = &Met_Sfe1::Courbure2; PtDcourbure = &Met_Sfe1::Dcourbure2; PtTest_courbure_anormale = &Met_Sfe1::Test_courbure_anormale2;break;} case SFE2: case SFE2_3D: {PtCourbure = &Met_Sfe1::Courbure3; PtDcourbure = &Met_Sfe1::Dcourbure3; PtTest_courbure_anormale = &Met_Sfe1::Test_courbure_anormale3;break;} case SFE3: case SFE3_3D: case QSFE3: {PtCourbure = &Met_Sfe1::Courbure4; PtDcourbure = &Met_Sfe1::Dcourbure4; PtTest_courbure_anormale = &Met_Sfe1::Test_courbure_anormale4;break;} case SFE3C: case SFE3C_3D: {PtCourbure = &Met_Sfe1::Courbure4; PtDcourbure = &Met_Sfe1::Dcourbure4; PtTest_courbure_anormale = &Met_Sfe1::Test_courbure_anormale4;break;} default: { cout << "\n erreur!!! cas d'interpolation sfe non connu, cas = " << Nom_interpol(enui) << "\n Met_Sfe1::Met_Sfe1 (..." << endl; Sortie(1); }; }; Init_conteneur_de_retour_pourFacette(); // Init des conteneurs de retour de fonction }; // Constructeur de copie : Met_Sfe1::Met_Sfe1 ( const Met_Sfe1& a) : Met_abstraite(a), Ia(3) ,curb_0(a.curb_0),curb_t(a.curb_t),curb_tdt(a.curb_tdt) ,dcurb_t(a.dcurb_t),dcurb_tdt(a.dcurb_tdt) ,N_0(a.N_0),N_t(a.N_t),N_tdt(a.N_tdt),norme_N_t(a.norme_N_t), norme_N_tdt(a.norme_N_tdt) ,N_alpha_0_1(a.N_alpha_0_1),N_alpha_0_2(a.N_alpha_0_2) ,N_alpha_t_1(a.N_alpha_t_1),N_alpha_t_2(a.N_alpha_t_2) ,N_alpha_tdt_1(a.N_alpha_tdt_1),N_alpha_tdt_2(a.N_alpha_tdt_2) ,ajacobien_0(a.ajacobien_0) , ajacobien_t(a.ajacobien_t) ,ajacobien_tdt(a.ajacobien_tdt), d_aijBB_t() ,d_aijBB_tdt (a.d_aijBB_tdt.Taille()), d_aijHH_t(a.d_aijHH_t.Taille()) ,d_aijHH_tdt (a.d_aijHH_tdt.Taille()), d_ajacobien_t(a.d_ajacobien_t) ,d_ajacobien_tdt(a.d_ajacobien_tdt) ,nbNoeudCentral(a.nbNoeudCentral),tCalEpais(a.tCalEpais),epais(),d_epais(NULL) ,PtCourbure(a.PtCourbure),PtDcourbure(a.PtDcourbure) ,PtTest_courbure_anormale(a.PtTest_courbure_anormale) ,type_calcul_jacobien(a.type_calcul_jacobien) { // on met à NULL les grandeurs pointées P0 = NULL; Pt = NULL;d_Pt = NULL; Ptdt = NULL; d_Ptdt = NULL; aiB_0 = NULL;aiB_t = NULL; aiB_tdt = NULL; aiH_0 = NULL;aiH_t = NULL;aiH_tdt = NULL; aijBB_0 = NULL;aijBB_t = NULL;aijBB_tdt = NULL; aijHH_0 = NULL;aijHH_t = NULL;aijHH_tdt = NULL; d_aiB_t = NULL; d_N_t=NULL; d_N_alpha_t_1=NULL;d_N_alpha_t_2=NULL; d_aiB_tdt = NULL;d_N_tdt=NULL; d_N_alpha_tdt_1=NULL;d_N_alpha_tdt_2=NULL; d_aiH_t = NULL;d_aiH_tdt = NULL; // copie des grandeurs pointées Copie_metSfe1(a); // def de Ia for (int ii=1;ii<=dim_base;ii++) Ia(ii)(ii) = 1.; Init_conteneur_de_retour_pourFacette(); // Init des conteneurs de retour de fonction }; Met_Sfe1::~Met_Sfe1 () { DeallocSfe1(); }; // Surcharge de l'operateur = : realise l'affectation // dérivant de virtuel, a ne pas employer -> message d'erreur Met_abstraite& Met_Sfe1::operator= (const Met_abstraite& ) { // normalement ne devrait pas être utilisé cout << "\n erreur , l operateur d affectation a utiliser doit etre celui explicite " << " de la classe Met_Sfe1 \n" << " Met_abstraite& Met_Sfe1::operator= (const Met_abstraite& met) \n"; Sortie(1); return (*this); }; // normale Met_Sfe1& Met_Sfe1::operator= (const Met_Sfe1& met) { (*this) = Met_abstraite::operator=(met); // partie met_abstraite nbNoeudCentral = met.nbNoeudCentral; // copie des grandeurs pointées Copie_metSfe1(met); // copie des grandeurs non pointées Ia = met.Ia; curb_0 = met.curb_0;curb_t = met.curb_t;curb_tdt = met.curb_tdt; dcurb_t = met.dcurb_t;dcurb_tdt = met.dcurb_tdt; N_0 = met.N_0;N_t = met.N_t;N_tdt = met.N_tdt; norme_N_t=met.norme_N_t; norme_N_tdt=met.norme_N_tdt; N_alpha_0_1=met.N_alpha_0_1;N_alpha_0_2=met.N_alpha_0_2; N_alpha_t_1=met.N_alpha_t_1;N_alpha_t_2=met.N_alpha_t_2; N_alpha_tdt_1=met.N_alpha_tdt_1;N_alpha_tdt_2=met.N_alpha_tdt_2; ajacobien_0 = met.ajacobien_0;ajacobien_t = met.ajacobien_t;ajacobien_tdt = met.ajacobien_tdt; d_ajacobien_t = met.d_ajacobien_t; d_ajacobien_tdt = met.d_ajacobien_tdt; type_calcul_jacobien = met.type_calcul_jacobien; return (*this); }; // affichage minimale des éléments de métrique de base void Met_Sfe1::Affiche() const { cout << "\n -- 1) info elements de base de la metrique SFE : partie membrane -- "; if (aiB_0 != NULL) { cout << "\n aiB_0: "; aiB_0->Affiche();}; if (aiB_t != NULL) { cout << "\n aiB_t: "; aiB_t->Affiche();}; if (aiB_tdt != NULL) { cout << "\n aiB_tdt: "; aiB_tdt->Affiche();}; if (aiH_0 != NULL) { cout << "\n aiH_0: "; aiH_0->Affiche();}; if (aiH_t != NULL) { cout << "\n aiH_t: "; aiH_t->Affiche();}; if (aiH_tdt != NULL) { cout << "\n aiH_tdt: "; aiH_tdt->Affiche();}; if (aijBB_0 != NULL) { cout << "\n aijBB_0: "; aijBB_0->Ecriture(cout);} if (aijBB_t != NULL) { cout << "\n aijBB_t: "; aijBB_t->Ecriture(cout);} if (aijBB_tdt != NULL) { cout << "\n aijBB_tdt: "; aijBB_tdt->Ecriture(cout);} if (aijHH_0 != NULL) { cout << "\n aijHH_0: "; aijHH_0->Ecriture(cout);} if (aijHH_t != NULL) { cout << "\n aijHH_t: "; aijHH_t->Ecriture(cout);} if (aijHH_tdt != NULL) { cout << "\n aijHH_tdt: "; aijHH_tdt->Ecriture(cout);} cout << "\n ajacobien_0= "<< ajacobien_0 << " ajacobien_t= "<< ajacobien_t << " ajacobien_tdt= "<< ajacobien_tdt; cout << "\n courbure_0: "; curb_0.Ecriture(cout); cout << "\n courbure_t: "; curb_t.Ecriture(cout); cout << "\n courbure_tdt: "; curb_tdt.Ecriture(cout); cout << "\n normale_0: " << N_0; cout << "\n normale_t: " << N_t; cout << "\n normale_tdt: " << N_tdt; cout << "\n N_0,alpha_1: " << N_alpha_0_1 << " N_0,alpha_2: " << N_alpha_0_2; cout << "\n N_t,alpha_1: " << N_alpha_t_1 << " N_t,alpha_2: " << N_alpha_t_2; cout << "\n N_tdt,alpha_1: " << N_alpha_tdt_1 << " N_tdt,alpha_2: " << N_alpha_tdt_2; cout << "\n epaisseurs: "<< epais; cout << "\n -- fin info elements de metrique sfe : partie membrane--" << flush; cout << "\n -- 2) info elements de base de la metrique SFE : partie dans l'epaisseur (via la courbure) -- "; Met_abstraite::Affiche(); cout << "\n -- fin info elements de base de la metrique SFE : partie dans l'epaisseur (via la courbure) -- "<& tab) { // on définit un tableau d'indicateurs pour gérer le tableau tab interne int tabtaille = tab.Taille(); Tableau tabbool(tabtaille,false); // on alloue en fonction des parametres int nbddl_x = tab_ddl.NbDdl_famille(X1); // nombre de ddl en position int nbddl_v = tab_ddl.NbDdl_famille(V1); // nombre de ddl en vitesse int nbddlEpais = 0.; if (tCalEpais) nbddlEpais = nbNoeudCentral; // un ddl par noeud central int nbddlDepTot = nbddl_x + nbddlEpais; // changement de nbddl_sup_xi par les classes dérivées Change_nbddl_sup_xi(nbddlEpais); // on alloue a la classe superieur Met_abstraite::PlusInitVariables(tab); if (Existe(tab,iM0) && (P0 == NULL) ) {P0 = new Coordonnee3(dim_base);tabbool(Existe_num(tab,iM0))=true;} if (Existe(tab,iMt) && (Pt == NULL) ) {Pt = new Coordonnee3(dim_base);tabbool(Existe_num(tab,iMt))=true;} if (Existe(tab,idMt) && (d_Pt == NULL) ) {Coordonnee3 toto; d_Pt = new Tableau (nbddl_x,toto); tabbool(Existe_num(tab,idMt))=true;} if (Existe(tab,iMtdt) && (Ptdt == NULL) ) {Ptdt = new Coordonnee3;tabbool(Existe_num(tab,iMtdt))=true;} if (Existe(tab,idMtdt) && (d_Ptdt == NULL) ) {Coordonnee3 toto; d_Ptdt = new Tableau (nbddl_x,toto); tabbool(Existe_num(tab,idMtdt))=true;} if (Existe(tab,igiB_0) && (aiB_0 == NULL) ) {aiB_0 = new BaseB(dim_base,nbvec_base);tabbool(Existe_num(tab,igiB_0))=true;} if (Existe(tab,igiB_t) && (aiB_t == NULL) ) {aiB_t = new BaseB(dim_base,nbvec_base);tabbool(Existe_num(tab,igiB_t))=true;} if (Existe(tab,igiB_tdt) && (aiB_tdt == NULL) ) {aiB_tdt = new BaseB(dim_base,nbvec_base);tabbool(Existe_num(tab,igiB_tdt))=true;} if (Existe(tab,igiH_0) && (aiH_0 == NULL) ) {aiH_0 = new BaseH (dim_base,nbvec_base);tabbool(Existe_num(tab,igiH_0))=true;} if (Existe(tab,igiH_t) && (aiH_t == NULL) ) {aiH_t = new BaseH (dim_base,nbvec_base);tabbool(Existe_num(tab,igiH_t))=true;} if (Existe(tab,igiH_tdt) && (aiH_tdt == NULL) ) {aiH_tdt = new BaseH (dim_base,nbvec_base);tabbool(Existe_num(tab,igiH_tdt))=true;} if (Existe(tab,igijBB_0) && (aijBB_0 == NULL) ) {aijBB_0 = NevezTenseurBB(nbvec_base);tabbool(Existe_num(tab,igijBB_0))=true;} if (Existe(tab,igijBB_t) && (aijBB_t == NULL) ) {aijBB_t = NevezTenseurBB(nbvec_base);tabbool(Existe_num(tab,igijBB_t))=true;} if (Existe(tab,igijBB_tdt) && (aijBB_tdt == NULL) ) {aijBB_tdt = NevezTenseurBB(nbvec_base);tabbool(Existe_num(tab,igijBB_tdt))=true;} if (Existe(tab,igijHH_0) && (aijHH_0 == NULL) ) {aijHH_0 = NevezTenseurHH(nbvec_base);tabbool(Existe_num(tab,igijHH_0))=true;} if (Existe(tab,igijHH_t) && (aijHH_t == NULL) ) {aijHH_t = NevezTenseurHH(nbvec_base);tabbool(Existe_num(tab,igijHH_t))=true;} if (Existe(tab,igijHH_tdt) && (aijHH_tdt == NULL) ) {aijHH_tdt = NevezTenseurHH(nbvec_base);tabbool(Existe_num(tab,igijHH_tdt))=true;} if (Existe(tab,id_giB_t) && (d_aiB_t == NULL) ) { BaseB truc(dim_base,nbvec_base,0); tabbool(Existe_num(tab,id_giB_t))=true; d_aiB_t = new Tableau (nbddlDepTot,truc); d_N_t = new Tableau < CoordonneeB > (nbddl_x); d_N_alpha_t_1 = new Tableau < CoordonneeB > (nbddl_x); d_N_alpha_t_2 = new Tableau < CoordonneeB > (nbddl_x); }; if (Existe(tab,id_giB_tdt) && (d_aiB_tdt == NULL) ) { BaseB truc(dim_base,nbvec_base,0); tabbool(Existe_num(tab,id_giB_tdt))=true; d_aiB_tdt = new Tableau (nbddlDepTot,truc); d_N_tdt = new Tableau < CoordonneeB > (nbddl_x); d_N_alpha_tdt_1 = new Tableau < CoordonneeB > (nbddl_x); d_N_alpha_tdt_2 = new Tableau < CoordonneeB > (nbddl_x); }; if (Existe(tab,id_giH_t) && (d_aiH_t == NULL) ) { BaseH truc(dim_base,nbvec_base,0); tabbool(Existe_num(tab,id_giH_t))=true; d_aiH_t = new Tableau (nbddlDepTot,truc); } if (Existe(tab,id_giH_tdt) && (d_aiH_tdt == NULL) ) { BaseH truc(dim_base,nbvec_base,0); tabbool(Existe_num(tab,id_giH_tdt))=true; d_aiH_tdt = new Tableau (nbddlDepTot,truc); } if (Existe(tab,id_gijBB_t) && ( d_aijBB_t.Taille() == 0) ) { tabbool(Existe_num(tab,id_gijBB_t))=true; d_aijBB_t.Change_taille(nbddlDepTot); for (int i=1;i<=nbddlDepTot;i++) d_aijBB_t(i) = NevezTenseurBB(nbvec_base); } if (Existe(tab,id_gijBB_tdt) && ( d_aijBB_tdt.Taille() == 0) ) { tabbool(Existe_num(tab,id_gijBB_tdt))=true; d_aijBB_tdt.Change_taille(nbddlDepTot); for (int i=1;i<=nbddlDepTot;i++) d_aijBB_tdt(i) = NevezTenseurBB(nbvec_base); } if (Existe(tab,id_gijHH_t) && (d_aijHH_t.Taille() == 0) ) { tabbool(Existe_num(tab,id_gijHH_t))=true; d_aijHH_t.Change_taille(nbddlDepTot); for (int i=1;i<=nbddlDepTot;i++) d_aijHH_t(i) = NevezTenseurHH(nbvec_base); } if (Existe(tab,id_gijHH_tdt) && (d_aijHH_tdt.Taille() == 0) ) { tabbool(Existe_num(tab,id_gijHH_tdt))=true; d_aijHH_tdt.Change_taille(nbddlDepTot); for (int i=1;i<=nbddlDepTot;i++) d_aijHH_tdt(i) = NevezTenseurHH(nbvec_base); } if (Existe(tab,id_jacobien_t) && (d_ajacobien_t.Taille() == 0) ) {d_ajacobien_t.Change_taille(nbddlDepTot);tabbool(Existe_num(tab,id_jacobien_t))=true;} if (Existe(tab,id_jacobien_tdt) && (d_ajacobien_tdt.Taille() == 0) ) {d_ajacobien_tdt.Change_taille(nbddlDepTot);tabbool(Existe_num(tab,id_jacobien_tdt))=true;} // maintenant on met à jour le tableau local tab, int nbplus = 0; // on compte les éléments à rajouter for (int i=1;i<=tabtaille;i++) if(tabbool(i)) nbplus++; // on agrandi le tableau existant et on le complète int taille_i = this->tab.Taille(); this->tab.Change_taille(taille_i + nbplus); nbplus = 0; for (int i=1;i<=tabtaille;i++) if(tabbool(i)) { nbplus++; this->tab(taille_i + nbplus) = tab(i);} Init_conteneur_de_retour_pourFacette(); // Init des conteneurs de retour de fonction }; //---------------------------------- fonctions privées ------------------------------------------- // allocation de la memoire void Met_Sfe1::AllocSfe1 () { // on met les pointeurs a NULL P0 = NULL; Pt = NULL;d_Pt = NULL; Ptdt = NULL; d_Ptdt = NULL; aiB_0 = NULL;aiB_t = NULL; aiB_tdt = NULL; aiH_0 = NULL;aiH_t = NULL;aiH_tdt = NULL; aijBB_0 = NULL;aijBB_t = NULL;aijBB_tdt = NULL; aijHH_0 = NULL;aijHH_t = NULL;aijHH_tdt = NULL; d_aiB_t = NULL; d_N_t=NULL; d_N_alpha_t_1=NULL;d_N_alpha_t_2=NULL; d_aiB_tdt = NULL;d_N_tdt=NULL; d_N_alpha_tdt_1=NULL;d_N_alpha_tdt_2=NULL; d_aiH_t = NULL;d_aiH_tdt = NULL; // on alloue en fonction des parametres int nbddl_x = tab_ddl.NbDdl_famille(X1); // nombre de ddl en position int nbddlEpais = 0.; if (tCalEpais) nbddlEpais = nbNoeudCentral; // un ddl par noeud central int nbddl_v = tab_ddl.NbDdl_famille(V1); // nombre de ddl en vitesse int nbddlDepTot = nbddl_x + nbddlEpais; if (tCalEpais) { d_epais = new Tableau < Epai> (nbddlEpais);}; if (Existe(tab,iM0)) P0 = new Coordonnee3(); if (Existe(tab,iMt)) Pt = new Coordonnee3(); if (Existe(tab,idMt)) {Coordonnee3 toto; d_Pt = new Tableau (nbddl_x,toto);} if (Existe(tab,iMtdt)) Ptdt = new Coordonnee3; if (Existe(tab,idMtdt)) {Coordonnee3 toto; d_Ptdt = new Tableau (nbddl_x,toto);} if (Existe(tab,igiB_0)) aiB_0 = new BaseB(dim_base,nbvec_base); if (Existe(tab,igiB_t)) aiB_t = new BaseB(dim_base,nbvec_base); if (Existe(tab,igiB_tdt))aiB_tdt = new BaseB(dim_base,nbvec_base); if (Existe(tab,igiH_0)) aiH_0 = new BaseH (dim_base,nbvec_base); if (Existe(tab,igiH_t)) aiH_t = new BaseH (dim_base,nbvec_base); if (Existe(tab,igiH_tdt)) aiH_tdt = new BaseH (dim_base,nbvec_base); if (Existe(tab,igijBB_0)) aijBB_0 = NevezTenseurBB(nbvec_base); if (Existe(tab,igijBB_t)) aijBB_t = NevezTenseurBB(nbvec_base); if (Existe(tab,igijBB_tdt)) aijBB_tdt = NevezTenseurBB(nbvec_base); if (Existe(tab,igijHH_0)) aijHH_0 = NevezTenseurHH(nbvec_base); if (Existe(tab,igijHH_t)) aijHH_t = NevezTenseurHH(nbvec_base); if (Existe(tab,igijHH_tdt)) aijHH_tdt = NevezTenseurHH(nbvec_base); if (Existe(tab,id_giB_t)) { BaseB truc(dim_base,nbvec_base,0); d_aiB_t = new Tableau (nbddlDepTot,truc); d_N_t = new Tableau < CoordonneeB > (nbddl_x); d_N_alpha_t_1 = new Tableau < CoordonneeB > (nbddl_x); d_N_alpha_t_2 = new Tableau < CoordonneeB > (nbddl_x); }; if (Existe(tab,id_giB_tdt)) { BaseB truc(dim_base,nbvec_base,0); d_aiB_tdt = new Tableau (nbddlDepTot,truc); d_N_tdt = new Tableau < CoordonneeB > (nbddl_x); d_N_alpha_tdt_1 = new Tableau < CoordonneeB > (nbddl_x); d_N_alpha_tdt_2 = new Tableau < CoordonneeB > (nbddl_x); }; if (Existe(tab,id_giH_t)) { BaseH truc(dim_base,nbvec_base,0); d_aiH_t = new Tableau (nbddlDepTot,truc); } if (Existe(tab,id_giH_tdt)) { BaseH truc(dim_base,nbvec_base,0); d_aiH_tdt = new Tableau (nbddlDepTot,truc); } if (Existe(tab,id_gijBB_t)) { d_aijBB_t.Change_taille(nbddlDepTot); for (int i=1;i<=nbddlDepTot;i++) d_aijBB_t(i) = NevezTenseurBB(nbvec_base); } if (Existe(tab,id_gijBB_tdt)) { d_aijBB_tdt.Change_taille(nbddlDepTot); for (int i=1;i<=nbddlDepTot;i++) d_aijBB_tdt(i) = NevezTenseurBB(nbvec_base); } if (Existe(tab,id_gijHH_t)) { d_aijHH_t.Change_taille(nbddlDepTot); for (int i=1;i<=nbddlDepTot;i++) d_aijHH_t(i) = NevezTenseurHH(nbvec_base); } if (Existe(tab,id_gijHH_tdt)) { d_aijHH_tdt.Change_taille(nbddlDepTot); for (int i=1;i<=nbddlDepTot;i++) d_aijHH_tdt(i) = NevezTenseurHH(nbvec_base); } if (Existe(tab,id_jacobien_t)) d_ajacobien_t.Change_taille(nbddlDepTot); if (Existe(tab,id_jacobien_tdt)) d_ajacobien_tdt.Change_taille(nbddlDepTot); }; // deallocation de la memoire complète, uniquement des grandeurs spécifiques à Met_Sfe1 void Met_Sfe1::DeallocSfe1() { DeallocSfe1(tab); }; // deallocation de la memoire en fonction du tableau tib, uniquement des grandeurs spécifiques à Met_Sfe1 void Met_Sfe1::DeallocSfe1(Tableau& tib) { if (d_epais != NULL){ delete d_epais; d_epais=NULL;}; if (Existe(tib,iM0)) {delete P0;P0=NULL;} if (Existe(tib,iMt)) {delete Pt;Pt=NULL;} if (Existe(tib,idMt)) {delete d_Pt;d_Pt=NULL;}; if (Existe(tib,iMtdt)) {delete Ptdt;Ptdt=NULL;} if (Existe(tib,idMtdt)) {delete d_Ptdt;d_Ptdt=NULL;}; if (Existe(tib,igiB_0)) {delete aiB_0;aiB_0=NULL;} if (Existe(tib,igiB_t)) {delete aiB_t;aiB_t=NULL;} if (Existe(tib,igiB_tdt)) {delete aiB_tdt;aiB_tdt=NULL;} if (Existe(tib,igiH_0)) {delete aiH_0;aiH_0=NULL;} if (Existe(tib,igiH_t)) {delete aiH_t;aiH_t=NULL;} if (Existe(tib,igiH_tdt)) {delete aiH_tdt;aiH_tdt=NULL;} if (Existe(tib,igijBB_0)) {delete aijBB_0;aijBB_0=NULL;} if (Existe(tib,igijBB_t)) {delete aijBB_t;aijBB_t=NULL;} if (Existe(tib,igijBB_tdt)) {delete aijBB_tdt;aijBB_tdt=NULL;} if (Existe(tib,igijHH_0)) {delete aijHH_0;aijHH_0=NULL;} if (Existe(tib,igijHH_t)) {delete aijHH_t;aijHH_t=NULL;} if (Existe(tib,igijHH_tdt)) {delete aijHH_tdt;aijHH_tdt=NULL;} if (Existe(tib,id_giB_t)) {delete d_aiB_t;d_aiB_t=NULL; delete d_N_t; d_N_t=NULL; delete d_N_alpha_t_1; d_N_alpha_t_1=NULL; delete d_N_alpha_t_2; d_N_alpha_t_2=NULL;}; if (Existe(tib,id_giB_tdt)) {delete d_aiB_tdt;d_aiB_tdt=NULL; delete d_N_tdt; d_N_tdt=NULL; delete d_N_alpha_tdt_1; d_N_alpha_tdt_1=NULL; delete d_N_alpha_tdt_2; d_N_alpha_tdt_2=NULL;}; if (Existe(tib,id_giH_t)) {delete d_aiH_t;d_aiH_t=NULL;} if (Existe(tib,id_giH_tdt)) {delete d_aiH_tdt;d_aiH_tdt=NULL;} if (Existe(tib,id_gijBB_t)) { for (int i = 1; i<= d_aijBB_t.Taille(); i++) delete d_aijBB_t(i); d_aijBB_t.Change_taille(0); } if (Existe(tib,id_gijBB_tdt)) { for (int i = 1; i<= d_aijBB_tdt.Taille(); i++) delete d_aijBB_tdt(i); d_aijBB_tdt.Change_taille(0); } if (Existe(tib,id_gijHH_t)) { for (int i = 1; i<= d_aijHH_t.Taille(); i++) delete d_aijHH_t(i); d_aijHH_t.Change_taille(0); } if (Existe(tib,id_gijHH_tdt)) { for (int i = 1; i<= d_aijHH_tdt.Taille(); i++) delete d_aijHH_tdt(i); d_aijHH_tdt.Change_taille(0); } if (Existe(tib,id_jacobien_t)) d_ajacobien_t.Change_taille(0); if (Existe(tib,id_jacobien_tdt)) d_ajacobien_tdt.Change_taille(0); // maintenant on reinitialise à NULL les variables de retour Impli toto; ex_impli = toto; }; // copie en fonction de l'instance passée // concerne que les grandeurs pointées void Met_Sfe1::Copie_metSfe1(const Met_Sfe1& a) {// on alloue en fonction des parametres int nbddl_x = tab_ddl.NbDdl_famille(X1); // nombre de ddl en position int nbddlEpais = 0.; if (tCalEpais) nbddlEpais = nbNoeudCentral; // un ddl par noeud central int nbddl_v = tab_ddl.NbDdl_famille(V1); // nombre de ddl en vitesse int nbddlDepTot = nbddl_x + nbddlEpais; tCalEpais = a.tCalEpais; if (tCalEpais) {if (d_epais == NULL) {d_epais = new Tableau (*a.d_epais);} else { *d_epais = *a.d_epais;} }; if (a.P0 != NULL) {if (P0==NULL) P0 = new Coordonnee3(*(a.P0)); else *P0=*a.P0;} else {if (P0!=NULL) {delete P0;P0=NULL;}} if (a.Pt != NULL) {if (Pt==NULL) Pt = new Coordonnee3(*(a.Pt)); else *Pt=*a.Pt;} else {if (Pt!=NULL) {delete Pt;Pt=NULL;}} if (a.d_Pt != NULL) {if (d_Pt==NULL) d_Pt = new Tableau (*(a.d_Pt)); else *d_Pt=*a.d_Pt;} else {if (d_Pt != NULL) {delete d_Pt;d_Pt=NULL;}} if (a.Ptdt != NULL) {if (Ptdt==NULL) Ptdt = new Coordonnee3(*(a.Ptdt)); else *Ptdt=*a.Ptdt;} else {if (Ptdt!=NULL) {delete Ptdt;Ptdt=NULL;}} if (a.d_Ptdt != NULL) {if (d_Ptdt==NULL) d_Ptdt = new Tableau (*(a.d_Ptdt)); else *d_Ptdt=*a.d_Ptdt;} else {if (d_Ptdt != NULL) {delete d_Ptdt;d_Ptdt=NULL;}} if (a.aiB_0 != NULL) {if (aiB_0==NULL) aiB_0 = new BaseB(*(a.aiB_0)); else *aiB_0=*a.aiB_0;} else {if (aiB_0!=NULL) {delete aiB_0;aiB_0 = NULL;}} if (a.aiB_t != NULL) {if (aiB_t==NULL) aiB_t = new BaseB(*(a.aiB_t)); else *aiB_t=*a.aiB_t;} else {if (aiB_t!=NULL) {delete aiB_t;aiB_t = NULL;}} if (a.aiB_tdt != NULL) {if (aiB_tdt==NULL) aiB_tdt = new BaseB(*(a.aiB_tdt)); else *aiB_tdt=*a.aiB_tdt;} else {if (aiB_tdt!=NULL) {delete aiB_tdt;aiB_tdt = NULL;}} if (a.aiH_0 != NULL) {if (aiH_0==NULL) aiH_0 = new BaseH(*(a.aiH_0)); else *aiH_0=*a.aiH_0;} else {if (aiH_0!=NULL) {delete aiH_0;aiH_0 = NULL;}} if (a.aiH_t != NULL) {if (aiH_t==NULL) aiH_t = new BaseH(*(a.aiH_t)); else *aiH_t=*a.aiH_t;} else {if (aiH_t!=NULL) {delete aiH_t;aiH_t = NULL;}} if (a.aiH_tdt != NULL) {if (aiH_tdt==NULL) aiH_tdt = new BaseH(*(a.aiH_tdt)); else *aiH_tdt=*a.aiH_tdt;} else {if (aiH_tdt!=NULL) {delete aiH_tdt;aiH_tdt = NULL;}} if (a.aijBB_0 != NULL) {if (aijBB_0==NULL) aijBB_0 = NevezTenseurBB(*a.aijBB_0);else *aijBB_0=*a.aijBB_0;} else {if (aijBB_0!=NULL) {delete aijBB_0;aijBB_0 = NULL;}} if (a.aijBB_t != NULL) {if (aijBB_t==NULL) aijBB_t = NevezTenseurBB(*a.aijBB_t);else *aijBB_t=*a.aijBB_t;} else {if (aijBB_t!=NULL) {delete aijBB_t;aijBB_t = NULL;}} if (a.aijBB_tdt != NULL) {if (aijBB_tdt==NULL) aijBB_tdt = NevezTenseurBB(*a.aijBB_tdt);else *aijBB_tdt=*a.aijBB_tdt;} else {if (aijBB_tdt!=NULL) {delete aijBB_tdt;aijBB_tdt = NULL;}} if (a.aijHH_0 != NULL) {if (aijHH_0==NULL) aijHH_0 = NevezTenseurHH(*a.aijHH_0);else *aijHH_0=*a.aijHH_0;} else {if (aijHH_0!=NULL) {delete aijHH_0;aijHH_0 = NULL;}} if (a.aijHH_t != NULL) {if (aijHH_t==NULL) aijHH_t = NevezTenseurHH(*a.aijHH_t);else *aijHH_t=*a.aijHH_t;} else {if (aijHH_t!=NULL) {delete aijHH_t;aijHH_t = NULL;}} if (a.aijHH_tdt != NULL) {if (aijHH_tdt==NULL) aijHH_tdt = NevezTenseurHH(*a.aijHH_tdt);else *aijHH_tdt=*a.aijHH_tdt;} else {if (aijHH_tdt!=NULL) {delete aijHH_tdt;aijHH_tdt = NULL;}} if (a.d_aiB_t != NULL) {if (d_aiB_t==NULL) {d_aiB_t = new Tableau ( *a.d_aiB_t);}else {*d_aiB_t = *a.d_aiB_t;}; if (d_N_t==NULL) {d_N_t = new Tableau < CoordonneeB > (*a.d_N_t);} else { *d_N_t = *a.d_N_t; }; if (d_N_alpha_t_1==NULL) {d_N_alpha_t_1 = new Tableau < CoordonneeB > (*a.d_N_alpha_t_1); d_N_alpha_t_2 = new Tableau < CoordonneeB > (*a.d_N_alpha_t_2); } else { *d_N_alpha_t_1 = *a.d_N_alpha_t_1;*d_N_alpha_t_2 = *a.d_N_alpha_t_2; }; } else {if (d_aiB_t!=NULL) {delete d_aiB_t;d_aiB_t = NULL;}; if (d_N_t!=NULL) {delete d_N_t;d_N_t=NULL;}; if (d_N_alpha_t_1!=NULL) {delete d_N_alpha_t_1;d_N_alpha_t_1=NULL;}; if (d_N_alpha_t_2!=NULL) {delete d_N_alpha_t_2;d_N_alpha_t_2=NULL;}; }; if (a.d_aiB_tdt != NULL) {if (d_aiB_tdt==NULL) {d_aiB_tdt = new Tableau ( *a.d_aiB_tdt);}else {*d_aiB_tdt = *a.d_aiB_tdt;}; if (d_N_tdt==NULL) {d_N_tdt = new Tableau < CoordonneeB > (*a.d_N_tdt);} else { *d_N_tdt = *a.d_N_tdt; }; if (d_N_alpha_tdt_1==NULL) {d_N_alpha_tdt_1 = new Tableau < CoordonneeB > (*a.d_N_alpha_tdt_1); d_N_alpha_tdt_2 = new Tableau < CoordonneeB > (*a.d_N_alpha_tdt_2); } else { *d_N_alpha_tdt_1 = *a.d_N_alpha_tdt_1;*d_N_alpha_tdt_2 = *a.d_N_alpha_tdt_2; }; } else {if (d_aiB_tdt!=NULL) {delete d_aiB_tdt;d_aiB_tdt = NULL;} if (d_N_tdt!=NULL) {delete d_N_tdt;d_N_tdt=NULL;}; if (d_N_alpha_tdt_1!=NULL) {delete d_N_alpha_tdt_1;d_N_alpha_tdt_1=NULL;}; if (d_N_alpha_tdt_2!=NULL) {delete d_N_alpha_tdt_2;d_N_alpha_tdt_2=NULL;}; }; if (a.d_aiH_t != NULL) {if (d_aiH_t==NULL) d_aiH_t = new Tableau ( *a.d_aiH_t);else *d_aiH_t = *a.d_aiH_t;} else {if (d_aiH_t!=NULL) {delete d_aiH_t;d_aiH_t = NULL;} } if (a.d_aiH_tdt != NULL) {if (d_aiH_tdt==NULL) d_aiH_tdt = new Tableau ( *a.d_aiH_tdt);else *d_aiH_tdt = *a.d_aiH_tdt;} else {if (d_aiH_tdt!=NULL) {delete d_aiH_tdt;d_aiH_tdt = NULL;} } if (Existe(tab,id_gijBB_t)) { d_aijBB_t.Change_taille(a.d_aijBB_t.Taille()); for (int i=1;i<=nbddlDepTot;i++) { d_aijBB_t(i) = NevezTenseurBB(nbvec_base); *((d_aijBB_t)(i)) = *((a.d_aijBB_t)(i)) ; } } else d_aijBB_t.Change_taille(0); if (Existe(tab,id_gijBB_tdt)) { d_aijBB_tdt.Change_taille(a.d_aijBB_tdt.Taille()); for (int i=1;i<=nbddlDepTot;i++) { d_aijBB_tdt(i) = NevezTenseurBB(nbvec_base); *((d_aijBB_tdt)(i)) = *((a.d_aijBB_tdt)(i)) ; }} else d_aijBB_tdt.Change_taille(0); if (Existe(tab,id_gijHH_t)) { d_aijHH_t.Change_taille(a.d_aijHH_t.Taille()); for (int i=1;i<=nbddlDepTot;i++) { d_aijHH_t(i) = NevezTenseurHH(nbvec_base); *((d_aijHH_t)(i)) = *((a.d_aijHH_t)(i)) ; }} else d_aijHH_t.Change_taille(0); if (Existe(tab,id_gijHH_tdt)) { d_aijHH_tdt.Change_taille(a.d_aijHH_tdt.Taille()); for (int i=1;i<=nbddlDepTot;i++) { d_aijHH_tdt(i) = NevezTenseurHH(nbvec_base); *((d_aijHH_tdt)(i)) = *((a.d_aijHH_tdt)(i)); }} else d_aijHH_tdt.Change_taille(0); }; // initialisation des conteneurs de retour des méthodes void Met_Sfe1::Init_conteneur_de_retour_pourFacette() { courbure_t_tdt.Mise_a_jour_grandeur(aiB_0,aiH_0,aiB_t,aiH_t,aiB_tdt,aiH_tdt,aijBB_0,aijHH_0 ,aijBB_t,aijHH_t,aijBB_tdt,aijHH_tdt,&curb_t,&curb_tdt,&curb_0 ,&ajacobien_tdt,&ajacobien_t,&ajacobien_0); ex_impliFac.Mise_a_jour_grandeur(aiB_0,aiH_0,aiB_t,aiH_t,aiB_tdt,d_aiB_tdt,aiH_tdt,d_aiH_tdt ,aijBB_0,aijHH_0,aijBB_t,aijHH_t,aijBB_tdt,aijHH_tdt,gradVmoyBB_t,gradVmoyBB_tdt,gradVBB_tdt ,&d_aijBB_tdt,NULL,&d_aijHH_tdt,&jacobien_tdt,&jacobien_t,&jacobien_0,&d_jacobien_tdt ,&d_gradVmoyBB_t,&d_gradVmoyBB_tdt,&d_gradVBB_t,&d_gradVBB_tdt); ex_expliFac.Mise_a_jour_grandeur(aiB_0,aiH_0,aiB_t,aiH_t,aijBB_0,aijHH_0,aijBB_t,aijHH_t,gradVmoyBB_t,gradVBB_t, &d_aijBB_t,&jacobien_t,&jacobien_0); ex_expli_t_tdtFac.Mise_a_jour_grandeur(aiB_0,aiH_0,aiB_t,aiH_t,aiB_tdt,aiH_tdt,aijBB_0,aijHH_0,aijBB_t,aijHH_t,aijBB_tdt ,aijHH_tdt,gradVmoyBB_t,gradVmoyBB_tdt,gradVBB_tdt,&d_aijBB_tdt,&jacobien_tdt,&jacobien_t,&jacobien_0); ex_aijHH_0_et_aiH_0Fac.Mise_a_jour_grandeur(aiH_0,aijHH_0); ex_DynamiqFac.Mise_a_jour_grandeur(aiB_0,aiB_tdt,aijBB_0,aijBB_tdt, &jacobien_tdt,&jacobien_0); ex_flambe_linFac.Mise_a_jour_grandeur(aiB_0,aiH_0,aiB_t,aiH_t,aiB_tdt,d_aiB_tdt,aiH_tdt,d_aiH_tdt ,aijBB_0,aijHH_0,aijBB_t,aijHH_t,aijBB_tdt,aijHH_tdt,gradVmoyBB_t,gradVmoyBB_tdt,gradVBB_tdt ,&d_aijBB_tdt,NULL,&d_aijHH_tdt,&jacobien_tdt,&jacobien_t,&jacobien_0,&d_jacobien_tdt ,&d_gradVmoyBB_t,&d_gradVmoyBB_tdt,&d_gradVBB_t,&d_gradVBB_tdt); umat_contFac.Mise_a_jour_grandeur(aiB_0,aiH_0,aiB_t,aiH_t,aiB_tdt,aiH_tdt,aijBB_0,aijHH_0,aijBB_t,aijHH_t,aijBB_tdt ,aijHH_tdt,gradVmoyBB_t,gradVmoyBB_tdt,gradVBB_tdt,&jacobien_tdt,&jacobien_t,&jacobien_0); ex_InfoImpFac.Mise_a_jour_grandeur(M0,Mtdt,aiB_0,aiB_tdt,aiH_0,aiH_tdt,aijHH_tdt,aijBB_tdt,aijBB_0,aijHH_0); ex_InfoExp_tFac.Mise_a_jour_grandeur(M0,Mt,aiB_0,aiB_t,aiH_0,aiH_t,aijHH_t,aijBB_t,aijBB_0,aijHH_0); ex_InfoExp_tdtFac.Mise_a_jour_grandeur(M0,Mtdt,aiB_0,aiB_tdt,aiH_0,aiH_tdt,aijHH_tdt,aijBB_tdt,aijBB_0,aijHH_0); ex_Info0_t_tdtFac.Mise_a_jour_grandeur(M0,Mt,Mtdt,aiB_0,aiB_t,aiB_tdt,aiH_0,aiH_t,aiH_tdt); };