void
make_room(char *rname, fastf_t *imin, fastf_t *imax, fastf_t *thickness, struct wmember *headp)
/* Interior RPP min point */
{
struct wmember head;
char name[32];
vect_t omin;
vect_t omax;
BU_LIST_INIT( &head.l );
VSUB2( omin, imin, thickness );
VADD2( omax, imax, thickness );
snprintf( name, 32, "o%s", rname );
mk_rpp( outfp, name, omin, omax );
(void)mk_addmember( name, &head.l, NULL, WMOP_UNION );
snprintf( name, 32, "i%s", rname );
mk_rpp( outfp, name, imin, imax );
mk_addmember( name, &head.l, NULL, WMOP_SUBTRACT );
mk_lfcomb( outfp, rname, &head, 1 );
(void)mk_addmember( rname, &(headp->l), NULL, WMOP_UNION );
}
void writeRectangularBox
(
rt_wdb* wdbp,
Form& form,
bool translate
) {
char name[NAMELEN + 1];
point_t min, max;
if (translate) {
VADD2(min, form.data.pt[0], form.tr_vec);
VADD2(max, form.data.pt[1], form.tr_vec);
} else {
VMOVE(min, form.data.pt[0]);
VMOVE(max, form.data.pt[1]);
}
VSCALE(min, min, IntavalUnitInMm);
VSCALE(max, max, IntavalUnitInMm);
sprintf(name, "s%lu.rpp", (long unsigned int)++rpp_counter);
mk_rpp(wdbp, name, min, max);
addToRegion(form.compnr, name);
if (form.s_compnr >= 1000)
excludeFromRegion(form.s_compnr, name);
}
void
make_pillar(char *prefix, int ix, int iy, fastf_t *center, fastf_t *lwh, struct wmember *headp)
/* center of base */
{
vect_t min, max;
unsigned char rgb[4]; /* needs all 4 */
char pilname[32], rname[32], sname[32], oname[32];
int i;
struct wmember head;
struct wmember *wp;
BU_LIST_INIT( &head.l );
snprintf( pilname, 32, "%s%d,%d", prefix, ix, iy );
snprintf( rname, 32, "%s.r", pilname );
snprintf( sname, 32, "%s.s", pilname );
snprintf( oname, 32, "Obj%d,%d", ix, iy );
VMOVE( min, center );
min[X] -= lwh[X];
min[Y] -= lwh[Y];
VADD2( max, center, lwh );
mk_rpp( outfp, sname, min, max );
/* Needs to be in a region, with color! */
get_rgb(rgb);
i = PICK_MAT;
mk_region1( outfp, rname, sname,
mtab[i].mt_name, mtab[i].mt_param, rgb );
(void)mk_addmember( rname, &head.l, NULL, WMOP_UNION );
wp = mk_addmember( oname, &head.l, NULL, WMOP_UNION );
MAT_DELTAS( wp->wm_mat, center[X], center[Y], center[Z]+lwh[Z] );
mk_lfcomb( outfp, pilname, &head, 0 );
(void)mk_addmember( pilname, &(headp->l), NULL, WMOP_UNION );
}
void
make_carpet(char *rname, fastf_t *min, fastf_t *max, char *file, struct wmember *headp)
{
char sname[32];
char args[128];
vect_t cmin, cmax;
VMOVE( cmin, min );
VMOVE( cmax, max );
cmax[Z] = cmin[Z] + 10; /* not very plush carpet */
min[Z] = cmax[Z]; /* raise the caller's floor */
snprintf( sname, 32, "%s.s", rname );
snprintf( args, 128, "texture file=%s;plastic", file );
mk_rpp( outfp, sname, cmin, cmax );
mk_region1( outfp, rname, sname,
"stack", args,
(unsigned char *)0 );
(void)mk_addmember( rname, &(headp->l), NULL, WMOP_UNION );
}
HIDDEN void
create_boxes(genptr_t callBackData, int x, int y, int z, const char *UNUSED(a), fastf_t fill)
{
fastf_t min[3], max[3];
struct bu_vls *vp;
char bufx[50], bufy[50], bufz[50];
char *nameDestination;
struct voxelizeData *dataValues = (struct voxelizeData *)callBackData;
sprintf(bufx, "%d", x);
sprintf(bufy, "%d", y);
sprintf(bufz, "%d", z);
if(dataValues->threshold <= fill) {
vp = bu_vls_vlsinit();
bu_vls_strcat(vp, dataValues->newname);
bu_vls_strcat(vp, ".x");
bu_vls_strcat(vp, bufx);
bu_vls_strcat(vp, "y");
bu_vls_strcat(vp, bufy);
bu_vls_strcat(vp, "z");
bu_vls_strcat(vp, bufz);
bu_vls_strcat(vp, ".s");
min[0] = (dataValues->bbMin)[0] + (x * (dataValues->sizeVoxel)[0]);
min[1] = (dataValues->bbMin)[1] + (y * (dataValues->sizeVoxel)[1]);
min[2] = (dataValues->bbMin)[2] + (z * (dataValues->sizeVoxel)[2]);
max[0] = (dataValues->bbMin)[0] + ( (x + 1.0) * (dataValues->sizeVoxel)[0]);
max[1] = (dataValues->bbMin)[1] + ( (y + 1.0) * (dataValues->sizeVoxel)[1]);
max[2] = (dataValues->bbMin)[2] + ( (z + 1.0) * (dataValues->sizeVoxel)[2]);
nameDestination = bu_vls_strgrab(vp);
mk_rpp(dataValues->wdbp,nameDestination, min, max);
mk_addmember(nameDestination, &dataValues->content.l, 0, WMOP_UNION);
}
}
void
make_walls(char *rname, fastf_t *imin, fastf_t *imax, fastf_t *thickness, int bits, struct wmember *headp)
/* Interior RPP min point */
{
struct wmember head;
char name[32];
vect_t omin, omax; /* outer dimensions */
vect_t wmin, wmax;
int mask;
BU_LIST_INIT( &head.l );
/* thickness[Z] = 0; */
/*
* Set exterior dimensions to interior dimensions.
* Then, thicken them as necessary due to presence of
* exterior walls.
* It may be useful to return the exterior min, max.
*/
VMOVE( omin, imin );
VMOVE( omax, imax );
if ( bits & EAST )
omax[X] += thickness[X];
if ( bits & WEST )
omin[X] -= thickness[X];
if ( bits & NORTH )
omax[Y] += thickness[Y];
if ( bits & SOUTH )
omin[Y] -= thickness[Y];
for ( mask=8; mask > 0; mask >>= 1 ) {
if ( (bits & mask) == 0 ) continue;
VMOVE( wmin, omin );
VMOVE( wmax, omax );
switch ( mask ) {
case SOUTH:
/* South (-Y) wall */
snprintf( name, 32, "S%s", rname );
wmax[Y] = imin[Y];
break;
case WEST:
/* West (-X) wall */
snprintf( name, 32, "W%s", rname );
wmax[X] = imin[X];
break;
case NORTH:
/* North (+Y) wall */
snprintf( name, 32, "N%s", rname );
wmin[Y] = imax[Y];
break;
case EAST:
/* East (+X) wall */
snprintf( name, 32, "E%s", rname );
wmin[X] = imax[X];
break;
}
mk_rpp( outfp, name, wmin, wmax );
(void)mk_addmember( name, &head.l, NULL, WMOP_UNION );
}
mk_lfcomb( outfp, rname, &head, 1 );
(void)mk_addmember( rname, &(headp->l), NULL, WMOP_UNION );
}
/*
* G E T S O L I D
*
* Returns -
* -1 error
* 0 conversion OK
* 1 EOF
*/
int
getsolid(void)
{
char given_solid_num[16];
char solid_type[16];
int i;
double r1, r2;
vect_t work;
double m1, m2; /* Magnitude temporaries */
char *name=NULL;
double dd[4*6]; /* 4 cards of 6 nums each */
point_t tmp[8]; /* 8 vectors of 3 nums each */
int ret;
#define D(_i) (&(dd[_i*3]))
#define T(_i) (&(tmp[_i][0]))
if ( (i = get_line( scard, sizeof(scard), "solid card" )) == EOF ) {
printf("getsolid: unexpected EOF\n");
return( 1 );
}
switch ( version ) {
case 5:
bu_strlcpy( given_solid_num, scard+0, sizeof(given_solid_num) );
given_solid_num[5] = '\0';
bu_strlcpy( solid_type, scard+5, sizeof(solid_type) );
solid_type[5] = '\0';
break;
case 4:
bu_strlcpy( given_solid_num, scard+0, sizeof(given_solid_num) );
given_solid_num[3] = '\0';
bu_strlcpy( solid_type, scard+3, sizeof(solid_type) );
solid_type[7] = '\0';
break;
case 1:
/* DoE/MORSE version, believed to be original MAGIC format */
bu_strlcpy( given_solid_num, scard+5, sizeof(given_solid_num) );
given_solid_num[4] = '\0';
bu_strlcpy( solid_type, scard+2, sizeof(solid_type) );
break;
default:
fprintf(stderr, "getsolid() version %d unimplemented\n", version);
bu_exit(1, NULL);
break;
}
/* Trim trailing spaces */
trim_trail_spaces( given_solid_num );
trim_trail_spaces( solid_type );
/* another solid - increment solid counter
* rather than using number from the card, which may go into
* pseudo-hex format in version 4 models (due to 3 column limit).
*/
sol_work++;
if ( version == 5 ) {
if ( (i = getint( scard, 0, 5 )) != sol_work ) {
printf("expected solid card %d, got %d, abort\n",
sol_work, i );
return(1);
}
}
/* Reduce solid type to lower case */
{
register char *cp;
register char c;
cp = solid_type;
while ( (c = *cp) != '\0' ) {
if ( !isascii(c) ) {
*cp++ = '?';
} else if ( isupper(c) ) {
*cp++ = tolower(c);
} else {
cp++;
}
}
}
namecvt( sol_work, &name, 's' );
if (verbose) col_pr( name );
if ( strcmp( solid_type, "end" ) == 0 ) {
/* DoE/MORSE version 1 format */
bu_free( name, "name" );
return(1); /* END */
}
if ( strcmp( solid_type, "ars" ) == 0 ) {
int ncurves;
int pts_per_curve;
double **curve;
ncurves = getint( scard, 10, 10 );
pts_per_curve = getint( scard, 20, 10 );
/* Allocate curves pointer array */
curve = (double **)bu_malloc((ncurves+1)*sizeof(double *), "curve");
/* Allocate space for a curve, and read it in */
for ( i=0; i<ncurves; i++ ) {
curve[i] = (double *)bu_malloc((pts_per_curve+1)*3*sizeof(double), "curve[i]" );
/* Get data for this curve */
if ( getxsoldata( curve[i], pts_per_curve*3, sol_work ) < 0 ) {
printf("ARS %d: getxsoldata failed, curve %d\n",
sol_work, i);
return(-1);
}
}
if ( (ret = mk_ars( outfp, name, ncurves, pts_per_curve, curve )) < 0 ) {
printf("mk_ars(%s) failed\n", name );
/* Need to free memory; 'ret' is returned below */
}
for ( i=0; i<ncurves; i++ ) {
bu_free( (char *)curve[i], "curve[i]" );
}
bu_free( (char *)curve, "curve" );
bu_free( name, "name" );
return(ret);
}
if ( strcmp( solid_type, "rpp" ) == 0 ) {
double min[3], max[3];
if ( getsoldata( dd, 2*3, sol_work ) < 0 )
return(-1);
VSET( min, dd[0], dd[2], dd[4] );
VSET( max, dd[1], dd[3], dd[5] );
ret = mk_rpp( outfp, name, min, max );
bu_free( name, "name" );
return(ret);
}
if ( strcmp( solid_type, "box" ) == 0 ) {
if ( getsoldata( dd, 4*3, sol_work ) < 0 )
return(-1);
VMOVE( T(0), D(0) );
VADD2( T(1), D(0), D(2) );
VADD3( T(2), D(0), D(2), D(1) );
VADD2( T(3), D(0), D(1) );
VADD2( T(4), D(0), D(3) );
VADD3( T(5), D(0), D(3), D(2) );
VADD4( T(6), D(0), D(3), D(2), D(1) );
VADD3( T(7), D(0), D(3), D(1) );
ret = mk_arb8( outfp, name, &tmp[0][X] );
bu_free( name, "name" );
return(ret);
}
if ( strcmp( solid_type, "raw" ) == 0 ||
strcmp( solid_type, "wed" ) == 0 /* DoE name */
) {
if ( getsoldata( dd, 4*3, sol_work ) < 0 )
return(-1);
VMOVE( T(0), D(0) );
VADD2( T(1), D(0), D(2) );
VMOVE( T(2), T(1) );
VADD2( T(3), D(0), D(1) );
VADD2( T(4), D(0), D(3) );
VADD3( T(5), D(0), D(3), D(2) );
VMOVE( T(6), T(5) );
VADD3( T(7), D(0), D(3), D(1) );
ret = mk_arb8( outfp, name, &tmp[0][X] );
bu_free( name, "name" );
return(ret);
}
if ( strcmp( solid_type, "rvw" ) == 0 ) {
/* Right Vertical Wedge (Origin: DoE/MORSE) */
double a2, theta, phi, h2;
double a2theta;
double angle1, angle2;
vect_t a, b, c;
if ( getsoldata( dd, 1*3+4, sol_work ) < 0 )
return(-1);
a2 = dd[3]; /* XY side length */
theta = dd[4];
phi = dd[5];
h2 = dd[6]; /* height in +Z */
angle1 = (phi+theta-90) * bn_degtorad;
angle2 = (phi+theta) * bn_degtorad;
a2theta = a2 * tan(theta * bn_degtorad);
VSET( a, a2theta*cos(angle1), a2theta*sin(angle1), 0 );
VSET( b, -a2*cos(angle2), -a2*sin(angle2), 0 );
VSET( c, 0, 0, h2 );
VSUB2( T(0), D(0), b );
VMOVE( T(1), D(0) );
VMOVE( T(2), D(0) );
VADD2( T(3), T(0), a );
VADD2( T(4), T(0), c );
VADD2( T(5), T(1), c );
VMOVE( T(6), T(5) );
VADD2( T(7), T(3), c );
ret = mk_arb8( outfp, name, &tmp[0][X] );
bu_free( name, "name" );
return(ret);
}
if ( strcmp( solid_type, "arw" ) == 0) {
/* ARbitrary Wedge --- ERIM */
if ( getsoldata( dd, 4*3, sol_work ) < 0)
return(-1);
VMOVE( T(0), D(0) );
VADD2( T(1), D(0), D(2) );
VADD3( T(2), D(0), D(2), D(3) );
VADD2( T(3), D(0), D(3) );
VADD2( T(4), D(0), D(1) );
VMOVE( T(5), T(4) );
VADD3( T(6), D(0), D(1), D(3) );
VMOVE( T(7), T(6) );
ret = mk_arb8( outfp, name, &tmp[0][X]);
bu_free( name, "name" );
return(ret);
}
if ( strcmp( solid_type, "arb8" ) == 0 ) {
if ( getsoldata( dd, 8*3, sol_work ) < 0 )
return(-1);
ret = mk_arb8( outfp, name, dd );
bu_free( name, "name" );
return(ret);
}
if ( strcmp( solid_type, "arb7" ) == 0 ) {
if ( getsoldata( dd, 7*3, sol_work ) < 0 )
return(-1);
VMOVE( D(7), D(4) );
ret = mk_arb8( outfp, name, dd );
bu_free( name, "name" );
return(ret);
}
if ( strcmp( solid_type, "arb6" ) == 0 ) {
if ( getsoldata( dd, 6*3, sol_work ) < 0 )
return(-1);
/* Note that the ordering is important, as data is in D(4), D(5) */
VMOVE( D(7), D(5) );
VMOVE( D(6), D(5) );
VMOVE( D(5), D(4) );
ret = mk_arb8( outfp, name, dd );
bu_free( name, "name" );
return(ret);
}
if ( strcmp( solid_type, "arb5" ) == 0 ) {
if ( getsoldata( dd, 5*3, sol_work ) < 0 )
return(-1);
VMOVE( D(5), D(4) );
VMOVE( D(6), D(4) );
VMOVE( D(7), D(4) );
ret = mk_arb8( outfp, name, dd );
bu_free( name, "name" );
return(ret);
}
if ( strcmp( solid_type, "arb4" ) == 0 ) {
if ( getsoldata( dd, 4*3, sol_work ) < 0 )
return(-1);
ret = mk_arb4( outfp, name, dd );
bu_free( name, "name" );
return(ret);
}
if ( strcmp( solid_type, "rcc" ) == 0 ) {
/* V, H, r */
if ( getsoldata( dd, 2*3+1, sol_work ) < 0 )
return(-1);
ret = mk_rcc( outfp, name, D(0), D(1), dd[6] );
bu_free( name, "name" );
return(ret);
}
if ( strcmp( solid_type, "rec" ) == 0 ) {
/* V, H, A, B */
if ( getsoldata( dd, 4*3, sol_work ) < 0 )
return(-1);
ret = mk_tgc( outfp, name, D(0), D(1),
D(2), D(3), D(2), D(3) );
bu_free( name, "name" );
return(ret);
}
if ( strcmp( solid_type, "trc" ) == 0 ) {
/* V, H, r1, r2 */
if ( getsoldata( dd, 2*3+2, sol_work ) < 0 )
return(-1);
ret = mk_trc_h( outfp, name, D(0), D(1), dd[6], dd[7] );
bu_free( name, "name" );
return(ret);
}
if ( strcmp( solid_type, "tec" ) == 0 ) {
/* V, H, A, B, p */
if ( getsoldata( dd, 4*3+1, sol_work ) < 0 )
return(-1);
r1 = 1.0/dd[12]; /* P */
VSCALE( D(4), D(2), r1 );
VSCALE( D(5), D(3), r1 );
ret = mk_tgc( outfp, name, D(0), D(1),
D(2), D(3), D(4), D(5) );
bu_free( name, "name" );
return(ret);
}
if ( strcmp( solid_type, "tgc" ) == 0 ) {
/* V, H, A, B, r1, r2 */
if ( getsoldata( dd, 4*3+2, sol_work ) < 0 )
return(-1);
r1 = dd[12] / MAGNITUDE( D(2) ); /* A/|A| * C */
r2 = dd[13] / MAGNITUDE( D(3) ); /* B/|B| * D */
VSCALE( D(4), D(2), r1 );
VSCALE( D(5), D(3), r2 );
ret = mk_tgc( outfp, name, D(0), D(1),
D(2), D(3), D(4), D(5) );
bu_free( name, "name" );
return(ret);
}
if ( strcmp( solid_type, "sph" ) == 0 ) {
/* V, radius */
if ( getsoldata( dd, 1*3+1, sol_work ) < 0 )
return(-1);
ret = mk_sph( outfp, name, D(0), dd[3] );
bu_free( name, "name" );
return(ret);
}
if ( strncmp( solid_type, "wir", 3 ) == 0 ) {
int numpts; /* points per wire */
int num;
int i;
double dia;
double *pts; /* 3 entries per pt */
struct wdb_pipept *ps;
struct bu_list head; /* allow a whole struct for head */
/* This might be getint( solid_type, 3, 2 ); for non-V5 */
numpts = getint( scard, 8, 2 );
num = numpts * 3 + 1; /* 3 entries per pt */
/* allocate space for the points array */
pts = ( double *)bu_malloc(num * sizeof( double), "pts" );
if ( getsoldata( pts, num, sol_work ) < 0 ) {
return(-1);
}
dia = pts[num-1] * 2.0; /* radius X 2.0 == diameter */
/* allocate nodes on a list and store all information in
* the appropriate location.
*/
BU_LIST_INIT( &head );
for ( i = 0; i < numpts; i++ ) {
/* malloc a new structure */
ps = (struct wdb_pipept *)bu_malloc(sizeof( struct wdb_pipept), "ps");
ps->l.magic = WDB_PIPESEG_MAGIC;
VMOVE( ps->pp_coord, &pts[i*3]); /* 3 pts at a time */
ps->pp_id = 0; /* solid */
ps->pp_od = dia;
ps->pp_bendradius = dia;
BU_LIST_INSERT( &head, &ps->l );
}
if ( mk_pipe( outfp, name, &head ) < 0 )
return(-1);
mk_pipe_free( &head );
bu_free( name, "name" );
return(0); /* OK */
}
if ( strcmp( solid_type, "rpc" ) == 0 ) {
/* V, H, B, r */
if ( getsoldata( dd, 3*3+1, sol_work ) < 0 )
return(-1);
ret = mk_rpc( outfp, name, D(0), D(1),
D(2), dd[9] );
bu_free( name, "name" );
return(ret);
}
if ( strcmp( solid_type, "rhc" ) == 0 ) {
/* V, H, B, r, c */
if ( getsoldata( dd, 3*3+2, sol_work ) < 0 )
return(-1);
ret = mk_rhc( outfp, name, D(0), D(1),
D(2), dd[9], dd[10] );
bu_free( name, "name" );
return(ret);
}
if ( strcmp( solid_type, "epa" ) == 0 ) {
/* V, H, Au, r1, r2 */
if ( getsoldata( dd, 3*3+2, sol_work ) < 0 )
return(-1);
ret = mk_epa( outfp, name, D(0), D(1),
D(2), dd[9], dd[10] );
bu_free( name, "name" );
return(ret);
}
if ( strcmp( solid_type, "ehy" ) == 0 ) {
/* V, H, Au, r1, r2, c */
if ( getsoldata( dd, 3*3+3, sol_work ) < 0 )
return(-1);
ret = mk_ehy( outfp, name, D(0), D(1),
D(2), dd[9], dd[10], dd[11] );
bu_free( name, "name" );
return(ret);
}
if ( strcmp( solid_type, "eto" ) == 0 ) {
/* V, N, C, r, rd */
if ( getsoldata( dd, 3*3+2, sol_work ) < 0 )
return(-1);
ret = mk_eto( outfp, name, D(0), D(1),
D(2), dd[9], dd[10] );
bu_free( name, "name" );
return(ret);
}
if ( version <= 4 && strcmp( solid_type, "ell" ) == 0 ) {
/* Foci F1, F2, major axis length L */
vect_t v;
/*
* For simplicity, we convert ELL to ELL1, then
* fall through to ELL1 code.
* Format of ELL is F1, F2, len
* ELL1 format is V, A, r
*/
if ( getsoldata( dd, 2*3+1, sol_work ) < 0 )
return(-1);
VADD2SCALE( v, D(0), D(1), 0.5 ); /* V is midpoint */
VSUB2( work, D(1), D(0) ); /* work holds F2 - F1 */
m1 = MAGNITUDE( work );
r2 = 0.5 * dd[6] / m1;
VSCALE( D(1), work, r2 ); /* A */
dd[6] = sqrt( MAGSQ( D(1) ) -
(m1 * 0.5)*(m1 * 0.5) ); /* r */
VMOVE( D(0), v );
goto ell1;
}
if ( (version == 5 && strcmp( solid_type, "ell" ) == 0) ||
strcmp( solid_type, "ell1" ) == 0 ) {
/* V, A, r */
/* GIFT4 name is "ell1", GIFT5 name is "ell" */
if ( getsoldata( dd, 2*3+1, sol_work ) < 0 )
return(-1);
ell1:
r1 = dd[6]; /* R */
VMOVE( work, D(0) );
work[0] += bn_pi;
work[1] += bn_pi;
work[2] += bn_pi;
VCROSS( D(2), work, D(1) );
m1 = r1/MAGNITUDE( D(2) );
VSCALE( D(2), D(2), m1 );
VCROSS( D(3), D(1), D(2) );
m2 = r1/MAGNITUDE( D(3) );
VSCALE( D(3), D(3), m2 );
/* Now we have V, A, B, C */
ret = mk_ell( outfp, name, D(0), D(1), D(2), D(3) );
bu_free( name, "name" );
return(ret);
}
if ( strcmp( solid_type, "ellg" ) == 0 ) {
/* V, A, B, C */
if ( getsoldata( dd, 4*3, sol_work ) < 0 )
return(-1);
ret = mk_ell( outfp, name, D(0), D(1), D(2), D(3) );
bu_free( name, "name" );
return(ret);
}
if ( strcmp( solid_type, "tor" ) == 0 ) {
/* V, N, r1, r2 */
if ( getsoldata( dd, 2*3+2, sol_work ) < 0 )
return(-1);
ret = mk_tor( outfp, name, D(0), D(1), dd[6], dd[7] );
bu_free( name, "name" );
return(ret);
}
if ( strcmp( solid_type, "haf" ) == 0 ) {
/* N, d */
if ( getsoldata( dd, 1*3+1, sol_work ) < 0 )
return(-1);
ret = mk_half( outfp, name, D(0), -dd[3] );
bu_free( name, "name" );
return(ret);
}
if ( strcmp( solid_type, "arbn" ) == 0 ) {
ret = read_arbn( name );
bu_free( name, "name" );
}
/*
* The solid type string is defective,
* or that solid is not currently supported.
*/
printf("getsolid: no support for solid type '%s'\n", solid_type );
return(-1);
}
