int
main(int argc, char **argv)
{
point_t a, b, c, d;
struct rt_wdb *fp;
si.magic = RT_NURB_INTERNAL_MAGIC;
si.nsrf = 0;
si.srfs = (struct face_g_snurb **)bu_malloc( sizeof(struct face_g_snurb *)*100, "snurb ptrs");
if ((fp = wdb_fopen(argv[1])) == NULL) {
bu_log("unable to open new database [%s]\n", argv[1]);
perror("unable to open database file");
return 1;
}
mk_id( fp, "Mike's Spline Test" );
VSET( a, 0, 0, 0 );
VSET( b, 10, 0, 0 );
VSET( c, 10, 10, 0 );
VSET( d, 0, 10, 0 );
make_face( a, b, c, d, 2 );
mk_export_fwrite( fp, "spl", (genptr_t)&si, ID_BSPLINE );
return 0;
}
void writeTitle
(
rt_wdb* wdbp,
char* string
) {
mk_id(wdbp, string);
}
/*
* Call parse_args to handle command line arguments first, then
* process input.
*/
int
main(int ac, char *av[])
{
struct bn_tol tol;
FILE *fdplot;
struct rt_wdb *fdmodel;
parse_args(ac, av);
if (ac==1) usage((char *)NULL,0);
if (!manifold[0] && !manifold[1] && !manifold[2] && !manifold[3])
usage("No manifolds selected\n",1);
m = nmg_mm();
r = nmg_mrsv(m);
s = BU_LIST_FIRST(shell, &r->s_hd);
tol.magic = BN_TOL_MAGIC;
tol.dist = 0.01;
tol.dist_sq = tol.dist * tol.dist;
tol.perp = 0.001;
tol.para = 0.999;
if (manifold[3]) make_3manifold_bits(&tol);
if (manifold[2]) make_2manifold_bits(&tol);
if (manifold[1]) make_1manifold_bits();
if (manifold[0]) make_0manifold_bits();
NMG_CK_MODEL(m);
/* write a plot file */
if ((fdplot = fopen(plotfilename, "w")) == (FILE *)NULL)
perror(plotfilename);
else {
nmg_pl_m(fdplot, m);
fclose(fdplot);
}
/* write the database */
if ((fdmodel = wdb_fopen(mfilename)) == NULL)
perror(mfilename);
else {
mk_id(fdmodel, "hairy NMG");
mk_nmg(fdmodel, "s.NMG", m); /* releases m, boo */
/* build a database region mentioning the solid */
mk_comb1(fdmodel, "r.NMG", "s.NMG", 1);
wdb_close(fdmodel);
}
return 0;
}
int off2nmg(FILE *fpin, struct rt_wdb *fpout)
{
char title[64], geom_fname[64];
char rname[67], sname[67];
char buf[200], buf2[200];
FILE *fgeom;
struct model *m;
title[0] = geom_fname[0] = '\0';
bu_fgets(buf, sizeof(buf), fpin);
while (!feof(fpin)) {
/* Retrieve the important data */
if (sscanf(buf, "name %[^\n]s", buf2) > 0)
bu_strlcpy(title, buf2, sizeof(title));
if (sscanf(buf, "geometry %200[^\n]s", buf2) > 0) {
char dtype[40], format[40];
if (sscanf(buf2, "%40s %40s %64s", dtype, format, geom_fname) != 3)
bu_exit(1, "Incomplete geometry field in input file.");
if (!BU_STR_EQUAL(dtype, "indexed_poly"))
bu_exit(1, "Unknown geometry data type. Must be \"indexed_poly\".");
}
bu_fgets(buf, sizeof(buf), fpin);
}
if (strlen(title) < (unsigned)1)
fprintf(stderr, "Warning: no title\n");
if (strlen(geom_fname) < (unsigned)1)
bu_exit(1, "ERROR: no geometry filename given");
if ((fgeom = fopen(geom_fname, "rb")) == NULL) {
bu_exit(1, "off2nmg: cannot open %s (geometry description) for reading\n",
geom_fname);
}
m = nmg_mm();
read_faces(m, fgeom);
fclose(fgeom);
snprintf(sname, 67, "s.%s", title);
snprintf(rname, 67, "r.%s", title);
mk_id(fpout, title);
mk_nmg(fpout, sname, m);
mk_comb1(fpout, rname, sname, 1);
nmg_km(m);
return 0;
}
/**
* main driver logic that creates the various random metaballs and
* then creates another that combines them all into one.
*/
static void
make_spaghetti(const char *filename, const char *name, long count)
{
const char *balls[4] = {"someballs.s", "moreballs.s", "manyballs.s", NULL};
const char title[BUFSIZ] = "metaball";
struct rt_wdb *fp;
struct db_i *dbip;
long some, more, many;
/* get a write-only handle */
fp = wdb_fopen(filename);
if (fp == RT_WDB_NULL)
bu_exit(EXIT_FAILURE, "ERROR: unable to open file for writing.\n");
mk_id(fp, title);
/* just to make things interesting, make varying sized sets */
some = lrint(ceil((double)count * (1.0 / 111.0)));
more = lrint(ceil((double)count * (10.0 / 111.0)));
many = lrint(ceil((double)count * (100.0 / 111.0)));
/* create individual metaballs with random points using LIBWDB */
make_meatballs(fp, balls[0], some);
make_meatballs(fp, balls[1], more);
make_meatballs(fp, balls[2], many);
mk_comb1(fp, "someballs.r", balls[0], 1);
mk_comb1(fp, "moreballs.r", balls[1], 1);
mk_comb1(fp, "manyballs.r", balls[2], 1);
mk_comb1(fp, "meatballs.r", "meatballs.s", 1);
wdb_close(fp);
/* done with the write-only, now begins read/write */
dbip = db_open(filename, DB_OPEN_READWRITE);
if (dbip == DBI_NULL) {
perror("ERROR");
bu_exit(EXIT_FAILURE, "Failed to open geometry file [%s]. Aborting.\n", filename);
}
/* load a database directory */
db_dirbuild(dbip);
/* combine all metaballs into one "mega metaball" */
mix_balls(dbip, name, 3, balls);
/* and clean up */
db_close(dbip);
}
int
main(int argc, char *argv[])
{
point_t a, b, c, d;
struct rt_wdb *fp;
struct rt_nurb_internal *si;
char *filename = "spltest.g";
int helpflag;
if (argc < 1 || argc > 2) {
printusage(argv);
bu_exit(1,NULL);
}
helpflag = (argc == 2 && ( BU_STR_EQUAL(argv[1],"-h") || BU_STR_EQUAL(argv[1],"-?")));
if (argc == 1 || helpflag) {
printusage(argv);
if (helpflag)
bu_exit(1,NULL);
bu_log(" Program continues running:\n");
}
if (argc == 2)
filename = argv[1];
if ((fp = wdb_fopen(filename)) == NULL) {
perror("unable to open geometry database for writing");
bu_exit(1, "unable to open new database [%s]\n", filename);
}
mk_id(fp, "Mike's Spline Test");
VSET(a, 0, 0, 0);
VSET(b, 10, 0, -5);
VSET(c, 10, 10, 10);
VSET(d, 0, 10, 0);
BU_ALLOC(si, struct rt_nurb_internal);
si->magic = RT_NURB_INTERNAL_MAGIC;
si->nsrf = 0;
si->srfs = (struct face_g_snurb **)bu_malloc(sizeof(struct face_g_snurb *)*100, "allocate snurb ptrs");
make_face(si, a, b, c, d, 2);
/* wdb_export */
mk_export_fwrite(fp, "spltest", (void *)si, ID_BSPLINE);
bu_log("Saving file %s\n",filename);
return 0;
}
int
main(int argc, char** argv)
{
struct rt_wdb* outfp;
ON_Brep* brep;
ON_TextLog error_log;
const char* id_name = "B-Rep Example";
const char* geom_name = "cube.s";
ON::Begin();
if (argc > 1) {
printf("Writing a twisted cube b-rep...\n");
outfp = wdb_fopen("brep_cube1.g");
mk_id(outfp, id_name);
brep = MakeTwistedCube(error_log);
mk_brep(outfp, geom_name, brep);
//mk_comb1(outfp, "cube.r", geom_name, 1);
unsigned char rgb[] = {255,255,255};
mk_region1(outfp, "cube.r", geom_name, "plastic", "", rgb);
wdb_close(outfp);
delete brep;
}
printf("Reading a twisted cube b-rep...\n");
struct db_i* dbip = db_open("brep_cube1.g", "r");
db_dirbuild(dbip);
struct directory* dirp;
if ((dirp = db_lookup(dbip, "cube.s", 0)) != DIR_NULL) {
printf("\tfound cube.s\n");
struct rt_db_internal ip;
mat_t mat;
MAT_IDN(mat);
if (rt_db_get_internal(&ip, dirp, dbip, mat, &rt_uniresource) >= 0) {
printPoints((struct rt_brep_internal*)ip.idb_ptr);
} else {
fprintf(stderr, "problem getting internal object rep\n");
}
}
db_close(dbip);
ON::End();
return 0;
}
bool
BRLCADWrapper::OpenFile(std::string &flnm)
{
//TODO: need to check to make sure we aren't overwriting
/* open brlcad instance */
if ((outfp = wdb_fopen(flnm.c_str())) == NULL) {
bu_log("Cannot open output file (%s)\n", flnm.c_str());
return false;
}
// hold on to output filename
filename = flnm.c_str();
mk_id(outfp, "Output from STEP converter step-g.");
return true;
}
/*
* Write the nmg to a BRL-CAD style data base.
*/
void
create_brlcad_db(struct rt_wdb *fpout, struct model *m, char *reg_name, char *grp_name)
{
char *rname, *sname;
int size = sizeof(reg_name) + 3;
mk_id(fpout, "Ascii NMG");
rname = (char *)bu_malloc(size, "rname"); /* Region name. */
sname = (char *)bu_malloc(size, "sname"); /* Solid name. */
snprintf(sname, size, "s.%s", reg_name);
mk_nmg(fpout, sname, m); /* Make nmg object. */
snprintf(rname, size, "r.%s", reg_name);
mk_comb1(fpout, rname, sname, 1); /* Put object in a region. */
if (grp_name) {
mk_comb1(fpout, grp_name, rname, 1); /* Region in group. */
}
}
int
main(int argc, char **argv)
{
if (argc != 2) {
fputs(usage, stderr);
return 1;
}
BU_LIST_INIT(&head.l);
outfp = wdb_fopen("molecule.g");
mk_id(outfp, argv[1]);
read_data();
/* Build the overall combination */
mk_lfcomb(outfp, "mol.g", &head, 0);
wdb_close(outfp);
return 0;
}
int
main(int argc, char **argv)
{
int depth;
if (argc != 2) {
fprintf(stderr, "Usage: pyramid recursion\n");
return 1;
}
depth = atoi(argv[1]);
sin60 = sin(60.0 * DEG2RAD);
outfp = wdb_fopen("pyramid.g");
mk_id(outfp, "3-D Pyramids");
do_leaf("leaf");
do_tree("tree", "leaf", depth);
return 0;
}
func_decl * fpa_decl_plugin::mk_numeral_decl(mpf const & v) {
sort * s = mk_float_sort(v.get_ebits(), v.get_sbits());
func_decl * r = nullptr;
if (m_fm.is_nan(v))
r = m_manager->mk_const_decl(symbol("NaN"), s, func_decl_info(m_family_id, OP_FPA_NAN));
else if (m_fm.is_pinf(v))
r = m_manager->mk_const_decl(symbol("+oo"), s, func_decl_info(m_family_id, OP_FPA_PLUS_INF));
else if (m_fm.is_ninf(v))
r = m_manager->mk_const_decl(symbol("-oo"), s, func_decl_info(m_family_id, OP_FPA_MINUS_INF));
else if (m_fm.is_pzero(v))
r = m_manager->mk_const_decl(symbol("+zero"), s, func_decl_info(m_family_id, OP_FPA_PLUS_ZERO));
else if (m_fm.is_nzero(v))
r = m_manager->mk_const_decl(symbol("-zero"), s, func_decl_info(m_family_id, OP_FPA_MINUS_ZERO));
else {
SASSERT(m_fm.is_regular(v));
parameter p(mk_id(v), true);
SASSERT(p.is_external());
sort * s = mk_float_sort(v.get_ebits(), v.get_sbits());
r = m_manager->mk_const_decl(symbol("fp.numeral"), s, func_decl_info(m_family_id, OP_FPA_NUM, 1, &p));
}
return r;
}
int
main(int argc, char **argv)
{
int depth;
if (argc != 2 || BU_STR_EQUAL(argv[1],"-h") || BU_STR_EQUAL(argv[1],"-?")) {
fprintf(stderr, "Usage: pyramid recursion\n (the argument is of type integer)\n");
return 1;
}
depth = atoi(argv[1]);
sin60 = sin(60.0 * DEG2RAD);
outfp = wdb_fopen("pyramid.g");
printf("Creating file pyramid.g\n");
mk_id(outfp, "3-D Pyramids");
do_leaf("leaf");
do_tree("tree", "leaf", depth);
return 0;
}
int
main(int argc, char** argv)
{
struct rt_wdb* outfp;
ON_Brep* brep;
ON_TextLog error_log;
ON_3dPoint origin(0.0,0.0,0.0);
const char* id_name = "B-Rep Cobb Sphere";
const char* geom_name = "cobb.s";
if (argc > 1 || BU_STR_EQUAL(argv[1], "-h") || BU_STR_EQUAL(argv[1], "-?")) {
return 0;
}
ON::Begin();
/* export brep to file */
bu_log("Writing a Cobb unit sphere b-rep...\n");
outfp = wdb_fopen("brep_cobb.g");
mk_id(outfp, id_name);
brep = Cobb_Sphere(1, &origin);
mk_brep(outfp, geom_name, brep);
//mk_comb1(outfp, "cube.r", geom_name, 1);
unsigned char rgb[] = {50, 255, 50};
mk_region1(outfp, "cobb.r", geom_name, "plastic", "", rgb);
wdb_close(outfp);
delete brep;
ON::End();
return 0;
}
func_decl * float_decl_plugin::mk_value_decl(mpf const & v) {
parameter p(mk_id(v), true);
SASSERT(p.is_external());
sort * s = mk_float_sort(v.get_ebits(), v.get_sbits());
return m_manager->mk_const_decl(symbol("float"), s, func_decl_info(m_family_id, OP_FLOAT_VALUE, 1, &p));
}
int
main(int argc, char **argv)
{
int faces[15];
fastf_t vertices[36];
fastf_t thickness[4];
struct rt_wdb *outfp = NULL;
struct bu_bitv *face_mode = NULL;
static const char *filename = "bot-test.g";
if (BU_STR_EQUAL(argv[1], "-h") || BU_STR_EQUAL(argv[1], "-?")) {
printusage();
return 0;
}
if (argc == 1) {
printusage();
fprintf(stderr," Program continues running (will create file bot-test.g because 'filename' was blank):\n");
}
else if (argc > 1)
filename = argv[1];
outfp = wdb_fopen(filename);
mk_id(outfp, "BOT test");
VSET(vertices, 0.0, 0.0, 0.0);
VSET(&vertices[3], 0.0, 100.0, 0.0);
VSET(&vertices[6], 0.0, 100.0, 50.0);
VSET(&vertices[9], 200.0, 0.0, 0.0);
/* face #1 */
faces[0] = 0;
faces[1] = 1;
faces[2] = 2;
/* face #2 */
faces[3] = 0;
faces[4] = 2;
faces[5] = 3;
/* face #3 */
faces[6] = 0;
faces[7] = 1;
faces[8] = 3;
/* face #4 */
faces[9] = 1;
faces[10] = 2;
faces[11] = 3;
mk_bot(outfp, "bot_u_surf", RT_BOT_SURFACE, RT_BOT_UNORIENTED, 0, 4, 4, vertices, faces, (fastf_t *)NULL, (struct bu_bitv *)NULL);
/* face #1 */
faces[0] = 0;
faces[1] = 2;
faces[2] = 1;
/* face #2 */
faces[3] = 0;
faces[4] = 3;
faces[5] = 2;
/* face #3 */
faces[6] = 0;
faces[7] = 1;
faces[8] = 3;
/* face #4 */
faces[9] = 1;
faces[10] = 2;
faces[11] = 3;
mk_bot(outfp, "bot_ccw_surf", RT_BOT_SURFACE, RT_BOT_CCW, 0, 4, 4, vertices, faces, (fastf_t *)NULL, (struct bu_bitv *)NULL);
/* face #1 */
faces[0] = 1;
faces[1] = 2;
faces[2] = 0;
/* face #2 */
faces[3] = 2;
faces[4] = 3;
faces[5] = 0;
/* face #3 */
faces[6] = 3;
faces[7] = 1;
faces[8] = 0;
/* face #4 */
faces[9] = 3;
faces[10] = 2;
faces[11] = 1;
mk_bot(outfp, "bot_cw_surf", RT_BOT_SURFACE, RT_BOT_CW, 0, 4, 4, vertices, faces, (fastf_t *)NULL, (struct bu_bitv *)NULL);
/* face #1 */
faces[0] = 0;
faces[1] = 1;
faces[2] = 2;
/* face #2 */
faces[3] = 0;
faces[4] = 2;
faces[5] = 3;
/* face #3 */
faces[6] = 0;
faces[7] = 1;
faces[8] = 3;
/* face #4 */
faces[9] = 1;
faces[10] = 2;
faces[11] = 3;
mk_bot(outfp, "bot_u_solid", RT_BOT_SOLID, RT_BOT_UNORIENTED, 0, 4, 4, vertices, faces, (fastf_t *)NULL, (struct bu_bitv *)NULL);
/* face #1 */
faces[0] = 0;
faces[1] = 2;
faces[2] = 1;
/* face #2 */
faces[3] = 0;
faces[4] = 3;
faces[5] = 2;
/* face #3 */
faces[6] = 0;
faces[7] = 1;
faces[8] = 3;
/* face #4 */
faces[9] = 1;
faces[10] = 2;
faces[11] = 3;
mk_bot(outfp, "bot_ccw_solid", RT_BOT_SOLID, RT_BOT_CCW, 0, 4, 4, vertices, faces, (fastf_t *)NULL, (struct bu_bitv *)NULL);
/* face #1 */
faces[0] = 1;
faces[1] = 2;
faces[2] = 0;
/* face #2 */
faces[3] = 2;
faces[4] = 3;
faces[5] = 0;
/* face #3 */
faces[6] = 3;
faces[7] = 1;
faces[8] = 0;
/* face #4 */
faces[9] = 3;
faces[10] = 2;
faces[11] = 1;
mk_bot(outfp, "bot_cw_solid", RT_BOT_SOLID, RT_BOT_CW, 0, 4, 4, vertices, faces, (fastf_t *)NULL, (struct bu_bitv *)NULL);
face_mode = bu_bitv_new(4);
BU_BITSET(face_mode, 1);
thickness[0] = 2.1;
thickness[1] = 2.2;
thickness[2] = 2.3;
thickness[3] = 2.4;
/* face #1 */
faces[0] = 0;
faces[1] = 1;
faces[2] = 2;
/* face #2 */
faces[3] = 0;
faces[4] = 2;
faces[5] = 3;
/* face #3 */
faces[6] = 0;
faces[7] = 1;
faces[8] = 3;
/* face #4 */
faces[9] = 1;
faces[10] = 2;
faces[11] = 3;
mk_bot(outfp, "bot_u_plate", RT_BOT_PLATE, RT_BOT_UNORIENTED, 0, 4, 4, vertices, faces, thickness, face_mode);
/* face #1 */
faces[0] = 0;
faces[1] = 2;
faces[2] = 1;
/* face #2 */
faces[3] = 0;
faces[4] = 3;
faces[5] = 2;
/* face #3 */
faces[6] = 0;
faces[7] = 1;
faces[8] = 3;
/* face #4 */
faces[9] = 1;
faces[10] = 2;
faces[11] = 3;
mk_bot(outfp, "bot_ccw_plate", RT_BOT_PLATE, RT_BOT_CCW, 0, 4, 4, vertices, faces, thickness, face_mode);
/* face #1 */
faces[0] = 1;
faces[1] = 2;
faces[2] = 0;
/* face #2 */
faces[3] = 2;
faces[4] = 3;
faces[5] = 0;
/* face #3 */
faces[6] = 3;
faces[7] = 1;
faces[8] = 0;
/* face #4 */
faces[9] = 3;
faces[10] = 2;
faces[11] = 1;
mk_bot(outfp, "bot_cw_plate", RT_BOT_PLATE, RT_BOT_CW, 0, 4, 4, vertices, faces, thickness, face_mode);
/* Make a bot with duplicate vertices to test the "fuse" and "condense" code */
VSET(vertices, 0.0, 0.0, 0.0);
VSET(&vertices[3], 0.0, 100.0, 0.0);
VSET(&vertices[6], 0.0, 100.0, 50.0);
VMOVE(&vertices[9], &vertices[0]);
VMOVE(&vertices[12], &vertices[6]);
VSET(&vertices[15], 200.0, 0.0, 0.0);
VMOVE(&vertices[18], &vertices[0]);
VMOVE(&vertices[21], &vertices[3]);
VMOVE(&vertices[24], &vertices[15]);
VMOVE(&vertices[27], &vertices[3]);
VMOVE(&vertices[30], &vertices[6]);
VMOVE(&vertices[33], &vertices[15]);
/* face #1 */
faces[0] = 0;
faces[1] = 1;
faces[2] = 2;
/* face #2 */
faces[3] = 3;
faces[4] = 4;
faces[5] = 5;
/* face #3 */
faces[6] = 6;
faces[7] = 7;
faces[8] = 8;
/* face #4 */
faces[9] = 9;
faces[10] = 10;
faces[11] = 11;
mk_bot(outfp, "bot_solid_dup_vs", RT_BOT_SOLID, RT_BOT_UNORIENTED, 0, 12, 4, vertices, faces, (fastf_t *)NULL, (struct bu_bitv *)NULL);
faces[12] = 9;
faces[13] = 10;
faces[14] = 11;
mk_bot(outfp, "bot_solid_dup_fs", RT_BOT_SOLID, RT_BOT_UNORIENTED, 0, 12, 5, vertices, faces, (fastf_t *)NULL, (struct bu_bitv *)NULL);
bu_free((char *)face_mode, "bottest: face_mode");
wdb_close(outfp);
return 0;
}
int
main(int argc, char **argv)
{
vect_t norm;
unsigned char rgb[3];
int ix;
double x;
double size;
int quant;
struct wmember head;
vect_t bmin, bmax, bthick;
vect_t r1min, r1max, r1thick;
vect_t lwh; /* length, width, height */
vect_t pbase;
BU_LIST_INIT( &head.l );
MAT_IDN( identity );
sin60 = sin(60.0 * 3.14159265358979323846264 / 180.0);
outfp = wdb_fopen("room.g");
mk_id( outfp, "Procedural Rooms" );
/* Create the building */
VSET( bmin, 0, 0, 0 );
VSET( bmax, 80000, 60000, HEIGHT );
VSET( bthick, 100, 100, 100 );
make_room( "bldg", bmin, bmax, bthick, &head );
/* Create the first room */
VSET( r1thick, 100, 100, 0 );
VMOVE( r1min, bmin );
VSET( r1max, 40000, 10000, HEIGHT );
VADD2( r1max, r1min, r1max );
make_walls( "rm1", r1min, r1max, r1thick, NORTH|EAST, &head );
make_carpet( "rm1carpet", r1min, r1max, "carpet.pix", &head );
/* Create the golden earth */
VSET( norm, 0, 0, 1 );
mk_half( outfp, "plane", norm, -bthick[Z]-10.0 );
rgb[0] = 240; /* gold/brown */
rgb[1] = 180;
rgb[2] = 64;
mk_region1( outfp, "plane.r", "plane", NULL, NULL, rgb );
(void)mk_addmember( "plane.r", &head.l, NULL, WMOP_UNION );
/* Create the display pillars */
size = 4000; /* separation between centers */
quant = 5; /* pairs */
VSET( lwh, 400, 400, 1000 );
for ( ix=quant-1; ix>=0; ix-- ) {
x = 10000 + ix*size;
VSET( pbase, x, 10000*.25, r1min[Z] );
make_pillar( "Pil", ix, 0, pbase, lwh, &head );
VSET( pbase, x, 10000*.75, r1min[Z] );
make_pillar( "Pil", ix, 1, pbase, lwh, &head );
}
#ifdef never
/* Create some light */
white[0] = white[1] = white[2] = 255;
base = size*(quant/2+1);
VSET( aim, 0, 0, 0 );
VSET( pos, base, base, minheight+maxheight*bn_rand0to1(randp) );
do_light( "l1", pos, aim, 1, 100.0, white, &head );
VSET( pos, -base, base, minheight+maxheight*bn_rand0to1(randp) );
do_light( "l2", pos, aim, 1, 100.0, white, &head );
VSET( pos, -base, -base, minheight+maxheight*bn_rand0to1(randp) );
do_light( "l3", pos, aim, 1, 100.0, white, &head );
VSET( pos, base, -base, minheight+maxheight*bn_rand0to1(randp) );
do_light( "l4", pos, aim, 1, 100.0, white, &head );
#endif
/* Build the overall combination */
mk_lfcomb( outfp, "room", &head, 0 );
return 0;
}
int
main(int argc, char **argv)
{
int c;
int i;
struct pshell *psh;
struct pbar *pbp;
struct wmember head;
struct wmember all_head;
char *nastran_file = "Converted from NASTRAN file (stdin)";
bu_setprogname(argv[0]);
fpin = stdin;
units = INCHES;
/* FIXME: These need to be improved */
tol.magic = BN_TOL_MAGIC;
tol.dist = 0.0005;
tol.dist_sq = tol.dist * tol.dist;
tol.perp = 1e-6;
tol.para = 1 - tol.perp;
while ((c=bu_getopt(argc, argv, "x:X:t:ni:o:mh?")) != -1) {
switch (c) {
case 'x':
sscanf(bu_optarg, "%x", (unsigned int *)&RTG.debug);
bu_printb("librt RT_G_DEBUG", RT_G_DEBUG, DEBUG_FORMAT);
bu_log("\n");
break;
case 'X':
sscanf(bu_optarg, "%x", (unsigned int *)&RTG.NMG_debug);
bu_printb("librt RTG.NMG_debug", RTG.NMG_debug, NMG_DEBUG_FORMAT);
bu_log("\n");
break;
case 't': /* calculational tolerance */
tol.dist = atof(bu_optarg);
tol.dist_sq = tol.dist * tol.dist;
break;
case 'n':
polysolids = 0;
break;
case 'm':
units = MM;
break;
case 'i':
fpin = fopen(bu_optarg, "rb");
if (fpin == (FILE *)NULL) {
bu_log("Cannot open NASTRAN file (%s) for reading!\n", bu_optarg);
bu_exit(1, Usage, argv[0]);
}
nastran_file = bu_optarg;
break;
case 'o':
output_file = bu_optarg;
break;
default:
bu_exit(1, Usage, argv[0]);
}
}
fpout = wdb_fopen(output_file);
if (fpout == NULL) {
bu_log("Cannot open BRL-CAD file (%s) for writing!\n", output_file);
bu_exit(1, Usage, argv[0]);
}
if (!fpin || !fpout) {
bu_exit(1, Usage, argv[0]);
}
line = (char *)bu_malloc(MAX_LINE_SIZE, "line");
next_line = (char *)bu_malloc(MAX_LINE_SIZE, "next_line");
prev_line = (char *)bu_malloc(MAX_LINE_SIZE, "prev_line");
curr_rec = (char **)bu_calloc(NO_OF_FIELDS, sizeof(char *), "curr_rec");
for (i=0; i<NO_OF_FIELDS; i++)
curr_rec[i] = (char *)bu_malloc(sizeof(char)*FIELD_LENGTH, "curr_rec[i]");
prev_rec = (char **)bu_calloc(NO_OF_FIELDS, sizeof(char *), "prev_rec");
for (i=0; i<NO_OF_FIELDS; i++)
prev_rec[i] = (char *)bu_malloc(sizeof(char)*FIELD_LENGTH, "prev_rec[i]");
/* first pass, find start of NASTRAN "bulk data" */
start_off = (-1);
bulk_data_start_line = 0;
while (bu_fgets(line, MAX_LINE_SIZE, fpin)) {
bulk_data_start_line++;
if (bu_strncmp(line, "BEGIN BULK", 10))
continue;
start_off = bu_ftell(fpin);
break;
}
if (start_off < 0) {
bu_log("Cannot find start of bulk data in NASTRAN file!\n");
bu_exit(1, Usage, argv[0]);
}
/* convert BULK data deck into something reasonable */
fptmp = bu_temp_file(NULL, 0);
if (fptmp == NULL) {
perror(argv[0]);
bu_exit(1, "Cannot open temporary file\n");
}
convert_input();
/* initialize some lists */
BU_LIST_INIT(&coord_head.l);
BU_LIST_INIT(&pbar_head.l);
BU_LIST_INIT(&pshell_head.l);
BU_LIST_INIT(&all_head.l);
nmg_model = (struct model *)NULL;
/* count grid points */
bu_fseek(fptmp, 0, SEEK_SET);
while (bu_fgets(line, MAX_LINE_SIZE, fptmp)) {
if (!bu_strncmp(line, "GRID", 4))
grid_count++;
}
if (!grid_count) {
bu_exit(1, "No geometry in this NASTRAN file!\n");
}
/* get default values and properties */
bu_fseek(fptmp, 0, SEEK_SET);
while (get_next_record(fptmp, 1, 0)) {
if (!bu_strncmp(curr_rec[0], "BAROR", 5)) {
/* get BAR defaults */
bar_def_pid = atoi(curr_rec[2]);
} else if (!bu_strncmp(curr_rec[0], "PBAR", 4)) {
struct pbar *pb;
BU_ALLOC(pb, struct pbar);
pb->pid = atoi(curr_rec[1]);
pb->mid = atoi(curr_rec[2]);
pb->area = atof(curr_rec[3]);
BU_LIST_INIT(&pb->head.l);
BU_LIST_INSERT(&pbar_head.l, &pb->l);
} else if (!bu_strncmp(curr_rec[0], "PSHELL", 6)) {
BU_ALLOC(psh, struct pshell);
psh->s = (struct shell *)NULL;
psh->pid = atoi(curr_rec[1]);
psh->mid = atoi(curr_rec[2]);
psh->thick = atof(curr_rec[3]);
BU_LIST_INSERT(&pshell_head.l, &psh->l);
pshell_count++;
}
}
/* allocate storage for grid points */
g_pts = (struct grid_point *)bu_calloc(grid_count, sizeof(struct grid_point), "grid points");
/* get all grid points */
bu_fseek(fptmp, 0, SEEK_SET);
while (get_next_record(fptmp, 1, 0)) {
int gid;
int cid;
double tmp[3];
if (bu_strncmp(curr_rec[0], "GRID", 4))
continue;
gid = atoi(curr_rec[1]);
cid = atoi(curr_rec[2]);
for (i=0; i<3; i++) {
tmp[i] = atof(curr_rec[i+3]);
}
g_pts[grid_used].gid = gid;
g_pts[grid_used].cid = cid;
g_pts[grid_used].v = (struct vertex **)bu_calloc(pshell_count + 1, sizeof(struct vertex *), "g_pts vertex array");
VMOVE(g_pts[grid_used].pt, tmp);
grid_used++;
}
/* find coordinate systems */
bu_fseek(fptmp, 0, SEEK_SET);
while (get_next_record(fptmp, 1, 0)) {
if (bu_strncmp(curr_rec[0], "CORD", 4))
continue;
get_coord_sys();
}
/* convert everything to BRL-CAD coordinate system */
i = 0;
while (convert_all_cs() || convert_all_pts()) {
i++;
if (i > 10) {
bu_exit(1, "Cannot convert to default coordinate system, check for circular definition\n");
}
}
mk_id(fpout, nastran_file);
/* get elements */
bu_fseek(fptmp, 0, SEEK_SET);
while (get_next_record(fptmp, 1, 0)) {
if (!bu_strncmp(curr_rec[0], "CBAR", 4))
get_cbar();
else if (!bu_strncmp(curr_rec[0], "CROD", 4))
get_cbar();
else if (!bu_strncmp(curr_rec[0], "CTRIA3", 6))
get_ctria3();
else if (!bu_strncmp(curr_rec[0], "CQUAD4", 6))
get_cquad4();
}
if (nmg_model) {
nmg_rebound(nmg_model, &tol);
if (polysolids)
mk_bot_from_nmg(fpout, "pshell.0", nmg_shell);
else
mk_nmg(fpout, "pshell.0", nmg_model);
}
BU_LIST_INIT(&head.l);
for (BU_LIST_FOR(psh, pshell, &pshell_head.l)) {
struct model *m;
char name[NAMESIZE+1];
if (!psh->s)
continue;
m = nmg_find_model(&psh->s->l.magic);
nmg_rebound(m, &tol);
nmg_fix_normals(psh->s, &tol);
if (psh->thick > tol.dist) {
nmg_model_face_fuse(m, &tol);
nmg_hollow_shell(psh->s, psh->thick*conv[units], 1, &tol);
}
sprintf(name, "pshell.%d", psh->pid);
if (polysolids)
mk_bot_from_nmg(fpout, name, psh->s);
else
mk_nmg(fpout, name, m);
mk_addmember(name, &head.l, NULL, WMOP_UNION);
}
if (BU_LIST_NON_EMPTY(&head.l)) {
mk_lfcomb(fpout, "shells", &head, 0);
mk_addmember("shells", &all_head.l, NULL, WMOP_UNION);
}
BU_LIST_INIT(&head.l);
for (BU_LIST_FOR(pbp, pbar, &pbar_head.l)) {
char name[NAMESIZE+1];
if (BU_LIST_IS_EMPTY(&pbp->head.l))
continue;
sprintf(name, "pbar_group.%d", pbp->pid);
mk_lfcomb(fpout, name, &pbp->head, 0);
mk_addmember(name, &head.l, NULL, WMOP_UNION);
}
if (BU_LIST_NON_EMPTY(&head.l)) {
mk_lfcomb(fpout, "pbars", &head, 0);
mk_addmember("pbars", &all_head.l, NULL, WMOP_UNION);
}
if (BU_LIST_NON_EMPTY(&all_head.l)) {
mk_lfcomb(fpout, "all", &all_head, 0);
}
wdb_close(fpout);
return 0;
}
int
main(int argc, char **argv)
{
/* START # 1 */
struct rt_wdb *fpw; /* File to be written to. */
char filemged[26] = {0}; /* Mged file create. */
double hgt=0; /* Height, width, & depth of gas tank. */
double wid=0;
double dpt=0;
double rds=0; /* Radius of the corner of gas tank. */
point_t pts[8]; /* Points for arb8. */
point_t bs; /* Base of cylinder. */
vect_t ht; /* Height of cylinder. */
fastf_t rad; /* Radius of cylinder & sphere. */
point_t cent; /* Center of sphere. */
/* point_t and vect_t are set using typedef of type fastf_t. */
/* fastf_t is a type that is machine dependent. */
char *temp; /* Temporary character string. */
char temp1[16]; /* Temporary character string. */
char solnam[9]; /* Solid name. */
char regnam[9]; /* Region name. */
char grpnam[5]; /* Group name. */
int numtnk=0; /* Number of gas tanks to be created */
/* (<=26). */
struct wmember comb; /* Used to make regions. */
struct wmember comb1; /* Used to make groups. */
int i, j, k; /* Loop counters. */
int ret;
/* Set up solid, region, and group names. */
solnam[0] = 's';
solnam[1] = '.';
solnam[2] = 't';
solnam[3] = 'n';
solnam[4] = 'k';
solnam[5] = ' ';
solnam[6] = '#';
solnam[7] = '#';
solnam[8] = '\0';
regnam[0] = 'r';
regnam[1] = '.';
regnam[2] = 't';
regnam[3] = 'n';
regnam[4] = 'k';
regnam[5] = ' ';
regnam[6] = '#';
regnam[7] = '#';
regnam[8] = '\0';
grpnam[0] = 't';
grpnam[1] = 'n';
grpnam[2] = 'k';
grpnam[3] = ' ';
grpnam[4] = '\0';
/* If there are no arguments ask questions. */
if (argc == 1) {
/* START # 3 */
/* Print info about the window. */
printf("\nThis program constructs a solid gas tank with all\n");
printf("edges and corners rounded.\n\n");
/* Find name of mged file to be created. */
printf("Enter the mged file to be created (25 char max).\n\t");
(void)fflush(stdout);
ret = scanf("%26s", filemged);
if (ret == 0) {
perror("scanf");
}
if (BU_STR_EQUAL(filemged, ""))
bu_strlcpy(filemged, "gastank.g", sizeof(filemged));
/* Find the number of gas tanks to create. */
printf("Enter the number of gas tanks to create (26 max).\n\t");
(void)fflush(stdout);
ret = scanf("%d", &numtnk);
if (ret == 0) {
perror("scanf");
numtnk = 1;
}
if (numtnk < 1)
numtnk = 1;
if (numtnk > 26)
numtnk = 26;
/* Find the dimensions of the gas tanks. */
printf("Enter the height, width, and depth of the gas tank.\n\t");
(void)fflush(stdout);
ret = scanf("%lf %lf %lf", &hgt, &wid, &dpt);
if (ret == 0) {
perror("scanf");
hgt = 1000.0;
wid = 1000.0;
dpt = 1000.0;
}
if (hgt < SMALL_FASTF)
hgt = SMALL_FASTF;
if (wid < SMALL_FASTF)
wid = SMALL_FASTF;
if (dpt < SMALL_FASTF)
dpt = SMALL_FASTF;
printf("Enter the radius of the corners.\n\t");
(void)fflush(stdout);
ret = scanf("%lf", &rds);
if (ret == 0) {
perror("scanf");
rds = 10.0;
}
if (rds < SMALL_FASTF)
rds = SMALL_FASTF;
} /* END # 3 */
/* If there are arguments get answers from arguments. */
else {
/* START # 4 */
/* List options. */
/* -fname - name = mged file name. */
/* -n# - # = number of gas tanks. */
/* -h# - # = height of gas tank in mm. */
/* -w# - # = width of gas tank in mm. */
/* -d# - # = depth of gas tank in mm. */
/* -r# - # = radius of corners in mm. */
for (i=1; i<argc; i++) {
/* START # 5 */
/* Put argument in temporary character string. */
temp = argv[i];
/* -f - mged file. */
if (temp[1] == 'f') {
/* START # 6 */
j = 2;
k = 0;
while ((temp[j] != '\0') && (k < 25)) {
/* START # 7 */
filemged[k] = temp[j];
j++;
k++;
} /* END # 7 */
filemged[k] = '\0';
} /* END # 6 */
/* All other options. */
else {
/* START # 8 */
/* Set up temporary character string. */
j = 2;
k = 0;
while ((temp[j] != '\0') && (k < 15)) {
/* START # 9 */
temp1[k] = temp[j];
j++;
k++;
} /* END # 9 */
temp1[k] = '\0';
if (temp[1] == 'n') {
sscanf(temp1, "%d", &numtnk);
if (numtnk > 26) numtnk = 26;
} else if (temp[1] == 'h') {
sscanf(temp1, "%lf", &hgt);
} else if (temp[1] == 'w') {
sscanf(temp1, "%lf", &wid);
} else if (temp[1] == 'd') {
sscanf(temp1, "%lf", &dpt);
} else if (temp[1] == 'r') {
sscanf(temp1, "%lf", &rds);
}
} /* END # 8 */
} /* END # 5 */
} /* END # 4 */
/* Print out all info. */
printf("\nmged file: %s\n", filemged);
printf("height of gas tank: %f mm\n", hgt);
printf("width of gas tank: %f mm\n", wid);
printf("depth of gas tank: %f mm\n", dpt);
printf("radius of corner: %f mm\n", rds);
printf("number of gas tanks: %d\n\n", numtnk);
(void)fflush(stdout);
/* Open mged file. */
fpw = wdb_fopen(filemged);
/* Write ident record. */
mk_id(fpw, "windows");
for (i=0; i<numtnk; i++) {
/* START # 2 */
/* Create all solids. */
/* Create the 3 arb8s. */
pts[0][0] = (fastf_t)(dpt / 2.0);
pts[0][1] = (fastf_t)(wid / 2.0 - rds);
pts[0][2] = (fastf_t)(hgt / 2.0 - rds);
pts[1][0] = pts[0][0];
pts[1][1] = pts[0][1];
pts[1][2] = (-pts[0][2]);
pts[2][0] = pts[0][0];
pts[2][1] = (-pts[0][1]);
pts[2][2] = pts[1][2];
pts[3][0] = pts[0][0];
pts[3][1] = pts[2][1];
pts[3][2] = pts[0][2];
pts[4][0] = (-pts[0][0]);
pts[4][1] = pts[0][1];
pts[4][2] = pts[0][2];
pts[5][0] = pts[4][0];
pts[5][1] = pts[0][1];
pts[5][2] = (-pts[0][2]);
pts[6][0] = pts[4][0];
pts[6][1] = (-pts[0][1]);
pts[6][2] = pts[1][2];
pts[7][0] = pts[4][0];
pts[7][1] = pts[2][1];
pts[7][2] = pts[0][2];
solnam[5] = 97 + i;
solnam[6] = '0';
solnam[7] = '1';
mk_arb8(fpw, solnam, &pts[0][X]);
pts[0][0] = (fastf_t)(dpt / 2.0 - rds);
pts[0][1] = (fastf_t)(wid / 2.0);
pts[1][0] = pts[0][0];
pts[1][1] = pts[0][1];
pts[2][0] = pts[0][0];
pts[2][1] = (-pts[0][1]);
pts[3][0] = pts[0][0];
pts[3][1] = pts[2][1];
pts[4][0] = (-pts[0][0]);
pts[4][1] = pts[0][1];
pts[5][0] = pts[4][0];
pts[5][1] = pts[0][1];
pts[6][0] = pts[4][0];
pts[6][1] = pts[2][1];
pts[7][0] = pts[4][0];
pts[7][1] = pts[2][1];
solnam[7] = '2';
mk_arb8(fpw, solnam, &pts[0][X]);
pts[0][1] = (fastf_t)(wid / 2.0 - rds);
pts[0][2] = (fastf_t)(hgt / 2.0);
pts[1][1] = pts[0][1];
pts[1][2] = (-pts[0][2]);
pts[2][1] = (-pts[0][1]);
pts[2][2] = pts[1][2];
pts[3][1] = pts[2][1];
pts[3][2] = pts[0][2];
pts[4][1] = pts[0][1];
pts[4][2] = pts[0][2];
pts[5][1] = pts[0][1];
pts[5][2] = (-pts[0][2]);
pts[6][1] = (-pts[0][1]);
pts[6][2] = pts[1][2];
pts[7][1] = pts[2][1];
pts[7][2] = pts[0][2];
solnam[7] = '3';
mk_arb8(fpw, solnam, &pts[0][X]);
/* Make 8 spheres. */
cent[0] = (fastf_t)(dpt / 2.0 - rds);
cent[1] = (fastf_t)(wid / 2.0 - rds);
cent[2] = (fastf_t)(hgt / 2.0 - rds);
rad = (fastf_t)(rds);
solnam[7] = '4';
mk_sph(fpw, solnam, cent, rad);
cent[2] = (-cent[2]);
solnam[7] = '5';
mk_sph(fpw, solnam, cent, rad);
cent[1] = (-cent[1]);
solnam[7] = '6';
mk_sph(fpw, solnam, cent, rad);
cent[2] = (-cent[2]);
solnam[7] = '7';
mk_sph(fpw, solnam, cent, rad);
cent[0] = (-cent[0]);
cent[1] = (-cent[1]);
solnam[7] = '8';
mk_sph(fpw, solnam, cent, rad);
cent[2] = (-cent[2]);
solnam[7] = '9';
mk_sph(fpw, solnam, cent, rad);
cent[1] = (-cent[1]);
solnam[6] = '1';
solnam[7] = '0';
mk_sph(fpw, solnam, cent, rad);
cent[2] = (-cent[2]);
solnam[7] = '1';
mk_sph(fpw, solnam, cent, rad);
/* Make 12 cylinders. */
bs[0] = (fastf_t)(dpt / 2.0 - rds);
bs[1] = (fastf_t)(wid / 2.0 - rds);
bs[2] = (fastf_t)(hgt / 2.0 - rds);
ht[0] = (fastf_t)(0.0);
ht[1] = (fastf_t)(-wid + 2 * rds);
ht[2] = (fastf_t)(0.0);
solnam[7] = '2';
mk_rcc(fpw, solnam, bs, ht, rad);
bs[2] = (-bs[2]);
solnam[7] = '3';
mk_rcc(fpw, solnam, bs, ht, rad);
bs[0] = (-bs[0]);
solnam[7] = '4';
mk_rcc(fpw, solnam, bs, ht, rad);
bs[2] = (-bs[2]);
solnam[7] = '5';
mk_rcc(fpw, solnam, bs, ht, rad);
bs[0] = (fastf_t)(dpt / 2.0 - rds);
bs[1] = (fastf_t)(wid / 2.0 - rds);
bs[2] = (fastf_t)(hgt / 2.0 - rds);
ht[0] = (fastf_t)(0.0);
ht[1] = (fastf_t)(0.0);
ht[2] = (fastf_t)(-hgt + 2 * rds);
solnam[7] = '6';
mk_rcc(fpw, solnam, bs, ht, rad);
bs[1] = (-bs[1]);
solnam[7] = '7';
mk_rcc(fpw, solnam, bs, ht, rad);
bs[0] = (-bs[0]);
solnam[7] = '8';
mk_rcc(fpw, solnam, bs, ht, rad);
bs[1] = (-bs[1]);
solnam[7] = '9';
mk_rcc(fpw, solnam, bs, ht, rad);
bs[0] = (fastf_t)(dpt / 2.0 - rds);
bs[1] = (fastf_t)(wid / 2.0 - rds);
bs[2] = (fastf_t)(hgt / 2.0 - rds);
ht[0] = (fastf_t)(-dpt + 2 * rds);
ht[1] = (fastf_t)(0.0);
ht[2] = (fastf_t)(0.0);
solnam[6] = '2';
solnam[7] = '0';
mk_rcc(fpw, solnam, bs, ht, rad);
bs[2] = (-bs[2]);
solnam[7] = '1';
mk_rcc(fpw, solnam, bs, ht, rad);
bs[1] = (-bs[1]);
solnam[7] = '2';
mk_rcc(fpw, solnam, bs, ht, rad);
bs[2] = (-bs[2]);
solnam[7] = '3';
mk_rcc(fpw, solnam, bs, ht, rad);
/* Make all regions. */
/* Initialize list. */
BU_LIST_INIT(&comb.l);
/* Region 1. */
solnam[5] = 97 + i;
solnam[6] = '0';
solnam[7] = '1';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_INTERSECT);
solnam[7] = '2';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
solnam[7] = '3';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
regnam[5] = 97 + i;
regnam[6] = '0';
regnam[7] = '1';
mk_lfcomb(fpw, regnam, &comb, 1);
/* Region 2. */
solnam[7] = '2';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_INTERSECT);
solnam[7] = '3';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
regnam[7] = '2';
mk_lfcomb(fpw, regnam, &comb, 1);
/* Region 3. */
solnam[7] = '3';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_INTERSECT);
regnam[7] = '3';
mk_lfcomb(fpw, regnam, &comb, 1);
/* Region 4. */
solnam[7] = '4';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_INTERSECT);
solnam[6] = '1';
solnam[7] = '2';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
solnam[7] = '6';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
solnam[6] = '2';
solnam[7] = '0';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
regnam[7] = '4';
mk_lfcomb(fpw, regnam, &comb, 1);
/* Region 5. */
solnam[6] = '0';
solnam[7] = '5';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_INTERSECT);
solnam[6] = '1';
solnam[7] = '3';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
solnam[7] = '6';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
solnam[6] = '2';
solnam[7] = '1';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
regnam[7] = '5';
mk_lfcomb(fpw, regnam, &comb, 1);
/* Region 6. */
solnam[6] = '0';
solnam[7] = '6';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_INTERSECT);
solnam[6] = '1';
solnam[7] = '3';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
solnam[7] = '7';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
solnam[6] = '2';
solnam[7] = '2';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
regnam[7] = '6';
mk_lfcomb(fpw, regnam, &comb, 1);
/* Region 7. */
solnam[6] = '0';
solnam[7] = '7';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_INTERSECT);
solnam[6] = '1';
solnam[7] = '2';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
solnam[7] = '7';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
solnam[6] = '2';
solnam[7] = '3';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
regnam[7] = '7';
mk_lfcomb(fpw, regnam, &comb, 1);
/* Region 8. */
solnam[6] = '0';
solnam[7] = '8';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_INTERSECT);
solnam[6] = '1';
solnam[7] = '5';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
solnam[7] = '9';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
solnam[6] = '2';
solnam[7] = '0';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
regnam[7] = '8';
mk_lfcomb(fpw, regnam, &comb, 1);
/* Region 9. */
solnam[6] = '0';
solnam[7] = '9';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_INTERSECT);
solnam[6] = '1';
solnam[7] = '4';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
solnam[7] = '9';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
solnam[6] = '2';
solnam[7] = '1';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
regnam[7] = '9';
mk_lfcomb(fpw, regnam, &comb, 1);
/* Region 10. */
solnam[6] = '1';
solnam[7] = '0';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_INTERSECT);
solnam[7] = '4';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
solnam[7] = '8';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
solnam[6] = '2';
solnam[7] = '2';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
regnam[6] = '1';
regnam[7] = '0';
mk_lfcomb(fpw, regnam, &comb, 1);
/* Region 11. */
solnam[6] = '1';
solnam[7] = '1';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_INTERSECT);
solnam[7] = '5';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
solnam[7] = '8';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
solnam[6] = '2';
solnam[7] = '3';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
regnam[6] = '1';
regnam[7] = '1';
mk_lfcomb(fpw, regnam, &comb, 1);
/* Region 12. */
solnam[6] = '1';
solnam[7] = '2';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_INTERSECT);
solnam[6] = '0';
solnam[7] = '1';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
solnam[7] = '3';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
regnam[6] = '1';
regnam[7] = '2';
mk_lfcomb(fpw, regnam, &comb, 1);
/* Region 13. */
solnam[6] = '1';
solnam[7] = '3';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_INTERSECT);
solnam[6] = '0';
solnam[7] = '1';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
solnam[7] = '3';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
regnam[6] = '1';
regnam[7] = '3';
mk_lfcomb(fpw, regnam, &comb, 1);
/* Region 14. */
solnam[6] = '1';
solnam[7] = '4';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_INTERSECT);
solnam[6] = '0';
solnam[7] = '1';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
solnam[7] = '3';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
regnam[6] = '1';
regnam[7] = '4';
mk_lfcomb(fpw, regnam, &comb, 1);
/* Region 15. */
solnam[6] = '1';
solnam[7] = '5';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_INTERSECT);
solnam[6] = '0';
solnam[7] = '1';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
solnam[7] = '3';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
regnam[6] = '1';
regnam[7] = '5';
mk_lfcomb(fpw, regnam, &comb, 1);
/* Region 16. */
solnam[6] = '1';
solnam[7] = '6';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_INTERSECT);
solnam[6] = '0';
solnam[7] = '1';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
solnam[7] = '2';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
regnam[6] = '1';
regnam[7] = '6';
mk_lfcomb(fpw, regnam, &comb, 1);
/* Region 17. */
solnam[6] = '1';
solnam[7] = '7';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_INTERSECT);
solnam[6] = '0';
solnam[7] = '1';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
solnam[7] = '2';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
regnam[6] = '1';
regnam[7] = '7';
mk_lfcomb(fpw, regnam, &comb, 1);
/* Region 18. */
solnam[6] = '1';
solnam[7] = '8';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_INTERSECT);
solnam[6] = '0';
solnam[7] = '1';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
solnam[7] = '2';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
regnam[6] = '1';
regnam[7] = '8';
mk_lfcomb(fpw, regnam, &comb, 1);
/* Region 19. */
solnam[6] = '1';
solnam[7] = '9';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_INTERSECT);
solnam[6] = '0';
solnam[7] = '1';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
solnam[7] = '2';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
regnam[6] = '1';
regnam[7] = '9';
mk_lfcomb(fpw, regnam, &comb, 1);
/* Region 20. */
solnam[6] = '2';
solnam[7] = '0';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_INTERSECT);
solnam[6] = '0';
solnam[7] = '2';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
solnam[7] = '3';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
regnam[6] = '2';
regnam[7] = '0';
mk_lfcomb(fpw, regnam, &comb, 1);
/* Region 21. */
solnam[6] = '2';
solnam[7] = '1';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_INTERSECT);
solnam[6] = '0';
solnam[7] = '2';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
solnam[7] = '3';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
regnam[6] = '2';
regnam[7] = '1';
mk_lfcomb(fpw, regnam, &comb, 1);
/* Region 22. */
solnam[6] = '2';
solnam[7] = '2';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_INTERSECT);
solnam[6] = '0';
solnam[7] = '2';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
solnam[7] = '3';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
regnam[6] = '2';
regnam[7] = '2';
mk_lfcomb(fpw, regnam, &comb, 1);
/* Region 23. */
solnam[6] = '2';
solnam[7] = '3';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_INTERSECT);
solnam[6] = '0';
solnam[7] = '2';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
solnam[7] = '3';
(void)mk_addmember(solnam, &comb.l, NULL, WMOP_SUBTRACT);
regnam[6] = '2';
regnam[7] = '3';
mk_lfcomb(fpw, regnam, &comb, 1);
/* Create group. */
/* Initialize list. */
BU_LIST_INIT(&comb1.l);
regnam[6] = '0';
regnam[7] = '1';
(void)mk_addmember(regnam, &comb1.l, NULL, WMOP_UNION);
regnam[7] = '2';
(void)mk_addmember(regnam, &comb1.l, NULL, WMOP_UNION);
regnam[7] = '3';
(void)mk_addmember(regnam, &comb1.l, NULL, WMOP_UNION);
regnam[7] = '4';
(void)mk_addmember(regnam, &comb1.l, NULL, WMOP_UNION);
regnam[7] = '5';
(void)mk_addmember(regnam, &comb1.l, NULL, WMOP_UNION);
regnam[7] = '6';
(void)mk_addmember(regnam, &comb1.l, NULL, WMOP_UNION);
regnam[7] = '7';
(void)mk_addmember(regnam, &comb1.l, NULL, WMOP_UNION);
regnam[7] = '8';
(void)mk_addmember(regnam, &comb1.l, NULL, WMOP_UNION);
regnam[7] = '9';
(void)mk_addmember(regnam, &comb1.l, NULL, WMOP_UNION);
regnam[6] = '1';
regnam[7] = '0';
(void)mk_addmember(regnam, &comb1.l, NULL, WMOP_UNION);
regnam[7] = '1';
(void)mk_addmember(regnam, &comb1.l, NULL, WMOP_UNION);
regnam[7] = '2';
(void)mk_addmember(regnam, &comb1.l, NULL, WMOP_UNION);
regnam[7] = '3';
(void)mk_addmember(regnam, &comb1.l, NULL, WMOP_UNION);
regnam[7] = '4';
(void)mk_addmember(regnam, &comb1.l, NULL, WMOP_UNION);
regnam[7] = '5';
(void)mk_addmember(regnam, &comb1.l, NULL, WMOP_UNION);
regnam[7] = '6';
(void)mk_addmember(regnam, &comb1.l, NULL, WMOP_UNION);
regnam[7] = '7';
(void)mk_addmember(regnam, &comb1.l, NULL, WMOP_UNION);
regnam[7] = '8';
(void)mk_addmember(regnam, &comb1.l, NULL, WMOP_UNION);
regnam[7] = '9';
(void)mk_addmember(regnam, &comb1.l, NULL, WMOP_UNION);
regnam[6] = '2';
regnam[7] = '0';
(void)mk_addmember(regnam, &comb1.l, NULL, WMOP_UNION);
regnam[7] = '1';
(void)mk_addmember(regnam, &comb1.l, NULL, WMOP_UNION);
regnam[7] = '2';
(void)mk_addmember(regnam, &comb1.l, NULL, WMOP_UNION);
regnam[7] = '3';
(void)mk_addmember(regnam, &comb1.l, NULL, WMOP_UNION);
grpnam[3] = 97 + i;
mk_lfcomb(fpw, grpnam, &comb1, 0);
} /* START # 2 */
/* Close file. */
wdb_close(fpw);
return 0;
} /* END # 1 */
discr_tree::node_cell::node_cell(node_cell const & s):
m_rc(0), m_id(mk_id()),
m_children(s.m_children),
m_star_child(s.m_star_child),
m_values(s.m_values) {
}
int
main(int argc, char **argv)
{
struct rt_sketch_internal *skt;
struct bezier_seg *bsg;
struct line_seg *lsg;
struct carc_seg *csg;
point_t V;
vect_t u_vec, v_vec;
point2d_t verts[] = {
{ 250, 0 }, /* 0 */
{ 500, 0 }, /* 1 */
{ 500, 500 }, /* 2 */
{ 0, 500 }, /* 3 */
{ 0, 250 }, /* 4 */
{ 250, 250 }, /* 5 */
{ 125, 125 }, /* 6 */
{ 0, 125 }, /* 7 */
{ 125, 0 }, /* 8 */
{ 200, 200 } /* 9 */
};
int i;
VSET( V, 10, 20, 30 );
VSET( u_vec, 1, 0, 0 );
VSET( v_vec, 0, 1, 0 );
skt = (struct rt_sketch_internal *)bu_calloc( 1, sizeof( struct rt_sketch_internal ), "sketch" );
skt->magic = RT_SKETCH_INTERNAL_MAGIC;
VMOVE( skt->V, V );
VMOVE( skt->u_vec, u_vec );
VMOVE( skt->v_vec, v_vec );
skt->vert_count = 10;
skt->verts = (point2d_t *)bu_calloc( skt->vert_count, sizeof( point2d_t ), "verts" );
for ( i=0; i<skt->vert_count; i++ ) {
V2MOVE( skt->verts[i], verts[i] );
}
skt->skt_curve.seg_count = 6;
skt->skt_curve.reverse = (int *)bu_calloc( skt->skt_curve.seg_count, sizeof( int ), "sketch: reverse" );
skt->skt_curve.segments = (genptr_t *)bu_calloc( skt->skt_curve.seg_count, sizeof( genptr_t ), "segs" );
bsg = (struct bezier_seg *)bu_malloc( sizeof( struct bezier_seg ), "sketch: bsg" );
bsg->magic = CURVE_BEZIER_MAGIC;
bsg->degree = 4;
bsg->ctl_points = (int *)bu_calloc( bsg->degree+1, sizeof( int ), "sketch: bsg->ctl_points" );
bsg->ctl_points[0] = 4;
bsg->ctl_points[1] = 7;
bsg->ctl_points[2] = 9;
bsg->ctl_points[3] = 8;
bsg->ctl_points[4] = 0;
skt->skt_curve.segments[0] = (genptr_t)bsg;
lsg = (struct line_seg *)bu_malloc( sizeof( struct line_seg ), "sketch: lsg" );
lsg->magic = CURVE_LSEG_MAGIC;
lsg->start = 0;
lsg->end = 1;
skt->skt_curve.segments[1] = (genptr_t)lsg;
lsg = (struct line_seg *)bu_malloc( sizeof( struct line_seg ), "sketch: lsg" );
lsg->magic = CURVE_LSEG_MAGIC;
lsg->start = 1;
lsg->end = 2;
skt->skt_curve.segments[2] = (genptr_t)lsg;
lsg = (struct line_seg *)bu_malloc( sizeof( struct line_seg ), "sketch: lsg" );
lsg->magic = CURVE_LSEG_MAGIC;
lsg->start = 2;
lsg->end = 3;
skt->skt_curve.segments[3] = (genptr_t)lsg;
lsg = (struct line_seg *)bu_malloc( sizeof( struct line_seg ), "sketch: lsg" );
lsg->magic = CURVE_LSEG_MAGIC;
lsg->start = 3;
lsg->end = 4;
skt->skt_curve.segments[4] = (genptr_t)lsg;
csg = (struct carc_seg *)bu_malloc( sizeof( struct carc_seg ), "sketch: csg" );
csg->magic = CURVE_CARC_MAGIC;
csg->radius = -1.0;
csg->start = 6;
csg->end = 5;
skt->skt_curve.segments[5] = (genptr_t)csg;
outfp = wdb_fopen( "sketch.g" );
mk_id( outfp, "sketch test" );
mk_sketch( outfp, "test_sketch", skt );
return 0;
}
int
main(int argc, char **argv)
{
struct rt_wdb *fp;
struct directory *dp;
struct rt_db_internal ip;
struct pc_pc_set pcs;
point_t cent;
fastf_t rad;
char solnam[9];
/* Set up solid name */
solnam[0] = 's';
solnam[1] = '.';
solnam[2] = 's';
solnam[3] = 'p';
solnam[4] = 'h';
solnam[5] = ' ';
solnam[6] = 'P';
solnam[7] = '1';
solnam[8] = '\0';
/*rt_init_resource(&rt_uniresource, 0, NULL);*/
if (argc!=2) {
bu_exit(1, "Too few arguments, Please provide output filename\n");
}
if ((fp = wdb_fopen(argv[1])) == NULL) {
perror(argv[2]);
return 1;
}
mk_id(fp, "Parametrics test");
cent[0] = 3.4;
cent[1] = 4.5;
cent[2] = 5.3;
rad = 53.2;
mk_sph(fp, solnam, cent, rad);
solnam[0] = 's';
solnam[1] = '.';
solnam[2] = 's';
solnam[3] = 'p';
solnam[4] = 'h';
solnam[5] = ' ';
solnam[6] = 'P';
solnam[7] = '2';
solnam[8] = '\0';
cent[0] = 23.4;
cent[1] = 34.5;
cent[2] = 45.3;
rad = 153.2;
mk_sph(fp, solnam, cent, rad);
dp = db_lookup(fp->dbip, solnam, LOOKUP_QUIET);
if (dp == RT_DIR_NULL)
return 2;
/*rt_db_get_internal(&intern, dp, fp->dbip, NULL, &rt_uniresource);*/
mk_constraint(fp, "Constraint", 0);
dp = db_lookup(fp->dbip, "Constraint", LOOKUP_QUIET);
if (dp == RT_DIR_NULL)
return 3;
wdb_import(fp, &ip, solnam, (matp_t)NULL);
ip.idb_meth->ft_params(&pcs, &ip);
/* Todo: Free pcs parametric set */
wdb_close(fp);
return 0;
}
int
main(int argc, char **argv)
{
char *base, *bfile, *grp_name, *jfile, *reg_name;
FILE *fpin;
struct rt_wdb *fpout = NULL;
size_t doti;
int c;
grp_name = reg_name = NULL;
/* Get command line arguments. */
while ((c = bu_getopt(argc, argv, "g:r:h?")) != -1) {
switch (c) {
case 'g':
grp_name = bu_optarg;
/* BRL-CAD group to add psurf to. */
break;
case 'r':
/* BRL-CAD region name for psurf. */
reg_name = bu_optarg;
break;
default:
print_usage(argv[0]);
break;
}
}
/* Get Jack psurf input file name. */
if (bu_optind >= argc) {
jfile = "-";
fpin = stdin;
} else {
jfile = argv[bu_optind];
if ((fpin = fopen(jfile, "rb")) == NULL) {
bu_exit(1, "%s: cannot open %s for reading\n",
argv[0], jfile);
}
}
/* Get BRL-CAD output data base name. */
bu_optind++;
if (bu_optind >= argc) {
print_usage(argv[0]);
}
bfile = argv[bu_optind];
if ((fpout = wdb_fopen(bfile)) == NULL) {
bu_exit(1, "%s: cannot open %s for writing\n",
argv[0], bfile);
}
/* Output BRL-CAD database header. No problem if more than one. */
mk_id(fpout, jfile);
/* Make default region name if none given. */
if (!reg_name) {
/* Ignore leading path info. */
base = strrchr(argv[1], '/');
if (base)
base++;
else
base = argv[1];
reg_name = (char *)bu_malloc(sizeof(base)+1, "reg_name");
bu_strlcpy(reg_name, base, sizeof(base)+1);
/* Ignore .pss extension if it's there. */
doti = strlen(reg_name);
if (doti > 4) {
doti -= 4;
if (BU_STR_EQUAL(".pss", reg_name+doti))
reg_name[doti] = '\0';
}
}
jack_to_brlcad(fpin, fpout, reg_name, grp_name, jfile);
fclose(fpin);
wdb_close(fpout);
return 0;
}
int
main(int ac, char *av[])
{
char *progname ="torii";
torusLevels_t torii;
const char *prototypeName="torus";
char fileName[512];
struct rt_wdb *db_fp;
char scratch[512];
int levels=2;
int direction=4;
point_t initialPosition = {0.0, 0.0, 0.0};
int i;
/* this array is a flake pattern */
static const int dirArray[6][6]={
{1, 1, 0, 1, 0, 0},
{1, 1, 1, 0, 0, 0},
{0, 1, 1, 1, 0, 0},
{1, 0, 1, 1, 0, 0},
{1, 1, 1, 1, 0, 0},
{1, 1, 1, 1, 0, 0}
};
progname = *av;
if (ac < 2) usage(progname);
if (ac > 1) snprintf(fileName, 512, "%s", av[1]);
bu_log("Output file name is \"%s\"\n", fileName);
if ((db_fp = wdb_fopen(fileName)) == NULL) {
perror(fileName);
bu_exit(-1, NULL);
}
/* create the database header record */
snprintf(scratch, 512, "%s Torii", fileName);
mk_id(db_fp, scratch);
/* init the levels array */
torii.levels = levels;
torii.level = bu_calloc(levels, sizeof(torusArray_t), "torii");
/* initialize at least a few torus to minimize allocation calls */
for (i=0; i<levels; i++) {
torii.level[i].torus = bu_calloc(6, sizeof(torus_t), "torii.level[i].torus");
torii.level[i].count=0;
torii.level[i].max=6;
}
/* create the mofosunavabish */
create_torii(levels, 0, &torii, initialPosition, dirArray, direction);
/* write out the biatch to disk */
output_torii(fileName, levels, torii, prototypeName);
bu_log("\n...done! (see %s)\n", av[1]);
wdb_close(db_fp);
return 0;
}
discr_tree::node_cell::node_cell():m_rc(0), m_id(mk_id()) {
}
int
main(int argc, char **argv) /* really has no arguments */
{
struct nmgregion *r;
char * id_name = "BRL-CAD t-NURBS NMG Example";
char * tea_name = "UtahTeapot";
char * uplot_name = "teapot.pl";
struct bu_list vhead;
FILE *fp;
int i;
tol.magic = BN_TOL_MAGIC;
tol.dist = 0.005;
tol.dist_sq = tol.dist * tol.dist;
tol.perp = 1e-6;
tol.para = 1 - tol.perp;
BU_LIST_INIT( &rt_g.rtg_vlfree );
outfp = wdb_fopen( "tea_nmg.g" );
rt_g.debug |= DEBUG_ALLRAYS; /* Cause core dumps on bu_bomb(), but no extra messages */
while ((i=bu_getopt(argc, argv, "d")) != EOF) {
switch (i) {
case 'd' :
rt_g.debug |= DEBUG_MEM | DEBUG_MEM_FULL;
break;
default :
(void)fprintf(stderr,
"Usage: %s [-d] > database.g\n", *argv);
return(-1);
}
}
mk_id( outfp, id_name);
m = nmg_mm();
NMG_CK_MODEL( m );
r = nmg_mrsv( m );
NMG_CK_REGION( r );
s = BU_LIST_FIRST( shell, &r->s_hd );
NMG_CK_SHELL( s );
/* Step through each patch and create a NMG TNURB face
* representing the patch then dump them out.
*/
for ( i = 0; i < PATCH_COUNT; i++)
{
dump_patch( patches[i] );
}
/* Connect up the coincident vertexuses and edges */
(void)nmg_model_fuse( m, &tol );
/* write NMG to output file */
(void)mk_nmg( outfp, tea_name, m );
wdb_close(outfp);
/* Make a vlist drawing of the model */
BU_LIST_INIT( &vhead );
nmg_m_to_vlist( &vhead, m, 0 );
/* Make a UNIX plot file from this vlist */
if ( (fp=fopen( uplot_name, "w" )) == NULL )
{
bu_log( "Cannot open plot file: %s\n", uplot_name );
perror( "teapot_nmg" );
}
else
rt_vlist_to_uplot( fp, &vhead );
return(0);
}
int main( int argc, char *argv[] )
{
char inputString[512];
float inputX, inputY, inputZ;
fastf_t *vertices;
int *faces;
fastf_t *thickness;
FILE *inputFile;
short int triangleAvailable;
long int triangleCount;
long int maxTriangleCapacity;
long int j;
char *outputObjectName;
if (argc != 2) {
usage(argv[0]);
}
outfp = wdb_fopen( "rawbot.g" );
if (outfp == NULL) {
fprintf(stderr, "Unable to open the output file rawbot.g\n");
return 1;
}
/* units would be nice... */
mk_id( outfp, "RAW BOT" );
inputFile = fopen(argv[1], "r");
if (inputFile == NULL) {
perror("unable to open file");
fprintf(stderr, "The input file [%s] was not readable\n", argv[1]);
return 1;
}
vertices = bu_calloc(128 * 3, sizeof(fastf_t), "vertices");
maxTriangleCapacity = 128;
triangleCount=0;
triangleAvailable = 1;
while ( triangleAvailable == 1 ) {
/* read a set of input values -- input data should be a 3-tuple
* of floating points.
*/
if (fscanf(inputFile, "%512s", inputString) != 1) {
triangleAvailable = 0;
continue;
}
inputX = atof(inputString);
if (fscanf(inputFile, "%512s", inputString) != 1) {
triangleAvailable = 0;
continue;
}
inputY = atof(inputString);
if (fscanf(inputFile, "%512s", inputString) != 1) {
triangleAvailable = 0;
continue;
}
inputZ = atof(inputString);
if (triangleCount >= maxTriangleCapacity) {
vertices = bu_realloc(vertices, ((maxTriangleCapacity + 128) * 3) * sizeof(fastf_t), "vertices");
maxTriangleCapacity += 128;
}
/* VSET( &vertices[triangleCount*3], inputX, inputY, inputZ ); */
vertices[(triangleCount*3)] = inputX;
vertices[(triangleCount*3)+1] = inputY;
vertices[(triangleCount*3)+2] = inputZ;
/* printf("%f %f %f\n", vertices[(triangleCount*3)], vertices[(triangleCount*3)+1], vertices[(triangleCount*3)+2]); */
triangleCount++;
}
/* done with the input file */
fclose(inputFile);
/* make sure we found some vertices */
if (triangleCount <= 0) {
fprintf(stderr, "There were no triangles found in the input file\n");
bu_free(vertices, "vertices");
return 0;
} else {
printf("Found %ld triangles\n", triangleCount);
}
/* allocate memory for faces and thickness arrays */
/* XXX unfortunately we are limited to sizeof(int) since mk_bot takes
* an int array */
faces = (int *)bu_calloc(triangleCount * 3, sizeof(int), "faces");
thickness = (fastf_t *)bu_calloc(triangleCount * 3, sizeof(int), "thickness");
for (j=0; j<triangleCount; j++) {
faces[(j*3)] = (j*3);
faces[(j*3)+1] = (j*3) + 1;
faces[(j*3)+2] = (j*3) + 2;
printf("%ld %ld %ld == (%f %f %f)\n", (j*3), (j*3)+1, (j*3)+2, vertices[(j*3)], vertices[(j*3)+1], vertices[(j*3)+2]);
thickness[(j*3)] = thickness[(j*3)+1] = thickness[(j*3)+2] = 1.0;
}
/*
for (j=0; j < triangleCount * 3; j++) {
printf("%f\n", vertices[j]);
}
*/
outputObjectName = (char *)bu_calloc(512, sizeof(char), "outputObjectName");
snprintf(outputObjectName, 512, "%s.surface.s", argv[1]);
mk_bot( outfp, outputObjectName, RT_BOT_SURFACE, RT_BOT_UNORIENTED, 0, triangleCount*3, triangleCount, vertices, faces, (fastf_t *)NULL, (struct bu_bitv *)NULL );
snprintf(outputObjectName, 512, "%s.solid.s", argv[1]);
mk_bot( outfp, outputObjectName, RT_BOT_SOLID, RT_BOT_UNORIENTED, 0, triangleCount*3, triangleCount, vertices, faces, (fastf_t *)NULL, (struct bu_bitv *)NULL );
/* snprintf(outputObjectName, 512, "%s.plate.s", argv[1]);*/
/* mk_bot( outfp, "bot_u_plate", RT_BOT_PLATE, RT_BOT_UNORIENTED, 0, triangleCount, triangleCount, vertices, faces, thickness, NULL ); */
bu_free(vertices, "vertices");
bu_free(faces, "faces");
bu_free(thickness, "thickness");
wdb_close(outfp);
return 0;
}
int
main(int argc, char **argv)
{
int done;
char units[16], fname[80];
int optc;
while ( (optc = bu_getopt( argc, argv, "tsmnc" )) != -1)
{
switch ( optc ) /* Set joint type and cable option */
{
case 't':
torus = 1;
break;
case 's':
sphere = 1;
break;
case 'm':
mitre = 1;
break;
case 'n':
nothing = 1;
break;
case 'c':
cable = 1;
break;
case '?':
fprintf( stderr, "Illegal option %c\n", optc );
Usage();
return 1;
break;
}
}
if ( (torus + sphere + mitre + nothing) > 1 ) /* Too many joint options */
{
Usage();
fprintf( stderr, "Options t, s, m, n are mutually exclusive\n" );
return 1;
}
else if ( (torus + sphere + mitre + nothing) == 0 ) {
torus = 1; /* default */
}
if ( (argc - bu_optind) != 2 ) {
Usage();
return 1;
}
bu_strlcpy( name, argv[bu_optind++], sizeof(name) ); /* Base name for objects */
fdout = wdb_fopen( argv[bu_optind] );
if ( fdout == NULL )
{
fprintf( stderr, "Cannot open %s\n", argv[bu_optind] );
perror( "Pipe" );
Usage();
return 1;
}
MAT_IDN(identity); /* Identity matrix for all objects */
pi = atan2( 0.0, -1.0 ); /* PI */
printf( "FLUID & PIPING V%d.%d 10 Mar 89\n\n", VERSION, RELEASE );
printf( "append %s to your target description using 'concat' in mged\n", argv[bu_optind] );
k = 0.0;
while ( k == 0.0 )
{
printf( "UNITS? (ft, in, m, cm, default is millimeters) ");
bu_fgets(units, sizeof(units), stdin);
switch (units[0])
{
case '\0':
k = 1.0;
break;
case 'f':
k = 12*25.4;
break;
case 'i':
k=25.4;
break;
case 'm':
if ( units[1] == '\0') k=1000.0;
else k=1.0;
break;
case 'c':
k=10.0;
break;
default:
k=0.0;
printf( "\n\t%s is not a legal choice for units\n", units );
printf( "\tTry again\n" );
break;
}
}
done = 0;
while ( !done )
{
if ( !cable ) {
printf( "radius and wall thickness: ");
if (scanf("%lf %lf", &radius, &wall) == EOF )
return 1;
if (radius > wall)
done = 1;
else
{
printf( " *** bad input!\n\n");
printf( "\tradius must be larger than wall thickness\n" );
printf( "\tTry again\n" );
}
}
else {
printf( "radius: ");
if ( scanf("%lf", &radius ) == EOF )
return 1;
done=1;
}
}
radius=k*radius;
wall=k*wall;
Readpoints(); /* Read data points */
Names(); /* Construct names for all solids */
Normals(); /* Calculate normals and other vectors */
Adjust(); /* Adjust points to allow for elbows */
/* Generate Title */
bu_strlcpy(fname, name, sizeof(fname));
if ( !cable )
bu_strlcat(fname, " pipe and fluid", sizeof(fname));
else
bu_strlcat(fname, " cable", sizeof(fname));
/* Create ident record */
mk_id(fdout, fname);
Pipes(); /* Construct the piping */
Elbows(); /* Construct the elbow sections */
Groups(); /* Make some groups */
return 0;
}
int main(int argc,
char* argv[])
{
int ret = 0;
RegionList regions;
if (argc < 3) {
std::cout << "Usage: " << argv[0] << " <RAW file> <BRL-CAD file>" << std::endl;
ret = 1;
}
else {
std::ifstream is(argv[1]);
if (!is.is_open()) {
std::cout << "Error reading RAW file" << std::endl;
ret = 1;
}
else {
struct rt_wdb* wdbp = wdb_fopen(argv[2]);
std::string title = "Converted from ";
title += argv[1];
mk_id(wdbp, title.c_str());
std::vector<std::string> nameLine = readLine(is);
while (is && !is.eof()) {
if (nameLine.size() == 0) {
nameLine = readLine(is);
continue;
}
std::cout << "Read: " << nameLine[0].c_str() << '\n';
assert(nameLine[0].size() > 0);
Bot& bot = regions.addRegion(nameLine[0]);
if (nameLine.size() > 1) {
size_t thicknessIndex = nameLine[1].find("thickf=");
if (thicknessIndex != std::string::npos) {
std::string thickf = nameLine[1].substr(thicknessIndex + 7);
if (thickf.size() > 0) {
fastf_t val = toValue(thickf.c_str());
bot.setThickness(val);
} else {
std::cout << "Missing thickness in " << nameLine[0].c_str() << '\n';
}
}
}
std::vector<std::string> triangleLine = readLine(is);
while (is && (triangleLine.size() == 9)) {
point_t p;
getPoint(triangleLine[0], triangleLine[1], triangleLine[2], p);
size_t a = bot.addPoint(p);
getPoint(triangleLine[3], triangleLine[4], triangleLine[5], p);
size_t b = bot.addPoint(p);
getPoint(triangleLine[6], triangleLine[7], triangleLine[8], p);
size_t c = bot.addPoint(p);
bot.addTriangle(a, b, c);
triangleLine = readLine(is);
}
nameLine = triangleLine;
}
regions.create(wdbp);
wdb_close(wdbp);
}
}
regions.printStat();
return ret;
}
int
main(int argc, char *argv[])
{
struct rt_wdb *wdbp = NULL;
const char *name = "brep";
ON_Brep *brep = NULL;
int ret;
if ( BU_STR_EQUAL(argv[1],"-h") || BU_STR_EQUAL(argv[1],"-?")) {
printusage();
return 0;
}
if (argc >= 1) {
printusage();
fprintf(stderr," Program continues running (will create file breplicator.g):\n");
}
bu_log("Breplicating...please wait...\n");
ON_3dPoint points[8] = {
/* left */
ON_3dPoint(0.0, 0.0, 0.0), // 0
ON_3dPoint(1.0, 0.0, 0.0), // 1
ON_3dPoint(1.0, 0.0, 2.5), // 2
ON_3dPoint(0.0, 0.0, 2.5), // 3
/* right */
ON_3dPoint(0.0, 1.0, 0.0), // 4
ON_3dPoint(1.0, 1.0, 0.0), // 5
ON_3dPoint(1.0, 1.0, 2.5), // 6
ON_3dPoint(0.0, 1.0, 2.5), // 7
};
brep = generate_brep(8, points);
if (!brep)
bu_exit(1, "ERROR: We don't have a BREP\n");
ON_TextLog log(stdout);
brep->Dump(log);
if (!brep->IsValid(&log)) {
delete brep;
bu_exit(1, "ERROR: We don't have a valid BREP\n");
}
brep->Dump(log);
wdbp = wdb_fopen("breplicator.g");
if (!wdbp) {
delete brep;
bu_exit(2, "ERROR: Unable to open breplicator.g\n");
}
mk_id(wdbp, "Breplicator test geometry");
bu_log("Creating the BREP as BRL-CAD geometry\n");
ret = mk_brep(wdbp, name, brep);
if (ret) {
delete brep;
wdb_close(wdbp);
bu_exit(3, "ERROR: Unable to export %s\n", name);
}
bu_log("Done.\n");
delete brep;
wdb_close(wdbp);
return 0;
}