/* Set the fill mode for a graphics context. */
int
clip_GDK_GCSETFILL(ClipMachine * cm)
{
C_object *cgc = _fetch_co_arg(cm);
GdkFill fill = _clip_parni(cm,2);
CHECKCOBJ(cgc,GDK_IS_GC(cgc)); CHECKOPT(2,NUMERIC_t);
gdk_gc_set_fill(GDK_GC(cgc->object), fill);
return 0;
err:
return 1;
}
/* Increase the reference count on a graphics context. */
int
clip_GDK_GCREF(ClipMachine * cm)
{
C_object *cgc = _fetch_co_arg(cm);
CHECKCOBJ(cgc,GDK_IS_GC(cgc));
gdk_gc_ref(GDK_GC(cgc->object));
cgc->ref_count++;
return 0;
err:
return 1;
}
/* Determines how the current pixel values and the pixel values being
* drawn are combined to produce the final pixel values. */
int
clip_GDK_GCSETFUNCTION(ClipMachine * cm)
{
C_object *cgc = _fetch_co_arg(cm);
GdkFunction function = _clip_parni(cm,2);
CHECKCOBJ(cgc,GDK_IS_GC(cgc)); CHECKOPT(2,NUMERIC_t);
gdk_gc_set_function(GDK_GC(cgc->object), function);
return 0;
err:
return 1;
}
/* Sets whether copying non-visible portions of a drawable using this graphics
* context generate exposure events for the corresponding regions of the
* destination drawable. (See gdk_draw_pixmap()). */
int
clip_GDK_GCSETEXPOSURES(ClipMachine * cm)
{
C_object *cgc = _fetch_co_arg(cm);
gint exposures = _clip_parni (cm, 2);
CHECKCOBJ(cgc,GDK_IS_GC(cgc)); CHECKARG(2,NUMERIC_t);
gdk_gc_set_exposures(GDK_GC(cgc->object), exposures);
return 0;
err:
return 1;
}
/* Sets the origin of the clip mask. The coordinates are interpreted relative to
* the upper-left corner of the destination drawable of the current operation. */
int
clip_GDK_GCSETCLIPORIGIN(ClipMachine * cm)
{
C_object *cgc = _fetch_co_arg(cm);
gint x = _clip_parni(cm,2);
gint y = _clip_parni(cm,3);
CHECKCOBJ(cgc,GDK_IS_GC(cgc)); CHECKOPT(2,NUMERIC_t); CHECKOPT(3,NUMERIC_t);
gdk_gc_set_clip_origin(GDK_GC(cgc->object), x, y);
return 0;
err:
return 1;
}
/* GDK_CLIP_BY_CHILDREN only draw onto the window itself.
GDK_INCLUDE_INFERIORS Draw onto the window and child windows. */
int
clip_GDK_GCSETSUBWINDOW(ClipMachine * cm)
{
C_object *cgc = _fetch_co_arg(cm);
GdkSubwindowMode mode = _clip_parni (cm, 2);
CHECKCOBJ(cgc,GDK_IS_GC(cgc)); CHECKARG(2,NUMERIC_t);
gdk_gc_set_subwindow(GDK_GC(cgc->object), mode);
return 0;
err:
return 1;
}
/* Sets the clip mask for a graphics context from a bitmap.
* The clip mask is interpreted relative to the clip origin.
* (See gdk_gc_set_clip_origin()). */
int
clip_GDK_GCSETCLIPMASK(ClipMachine * cm)
{
C_object *cgc = _fetch_co_arg(cm);
C_widget *cxpm = _fetch_cwidget(cm,_clip_spar(cm,2));
CHECKCOBJ(cgc,GDK_IS_GC(cgc));
CHECKARG2(2,MAP_t,NUMERIC_t); CHECKCWID(cxpm,GTK_IS_PIXMAP);
gdk_gc_set_clip_mask(GDK_GC(cgc->object), GTK_PIXMAP(cxpm->widget)->pixmap);
return 0;
err:
return 1;
}
/* Sets the clip mask for a graphics context from a region structure.
* The clip mask is interpreted relative to the clip origin.
* (See gdk_gc_set_clip_origin()). */
int
clip_GDK_GCSETCLIPREGION(ClipMachine * cm)
{
C_object *cgc = _fetch_co_arg(cm);
C_object *creg = _fetch_cobject(cm,_clip_spar(cm,2));
CHECKCOBJ(cgc,GDK_IS_GC(cgc));
CHECKARG2(2,MAP_t,NUMERIC_t); CHECKCOBJ(creg,GDK_IS_REGION(creg));
gdk_gc_set_clip_region(GDK_GC(cgc->object), (GdkRegion*)(creg->object));
return 0;
err:
return 1;
}
/* Sets the foreground color for a graphics context. */
int
clip_GDK_GCSETFOREGROUND(ClipMachine * cm)
{
C_object *cgc = _fetch_co_arg(cm);
ClipVar *mcolor = _clip_spar ( cm, 2);
GdkColor color;
CHECKCOBJ(cgc,GDK_IS_GC(cgc)); CHECKARG(2,MAP_t);
_map_colors_to_gdk(cm, mcolor, &color);
gdk_gc_set_foreground(GDK_GC(cgc->object), &color);
return 0;
err:
return 1;
}
static VALUE
rg_draw_pixbuf(VALUE self, VALUE gc, VALUE pixbuf, VALUE src_x, VALUE src_y, VALUE dest_x, VALUE dest_y, VALUE width, VALUE height, VALUE dither, VALUE x_dither, VALUE y_dither)
{
gdk_draw_pixbuf(_SELF(self),
GDK_GC(RVAL2GOBJ(gc)),
GDK_PIXBUF(RVAL2GOBJ(pixbuf)),
NUM2INT(src_x), NUM2INT(src_y),
NUM2INT(dest_x), NUM2INT(dest_y),
NUM2INT(width), NUM2INT(height),
RVAL2GENUM(dither, GDK_TYPE_RGB_DITHER),
NUM2INT(x_dither), NUM2INT(y_dither));
return self;
}
static VALUE
rg_draw_points(VALUE self, VALUE rbgc, VALUE rbpoints)
{
GdkDrawable *drawable = _SELF(self);
GdkGC *gc = GDK_GC(RVAL2GOBJ(rbgc));
long n;
GdkPoint *points = RVAL2GDKPOINTS(rbpoints, &n);
gdk_draw_points(drawable, gc, points, n);
g_free(points);
return self;
}
static VALUE
rg_draw_segments(VALUE self, VALUE rbgc, VALUE rbsegments)
{
GdkDrawable *drawable = _SELF(self);
GdkGC *gc = GDK_GC(RVAL2GOBJ(rbgc));
long n;
GdkSegment *segments = RVAL2GDKSEGMENTS(rbsegments, &n);
gdk_draw_segments(drawable, gc, segments, n);
g_free(segments);
return self;
}
static VALUE
rg_draw_trapezoids(VALUE self, VALUE rbgc, VALUE rbtrapezoids)
{
GdkDrawable *drawable = _SELF(self);
GdkGC *gc = GDK_GC(RVAL2GOBJ(rbgc));
long n;
GdkTrapezoid *trapezoids = RVAL2GDKTRAPEZOIDS(rbtrapezoids, &n);
gdk_draw_trapezoids(drawable, gc, trapezoids, n);
g_free(trapezoids);
return self;
}
static VALUE
rg_draw_layout(int argc, VALUE *argv, VALUE self)
{
VALUE gc, x, y, layout, fg, bg;
rb_scan_args(argc, argv, "42", &gc, &x, &y, &layout, &fg, &bg);
gdk_draw_layout_with_colors(_SELF(self), GDK_GC(RVAL2GOBJ(gc)),
NUM2INT(x), NUM2INT(y), PANGO_LAYOUT(RVAL2GOBJ(layout)),
RVAL2GDKCOLOR(fg),
RVAL2GDKCOLOR(bg));
return self;
}
GdkGC*
_gdk_directfb_gc_new (GdkDrawable *drawable,
GdkGCValues *values,
GdkGCValuesMask values_mask)
{
GdkGC *gc;
GdkGCDirectFB *private;
g_return_val_if_fail (GDK_IS_DRAWABLE_IMPL_DIRECTFB (drawable), NULL);
gc = GDK_GC (g_object_new (gdk_gc_directfb_get_type (), NULL));
_gdk_gc_init (gc, drawable, values, values_mask);
private = GDK_GC_DIRECTFB (gc);
static VALUE
rg_draw_layout_line(int argc, VALUE *argv, VALUE self)
{
VALUE gc, x, y, line, fg, bg;
rb_scan_args(argc, argv, "42", &gc, &x, &y, &line, &fg, &bg);
gdk_draw_layout_line_with_colors(_SELF(self), GDK_GC(RVAL2GOBJ(gc)),
NUM2INT(x), NUM2INT(y),
(PangoLayoutLine*)RVAL2BOXED(line, PANGO_TYPE_LAYOUT_LINE),
RVAL2GDKCOLOR(fg),
RVAL2GDKCOLOR(bg));
return self;
}
static VALUE
rg_draw_polygon(VALUE self, VALUE rbgc, VALUE rbfilled, VALUE rbpoints)
{
GdkDrawable *drawable = _SELF(self);
GdkGC *gc = GDK_GC(RVAL2GOBJ(rbgc));
gboolean filled = RVAL2CBOOL(rbfilled);
long n;
GdkPoint *points = RVAL2GDKPOINTS(rbpoints, &n);
gdk_draw_polygon(drawable, gc, filled, points, n);
g_free(points);
return self;
}
/* Decrease the reference count on a graphics context. If the resulting
* reference count is zero, the graphics context will be destroyed. */
int
clip_GDK_GCUNREF(ClipMachine * cm)
{
C_object *cgc = _fetch_co_arg(cm);
CHECKCOBJ(cgc,GDK_IS_GC(cgc));
cgc->ref_count--;
if (cgc->ref_count > 0)
gdk_gc_unref(GDK_GC(cgc->object));
else
destroy_c_object(cgc);
// gdk_gc_unref(GDK_GC(cgc->object));
return 0;
err:
return 1;
}
/* Sets various attributes of how lines are drawn. See the corresponding
* members of GdkGCValues for full explanations of the arguments. */
int
clip_GDK_GCSETLINEATTRIBUTES(ClipMachine * cm)
{
C_object *cgc = _fetch_co_arg(cm);
gint line_width = INT_OPTION (cm, 2, 0);
GdkLineStyle line_style = _clip_parni (cm, 3);
GdkCapStyle cap_style = _clip_parni (cm, 4);
GdkJoinStyle join_style = _clip_parni (cm, 5);
CHECKCOBJ(cgc,GDK_IS_GC(cgc));
CHECKOPT(2,NUMERIC_t); CHECKOPT(3,NUMERIC_t);
CHECKOPT(4,NUMERIC_t); CHECKOPT(5,NUMERIC_t);
gdk_gc_set_line_attributes(GDK_GC(cgc->object),
line_width, line_style, cap_style, join_style);
return 0;
err:
return 1;
}
/* Sets the way dashed-lines are drawn. Lines will be drawn with alternating
* on and off segments of the lengths specified in dash_list. The manner in
* which the on and off segments are drawn is determined by the line_style
* value of the GC. (This can be changed with gdk_gc_set_line_attributes) */
int
clip_GDK_GCSETDASHES(ClipMachine * cm)
{
C_object *cgc = _fetch_co_arg(cm);
gint dash_offset = _clip_parni (cm, 2);
gchar *dash_list = _clip_parc (cm, 3);
gint n = _clip_parni (cm, 4);
CHECKCOBJ(cgc,GDK_IS_GC(cgc));
CHECKOPT(2,NUMERIC_t); CHECKARG(3,CHARACTER_t); CHECKOPT(4,NUMERIC_t);
if (_clip_parinfo(cm,4)==UNDEF_t) n = strlen(dash_list);
gdk_gc_set_dashes(GDK_GC(cgc->object), dash_offset,(gint8 *)dash_list,n);
return 0;
err:
return 1;
}
static void
gdk_gc_directfb_finalize (GObject *object)
{
GdkGC *gc = GDK_GC (object);
GdkGCDirectFB *private = GDK_GC_DIRECTFB (gc);
if (private->clip_region.numRects)
temp_region_deinit (&private->clip_region);
if (private->values.clip_mask)
g_object_unref (private->values.clip_mask);
if (private->values.stipple)
g_object_unref (private->values.stipple);
if (private->values.tile)
g_object_unref (private->values.tile);
if (G_OBJECT_CLASS (parent_class)->finalize)
G_OBJECT_CLASS (parent_class)->finalize (object);
}
/* Alena */
int
clip_GDK_DRAWPIXMAP(ClipMachine * ClipMachineMemory)
{
C_widget *cwid = _fetch_cw_arg(ClipMachineMemory);
C_object *cgc = _fetch_cobject(ClipMachineMemory, _clip_spar(ClipMachineMemory, 2));
C_widget *cpix = _fetch_cwidget(ClipMachineMemory, _clip_spar(ClipMachineMemory, 3));
gint xsrc = _clip_parni(ClipMachineMemory, 4);
gint ysrc = _clip_parni(ClipMachineMemory, 5);
gint xdest = _clip_parni(ClipMachineMemory, 6);
gint ydest = _clip_parni(ClipMachineMemory, 7);
gint width = _clip_parni(ClipMachineMemory, 8);
gint height = _clip_parni(ClipMachineMemory, 9);
GdkDrawable *drw = NULL;
CHECKARG2(1, NUMERIC_type_of_ClipVarType, MAP_type_of_ClipVarType);
CHECKCWID(cwid, GTK_IS_WIDGET);
CHECKARG2(2, NUMERIC_type_of_ClipVarType, MAP_type_of_ClipVarType);
CHECKCOBJ(cgc, GDK_IS_GC(cgc));
CHECKARG2(3, NUMERIC_type_of_ClipVarType, MAP_type_of_ClipVarType);
CHECKCWID(cpix, GTK_IS_WIDGET);
CHECKARG(4, NUMERIC_type_of_ClipVarType);
CHECKARG(5, NUMERIC_type_of_ClipVarType);
CHECKARG(6, NUMERIC_type_of_ClipVarType);
CHECKARG(7, NUMERIC_type_of_ClipVarType);
CHECKARG(8, NUMERIC_type_of_ClipVarType);
CHECKARG(9, NUMERIC_type_of_ClipVarType);
drw = cwid->widget->window;
if (GTK_IS_PIXMAP(cwid->widget))
drw = GTK_PIXMAP(cwid->widget)->pixmap;
gdk_draw_pixmap(drw, GDK_GC(cgc->object), GTK_PIXMAP(cpix->widget)->pixmap, xsrc, ysrc, xdest, ydest, width, height);
return 0;
err:
return 1;
}
gboolean expose_event_top_left(GtkWidget *widget,GdkEventExpose *event, gpointer user){
static GdkGC *this_gc = NULL;
TimeLinePrivate *priv;
priv = (TimeLinePrivate *)user;
if(priv->top_left_evb->window == NULL || priv->display_buffer_top_left == NULL){
}
if (NULL == this_gc)
{
this_gc = gdk_gc_new(GDK_DRAWABLE(priv->top_left_evb->window));
}
gdk_draw_drawable(GDK_DRAWABLE(priv->top_left_evb->window), GDK_GC(this_gc),
GDK_PIXMAP(priv->display_buffer_top_left),0, 0, 0, 0,priv->left_border_width, priv->top_border_height);
//gtk_widget_modify_bg(GTK_WIDGET(priv->top_left_evb),GTK_STATE_NORMAL,&entireRowColor);
return TRUE;
}
static VALUE
pixbuf_render_to_drawable(int argc, VALUE *argv, VALUE self)
{
VALUE gc, src_x, src_y, dest_x, dest_y, width, height,
dither, x_dither, y_dither;
#if GTK_CHECK_VERSION(2,2,0)
rb_warn("Gdk::Pixbuf#render_to_drawable is obsolete. Use Gdk::Drawable#draw_pixbuf instead.");
#endif
rb_scan_args(argc, argv, "73", &gc, &src_x, &src_y, &dest_x, &dest_y,
&width, &height, &dither, &x_dither, &y_dither);
if (NIL_P(gc))
rb_raise(rb_eArgError, "arguments 1 must be non nil");
if (NIL_P(src_x))
rb_raise(rb_eArgError, "arguments 2 must be non nil");
if (NIL_P(src_y))
rb_raise(rb_eArgError, "arguments 3 must be non nil");
if (NIL_P(dest_x))
rb_raise(rb_eArgError, "arguments 4 must be non nil");
if (NIL_P(dest_y))
rb_raise(rb_eArgError, "arguments 5 must be non nil");
if (NIL_P(width))
rb_raise(rb_eArgError, "arguments 6 must be non nil");
if (NIL_P(height))
rb_raise(rb_eArgError, "arguments 7 must be non nil");
gdk_pixbuf_render_to_drawable(_SELF(self),
GDK_DRAWABLE(RVAL2GOBJ(self)),
GDK_GC(RVAL2GOBJ(gc)),
NUM2INT(src_x), NUM2INT(src_y),
NUM2INT(dest_x), NUM2INT(dest_y),
NUM2INT(width), NUM2INT(height),
NIL_P(dither) ? GDK_RGB_DITHER_NONE : RVAL2GENUM(dither, GDK_TYPE_RGB_DITHER),
NIL_P(x_dither) ? 0 : NUM2INT(x_dither),
NIL_P(y_dither) ? 0 : NUM2INT(y_dither));
return self;
}
/* Draws a number of characters in the given font or fontset. */
int
clip_GDK_DRAWTEXT(ClipMachine * ClipMachineMemory)
{
C_widget *cwid = _fetch_cw_arg(ClipMachineMemory);
C_object *cgc = _fetch_cobject(ClipMachineMemory, _clip_spar(ClipMachineMemory, 2));
C_object *font = _fetch_cobject(ClipMachineMemory, _clip_spar(ClipMachineMemory, 3));
gint x = _clip_parni(ClipMachineMemory, 4);
gint y = _clip_parni(ClipMachineMemory, 5);
gchar *text = _clip_parc(ClipMachineMemory, 6);
gint length = _clip_parni(ClipMachineMemory, 7);
GdkDrawable *drw = NULL;
CHECKCWID(cwid, GTK_IS_WIDGET);
CHECKOPT2(2, NUMERIC_type_of_ClipVarType, MAP_type_of_ClipVarType);
CHECKCOBJ(cgc, GDK_IS_GC(cgc));
CHECKOPT2(3, NUMERIC_type_of_ClipVarType, MAP_type_of_ClipVarType);
CHECKCOBJ(cgc, GDK_IS_FONT(font));
CHECKOPT(4, NUMERIC_type_of_ClipVarType);
CHECKOPT(5, NUMERIC_type_of_ClipVarType);
CHECKOPT(6, CHARACTER_type_of_ClipVarType);
CHECKOPT(7, NUMERIC_type_of_ClipVarType);
drw = cwid->widget->window;
if (GTK_IS_PIXMAP(cwid->widget))
drw = GTK_PIXMAP(cwid->widget)->pixmap;
LOCALE_TO_UTF(text);
gdk_draw_text(drw, GDK_FONT(font->object), GDK_GC(cgc->object), x, y, text, length);
FREE_TEXT(text);
return 0;
err:
return 1;
}
static VALUE
style_set_white_gc(VALUE self, VALUE gc)
{
_SELF(self)->white_gc = GDK_GC(RVAL2GOBJ(gc));
return self;
}
/* Retrieves the current values from a graphics context. */
int
clip_GDK_GCGETVALUES(ClipMachine * cm)
{
C_object *cgc = _fetch_co_arg(cm);
ClipVar *ret = RETPTR(cm);
GdkGCValues gcv;
C_object *cfont;
ClipVar *c = NEW(ClipVar);
C_widget *cw;
CHECKCOBJ(cgc,GDK_IS_GC(cgc));
gdk_gc_get_values(GDK_GC(cgc->object), &gcv);
memset(ret,0,sizeof(*ret)); _clip_map(cm,ret);
memset(c,0,sizeof(*c));
/* the foreground color. */
_clip_map(cm, c); _gdk_color_to_map(cm, gcv.foreground, c);
_clip_madd(cm, ret, HASH_FOREGROUND, c);
/* the background color. */
_clip_map(cm, c); _gdk_color_to_map(cm, gcv.background, c);
_clip_madd(cm, ret, HASH_BACKGROUND, c);
_clip_destroy(cm,c); free(c);
/* the default font */
cfont = _get_cobject(cm,gcv.font,GDK_OBJECT_FONT,
(coDestructor)gdk_object_font_destructor);
if (cfont) _clip_madd(cm, ret, HASH_FONT, &cfont->obj);
/* the bitwise operation used when drawing. */
_clip_mputn(cm,ret,HASH_FUNCTION,gcv.function);
/* the fill style. */
_clip_mputn(cm,ret,HASH_FILL,gcv.fill);
/* the tile pixmap. */
if (gcv.tile)
{
cw = _list_get_cwidget_by_data(cm,gcv.tile);
if (!cw)
{
GtkWidget *wxpm = gtk_pixmap_new(gcv.tile,NULL);
cw = _register_widget(cm,wxpm,NULL);
}
if (cw) _clip_madd( cm, ret, HASH_TILE, &cw->obj);
}
/* the stipple pixmap. */
if (gcv.stipple)
{
cw = _list_get_cwidget_by_data(cm,gcv.stipple);
if (!cw)
{
GtkWidget *wxpm = gtk_pixmap_new(gcv.stipple,NULL);
cw = _register_widget(cm,wxpm,NULL);
}
if (cw) _clip_madd( cm, ret, HASH_STIPPLE, &cw->obj);
}
/* the clip mask bitmap. */
if (gcv.clip_mask)
{
cw = _list_get_cwidget_by_data(cm,gcv.clip_mask);
if (!cw)
{
GtkWidget *wxpm = gtk_pixmap_new(gcv.clip_mask,NULL);
cw = _register_widget(cm,wxpm,NULL);
}
if (cw) _clip_madd( cm, ret, HASH_CLIPMASK, &cw->obj);
}
/* the subwindow mode. */
_clip_mputn(cm,ret,HASH_SUBWINDOWMODE,gcv.subwindow_mode);
/* the x origin of the tile or stipple. */
_clip_mputn(cm,ret,HASH_TSXORIGIN,gcv.ts_x_origin);
/* the y origin of the tile or stipple. */
_clip_mputn(cm,ret,HASH_TSYORIGIN,gcv.ts_y_origin);
/* the x origin of the clip mask. */
_clip_mputn(cm,ret,HASH_CLIPXORIGIN,gcv.clip_x_origin);
/* the y origin of the clip mask. */
_clip_mputn(cm,ret,HASH_CLIPYORIGIN,gcv.clip_y_origin);
/* whether graphics exposures are enabled. */
_clip_mputn(cm,ret,HASH_GRAPHICSEXPOSURES,gcv.graphics_exposures);
/* the line width */
_clip_mputn(cm,ret,HASH_LINEWIDTH,gcv.line_width);
/* the way dashed lines are drawn */
_clip_mputn(cm,ret,HASH_LINESTYLE,gcv.line_style);
/* the way the ends of lines are drawn */
_clip_mputn(cm,ret,HASH_CAPSTYLE,gcv.cap_style);
/* the way joins between lines are drawn */
_clip_mputn(cm,ret,HASH_JOINSTYLE,gcv.join_style);
return 0;
err:
return 1;
}
static int
pygtk_style_helper_setitem(PyGtkStyleHelper_Object *self, Py_ssize_t pos,
PyObject *value)
{
extern PyTypeObject PyGdkGC_Type;
extern PyTypeObject PyGdkPixmap_Type;
if (pos < 0) pos += NUM_STATES;
if (pos < 0 || pos >= NUM_STATES) {
PyErr_SetString(PyExc_IndexError, "index out of range");
return -1;
}
switch (self->type) {
case STYLE_COLOUR_ARRAY:
{
GdkColor *array = (GdkColor *)self->array;
if (!pyg_boxed_check(value, GDK_TYPE_COLOR)) {
PyErr_SetString(PyExc_TypeError, "can only assign a GdkColor");
return -1;
}
array[pos] = *pyg_boxed_get(value, GdkColor);
return 0;
}
case STYLE_GC_ARRAY:
{
GdkGC **array = (GdkGC **)self->array;
if (!pygobject_check(value, &PyGdkGC_Type)) {
PyErr_SetString(PyExc_TypeError, "can only assign a GdkGC");
return -1;
}
if (array[pos]) {
g_object_unref(array[pos]);
}
array[pos] = GDK_GC(g_object_ref(pygobject_get(value)));
return 0;
}
case STYLE_PIXMAP_ARRAY:
{
GdkPixmap **array = (GdkPixmap **)self->array;
GdkPixmap *cvalue = NULL;
if (pygobject_check(value, &PyGdkPixmap_Type))
cvalue = GDK_PIXMAP(g_object_ref(pygobject_get(value)));
else if (PyLong_Check(value)) {
if (PyLong_AsLong(value) != GDK_PARENT_RELATIVE) {
PyErr_SetString(PyExc_TypeError,
"can only assign a GdkPixmap, None or "
"GDK_PARENT_RELATIVE");
return -1;
}
cvalue = (GdkPixmap*)GDK_PARENT_RELATIVE;
} else if (value != Py_None) {
PyErr_SetString(PyExc_TypeError,
"can only assign a GdkPixmap, None or "
"GDK_PARENT_RELATIVE");
return -1;
}
if (array[pos] && (long)array[pos] != GDK_PARENT_RELATIVE) {
g_object_unref(array[pos]);
}
array[pos] = cvalue;
return 0;
}
}
g_assert_not_reached();
return -1;
}
gboolean time_line_internal_draw_layer_duration(TimeLinePrivate *priv, gint layer_number)
{
// Local variables
const GdkColor colour_black = {0, 0, 0, 0 };
const GdkColor colour_fade = {0, (160 << 8), (160 << 8), (190 << 8) };
const GdkColor colour_fully_visible = {0, (200 << 8), (200 << 8), (230 << 8) };
static GdkColormap *colourmap = NULL; // Colormap used for drawing
static GdkGC *display_buffer_gc = NULL;
gint layer_height;
layer *layer_data;
GList *layer_pointer; // Points to the layers in the selected slide
gint layer_width;
gint layer_x;
gint layer_y;
gint left_border;
// Initialisation
if (NULL == colourmap)
{
colourmap = gdk_colormap_get_system();
gdk_drawable_set_colormap(GDK_DRAWABLE(priv->display_buffer_bot_right), GDK_COLORMAP(colourmap));
}
if (NULL == display_buffer_gc)
{
display_buffer_gc = gdk_gc_new(GDK_DRAWABLE(priv->display_buffer_bot_right));
}
left_border = 0;// time_line_get_left_border_width(priv);
// Select the layer we're working with
layer_pointer = get_current_slide_layers_pointer();
layer_pointer = g_list_first(layer_pointer);
layer_data = g_list_nth_data(layer_pointer, layer_number);
// Set the height related variables
layer_y = (layer_number * priv->row_height) + 2;
layer_height = priv->row_height - 3;
// Check if there's a fade in transition for this layer
if (TRANS_LAYER_FADE == layer_data->transition_in_type)
{
// Draw the fade in
layer_x = left_border + (layer_data->start_time * time_line_get_pixels_per_second()) + 1;
layer_width = (layer_data->transition_in_duration * time_line_get_pixels_per_second());
gdk_gc_set_rgb_fg_color(GDK_GC(display_buffer_gc), &colour_fade);
gdk_draw_rectangle(GDK_DRAWABLE(priv->display_buffer_bot_right), GDK_GC(display_buffer_gc), TRUE,
layer_x, layer_y, layer_width, layer_height);
gdk_gc_set_rgb_fg_color(GDK_GC(display_buffer_gc), &colour_black);
gdk_draw_rectangle(GDK_DRAWABLE(priv->display_buffer_bot_right), GDK_GC(display_buffer_gc), FALSE,
layer_x, layer_y, layer_width, layer_height - 1);
// Draw the fully visible duration
layer_x = left_border + ((layer_data->start_time + layer_data->transition_in_duration) * time_line_get_pixels_per_second()) + 1;
layer_width = (layer_data->duration * time_line_get_pixels_per_second());
gdk_gc_set_rgb_fg_color(GDK_GC(display_buffer_gc), &colour_fully_visible);
gdk_draw_rectangle(GDK_DRAWABLE(priv->display_buffer_bot_right), GDK_GC(display_buffer_gc), TRUE,
layer_x, layer_y, layer_width, layer_height);
gdk_gc_set_rgb_fg_color(GDK_GC(display_buffer_gc), &colour_black);
gdk_draw_rectangle(GDK_DRAWABLE(priv->display_buffer_bot_right), GDK_GC(display_buffer_gc), FALSE,
layer_x - 1, layer_y, layer_width, layer_height -1);
} else
{
// There's no fade in transition for this layer
layer_x = left_border + (layer_data->start_time * time_line_get_pixels_per_second()) + 1;
layer_width = (layer_data->duration * time_line_get_pixels_per_second());
gdk_gc_set_rgb_fg_color(GDK_GC(display_buffer_gc), &colour_fully_visible);
gdk_draw_rectangle(GDK_DRAWABLE(priv->display_buffer_bot_right), GDK_GC(display_buffer_gc), TRUE,
layer_x, layer_y, layer_width, layer_height);
gdk_gc_set_rgb_fg_color(GDK_GC(display_buffer_gc), &colour_black);
gdk_draw_rectangle(GDK_DRAWABLE(priv->display_buffer_bot_right), GDK_GC(display_buffer_gc), FALSE,
layer_x, layer_y, layer_width - 1, layer_height - 1);
}
// Check if there's a fade out transition for this layer
if (TRANS_LAYER_FADE == layer_data->transition_out_type)
{
// Draw the fade out
layer_x += (layer_data->duration * time_line_get_pixels_per_second());
layer_width = (layer_data->transition_out_duration * time_line_get_pixels_per_second());
gdk_gc_set_rgb_fg_color(GDK_GC(display_buffer_gc), &colour_fade);
gdk_draw_rectangle(GDK_DRAWABLE(priv->display_buffer_bot_right), GDK_GC(display_buffer_gc), TRUE,
layer_x, layer_y, layer_width, layer_height);
gdk_gc_set_rgb_fg_color(GDK_GC(display_buffer_gc), &colour_black);
gdk_draw_rectangle(GDK_DRAWABLE(priv->display_buffer_bot_right), GDK_GC(display_buffer_gc), FALSE,
layer_x - 1, layer_y, layer_width, layer_height - 1);
}
return TRUE;
}
gboolean working_area_button_press_event(GtkWidget *widget, GdkEventButton *event, gpointer data)
{
// Local variables
gint box_height; // Height of the bounding box
gint box_width; // Width of the bounding box
GList *collision_list = NULL;
guint count_int;
gint finish_x; // X position at the layer objects finish time
gint finish_y; // Y position at the layer objects finish time
GList *layer_pointer;
GString *message; // Used to construct message strings
guint num_collisions;
gint onscreen_bottom; // Y coordinate of bounding box bottom
gint onscreen_left; // X coordinate of bounding box left
gint onscreen_right; // X coordinate of bounding box right
gint onscreen_top; // Y coordinate of bounding box top
gint pixmap_height; // Height of the front store
gint pixmap_width; // Width of the front store
gfloat scaled_height_ratio; // Used to calculate a vertical scaling ratio
gfloat scaled_width_ratio; // Used to calculate a horizontal scaling ratio
gint selected_row; // Holds the number of the row that is selected
gint start_x; // X position at the layer objects start time
gint start_y; // Y position at the layer objects start time
layer *this_layer_data; // Pointer to the data for the selected layer
slide *this_slide_data; // Alias to make things easier
guint tmp_int; // Temporary integer
// Only do this function if we have a front store available and a project loaded
if ((NULL == get_front_store()) || (FALSE == get_project_active()))
{
return TRUE;
}
// Set the delete key focus to be layers
set_delete_focus(FOCUS_LAYER);
// Change the focus of the window to be this widget
gtk_widget_grab_focus(GTK_WIDGET(widget));
// Initialise some things
this_slide_data = get_current_slide_data();
gdk_drawable_get_size(GDK_PIXMAP(get_front_store()), &pixmap_width, &pixmap_height);
// Check for primary mouse button click
if (1 != event->button)
{
// Not a primary mouse click, so return
return TRUE;
}
// Reset the mouse drag toggle
set_mouse_dragging(FALSE);
// Check if this was a double mouse click. If it was, open an edit dialog
if (GDK_2BUTTON_PRESS == event->type)
{
// Open an edit dialog
layer_edit();
return TRUE;
}
// Check if this was a triple mouse click. If it was, ignore it
if (GDK_3BUTTON_PRESS == event->type)
{
return TRUE;
}
// If we're presently creating a new highlight layer, store the mouse coordinates
if (TYPE_HIGHLIGHT == get_new_layer_selected())
{
// Save the mouse coordinates
set_stored_x(event->x);
set_stored_y(event->y);
// Reset the invalidation area
set_invalidation_end_x(event->x);
set_invalidation_end_y(event->y);
set_invalidation_start_x(event->x - 1);
set_invalidation_start_y(event->y - 1);
return TRUE;
}
// If the user has clicked on the start or end points for the selected layer, we
// don't want to do the collision detection below that changes layers
if (END_POINTS_INACTIVE == get_end_point_status())
{
// * Check if the user is clicking on the layer start or end points *
// Calculate the height and width scaling values for the main drawing area at its present size
scaled_height_ratio = (gfloat) get_project_height() / (gfloat) pixmap_height;
scaled_width_ratio = (gfloat) get_project_width() / (gfloat) pixmap_width;
// Determine which row is selected in the time line
selected_row = time_line_get_selected_layer_num(this_slide_data->timeline_widget);
layer_pointer = g_list_first(this_slide_data->layers);
this_layer_data = g_list_nth_data(layer_pointer, selected_row);
// If the layer data isn't accessible, then don't run this function
if (NULL == this_layer_data)
{
return TRUE;
}
// Calculate start and end points
finish_x = (this_layer_data->x_offset_finish / scaled_width_ratio) + END_POINT_HORIZONTAL_OFFSET;
finish_y = (this_layer_data->y_offset_finish / scaled_height_ratio) + END_POINT_VERTICAL_OFFSET;
start_x = (this_layer_data->x_offset_start / scaled_width_ratio) + END_POINT_HORIZONTAL_OFFSET;
start_y = (this_layer_data->y_offset_start / scaled_height_ratio) + END_POINT_VERTICAL_OFFSET;
// Is the user clicking on an end point?
if (((event->x >= start_x) // Start point
&& (event->x <= start_x + END_POINT_WIDTH)
&& (event->y >= start_y)
&& (event->y <= start_y + END_POINT_HEIGHT)) ||
((event->x >= finish_x) // End point
&& (event->x <= finish_x + END_POINT_WIDTH)
&& (event->y >= finish_y)
&& (event->y <= finish_y + END_POINT_HEIGHT)))
{
// Retrieve the layer size information
switch (this_layer_data->object_type)
{
case TYPE_EMPTY:
// We can't drag an empty layer, so reset things and return
set_mouse_dragging(FALSE);
set_end_point_status(END_POINTS_INACTIVE);
set_stored_x(-1);
set_stored_y(-1);
return TRUE;
case TYPE_HIGHLIGHT:
box_width = ((layer_highlight *) this_layer_data->object_data)->width;
box_height = ((layer_highlight *) this_layer_data->object_data)->height;
break;
case TYPE_GDK_PIXBUF:
// If this is the background layer, then we ignore it
if (TRUE == this_layer_data->background)
{
set_mouse_dragging(FALSE);
set_end_point_status(END_POINTS_INACTIVE);
set_stored_x(-1);
set_stored_y(-1);
return TRUE;
}
// No it's not, so process it
box_width = ((layer_image *) this_layer_data->object_data)->width;
box_height = ((layer_image *) this_layer_data->object_data)->height;
break;
case TYPE_MOUSE_CURSOR:
box_width = ((layer_mouse *) this_layer_data->object_data)->width;
box_height = ((layer_mouse *) this_layer_data->object_data)->height;
break;
case TYPE_TEXT:
box_width = ((layer_text *) this_layer_data->object_data)->rendered_width;
box_height = ((layer_text *) this_layer_data->object_data)->rendered_height;
break;
default:
message = g_string_new(NULL);
g_string_printf(message, "%s ED377: %s", _("Error"), _("Unknown layer type."));
display_warning(message->str);
g_string_free(message, TRUE);
return TRUE; // Unknown layer type, so no idea how to extract the needed data for the next code
}
// Work out the bounding box boundaries (scaled)
if ((event->x >= start_x) // Left
&& (event->x <= start_x + END_POINT_WIDTH) // Right
&& (event->y >= start_y) // Top
&& (event->y <= start_y + END_POINT_HEIGHT)) // Bottom
{
// Start point clicked
onscreen_left = this_layer_data->x_offset_start / scaled_width_ratio;
onscreen_top = this_layer_data->y_offset_start / scaled_width_ratio;;
onscreen_right = (this_layer_data->x_offset_start + box_width) / scaled_height_ratio;
onscreen_bottom = (this_layer_data->y_offset_start + box_height) / scaled_height_ratio;
} else
{
// End point clicked
onscreen_left = this_layer_data->x_offset_finish / scaled_width_ratio;
onscreen_top = this_layer_data->y_offset_finish / scaled_width_ratio;;
onscreen_right = (this_layer_data->x_offset_finish + box_width) / scaled_height_ratio;
onscreen_bottom = (this_layer_data->y_offset_finish + box_height) / scaled_height_ratio;
}
// Ensure the bounding box doesn't go out of bounds
onscreen_left = CLAMP(onscreen_left, 2, pixmap_width - 2);
onscreen_top = CLAMP(onscreen_top, 2, pixmap_height - 2);
onscreen_right = CLAMP(onscreen_right, 2, pixmap_width - 2);
onscreen_bottom = CLAMP(onscreen_bottom, 2, pixmap_height - 2);
// Draw a bounding box onscreen
draw_bounding_box(onscreen_left, onscreen_top, onscreen_right, onscreen_bottom);
// End point clicked, so we return in order to avoid the collision detection
return TRUE;
}
}
// * Do collision detection here to determine if the user has clicked on a layer's object *
this_slide_data = get_current_slide_data();
calculate_object_boundaries();
collision_list = detect_collisions(collision_list, event->x, event->y);
if (NULL == collision_list)
{
// If there was no collision, then select the background layer
time_line_set_selected_layer_num(this_slide_data->timeline_widget, this_slide_data->num_layers - 1); // *Needs* the -1, don't remove
// Clear any existing handle box
gdk_draw_drawable(GDK_DRAWABLE(get_main_drawing_area()->window), GDK_GC(get_main_drawing_area()->style->fg_gc[GTK_WIDGET_STATE(get_main_drawing_area())]),
GDK_PIXMAP(get_front_store()), 0, 0, 0, 0, -1, -1);
// Reset the stored mouse coordinates
set_stored_x(-1);
set_stored_y(-1);
// Free the memory allocated during the collision detection
g_list_free(collision_list);
collision_list = NULL;
return TRUE;
}
// * To get here there must have been at least one collision *
// Save the mouse coordinates
set_stored_x(event->x);
set_stored_y(event->y);
// Determine which layer the user has selected in the timeline
selected_row = time_line_get_selected_layer_num(this_slide_data->timeline_widget);
// Is the presently selected layer in the collision list?
collision_list = g_list_first(collision_list);
num_collisions = g_list_length(collision_list);
for (count_int = 0; count_int < num_collisions; count_int++)
{
collision_list = g_list_first(collision_list);
collision_list = g_list_nth(collision_list, count_int);
layer_pointer = g_list_first(this_slide_data->layers);
tmp_int = g_list_position(layer_pointer, ((boundary_box *) collision_list->data)->layer_ptr);
if (tmp_int == selected_row)
{
// Return if the presently selected row is in the collision list, as we don't want to change our selected layer
return TRUE;
}
}
// * To get here, the presently selected layer wasn't in the collision list *
// The presently selected row is not in the collision list, so move the selection row to the first collision
collision_list = g_list_first(collision_list);
selected_row = g_list_position(this_slide_data->layers, ((boundary_box *) collision_list->data)->layer_ptr);
time_line_set_selected_layer_num(this_slide_data->timeline_widget, selected_row);
// Draw a handle box around the new selected object
draw_handle_box();
// Free the memory allocated during the collision detection
g_list_free(collision_list);
collision_list = NULL;
return TRUE;
}