void RotateSelected::visit(const scene::INodePtr& node) const
{
ITransformNodePtr transformNode = Node_getTransformNode(node);
if (transformNode)
{
// Upcast the instance onto a Transformable
ITransformablePtr transformable = Node_getTransformable(node);
if (transformable)
{
// The object is not scaled or translated explicitly
// A translation might occur due to the rotation around a pivot point
transformable->setType(TRANSFORM_PRIMITIVE);
transformable->setScale(c_scale_identity);
transformable->setTranslation(c_translation_identity);
// Pass the rotation quaternion and the world pivot,
// unless we're rotating each object around their own center
transformable->setRotation(_rotation,
_freeObjectRotation ? transformable->getUntransformedOrigin() : _worldPivot,
node->localToWorld());
}
}
}
void ModelExporter::processLight(const scene::INodePtr& node)
{
// Export lights as small polyhedron
static const double EXTENTS = 8.0;
std::vector<model::ModelPolygon> polys;
Vertex3f up(0, 0, EXTENTS);
Vertex3f down(0, 0, -EXTENTS);
Vertex3f north(0, EXTENTS, 0);
Vertex3f south(0, -EXTENTS, 0);
Vertex3f east(EXTENTS, 0, 0);
Vertex3f west(-EXTENTS, 0, 0);
// Upper semi-diamond
polys.push_back(createPolyCCW(up, south, east));
polys.push_back(createPolyCCW(up, east, north));
polys.push_back(createPolyCCW(up, north, west));
polys.push_back(createPolyCCW(up, west, south));
// Lower semi-diamond
polys.push_back(createPolyCCW(down, south, west));
polys.push_back(createPolyCCW(down, west, north));
polys.push_back(createPolyCCW(down, north, east));
polys.push_back(createPolyCCW(down, east, south));
Matrix4 exportTransform = node->localToWorld().getPremultipliedBy(_centerTransform);
_exporter->addPolygons("lights/default", polys, exportTransform);
}
bool MapImporter::addPrimitiveToEntity(const scene::INodePtr& primitive, const scene::INodePtr& entity)
{
_nodes.insert(NodeMap::value_type(
NodeIndexPair(_entityCount, _primitiveCount), primitive));
_primitiveCount++;
if (_dialog && _dialogEventLimiter.readyForEvent())
{
_dialog->setTextAndFraction(
_dlgEntityText + "Primitive " + string::to_string(_primitiveCount),
getProgressFraction()
);
}
if (Node_getEntity(entity)->isContainer())
{
entity->addChildNode(primitive);
return true;
}
else
{
return false;
}
}
void ScaleSelected::visit(const scene::INodePtr& node) const {
ITransformNodePtr transformNode = Node_getTransformNode(node);
if(transformNode != 0)
{
ITransformablePtr transform = Node_getTransformable(node);
if(transform != 0)
{
transform->setType(TRANSFORM_PRIMITIVE);
transform->setScale(c_scale_identity);
transform->setTranslation(c_translation_identity);
transform->setType(TRANSFORM_PRIMITIVE);
transform->setScale(m_scale);
{
EditablePtr editable = Node_getEditable(node);
const Matrix4& localPivot = editable != 0 ? editable->getLocalPivot() : Matrix4::getIdentity();
Vector3 parent_translation;
translation_for_pivoted_scale(
parent_translation,
m_scale,
m_world_pivot,
node->localToWorld().getMultipliedBy(localPivot),
transformNode->localToParent().getMultipliedBy(localPivot)
);
transform->setTranslation(parent_translation);
}
}
}
}
void GraphTreeModel::updateSelectionStatus(const scene::INodePtr& node,
const NotifySelectionUpdateFunc& notifySelectionChanged)
{
NodeMap::const_iterator found = _nodemap.find(scene::INodeWeakPtr(node));
GraphTreeNodePtr foundNode;
if (found == _nodemap.end())
{
// The node is not in our map, it might have been previously hidden
if (node->visible())
{
foundNode = insert(node);
}
}
else
{
foundNode = found->second;
}
if (foundNode)
{
notifySelectionChanged(foundNode->getIter(), Node_isSelected(node));
}
}
void visit(const scene::INodePtr& node) const {
BrushNodePtr brush = std::dynamic_pointer_cast<BrushNode>(node);
if (brush != NULL && node->visible()) {
brush->setClipPlane(_plane);
}
}
void InfoFileExporter::visit(const scene::INodePtr& node)
{
// Don't export the layer settings for models and particles, as they are not there
// at map load/parse time - these shouldn't even be passed in here
assert(node && !Node_isModel(node) && !particles::isParticleNode(node));
// Open a Node block
_stream << "\t\t" << InfoFile::NODE << " { ";
scene::LayerList layers = node->getLayers();
// Write a space-separated list of node IDs
for (scene::LayerList::const_iterator i = layers.begin(); i != layers.end(); ++i)
{
_stream << *i << " ";
}
// Close the Node block
_stream << "}";
// Write additional node info, for easier debugging of layer issues
_stream << " // " << getNodeInfo(node);
_stream << std::endl;
_layerInfoCount++;
}
virtual bool pre(const scene::INodePtr& node)
{
NamespacedPtr namespaced = Node_getNamespaced(node);
if (!namespaced)
{
return true;
}
INamespace* foreignNamespace = namespaced->getNamespace();
// Do not reconnect to same namespace, this causes invalid name changes
if (foreignNamespace == _nspace)
{
rWarning() << "ConnectNamespacedWalker: node '" << node->name()
<< "' is already attached to namespace at " << _nspace
<< std::endl;
return true;
}
else if (foreignNamespace)
{
// The node is already connected to a different namespace, disconnect
namespaced->disconnectNameObservers();
namespaced->detachNames();
namespaced->setNamespace(NULL);
}
// Set the namespace reference and add all "names"
namespaced->setNamespace(_nspace);
namespaced->attachNames();
return true;
}
void Namespace::ensureNoConflicts(const scene::INodePtr& root)
{
// Instantiate a new, temporary namespace for the nodes below root
Namespace foreignNamespace;
// Move all nodes below (and including) root into this temporary namespace
foreignNamespace.connect(root);
// Collect all namespaced items from the foreign root
GatherNamespacedWalker walker;
root->traverse(walker);
rDebug() << "Namespace::ensureNoConflicts(): imported set of "
<< walker.result.size() << " namespaced nodes" << std::endl;
// Build a union set containing all imported names and all existing names.
// We need to know all existing names to ensure that newly created names are
// unique in *both* namespaces
UniqueNameSet allNames = _uniqueNames;
allNames.merge(foreignNamespace._uniqueNames);
// Process each object in the to-be-imported tree of nodes, ensuring that it
// has a unique name
for (const NamespacedPtr& n : walker.result)
{
// If the imported node conflicts with a name in THIS namespace, then it
// needs to be given a new name which is unique in BOTH namespaces.
if (_uniqueNames.nameExists(n->getName()))
{
// Name exists in the target namespace, get a new name
std::string uniqueName = allNames.insertUnique(n->getName());
rMessage() << "Namespace::ensureNoConflicts(): '" << n->getName()
<< "' already exists in this namespace. Rename it to '"
<< uniqueName << "'\n";
// Change the name of the imported node, this should trigger all
// observers in the foreign namespace
n->changeName(uniqueName);
}
else
{
// Name does not exist yet, insert it into the local combined
// namespace (but not our destination namespace, this will be
// populated in the subsequent call to connect()).
allNames.insert(n->getName());
}
}
// at this point, all names in the foreign namespace have been converted to
// something unique in this namespace. The calling code can now move the
// nodes into this namespace without name conflicts
// Disconnect the root from the foreign namespace again, it will be destroyed now
foreignNamespace.disconnect(root);
}
bool pre(const scene::INodePtr& node) {
SelectablePtr selectable = Node_getSelectable(node);
// If a visible selectable was found and the path depth is appropriate, add it
if (selectable != NULL && node->visible()) {
_targetList.push_back(node);
}
return true;
}
void post(const scene::INodePtr& node)
{
if (node->isRoot())
{
return;
}
if (Node_isSelected(node))
{
// Clone the current node
scene::INodePtr clone = map::Node_Clone(node);
// Add the cloned node and its parent to the list
_cloned.insert(Map::value_type(clone, node->getParent()));
// Insert this node in the root
_cloneRoot->addChildNode(clone);
}
}
void PlaneSelectableSelectPlanes::visit(const scene::INodePtr& node) const {
// Skip hidden nodes
if (!node->visible()) {
return;
}
PlaneSelectablePtr planeSelectable = Node_getPlaneSelectable(node);
if (planeSelectable != NULL) {
planeSelectable->selectPlanes(_selector, _test, _selectedPlaneCallback);
}
}
void ScaleComponentSelected::visit(const scene::INodePtr& node) const {
ITransformablePtr transform = Node_getTransformable(node);
if(transform != 0) {
Vector3 parent_translation;
translation_for_pivoted_scale(parent_translation, m_scale, m_world_pivot, node->localToWorld(), Node_getTransformNode(node)->localToParent());
transform->setType(TRANSFORM_COMPONENT);
transform->setScale(m_scale);
transform->setTranslation(parent_translation);
}
}
bool addPrimitiveToEntity(const scene::INodePtr& primitive, const scene::INodePtr& entity)
{
if (Node_getEntity(entity)->isContainer())
{
entity->addChildNode(primitive);
return true;
}
else
{
return false;
}
}
void visit(const scene::INodePtr& node) const {
ASSERT_MESSAGE(_count <= _max, "Invalid _count in CollectSelectedBrushesBounds");
// stop if the array is already full
if (_count == _max) {
return;
}
if (Node_isSelected(node) && Node_isBrush(node)) {
_bounds[_count] = node->worldAABB();
++_count;
}
}
void post(const scene::INodePtr& node)
{
// greebo: We've traversed this subtree, now check if we had selected children
if (!node->isRoot() &&
!_stack.empty() && _stack.top() == false &&
!Node_isSelected(node))
{
// No selected child nodes, hide this node
hideSubgraph(node, _hide);
}
// Go upwards again, one level
_stack.pop();
}
bool pre(const scene::INodePtr& node) {
if (!node->visible()) return false; // don't traverse hidden nodes
if (Node_isBrush(node)) // this node is a floor
{
const AABB& aabb = node->worldAABB();
float floorHeight = aabb.origin.z() + aabb.extents.z();
if (floorHeight > _current && floorHeight < _bestUp) {
_bestUp = floorHeight;
}
if (floorHeight < _current && floorHeight > _bestDown) {
_bestDown = floorHeight;
}
return false;
}
return true;
}
bool pre(const scene::INodePtr& node) {
if (node->visible()) {
Brush* brush = Node_getBrush(node);
if (brush != NULL && brush->hasShader(_name)) {
Node_setSelected(node, true);
return false; // don't traverse brushes
}
// not a suitable brush, traverse further
return true;
}
else {
return false; // don't traverse invisible nodes
}
}
bool pre(const scene::INodePtr& node)
{
// Don't clone root items
if (node->isRoot())
{
return true;
}
if (Node_isSelected(node))
{
// Don't traverse children of cloned nodes
return false;
}
return true;
}
bool pre(const scene::INodePtr& node)
{
// Ignore hidden nodes
if (!node->visible()) return false;
Entity* entity = Node_getEntity(node);
// Check if we have a selectable
SelectablePtr selectable = Node_getSelectable(node);
if (selectable != NULL)
{
switch (_mode)
{
case SelectionSystem::eEntity:
if (entity != NULL && entity->getKeyValue("classname") != "worldspawn")
{
_selectable = selectable;
}
break;
case SelectionSystem::ePrimitive:
_selectable = selectable;
break;
case SelectionSystem::eComponent:
// Check if we have a componentselectiontestable instance
ComponentSelectionTestablePtr compSelTestable =
Node_getComponentSelectionTestable(node);
// Only add it to the list if the instance has components and is already selected
if (compSelTestable != NULL && selectable->isSelected())
{
_selectable = selectable;
}
break;
}
}
// Do we have a groupnode? If yes, don't traverse the children
if (entity != NULL && node_is_group(node) &&
entity->getKeyValue("classname") != "worldspawn")
{
// Don't traverse the children of this groupnode
return false;
}
return true;
}
bool EntitySelectByClassnameWalker::pre(const scene::INodePtr& node) {
// don't traverse invisible nodes
if (!node->visible()) return false;
Entity* entity = Node_getEntity(node);
if (entity != NULL) {
if (entityMatches(entity)) {
// Got a matching entity
Node_setSelected(node, true);
}
// Don't traverse entities
return false;
}
// Not an entity, traverse
return true;
}
void ModelExporter::processBrush(const scene::INodePtr& node)
{
IBrush* brush = Node_getIBrush(node);
if (brush == nullptr) return;
Matrix4 exportTransform = node->localToWorld().getPremultipliedBy(_centerTransform);
for (std::size_t b = 0; b < brush->getNumFaces(); ++b)
{
const IFace& face = brush->getFace(b);
const std::string& materialName = face.getShader();
if (!isExportableMaterial(materialName)) continue;
const IWinding& winding = face.getWinding();
std::vector<model::ModelPolygon> polys;
if (winding.size() < 3)
{
rWarning() << "Skipping face with less than 3 winding verts" << std::endl;
continue;
}
// Create triangles for this winding
for (std::size_t i = 1; i < winding.size() - 1; ++i)
{
model::ModelPolygon poly;
poly.a = convertWindingVertex(winding[i + 1]);
poly.b = convertWindingVertex(winding[i]);
poly.c = convertWindingVertex(winding[0]);
polys.push_back(poly);
}
_exporter->addPolygons(materialName, polys, exportTransform);
}
}
// The visitor function
bool pre(const scene::INodePtr& node) {
// Check if the node is filtered
if (node->visible()) {
SelectionTestablePtr selectionTestable = Node_getSelectionTestable(node);
if (selectionTestable != NULL) {
bool occluded;
OccludeSelector selector(_bestIntersection, occluded);
selectionTestable->testSelect(selector, _selectionTest);
if (occluded) {
_node = node;
}
}
}
else {
return false; // don't traverse filtered nodes
}
return true;
}
void GraphTreeModel::updateSelectionStatus(const Glib::RefPtr<Gtk::TreeSelection>& selection, const scene::INodePtr& node)
{
NodeMap::const_iterator found = _nodemap.find(scene::INodeWeakPtr(node));
GraphTreeNodePtr foundNode;
if (found == _nodemap.end())
{
// The node is not in our map, it might have been previously hidden
if (node->visible())
{
foundNode = insert(node);
}
}
else
{
foundNode = found->second;
}
if (foundNode)
{
if (Node_isSelected(node))
{
// Select the row in the TreeView
selection->select(foundNode->getIter());
// Scroll to the row
Gtk::TreeView* tv = selection->get_tree_view();
Gtk::TreeModel::Path selectedPath(foundNode->getIter());
tv->expand_to_path(selectedPath);
tv->scroll_to_row(selectedPath, 0.3f);
}
else
{
selection->unselect(foundNode->getIter());
}
}
}
bool pre(const scene::INodePtr& node)
{
// Check the selection status
bool isSelected = Node_isSelected(node);
// greebo: Don't check root nodes for selected state
if (!node->isRoot() && isSelected)
{
// We have a selected instance, "remember" this by setting the parent
// stack element to TRUE
if (!_stack.empty())
{
_stack.top() = true;
}
}
// We are going one level deeper, add a new stack element for this subtree
_stack.push(false);
// Try to go deeper, but don't do this for deselected instances
return !isSelected;
}
void ModelExporter::processPatch(const scene::INodePtr& node)
{
IPatch* patch = Node_getIPatch(node);
if (patch == nullptr) return;
const std::string& materialName = patch->getShader();
if (!isExportableMaterial(materialName)) return;
PatchMesh mesh = patch->getTesselatedPatchMesh();
std::vector<model::ModelPolygon> polys;
for (std::size_t h = 0; h < mesh.height - 1; ++h)
{
for (std::size_t w = 0; w < mesh.width - 1; ++w)
{
model::ModelPolygon poly;
poly.a = convertPatchVertex(mesh.vertices[w + (h*mesh.width)]);
poly.b = convertPatchVertex(mesh.vertices[w + 1 + (h*mesh.width)]);
poly.c = convertPatchVertex(mesh.vertices[w + mesh.width + (h*mesh.width)]);
polys.push_back(poly);
poly.a = convertPatchVertex(mesh.vertices[w + 1 + (h*mesh.width)]);
poly.b = convertPatchVertex(mesh.vertices[w + 1 + mesh.width + (h*mesh.width)]);
poly.c = convertPatchVertex(mesh.vertices[w + mesh.width + (h*mesh.width)]);
polys.push_back(poly);
}
}
Matrix4 exportTransform = node->localToWorld().getPremultipliedBy(_centerTransform);
_exporter->addPolygons(materialName, polys, exportTransform);
}
inline bool Node_hasChildren(scene::INodePtr node)
{
return node->hasChildNodes();
}
void createCaps(Patch& patch, const scene::INodePtr& parent, EPatchCap type, const std::string& shader)
{
if ((type == eCapEndCap || type == eCapIEndCap) && patch.getWidth() != 5)
{
rError() << "cannot create end-cap - patch width != 5" << std::endl;
gtkutil::MessageBox::ShowError(_("Cannot create end-cap, patch must have a width of 5."),
GlobalMainFrame().getTopLevelWindow());
return;
}
if ((type == eCapBevel || type == eCapIBevel) && patch.getWidth() != 3)
{
gtkutil::MessageBox::ShowError(_("Cannot create bevel-cap, patch must have a width of 3."),
GlobalMainFrame().getTopLevelWindow());
rError() << "cannot create bevel-cap - patch width != 3" << std::endl;
return;
}
if (type == eCapCylinder && patch.getWidth() != 9)
{
gtkutil::MessageBox::ShowError(_("Cannot create cylinder-cap, patch must have a width of 9."),
GlobalMainFrame().getTopLevelWindow());
rError() << "cannot create cylinder-cap - patch width != 9" << std::endl;
return;
}
assert(parent != NULL);
{
scene::INodePtr cap(GlobalPatchCreator(DEF2).createPatch());
parent->addChildNode(cap);
Patch* capPatch = Node_getPatch(cap);
assert(capPatch != NULL);
patch.MakeCap(capPatch, type, ROW, true);
capPatch->setShader(shader);
// greebo: Avoid creating "degenerate" patches (all vertices merged in one 3D point)
if (!capPatch->isDegenerate())
{
Node_setSelected(cap, true);
}
else
{
parent->removeChildNode(cap);
rWarning() << "Prevented insertion of degenerate patch." << std::endl;
}
}
{
scene::INodePtr cap(GlobalPatchCreator(DEF2).createPatch());
parent->addChildNode(cap);
Patch* capPatch = Node_getPatch(cap);
assert(capPatch != NULL);
patch.MakeCap(capPatch, type, ROW, false);
capPatch->setShader(shader);
// greebo: Avoid creating "degenerate" patches (all vertices merged in one 3D point)
if (!capPatch->isDegenerate())
{
Node_setSelected(cap, true);
}
else
{
parent->removeChildNode(cap);
rWarning() << "Prevented insertion of degenerate patch." << std::endl;
}
}
}
bool addEntity(const scene::INodePtr& entityNode)
{
_root->addChildNode(entityNode);
return true;
}
void BrushByPlaneClipper::visit(const scene::INodePtr& node) const {
// Don't clip invisible nodes
if (!node->visible()) {
return;
}
// Try to cast the instance onto a brush
Brush* brush = Node_getBrush(node);
// Return if not brush
if (brush == NULL) {
return;
}
Plane3 plane(_p0, _p1, _p2);
if (!plane.isValid()) {
return;
}
// greebo: Analyse the brush to find out which shader is the most used one
getMostUsedTexturing(brush);
BrushSplitType split = Brush_classifyPlane(*brush, _split == eFront ? -plane : plane);
if (split.counts[ePlaneBack] && split.counts[ePlaneFront]) {
// the plane intersects this brush
if (_split == eFrontAndBack) {
scene::INodePtr brushNode = GlobalBrushCreator().createBrush();
assert(brushNode != NULL);
Brush* fragment = Node_getBrush(brushNode);
assert(fragment != NULL);
fragment->copy(*brush);
FacePtr newFace = fragment->addPlane(_p0, _p1, _p2, _mostUsedShader, _mostUsedProjection);
if (newFace != NULL && _split != eFront) {
newFace->flipWinding();
}
fragment->removeEmptyFaces();
ASSERT_MESSAGE(!fragment->empty(), "brush left with no faces after split");
// Mark this brush for insertion
_insertList.insert(InsertMap::value_type(brushNode, node->getParent()));
}
FacePtr newFace = brush->addPlane(_p0, _p1, _p2, _mostUsedShader, _mostUsedProjection);
if (newFace != NULL && _split == eFront) {
newFace->flipWinding();
}
brush->removeEmptyFaces();
ASSERT_MESSAGE(!brush->empty(), "brush left with no faces after split");
}
// the plane does not intersect this brush
else if (_split != eFrontAndBack && split.counts[ePlaneBack] != 0) {
// the brush is "behind" the plane
_deleteList.insert(node);
}
}