MAJ_320_330_champs.c
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/* This file is part of MED.
*
* COPYRIGHT (C) 1999 - 2020 EDF R&D, CEA/DEN
* MED is free software: you can redistribute it and/or modify
* it under the terms of the GNU Lesser General Public License as published by
* the Free Software Foundation, either version 3 of the License, or
* (at your option) any later version.
*
* MED 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 Lesser General Public License for more details.
*
* You should have received a copy of the GNU Lesser General Public License
* along with MED. If not, see <http://www.gnu.org/licenses/>.
*/
#include "med_config.h"
#include "med_outils.h"
#include "med.h"
#include <string.h>
#include "MAJ_320_330.h"
#include "MAJ_version.h"
#define USER_MODE MED_COMPACT_STMODE
med_err getFieldsOn(med_idt fid,
const char * const nommaa,
med_int nmodels,
const med_geometry_type* geotype_elst,
const char * geotypename_elst,
const char * const nomcha,
const char * const dtunit,
const med_field_type typcha,
const med_int ncomp,
const char * const comp,
const char * const unit,
const med_entity_type entite,
const med_switch_mode stockage,
const med_int ncstp) {
int i,j,k,l,m,n,nb_geo=0;
med_int nbpdtnor=0,pflsize,*pflval,ngauss=0,ngroup,nval;
med_int numdt=0,numo=0,nprofile=0;
med_int meshnumdt=0, meshnumit=0 ;
med_size medtype_size=0;
med_size _sizei=0,_sizef=0,_sizeNbr=0;
med_float dt=0.0;
unsigned char *val = NULL;
med_err ret=0;
char pflname [MED_NAME_SIZE+1]="";
char _profilename [MED_NAME_SIZE+1]="";
char locname [MED_NAME_SIZE+1]="";
char _pathi[(MED_FIELD_GRP_SIZE +MED_NAME_SIZE+1)+2*MED_MAX_PARA+1] = MED_FIELD_GRP;
char _pathf[(MED_FIELD_GRP_SIZE+1+MED_NAME_SIZE+1)+2*MED_MAX_PARA+1] = "/CHA_/";
char _pathtmp[MED_FIELD_GRP_SIZE+3]="/CHA__/";
char _getNBR[(MED_FIELD_GRP_SIZE+1+MED_NAME_SIZE+1)+(2*MED_MAX_PARA+1)+(2*MED_TAILLE_NOM_ENTITE+2)+(MED_NAME_SIZE+1)+MED_TAILLE_NOM_ENTITE+1] = MED_FIELD_GRP;
char _entitygeotypename[2*MED_TAILLE_NOM_ENTITE+2]="";
char * lien = NULL;
med_bool _fieldexist = MED_FALSE;
med_bool _meshexist = MED_FALSE;
med_int _nentFromMesh = 0;
med_int _nentFromField = 0;
med_int _nent = 0;
med_geometry_type *type_geo;
med_data_type meddatatype = MED_CONNECTIVITY;
med_bool changement = MED_FALSE;
med_bool transformation = MED_FALSE;
htri_t _datasetexist;
const char * const * AFF;
const char * const * AFF_ENT=MED_GET_ENTITY_TYPENAME+1;
const char * * AFF_STRUCT = NULL;
switch (entite) {
case MED_NODE :
type_geo = MED_GET_NODE_GEOMETRY_TYPE;
nb_geo = MED_N_NODE_FIXED_GEO;
AFF = MED_GET_NODE_GEOMETRY_TYPENAME;
meddatatype = MED_COORDINATE;
break;
case MED_CELL :
case MED_NODE_ELEMENT :
type_geo = MED_GET_CELL_GEOMETRY_TYPE;
nb_geo = MED_N_CELL_FIXED_GEO;
AFF = MED_GET_CELL_GEOMETRY_TYPENAME;
break;
case MED_DESCENDING_FACE :
type_geo = MED_GET_FACE_GEOMETRY_TYPE;
nb_geo = MED_N_FACE_FIXED_GEO;
AFF = MED_GET_FACE_GEOMETRY_TYPENAME;
break;
case MED_DESCENDING_EDGE :
type_geo = MED_GET_EDGE_GEOMETRY_TYPE;
nb_geo = MED_N_EDGE_FIXED_GEO;
AFF = MED_GET_EDGE_GEOMETRY_TYPENAME;
break;
case MED_STRUCT_ELEMENT :
AFF_STRUCT = (const char * *) calloc(sizeof(const char * ),nmodels+1);
for(i=0;i<nmodels;++i) AFF_STRUCT[i+1]= &geotypename_elst[(MED_NAME_SIZE+1)*i];
type_geo = (med_geometry_type*)(geotype_elst)-1;
nb_geo = nmodels;
AFF = AFF_STRUCT;
break;
}
for (k=1;k<=nb_geo;k++) {
/* Combien de séquences (PDT,NOR) a lire */
nbpdtnor = ncstp;
if (nbpdtnor < 1 ) continue;
for (j=0;j<nbpdtnor;j++) {
if ( MEDfieldComputingStepMeshInfo(fid, nomcha, j+1, &numdt, &numo,
&dt, &meshnumdt, &meshnumit) < 0 ) {
MESSAGE("Erreur a l'appel de MEDfieldComputingStepMeshInfo : ");
EXIT_IF(NULL == NULL,NULL,NULL);
}
if ( (nprofile = MEDfieldnProfile(fid,nomcha,numdt,numo,entite,type_geo[k],
pflname,locname ) ) < 0 ) {
MESSAGE("Erreur a la demande du nombre de profils referencés par le champ : ");
SSCRUTE(nomcha);
ISCRUTE(numdt); ISCRUTE(numo);
ISCRUTE_int(entite);ISCRUTE_int(type_geo[k]);
SSCRUTE(AFF_ENT[(int)entite]);SSCRUTE(AFF[k]);
EXIT_IF(NULL == NULL,NULL,NULL);
};
for (l=0;l<nprofile;l++) {
if ( (nval = MEDfieldnValueWithProfile(fid, nomcha, numdt, numo, entite, type_geo[k],
l+1, USER_MODE, pflname, &pflsize,
locname, &ngauss) ) < 0 ) {
MESSAGE("Erreur a la lecture du nombre de valeurs du champ : ");
SSCRUTE(nomcha);ISCRUTE(numdt);ISCRUTE(numo);
ISCRUTE_int(entite);ISCRUTE_int(type_geo[k]);
ISCRUTE_int(USER_MODE);
EXIT_IF(NULL == NULL,NULL,NULL);
};
/* printf("\n +Pas de Temps n."IFORMAT" (%f) [%s], n. d'ordre "IFORMAT", avec "IFORMAT" valeur(s) par entité.\n",numdt,dt,dtunit,numo,ngauss); */
/* printf("\t- Il y a "IFORMAT" entités qui portent des valeurs en mode %i. Chaque entite %s\ */
/* de type geometrique %s associes au profile |%s| a "IFORMAT" valeurs associées \n", */
/* nval,USER_MODE,AFF_ENT[(int)entite],AFF[k],pflname,ngauss); */
/*Lecture des valeurs du champ */
switch(typcha) {
case MED_FLOAT64: medtype_size=sizeof(med_float64); break;
case MED_FLOAT32: medtype_size=sizeof(med_float32); break;
case MED_INT32 : medtype_size=sizeof(med_int32 ); break;
case MED_INT64 : medtype_size=sizeof(med_int64 );
break;
case MED_INT : medtype_size=sizeof(med_int) ; break;
default:
MESSAGE("Erreur a la lecture du type de champ : ");
ISCRUTE_int(typcha);
EXIT_IF(NULL == NULL,NULL,NULL);
}
val = (unsigned char*) calloc(ncomp*nval*ngauss,medtype_size);
EXIT_IF(val == NULL,"L'appel de calloc a échoué ",NULL);
if (MEDfieldValueWithProfileRd(fid, nomcha, numdt, numo, entite,type_geo[k],
USER_MODE, pflname, stockage, MED_ALL_CONSTITUENT, val) < 0 ) {
MESSAGE("Erreur a la lecture des valeurs du champ : ");
SSCRUTE(nomcha);ISCRUTE_int(entite);ISCRUTE_int(type_geo[k]);
ISCRUTE(numdt);ISCRUTE(numo);
EXIT_IF(NULL == NULL,NULL,NULL);
}
strncpy(&_getNBR[MED_FIELD_GRP_SIZE],nomcha,MED_NAME_SIZE+1);
_sizeNbr = MED_FIELD_GRP_SIZE+strlen(nomcha);
_getNBR[_sizeNbr]='/';++_sizeNbr;
MED_ERR_EXIT_IF(_MEDgetComputationStepName(MED_SORT_DTIT,numdt,numo,&_getNBR[_sizeNbr])<0,
MED_ERR_CALL,MED_ERR_API,"_MEDgetEntityGeoTypeName");
_sizeNbr += 2*MED_MAX_PARA;
_getNBR[_sizeNbr]='/';++_sizeNbr;
MED_ERR_EXIT_IF(_MEDgetFieldEntityGeoTypeName(fid,_entitygeotypename,entite,type_geo[k])<0,
MED_ERR_CALL,MED_ERR_API,"_MEDgetFieldEntityGeoTypeName");
strncpy(&_getNBR[_sizeNbr],_entitygeotypename,2*MED_TAILLE_NOM_ENTITE+2);
_sizeNbr += strlen(_entitygeotypename);
_getNBR[_sizeNbr]='/';++_sizeNbr;
if ( strlen(pflname) )
strncpy(_profilename,pflname,MED_NAME_SIZE+1);
else
strncpy(_profilename,MED_NO_PROFILE_INTERNAL,MED_NAME_SIZE+1);
strncpy(&_getNBR[_sizeNbr],_profilename,MED_NAME_SIZE+1);
_sizeNbr += strlen(_profilename);
/* SSCRUTE(_getNBR); */
MED_ERR_EXIT_IF(_MEDattributeNumRdByName( fid, _getNBR, MED_NOM_NBR, MED_INTERNAL_INT, (unsigned char *) &_nentFromField) <0,
MED_ERR_CALL,MED_ERR_API,"_MEDattributeStringRdByName");
/* ISCRUTE_int(_nentFromField); */
EXIT_IF( H5Gmove(fid, _pathi, _pathtmp ) < 0,"Switch to ",_pathtmp);
/* Nous sommes dans une boucle sur les champs :
On récupère donc les champs en cours de transformation dans _pathtmp
et on les replace ds _pathi pour y travailler.
*/
_datasetexist=H5Lexists( fid, _pathf, H5P_DEFAULT );
if (_datasetexist ) { EXIT_IF( (H5Gmove(fid, _pathf, _pathi ) < 0) ,"Switch to ",_pathi); }
/* Création du champ destination */
/* ATTENTION appel de MAJ_version avec fid,num
et non juste fid --> futures procédures de MAJ_330_... */
/* MAJ_version(fid); */
MAJ_version_num(fid,3,3,0);
/* Ajout du champ au nouveau format dans le _pathi */
/* Le champ peut déjà avoir été crée s'il y a plusieurs étapes de calcul */
MEDfileObjectExist(fid,MED_FIELD,nomcha,&_fieldexist);
if (!_fieldexist) {
MED_ERR_EXIT_IF( MEDfieldCr(fid,nomcha,typcha,ncomp,comp,unit,dtunit,nommaa ) < 0,
MED_ERR_CREATE,MED_ERR_FIELD,nomcha);
}
MEDfileObjectExist(fid,MED_MESH,nommaa,&_meshexist);
if (_meshexist) {
if ( (_nentFromMesh = MEDmeshnEntity( fid, nommaa, meshnumdt, meshnumit, entite, type_geo[k],
meddatatype, MED_NODAL, &changement, &transformation )
) < 0 )
if ( (_nentFromMesh = MEDmeshnEntity( fid, nommaa, meshnumdt, meshnumit, entite, type_geo[k],
meddatatype, MED_DESCENDING, &changement, &transformation )
) < 0 ) {
MESSAGE("Erreur a la lecture du nombre total d'entités supports au champ : ");
SSCRUTE(nomcha); ISCRUTE(numdt); ISCRUTE(numo);
SSCRUTE(nommaa); ISCRUTE(meshnumdt); ISCRUTE(meshnumit);
ISCRUTE_int(entite);ISCRUTE_int(type_geo[k]);
SSCRUTE(AFF_ENT[(int)entite]);SSCRUTE(AFF[k]);
EXIT_IF(_nentFromMesh < 0, NULL,NULL);
}
MED_ERR_EXIT_IF ( _nentFromMesh != _nentFromField, MED_ERR_INVALID, MED_ERR_ATTRIBUTE,
"Le nombre global d'entités support au champ ne correspond pas au nombre d'entitées"
" du maillage associé !" );
_nent = _nentFromMesh;
/* ISCRUTE_int(_nentFromMesh); */
} else {
_nent = _nentFromField;
fprintf(stdout," ... Le maillage [%s] associé au champ n'est pas local,"
" utilisation du champ pour déterminer le nbre global d'entités [%s] : "IFORMAT" ...\n",
nommaa,_entitygeotypename,_nent);
}
MED_ERR_EXIT_IF( MEDfieldValueWithProfileWr(fid, nomcha ,numdt, numo , dt,
entite, type_geo[k], USER_MODE, pflname,
locname, stockage, MED_ALL_CONSTITUENT,
_nent, (unsigned char*) val) < 0,
MED_ERR_WRITE,MED_ERR_FIELD,_pathf);
MED_ERR_EXIT_IF( MEDfieldComputingStepMeshWr(fid, nomcha, numdt, numo, meshnumdt, meshnumit ) < 0,
MED_ERR_WRITE,MED_ERR_FIELD,nomcha);
EXIT_IF( H5Gmove(fid, _pathi , _pathf ) < 0,"Switch to ",_pathf);
EXIT_IF( H5Gmove(fid, _pathtmp, _pathi ) < 0,"Switch to ",_pathi);
if ( val ) {free(val);val = NULL;}
MAJ_version_num(fid,3,2,1);
fprintf(stdout," ... Normalisation des données de type entier effectuée...\n");
} /* fin for sur les différents profils */
} /* fin for sur les étapes de calcul */
} /* fin for sur les types géométriques de maille */
free(AFF_STRUCT);
return ret;
}
void MAJ_320_330_champs(med_idt fid)
{
med_err ret=0,lret=0;
med_field_type typcha;
char nomcha [MED_NAME_SIZE+1]="";
char meshname [MED_NAME_SIZE+1]="";
char dtunit [MED_SNAME_SIZE+1]="";
char *comp= NULL, *unit= NULL;
med_int ncomp,ncha;
med_int ncstp=0;
med_bool local=MED_FALSE;
htri_t _datasetexist;
char _pathi[(MED_FIELD_GRP_SIZE +MED_NAME_SIZE+1)+2*MED_MAX_PARA+1] = MED_FIELD_GRP;
char _pathf[(MED_FIELD_GRP_SIZE+1+MED_NAME_SIZE+1)+2*MED_MAX_PARA+1] = "/CHA_/";
char _pathtmp[MED_FIELD_GRP_SIZE+3]="/CHA__/";
int i=0,_num=0;
/* char _cstpname[2*MED_MAX_PARA+1]=""; */
med_int _nmodels=0;
med_switch_mode mode_coo = MED_NO_INTERLACE;
med_geometry_type * geotype_elst;
char * geotypename_elst;
med_geometry_type _geotype=MED_NONE;
char _elementname[MED_NAME_SIZE+1]="";
med_int _elementdim=0;
char _supportmeshname[MED_NAME_SIZE+1]="";
med_entity_type _entitytype=MED_UNDEF_ENTITY_TYPE;
med_int _nnode=0;
med_int _ncell=0;
med_geometry_type _geocelltype=MED_NONE;
char _geocelltypename[MED_SNAME_SIZE+1]="";
med_int _nconstantattribute=0;
med_bool _anyprofile=MED_FALSE;
med_int _nvariableattribute=0;
MAJ_version_num(fid,3,2,1);
_nmodels = MEDnStructElement(fid);
EXIT_IF(_nmodels < 0,"lors de la lecture du nombre d'éléments de structure",NULL);
/* nmailles_elst = (med_int *) malloc(_nmodels*sizeof(med_int)); */
geotype_elst = (med_geometry_type *) malloc(_nmodels*sizeof(med_geometry_type));
geotypename_elst = (char *) malloc(_nmodels*sizeof(char)*(MED_NAME_SIZE+1));
for (i=0; i < _nmodels; i++) {
ret= MEDstructElementInfo(fid, i+1, &geotypename_elst[i*(MED_NAME_SIZE+1)], &geotype_elst[i],
&_elementdim, _supportmeshname,
&_entitytype, &_nnode, &_ncell, &_geocelltype,
&_nconstantattribute, &_anyprofile, &_nvariableattribute );
EXIT_IF(ret < 0,"lors de la demande d'information sur les éléments de structure",NULL);
}
/* combien de champs dans le fichier */
ncha = MEDnField(fid);
EXIT_IF(ncha < 0,"lors de la lecture du nombre de champs",NULL);
/* MAJ des champs */
for (i=0;i<ncha;i++) {
/* Lecture du nombre de composantes */
ncomp = MEDfieldnComponent(fid,i+1);
if (ncomp < 0) {
MESSAGE("Erreur à la lecture du nombre de composantes : "); ISCRUTE(ncomp);
exit(1);
}
/* Lecture du type du champ, des noms des composantes et du nom de l'unité*/
comp = (char*) malloc(ncomp*MED_SNAME_SIZE+1);
EXIT_IF(comp == NULL,NULL,NULL);
unit = (char*) malloc(ncomp*MED_SNAME_SIZE+1);
EXIT_IF(unit == NULL,NULL,NULL);
ret = MEDfieldInfo(fid,i+1,nomcha,meshname,&local,&typcha,comp,unit,dtunit,&ncstp);
MED_ERR_EXIT_IF(ret,MED_ERR_ACCESS,MED_ERR_FIELD,nomcha);
if ( (typcha != MED_INT32) && (typcha != MED_INT64) ) goto CONT;
fprintf(stdout," >>> Normalisation du champ [%s] \n",nomcha);
/* champs aux noeuds */
lret = getFieldsOn(fid, meshname, _nmodels, geotype_elst,geotypename_elst,
nomcha, dtunit, typcha, ncomp, comp, unit, MED_NODE, mode_coo, ncstp);
/* champs sur les elements et aux points de Gauss */
if (lret == 0) lret = getFieldsOn(fid, meshname, _nmodels, geotype_elst, geotypename_elst,
nomcha, dtunit, typcha, ncomp, comp, unit, MED_CELL, mode_coo, ncstp);
else { MESSAGE("Erreur à la lecture des champs aux noeuds "); ret = -1; continue;}
if (lret == 0) lret = getFieldsOn(fid, meshname, _nmodels, geotype_elst, geotypename_elst,
nomcha, dtunit, typcha, ncomp, comp, unit, MED_DESCENDING_FACE, mode_coo, ncstp);
else { MESSAGE("Erreur à la lecture des champs aux mailles "); ret = -1; continue;}
if (lret == 0) lret = getFieldsOn(fid, meshname, _nmodels, geotype_elst, geotypename_elst,
nomcha, dtunit, typcha, ncomp, comp, unit, MED_DESCENDING_EDGE, mode_coo, ncstp);
else {MESSAGE("Erreur à la lecture des champs aux faces "); ret = -1; continue;}
if (lret == 0) lret = getFieldsOn(fid, meshname, _nmodels, geotype_elst, geotypename_elst,
nomcha, dtunit, typcha, ncomp, comp, unit, MED_NODE_ELEMENT,mode_coo, ncstp);
else {MESSAGE("Erreur a la lecture des champs aux aretes "); ret = -1; continue;}
if (lret != 0) {MESSAGE("Erreur a la lecture des champs aux noeuds des mailles "); ret = -1;};
if (_nmodels)
lret = getFieldsOn(fid, meshname, _nmodels, geotype_elst,geotypename_elst,
nomcha, dtunit, typcha, ncomp, comp, unit, MED_STRUCT_ELEMENT,mode_coo, ncstp);
if (lret != 0) {MESSAGE("Erreur a la lecture des champs aux éléments de sructure "); ret = -1;};
/*A ce stade _pathf contient les champs au nouveau format */
/*A ce stade _pathi contient les champs initiaux */
strncpy(&_pathi[MED_FIELD_GRP_SIZE] ,nomcha,MED_NAME_SIZE+1);
strncpy(&_pathf[MED_FIELD_GRP_SIZE+1],nomcha,MED_NAME_SIZE+1);
EXIT_IF( (H5Ldelete(fid, _pathi , H5P_DEFAULT) < 0) ,"Delete " ,_pathi);
/* if ( H5Ldelete(fid, _pathi , H5P_DEFAULT) < 0) H5Eprint(stderr); */
EXIT_IF( (H5Gmove (fid, _pathf , _pathi ) < 0) ,"Moving ",_pathf);
/* if (H5Gmove (fid, _pathf , _pathi ) < 0) H5Eprint(stdout); */
fprintf(stdout," >>> Normalisation du champ [%s] : ... OK ... \n",nomcha);
strncpy(_pathi,MED_FIELD_GRP,MED_FIELD_GRP_SIZE+1 );
strncpy(_pathf,"/CHA_/" ,MED_FIELD_GRP_SIZE+1 +1);
CONT:
free(comp);
free(unit);
/* MAJ_version_num(fid,3,2,1); */
}
_datasetexist=H5Lexists( fid, _pathf, H5P_DEFAULT );
if (_datasetexist ) {
/* EXIT_IF( (H5Ldelete(fid,_pathi, H5P_DEFAULT) < 0) ,"Delete ",_pathi); */
/* EXIT_IF( (H5Gmove(fid, _pathf, _pathi ) < 0) ,"Switch to ",_pathf); */
EXIT_IF( (H5Ldelete(fid,_pathf, H5P_DEFAULT) < 0) ,"Delete ",_pathf);
}
free(geotype_elst);
free(geotypename_elst);
/* _MEDobjetsOuverts(fid); */
}
MAJ_320_330.h
USER_MODE
#define USER_MODE
Definition MAJ_320_330_champs.c:28
MAJ_320_330_champs
void MAJ_320_330_champs(med_idt fid)
Definition MAJ_320_330_champs.c:282
getFieldsOn
med_err getFieldsOn(med_idt fid, const char *const nommaa, med_int nmodels, const med_geometry_type *geotype_elst, const char *geotypename_elst, const char *const nomcha, const char *const dtunit, const med_field_type typcha, const med_int ncomp, const char *const comp, const char *const unit, const med_entity_type entite, const med_switch_mode stockage, const med_int ncstp)
Definition MAJ_320_330_champs.c:30
MAJ_version_num
void MAJ_version_num(med_idt fid, const int majeur, const int mineur, const int release)
Definition MAJ_version.c:23
MAJ_version.h
MED_NAME_SIZE
#define MED_NAME_SIZE
Definition build.python3.12/include/med.h:81
med_switch_mode
med_switch_mode
Definition build.python3.12/include/med.h:96
MED_NO_INTERLACE
@ MED_NO_INTERLACE
Definition build.python3.12/include/med.h:98
med_geometry_type
int med_geometry_type
Definition build.python3.12/include/med.h:194
MED_SNAME_SIZE
#define MED_SNAME_SIZE
Definition build.python3.12/include/med.h:82
med_bool
med_bool
Definition build.python3.12/include/med.h:260
MED_FALSE
@ MED_FALSE
Definition build.python3.12/include/med.h:260
med_data_type
med_data_type
Definition build.python3.12/include/med.h:149
MED_CONNECTIVITY
@ MED_CONNECTIVITY
Definition build.python3.12/include/med.h:149
MED_COORDINATE
@ MED_COORDINATE
Definition build.python3.12/include/med.h:149
MED_GET_EDGE_GEOMETRY_TYPE
MEDC_EXPORT med_geometry_type MED_GET_EDGE_GEOMETRY_TYPE[MED_N_EDGE_FIXED_GEO+2]
Definition MEDiterators.c:140
MED_NO_PROFILE_INTERNAL
#define MED_NO_PROFILE_INTERNAL
Definition build.python3.12/include/med.h:290
MED_GET_ENTITY_TYPENAME
MEDC_EXPORT const char *const MED_GET_ENTITY_TYPENAME[MED_N_ENTITY_TYPES+2]
Definition MEDiterators.c:36
med_int32
int32_t med_int32
Definition build.python3.12/include/med.h:334
med_field_type
med_field_type
Definition build.python3.12/include/med.h:165
MED_INT
@ MED_INT
Definition build.python3.12/include/med.h:170
MED_INT64
@ MED_INT64
Definition build.python3.12/include/med.h:169
MED_INT32
@ MED_INT32
Definition build.python3.12/include/med.h:168
MED_FLOAT64
@ MED_FLOAT64
Definition build.python3.12/include/med.h:166
MED_FLOAT32
@ MED_FLOAT32
Definition build.python3.12/include/med.h:167
MED_GET_CELL_GEOMETRY_TYPENAME
MEDC_EXPORT const char *const MED_GET_CELL_GEOMETRY_TYPENAME[MED_N_CELL_FIXED_GEO+2]
Definition MEDiterators.c:84
MED_MAX_PARA
#define MED_MAX_PARA
Definition build.python3.12/include/med.h:76
MED_SORT_DTIT
@ MED_SORT_DTIT
Definition build.python3.12/include/med.h:300
MED_FIELD
@ MED_FIELD
Definition build.python3.12/include/med.h:188
MED_MESH
@ MED_MESH
Definition build.python3.12/include/med.h:188
MED_ALL_CONSTITUENT
#define MED_ALL_CONSTITUENT
Definition build.python3.12/include/med.h:293
MED_GET_FACE_GEOMETRY_TYPENAME
MEDC_EXPORT const char *const MED_GET_FACE_GEOMETRY_TYPENAME[MED_N_FACE_FIXED_GEO+2]
Definition MEDiterators.c:127
med_float64
double med_float64
Definition build.python3.12/include/med.h:328
MED_GET_NODE_GEOMETRY_TYPENAME
MEDC_EXPORT const char * MED_GET_NODE_GEOMETRY_TYPENAME[MED_N_NODE_FIXED_GEO+2]
Definition MEDiterators.c:162
med_int
int med_int
Definition build.python3.12/include/med.h:333
MED_N_NODE_FIXED_GEO
#define MED_N_NODE_FIXED_GEO
Definition build.python3.12/include/med.h:251
MED_NONE
#define MED_NONE
Definition build.python3.12/include/med.h:231
MED_INTERNAL_INT
@ MED_INTERNAL_INT
Definition build.python3.12/include/med.h:158
MED_GET_NODE_GEOMETRY_TYPE
MEDC_EXPORT med_geometry_type MED_GET_NODE_GEOMETRY_TYPE[MED_N_NODE_FIXED_GEO+2]
Definition MEDiterators.c:156
med_entity_type
med_entity_type
Definition build.python3.12/include/med.h:143
MED_NODE
@ MED_NODE
Definition build.python3.12/include/med.h:143
MED_UNDEF_ENTITY_TYPE
@ MED_UNDEF_ENTITY_TYPE
Definition build.python3.12/include/med.h:145
MED_CELL
@ MED_CELL
Definition build.python3.12/include/med.h:143
MED_NODE_ELEMENT
@ MED_NODE_ELEMENT
Definition build.python3.12/include/med.h:144
MED_DESCENDING_FACE
@ MED_DESCENDING_FACE
Definition build.python3.12/include/med.h:143
MED_STRUCT_ELEMENT
@ MED_STRUCT_ELEMENT
Definition build.python3.12/include/med.h:144
MED_DESCENDING_EDGE
@ MED_DESCENDING_EDGE
Definition build.python3.12/include/med.h:143
MED_GET_FACE_GEOMETRY_TYPE
MEDC_EXPORT med_geometry_type MED_GET_FACE_GEOMETRY_TYPE[MED_N_FACE_FIXED_GEO+2]
Definition MEDiterators.c:114
MED_N_FACE_FIXED_GEO
#define MED_N_FACE_FIXED_GEO
Definition build.python3.12/include/med.h:243
med_float
double med_float
Definition build.python3.12/include/med.h:327
med_size
hsize_t med_size
Definition build.python3.12/include/med.h:320
MED_N_EDGE_FIXED_GEO
#define MED_N_EDGE_FIXED_GEO
Definition build.python3.12/include/med.h:247
med_err
herr_t med_err
Definition build.python3.12/include/med.h:323
MED_N_CELL_FIXED_GEO
#define MED_N_CELL_FIXED_GEO
Definition build.python3.12/include/med.h:239
med_float32
float med_float32
Definition build.python3.12/include/med.h:330
med_int64
int64_t med_int64
Definition build.python3.12/include/med.h:335
MED_GET_EDGE_GEOMETRY_TYPENAME
MEDC_EXPORT const char * MED_GET_EDGE_GEOMETRY_TYPENAME[MED_N_EDGE_FIXED_GEO+2]
Definition MEDiterators.c:148
MED_GET_CELL_GEOMETRY_TYPE
MEDC_EXPORT med_geometry_type MED_GET_CELL_GEOMETRY_TYPE[MED_N_CELL_FIXED_GEO+2]
Definition MEDiterators.c:55
med_idt
hid_t med_idt
Definition build.python3.12/include/med.h:322
MED_NODAL
@ MED_NODAL
Definition build.python3.12/include/med.h:255
MED_DESCENDING
@ MED_DESCENDING
Definition build.python3.12/include/med.h:255
EXIT_IF
#define EXIT_IF(expression, message, arg)
Definition build.python3.12/include/med_utils.h:343
SSCRUTE
#define SSCRUTE(chaine)
Definition build.python3.12/include/med_utils.h:323
MED_ERR_EXIT_IF
#define MED_ERR_EXIT_IF(expression, r1, r2, arg)
Definition build.python3.12/include/med_utils.h:356
MESSAGE
#define MESSAGE(chaine)
Definition build.python3.12/include/med_utils.h:324
ISCRUTE
#define ISCRUTE(entier)
Definition build.python3.12/include/med_utils.h:313
IFORMAT
#define IFORMAT
Definition build.python3.12/include/med_utils.h:145
ISCRUTE_int
#define ISCRUTE_int(entier)
Definition build.python3.12/include/med_utils.h:314
MEDnField
MEDC_EXPORT med_int MEDnField(const med_idt fid)
Cette fonction permet de lire le nombre de champs dans un fichier.
Definition MEDnField.c:35
MEDfieldComputingStepMeshInfo
MEDC_EXPORT med_err MEDfieldComputingStepMeshInfo(const med_idt fid, const char *const fieldname, const int csit, med_int *const numdt, med_int *const numit, med_float *const dt, med_int *const meshnumdt, med_int *const meshnumit)
Cette fonction permet de lire les informations caractérisant une étape de calcul : numéro de pas de t...
Definition MEDfieldComputingStepMeshInfo.c:39
MEDfieldValueWithProfileRd
MEDC_EXPORT med_err MEDfieldValueWithProfileRd(const med_idt fid, const char *const fieldname, const med_int numdt, const med_int numit, const med_entity_type entitype, const med_geometry_type geotype, const med_storage_mode storagemode, const char *const profilename, const med_switch_mode switchmode, const med_int componentselect, unsigned char *const value)
Cette fonction permet de lire les valeurs d'un champ définies sur des entités d'un maillage pour une ...
Definition MEDfieldValueWithProfileRd.c:42
MEDfieldCr
MEDC_EXPORT med_err MEDfieldCr(const med_idt fid, const char *const fieldname, const med_field_type fieldtype, const med_int ncomponent, const char *const componentname, const char *const componentunit, const char *const dtunit, const char *const meshname)
Cette fonction crée un champ dans un fichier.
Definition MEDfieldCr.c:44
MEDfieldnValueWithProfile
MEDC_EXPORT med_int MEDfieldnValueWithProfile(const med_idt fid, const char *const fieldname, const med_int numdt, const med_int numit, const med_entity_type entitype, const med_geometry_type geotype, const int profileit, const med_storage_mode storagemode, char *const profilename, med_int *const profilesize, char *const localizationname, med_int *const nintegrationpoint)
Cette fonction permet de lire le nombre de valeurs à lire dans un champ pour une étape de calcul,...
Definition MEDfieldnValueWithProfile.c:45
MEDfieldComputingStepMeshWr
MEDC_EXPORT med_err MEDfieldComputingStepMeshWr(const med_idt fid, const char *const fieldname, const med_int numdt, const med_int numit, const med_int meshnumdt, const med_int meshnumit)
Cette fonction permet de définir l'étape de calcul ( meshnumdit , meshnumit ) à utiliser pour le mail...
Definition MEDfieldComputingStepMeshWr.c:36
MEDfieldnProfile
MEDC_EXPORT med_int MEDfieldnProfile(const med_idt fid, const char *const fieldname, const med_int numdt, const med_int numit, const med_entity_type enttype, const med_geometry_type geotype, char *const defaultprofilename, char *const defaultlocalizationname)
Cette fonction permet de lire le nombre de profils référencés dans un champ pour une étape de calcul,...
Definition MEDfieldnProfile.c:40
MEDfieldnComponent
MEDC_EXPORT med_int MEDfieldnComponent(const med_idt fid, const int ind)
Cette fonction lit le nombre de composantes d'un champ.
Definition MEDfieldnComponent.c:34
MEDfieldValueWithProfileWr
MEDC_EXPORT med_err MEDfieldValueWithProfileWr(const med_idt fid, const char *const fieldname, const med_int numdt, const med_int numit, const med_float dt, const med_entity_type entitype, const med_geometry_type geotype, const med_storage_mode storagemode, const char *const profilename, const char *const localizationname, const med_switch_mode switchmode, const med_int componentselect, const med_int nentity, const unsigned char *const value)
Cette fonction permet d'écrire les valeurs d'un champ définies sur des entités d'un maillage pour une...
Definition MEDfieldValueWithProfileWr.c:48
MEDfieldInfo
MEDC_EXPORT med_err MEDfieldInfo(const med_idt fid, const int ind, char *const fieldname, char *const meshname, med_bool *const localmesh, med_field_type *const fieldtype, char *const componentname, char *const componentunit, char *const dtunit, med_int *const ncstp)
Cette fonction permet de lire les informations concernant le champ d'indice ind .
Definition MEDfieldInfo.c:42
MEDfileObjectExist
MEDC_EXPORT med_err MEDfileObjectExist(const med_idt fid, const med_class medclass, const char *const objectname, med_bool *const objectexist)
Interroge le fichier fid pour tester l'existence de l'objet objectname de type medclass.
Definition MEDfileObjectExist.c:47
MEDmeshnEntity
MEDC_EXPORT med_int MEDmeshnEntity(const med_idt fid, const char *const meshname, const med_int numdt, const med_int numit, const med_entity_type entitype, const med_geometry_type geotype, const med_data_type datatype, const med_connectivity_mode cmode, med_bool *const changement, med_bool *const transformation)
Cette routine permet de lire le nombre d'entités dans un maillage pour une étape de calcul donnée.
Definition MEDmeshnEntity.c:44
MEDnStructElement
MEDC_EXPORT med_int MEDnStructElement(const med_idt fid)
Cette routine renvoie le nombre de modèles d'éléments de structure.
Definition MEDnStructElement.c:35
MEDstructElementInfo
MEDC_EXPORT med_err MEDstructElementInfo(const med_idt fid, const int mit, char *const modelname, med_geometry_type *const mgeotype, med_int *const modeldim, char *const supportmeshname, med_entity_type *const sentitytype, med_int *const snnode, med_int *const sncell, med_geometry_type *const sgeotype, med_int *const nconstantattribute, med_bool *const anyprofile, med_int *const nvariableattribute)
Cette routine décrit les caractéristiques d'un modèle d'élément de structure par itération.
Definition MEDstructElementInfo.c:50
MED_ERR_CALL
#define MED_ERR_CALL
Definition med_err.h:48
MED_ERR_FIELD
#define MED_ERR_FIELD
Definition med_err.h:91
MED_ERR_INVALID
#define MED_ERR_INVALID
Definition med_err.h:40
MED_ERR_ACCESS
#define MED_ERR_ACCESS
Definition med_err.h:31
MED_ERR_ATTRIBUTE
#define MED_ERR_ATTRIBUTE
Definition med_err.h:100
MED_ERR_CREATE
#define MED_ERR_CREATE
Definition med_err.h:27
MED_ERR_API
#define MED_ERR_API
Definition med_err.h:111
MED_ERR_WRITE
#define MED_ERR_WRITE
Definition med_err.h:29
_MEDattributeNumRdByName
MEDC_EXPORT med_err _MEDattributeNumRdByName(med_idt pid, const char *const path, const char *const attname, const med_internal_type type, unsigned char *const val)
_MEDgetComputationStepName
MEDC_EXPORT med_err _MEDgetComputationStepName(const med_sorting_type sortingtype, const med_int numdt, const med_int numit, char *const datagroupname)
_MEDgetFieldEntityGeoTypeName
MEDC_EXPORT med_err _MEDgetFieldEntityGeoTypeName(med_idt fid, char *const entitygeotypename, const med_entity_type entitytype, const med_geometry_type geotype)
MED_TAILLE_NOM_ENTITE
#define MED_TAILLE_NOM_ENTITE
Definition med_outils.h:38
MED_FIELD_GRP
#define MED_FIELD_GRP
Definition med_outils.h:169
MED_FIELD_GRP_SIZE
#define MED_FIELD_GRP_SIZE
Definition med_outils.h:170
MED_NOM_NBR
#define MED_NOM_NBR
Definition med_outils.h:40
med_outils.h