void
cogl2_path_ellipse (CoglPath *path,
float center_x,
float center_y,
float radius_x,
float radius_y)
{
float angle_step = 10;
_COGL_RETURN_IF_FAIL (cogl_is_path (path));
/* FIXME: if shows to be slow might be optimized
* by mirroring just a quarter of it */
_cogl_path_arc (path,
center_x, center_y,
radius_x, radius_y,
0, 360,
angle_step, 1 /* move first */);
cogl2_path_close (path);
}
void
cogl2_path_fill (CoglPath *path)
{
_COGL_RETURN_IF_FAIL (cogl_is_path (path));
if (path->data->path_nodes->len == 0)
return;
/* If the path is a simple rectangle then we can divert to using
cogl_rectangle which should be faster because it can go through
the journal instead of uploading the geometry just for two
triangles */
if (path->data->is_rectangle)
{
float x_1, y_1, x_2, y_2;
_cogl_path_get_bounds (path, &x_1, &y_1, &x_2, &y_2);
cogl_rectangle (x_1, y_1, x_2, y_2);
}
else
_cogl_path_fill_nodes (path, 0);
}
void
cogl2_path_arc (CoglPath *path,
float center_x,
float center_y,
float radius_x,
float radius_y,
float angle_1,
float angle_2)
{
float angle_step = 10;
_COGL_RETURN_IF_FAIL (cogl_is_path (path));
/* it is documented that a move to is needed to create a freestanding
* arc
*/
_cogl_path_arc (path,
center_x, center_y,
radius_x, radius_y,
angle_1, angle_2,
angle_step, 0 /* no move */);
}
void
cogl_path_rel_curve_to (CoglPath *path,
float x_1,
float y_1,
float x_2,
float y_2,
float x_3,
float y_3)
{
CoglPathData *data;
_COGL_RETURN_IF_FAIL (cogl_is_path (path));
data = path->data;
cogl_path_curve_to (path,
data->path_pen.x + x_1,
data->path_pen.y + y_1,
data->path_pen.x + x_2,
data->path_pen.y + y_2,
data->path_pen.x + x_3,
data->path_pen.y + y_3);
}
