Tri::Tri(int i_d, char ty, int L, int Qa, int Qb, int Qc, Coord *X){
int i;
if(!Tri_wk.get())
Tri_work();
id = i_d;
type = ty;
state = 'p';
Nverts = 3;
Nedges = 3;
Nfaces = 1;
vert = (Vert *)calloc(Nverts,sizeof(Vert));
edge = (Edge *)calloc(Nedges,sizeof(Edge));
face = (Face *)calloc(Nfaces,sizeof(Face));
lmax = L;
interior_l = 0;
Nmodes = L*(L+1)/2;
Nbmodes = Nmodes - (L-3)*(L-2)/2;
qa = Qa;
qb = Qb;
qc = Qc;
qtot = qa*qb;
/* set vertex solve mask to 1 by default */
for(i = 0; i < Nverts; ++i){
vert[i].id = i;
vert[i].eid = id;
vert[i].solve = 1;
vert[i].x = X->x[i];
vert[i].y = X->y[i];
}
/* construct edge system */
for(i = 0; i < Nedges; ++i){
edge[i].id = i;
edge[i].eid = id;
edge[i].l = L-2;
}
/* construct face system */
for(i = 0; i < Nfaces; ++i){
face[i].id = i;
face[i].eid = id;
face[i].l = max(0,L-3);
}
vert[0].hj = (double*) 0;
face[0].hj = (double**) 0;
h = (double**) 0;
hj_3d = (double***)0;
h_3d = (double***)0;
curve = (Curve*)NULL;
curvX = (Cmodes*)NULL;
}
Tri::Tri(Element *E)
{
if(!Tri_wk.get())
Tri_work();
id = E->id;
type = E->type;
state = 'p';
Nverts = 3;
Nedges = 3;
Nfaces = 1;
vert = (Vert *)calloc(Nverts,sizeof(Vert));
edge = (Edge *)calloc(Nedges,sizeof(Edge));
face = (Face *)calloc(Nfaces,sizeof(Face));
lmax = E->lmax;
interior_l = E->interior_l;
Nmodes = E->Nmodes;
Nbmodes = E->Nbmodes;
qa = E->qa;
qb = E->qb;
qc = 0;
qtot = E->qtot;
memcpy(vert,E->vert,Nverts*sizeof(Vert));
memcpy(edge,E->edge,Nedges*sizeof(Edge));
memcpy(face,E->face,Nfaces*sizeof(Face));
/* set memory */
vert[0].hj = (double*) 0;
face[0].hj = (double**) 0;
h = (double**) 0;
hj_3d = (double***)0;
h_3d = (double***)0;
curve = E->curve;
curvX = E->curvX;
geom = E->geom;
dgL = E->dgL;
group = E->group;
}
Element_List *Grid::gen_aux_field(){
int L, qa, qb, qc=0, k;
char buf[BUFSIZ];
char buf_a[BUFSIZ];
Element **new_E;
register int i;
option_set("NZ",1);
option_set("NZTOT",1);
/* set up modes and quadrature points */
if(!( L = iparam("MODES")))
{fputs("ReadMesh: Number of modes not specified\n",stderr);exit(-1);}
/* note quadrature order reset for variable order runs */
if(qa = iparam("LQUAD"));
else qa = L + 1;
if(qb = iparam("MQUAD"));
else qb = L;
if(qc = iparam("NQUAD"));
else qc = L;
iparam_set("ELEMENTS", nel);
/* Set up a new element vector */
QGmax = max(max(qa,qb),qc);
LGmax = L;
new_E = (Element**) malloc(nel*sizeof(Element*));
Coord X;
X.x = dvector(0,Max_Nverts-1);
X.y = dvector(0,Max_Nverts-1);
X.z = dvector(0,Max_Nverts-1);
/* Read in mesh information */
for(k = 0; k < nel; k++) {
for(i=0;i<nverts[k];++i){
X.x[i] = xcoords[vertids[k][vertexmap[k][i]]];
X.y[i] = ycoords[vertids[k][vertexmap[k][i]]];
X.z[i] = zcoords[vertids[k][vertexmap[k][i]]];
}
switch(nverts[k]){
case 4:
new_E[k] = new Tet(k,'u', L, qa, qb, qb, &X);
break;
case 8:
new_E[k] = new Hex(k,'u', L, qa, qa, qa, &X);
break;
case 6:
new_E[k] = new Prism(k,'u', L, qa, qa, qb, &X);
break;
case 5:
new_E[k] = new Pyr(k,'u', L, qa, qa, qb, &X);
break;
}
}
for(k = 0; k < nel-1; ++k) new_E[k]->next = new_E[k+1];
new_E[k]->next = (Element*) NULL;
Element_List* E_List = (Element_List*) new Element_List(new_E, nel);
E_List->Cat_mem();
Tri_work();
Quad_work();
for(k = 0; k < nel; ++k)
new_E[k]->set_curved_elmt(E_List);
for(k = 0; k < nel; ++k)
new_E[k]->set_geofac();
return E_List;
}