/*!
* Returns true if the \a m_nodetypeList contains the type of the element defined with \a sourceRow and \a sourceParent
*/
bool NodesFilterModel::filterAcceptsRow(int sourceRow, const QModelIndex &sourceParent) const
{
SceneModel* sceneModel = dynamic_cast< SceneModel* > ( sourceModel() );
QModelIndex index = sceneModel->index(sourceRow, 0, sourceParent);
InstanceNode* nodeInstance = sceneModel->NodeFromIndex( index );
if( !nodeInstance ) return false;
SoNode* node = nodeInstance->GetNode();
if( !node ) return false;
if( node->getTypeId().isDerivedFrom( TSeparatorKit::getClassTypeId() ) ) return ( true );
if( node->getTypeId().isDerivedFrom( TShapeKit::getClassTypeId() ) )
{
if( m_shapeTypeList.count() < 1 ) return ( true );
TShapeKit* shapeKit = static_cast< TShapeKit* >( node );
if(!shapeKit) return ( false );
TShape* shape = static_cast< TShape* >( shapeKit->getPart( "shape", false ) );
if( shape && m_shapeTypeList.contains( shape->getTypeId().getName().getString() ) )
return ( true );
}
return ( false );
}
/**
* Creates a new group node insert command that adds a \a separatorKit to \a parentIndex node in the \a model.
*
* If \a parent is not null, this command is appended to parent's child list and then owns this command.
*/
CmdInsertSeparatorKit::CmdInsertSeparatorKit( TSeparatorKit* separatorKit, const QModelIndex& parentIndex, SceneModel* model, QUndoCommand* parent )
: QUndoCommand("InsertSeparatorKit", parent), m_separatorKit ( separatorKit ), m_coinParent( 0 ), m_pModel( model ), m_row( -1 )
{
if( !m_separatorKit ) gf::SevereError( "CmdInsertSeparatorKit Null separatorKit." );
m_separatorKit->ref();
if( !parentIndex.isValid() ) gf::SevereError( "CmdInsertSeparatorKit called with invalid ModelIndex." );
InstanceNode* instanceParent = m_pModel->NodeFromIndex( parentIndex );
m_coinParent = static_cast< SoBaseKit* > ( instanceParent->GetNode() );
}
/**
* Creates a new tracker insert command that adds a \a tracker to a parent node with \a parentIndex in the \a model.
*
* If \a parent is not null, this command is appended to parent's child list and then owns this command.
*/
CmdInsertTracker::CmdInsertTracker( TTracker* tracker, const QModelIndex& parentIndex, SoSceneKit* scene, SceneModel* model, QUndoCommand* parent )
: QUndoCommand("Insert Tracker", parent), m_tracker ( tracker ), m_coinParent( 0 ), m_scene( scene ), m_pModel( model ), m_row( 0 )
{
if( !m_tracker ) gf::SevereError( "CmdInsertTracker Null tracker." );
m_tracker->ref();
if( !parentIndex.isValid() ) gf::SevereError( "CmdInsertTracker called with invalid ModelIndex." );
InstanceNode* instanceParent = m_pModel->NodeFromIndex( parentIndex );
if( !instanceParent->GetNode() ) gf::SevereError( "CmdInsertTracker called with NULL parent node." );
m_coinParent = static_cast< SoBaseKit* > ( instanceParent->GetNode() );
}
/**
* Creates a new cut command that represents the cut the node located with \a index from the \a model.
* The node is stored at the \a clipborad.
*
* If \a parent is not null, this command is appended to parent's child list and then owns this command.
*/
CmdCut::CmdCut( const QModelIndex& selectedIndex, SoNode*& clipboard, SceneModel* model, QUndoCommand* parent )
: QUndoCommand("Cut", parent), m_pClipboard ( clipboard ), m_previousNode ( 0 ), m_coinNode( 0 ), m_coinParent( 0 ), m_pModel( model ), m_row ( -1 )
{
InstanceNode* instanceNode = m_pModel->NodeFromIndex( selectedIndex );
m_coinNode = instanceNode->GetNode();
m_coinNode->ref();
m_coinParent = static_cast< SoBaseKit* > (instanceNode->GetParent()->GetNode() );
m_previousNode = clipboard ;
m_row = instanceNode->GetParent()->children.indexOf( instanceNode );
}
/**
* Creates a new analyzerkit insert command that adds a \a analyzerkit node to a node given with the \a parentIndex node in the \a model.
*
* If \a parent is not null, this command is appended to parent's child list and then owns this command.
*/
CmdInsertAnalyzerKit::CmdInsertAnalyzerKit( const QModelIndex& parentIndex, TAnalyzerKit* analyzerKit, SceneModel* model, QUndoCommand* parent )
: QUndoCommand("InsertAnalyzerKit", parent), m_coinParent( 0 ), m_analyzerKit(analyzerKit), m_pModel(model), m_row( -1 )
{
if( m_analyzerKit == 0 ) gf::SevereError( "CmdInsertAnalyzerKit called with NULL TAnalyzerKit*" );
m_analyzerKit->ref();
if( !parentIndex.isValid() ) gf::SevereError( "CmdInsertAnalyzerKit called with invalid ModelIndex." );
InstanceNode* instanceParent = m_pModel->NodeFromIndex( parentIndex );
if( !instanceParent->GetNode() ) gf::SevereError( "CmdInsertAnalyzerKit called with NULL parent node." );
m_coinParent = static_cast< SoBaseKit* > ( instanceParent->GetNode() );
}
/*
* Returns the type of the surface
*/
QString FluxAnalysis::GetSurfaceType( QString nodeURL )
{
QModelIndex nodeIndex = m_pCurrentSceneModel->IndexFromNodeUrl( nodeURL );
if( !nodeIndex.isValid() ) return QLatin1String( "" );
InstanceNode* instanceNode = m_pCurrentSceneModel->NodeFromIndex( nodeIndex );
if( !instanceNode || instanceNode == 0 ) return QLatin1String( "" );
TShapeKit* shapeKit = static_cast< TShapeKit* > ( instanceNode->GetNode() );
if( !shapeKit || shapeKit == 0 ) return QLatin1String( "" );
TShape* shape = static_cast< TShape* >( shapeKit->getPart( "shape", false ) );
if( !shape || shape == 0 ) return QLatin1String( "" );
return ( shape->getTypeId().getName().getString() );
}
/*
* Fun flux analysis
*/
void FluxAnalysis::RunFluxAnalysis( QString nodeURL, QString surfaceSide, unsigned long nOfRays, bool increasePhotonMap, int heightDivisions, int widthDivisions )
{
m_surfaceURL = nodeURL;
m_surfaceSide = surfaceSide;
//Delete a photonCounts
if( m_photonCounts && m_photonCounts != 0 )
{
for( int h = 0; h < m_heightDivisions; h++ )
{
delete[] m_photonCounts[h];
}
delete[] m_photonCounts;
}
m_photonCounts = 0;
m_heightDivisions = heightDivisions;
m_widthDivisions = widthDivisions;
//Check if there is a scene
if ( !m_pCurrentScene ) return;
//Check if there is a transmissivity defined
TTransmissivity* transmissivity = 0;
if ( !m_pCurrentScene->getPart( "transmissivity", false ) ) transmissivity = 0;
else
transmissivity = static_cast< TTransmissivity* > ( m_pCurrentScene->getPart( "transmissivity", false ) );
//Check if there is a rootSeparator InstanceNode
if( !m_pRootSeparatorInstance ) return;
InstanceNode* sceneInstance = m_pRootSeparatorInstance->GetParent();
if ( !sceneInstance ) return;
//Check if there is a light and is properly configured
if ( !m_pCurrentScene->getPart( "lightList[0]", false ) )return;
TLightKit* lightKit = static_cast< TLightKit* >( m_pCurrentScene->getPart( "lightList[0]", false ) );
InstanceNode* lightInstance = sceneInstance->children[0];
if ( !lightInstance ) return;
if( !lightKit->getPart( "tsunshape", false ) ) return;
TSunShape* sunShape = static_cast< TSunShape * >( lightKit->getPart( "tsunshape", false ) );
if( !lightKit->getPart( "icon", false ) ) return;
TLightShape* raycastingSurface = static_cast< TLightShape * >( lightKit->getPart( "icon", false ) );
if( !lightKit->getPart( "transform" ,false ) ) return;
SoTransform* lightTransform = static_cast< SoTransform * >( lightKit->getPart( "transform" ,false ) );
//Check if there is a random generator is defined.
if( !m_pRandomDeviate || m_pRandomDeviate== 0 ) return;
//Check if the surface and the surface side defined is suitable
if( CheckSurface() == false || CheckSurfaceSide() == false ) return;
//Create the photon map where photons are going to be stored
if( !m_pPhotonMap || !increasePhotonMap )
{
if( m_pPhotonMap ) m_pPhotonMap->EndStore( -1 );
delete m_pPhotonMap;
m_pPhotonMap = new TPhotonMap();
m_pPhotonMap->SetBufferSize( HUGE_VAL );
m_tracedRays = 0;
m_wPhoton = 0;
m_totalPower = 0;
}
QVector< InstanceNode* > exportSuraceList;
QModelIndex nodeIndex = m_pCurrentSceneModel->IndexFromNodeUrl( m_surfaceURL );
if( !nodeIndex.isValid() ) return;
InstanceNode* surfaceNode = m_pCurrentSceneModel->NodeFromIndex( nodeIndex );
if( !surfaceNode || surfaceNode == 0 ) return;
exportSuraceList.push_back( surfaceNode );
//UpdateLightSize();
TSeparatorKit* concentratorRoot = static_cast< TSeparatorKit* >( m_pCurrentScene->getPart( "childList[0]", false ) );
if ( !concentratorRoot ) return;
SoGetBoundingBoxAction* bbAction = new SoGetBoundingBoxAction( SbViewportRegion() ) ;
concentratorRoot->getBoundingBox( bbAction );
SbBox3f box = bbAction->getXfBoundingBox().project();
delete bbAction;
bbAction = 0;
BBox sceneBox;
if( !box.isEmpty() )
{
sceneBox.pMin = Point3D( box.getMin()[0], box.getMin()[1], box.getMin()[2] );
sceneBox.pMax = Point3D( box.getMax()[0], box.getMax()[1], box.getMax()[2] );
if( lightKit ) lightKit->Update( sceneBox );
}
m_pCurrentSceneModel->UpdateSceneModel();
//Compute bounding boxes and world to object transforms
trf::ComputeSceneTreeMap( m_pRootSeparatorInstance, Transform( new Matrix4x4 ), true );
m_pPhotonMap->SetConcentratorToWorld( m_pRootSeparatorInstance->GetIntersectionTransform() );
QStringList disabledNodes = QString( lightKit->disabledNodes.getValue().getString() ).split( ";", QString::SkipEmptyParts );
QVector< QPair< TShapeKit*, Transform > > surfacesList;
trf::ComputeFistStageSurfaceList( m_pRootSeparatorInstance, disabledNodes, &surfacesList );
lightKit->ComputeLightSourceArea( m_sunWidthDivisions, m_sunHeightDivisions, surfacesList );
if( surfacesList.count() < 1 ) return;
QVector< long > raysPerThread;
int maximumValueProgressScale = 100;
unsigned long t1 = nOfRays/ maximumValueProgressScale;
for( int progressCount = 0; progressCount < maximumValueProgressScale; ++ progressCount )
raysPerThread<< t1;
if( ( t1 * maximumValueProgressScale ) < nOfRays ) raysPerThread<< ( nOfRays - ( t1* maximumValueProgressScale) );
Transform lightToWorld = tgf::TransformFromSoTransform( lightTransform );
lightInstance->SetIntersectionTransform( lightToWorld.GetInverse() );
// Create a progress dialog.
QProgressDialog dialog;
dialog.setLabelText( QString("Progressing using %1 thread(s)..." ).arg( QThread::idealThreadCount() ) );
// Create a QFutureWatcher and conncect signals and slots.
QFutureWatcher< void > futureWatcher;
QObject::connect(&futureWatcher, SIGNAL(finished()), &dialog, SLOT(reset()));
QObject::connect(&dialog, SIGNAL(canceled()), &futureWatcher, SLOT(cancel()));
QObject::connect(&futureWatcher, SIGNAL(progressRangeChanged(int, int)), &dialog, SLOT(setRange(int, int)));
QObject::connect(&futureWatcher, SIGNAL(progressValueChanged(int)), &dialog, SLOT(setValue(int)));
QMutex mutex;
QMutex mutexPhotonMap;
QFuture< void > photonMap;
if( transmissivity )
photonMap = QtConcurrent::map( raysPerThread, RayTracer( m_pRootSeparatorInstance,
lightInstance, raycastingSurface, sunShape, lightToWorld,
transmissivity,
*m_pRandomDeviate,
&mutex, m_pPhotonMap, &mutexPhotonMap,
exportSuraceList ) );
else
photonMap = QtConcurrent::map( raysPerThread, RayTracerNoTr( m_pRootSeparatorInstance,
lightInstance, raycastingSurface, sunShape, lightToWorld,
*m_pRandomDeviate,
&mutex, m_pPhotonMap, &mutexPhotonMap,
exportSuraceList ) );
futureWatcher.setFuture( photonMap );
// Display the dialog and start the event loop.
dialog.exec();
futureWatcher.waitForFinished();
m_tracedRays += nOfRays;
double irradiance = sunShape->GetIrradiance();
double inputAperture = raycastingSurface->GetValidArea();
m_wPhoton = double ( inputAperture * irradiance ) / m_tracedRays;
UpdatePhotonCounts();
}
void ModelEntity::renderNode(const Node& node, const InstanceNode& instanceNode, float time, int32_t animStackIndex, int32_t animLayerIndex) const
{
enum RenderFilter renderFilter = Entity::getRenderFilter();
bool finalTransparent = (instanceNode.isTransparentActive() && instanceNode.isTransparent()) || (!instanceNode.isTransparentActive() && node.isTransparent());
bool renderMesh = (renderFilter == RENDER_ALL) || (finalTransparent && renderFilter == RENDER_TRANSPARENT) || (!finalTransparent && renderFilter == RENDER_OPAQUE);
if (isDebug())
{
if (node.getCamera().get())
{
node.getCamera()->debugDraw(instanceNode.getPosition(), instanceNode.getRotation(), true);
}
if (node.getLight().get())
{
node.getLight()->debugDraw(instanceNode.getPosition(), instanceNode.getRotation());
}
}
if (isWireframe())
{
glPolygonMode(GL_FRONT_AND_BACK, GL_LINE);
}
if (node.getMesh().get() && renderMesh)
{
VAOSP currentVAO;
ProgramSP currentProgram;
SubMeshSP currentSubMesh;
SurfaceMaterialSP currentSurfaceMaterial;
const std::vector<std::shared_ptr<AnimationStack> >& allAnimStacks = node.getAllAnimStacks();
for (uint32_t subMeshIndex = 0; subMeshIndex < node.getMesh()->getSubMeshesCount(); subMeshIndex++)
{
currentSubMesh = node.getMesh()->getSubMeshAt(subMeshIndex);
if (subMeshIndex >= node.getMesh()->getSurfaceMaterialsCount())
{
break;
}
currentSurfaceMaterial = node.getMesh()->getSurfaceMaterialAt(subMeshIndex);
float currentEmissive[4] = { 0.0f, 0.0f, 0.0f, 1.0f };
float currentAmbient[4] = { 0.0f, 0.0f, 0.0f, 1.0f };
float currentDiffuse[4] = { 0.0f, 0.0f, 0.0f, 1.0f };
float currentSpecular[4] = { 0.0f, 0.0f, 0.0f, 1.0f };
float currentReflection[4] = { 0.0f, 0.0f, 0.0f, 1.0f };
float currentRefraction[4] = { 0.0f, 0.0f, 0.0f, 1.0f };
float currentShininess = 0.0f;
float currentTransparency = 0.0f;
for (int32_t i = 0; i < 4; i++)
{
currentEmissive[i] = currentSurfaceMaterial->getEmissive().getRGBA()[i];
currentAmbient[i] = currentSurfaceMaterial->getAmbient().getRGBA()[i];
currentDiffuse[i] = currentSurfaceMaterial->getDiffuse().getRGBA()[i];
currentSpecular[i] = currentSurfaceMaterial->getSpecular().getRGBA()[i];
currentReflection[i] = currentSurfaceMaterial->getReflection().getRGBA()[i];
currentRefraction[i] = currentSurfaceMaterial->getRefraction().getRGBA()[i];
}
currentShininess = currentSurfaceMaterial->getShininess();
currentTransparency = currentSurfaceMaterial->getTransparency();
if (animStackIndex >= 0 && animLayerIndex >= 0 && static_cast<decltype(allAnimStacks.size())>(animStackIndex) < allAnimStacks.size() && animLayerIndex < allAnimStacks[animStackIndex]->getAnimationLayersCount())
{
// Animate values depending on time
const AnimationLayerSP& animLayer = allAnimStacks[animStackIndex]->getAnimationLayer(animLayerIndex);
for (enum AnimationLayer::eCHANNELS_RGBA i = AnimationLayer::R; i <= AnimationLayer::A;
i = static_cast<enum AnimationLayer::eCHANNELS_RGBA>(i + 1))
{
if (animLayer->hasEmissiveColorValue(i))
{
currentEmissive[i] = animLayer->getEmissiveColorValue(i, time);
}
if (animLayer->hasAmbientColorValue(i))
{
currentAmbient[i] = animLayer->getAmbientColorValue(i, time);
}
if (animLayer->hasDiffuseColorValue(i))
{
currentDiffuse[i] = animLayer->getDiffuseColorValue(i, time);
}
if (animLayer->hasSpecularColorValue(i))
{
currentSpecular[i] = animLayer->getSpecularColorValue(i, time);
}
if (animLayer->hasReflectionColorValue(i))
{
currentReflection[i] = animLayer->getReflectionColorValue(i, time);
}
if (animLayer->hasRefractionColorValue(i))
{
currentRefraction[i] = animLayer->getRefractionColorValue(i, time);
}
}
if (animLayer->hasShininessValue(AnimationLayer::S))
{
currentShininess = animLayer->getShininessValue(AnimationLayer::S, time);
}
if (animLayer->hasTransparencyValue(AnimationLayer::S))
{
currentTransparency = animLayer->getTransparencyValue(AnimationLayer::S, time);
}
}
currentVAO = currentSubMesh->getVAOByProgramType(getCurrentProgramType());
currentProgram = currentVAO->getProgram();
currentProgram->use();
glUniformMatrix4fv(currentProgram->getUniformLocation(u_modelMatrix), 1, GL_FALSE, instanceNode.getModelMatrix().getM());
// We have the inverse and transpose by setting the matrix
glUniformMatrix3fv(currentProgram->getUniformLocation(u_normalModelMatrix), 1, GL_TRUE, instanceNode.getNormalModelMatrix().getM());
currentVAO->bind();
glUniform4fv(currentProgram->getUniformLocation(u_emissiveColor), 1, currentEmissive);
glUniform4fv(currentProgram->getUniformLocation(u_ambientColor), 1, currentAmbient);
if (currentSurfaceMaterial->getDiffuseTextureName() != 0)
{
glUniform1i(currentProgram->getUniformLocation(u_hasDiffuseTexture), 1);
glActiveTexture(GL_TEXTURE0);
glBindTexture(GL_TEXTURE_2D, currentSurfaceMaterial->getDiffuseTextureName());
glUniform1i(currentProgram->getUniformLocation(u_diffuseTexture), 0);
}
else
{
glUniform1i(currentProgram->getUniformLocation(u_hasDiffuseTexture), 0);
glActiveTexture(GL_TEXTURE0);
glBindTexture(GL_TEXTURE_2D, 0);
glUniform1i(currentProgram->getUniformLocation(u_diffuseTexture), 0);
}
glUniform4fv(currentProgram->getUniformLocation(u_diffuseColor), 1, currentDiffuse);
if (currentSurfaceMaterial->getSpecularTextureName() != 0)
{
glUniform1i(currentProgram->getUniformLocation(u_hasSpecularTexture), 1);
glActiveTexture(GL_TEXTURE1);
glBindTexture(GL_TEXTURE_2D, currentSurfaceMaterial->getSpecularTextureName());
glUniform1i(currentProgram->getUniformLocation(u_specularTexture), 1);
}
else
{
glUniform1i(currentProgram->getUniformLocation(u_hasSpecularTexture), 0);
glActiveTexture(GL_TEXTURE1);
glBindTexture(GL_TEXTURE_2D, 0);
glUniform1i(currentProgram->getUniformLocation(u_specularTexture), 0);
}
glUniform4fv(currentProgram->getUniformLocation(u_specularColor), 1, currentSpecular);
glUniform1f(currentProgram->getUniformLocation(u_shininess), currentShininess);
glUniform1f(currentProgram->getUniformLocation(u_transparency), currentTransparency);
if (currentSurfaceMaterial->getNormalMapTextureName() != 0)
{
glUniform1i(currentProgram->getUniformLocation(u_hasNormalMapTexture), 1);
glActiveTexture(GL_TEXTURE2);
glBindTexture(GL_TEXTURE_2D, currentSurfaceMaterial->getNormalMapTextureName());
glUniform1i(currentProgram->getUniformLocation(u_normalMapTexture), 2);
glActiveTexture(GL_TEXTURE0);
}
else
{
glUniform1i(currentProgram->getUniformLocation(u_hasNormalMapTexture), 0);
glActiveTexture(GL_TEXTURE2);
glBindTexture(GL_TEXTURE_2D, 0);
glUniform1i(currentProgram->getUniformLocation(u_normalMapTexture), 2);
glActiveTexture(GL_TEXTURE0);
}
glUniform1i(currentProgram->getUniformLocation(u_convertDirectX), currentSurfaceMaterial->isConvertDirectX());
glUniform4fv(currentProgram->getUniformLocation(u_reflectionColor), 1, currentReflection);
glUniform4fv(currentProgram->getUniformLocation(u_refractionColor), 1, currentRefraction);
float environmentRefractiveIndex = refractiveIndex;
if (environmentRefractiveIndex != RI_NOTHING)
{
float materialRefractiveIndex = currentSurfaceMaterial->getRefractiveIndex();
float eta = environmentRefractiveIndex / materialRefractiveIndex;
float reflectanceNormalIncidence = ((environmentRefractiveIndex - materialRefractiveIndex) * (environmentRefractiveIndex - materialRefractiveIndex)) / ((environmentRefractiveIndex + materialRefractiveIndex) * (environmentRefractiveIndex + materialRefractiveIndex));
glUniform1f(currentProgram->getUniformLocation(u_eta), eta);
glUniform1f(currentProgram->getUniformLocation(u_reflectanceNormalIncidence), reflectanceNormalIncidence);
}
else
{
glUniform1f(currentProgram->getUniformLocation(u_eta), 0.0f);
glUniform1f(currentProgram->getUniformLocation(u_reflectanceNormalIncidence), 0.0f);
}
if (SkyManager::getInstance()->hasActiveSky())
{
glUniform1i(currentProgram->getUniformLocation(u_hasCubeMapTexture), 1);
SkySP activeSky = SkyManager::getInstance()->getActiveSky();
glActiveTexture(GL_TEXTURE3);
glBindTexture(GL_TEXTURE_CUBE_MAP, activeSky->getSkyTextureName());
glUniform1i(currentProgram->getUniformLocation(u_cubemap), 3);
glActiveTexture(GL_TEXTURE0);
}
else
{
glUniform1i(currentProgram->getUniformLocation(u_hasCubeMapTexture), 0);
glActiveTexture(GL_TEXTURE3);
glBindTexture(GL_TEXTURE_CUBE_MAP, 0);
glUniform1i(currentProgram->getUniformLocation(u_cubemap), 3);
glActiveTexture(GL_TEXTURE0);
}
// Only allow dynamic cube map, if also a sky cube map is available
if (Entity::getDynamicCubeMaps() && currentSurfaceMaterial->getDynamicCubeMapTextureName() != 0 && SkyManager::getInstance()->hasActiveSky())
{
glUniform1i(currentProgram->getUniformLocation(u_hasDynamicCubeMapTexture), 1);
glActiveTexture(GL_TEXTURE4);
glBindTexture(GL_TEXTURE_CUBE_MAP, currentSurfaceMaterial->getDynamicCubeMapTextureName());
glUniform1i(currentProgram->getUniformLocation(u_dynamicCubeMapTexture), 4);
glActiveTexture(GL_TEXTURE0);
}
else
{
glUniform1i(currentProgram->getUniformLocation(u_hasDynamicCubeMapTexture), 0);
glActiveTexture(GL_TEXTURE4);
glBindTexture(GL_TEXTURE_CUBE_MAP, 0);
glUniform1i(currentProgram->getUniformLocation(u_dynamicCubeMapTexture), 4);
glActiveTexture(GL_TEXTURE0);
}
if (!Entity::getDynamicCubeMaps())
{
glUniformMatrix4fv(currentProgram->getUniformLocation(u_cubeMapViewMatrix), 6, GL_FALSE, Entity::getCubeMapViewMatrices()[0].getM());
glUniformMatrix4fv(currentProgram->getUniformLocation(u_cubeMapProjectionMatrix), 1, GL_FALSE, Entity::getCubeMapProjectionMatrix().getM());
}
// Skinning
if (node.getMesh()->hasSkinning())
{
glUniform1i(currentProgram->getUniformLocation(u_hasSkinning), 1);
glUniformMatrix4fv(currentProgram->getUniformLocation(u_bindMatrix), model->getNumberJoints(), GL_FALSE, bindMatrices[0].getM());
glUniformMatrix3fv(currentProgram->getUniformLocation(u_bindNormalMatrix), model->getNumberJoints(), GL_TRUE, bindNormalMatrices[0].getM());
glUniformMatrix4fv(currentProgram->getUniformLocation(u_inverseBindMatrix), model->getNumberJoints(), GL_FALSE, inverseBindMatrices[0].getM());
glUniformMatrix3fv(currentProgram->getUniformLocation(u_inverseBindNormalMatrix), model->getNumberJoints(), GL_TRUE, inverseBindNormalMatrices[0].getM());
}
else
{
glUniform1i(currentProgram->getUniformLocation(u_hasSkinning), 0);
glUniformMatrix4fv(currentProgram->getUniformLocation(u_bindMatrix), model->getNumberJoints(), GL_FALSE, Matrix4x4().getM());
glUniformMatrix3fv(currentProgram->getUniformLocation(u_bindNormalMatrix), model->getNumberJoints(), GL_TRUE, Matrix3x3().getM());
glUniformMatrix4fv(currentProgram->getUniformLocation(u_inverseBindMatrix), model->getNumberJoints(), GL_FALSE, Matrix4x4().getM());
glUniformMatrix3fv(currentProgram->getUniformLocation(u_inverseBindNormalMatrix), model->getNumberJoints(), GL_TRUE, Matrix3x3().getM());
}
// Write bright color
glUniform1i(currentProgram->getUniformLocation(u_writeBrightColor), writeBrightColor);
glUniform1f(currentProgram->getUniformLocation(u_brightColorLimit), brightColorLimit);
if (finalTransparent)
{
glEnable(GL_BLEND);
glBlendFunc(GL_SRC_ALPHA, GL_ONE_MINUS_SRC_ALPHA);
}
glDrawElements(GL_TRIANGLES, currentSubMesh->getTriangleCount() * 3, GL_UNSIGNED_INT, reinterpret_cast<const GLvoid *>(currentSubMesh->getIndicesOffset() * sizeof(uint32_t)));
if (finalTransparent)
{
glDisable(GL_BLEND);
}
if (currentSurfaceMaterial->getDiffuseTextureName() != 0)
{
glActiveTexture(GL_TEXTURE0);
glBindTexture(GL_TEXTURE_2D, 0);
}
if (currentSurfaceMaterial->getSpecularTextureName() != 0)
{
glActiveTexture(GL_TEXTURE1);
glBindTexture(GL_TEXTURE_2D, 0);
}
if (currentSurfaceMaterial->getNormalMapTextureName() != 0)
{
glActiveTexture(GL_TEXTURE2);
glBindTexture(GL_TEXTURE_2D, 0);
}
if (SkyManager::getInstance()->hasActiveSky())
{
glActiveTexture(GL_TEXTURE3);
glBindTexture(GL_TEXTURE_CUBE_MAP, 0);
}
if (currentSurfaceMaterial->getDynamicCubeMapTexture() != 0)
{
glActiveTexture(GL_TEXTURE4);
glBindTexture(GL_TEXTURE_CUBE_MAP, 0);
}
glActiveTexture(GL_TEXTURE0);
currentVAO->unbind();
}
}
if (isWireframe())
{
glPolygonMode(GL_FRONT_AND_BACK, GL_FILL);
}
}