IECore::ObjectPtr CompoundParameterHandler::getState( const IECore::Parameter *parameter )
{
const CompoundParameter *compoundParameter = static_cast<const CompoundParameter *>( parameter );
CompoundObjectPtr result = new CompoundObject;
const CompoundParameter::ParameterVector &childParameters = compoundParameter->orderedParameters();
for( CompoundParameter::ParameterVector::const_iterator cIt=childParameters.begin(); cIt!=childParameters.end(); cIt++ )
{
ParameterHandlerPtr h = handler( *cIt, true );
if( h )
{
ObjectPtr childState = h->getState( *cIt );
if( childState )
{
result->members()[(*cIt)->name()] = childState;
}
}
}
if( result->members().size() )
{
return result;
}
return 0;
}
IECore::ConstCompoundObjectPtr Attributes::computeProcessedAttributes( const ScenePath &path, const Gaffer::Context *context, IECore::ConstCompoundObjectPtr inputAttributes ) const
{
const CompoundDataPlug *ap = attributesPlug();
if( !ap->children().size() )
{
return inputAttributes;
}
/// \todo You might think that we wouldn't have to check this again
/// because the base class would have used processesAttributes()
/// to avoid even calling this function. But that isn't the case for
/// some reason.
if( globalPlug()->getValue() )
{
return inputAttributes;
}
CompoundObjectPtr result = new CompoundObject;
// Since we're not going to modify any existing members (only add new ones),
// and our result becomes const on returning it, we can directly reference
// the input members in our result without copying. Be careful not to modify
// them though!
result->members() = inputAttributes->members();
ap->fillCompoundObject( result->members() );
return result;
}
void ObjectWriter::doWrite( const CompoundObject *operands )
{
IndexedIOPtr io = new FileIndexedIO( fileName(), IndexedIO::rootPath, IndexedIO::Exclusive | IndexedIO::Write);
/// \todo Establish why we only accept CompoundData / Data here when HeaderGenerator::header(), for example,
/// returns a CompoundObject
// write the header
CompoundDataPtr header = boost::static_pointer_cast<CompoundData>( m_headerParameter->getValue()->copy() );
header->writable()["typeName"] = new StringData( object()->typeName() );
if( const VisibleRenderable* visibleRenderable = runTimeCast<const VisibleRenderable>(object()) )
{
header->writable()["bound"] = new Box3fData( visibleRenderable->bound() );
}
CompoundObjectPtr genericHeader = HeaderGenerator::header();
for ( CompoundObject::ObjectMap::const_iterator it = genericHeader->members().begin(); it != genericHeader->members().end(); it++ )
{
assert( it->second );
if ( it->second->isInstanceOf( Data::staticTypeId() ) )
{
header->writable()[ it->first ] = boost::static_pointer_cast< Data >( it->second );
}
}
((ObjectPtr)header)->save( io, "header" );
// write the object
object()->save( io, "object" );
}
SceneGadget::SceneGadget()
: Gadget( defaultName<SceneGadget>() ),
m_paused( false ),
m_renderer( IECoreScenePreview::Renderer::create( "OpenGL", IECoreScenePreview::Renderer::Interactive ) ),
m_controller( nullptr, nullptr, m_renderer ),
m_updateErrored( false ),
m_renderRequestPending( false )
{
typedef CompoundObject::ObjectMap::value_type Option;
CompoundObjectPtr openGLOptions = new CompoundObject;
openGLOptions->members().insert( {
Option( "gl:primitive:wireframeColor", new Color4fData( Color4f( 0.2f, 0.2f, 0.2f, 1.0f ) ) ),
Option( "gl:primitive:pointColor", new Color4fData( Color4f( 0.9f, 0.9f, 0.9f, 1.0f ) ) ),
Option( "gl:primitive:pointWidth", new FloatData( 2.0f ) )
} );
setOpenGLOptions( openGLOptions.get() );
m_controller.updateRequiredSignal().connect(
boost::bind( &SceneGadget::requestRender, this )
);
visibilityChangedSignal().connect( boost::bind( &SceneGadget::visibilityChanged, this ) );
setContext( new Context );
}
IECore::ConstCompoundObjectPtr Displays::computeProcessedGlobals( const Gaffer::Context *context, IECore::ConstCompoundObjectPtr inputGlobals ) const
{
const CompoundPlug *dsp = displaysPlug();
if( !dsp->children().size() )
{
return inputGlobals;
}
CompoundObjectPtr result = inputGlobals->copy();
// add our displays to the result
for( InputCompoundPlugIterator it( dsp ); it != it.end(); it++ )
{
const CompoundPlug *displayPlug = *it;
if( displayPlug->getChild<BoolPlug>( "active" )->getValue() )
{
std::string name = displayPlug->getChild<StringPlug>( "name" )->getValue();
std::string type = displayPlug->getChild<StringPlug>( "type" )->getValue();
std::string data = displayPlug->getChild<StringPlug>( "data" )->getValue();
if( name.size() && type.size() && data.size() )
{
DisplayPtr d = new Display( name, type, data );
displayPlug->getChild<CompoundDataPlug>( "parameters" )->fillCompoundData( d->parameters() );
result->members()["display:" + name] = d;
}
}
}
return result;
}
IECore::ConstCompoundObjectPtr ArnoldDisplacement::attributes() const
{
CompoundObjectPtr result = new CompoundObject;
if( !enabledPlug()->getValue() )
{
return result;
}
CompoundObject::ObjectMap &m = result->members();
m = mapPlug()->attributes()->members();
for( InternedString *n = g_mapInputAttributeNames; *n != InternedString(); ++n )
{
CompoundObject::ObjectMap::iterator it = m.find( *n );
if( it != m.end() )
{
m[g_mapAttributeName] = it->second;
m.erase( it );
break;
}
}
m[g_heightAttributeName] = new FloatData( heightPlug()->getValue() );
m[g_paddingAttributeName] = new FloatData( paddingPlug()->getValue() );
m[g_zeroValueAttributeName] = new FloatData( zeroValuePlug()->getValue() );
m[g_autoBumpAttributeName] = new BoolData( autoBumpPlug()->getValue() );
return result;
}
AttributeCache::AttributeCache( const std::string &filename, IndexedIO::OpenMode mode )
{
IndexedIOPtr io = IndexedIO::create(filename, IndexedIO::rootPath, mode );
if ( mode == IndexedIO::Write || mode == IndexedIO::Append )
{
m_headersIO = io->subdirectory("headers", IndexedIO::CreateIfMissing );
m_objectsIO = io->subdirectory("objects", IndexedIO::CreateIfMissing );
CompoundObjectPtr header = HeaderGenerator::header();
for ( CompoundObject::ObjectMap::const_iterator it = header->members().begin(); it != header->members().end(); it++ )
{
writeHeader( it->first, it->second.get() );
}
}
if ( mode == IndexedIO::Read )
{
try
{
m_headersIO = io->subdirectory("headers");
m_objectsIO = io->subdirectory("objects");
}
catch (IECore::Exception &e)
{
throw Exception("Not an AttributeCache file.");
}
}
}
IECore::ObjectPtr ClassParameterHandler::getState( const IECore::Parameter *parameter )
{
CompoundObjectPtr result = staticPointerCast<CompoundObject>( CompoundParameterHandler::getState( parameter ) );
if( !result )
{
result = new CompoundObject;
}
IECorePython::ScopedGILLock gilLock;
try
{
boost::python::object pythonParameter( ParameterPtr( const_cast<Parameter *>( parameter ) ) );
boost::python::tuple classInfo = extract<boost::python::tuple>( pythonParameter.attr( "getClass" )( true ) );
std::string className = extract<const char *>( classInfo[1] )();
int classVersion = extract<int>( classInfo[2] )();
std::string searchPathEnvVar = extract<const char *>( classInfo[3] )();
result->members()["__className"] = new IECore::StringData( className );
result->members()["__classVersion"] = new IECore::IntData( classVersion );
result->members()["__searchPathEnvVar"] = new IECore::StringData( searchPathEnvVar );
}
catch( boost::python::error_already_set )
{
PyErr_Print();
}
catch( const std::exception &e )
{
msg( Msg::Error, "ClassParameterHandler::getState", e.what() );
}
return result;
}
IECore::ConstCompoundObjectPtr AttributeProcessor::computeProcessedAttributes( const ScenePath &path, const Gaffer::Context *context, IECore::ConstCompoundObjectPtr inputAttributes ) const
{
if( inputAttributes->members().empty() )
{
return inputAttributes;
}
const std::string names = namesPlug()->getValue();
const bool invert = invertNamesPlug()->getValue();
CompoundObjectPtr result = new CompoundObject;
for( CompoundObject::ObjectMap::const_iterator it = inputAttributes->members().begin(), eIt = inputAttributes->members().end(); it != eIt; ++it )
{
ConstObjectPtr attribute = it->second;
if( matchMultiple( it->first, names ) != invert )
{
attribute = processAttribute( path, context, it->first, attribute.get() );
}
if( attribute )
{
result->members().insert(
CompoundObject::ObjectMap::value_type(
it->first,
// cast is ok - result is const immediately on
// returning from this function, and attribute will
// therefore not be modified.
boost::const_pointer_cast<Object>( attribute )
)
);
}
}
return result;
}
IECore::ConstCompoundObjectPtr SceneReader::computeAttributes( const ScenePath &path, const Gaffer::Context *context, const ScenePlug *parent ) const
{
ConstSceneInterfacePtr s = scene( path );
if( !s )
{
return parent->attributesPlug()->defaultValue();
}
// read attributes
SceneInterface::NameList nameList;
s->attributeNames( nameList );
CompoundObjectPtr result = new CompoundObject;
for( SceneInterface::NameList::iterator it = nameList.begin(); it != nameList.end(); ++it )
{
// these internal attributes should be ignored:
if( *it == SceneCache::animatedObjectTopologyAttribute )
{
continue;
}
if( *it == SceneCache::animatedObjectPrimVarsAttribute )
{
continue;
}
// the const cast is ok, because we're only using it to put the object into a CompoundObject that will
// be treated as forever const after being returned from this function.
result->members()[ std::string( *it ) ] = boost::const_pointer_cast<Object>( s->readAttribute( *it, context->getTime() ) );
}
return result;
}
IECore::ConstCompoundObjectPtr SubTree::computeGlobals( const Gaffer::Context *context, const ScenePlug *parent ) const
{
ConstCompoundObjectPtr inputGlobals = inPlug()->globalsPlug()->getValue();
const CompoundData *inputSets = inputGlobals->member<CompoundData>( "gaffer:sets" );
if( !inputSets )
{
return inputGlobals;
}
CompoundObjectPtr outputGlobals = inputGlobals->copy();
CompoundDataPtr outputSets = new CompoundData;
outputGlobals->members()["gaffer:sets"] = outputSets;
std::string root = rootPlug()->getValue();
if( !root.size() || root[root.size()-1] != '/' )
{
root += "/";
}
size_t prefixSize = root.size() - 1; // number of characters to remove from front of each declaration
if( includeRootPlug()->getValue() && prefixSize )
{
size_t lastSlashButOne = root.rfind( "/", prefixSize-1 );
if( lastSlashButOne != string::npos )
{
prefixSize = lastSlashButOne;
}
}
for( CompoundDataMap::const_iterator it = inputSets->readable().begin(), eIt = inputSets->readable().end(); it != eIt; ++it )
{
/// \todo This could be more efficient if PathMatcher exposed the internal nodes,
/// and allowed sharing between matchers. Then we could just pick the subtree within
/// the matcher that we wanted.
const PathMatcher &inputSet = static_cast<const PathMatcherData *>( it->second.get() )->readable();
PathMatcher &outputSet = outputSets->member<PathMatcherData>( it->first, /* throwExceptions = */ false, /* createIfMissing = */ true )->writable();
vector<string> inputPaths;
inputSet.paths( inputPaths );
for( vector<string>::const_iterator pIt = inputPaths.begin(), peIt = inputPaths.end(); pIt != peIt; ++pIt )
{
const string &inputPath = *pIt;
if( inputPath.compare( 0, root.size(), root ) == 0 )
{
std::string outputPath( inputPath, prefixSize );
outputSet.addPath( outputPath );
}
}
}
return outputGlobals;
}
static void userHeaderGenerator( CompoundObjectPtr header )
{
uid_t uid = getuid();
struct passwd *st = getpwuid( uid );
if ( st )
{
header->members()["userName"] = new StringData( st->pw_name );
}
else
{
header->members()["userID"] = new IntData( uid );
}
}
IECore::ConstCompoundObjectPtr SceneReader::computeAttributes( const ScenePath &path, const Gaffer::Context *context, const ScenePlug *parent ) const
{
std::string fileName = fileNamePlug()->getValue();
if( !fileName.size() )
{
return parent->attributesPlug()->defaultValue();
}
ConstSceneInterfacePtr s = SharedSceneInterfaces::get( fileName );
s = s->scene( path );
// read attributes
SceneInterface::NameList nameList;
s->attributeNames( nameList );
CompoundObjectPtr result = new CompoundObject;
for( SceneInterface::NameList::iterator it = nameList.begin(); it != nameList.end(); ++it )
{
// these internal attributes should be ignored:
if( *it == SceneCache::animatedObjectTopologyAttribute )
{
continue;
}
if( *it == SceneCache::animatedObjectPrimVarsAttribute )
{
continue;
}
// the const cast is ok, because we're only using it to put the object into a CompoundObject that will
// be treated as forever const after being returned from this function.
result->members()[ std::string( *it ) ] = constPointerCast<Object>( s->readAttribute( *it, context->getFrame() / g_frameRate ) );
}
// read tags and turn them into attributes of the form "user:tag:tagName"
nameList.clear();
s->readTags( nameList, IECore::SceneInterface::LocalTag );
for( SceneInterface::NameList::const_iterator it = nameList.begin(); it != nameList.end(); ++it )
{
if( it->string().compare( 0, 11, "ObjectType:" ) == 0 )
{
continue;
}
result->members()["user:tag:"+it->string()] = g_trueBoolData;
}
return result;
}
CompoundObjectPtr AttributeCache::readHeader( )
{
CompoundObjectPtr dict = new CompoundObject();
IndexedIO::EntryIDList directories;
m_headersIO->entryIds( directories, IndexedIO::Directory );
for (IndexedIO::EntryIDList::const_iterator it = directories.begin(); it != directories.end(); ++it)
{
ObjectPtr data = Object::load( m_headersIO, *it );
dict->members()[ *it ] = data;
}
return dict;
}
ObjectPtr FromHoudiniPolygonsConverter::doDetailConversion( const GU_Detail *geo, const CompoundObject *operands ) const
{
const GA_PrimitiveList &primitives = geo->getPrimitiveList();
MeshPrimitivePtr result = new MeshPrimitive();
size_t numEdges = 0;
std::vector<int> vertIds;
std::vector<int> vertsPerFace;
GA_Offset start, end;
for( GA_Iterator it( geo->getPrimitiveRange() ); it.blockAdvance( start, end ); )
{
for( GA_Offset offset = start; offset < end; ++offset )
{
const GA_Primitive *prim = primitives.get( offset );
if( prim->getTypeId() != GEO_PRIMPOLY )
{
throw std::runtime_error( "FromHoudiniPolygonsConverter: Geometry contains non-polygon primitives" );
}
size_t numPrimVerts = prim->getVertexCount();
vertsPerFace.push_back( numPrimVerts );
numEdges += numPrimVerts;
std::vector<int> ids( numPrimVerts );
for( size_t j = 0; j < numPrimVerts; j++ )
{
vertIds.push_back( geo->pointIndex( prim->getPointOffset( numPrimVerts - 1 - j ) ) );
}
}
}
result->setTopology( new IntVectorData( vertsPerFace ), new IntVectorData( vertIds ) );
CompoundObjectPtr modifiedOperands = transferMeshInterpolation( geo, operands, result.get() );
if( geo->getNumVertices() )
{
transferAttribs( geo, result.get(), modifiedOperands ? modifiedOperands.get() : operands );
}
// check for corners and creases, which would have been extracted via transferAttribs()
// as they are no different to standard attribs in Houdini.
convertCorners( result.get() );
convertCreases( result.get(), vertIds, numEdges );
return result;
}
CompoundObjectPtr AttributeCache::read( const ObjectHandle &obj )
{
CompoundObjectPtr dict = new CompoundObject();
IndexedIO::EntryIDList directories;
IndexedIOPtr object = m_objectsIO->subdirectory( obj );
object->entryIds( directories, IndexedIO::Directory );
for (IndexedIO::EntryIDList::const_iterator it = directories.begin(); it != directories.end(); ++it)
{
ObjectPtr data = Object::load( object, *it );
dict->members()[ *it ] = data;
}
return dict;
}
ConstCompoundObjectPtr SetVisualiser::computeProcessedAttributes( const ScenePath &path, const Gaffer::Context *context, ConstCompoundObjectPtr inputAttributes ) const
{
CompoundObjectPtr result = new CompoundObject;
// Since we're not going to modify any existing members (only add a new one),
// and our result becomes const on returning it, we can directly reference
// the input members in our result without copying. Be careful not to modify
// them though!
result->members() = inputAttributes->members();
ConstCompoundDataPtr outSetsData = outSetsPlug()->getValue();
const InternedStringVectorData *setNamesData = outSetsData->member<InternedStringVectorData>( "names" );
const Color3fVectorData *setColorsData = outSetsData->member<Color3fVectorData>( "colors" );
int matchResult = PathMatcher::ExactMatch;
if( includeInheritedPlug()->getValue() )
{
matchResult |= PathMatcher::AncestorMatch;
}
ConstCompoundDataPtr targetSets = SceneAlgo::sets( inPlug(), setNamesData->readable() );
std::vector<Color3f> shaderColors;
size_t index = 0;
for( auto &setName : setNamesData->readable() )
{
const PathMatcherData *pathMatchData = targetSets->member<const PathMatcherData>( setName );
if( pathMatchData->readable().match( path ) & matchResult )
{
shaderColors.push_back( setColorsData->readable()[ index ] );
}
// We need to pass our colors to the shader as a fixed size array
if( shaderColors.size() == g_maxShaderColors )
{
break;
}
++index;
}
// Avoids shader compilation errors as its expecting g_maxShaderColors elements
const size_t numColorsUsed = shaderColors.size();
shaderColors.resize( g_maxShaderColors );
result->members()["gl:surface"] = stripeShader( stripeWidthPlug()->getValue(), numColorsUsed, shaderColors );
return result;
}
IECore::ConstCompoundObjectPtr Prune::computeGlobals( const Gaffer::Context *context, const ScenePlug *parent ) const
{
ConstCompoundObjectPtr inputGlobals = inPlug()->globalsPlug()->getValue();
const CompoundData *inputSets = inputGlobals->member<CompoundData>( "gaffer:sets" );
if( !inputSets )
{
return inputGlobals;
}
CompoundObjectPtr outputGlobals = inputGlobals->copy();
CompoundDataPtr outputSets = new CompoundData;
outputGlobals->members()["gaffer:sets"] = outputSets;
ContextPtr tmpContext = new Context( *Context::current() );
Context::Scope scopedContext( tmpContext );
ScenePath path;
for( CompoundDataMap::const_iterator it = inputSets->readable().begin(), eIt = inputSets->readable().end(); it != eIt; ++it )
{
/// \todo This could be more efficient if PathMatcher exposed the internal nodes,
/// and allowed sharing between matchers. Then we could do a really lightweight copy
/// and just trim out the nodes we didn't want.
const PathMatcher &inputSet = static_cast<const PathMatcherData *>( it->second.get() )->readable();
PathMatcher &outputSet = outputSets->member<PathMatcherData>( it->first, /* throwExceptions = */ false, /* createIfMissing = */ true )->writable();
vector<string> inputPaths;
inputSet.paths( inputPaths );
for( vector<string>::const_iterator pIt = inputPaths.begin(), peIt = inputPaths.end(); pIt != peIt; ++pIt )
{
path.clear();
ScenePlug::stringToPath( *pIt, path );
tmpContext->set( ScenePlug::scenePathContextName, path );
if( !(filterPlug()->getValue() & ( Filter::ExactMatch | Filter::AncestorMatch ) ) )
{
outputSet.addPath( *pIt );
}
}
}
return outputGlobals;
}
void CopyChannels::compute( Gaffer::ValuePlug *output, const Gaffer::Context *context ) const
{
if( output == mappingPlug() )
{
const string channelMatchPatterns = channelsPlug()->getValue();
CompoundObjectPtr result = new CompoundObject();
StringVectorDataPtr channelNamesData = new StringVectorData;
result->members()["__channelNames"] = channelNamesData;
vector<string> &channelNames = channelNamesData->writable();
size_t i = 0;
for( ImagePlugIterator it( inPlugs() ); !it.done(); ++i, ++it )
{
/// \todo We need this check because an unconnected input
/// has a default channelNames value of [ "R", "G", "B" ],
/// when it should have an empty default instead. Fix
/// the ImagePlug constructor and remove the check.
if( !(*it)->getInput<Plug>() )
{
continue;
}
ConstStringVectorDataPtr inputChannelNamesData = (*it)->channelNamesPlug()->getValue();
const vector<string> &inputChannelNames = inputChannelNamesData->readable();
for( vector<string>::const_iterator cIt = inputChannelNames.begin(), ceIt = inputChannelNames.end(); cIt != ceIt; ++cIt )
{
if( i > 0 && !StringAlgo::matchMultiple( *cIt, channelMatchPatterns ) )
{
continue;
}
if( find( channelNames.begin(), channelNames.end(), *cIt ) == channelNames.end() )
{
channelNames.push_back( *cIt );
}
result->members()[*cIt] = new IntData( i );
}
}
static_cast<CompoundObjectPlug *>( output )->setValue( result );
return;
}
ImageProcessor::compute( output, context );
}
IECore::ConstCompoundObjectPtr ShaderAssignment::computeProcessedAttributes( const ScenePath &path, const Gaffer::Context *context, IECore::ConstCompoundObjectPtr inputAttributes ) const
{
CompoundObjectPtr result = inputAttributes->copy();
const Shader *shader = shaderPlug()->source<Plug>()->ancestor<Shader>();
if( shader )
{
// Shader::state() returns a const object, so that in the future it may
// come from a cached value. we're putting it into our result which, once
// returned, will also be treated as const and cached. for that reason the
// temporary const_cast needed to put it into the result is justified -
// we never change the object and nor can anyone after it is returned.
ObjectVectorPtr state = boost::const_pointer_cast<ObjectVector>( shader->state() );
if( state->members().size() )
{
result->members()["shader"] = state;
}
}
return result;
}
IECore::ConstCompoundObjectPtr AttributeProcessor::computeProcessedAttributes( const ScenePath &path, const Gaffer::Context *context, IECore::ConstCompoundObjectPtr inputAttributes ) const
{
if( inputAttributes->members().empty() )
{
return inputAttributes;
}
/// \todo See todos about name matching in PrimitiveVariableProcessor.
typedef boost::tokenizer<boost::char_separator<char> > Tokenizer;
std::string namesValue = namesPlug()->getValue();
Tokenizer names( namesValue, boost::char_separator<char>( " " ) );
bool invert = invertNamesPlug()->getValue();
CompoundObjectPtr result = new CompoundObject;
IECore::PrimitiveVariableMap::iterator next;
for( CompoundObject::ObjectMap::const_iterator it = inputAttributes->members().begin(), eIt = inputAttributes->members().end(); it != eIt; ++it )
{
ConstObjectPtr attribute = it->second;
bool found = std::find( names.begin(), names.end(), it->first.string() ) != names.end();
if( found != invert )
{
attribute = processAttribute( path, context, it->first, attribute.get() );
}
if( attribute )
{
result->members().insert(
CompoundObject::ObjectMap::value_type(
it->first,
// cast is ok - result is const immediately on
// returning from this function, and attribute will
// therefore not be modified.
constPointerCast<Object>( attribute )
)
);
}
}
return result;
}
IECore::ConstCompoundObjectPtr GafferScene::SceneAlgo::globalAttributes( const IECore::CompoundObject *globals )
{
static const std::string prefix( "attribute:" );
CompoundObjectPtr result = new CompoundObject;
CompoundObject::ObjectMap::const_iterator it, eIt;
for( it = globals->members().begin(), eIt = globals->members().end(); it != eIt; ++it )
{
if( !boost::starts_with( it->first.c_str(), "attribute:" ) )
{
continue;
}
// Cast is justified because we don't modify the data, and will return it
// as const from this function.
result->members()[it->first.string().substr( prefix.size() )] = boost::const_pointer_cast<Object>(
it->second
);
}
return result;
}
static void unameHeaderGenerator( CompoundObjectPtr header )
{
struct utsname name;
if ( !uname( &name ) )
{
CompoundDataPtr compound = new CompoundData();
compound->writable()["systemName"] = new StringData( name.sysname );
compound->writable()["nodeName"] = new StringData( name.nodename );
compound->writable()["systemRelease"] = new StringData( name.release );
compound->writable()["systemVersion"] = new StringData( name.version );
compound->writable()["machineName"] = new StringData( name.machine );
header->members()["host"] = compound;
}
}
static void timeStampHeaderGenerator( CompoundObjectPtr header )
{
time_t tm;
time( &tm );
/// ctime_r manpage suggest that 26 characters should be enough in all cases
char buf[27];
std::string strTime ( ctime_r( &tm, &buf[0] ) );
assert( strTime.length() <= 26 );
/// Remove the newline at the end
boost::algorithm::trim_right( strTime );
header->members()["timeStamp"] = new StringData( strTime );
}
IECore::ConstCompoundObjectPtr Grid::computeAttributes( const SceneNode::ScenePath &path, const Gaffer::Context *context, const ScenePlug *parent ) const
{
if( path.size() == 1 )
{
CompoundObjectPtr result = new CompoundObject;
result->members()["gl:curvesPrimitive:useGLLines"] = new BoolData( true );
result->members()["gl:smoothing:lines"] = new BoolData( true );
ShaderPtr shader = new Shader( "Constant", "gl:surface" );
shader->parameters()["Cs"] = new Color3fData( Color3f( 1 ) );
result->members()["gl:surface"] = shader;
return result;
}
else if( path.size() == 2 )
{
float pixelWidth = 1.0f;
if( path.back() == g_gridLinesName )
{
pixelWidth = gridPixelWidthPlug()->getValue();
}
else if( path.back() == g_centerLinesName )
{
pixelWidth = centerPixelWidthPlug()->getValue();
}
else if( path.back() == g_borderLinesName )
{
pixelWidth = borderPixelWidthPlug()->getValue();
}
CompoundObjectPtr result = new CompoundObject;
result->members()["gl:curvesPrimitive:glLineWidth"] = new FloatData( pixelWidth );
return result;
}
return outPlug()->attributesPlug()->defaultValue();
}
IECore::ConstCompoundObjectPtr AppleseedShaderAdaptor::computeAttributes( const ScenePath &path, const Gaffer::Context *context, const GafferScene::ScenePlug *parent ) const
{
ConstCompoundObjectPtr inputAttributes = inPlug()->attributesPlug()->getValue();
/// \todo Drop support for "osl:shader" assignments. They were never desirable, and the ShaderAssignment node
/// no longer makes them.
const ShaderNetwork *shaderNetwork = inputAttributes->member<const ShaderNetwork>( g_oslShaderAttributeName );
if( !shaderNetwork )
{
shaderNetwork = inputAttributes->member<const ShaderNetwork>( g_oslSurfaceAttributeName );
}
if( !shaderNetwork )
{
return inputAttributes;
}
const Shader *outputShader = shaderNetwork->outputShader();
if( !outputShader )
{
return inputAttributes;
}
OSLQuery::Parameter *firstOutput = firstOutputParameter( outputShader->getName() );
// Build an adaptor network
ShaderNetworkPtr adaptedNetwork;
if( firstOutput && firstOutput->isclosure )
{
adaptedNetwork = shaderNetwork->copy();
ShaderPtr material = new Shader( "material/as_material_builder", "osl:surface" );
InternedString materialHandle = adaptedNetwork->addShader( "material", std::move( material ) );
adaptedNetwork->addConnection(
{ { adaptedNetwork->getOutput().shader, firstOutput->name.string() }, { materialHandle, g_bsdfParameterName } }
);
adaptedNetwork->setOutput( materialHandle );
}
else if( firstOutput && firstOutput->type == TypeDesc::TypeColor )
{
adaptedNetwork = shaderNetwork->copy();
ShaderPtr emission = new Shader( "surface/as_emission_surface", "osl:shader" );
InternedString emissionHandle = adaptedNetwork->addShader( "emission", std::move( emission ) );
adaptedNetwork->addConnection(
{ { adaptedNetwork->getOutput().shader, firstOutput->name.string() }, { emissionHandle, "Color" } }
);
ShaderPtr material = new Shader( "material/as_material_builder", "osl:surface" );
InternedString materialHandle = adaptedNetwork->addShader( "material", std::move( material ) );
adaptedNetwork->addConnection(
{ { emissionHandle, "BSDF" }, { materialHandle, "BSDF" } }
);
adaptedNetwork->setOutput( materialHandle );
}
else if( firstOutput && ( firstOutput->type == TypeDesc::TypeFloat || firstOutput->type == TypeDesc::TypeInt ) )
{
adaptedNetwork = shaderNetwork->copy();
ShaderPtr colorBuild = new Shader( "color/as_color_build", "osl:shader" );
InternedString colorBuildHandle = adaptedNetwork->addShader( "colorBuild", std::move( colorBuild ) );
for( const auto &channel : { "R", "G", "B" } )
{
adaptedNetwork->addConnection(
{ { adaptedNetwork->getOutput().shader, firstOutput->name.string() }, { colorBuildHandle, channel } }
);
}
ShaderPtr emission = new Shader( "surface/as_emission_surface", "osl:shader" );
InternedString emissionHandle = adaptedNetwork->addShader( "emission", std::move( emission ) );
adaptedNetwork->addConnection(
{ { colorBuildHandle, "ColorOut" }, { emissionHandle, "Color" } }
);
ShaderPtr material = new Shader( "material/as_material_builder", "osl:surface" );
InternedString materialHandle = adaptedNetwork->addShader( "material", std::move( material ) );
adaptedNetwork->addConnection(
{ { emissionHandle, "BSDF" }, { materialHandle, "BSDF" } }
);
adaptedNetwork->setOutput( materialHandle );
}
else if( firstOutput && firstOutput->type == TypeDesc::TypeVector )
{
adaptedNetwork = shaderNetwork->copy();
ShaderPtr vectorSplit = new Shader( "vector/as_vector_split", "osl:shader" );
InternedString vectorSplitHandle = adaptedNetwork->addShader( "vectorSplit", std::move( vectorSplit ) );
adaptedNetwork->addConnection(
{ { adaptedNetwork->getOutput().shader, firstOutput->name.string() }, { vectorSplitHandle, "Vector" } }
);
ShaderPtr colorBuild = new Shader( "color/as_color_build", "osl:shader" );
InternedString colorBuildHandle = adaptedNetwork->addShader( "colorBuild", std::move( colorBuild ) );
for( const auto &c : { make_pair( "X", "R" ), make_pair( "Y", "G" ), make_pair( "Z", "B" ) } )
{
adaptedNetwork->addConnection(
{ { vectorSplitHandle, c.first }, { colorBuildHandle, c.second } }
);
}
ShaderPtr emission = new Shader( "surface/as_emission_surface", "osl:shader" );
InternedString emissionHandle = adaptedNetwork->addShader( "emission", std::move( emission ) );
adaptedNetwork->addConnection(
{ { colorBuildHandle, "ColorOut" }, { emissionHandle, "Color" } }
);
ShaderPtr material = new Shader( "material/as_material_builder", "osl:surface" );
InternedString materialHandle = adaptedNetwork->addShader( "material", std::move( material ) );
adaptedNetwork->addConnection(
{ { emissionHandle, "BSDF" }, { materialHandle, "BSDF" } }
);
adaptedNetwork->setOutput( materialHandle );
}
else
{
// Shader has no output, or an output we can't map sensibly.
// Make an "error" shader.
adaptedNetwork = new ShaderNetwork;
ShaderPtr emission = new Shader( "surface/as_emission_surface", "osl:shader" );
emission->parameters()["Color"] = new Color3fData( Imath::Color3f( 1, 0, 0 ) );
InternedString emissionHandle = adaptedNetwork->addShader( "emission", std::move( emission ) );
ShaderPtr material = new Shader( "material/as_material_builder", "osl:surface" );
InternedString materialHandle = adaptedNetwork->addShader( "material", std::move( material ) );
adaptedNetwork->addConnection(
{ { emissionHandle, "BSDF" }, { materialHandle, "BSDF" } }
);
adaptedNetwork->setOutput( materialHandle );
}
// Place the new network into the "osl:surface" attribute
// and remove the "osl:shader" attribute.
CompoundObjectPtr outputAttributes = new CompoundObject;
outputAttributes->members() = inputAttributes->members(); // Shallow copy for speed - do not modify in place!
outputAttributes->members()[g_oslSurfaceAttributeName] = adaptedNetwork;
outputAttributes->members().erase( g_oslShaderAttributeName );
return outputAttributes;
}
IECore::ConstCompoundObjectPtr AppleseedShaderAdaptor::computeAttributes( const ScenePath &path, const Gaffer::Context *context, const GafferScene::ScenePlug *parent ) const
{
ConstCompoundObjectPtr inputAttributes = inPlug()->attributesPlug()->getValue();
const ObjectVector *shaderNetwork = inputAttributes->member<const ObjectVector>( g_oslShaderAttributeName );
if( !shaderNetwork || shaderNetwork->members().empty() )
{
return inputAttributes;
}
const Shader *rootShader = runTimeCast<const Shader>( shaderNetwork->members().back().get() );
if( !rootShader )
{
return inputAttributes;
}
OSLQuery::Parameter *firstOutput = firstOutputParameter( rootShader->getName() );
// Build an adapter network if we can.
bool prependInputNetwork = true;
vector<ShaderPtr> adapters;
if( firstOutput && firstOutput->isclosure )
{
ShaderPtr material = new Shader( "material/as_material_builder", "osl:surface" );
material->parameters()[g_bsdfParameterName] = new StringData( "link:adapterInputHandle." + firstOutput->name.string() );
adapters.push_back( material );
}
else if( firstOutput && firstOutput->type == TypeDesc::TypeColor )
{
ShaderPtr emission = new Shader( "surface/as_emission_surface", "osl:shader" );
emission->parameters()["Color"] = new StringData( "link:adapterInputHandle." + firstOutput->name.string() );
emission->parameters()[g_handleParameterName] = new StringData( "adapterEmissionHandle" );
ShaderPtr material = new Shader( "material/as_material_builder", "osl:surface" );
material->parameters()[g_bsdfParameterName] = new StringData( "link:adapterEmissionHandle.BSDF" );
adapters.push_back( emission );
adapters.push_back( material );
}
else if( firstOutput && ( firstOutput->type == TypeDesc::TypeFloat || firstOutput->type == TypeDesc::TypeInt ) )
{
ShaderPtr colorBuild = new Shader( "color/as_color_build", "osl:shader" );
StringDataPtr colorLink = new StringData( "link:adapterInputHandle." + firstOutput->name.string() );
colorBuild->parameters()["R"] = colorLink;
colorBuild->parameters()["G"] = colorLink;
colorBuild->parameters()["B"] = colorLink;
colorBuild->parameters()[g_handleParameterName] = new StringData( "adapterColorBuildHandle" );
ShaderPtr emission = new Shader( "surface/as_emission_surface", "osl:shader" );
emission->parameters()["Color"] = new StringData( "link:adapterColorBuildHandle.ColorOut" );
emission->parameters()[g_handleParameterName] = new StringData( "adapterEmissionHandle" );
ShaderPtr material = new Shader( "material/as_material_builder", "osl:surface" );
material->parameters()[g_bsdfParameterName] = new StringData( "link:adapterEmissionHandle.BSDF" );
adapters.push_back( colorBuild );
adapters.push_back( emission );
adapters.push_back( material );
}
else if( firstOutput && firstOutput->type == TypeDesc::TypeVector )
{
ShaderPtr vectorSplit = new Shader( "vector/as_vector_split", "osl:shader" );
vectorSplit->parameters()["Vector"] = new StringData( "link:adapterInputHandle." + firstOutput->name.string() );
vectorSplit->parameters()[g_handleParameterName] = new StringData( "adapterVectorSplit" );
ShaderPtr colorBuild = new Shader( "color/as_color_build", "osl:shader" );
colorBuild->parameters()["R"] = new StringData( "link:adapterVectorSplit.X" );
colorBuild->parameters()["G"] = new StringData( "link:adapterVectorSplit.Y" );
colorBuild->parameters()["B"] = new StringData( "link:adapterVectorSplit.Z" );
colorBuild->parameters()[g_handleParameterName] = new StringData( "adapterColorBuildHandle" );
ShaderPtr emission = new Shader( "surface/as_emission_surface", "osl:shader" );
emission->parameters()["Color"] = new StringData( "link:adapterColorBuildHandle.ColorOut" );
emission->parameters()[g_handleParameterName] = new StringData( "adapterEmissionHandle" );
ShaderPtr material = new Shader( "material/as_material_builder", "osl:surface" );
material->parameters()[g_bsdfParameterName] = new StringData( "link:adapterEmissionHandle.BSDF" );
adapters.push_back( vectorSplit );
adapters.push_back( colorBuild );
adapters.push_back( emission );
adapters.push_back( material );
}
else
{
// Shader has no output, or an output we can't map sensibly.
// Make an "error" shader.
ShaderPtr emission = new Shader( "surface/as_emission_surface", "osl:shader" );
emission->parameters()["Color"] = new Color3fData( Imath::Color3f( 1, 0, 0 ) );
emission->parameters()[g_handleParameterName] = new StringData( "adapterEmissionHandle" );
ShaderPtr material = new Shader( "material/as_material_builder", "osl:surface" );
material->parameters()[g_bsdfParameterName] = new StringData( "link:adapterEmissionHandle.BSDF" );
adapters.push_back( emission );
adapters.push_back( material );
prependInputNetwork = false; // We don't need the original shaders at all
}
// Make a new network with the adapter network
// appended onto the input network
ObjectVectorPtr adaptedNetwork = new ObjectVector();
if( prependInputNetwork )
{
adaptedNetwork->members() = shaderNetwork->members(); // Shallow copy for speed - do not modify in place!
ShaderPtr rootShaderCopy = rootShader->copy();
rootShaderCopy->parameters()[g_handleParameterName] = new StringData( "adapterInputHandle" );;
adaptedNetwork->members().back() = rootShaderCopy;
}
std::copy( adapters.begin(), adapters.end(), back_inserter( adaptedNetwork->members() ) );
// Place the new network into the "osl:surface" attribute
// and remove the "osl:shader" attribute.
CompoundObjectPtr outputAttributes = new CompoundObject;
outputAttributes->members() = inputAttributes->members(); // Shallow copy for speed - do not modify in place!
outputAttributes->members()[g_oslSurfaceAttributeName] = adaptedNetwork;
outputAttributes->members().erase( g_oslShaderAttributeName );
return outputAttributes;
}
ObjectPtr EnvMapSampler::doOperation( const CompoundObject * operands )
{
ImagePrimitivePtr image = static_cast<ImagePrimitive *>( imageParameter()->getValue() )->copy();
Box2i dataWindow = image->getDataWindow();
// find the rgb channels
ConstFloatVectorDataPtr redData = image->getChannel<float>( "R" );
ConstFloatVectorDataPtr greenData = image->getChannel<float>( "G" );
ConstFloatVectorDataPtr blueData = image->getChannel<float>( "B" );
if( !(redData && greenData && blueData) )
{
throw Exception( "Image does not contain valid RGB float channels." );
}
const vector<float> &red = redData->readable();
const vector<float> &green = greenData->readable();
const vector<float> &blue = blueData->readable();
// get a luminance channel
LuminanceOpPtr luminanceOp = new LuminanceOp();
luminanceOp->inputParameter()->setValue( image );
luminanceOp->copyParameter()->getTypedValue() = false;
luminanceOp->removeColorPrimVarsParameter()->getTypedValue() = false;
luminanceOp->operate();
// do the median cut thing to get some samples
MedianCutSamplerPtr sampler = new MedianCutSampler;
sampler->imageParameter()->setValue( image );
sampler->subdivisionDepthParameter()->setNumericValue( subdivisionDepthParameter()->getNumericValue() );
ConstCompoundObjectPtr samples = boost::static_pointer_cast<CompoundObject>( sampler->operate() );
const vector<V2f> ¢roids = boost::static_pointer_cast<V2fVectorData>( samples->members().find( "centroids" )->second )->readable();
const vector<Box2i> &areas = boost::static_pointer_cast<Box2iVectorData>( samples->members().find( "areas" )->second )->readable();
// get light directions and colors from the samples
V3fVectorDataPtr directionsData = new V3fVectorData;
Color3fVectorDataPtr colorsData = new Color3fVectorData;
vector<V3f> &directions = directionsData->writable();
vector<Color3f> &colors = colorsData->writable();
float radiansPerPixel = M_PI / (dataWindow.size().y + 1);
float angleAtTop = ( M_PI - radiansPerPixel ) / 2.0f;
for( unsigned i=0; i<centroids.size(); i++ )
{
const Box2i &area = areas[i];
Color3f color( 0 );
for( int y=area.min.y; y<=area.max.y; y++ )
{
int yRel = y - dataWindow.min.y;
float angle = angleAtTop - yRel * radiansPerPixel;
float weight = cosf( angle );
int index = (area.min.x - dataWindow.min.x) + (dataWindow.size().x + 1 ) * yRel;
for( int x=area.min.x; x<=area.max.x; x++ )
{
color[0] += weight * red[index];
color[1] += weight * green[index];
color[2] += weight * blue[index];
index++;
}
}
color /= red.size();
colors.push_back( color );
float phi = angleAtTop - (centroids[i].y - dataWindow.min.y) * radiansPerPixel;
V3f direction;
direction.y = sinf( phi );
float r = cosf( phi );
float theta = 2 * M_PI * lerpfactor( (float)centroids[i].x, (float)dataWindow.min.x, (float)dataWindow.max.x );
direction.x = r * cosf( theta );
direction.z = r * sinf( theta );
directions.push_back( -direction ); // negated so we output the direction the light shines in
}
// return the result
CompoundObjectPtr result = new CompoundObject;
result->members()["directions"] = directionsData;
result->members()["colors"] = colorsData;
return result;
}
int ParameterisedHolder<BaseType>::knob_changed( DD::Image::Knob *knob )
{
if( knob==m_classSpecifierKnob || knob==m_classReloadKnob )
{
// reload the class, or load a new class
updateParameterised( knob==m_classReloadKnob );
// regenerate the knobs used to represent the parameters
replaceKnobs();
// update the version menu
updateVersionChooser();
return 1;
}
else if( knob==m_getParameterisedKnob )
{
// this is triggered by the FnParameterisedHolder.getParameterised implementation.
// currently there's no way to get an Op * and call a method on it from
// python, so we use the knob_changed() mechanism to simulate a function call by
// shoving the result into g_getParameterisedResult for subsequent retrieval.
g_getParameterisedResult = loadClass( false );
if( g_getParameterisedResult )
{
ParameterisedInterface *parameterisedInterface = dynamic_cast<ParameterisedInterface *>( g_getParameterisedResult.get() );
// apply current state
ConstCompoundObjectPtr classSpecifier = runTimeCast<const CompoundObject>( m_classSpecifierKnob->getValue() );
ConstObjectPtr handlerState = classSpecifier->member<Object>( "handlerState" );
if( handlerState )
{
m_parameterHandler->setState( parameterisedInterface->parameters(), handlerState );
}
// get values directly from knobs as they haven't been stored at this point
m_parameterHandler->setParameterValue( parameterisedInterface->parameters(), ParameterHandler::Knob );
}
return 1;
}
else if( knob==m_modifiedParametersKnob )
{
// this is triggered by the FnParameterisedHolder.classModificationContext() implementation.
// as above, we use this method in lieu of being able to call a method on this class.
// get the new handler state and store it so we have it for save/load copy/paste etc
////////////////////////////////////////////////////////////////////////////////////
ParameterisedInterface *inputParameterisedInterface = dynamic_cast<ParameterisedInterface *>( g_modifiedParametersInput.get() );
ObjectPtr handlerState = m_parameterHandler->getState( inputParameterisedInterface->parameters() );
CompoundObjectPtr classSpecifier = runTimeCast<CompoundObject>( m_classSpecifierKnob->getValue()->copy() );
if( handlerState )
{
classSpecifier->members()["handlerState"] = handlerState;
}
else
{
classSpecifier->members().erase( "handlerState" );
}
// it seems that setting the value from inside knob_changed() doesn't emit a new knob_changed(), which
// is fortunately what we want.
m_classSpecifierKnob->setValue( classSpecifier );
// apply the new state to the current parameterised object
////////////////////////////////////////////////////////////////////////////////////
ParameterisedInterface *parameterisedInterface = dynamic_cast<ParameterisedInterface *>( m_parameterised.get() );
if( handlerState )
{
m_parameterHandler->setState( parameterisedInterface->parameters(), handlerState );
}
parameterisedInterface->parameters()->setValue( inputParameterisedInterface->parameters()->getValue() );
// update the knobs using our newly updated parameterised object
////////////////////////////////////////////////////////////////////////////////////
replaceKnobs();
setKnobValues();
// forget the input
g_modifiedParametersInput = 0;
return 1;
}
return BaseType::knob_changed( knob );
}
static void ieCoreHeaderGenerator( CompoundObjectPtr header )
{
header->members()["ieCoreVersion"] = new StringData( versionString() );
}