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francois |
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#include <stdio.h> |
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#include <math.h> |
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#include <stdlib.h> |
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#include "m3d_struct.h" |
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#include "m3d_const.h" |
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#include "m3d_hotes.h" |
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#include "m3d_erreur.h" |
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#include "prototype.h" |
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extern GEST_MEM *gest ; |
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extern int debug ; |
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int m3d_gene(FACE *face,NOEUD **nresu,int *hist,float critere) |
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{ |
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/* variables locales */ |
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float *coord ; |
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NOEUD *noe_g ; |
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char mess[255]; |
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OCT *oct ; |
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int i, j ; |
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float xi,yi, zi, val ; |
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float vab[3], vac[3], vbc[3], vn[3], norme, pvec[3], dab, dbc, dac ; |
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float crit ; |
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int test_inter, nb ; |
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float perimetre, hauteur, h ; |
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float tab_xi[12] ; |
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int ierr ; |
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float hmin, hmax, elan ; |
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*nresu = NULL ; |
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coord = gest->coord ; |
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/* barycentre du point */ |
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xi = (coord[x((face->n1)->num)] + coord[x((face->n2)->num)] + coord[x((face->n3)->num)])/3. ; |
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yi = (coord[y((face->n1)->num)] + coord[y((face->n2)->num)] + coord[y((face->n3)->num)])/3. ; |
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zi = (coord[z((face->n1)->num)] + coord[z((face->n2)->num)] + coord[z((face->n3)->num)])/3. ; |
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/* calcul de la normale */ |
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vab[0] = coord[x((face->n2)->num)] - coord[x((face->n1)->num)] ; |
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vab[1] = coord[y((face->n2)->num)] - coord[y((face->n1)->num)] ; |
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vab[2] = coord[z((face->n2)->num)] - coord[z((face->n1)->num)] ; |
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dab = NORME(vab) ; |
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vac[0] = coord[x((face->n3)->num)] - coord[x((face->n1)->num)] ; |
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vac[1] = coord[y((face->n3)->num)] - coord[y((face->n1)->num)] ; |
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vac[2] = coord[z((face->n3)->num)] - coord[z((face->n1)->num)] ; |
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dac = NORME(vac) ; |
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vbc[0] = coord[x((face->n3)->num)] - coord[x((face->n2)->num)] ; |
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vbc[1] = coord[y((face->n3)->num)] - coord[y((face->n2)->num)] ; |
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vbc[2] = coord[z((face->n3)->num)] - coord[z((face->n2)->num)] ; |
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dbc = NORME(vbc) ; |
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hmin = min(dab,dac) ; |
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hmin = min(hmin,dbc) ; |
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hmax = max(dab,dac) ; |
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hmax = max(hmin,dbc) ; |
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elan = hmax/hmin ; |
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if (elan < 2.) hmin = hmin/2. ; |
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tab_xi[x(0)] = xi ; |
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tab_xi[y(0)] = yi ; |
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tab_xi[z(0)] = zi ; |
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/* |
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tab_xi[x(1)] = coord[x((face->n1)->num)] ; |
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tab_xi[y(1)] = coord[y((face->n1)->num)] ; |
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tab_xi[z(1)] = coord[z((face->n1)->num)] ; |
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tab_xi[x(2)] = coord[x((face->n2)->num)] ; |
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tab_xi[y(2)] = coord[y((face->n2)->num)] ; |
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tab_xi[z(2)] = coord[z((face->n2)->num)] ; |
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tab_xi[x(3)] = coord[x((face->n3)->num)] ; |
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tab_xi[y(3)] = coord[y((face->n3)->num)] ; |
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tab_xi[z(3)] = coord[z((face->n3)->num)] ; |
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*/ |
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/* calcul du critere 2 D */ |
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pvec[0] = PVECX(vab,vac) ; |
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pvec[1] = PVECY(vab,vac) ; |
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pvec[2] = PVECZ(vab,vac) ; |
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/* determination du critere */ |
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perimetre = dab + dbc + dac ; |
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hauteur = perimetre/3. ; |
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vn[0] = PVECX(vab,vac) ; |
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vn[1] = PVECY(vab,vac) ; |
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vn[2] = PVECZ(vab,vac) ; |
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norme = NORME(vn) ; |
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for (i=0;i<3;i++) vn[i] = vn[i]/norme ; |
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/* strategie de generation */ |
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/* si la face de recherche a deja ete construite en generant un point, on peut boucler */ |
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/* creation du noeud */ |
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noe_g = m3d_c_noe() ; |
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if (noe_g == NULL) return(FAUX) ; |
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i = 0 ; |
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j = 0 ; |
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val = 10 ; |
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while (j<3)/* on fait varier la hauteur */ |
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{ |
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switch (j) |
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{ |
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case 0 : |
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val = (face->tab).val0 ; |
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break ; |
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case 1 : |
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val = (face->tab).val1 ; |
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break ; |
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case 2 : |
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val = (face->tab).val2 ; |
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break ; |
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case 3 : |
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val = (face->tab).val3 ; |
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break ; |
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default : |
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return(FAUX) ; |
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} |
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if (val==0) |
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{ |
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h = hmin/(5*j+1.) ; |
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coord[x(noe_g->num)] = tab_xi[x(i)] + h * vn[0] ; |
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coord[y(noe_g->num)] = tab_xi[y(i)] + h * vn[1] ; |
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coord[z(noe_g->num)] = tab_xi[z(i)] + h * vn[2] ; |
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/* ----------------------------------------------------------- */ |
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/* remarque : on ne cree le noeud que si le noeud est SOLUTION */ |
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/* ----------------------------------------------------------- */ |
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ierr = FAUX ; |
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crit = m3d_e_qual(coord,(face->n1)->num,(face->n2)->num,(face->n3)->num,noe_g->num) ; |
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if (crit>critere) |
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{ |
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test_inter = m3d_cpfront(coord,face,noe_g,&ierr) ; |
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if (ierr == VRAI) |
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{ |
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return(FAUX) ; |
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} |
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if (test_inter==FAUX) |
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/* on a trouve un noeud solution */ |
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{ |
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oct = NULL ; |
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m3d_io_noe(coord+3*(noe_g->num),gest->root,&oct,&ierr) ; |
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if (ierr == VRAI) |
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{ |
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if (debug) |
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{ |
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sprintf(mess,"%s\n"," Erreur m3d_io_noe M3D_GENE ") ; |
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//aff_text(mess); |
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sprintf(mess,"xg:%f yg:%fzg:%f\n",coord[x(noe_g->num)],coord[y(noe_g->num)],coord[z(noe_g->num)]); |
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//aff_text(mess); |
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} |
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return(FAUX) ; |
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} |
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if (oct == NULL) |
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{ |
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if (debug) |
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{ |
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sprintf(mess,"%s\n"," Erreur m3d_io_noe M3D_GENE ") ; |
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//aff_text(mess); |
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sprintf(mess,"%s\n"," Aucun oct trouve M3D_GENE ") ; |
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//aff_text(mess); |
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sprintf(mess," xg:%f yg:%f zg:%f\n",coord[x(noe_g->num)],coord[y(noe_g->num)],coord[z(noe_g->num)]) ; |
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//aff_text(mess); |
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} |
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m3d_erreur(ERR_SYST) ; |
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return(FAUX) ; |
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} |
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/* chainage noeud octree */ |
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/* insertion en tete */ |
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noe_g->suivant = oct->lis_noe ; |
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oct->lis_noe = noe_g ; |
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noe_g->oct = oct ; |
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*nresu = noe_g ; |
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if (face->hist == 0) *hist = PROCHE ; |
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else *hist = GENERATION ; |
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switch (j) |
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{ |
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case 0 : |
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(face->tab).val0 = 1 ; |
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break ; |
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case 1 : |
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(face->tab).val1 = 1 ; |
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break ; |
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case 2 : |
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(face->tab).val2 = 1 ; |
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break ; |
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case 3 : |
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(face->tab).val3 = 1 ; |
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break ; |
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} |
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return(VRAI) ; |
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} |
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} |
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} |
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j++ ; |
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} |
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/* le noeud n'est pas solution, on ne l'utilise pas */ |
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gest->nb_noeud = gest->nb_noeud - 1 ; |
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*nresu=NULL ; |
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return(VRAI) ; |
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} |
