void PhaseClose :: begin (){
message().format(255, 0, 39, 0);
Tool::sendToAll(entities(), message());
for(auto e : entities()){
e->wait();
}
finish();
}
QComponent::~QComponent()
{
Q_ASSERT_X(QNodePrivate::get(this)->m_wasCleanedUp, Q_FUNC_INFO, "QNode::cleanup should have been called by now. A Qt3DCore::QComponent subclass didn't call QNode::cleanup in its destructor");
Q_FOREACH (QEntity *entity, entities()) {
QEntityPrivate *entityPimpl = static_cast<QEntityPrivate *>(QEntityPrivate::get(entity));
if (entityPimpl)
entityPimpl->m_components.removeAll(this);
}
void EntityModel::setEntityScale(float value)
{
Lumix::StackAllocator<256> allocator;
Lumix::Array<Lumix::Entity> entities(allocator);
Lumix::Array<float> scales(allocator);
entities.push(m_entity);
scales.push(value);
m_editor.setEntitiesScales(entities, scales);
}
void EntityModel::setEntityPosition(int index, float value)
{
Lumix::Vec3 v = getUniverse()->getPosition(m_entity);
((float*)&v)[index] = value;
Lumix::StackAllocator<256> allocator;
Lumix::Array<Lumix::Entity> entities(allocator);
Lumix::Array<Lumix::Vec3> positions(allocator);
entities.push(m_entity);
positions.push(v);
m_editor.setEntitiesPositions(entities, positions);
}
void EntityModel::setEntityRotation(int index, float value)
{
auto axis_angle = getUniverse()->getRotation(m_entity).getAxisAngle();
((float*)&axis_angle)[index] = value;
axis_angle.axis.normalize();
Lumix::StackAllocator<256> allocator;
Lumix::Array<Lumix::Entity> entities(allocator);
Lumix::Array<Lumix::Quat> rotations(allocator);
entities.push(m_entity);
rotations.push(Lumix::Quat(axis_angle.axis, axis_angle.angle));
m_editor.setEntitiesRotations(entities, rotations);
}
void EmberEntityLoader::loadPage(::Forests::PageInfo & page)
{
static Ogre::ColourValue colour(1, 1, 1, 1);
#if EMBERENTITYLOADER_USEBATCH
const int batchX = static_cast<int>(Ogre::Math::Floor(page.bounds.left/ mBatchSize));
const int batchY = static_cast<int>(Ogre::Math::Floor(page.bounds.top / mBatchSize));
EntityMap& entities(mEntities[batchX][batchY]);
#else
EntityMap& entities(mEntities);
#endif
for (EntityMap::iterator I = entities.begin(); I != entities.end(); ++I) {
ModelRepresentationInstance& instance(I->second);
Model::ModelRepresentation* modelRepresentation(instance.modelRepresentation);
EmberEntity& emberEntity = modelRepresentation->getEntity();
if (emberEntity.isVisible()) {
WFMath::Point<3> viewPos = emberEntity.getViewPosition();
if (viewPos.isValid()) {
Ogre::Vector3 pos(Convert::toOgre(viewPos));
Model::Model& model(modelRepresentation->getModel());
Ogre::Node* node = model.getParentNode();
if (node) {
const Ogre::Vector3& pos = node->_getDerivedPosition();
if (pos.x > page.bounds.left && pos.x < page.bounds.right && pos.z > page.bounds.top && pos.z < page.bounds.bottom) {
for (Model::Model::SubModelSet::const_iterator J = model.getSubmodels().begin(); J != model.getSubmodels().end(); ++J) {
// if (!(*J)->getEntity()->getParentSceneNode()) {
// model->getParentSceneNode()->attachObject((*J)->getEntity());
// }
// if ((*J)->getEntity()->isVisible()) {
addEntity((*J)->getEntity(), pos, node->_getDerivedOrientation(), modelRepresentation->getScale(), colour);
// (*J)->getEntity()->setVisible(false);
// }
}
}
}
}
}
}
}
void EmberEntityLoader::addEmberEntity(Model::ModelRepresentation* modelRepresentation)
{
if (!modelRepresentation) {
S_LOG_WARNING("Tried to add a null ref entity to the paged geometry.");
return;
}
EmberEntity& entity = modelRepresentation->getEntity();
ModelRepresentationInstance instance;
instance.movedConnection = entity.Moved.connect(sigc::bind(sigc::mem_fun(*this, &EmberEntityLoader::EmberEntity_Moved), &entity));
instance.beingDeletedConnection = entity.BeingDeleted.connect(sigc::bind(sigc::mem_fun(*this, &EmberEntityLoader::EmberEntity_BeingDeleted), &entity));
instance.visibilityChangedConnection = entity.VisibilityChanged.connect(sigc::bind(sigc::mem_fun(*this, &EmberEntityLoader::EmberEntity_VisibilityChanged), &entity));
instance.modelRepresentation = modelRepresentation;
WFMath::Point<3> viewPosition = entity.getViewPosition();
Ogre::Vector3 position(std::numeric_limits<Ogre::Real>::quiet_NaN(), std::numeric_limits<Ogre::Real>::quiet_NaN(), std::numeric_limits<Ogre::Real>::quiet_NaN());
bool isValidPos = false;
if (viewPosition.isValid()) {
isValidPos = true;
position = Convert::toOgre(viewPosition);
}
instance.lastPosition = position;
#if EMBERENTITYLOADER_USEBATCH
const int batchX = Ogre::Math::Floor(position.x / mBatchSize);
const int batchY = Ogre::Math::Floor(position.y / mBatchSize);
mEntityLookup[entity] = std::pair<int, int>(batchX, batchY);
EntityMap& entities(mEntities[batchX][batchY]);
#else
EntityMap& entities(mEntities);
#endif
entities[entity.getId()] = instance;
if (isValidPos) {
//Rebuild geometry if necessary
mGeom.reloadGeometryPage(position);
}
}
CJsonNode g_GenericStatToJson(CNetServer server,
ENetScheduleStatTopic topic, bool verbose)
{
string stat_cmd(s_StatTopics[topic].command);
CTempString prefix(s_StatTopics[topic].record_prefix);
CTempString entity_name(s_StatTopics[topic].entity_name);
if (verbose)
stat_cmd.append(" VERBOSE");
CNetServerMultilineCmdOutput output(server.ExecWithRetry(stat_cmd, true));
CJsonNode entities(CJsonNode::NewArrayNode());
CJsonNode entity_info;
CJsonNode array_value;
string line;
while (output.ReadLine(line)) {
if (NStr::StartsWith(line, prefix)) {
if (entity_info)
entities.Append(entity_info);
entity_info = CJsonNode::NewObjectNode();
entity_info.SetString(entity_name, UnquoteIfQuoted(
CTempString(line.data() + prefix.length(),
line.length() - prefix.length())));
} else if (entity_info && NStr::StartsWith(line, " ")) {
if (NStr::StartsWith(line, " ") && array_value) {
array_value.AppendString(UnquoteIfQuoted(
NStr::TruncateSpaces(line, NStr::eTrunc_Begin)));
} else {
if (array_value)
array_value = NULL;
CTempString key, value;
NStr::SplitInTwo(line, ":", key, value);
NormalizeStatKeyName(key);
string key_norm(key);
value = NStr::TruncateSpaces_Unsafe(value, NStr::eTrunc_Begin);
if (value.empty())
entity_info.SetByKey(key_norm, array_value =
CJsonNode::NewArrayNode());
else
entity_info.SetByKey(key_norm, CJsonNode::GuessType(value));
}
}
}
if (entity_info)
entities.Append(entity_info);
return entities;
}
vector_ptr<entity_ptr> EntityEngine::getEntities(ComponentFamily& family)
{
auto familyIt = familyEntities.find(family);
if (familyIt != familyEntities.end()) {
return familyIt->second;
}
vector_ptr<entity_ptr> entities(new vector<entity_ptr>());
familyEntities[family] = entities;
updateFamilyMembershipAll();
return entities;
}
void savePrefab(const Path& path) override
{
auto& selected_entities = m_editor.getSelectedEntities();
if (selected_entities.size() != 1) return;
Entity entity = selected_entities[0];
u64 prefab = getPrefab(entity);
if (prefab != 0) entity = getPrefabRoot(entity);
FS::OsFile file;
if (!file.open(path.c_str(), FS::Mode::CREATE_AND_WRITE))
{
g_log_error.log("Editor") << "Failed to create " << path.c_str();
return;
}
Array<Entity> entities(m_editor.getAllocator());
gatherHierarchy(entity, true, entities);
OutputBlob blob(m_editor.getAllocator());
SaveEntityGUIDMap entity_map(entities);
TextSerializer serializer(blob, entity_map);
serializePrefab(m_universe, entities[0], path, serializer);
file.write(blob.getData(), blob.getPos());
file.close();
if (prefab == 0)
{
m_editor.beginCommandGroup(crc32("save_prefab"));
Transform tr = m_universe->getTransform(entity);
m_editor.destroyEntities(&entities[0], entities.size());
auto* resource_manager = m_editor.getEngine().getResourceManager().get(PrefabResource::TYPE);
auto* res = (PrefabResource*)resource_manager->load(path);
FS::FileSystem& fs = m_editor.getEngine().getFileSystem();
while (fs.hasWork()) fs.updateAsyncTransactions();
instantiatePrefab(*res, tr.pos, tr.rot, tr.scale);
m_editor.endCommandGroup();
}
}
void PendingLoggerEntitiesImpl::operationFinished(KTp::PendingLoggerOperation* op)
{
Q_ASSERT(mRunningOps.contains(op));
mRunningOps.removeAll(op);
KTp::PendingLoggerEntities *operation = qobject_cast<KTp::PendingLoggerEntities*>(op);
Q_ASSERT(operation);
const QList<KTp::LogEntity> newEntities = operation->entities();
qCDebug(KTP_LOGGER) << "Plugin" << op->parent() << "returned" << newEntities.count() << "entities";
Q_FOREACH (const KTp::LogEntity &entity, newEntities) {
if (!entities().contains(entity)) {
appendEntity(entity);
}
}
if (mRunningOps.isEmpty()) {
emitFinished();
}
}
MojErr ResourceContainer::ToJson(MojObject& rep) const
{
MojErr err = rep.putString(_T("name"), m_name.c_str());
MojErrCheck(err);
err = rep.putString(_T("priority"), ActivityPriorityNames[GetPriority()]);
MojErrCheck(err);
err = rep.putBool(_T("focused"), IsFocused());
MojErrCheck(err);
MojObject entities(MojObject::TypeArray);
std::for_each(m_entities.begin(), m_entities.end(),
boost::bind(&BusEntity::PushJson, _1, boost::ref(entities), false));
err = rep.put(_T("entities"), entities);
MojErrCheck(err);
return MojErrNone;
}
void Reader::do_read_mesh_into(const common::URI& path, Mesh& mesh)
{
boost::shared_ptr<common::XML::XmlDoc> doc = common::XML::parse_file(path);
common::XML::XmlNode mesh_node(doc->content->first_node("mesh"));
common::PE::Comm& comm = common::PE::Comm::instance();
if(!mesh_node.is_valid())
throw common::FileFormatError(FromHere(), "File " + path.path() + " has no mesh node");
if(mesh_node.attribute_value("version") != "1")
throw common::FileFormatError(FromHere(), "File " + path.path() + " has incorrect version " + mesh_node.attribute_value("version") + "(expected 1)");
if(common::from_str<Uint>(mesh_node.attribute_value("nb_procs")) != comm.size())
throw common::FileFormatError(FromHere(), "File " + path.path() + " has was created for " + mesh_node.attribute_value("nb_procs") + " processes and can't load on " + common::to_str(comm.size()) + " processors");
boost::shared_ptr<common::BinaryDataReader> data_reader = common::allocate_component<common::BinaryDataReader>("DataReader");
data_reader->options().set("file", common::URI(mesh_node.attribute_value("binary_file")));
common::XML::XmlNode topology_node = mesh_node.content->first_node("topology");
if(!topology_node.is_valid())
throw common::FileFormatError(FromHere(), "File " + path.path() + " does has no topology node");
common::XML::XmlNode region_node(topology_node.content->first_node("region"));
typedef std::map<Handle< common::List<Uint> >, std::string> PeriodicMapT;
PeriodicMapT periodic_links_map; // Collect a map of the periodic links to create, if any
for(; region_node.is_valid(); region_node.content = region_node.content->next_sibling("region"))
{
Region& region = mesh.topology().create_region(region_node.attribute_value("name"));
common::XML::XmlNode elements_node(region_node.content->first_node("elements"));
for(; elements_node.is_valid(); elements_node.content = elements_node.content->next_sibling("elements"))
{
Elements& elems = region.create_elements(elements_node.attribute_value("element_type"), mesh.geometry_fields());
data_reader->read_list(elems.glb_idx(), common::from_str<Uint>(elements_node.attribute_value("global_indices")));
data_reader->read_list(elems.rank(), common::from_str<Uint>(elements_node.attribute_value("ranks")));
common::XML::XmlNode periodic_node(elements_node.content->first_node("periodic_links_elements"));
if(periodic_node.is_valid())
{
Handle< common::List<Uint> > periodic_links_elements = elems.create_component< common::List<Uint> >("periodic_links_elements");
data_reader->read_list(*periodic_links_elements, common::from_str<Uint>(periodic_node.attribute_value("index")));
periodic_links_map.insert(std::make_pair(periodic_links_elements, periodic_node.attribute_value("periodic_link")));
}
}
}
// Link the periodic elements, now all elements have been created
for(PeriodicMapT::const_iterator it = periodic_links_map.begin(); it != periodic_links_map.end(); ++it)
{
Handle<common::Link> link = it->first->create_component<common::Link>("periodic_link");
Handle<Elements> elements_to_link(mesh.access_component(common::URI(it->second, common::URI::Scheme::CPATH)));
if(is_null(elements_to_link))
throw common::FileFormatError(FromHere(), "Invalid periodic link: " + it->second);
link->link_to(*elements_to_link);
}
common::XML::XmlNode dictionaries_node(mesh_node.content->first_node("dictionaries"));
if(!dictionaries_node.is_valid())
throw common::FileFormatError(FromHere(), "File " + path.path() + " does has no dictionaries node");
common::XML::XmlNode dictionary_node(dictionaries_node.content->first_node("dictionary"));
for(; dictionary_node.is_valid(); dictionary_node.content = dictionary_node.content->next_sibling("dictionary"))
{
const std::string dict_name = dictionary_node.attribute_value("name");
// Add the coordinates first
if(dict_name == "geometry")
{
common::XML::XmlNode field_node(dictionary_node.content->first_node("field"));
for(; field_node.is_valid(); field_node.content = field_node.content->next_sibling("field"))
{
if(field_node.attribute_value("name") == "coordinates")
{
const Uint table_idx = common::from_str<Uint>(field_node.attribute_value("table_idx"));
mesh.initialize_nodes(data_reader->block_rows(table_idx), data_reader->block_cols(table_idx));
data_reader->read_table(mesh.geometry_fields().coordinates(), table_idx);
}
}
// Periodic links
if(is_not_null(dictionary_node.content->first_attribute("periodic_links_nodes")) && is_not_null(dictionary_node.content->first_attribute("periodic_links_active")))
{
cf3_assert(is_null(mesh.geometry_fields().get_child("periodic_links_nodes")));
cf3_assert(is_null(mesh.geometry_fields().get_child("periodic_links_active")));
Handle< common::List<Uint> > periodic_links_nodes = mesh.geometry_fields().create_component< common::List<Uint> >("periodic_links_nodes");
Handle< common::List<bool> > periodic_links_active = mesh.geometry_fields().create_component< common::List<bool> >("periodic_links_active");
data_reader->read_list(*periodic_links_nodes, common::from_str<Uint>(dictionary_node.attribute_value("periodic_links_nodes")));
data_reader->read_list(*periodic_links_active, common::from_str<Uint>(dictionary_node.attribute_value("periodic_links_active")));
}
}
}
dictionary_node.content = dictionaries_node.content->first_node("dictionary");
for(; dictionary_node.is_valid(); dictionary_node.content = dictionary_node.content->next_sibling("dictionary"))
{
const std::string dict_name = dictionary_node.attribute_value("name");
const std::string space_lib_name = dictionary_node.attribute_value("space_lib_name");
const bool continuous = common::from_str<bool>(dictionary_node.attribute_value("continuous"));
// The entities used by this dictionary
std::vector< Handle<Entities> > entities_list;
std::vector<Uint> entities_binary_file_indices;
common::XML::XmlNode entities_node = dictionary_node.content->first_node("entities");
for(; entities_node.is_valid(); entities_node.content = entities_node.content->next_sibling("entities"))
{
Handle<Entities> entities(mesh.access_component(common::URI(entities_node.attribute_value("path"), common::URI::Scheme::CPATH)));
if(is_null(entities))
throw common::FileFormatError(FromHere(), "Referred entities " + entities_node.attribute_value("path") + " doesn't exist in mesh");
entities_list.push_back(entities);
entities_binary_file_indices.push_back(common::from_str<Uint>(entities_node.attribute_value("table_idx")));
}
Dictionary& dictionary = dict_name == "geometry" ? mesh.geometry_fields() :
(continuous ? mesh.create_continuous_space(dict_name, space_lib_name, entities_list) : mesh.create_discontinuous_space(dict_name, space_lib_name, entities_list));
// Read the global indices
data_reader->read_list(dictionary.glb_idx(), common::from_str<Uint>(dictionary_node.attribute_value("global_indices")));
data_reader->read_list(dictionary.rank(), common::from_str<Uint>(dictionary_node.attribute_value("ranks")));
// Read the fields
common::XML::XmlNode field_node(dictionary_node.content->first_node("field"));
for(; field_node.is_valid(); field_node.content = field_node.content->next_sibling("field"))
{
if(field_node.attribute_value("name") == "coordinates")
continue;
const Uint table_idx = common::from_str<Uint>(field_node.attribute_value("table_idx"));
Field& field = dictionary.create_field(field_node.attribute_value("name"), field_node.attribute_value("description"));
common::XML::XmlNode tag_node = field_node.content->first_node("tag");
for(; tag_node.is_valid(); tag_node.content = tag_node.content->next_sibling("tag"))
field.add_tag(tag_node.attribute_value("name"));
data_reader->read_table(field, table_idx);
}
// Read in the connectivity tables
for(Uint i = 0; i != entities_list.size(); ++i)
{
data_reader->read_table(entities_list[i]->space(dictionary).connectivity(), entities_binary_file_indices[i]);
}
}
}
// And Bob has a blonde wife
s.addObject("blonde", {}, "Bob");
SECTION("Bob can't have a second wife") {
// When Bob logs in,
auto c = TestClient::WithUsernameAndData("Bob", "wives");
s.waitForUsers(1);
// And tries to get a readhead wife
c.sendMessage(CL_CONSTRUCT, makeArgs("redhead", 10, 15));
// Then Bob receives an error message,
c.waitForMessage(WARNING_UNIQUE_OBJECT);
// And there is still only one in the world
CHECK(s.entities().size() == 1);
}
SECTION("Charlie can have a wife too") {
// When Charlie logs in,
auto c = TestClient::WithUsernameAndData("Charlie", "wives");
s.waitForUsers(1);
auto &user = s.getFirstUser();
// And tries to get a readhead wife
c.sendMessage(CL_CONSTRUCT, makeArgs("redhead", 15, 15));
REPEAT_FOR_MS(100);
// Then there are now two (one each)
CHECK(s.entities().size() == 2);
}
Entity doInstantiatePrefab(PrefabResource& prefab_res, const Vec3& pos, const Quat& rot, float scale)
{
if (!prefab_res.isReady()) return INVALID_ENTITY;
if (!m_resources.find(prefab_res.getPath().getHash()).isValid())
{
m_resources.insert(prefab_res.getPath().getHash(), &prefab_res);
prefab_res.getResourceManager().load(prefab_res);
}
InputBlob blob(prefab_res.blob.getData(), prefab_res.blob.getPos());
Array<Entity> entities(m_editor.getAllocator());
LoadEntityGUIDMap entity_map(entities);
TextDeserializer deserializer(blob, entity_map);
u32 version;
deserializer.read(&version);
if (version > (int)PrefabVersion::LAST)
{
g_log_error.log("Editor") << "Prefab " << prefab_res.getPath() << " has unsupported version.";
return INVALID_ENTITY;
}
int count;
deserializer.read(&count);
entities.reserve(count);
for (int i = 0; i < count; ++i)
{
entities.push(m_universe->createEntity({0, 0, 0}, {0, 0, 0, 1}));
}
int entity_idx = 0;
while (blob.getPosition() < blob.getSize() && entity_idx < count)
{
u64 prefab;
deserializer.read(&prefab);
Entity entity = entities[entity_idx];
m_universe->setTransform(entity, {pos, rot, scale});
reserve(entity);
m_prefabs[entity.index].prefab = prefab;
link(entity, prefab);
if (version > (int)PrefabVersion::WITH_HIERARCHY)
{
Entity parent;
deserializer.read(&parent);
if (parent.isValid())
{
RigidTransform local_tr;
deserializer.read(&local_tr);
float scale;
deserializer.read(&scale);
m_universe->setParent(parent, entity);
m_universe->setLocalTransform(entity, {local_tr.pos, local_tr.rot, scale});
}
}
u32 cmp_type_hash;
deserializer.read(&cmp_type_hash);
while (cmp_type_hash != 0)
{
ComponentType cmp_type = Reflection::getComponentTypeFromHash(cmp_type_hash);
int scene_version;
deserializer.read(&scene_version);
m_universe->deserializeComponent(deserializer, entity, cmp_type, scene_version);
deserializer.read(&cmp_type_hash);
}
++entity_idx;
}
return entities[0];
}
bool BulkData::internal_sort_kernel_entities()
{
bool change = false ;
for ( unsigned type = 0 ; type < EntityTypeEnd ; ++type ) {
KernelSet & ks = m_kernels[type] ;
// bk == first kernel in the family
KernelSet::iterator bk = ks.begin();
while ( bk != ks.end() ) {
KernelSet::iterator ik_vacant = bk->m_kernel ; // Last kernel
unsigned ie_vacant = ik_vacant->size();
if ( ik_vacant->capacity() <= ie_vacant ) {
// Have to create a kernel just for the scratch space...
const unsigned * const key = bk->key();
ik_vacant = declare_kernel( (EntityType) type, key[0]-1 , key+1 );
ie_vacant = 0 ;
}
ik_vacant->m_entities[ ie_vacant ] = NULL ;
// ek == end kernel for the family
KernelSet::iterator ek = bk->m_kernel ; ++ek ;
unsigned count = 0 ;
for ( KernelSet::iterator ik = bk ; ik != ek ; ++ik ) {
count += ik->size();
}
std::vector<Entity*> entities( count );
std::vector<Entity*>::iterator j = entities.begin();
for ( KernelSet::iterator ik = bk ; ik != ek ; ++ik ) {
const unsigned n = ik->size();
for ( unsigned i = 0 ; i < n ; ++i , ++j ) {
*j = ik->m_entities[i] ;
}
}
std::sort( entities.begin() , entities.end() , LessEntityPointer() );
j = entities.begin();
bool change_this_family = false ;
for ( KernelSet::iterator ik = bk ; ik != ek ; ++ik ) {
const unsigned n = ik->size();
for ( unsigned i = 0 ; i < n ; ++i , ++j ) {
Entity * const current = ik->m_entities[i] ;
if ( current != *j ) {
if ( current ) {
// Move current entity to the vacant spot
Kernel::copy_fields( *ik_vacant , ie_vacant , *ik, i );
current->m_kernel = ik_vacant ;
current->m_kernel_ord = ie_vacant ;
ik_vacant->m_entities[ ie_vacant ] = current ;
}
// Set the vacant spot to where the required entity is now.
ik_vacant = (*j)->m_kernel ;
ie_vacant = (*j)->m_kernel_ord ;
ik_vacant->m_entities[ ie_vacant ] = NULL ;
// Move required entity to the required spot
Kernel::copy_fields( *ik, i, *ik_vacant , ie_vacant );
(*j)->m_kernel = ik ;
(*j)->m_kernel_ord = i ;
ik->m_entities[i] = *j ;
change_this_family = true ;
}
// Once a change has occured then need to propagate the
// relocation for the remainder of the family.
// This allows the propagation to be performed once per
// entity as opposed to both times the entity is moved.
if ( change_this_family ) { internal_propagate_relocation( **j ); }
}
}
if ( change_this_family ) { change = true ; }
bk = ek ;
}
}
return change ;
}