/**
* Get the number of dereferences or calls to get_original() needed to get an object
* which is not an svg:use. Returns -1 if there is no original object.
*/
int SPUse::cloneDepth() const {
unsigned depth = 1;
SPItem *orig = this->child;
while (orig && SP_IS_USE(orig)) {
++depth;
orig = SP_USE(orig)->child;
}
if (!orig) return -1;
return depth;
}
/**
* Returns the ultimate original of a SPUse (i.e. the first object in the chain of its originals
* which is not an SPUse). If no original is found, NULL is returned (it is the responsibility
* of the caller to make sure that this is handled correctly).
*
* Note that the returned is the clone object, i.e. the child of an SPUse (of the argument one for
* the trivial case) and not the "true original".
*/
SPItem *SPUse::root() {
SPItem *orig = this->child;
while (orig && SP_IS_USE(orig)) {
orig = SP_USE(orig)->child;
}
if (!orig) {
return NULL;
}
return orig;
}
/**
* Returns the effective transform that goes from the ultimate original to given SPUse, both ends
* included.
*/
Geom::Affine SPUse::get_root_transform() {
//track the ultimate source of a chain of uses
SPObject *orig = this->child;
GSList *chain = NULL;
chain = g_slist_prepend(chain, this);
while (SP_IS_USE(orig)) {
chain = g_slist_prepend(chain, orig);
orig = SP_USE(orig)->child;
}
chain = g_slist_prepend(chain, orig);
// calculate the accummulated transform, starting from the original
Geom::Affine t(Geom::identity());
for (GSList *i = chain; i != NULL; i = i->next) {
SPItem *i_tem = SP_ITEM(i->data);
// "An additional transformation translate(x,y) is appended to the end (i.e.,
// right-side) of the transform attribute on the generated 'g', where x and y
// represent the values of the x and y attributes on the 'use' element." - http://www.w3.org/TR/SVG11/struct.html#UseElement
if (SP_IS_USE(i_tem)) {
SPUse *i_use = SP_USE(i_tem);
if ((i_use->x._set && i_use->x.computed != 0) || (i_use->y._set && i_use->y.computed != 0)) {
t = t * Geom::Translate(i_use->x._set ? i_use->x.computed : 0, i_use->y._set ? i_use->y.computed : 0);
}
}
t *= i_tem->transform;
}
g_slist_free(chain);
return t;
}
static void GetDest(SPObject* child,Shape **computed)
{
if ( child == NULL ) return;
SPCurve *curve=NULL;
Geom::Matrix tr_mat;
SPObject* u_child=child;
if ( SP_IS_USE(u_child) ) {
u_child=SP_USE(u_child)->child;
tr_mat = SP_ITEM(u_child)->getRelativeTransform(SP_OBJECT_PARENT(child));
} else {
tr_mat = SP_ITEM(u_child)->transform;
}
if ( SP_IS_SHAPE (u_child) ) {
curve = sp_shape_get_curve (SP_SHAPE (u_child));
} else if ( SP_IS_TEXT (u_child) ) {
curve = SP_TEXT (u_child)->getNormalizedBpath ();
}
if ( curve ) {
Path* temp=new Path;
temp->LoadPathVector(curve->get_pathvector(), tr_mat, true);
Shape* n_shp=new Shape;
temp->Convert(0.25);
temp->Fill(n_shp,0);
Shape* uncross=new Shape;
SPStyle* style=SP_OBJECT_STYLE(u_child);
if ( style && style->fill_rule.computed == SP_WIND_RULE_EVENODD ) {
uncross->ConvertToShape(n_shp,fill_oddEven);
} else {
uncross->ConvertToShape(n_shp,fill_nonZero);
}
UnionShape(computed, uncross);
delete uncross;
delete n_shp;
delete temp;
curve->unref();
} else {
// printf("no curve\n");
}
}
bool
item_type_match (SPItem *item, GtkWidget *widget)
{
SPDesktop *desktop = SP_ACTIVE_DESKTOP;
if (SP_IS_RECT(item)) {
return (type_checkbox (widget, "shapes") || type_checkbox (widget, "rects"));
} else if (SP_IS_GENERICELLIPSE(item) || SP_IS_ELLIPSE(item) || SP_IS_ARC(item) || SP_IS_CIRCLE(item)) {
return (type_checkbox (widget, "shapes") || type_checkbox (widget, "ellipses"));
} else if (SP_IS_STAR(item) || SP_IS_POLYGON(item)) {
return (type_checkbox (widget, "shapes") || type_checkbox (widget, "stars"));
} else if (SP_IS_SPIRAL(item)) {
return (type_checkbox (widget, "shapes") || type_checkbox (widget, "spirals"));
} else if (SP_IS_PATH(item) || SP_IS_LINE(item) || SP_IS_POLYLINE(item)) {
return (type_checkbox (widget, "paths"));
} else if (SP_IS_TEXT(item) || SP_IS_TSPAN(item) || SP_IS_TREF(item) || SP_IS_STRING(item)) {
return (type_checkbox (widget, "texts"));
} else if (SP_IS_GROUP(item) && !desktop->isLayer(item) ) { // never select layers!
return (type_checkbox (widget, "groups"));
} else if (SP_IS_USE(item)) {
return (type_checkbox (widget, "clones"));
} else if (SP_IS_IMAGE(item)) {
return (type_checkbox (widget, "images"));
} else if (SP_IS_OFFSET(item)) {
return (type_checkbox (widget, "offsets"));
}
return false;
}
cairo_status_t
SvgFont::scaled_font_render_glyph (cairo_scaled_font_t */*scaled_font*/,
unsigned long glyph,
cairo_t *cr,
cairo_text_extents_t */*metrics*/)
{
// This method does the actual rendering of glyphs.
// We have glyphs.size() glyphs and possibly one missing-glyph declared on this SVG document
// The id of the missing-glyph is always equal to glyphs.size()
// All the other glyphs have ids ranging from 0 to glyphs.size()-1
if (glyph > this->glyphs.size()) return CAIRO_STATUS_SUCCESS;//TODO: this is an error!
SPObject* node;
if (glyph == this->glyphs.size()){
if (!this->missingglyph) return CAIRO_STATUS_SUCCESS;
node = (SPObject*) this->missingglyph;
} else {
node = (SPObject*) this->glyphs[glyph];
}
if (!SP_IS_GLYPH(node) && !SP_IS_MISSING_GLYPH(node)) {
return CAIRO_STATUS_SUCCESS; // FIXME: is this the right code to return?
}
SPFont* spfont = (SPFont*) node->parent;
if (!spfont) {
return CAIRO_STATUS_SUCCESS; // FIXME: is this the right code to return?
}
//glyphs can be described by arbitrary SVG declared in the childnodes of a glyph node
// or using the d attribute of a glyph node.
// pathv stores the path description from the d attribute:
Geom::PathVector pathv;
if (SP_IS_GLYPH(node) && ((SPGlyph*)node)->d) {
pathv = sp_svg_read_pathv(((SPGlyph*)node)->d);
pathv = flip_coordinate_system(spfont, pathv);
this->render_glyph_path(cr, &pathv);
} else if (SP_IS_MISSING_GLYPH(node) && ((SPMissingGlyph*)node)->d) {
pathv = sp_svg_read_pathv(((SPMissingGlyph*)node)->d);
pathv = flip_coordinate_system(spfont, pathv);
this->render_glyph_path(cr, &pathv);
}
if (node->hasChildren()){
//render the SVG described on this glyph's child nodes.
for(node = node->children; node; node=node->next){
if (SP_IS_PATH(node)){
pathv = ((SPShape*)node)->_curve->get_pathvector();
pathv = flip_coordinate_system(spfont, pathv);
this->render_glyph_path(cr, &pathv);
}
if (SP_IS_OBJECTGROUP(node)){
g_warning("TODO: svgfonts: render OBJECTGROUP");
}
if (SP_IS_USE(node)){
SPItem* item = SP_USE(node)->ref->getObject();
if (SP_IS_PATH(item)){
pathv = ((SPShape*)item)->_curve->get_pathvector();
pathv = flip_coordinate_system(spfont, pathv);
this->render_glyph_path(cr, &pathv);
}
glyph_modified_connection = ((SPObject*) item)->connectModified(sigc::mem_fun(*this, &SvgFont::glyph_modified));
}
}
}
return CAIRO_STATUS_SUCCESS;
}
void SelectionDescriber::_updateMessageFromSelection(Inkscape::Selection *selection) {
GSList const *items = selection->itemList();
if (!items) { // no items
_context.set(Inkscape::NORMAL_MESSAGE, _when_nothing);
} else {
SPItem *item = SP_ITEM(items->data);
SPObject *layer = selection->desktop()->layerForObject(item);
SPObject *root = selection->desktop()->currentRoot();
// Layer name
gchar *layer_name;
if (layer == root) {
layer_name = g_strdup(_("root"));
} else {
char const *layer_label;
bool is_label = false;
if (layer->label()) {
layer_label = layer->label();
is_label = true;
} else {
layer_label = layer->defaultLabel();
}
char *quoted_layer_label = xml_quote_strdup(layer_label);
if (is_label) {
layer_name = g_strdup_printf(_("layer <b>%s</b>"), quoted_layer_label);
} else {
layer_name = g_strdup_printf(_("layer <b><i>%s</i></b>"), quoted_layer_label);
}
g_free(quoted_layer_label);
}
// Parent name
SPObject *parent = item->parent;
gchar const *parent_label = parent->getId();
char *quoted_parent_label = xml_quote_strdup(parent_label);
gchar *parent_name = g_strdup_printf(_("<i>%s</i>"), quoted_parent_label);
g_free(quoted_parent_label);
gchar *in_phrase;
guint num_layers = selection->numberOfLayers();
guint num_parents = selection->numberOfParents();
if (num_layers == 1) {
if (num_parents == 1) {
if (layer == parent)
in_phrase = g_strdup_printf(_(" in %s"), layer_name);
else
in_phrase = g_strdup_printf(_(" in group %s (%s)"), parent_name, layer_name);
} else {
in_phrase = g_strdup_printf(ngettext(" in <b>%i</b> parents (%s)", " in <b>%i</b> parents (%s)", num_parents), num_parents, layer_name);
}
} else {
in_phrase = g_strdup_printf(ngettext(" in <b>%i</b> layers", " in <b>%i</b> layers", num_layers), num_layers);
}
g_free (layer_name);
g_free (parent_name);
if (!items->next) { // one item
char *item_desc = item->description();
if (SP_IS_USE(item) && SP_IS_SYMBOL(item->firstChild())) {
_context.setF(Inkscape::NORMAL_MESSAGE, "%s%s. %s. %s.",
item_desc, in_phrase,
_("Convert symbol to group to edit"), _when_selected);
} else if (SP_IS_USE(item) || (SP_IS_OFFSET(item) && SP_OFFSET (item)->sourceHref)) {
_context.setF(Inkscape::NORMAL_MESSAGE, "%s%s. %s. %s.",
item_desc, in_phrase,
_("Use <b>Shift+D</b> to look up original"), _when_selected);
} else if (SP_IS_TEXT_TEXTPATH(item)) {
_context.setF(Inkscape::NORMAL_MESSAGE, "%s%s. %s. %s.",
item_desc, in_phrase,
_("Use <b>Shift+D</b> to look up path"), _when_selected);
} else if (SP_IS_FLOWTEXT(item) && !SP_FLOWTEXT(item)->has_internal_frame()) {
_context.setF(Inkscape::NORMAL_MESSAGE, "%s%s. %s. %s.",
item_desc, in_phrase,
_("Use <b>Shift+D</b> to look up frame"), _when_selected);
} else {
_context.setF(Inkscape::NORMAL_MESSAGE, "%s%s. %s.",
item_desc, in_phrase, _when_selected);
}
g_free(item_desc);
} else { // multiple items
int object_count = g_slist_length((GSList *)items);
gchar *objects_str = NULL;
GSList *terms = collect_terms ((GSList *)items);
int n_terms = g_slist_length(terms);
if (n_terms == 0) {
objects_str = g_strdup_printf (
// this is only used with 2 or more objects
ngettext("<b>%i</b> object selected", "<b>%i</b> objects selected", object_count),
object_count);
} else if (n_terms == 1) {
objects_str = g_strdup_printf (
// this is only used with 2 or more objects
ngettext("<b>%i</b> object of type <b>%s</b>", "<b>%i</b> objects of type <b>%s</b>", object_count),
object_count, (gchar *) terms->data);
} else if (n_terms == 2) {
objects_str = g_strdup_printf (
// this is only used with 2 or more objects
ngettext("<b>%i</b> object of types <b>%s</b>, <b>%s</b>", "<b>%i</b> objects of types <b>%s</b>, <b>%s</b>", object_count),
object_count, (gchar *) terms->data, (gchar *) terms->next->data);
} else if (n_terms == 3) {
objects_str = g_strdup_printf (
// this is only used with 2 or more objects
ngettext("<b>%i</b> object of types <b>%s</b>, <b>%s</b>, <b>%s</b>", "<b>%i</b> objects of types <b>%s</b>, <b>%s</b>, <b>%s</b>", object_count),
object_count, (gchar *) terms->data, (gchar *) terms->next->data, (gchar *) terms->next->next->data);
} else {
objects_str = g_strdup_printf (
// this is only used with 2 or more objects
ngettext("<b>%i</b> object of <b>%i</b> types", "<b>%i</b> objects of <b>%i</b> types", object_count),
object_count, n_terms);
}
g_slist_free (terms);
// indicate all, some, or none filtered
gchar *filt_str = NULL;
int n_filt = count_filtered((GSList *)items); //all filtered
if (n_filt) {
filt_str = g_strdup_printf(ngettext("; <i>%d filtered object</i> ",
"; <i>%d filtered objects</i> ", n_filt), n_filt);
} else {
filt_str = g_strdup_printf("%s", "");
}
_context.setF(Inkscape::NORMAL_MESSAGE, "%s%s%s. %s.", objects_str, filt_str, in_phrase, _when_selected);
if (objects_str) {
g_free(objects_str);
objects_str = 0;
}
if (filt_str) {
g_free(filt_str);
objects_str = 0;
}
}
g_free(in_phrase);
}
}
/// @todo investigate why Geom::Point p is passed in but ignored.
void Inkscape::ObjectSnapper::_collectPaths(Geom::Point /*p*/,
SnapSourceType const source_type,
bool const &first_point) const
{
// Now, let's first collect all paths to snap to. If we have a whole bunch of points to snap,
// e.g. when translating an item using the selector tool, then we will only do this for the
// first point and store the collection for later use. This significantly improves the performance
if (first_point) {
_clear_paths();
// Determine the type of bounding box we should snap to
SPItem::BBoxType bbox_type = SPItem::GEOMETRIC_BBOX;
bool p_is_a_node = source_type & SNAPSOURCE_NODE_CATEGORY;
bool p_is_a_bbox = source_type & SNAPSOURCE_BBOX_CATEGORY;
bool p_is_other = (source_type & SNAPSOURCE_OTHERS_CATEGORY) || (source_type & SNAPSOURCE_DATUMS_CATEGORY);
if (_snapmanager->snapprefs.isTargetSnappable(SNAPTARGET_BBOX_EDGE)) {
Preferences *prefs = Preferences::get();
int prefs_bbox = prefs->getBool("/tools/bounding_box", 0);
bbox_type = !prefs_bbox ?
SPItem::VISUAL_BBOX : SPItem::GEOMETRIC_BBOX;
}
// Consider the page border for snapping
if (_snapmanager->snapprefs.isTargetSnappable(SNAPTARGET_PAGE_BORDER) && _snapmanager->snapprefs.isAnyCategorySnappable()) {
Geom::PathVector *border_path = _getBorderPathv();
if (border_path != NULL) {
_paths_to_snap_to->push_back(SnapCandidatePath(border_path, SNAPTARGET_PAGE_BORDER, Geom::OptRect()));
}
}
for (std::vector<SnapCandidateItem>::const_iterator i = _candidates->begin(); i != _candidates->end(); ++i) {
/* Transform the requested snap point to this item's coordinates */
Geom::Affine i2doc(Geom::identity());
SPItem *root_item = NULL;
/* We might have a clone at hand, so make sure we get the root item */
if (SP_IS_USE((*i).item)) {
i2doc = SP_USE((*i).item)->get_root_transform();
root_item = SP_USE((*i).item)->root();
g_return_if_fail(root_item);
} else {
i2doc = (*i).item->i2doc_affine();
root_item = (*i).item;
}
//Build a list of all paths considered for snapping to
//Add the item's path to snap to
if (_snapmanager->snapprefs.isTargetSnappable(SNAPTARGET_PATH, SNAPTARGET_PATH_INTERSECTION, SNAPTARGET_TEXT_BASELINE)) {
if (p_is_other || p_is_a_node || (!_snapmanager->snapprefs.getStrictSnapping() && p_is_a_bbox)) {
if (SP_IS_TEXT(root_item) || SP_IS_FLOWTEXT(root_item)) {
if (_snapmanager->snapprefs.isTargetSnappable(SNAPTARGET_TEXT_BASELINE)) {
// Snap to the text baseline
Text::Layout const *layout = te_get_layout(static_cast<SPItem *>(root_item));
if (layout != NULL && layout->outputExists()) {
Geom::PathVector *pv = new Geom::PathVector();
pv->push_back(layout->baseline() * root_item->i2dt_affine() * (*i).additional_affine * _snapmanager->getDesktop()->doc2dt());
_paths_to_snap_to->push_back(SnapCandidatePath(pv, SNAPTARGET_TEXT_BASELINE, Geom::OptRect()));
}
}
} else {
// Snapping for example to a traced bitmap is very stressing for
// the CPU, so we'll only snap to paths having no more than 500 nodes
// This also leads to a lag of approx. 500 msec (in my lousy test set-up).
bool very_complex_path = false;
if (SP_IS_PATH(root_item)) {
very_complex_path = SP_PATH(root_item)->nodesInPath() > 500;
}
if (!very_complex_path && root_item && _snapmanager->snapprefs.isTargetSnappable(SNAPTARGET_PATH, SNAPTARGET_PATH_INTERSECTION)) {
SPCurve *curve = NULL;
if (SP_IS_SHAPE(root_item)) {
curve = SP_SHAPE(root_item)->getCurve();
}/* else if (SP_IS_TEXT(root_item) || SP_IS_FLOWTEXT(root_item)) {
curve = te_get_layout(root_item)->convertToCurves();
}*/
if (curve) {
// We will get our own copy of the pathvector, which must be freed at some point
// Geom::PathVector *pv = pathvector_for_curve(root_item, curve, true, true, Geom::identity(), (*i).additional_affine);
Geom::PathVector *pv = new Geom::PathVector(curve->get_pathvector());
(*pv) *= root_item->i2dt_affine() * (*i).additional_affine * _snapmanager->getDesktop()->doc2dt(); // (_edit_transform * _i2d_transform);
_paths_to_snap_to->push_back(SnapCandidatePath(pv, SNAPTARGET_PATH, Geom::OptRect())); // Perhaps for speed, get a reference to the Geom::pathvector, and store the transformation besides it.
curve->unref();
}
}
}
}
}
//Add the item's bounding box to snap to
if (_snapmanager->snapprefs.isTargetSnappable(SNAPTARGET_BBOX_EDGE)) {
if (p_is_other || p_is_a_bbox || (!_snapmanager->snapprefs.getStrictSnapping() && p_is_a_node)) {
// Discard the bbox of a clipped path / mask, because we don't want to snap to both the bbox
// of the item AND the bbox of the clipping path at the same time
if (!(*i).clip_or_mask) {
Geom::OptRect rect = root_item->bounds(bbox_type, i2doc);
if (rect) {
Geom::PathVector *path = _getPathvFromRect(*rect);
rect = root_item->desktopBounds(bbox_type);
_paths_to_snap_to->push_back(SnapCandidatePath(path, SNAPTARGET_BBOX_EDGE, rect));
}
}
}
}
}
}
}
void Inkscape::ObjectSnapper::_collectNodes(SnapSourceType const &t,
bool const &first_point) const
{
// Now, let's first collect all points to snap to. If we have a whole bunch of points to snap,
// e.g. when translating an item using the selector tool, then we will only do this for the
// first point and store the collection for later use. This significantly improves the performance
if (first_point) {
_points_to_snap_to->clear();
// Determine the type of bounding box we should snap to
SPItem::BBoxType bbox_type = SPItem::GEOMETRIC_BBOX;
bool p_is_a_node = t & SNAPSOURCE_NODE_CATEGORY;
bool p_is_a_bbox = t & SNAPSOURCE_BBOX_CATEGORY;
bool p_is_other = (t & SNAPSOURCE_OTHERS_CATEGORY) || (t & SNAPSOURCE_DATUMS_CATEGORY);
// A point considered for snapping should be either a node, a bbox corner or a guide/other. Pick only ONE!
if (((p_is_a_node && p_is_a_bbox) || (p_is_a_bbox && p_is_other) || (p_is_a_node && p_is_other))) {
g_warning("Snap warning: node type is ambiguous");
}
if (_snapmanager->snapprefs.isTargetSnappable(SNAPTARGET_BBOX_CORNER, SNAPTARGET_BBOX_EDGE_MIDPOINT, SNAPTARGET_BBOX_MIDPOINT)) {
Preferences *prefs = Preferences::get();
bool prefs_bbox = prefs->getBool("/tools/bounding_box");
bbox_type = !prefs_bbox ?
SPItem::VISUAL_BBOX : SPItem::GEOMETRIC_BBOX;
}
// Consider the page border for snapping to
if (_snapmanager->snapprefs.isTargetSnappable(SNAPTARGET_PAGE_CORNER)) {
_getBorderNodes(_points_to_snap_to);
}
for (std::vector<SnapCandidateItem>::const_iterator i = _candidates->begin(); i != _candidates->end(); ++i) {
//Geom::Affine i2doc(Geom::identity());
SPItem *root_item = (*i).item;
if (SP_IS_USE((*i).item)) {
root_item = SP_USE((*i).item)->root();
}
g_return_if_fail(root_item);
//Collect all nodes so we can snap to them
if (p_is_a_node || p_is_other || (p_is_a_bbox && !_snapmanager->snapprefs.getStrictSnapping())) {
// Note: there are two ways in which intersections are considered:
// Method 1: Intersections are calculated for each shape individually, for both the
// snap source and snap target (see sp_shape_snappoints)
// Method 2: Intersections are calculated for each curve or line that we've snapped to, i.e. only for
// the target (see the intersect() method in the SnappedCurve and SnappedLine classes)
// Some differences:
// - Method 1 doesn't find intersections within a set of multiple objects
// - Method 2 only works for targets
// When considering intersections as snap targets:
// - Method 1 only works when snapping to nodes, whereas
// - Method 2 only works when snapping to paths
// - There will be performance differences too!
// If both methods are being used simultaneously, then this might lead to duplicate targets!
// Well, here we will be looking for snap TARGETS. Both methods can therefore be used.
// When snapping to paths, we will get a collection of snapped lines and snapped curves. findBestSnap() will
// go hunting for intersections (but only when asked to in the prefs of course). In that case we can just
// temporarily block the intersections in sp_item_snappoints, we don't need duplicates. If we're not snapping to
// paths though but only to item nodes then we should still look for the intersections in sp_item_snappoints()
bool old_pref = _snapmanager->snapprefs.isTargetSnappable(SNAPTARGET_PATH_INTERSECTION);
if (_snapmanager->snapprefs.isTargetSnappable(SNAPTARGET_PATH)) {
// So if we snap to paths, then findBestSnap will find the intersections
// and therefore we temporarily disable SNAPTARGET_PATH_INTERSECTION, which will
// avoid root_item->getSnappoints() below from returning intersections
_snapmanager->snapprefs.setTargetSnappable(SNAPTARGET_PATH_INTERSECTION, false);
}
// We should not snap a transformation center to any of the centers of the items in the
// current selection (see the comment in SelTrans::centerRequest())
bool old_pref2 = _snapmanager->snapprefs.isTargetSnappable(SNAPTARGET_ROTATION_CENTER);
if (old_pref2) {
for ( GSList const *itemlist = _snapmanager->getRotationCenterSource(); itemlist != NULL; itemlist = g_slist_next(itemlist) ) {
if ((*i).item == reinterpret_cast<SPItem*>(itemlist->data)) {
// don't snap to this item's rotation center
_snapmanager->snapprefs.setTargetSnappable(SNAPTARGET_ROTATION_CENTER, false);
break;
}
}
}
root_item->getSnappoints(*_points_to_snap_to, &_snapmanager->snapprefs);
// restore the original snap preferences
_snapmanager->snapprefs.setTargetSnappable(SNAPTARGET_PATH_INTERSECTION, old_pref);
_snapmanager->snapprefs.setTargetSnappable(SNAPTARGET_ROTATION_CENTER, old_pref2);
}
//Collect the bounding box's corners so we can snap to them
if (p_is_a_bbox || (!_snapmanager->snapprefs.getStrictSnapping() && p_is_a_node) || p_is_other) {
// Discard the bbox of a clipped path / mask, because we don't want to snap to both the bbox
// of the item AND the bbox of the clipping path at the same time
if (!(*i).clip_or_mask) {
Geom::OptRect b = root_item->desktopBounds(bbox_type);
getBBoxPoints(b, _points_to_snap_to, true,
_snapmanager->snapprefs.isTargetSnappable(SNAPTARGET_BBOX_CORNER),
_snapmanager->snapprefs.isTargetSnappable(SNAPTARGET_BBOX_EDGE_MIDPOINT),
_snapmanager->snapprefs.isTargetSnappable(SNAPTARGET_BBOX_MIDPOINT));
}
}
}
}
}