static SCM
scm_gnumeric_funcall (SCM funcname, SCM arglist)
{
int i, num_args;
GnmValue **argvals;
GnmValue *retval;
SCM retsmob;
GnmCellRef cell_ref = { 0, 0, 0, 0 };
SCM_ASSERT (SCM_NIMP (funcname) && SCM_STRINGP (funcname), funcname, SCM_ARG1, "gnumeric-funcall");
SCM_ASSERT (SCM_NFALSEP (scm_list_p (arglist)), arglist, SCM_ARG2, "gnumeric-funcall");
num_args = scm_ilength (arglist);
argvals = g_new (GnmValue *, num_args);
for (i = 0; i < num_args; ++i) {
argvals[i] = scm_to_value (SCM_CAR (arglist));
arglist = SCM_CDR (arglist);
}
retval = function_call_with_values (eval_pos, SCM_CHARS (funcname),
num_args,argvals);
retsmob = value_to_scm (retval, cell_ref);
value_release (retval);
return retsmob;
}
/*! \brief Exports the keymap in scheme to a GLib GArray.
* \par Function Description
* This function converts the list of key sequence/action pairs
* returned by the scheme function \c dump-current-keymap into an
* array of C structures.
*
* The returned value must be freed by caller.
*
* \return A GArray with keymap data.
*/
GArray*
g_keys_dump_keymap (void)
{
SCM dump_proc = scm_c_lookup ("dump-current-keymap");
SCM scm_ret;
GArray *ret = NULL;
struct keyseq_action_t {
gchar *keyseq, *action;
};
dump_proc = scm_variable_ref (dump_proc);
g_return_val_if_fail (SCM_NFALSEP (scm_procedure_p (dump_proc)), NULL);
scm_ret = scm_call_0 (dump_proc);
g_return_val_if_fail (SCM_CONSP (scm_ret), NULL);
ret = g_array_sized_new (FALSE,
FALSE,
sizeof (struct keyseq_action_t),
(guint)scm_ilength (scm_ret));
for (; scm_ret != SCM_EOL; scm_ret = SCM_CDR (scm_ret)) {
SCM scm_keymap_entry = SCM_CAR (scm_ret);
struct keyseq_action_t keymap_entry;
g_return_val_if_fail (SCM_CONSP (scm_keymap_entry) &&
scm_is_symbol (SCM_CAR (scm_keymap_entry)) &&
scm_is_string (SCM_CDR (scm_keymap_entry)), ret);
keymap_entry.action = g_strdup (SCM_SYMBOL_CHARS (SCM_CAR (scm_keymap_entry)));
keymap_entry.keyseq = g_strdup (SCM_STRING_CHARS (SCM_CDR (scm_keymap_entry)));
ret = g_array_append_val (ret, keymap_entry);
}
return ret;
}
static SCM star_parse_guile (SCM fname_scm, SCM filter_string_scm, SCM ship_item_scm)
{
char* filter_string = NULL;
char* fname = "-";
if (SCM_NFALSEP(filter_string_scm))
filter_string = scm_to_locale_string(filter_string_scm);
if (SCM_NFALSEP(fname_scm))
fname = scm_to_locale_string(fname_scm);
ship_item_cb = ship_item_scm;
starparse(fname, filter_string, guile_cb, guile_error_handler);
if (filter_string)
free(filter_string);
return SCM_BOOL_F;
}
/*! \brief Evaluates the stroke.
* \par Function Description
* This function transforms the stroke input so far in an action.
*
* It makes use of the guile procedure <B>eval-stroke</B> to evaluate
* the stroke sequence into a possible action. The mouse footprint is
* erased in this function.
*
* It returns 1 if the stroke has been successfully evaluated as an
* action. It returns 0 if libstroke failed to transform the stroke
* or there is no action attached to the stroke.
*
* \param [in] w_current The GschemToplevel object.
* \returns 1 on success, 0 otherwise.
*/
gint
x_stroke_translate_and_execute (GschemToplevel *w_current)
{
gchar sequence[STROKE_MAX_SEQUENCE];
StrokePoint *point;
int min_x, min_y, max_x, max_y;
guint i;
g_assert (stroke_points != NULL);
if (stroke_points->len == 0)
return 0;
point = &g_array_index (stroke_points, StrokePoint, 0);
min_x = max_x = point->x;
min_y = max_y = point->y;
for (i = 1; i < stroke_points->len; i++) {
point = &g_array_index (stroke_points, StrokePoint, i);
min_x = MIN (min_x, point->x);
min_y = MIN (min_y, point->y);
max_x = MAX (max_x, point->x);
max_y = MAX (max_y, point->y);
}
o_invalidate_rect (w_current, min_x, min_y, max_x + 1, max_y + 1);
/* resets length of array */
stroke_points->len = 0;
/* try evaluating stroke */
if (stroke_trans ((char*)&sequence)) {
gchar *guile_string =
g_strdup_printf("(eval-stroke \"%s\")", sequence);
SCM ret;
scm_dynwind_begin ((scm_t_dynwind_flags) 0);
scm_dynwind_unwind_handler (g_free, guile_string, SCM_F_WIND_EXPLICITLY);
ret = g_scm_c_eval_string_protected (guile_string);
scm_dynwind_end ();
return (SCM_NFALSEP (ret));
}
return 0;
}
/*! \brief Evaluates the stroke.
* \par Function Description
* This function transforms the stroke input so far in an action.
*
* It makes use of the guile procedure <B>eval-stroke</B> to evaluate
* the stroke sequence into a possible action. The mouse footprint is
* erased in this function.
*
* It returns 1 if the stroke has been successfully evaluated as an
* action. It returns 0 if libstroke failed to transform the stroke
* or there is no action attached to the stroke.
*
* \param [in] w_current The GSCHEM_TOPLEVEL object.
* \returns 1 on success, 0 otherwise.
*/
gint
x_stroke_translate_and_execute (GSCHEM_TOPLEVEL *w_current)
{
gchar sequence[STROKE_MAX_SEQUENCE];
StrokePoint *point;
int min_x, min_y, max_x, max_y;
gint i;
g_assert (stroke_points != NULL);
if (stroke_points->len == 0)
return 0;
point = &g_array_index (stroke_points, StrokePoint, 0);
min_x = max_x = point->x;
min_y = max_y = point->y;
for (i = 1; i < stroke_points->len; i++) {
point = &g_array_index (stroke_points, StrokePoint, i);
min_x = min (min_x, point->x);
min_y = min (min_y, point->y);
max_x = max (max_x, point->x);
max_y = max (max_y, point->y);
}
o_invalidate_rect (w_current, min_x, min_y, max_x + 1, max_y + 1);
/* resets length of array */
stroke_points->len = 0;
/* try evaluating stroke */
if (stroke_trans ((char*)&sequence)) {
gchar *guile_string =
g_strdup_printf("(eval-stroke \"%s\")", sequence);
SCM ret;
ret = g_scm_c_eval_string_protected (guile_string);
g_free (guile_string);
return (SCM_NFALSEP (ret));
}
return 0;
}
inline bool tmscm_is_equal (tmscm o1, tmscm o2) { return SCM_NFALSEP ( scm_equal_p(o1, o2)); }
void gwave_main(void *p, int argc, char **argv)
{
int c;
int i;
int nobacktrace = 0;
/* In guile-1.5 and later, need to use scm_primitive_eval_x
* in order to change modules so that our C primitives
* registered below become globals, instead of hidden away
* in the guile-user module
*/
{
SCM exp = scm_c_read_string("(define-module (guile))");
scm_primitive_eval_x(exp);
}
init_scwm_guile();
init_gtkmisc();
init_gwave();
init_cmd();
init_wavewin();
init_wavelist();
init_wavepanel();
init_event();
init_draw();
gtk_init(&argc, &argv);
prog_name = argv[0];
/* simple pre-processing of debugging options that we need to set up
* before we get into guile. These options cannot be bundled.
* Most of the general user options are handled in std-args.scm */
for(i = 1; i < argc; i++) {
if(strcmp(argv[i], "-n") == 0) {
nobacktrace = 1;
} else if (strcmp(argv[i], "-v") == 0) {
v_flag = 1;
} else if (strcmp(argv[i], "-x") == 0) {
x_flag = 1;
SCM_SETCDR(scm_gwave_debug, SCM_BOOL_T);
}
}
gtk_rc_parse_string(gwave_base_gtkrc);
gtk_rc_parse("gwave.gtkrc");
// assert( SCM_CONSP(scm_gwave_tooltips) );
#ifdef GUILE_GTK_EXTRA_LOADPATH
scm_c_eval_string("(set! %load-path (cons \"" GUILE_GTK_EXTRA_LOADPATH "\" %load-path))");
#endif
/* the default for this seems to have changed between guile-1.3
and guile-1.3.2; only the first clause is needed when
we drop support for guile-1.3.2 */
if (!nobacktrace) {
scm_c_eval_string("(debug-enable 'debug)(debug-enable 'backtrace) (read-enable 'positions)");
} /* else {
scm_c_eval_str("(debug-disable 'debug)(read-disable 'positions)");
}*/
/* the compiled-in initial scheme code comes from minimal.scm,
built into init_scheme_string.c by the Makefile
Among other things, it finds and loads system and user .gwaverc
files.
*/
{ /* scope */
extern char *init_scheme_string;
SCM res;
if(v_flag) {fprintf(stderr, "running init_scheme_string\n");}
res = scwm_safe_eval_str(init_scheme_string);
if(v_flag) {
printf("result="); fflush(stdout);
scm_display(res, scm_cur_outp);
printf("\n"); fflush(stdout);
}
if(!SCM_NFALSEP(res)) {
fprintf(stderr, "gwave: aborting due to errors.\n");
exit(1);
}
} /* end scope */
wtable = g_new0(WaveTable, 1);
wtable->cursor[0] = g_new0(VBCursor, 1);
wtable->cursor[1] = g_new0(VBCursor, 1);
wtable->srange = g_new0(SelRange, 1);
wtable->npanels = 0;
wtable->panels = NULL;
setup_colors(wtable);
setup_waveform_window();
xg_init(NULL); /* X-server interprocess communication for Gtk+ */
gtk_main();
exit(0);
}
/* get confinement from SCM
* in SCM, confinement is given by one of these:
* for spherical confinement,
* (define confinement '(
* 10.0 ;; LJ parameter epsilon in kT (so this is dimensionless value)
* 1.0 ;; LJ parameter r0 in "length" (so this is dimensionless value)
* "sphere"
* 10.0 ;; radius of the cavity at (0, 0, 0)
* ))
* for spherical confinement with a hole,
* (define confinement '(
* 10.0 ;; LJ parameter epsilon in kT (so this is dimensionless value)
* 1.0 ;; LJ parameter r0 in "length" (so this is dimensionless value)
* "sphere+hole"
* 10.0 ;; radius of the cavity at (0, 0, 0)
* 1.0 ;; radius of the hole at (0, 0, 1) direction
* ))
* for cylindrical confinement,
* (define confinement '(
* 10.0 ;; LJ parameter epsilon in kT (so this is dimensionless value)
* 1.0 ;; LJ parameter r0 in "length" (so this is dimensionless value)
* "cylinder" ;; the cylinder center goes through (0, 0, 0) and (x, y, z).
* 10.0 ;; radius of the cylinder
* 1.0 0.0 0.0 ;; direction vector (x, y, z) of the cylinder
* ))
* for dumbbell confinement,
* (define confinement '(
* 10.0 ;; LJ parameter epsilon in kT (so this is dimensionless value)
* 1.0 ;; LJ parameter r0 in "length" (so this is dimensionless value)
* "dumbbell" ;; the origin is at the center of the cylinder
* 10.0 ;; left cavity radius centered at (center1, 0, 0)
* 10.0 ;; right cavity radius centered at (center2, 0, 0)
* 2.0 ;; length of the cylinder
* 1.0 ;; cylinder radius
* ))
* for 2D hexagonal confinement with cylinder pipe,
* (define confinement '(
* 10.0 ;; LJ parameter epsilon in kT (so this is dimensionless value)
* 1.0 ;; LJ parameter r0 in "length" (so this is dimensionless value)
* "hex2d"
* 10.0 ;; cavity radius
* 1.0 ;; cylinder radius
* 12.0 ;; lattice spacing
* ))
* for porous media (outside of the 3D hexagonal particle array)
* (define confinement '(
* 10.0 ;; LJ parameter epsilon in kT (so this is dimensionless value)
* 1.0 ;; LJ parameter r0 in "length" (so this is dimensionless value)
* "porous"
* 10.0 ;; particle radius
* 20.0 ;; lattice spacing in x (2R for touching case)
* ))
* INPUT
* var : name of the variable.
* in the above example, set "confinement".
* OUTPUT
* returned value : struct confinement
* if NULL is returned, it failed (not defined)
*/
struct confinement *
CF_guile_get (const char *var)
{
if (guile_check_symbol (var) == 0)
{
fprintf (stderr, "CF_guile_get: %s is not defined\n", var);
return (NULL);
}
SCM scm_symbol
= scm_c_lookup (var);
SCM scm_confinement
= scm_variable_ref (scm_symbol);
if (!SCM_NFALSEP (scm_list_p (scm_confinement)))
{
fprintf (stderr, "CF_guile_get: %s is not a list\n", var);
return (NULL);
}
struct confinement *cf = NULL;
unsigned long len
= scm_num2ulong (scm_length (scm_confinement),
0, "CF_guile_get");
if (len == 0)
{
// no confinement
return (cf);
}
else if (len < 4)
{
fprintf (stderr, "CF_guile_get: %s is too short\n", var);
return (NULL);
}
double epsilon
= scm_num2dbl (scm_list_ref (scm_confinement, scm_int2num (0)),
"CF_guile_get");
double r0
= scm_num2dbl (scm_list_ref (scm_confinement, scm_int2num (1)),
"CF_guile_get");
// get the string
char *str_cf = NULL;
SCM scm_conf = scm_list_ref (scm_confinement, scm_int2num (2));
#ifdef GUILE16
size_t str_len;
if (gh_string_p (scm_conf))
{
str_cf = gh_scm2newstr (scm_conf, &str_len);
}
#else // !GUILE16
if (scm_is_string (scm_conf))
{
str_cf = scm_to_locale_string (scm_conf);
}
#endif // GUILE16
if (strcmp (str_cf, "sphere") == 0)
{
if (len != 4)
{
fprintf (stderr, "CF_guile_get:"
" for sphere, number of parameter must be 1\n");
}
else
{
double R
= scm_num2dbl (scm_list_ref (scm_confinement, scm_int2num (3)),
"CF_guile_get");
cf = CF_init (0, // sphere
R,
0.0, // r
0.0, 0.0, 0.0, // x, y, z
0.0, // R2
0.0, // L
0, // flag_LJ
epsilon,
r0);
CHECK_MALLOC (cf, "CF_guile_get");
}
}
else if (strcmp (str_cf, "sphere+hole") == 0)
{
if (len != 5)
{
fprintf (stderr, "CF_guile_get:"
" for sphere+hole, number of parameter must be 2\n");
}
else
{
double R
= scm_num2dbl (scm_list_ref (scm_confinement, scm_int2num (3)),
"CF_guile_get");
double r
= scm_num2dbl (scm_list_ref (scm_confinement, scm_int2num (4)),
"CF_guile_get");
cf = CF_init (1, // sphere+hole
R,
r,
0.0, 0.0, 0.0, // x, y, z
0.0, // R2
0.0, // L
0, // flag_LJ
epsilon,
r0);
CHECK_MALLOC (cf, "CF_guile_get");
}
}
else if (strcmp (str_cf, "cylinder") == 0)
{
if (len != 7)
{
fprintf (stderr, "CF_guile_get:"
" for cylinder, number of parameter must be 4\n");
}
else
{
double r
= scm_num2dbl (scm_list_ref (scm_confinement, scm_int2num (3)),
"CF_guile_get");
double x
= scm_num2dbl (scm_list_ref (scm_confinement, scm_int2num (4)),
"CF_guile_get");
double y
= scm_num2dbl (scm_list_ref (scm_confinement, scm_int2num (5)),
"CF_guile_get");
double z
= scm_num2dbl (scm_list_ref (scm_confinement, scm_int2num (6)),
"CF_guile_get");
cf = CF_init (2, // cylinder
0.0, // R,
r,
x, y, z,
0.0, // R2
0.0, // L
0, // flag_LJ
epsilon,
r0);
CHECK_MALLOC (cf, "CF_guile_get");
}
}
else if (strcmp (str_cf, "dumbbell") == 0)
{
if (len != 7)
{
fprintf (stderr, "CF_guile_get:"
" for dumbbell, number of parameter must be 4\n");
}
else
{
double R
= scm_num2dbl (scm_list_ref (scm_confinement, scm_int2num (3)),
"CF_guile_get");
double R2
= scm_num2dbl (scm_list_ref (scm_confinement, scm_int2num (4)),
"CF_guile_get");
double L
= scm_num2dbl (scm_list_ref (scm_confinement, scm_int2num (5)),
"CF_guile_get");
double r
= scm_num2dbl (scm_list_ref (scm_confinement, scm_int2num (6)),
"CF_guile_get");
cf = CF_init (3, // dumbbell
R,
r,
0.0, 0.0, 0.0, // x, y, z
R2,
L,
0, // flag_LJ
epsilon,
r0);
CHECK_MALLOC (cf, "CF_guile_get");
}
}
else if (strcmp (str_cf, "hex2d") == 0)
{
if (len != 6)
{
fprintf (stderr, "CF_guile_get:"
" for hex2d, number of parameter must be 3\n");
}
else
{
double R
= scm_num2dbl (scm_list_ref (scm_confinement, scm_int2num (3)),
"CF_guile_get");
double r
= scm_num2dbl (scm_list_ref (scm_confinement, scm_int2num (4)),
"CF_guile_get");
double L
= scm_num2dbl (scm_list_ref (scm_confinement, scm_int2num (5)),
"CF_guile_get");
cf = CF_init (4, // hex2d
R,
r,
0.0, 0.0, 0.0, // x, y, z
0.0, // R2
L,
0, // flag_LJ
epsilon,
r0);
CHECK_MALLOC (cf, "CF_guile_get");
}
}
else if (strcmp (str_cf, "porous") == 0)
{
if (len != 5)
{
fprintf (stderr, "CF_guile_get:"
" for hex2d, number of parameter must be 2\n");
}
else
{
double R
= scm_num2dbl (scm_list_ref (scm_confinement, scm_int2num (3)),
"CF_guile_get");
double L
= scm_num2dbl (scm_list_ref (scm_confinement, scm_int2num (4)),
"CF_guile_get");
cf = CF_init (5, // porous
R,
0.0,
0.0, 0.0, 0.0, // x, y, z
0.0, // R2
L,
0, // flag_LJ
epsilon,
r0);
CHECK_MALLOC (cf, "CF_guile_get");
}
}
else
{
fprintf (stderr, "CF_guile_get: invalid confinement %s\n",
str_cf);
}
free (str_cf);
return (cf); // success
}
/*! \brief Add a component to the page.
* \par Function Description
* Adds a component <B>scm_comp_name</B> to the schematic, at
* position (<B>scm_x</B>, <B>scm_y</B>), with some properties set by
* the parameters:
* \param [in] scm_x Coordinate X of the symbol.
* \param [in] scm_y Coordinate Y of the symbol.
* \param [in] angle Angle of rotation of the symbol.
* \param [in] selectable True if the symbol is selectable, false otherwise.
* \param [in] mirror True if the symbol is mirrored, false otherwise.
* If scm_comp_name is a scheme empty list, SCM_BOOL_F, or an empty
* string (""), then g_add_component returns SCM_BOOL_F without writing
* to the log.
* \return TRUE if the component was added, FALSE otherwise.
*
*/
SCM g_add_component(SCM page_smob, SCM scm_comp_name, SCM scm_x, SCM scm_y,
SCM scm_angle, SCM scm_selectable, SCM scm_mirror)
{
TOPLEVEL *toplevel;
PAGE *page;
gboolean selectable, mirror;
gchar *comp_name;
int x, y, angle;
OBJECT *new_obj;
const CLibSymbol *clib;
/* Return if scm_comp_name is NULL (an empty list) or scheme's FALSE */
if (SCM_NULLP(scm_comp_name) ||
(SCM_BOOLP(scm_comp_name) && !(SCM_NFALSEP(scm_comp_name))) ) {
return SCM_BOOL_F;
}
/* Get toplevel and the page */
SCM_ASSERT (g_get_data_from_page_smob (page_smob, &toplevel, &page),
page_smob, SCM_ARG1, "add-component-at-xy");
/* Check the arguments */
SCM_ASSERT (scm_is_string(scm_comp_name), scm_comp_name,
SCM_ARG2, "add-component-at-xy");
SCM_ASSERT ( scm_is_integer(scm_x), scm_x,
SCM_ARG3, "add-component-at-xy");
SCM_ASSERT ( scm_is_integer(scm_y), scm_y,
SCM_ARG4, "add-component-at-xy");
SCM_ASSERT ( scm_is_integer(scm_angle), scm_angle,
SCM_ARG5, "add-component-at-xy");
SCM_ASSERT ( scm_boolean_p(scm_selectable), scm_selectable,
SCM_ARG6, "add-component-at-xy");
SCM_ASSERT ( scm_boolean_p(scm_mirror), scm_mirror,
SCM_ARG7, "add-component-at-xy");
/* Get the parameters */
comp_name = SCM_STRING_CHARS(scm_comp_name);
x = scm_to_int(scm_y);
y = scm_to_int(scm_y);
angle = scm_to_int(scm_angle);
selectable = SCM_NFALSEP(scm_selectable);
mirror = SCM_NFALSEP(scm_mirror);
SCM_ASSERT (comp_name, scm_comp_name,
SCM_ARG2, "add-component-at-xy");
if (strcmp(comp_name, "") == 0) {
return SCM_BOOL_F;
}
clib = s_clib_get_symbol_by_name (comp_name);
new_obj = o_complex_new (toplevel, 'C', DEFAULT_COLOR, x, y, angle, mirror,
clib, comp_name, selectable);
s_page_append_list (page, o_complex_promote_attribs (toplevel, new_obj));
s_page_append (page, new_obj);
/*
* For now, do not redraw the newly added complex, since this might cause
* flicker if you are zoom/panning right after this function executes
*/
#if 0
/* Now the new component should be added to the object's list and
drawn in the screen */
o_invalidate (toplevel, new_object);
#endif
return SCM_BOOL_T;
}
/*
* Adds an attribute <B>scm_attrib_name</B> with value <B>scm_attrib_value</B> to the given <B>object</B>.
The attribute has the visibility <B>scm_vis</B> and show <B>scm_show</B> flags.
The possible values are:
- <B>scm_vis</B>: scheme boolean. Visible (TRUE) or hidden (FALSE).
- <B>scm_show</B>: a list containing what to show: "name", "value", or both.
The return value is always TRUE.
*/
SCM g_add_attrib(SCM object, SCM scm_attrib_name,
SCM scm_attrib_value, SCM scm_vis, SCM scm_show)
{
GSCHEM_TOPLEVEL *w_current=global_window_current;
TOPLEVEL *toplevel = w_current->toplevel;
OBJECT *o_current=NULL;
gboolean vis;
int show=0;
gchar *attrib_name=NULL;
gchar *attrib_value=NULL;
gchar *value=NULL;
int i;
gchar *newtext=NULL;
SCM_ASSERT (scm_is_string(scm_attrib_name), scm_attrib_name,
SCM_ARG2, "add-attribute-to-object");
SCM_ASSERT (scm_is_string(scm_attrib_value), scm_attrib_value,
SCM_ARG3, "add-attribute-to-object");
SCM_ASSERT (scm_boolean_p(scm_vis), scm_vis,
SCM_ARG4, "add-attribute-to-object");
SCM_ASSERT (scm_list_p(scm_show), scm_show,
SCM_ARG5, "add-attribute-to-object");
/* Get toplevel and o_current */
SCM_ASSERT (g_get_data_from_object_smob (object, &toplevel, &o_current),
object, SCM_ARG1, "add-attribute-to-object");
/* Get parameters */
attrib_name = SCM_STRING_CHARS(scm_attrib_name);
attrib_value = SCM_STRING_CHARS(scm_attrib_value);
vis = SCM_NFALSEP(scm_vis);
for (i=0; i<=scm_to_int(scm_length(scm_show))-1; i++) {
/* Check every element in the list. It should be a string! */
SCM_ASSERT(scm_list_ref(scm_show, scm_from_int(i)),
scm_show,
SCM_ARG5, "add-attribute-to-object");
SCM_ASSERT(scm_is_string(scm_list_ref(scm_show, scm_from_int(i))),
scm_show,
SCM_ARG5, "add-attribute-to-object");
value = SCM_STRING_CHARS(scm_list_ref(scm_show, scm_from_int(i)));
SCM_ASSERT(value, scm_show,
SCM_ARG5, "add-attribute-to-object");
/* Only "name" or "value" strings are allowed */
SCM_ASSERT(!((strcasecmp(value, "name") != 0) &&
(strcasecmp(value, "value") != 0) ), scm_show,
SCM_ARG5, "add-attribute-to-object");
/* show = 1 => show value;
show = 2 => show name;
show = 3 => show both */
if (strcasecmp(value, "value") == 0) {
show |= 1;
}
else if (strcasecmp(value, "name") == 0) {
show |= 2;
}
}
/* Show name and value (show = 3) => show=0 for gschem */
if (show == 3) {
show = 0;
}
newtext = g_strdup_printf("%s=%s", attrib_name, attrib_value);
o_attrib_add_attrib (w_current, newtext, vis, show, o_current);
g_free(newtext);
return SCM_BOOL_T;
}
int scm_is_true(SCM x) {
return SCM_NFALSEP (x);
}
int scm_to_bool(SCM x) {
return SCM_NFALSEP(x);
}
