int main(int argc, char **argv)
{
// load the input file
MBErrorCode result, rval;
MBEntityHandle input_set;
rval = MBI()->create_meshset( MESHSET_SET, input_set ); // create a meshset for data
// build a fairly arbitary geometry
MBEntityHandle handles[2];
build_geometry(input_set,handles);
MBTag density_tag;
// create a tag
std::cout << handles[0] << " " << handles[1] << std::endl;
rval = MBI()->tag_get_handle( "Density",1, MB_TYPE_DOUBLE,density_tag,
moab::MB_TAG_SPARSE|moab::MB_TAG_CREAT);
if(rval != MB_SUCCESS)
{
std::cout << "Failed to create tag!" << std::endl;
return rval;
}
double density = 9.0;
double zero = 0.0;
// tag the data
rval = MBI()->tag_set_data( density_tag, &(handles[1]), 1, &density );
rval = MBI()->tag_set_data( density_tag, &(handles[0]), 1, &zero );
// save the mesh
rval = MBI()->write_mesh("test.h5m");
return 0;
}
size_t WKT(int polygon)
{
while (listHasData(&segs))
{
struct keyval *p;
unsigned int id, to, from;
double x0, y0, x1, y1;
p = popItem(&segs);
id = strtoul(p->value, NULL, 10);
freeItem(p);
from = segments[id].from;
to = segments[id].to;
x0 = nodes[from].lon;
y0 = nodes[from].lat;
x1 = nodes[to].lon;
y1 = nodes[to].lat;
add_segment(x0,y0,x1,y1);
}
return build_geometry(polygon);
}
int main() {
Py_Initialize(); // start Python interpreter
PyObject* sysPath = PySys_GetObject((char*)"path");
// sysPath has a borrowed reference, no need to decref it
PyObject* curDir = PyString_FromString(".");
PyList_Append(sysPath, curDir);
Py_DECREF(curDir);
FILE * fp;
time_t current_time;
char* c_time_string;
int i, j, k, cnt;
LUC_sim_pars *simp;
LUC_fields *fields;
LUC_diel_mat *diel;
LUC_abc_fields *abc_fields;
LUC_source **src;
printf("------------------------------ LUCIFER v0.3 ------------------------------\n\n");
simp = par_config("luc");//<----fix name
if(!simp){
printf(C_RED "[ERROR]" C_RES " failed to read configuration file %s\n","luc");
return 0;
}
printf(C_GREEN "[MSG]" C_RES " configuration file read successfully\n");
fields = allocate_fields(simp);
if(!fields){
printf(C_RED "[ERROR]" C_RES " failed to allocate fields (out of memory?)\n");
return 0;
}
printf(C_GREEN "[MSG]" C_RES " e.m. fields are allocated\n");
diel = allocate_diel(simp);
if(!diel){
printf(C_RED "[ERROR]" C_RES " failed to allocate materials (out of memory?)\n");
return 0;
}
printf(C_GREEN "[MSG]" C_RES " materials and geometry are allocated\n");
abc_fields = allocate_abc(simp);
if(!abc_fields){
printf(C_RED "[ERROR]" C_RES " failed to allocate abc fields (out of memory?)\n");
return 0;
}
printf(C_GREEN "[MSG]" C_RES " fields for ABC are allocated\n");
src = malloc((*simp).n_sources*sizeof(LUC_source**));
if(!src){
printf(C_RED "[ERROR]" C_RES " failed to allocate sources (out of memory?)\n");
return 0;
}
for(cnt = 0; cnt < (*simp).n_sources; cnt++)
if(!source_init((*simp).src_files[cnt], &src[cnt], simp))
printf(C_RED "[ERROR]" C_RES "source_init: failed to allocated source %d\n",cnt);
printf(C_GREEN "[MSG]" C_RES " sources are allocated\n");
printf(C_GREEN "[MSG]" C_RES " building geometry...\n");
printf(C_GREEN "[MSG]" C_RES " msgs from " C_BLUE "%s.py" C_RES " begin\n",(*simp).geom_file);
build_geometry((*simp).geom_file, simp, diel);
printf(C_GREEN "[MSG]" C_RES " msgs from " C_BLUE "%s.py" C_RES " end\n",(*simp).geom_file);
printf(C_GREEN "[MSG]" C_RES " geometry done\n\n");
printf(C_GREEN "[MSG]" C_RES " simulated domain: x = %g m; y = %g m; z = %g m;\n",(*simp).size_x*(*simp).cell_size,(*simp).size_y*(*simp).cell_size,(*simp).size_z*(*simp).cell_size);
printf(C_GREEN "[MSG]" C_RES " simulated time: %g s\n", (*simp).sim_time);
printf(C_GREEN "[MSG]" C_RES " total number of time steps: %d\n", (*simp).max_time);
//'data will be saved in: ',data_file
// ask if OK
//--------------------------------
//---------- START SIM -----------
//--------------------------------
fp = fopen ("test.dat", "w");
write_header(fp, simp);
current_time = time(NULL);
c_time_string = ctime(¤t_time);
printf(C_GREEN "[MSG]" C_RES " simulation started on: %s", c_time_string);
for ((*simp).t_step = 0; (*simp).t_step < (*simp).max_time; (*simp).t_step++) {
updateH(fields, diel, simp);
updateE(fields, diel, simp);
// add source
for(cnt = 0; cnt < (*simp).n_sources; cnt++)
add_source(src[cnt], fields, simp);
// apply abc
abc(fields, abc_fields, simp);
// apply pbc
//pbc(pbc_k,pbc_f,pbc_l,pbc_r,pbc_b,pbc_t);
write_field_views(fp, fields, simp);
printf(C_GREEN "[MSG]" C_RES " completed: %.2f%%\r", ((float)(*simp).t_step/(float)(*simp).max_time)*100);
}
current_time = time(NULL);
c_time_string = ctime(¤t_time);
printf(C_GREEN "[MSG]" C_RES " simulation finished on: %s\n", c_time_string);
printf("----------------------------------- END ----------------------------------\n");
fclose(fp);
Py_Finalize();
return 1;
}