bool ToHoudiniPolygonsConverter::doConversion( const VisibleRenderable *renderable, GU_Detail *geo ) const
{
const MeshPrimitive *mesh = static_cast<const MeshPrimitive *>( renderable );
if ( !mesh )
{
return false;
}
GA_Range newPoints = appendPoints( geo, mesh->variableSize( PrimitiveVariable::Vertex ) );
if ( !newPoints.isValid() || newPoints.empty() )
{
return false;
}
GA_OffsetList pointOffsets;
pointOffsets.reserve( newPoints.getEntries() );
for ( GA_Iterator it=newPoints.begin(); !it.atEnd(); ++it )
{
pointOffsets.append( it.getOffset() );
}
const std::vector<int> &vertexIds = mesh->vertexIds()->readable();
const std::vector<int> &verticesPerFace = mesh->verticesPerFace()->readable();
GA_OffsetList offsets;
offsets.reserve( verticesPerFace.size() );
size_t vertCount = 0;
size_t numPrims = geo->getNumPrimitives();
for ( size_t f=0; f < verticesPerFace.size(); f++ )
{
GU_PrimPoly *poly = GU_PrimPoly::build( geo, 0, GU_POLY_CLOSED, 0 );
offsets.append( geo->primitiveOffset( numPrims + f ) );
for ( size_t v=0; v < (size_t)verticesPerFace[f]; v++ )
{
poly->appendVertex( pointOffsets.get( vertexIds[ vertCount + verticesPerFace[f] - 1 - v ] ) );
}
vertCount += verticesPerFace[f];
}
GA_Range newPrims( geo->getPrimitiveMap(), offsets );
transferAttribs( geo, newPoints, newPrims );
// add the interpolation type
if ( newPrims.isValid() )
{
std::string interpolation = ( mesh->interpolation() == "catmullClark" ) ? "subdiv" : "poly";
StringVectorDataPtr interpolationVectorData = new StringVectorData();
interpolationVectorData->writable().push_back( interpolation );
std::vector<int> indexValues( newPrims.getEntries(), 0 );
IntVectorDataPtr indexData = new IntVectorData( indexValues );
ToHoudiniStringVectorAttribConverterPtr converter = new ToHoudiniStringVectorAttribConverter( interpolationVectorData );
converter->indicesParameter()->setValidatedValue( indexData );
converter->convert( "ieMeshInterpolation", geo, newPrims );
}
return true;
}
IECore::ConstStringVectorDataPtr ImageReader::computeChannelNames( const Gaffer::Context *context, const ImagePlug *parent ) const
{
std::string fileName = fileNamePlug()->getValue();
const ImageSpec *spec = imageCache()->imagespec( ustring( fileName.c_str() ) );
StringVectorDataPtr result = new StringVectorData();
result->writable() = spec->channelnames;
return result;
}
void SceneView::transferSelectionToContext()
{
/// \todo Use PathMatcherData for the context variable so we don't need
/// to do this copying into StringVectorData. See related comments
/// in SceneHierarchy.__transferSelectionFromContext
StringVectorDataPtr s = new StringVectorData();
m_sceneGadget->getSelection()->readable().paths( s->writable() );
getContext()->set( "ui:scene:selectedPaths", s.get() );
}
void SceneView::transferSelectionToContext()
{
/// \todo If RenderableGadget used PathMatcherData, then we might not need
/// to copy data here.
const RenderableGadget::Selection &selection = m_renderableGadget->getSelection();
StringVectorDataPtr s = new StringVectorData();
s->writable().insert( s->writable().end(), selection.begin(), selection.end() );
getContext()->set( "ui:scene:selectedPaths", s.get() );
}
void setSelectedPaths( Context *context, const GafferScene::PathMatcher &paths )
{
/// \todo: Switch to storing PathMatcherData after some thorough
/// testing and a major version break.
StringVectorDataPtr s = new StringVectorData;
paths.paths( s->writable() );
context->set( g_selectedPathsName, s.get() );
}
ImageCompositeOp::ImageCompositeOp() : ImagePrimitiveOp( "ImageCompositeOp" )
{
IntParameter::PresetsContainer operationPresets;
operationPresets.push_back( IntParameter::Preset( "Over", Over ) );
operationPresets.push_back( IntParameter::Preset( "Max", Max ) );
operationPresets.push_back( IntParameter::Preset( "Min", Min ) );
operationPresets.push_back( IntParameter::Preset( "Multiply", Multiply ) );
m_operationParameter = new IntParameter(
"operation",
"operation description",
Over,
operationPresets
);
StringVectorDataPtr defaultChannels = new StringVectorData;
defaultChannels->writable().push_back( "R" );
defaultChannels->writable().push_back( "G" );
defaultChannels->writable().push_back( "B" );
m_channelNamesParameter = new StringVectorParameter(
"channels",
"The names of the channels to modify.",
defaultChannels
);
m_alphaChannelNameParameter = new StringParameter(
"alphaChannelName",
"The name of the channel which holds the alpha. This is used for both images.",
"A"
);
m_imageAParameter = new ImagePrimitiveParameter(
"imageA",
"imageA is the second image operand of the composite. It is named such that operation names like 'A over B' make sense. "
"Therefore parameter named 'input' represents imageB",
new ImagePrimitive()
);
IntParameter::PresetsContainer inputModePresets;
inputModePresets.push_back( IntParameter::Preset( "Premultiplied", Premultiplied ) );
inputModePresets.push_back( IntParameter::Preset( "Unpremultiplied", Unpremultiplied ) );
m_inputModeParameter = new IntParameter(
"inputMode",
"States whether the input images are premultiplied by their alpha.",
Premultiplied,
inputModePresets
);
parameters()->addParameter( m_operationParameter );
parameters()->addParameter( m_channelNamesParameter );
parameters()->addParameter( m_alphaChannelNameParameter );
parameters()->addParameter( m_imageAParameter );
parameters()->addParameter( m_inputModeParameter );
}
IECore::ConstStringVectorDataPtr Shape::computeChannelNames( const Gaffer::Context *context, const ImagePlug *parent ) const
{
assert( parent == shapePlug() );
StringVectorDataPtr result = new StringVectorData();
result->writable().push_back( "R" );
result->writable().push_back( "G" );
result->writable().push_back( "B" );
result->writable().push_back( "A" );
return result;
}
void updateLookThroughCamera()
{
if( !m_lookThroughCameraDirty )
{
return;
}
m_lookThroughCameraDirty = false;
m_lookThroughCamera = NULL;
if( !enabledPlug()->getValue() )
{
m_view->viewportGadget()->setCamera( m_originalCamera.get() );
m_view->viewportGadget()->setCameraEditable( true );
m_view->hideFilter()->pathsPlug()->setToDefault();
return;
}
// We want to look through a specific camera.
// Retrieve it.
Context::Scope scopedContext( m_view->getContext() );
try
{
const string cameraPathString = cameraPlug()->getValue();
if( cameraPathString.empty() )
{
m_lookThroughCamera = GafferScene::camera( scenePlug() ); // primary render camera
}
else
{
ScenePlug::ScenePath cameraPath;
ScenePlug::stringToPath( cameraPathString, cameraPath );
m_lookThroughCamera = GafferScene::camera( scenePlug(), cameraPath );
}
}
catch( ... )
{
// If an invalid path has been entered for the camera, computation will fail.
// We just ignore that and lock to the current camera instead.
m_lookThroughCamera = NULL;
}
m_view->viewportGadget()->setCameraEditable( false );
if( m_lookThroughCamera )
{
StringVectorDataPtr invisiblePaths = new StringVectorData();
invisiblePaths->writable().push_back( m_lookThroughCamera->getName() );
m_view->hideFilter()->pathsPlug()->setValue( invisiblePaths );
}
else
{
m_view->hideFilter()->pathsPlug()->setToDefault();
}
}
IECore::StringVectorDataPtr AlembicInput::childNames() const
{
StringVectorDataPtr resultData = new StringVectorData;
std::vector<std::string> &resultVector = resultData->writable();
size_t numChildren = this->numChildren();
for( size_t i=0; i<numChildren; i++ )
{
resultVector.push_back( m_data->object.getChildHeader( i ).getName() );
}
return resultData;
}
IECore::ConstStringVectorDataPtr Shuffle::computeChannelNames( const Gaffer::Context *context, const ImagePlug *parent ) const
{
StringVectorDataPtr resultData = inPlug()->channelNamesPlug()->getValue()->copy();
vector<string> &result = resultData->writable();
for( ChannelPlugIterator it( channelsPlug() ); !it.done(); ++it )
{
string channelName = (*it)->outPlug()->getValue();
if( channelName != "" && find( result.begin(), result.end(), channelName ) == result.end() )
{
result.push_back( channelName );
}
}
return resultData;
}
TransformOp::TransformOp()
: PrimitiveOp( "Applies a matrix transformation to primitive variables." )
{
m_multiplyOp = new MatrixMultiplyOp;
m_multiplyOp->copyParameter()->setTypedValue( false );
StringVectorDataPtr defaultPrimVars = new StringVectorData;
defaultPrimVars->writable().push_back( "P" );
defaultPrimVars->writable().push_back( "N" );
m_primVarsParameter = new StringVectorParameter(
"primVarsToModify",
"The names of primitive variables which should be transformed according to their Geometric Interpretation.",
defaultPrimVars
);
parameters()->addParameter( m_multiplyOp->matrixParameter() );
parameters()->addParameter( m_primVarsParameter );
}
IECore::ConstStringVectorDataPtr Constant::computeChannelNames( const Gaffer::Context *context, const ImagePlug *parent ) const
{
std::string channelNamePrefix = layerPlug()->getValue();
if( !channelNamePrefix.empty() )
{
channelNamePrefix += ".";
}
StringVectorDataPtr resultData = new StringVectorData();
vector<string> &result = resultData->writable();
result.push_back( channelNamePrefix + "R" );
result.push_back( channelNamePrefix + "G" );
result.push_back( channelNamePrefix + "B" );
result.push_back( channelNamePrefix + "A" );
return resultData;
}
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 );
}
DeepImageWriter::DeepImageWriter( const std::string &description ) : Parameterised( description )
{
m_fileNameParameter = new FileNameParameter( "fileName", "The filename to be written to.", "", "", false );
StringVectorDataPtr defaultChannels = new StringVectorData();
std::vector<std::string> &channels = defaultChannels->writable();
channels.push_back( "R" );
channels.push_back( "G" );
channels.push_back( "B" );
channels.push_back( "A" );
m_channelsParameter = new StringVectorParameter( "channelNames", "The list of channels to write.", defaultChannels );
m_resolutionParameter = new V2iParameter( "resolution", "The resolution of the image to write.", new V2iData( Imath::V2i( 2048, 1556 ) ) );
parameters()->addParameter( m_fileNameParameter );
parameters()->addParameter( m_channelsParameter );
parameters()->addParameter( m_resolutionParameter );
parameters()->addParameter( new M44fParameter( "worldToCameraMatrix", "world to camera space transformation matrix", new M44fData() ) );
parameters()->addParameter( new M44fParameter( "worldToNDCMatrix", "world to screen space projection matrix", new M44fData() ) );
}
IECore::DataPtr RenderManShader::parameterValue( const Gaffer::Plug *parameterPlug, NetworkBuilder &network ) const
{
if( parameterPlug->typeId() == Plug::staticTypeId() )
{
// coshader parameter
const Plug *inputPlug = parameterPlug->source<Plug>();
if( inputPlug && inputPlug != parameterPlug )
{
const RenderManShader *inputShader = inputPlug->parent<RenderManShader>();
if( inputShader )
{
const std::string &handle = network.shaderHandle( inputShader );
if( handle.size() )
{
return new StringData( handle );
}
}
}
}
else if( parameterPlug->isInstanceOf( ArrayPlug::staticTypeId() ) )
{
// coshader array parameter
StringVectorDataPtr value = new StringVectorData();
for( InputPlugIterator cIt( parameterPlug ); cIt != cIt.end(); ++cIt )
{
const Plug *inputPlug = (*cIt)->source<Plug>();
const RenderManShader *inputShader = inputPlug && inputPlug != *cIt ? inputPlug->parent<RenderManShader>() : 0;
if( inputShader )
{
value->writable().push_back( network.shaderHandle( inputShader ) );
}
else
{
value->writable().push_back( "" );
}
}
return value;
}
return Shader::parameterValue( parameterPlug, network );
}
static IECore::DataPtr convertMetadata( const OSLQuery::Parameter &metadata )
{
if( metadata.type == TypeDesc::FLOAT )
{
return new IECore::FloatData( metadata.fdefault[0] );
}
else if( metadata.type == TypeDesc::INT )
{
return new IECore::IntData( metadata.idefault[0] );
}
else if( metadata.type == TypeDesc::STRING )
{
return new IECore::StringData( metadata.sdefault[0].c_str() );
}
else if( metadata.type.aggregate == TypeDesc::VEC3 )
{
if( metadata.type.basetype == TypeDesc::FLOAT )
{
if( metadata.type.vecsemantics == TypeDesc::COLOR )
{
return new IECore::Color3fData( Imath::Color3f(
metadata.fdefault[0],
metadata.fdefault[1],
metadata.fdefault[2]
) );
}
else
{
return new IECore::V3fData( Imath::V3f(
metadata.fdefault[0],
metadata.fdefault[1],
metadata.fdefault[2]
) );
}
}
else
{
return new IECore::V3iData( Imath::V3i(
metadata.idefault[0],
metadata.idefault[1],
metadata.idefault[2]
) );
}
}
else if( metadata.type.arraylen > 0 )
{
if( metadata.type.elementtype() == TypeDesc::FLOAT )
{
return new FloatVectorData( metadata.fdefault );
}
else if( metadata.type.elementtype() == TypeDesc::INT )
{
return new IntVectorData( metadata.idefault );
}
else if( metadata.type.elementtype() == TypeDesc::STRING )
{
StringVectorDataPtr result = new StringVectorData;
for( vector<ustring>::const_iterator it = metadata.sdefault.begin(), eIt = metadata.sdefault.end(); it != eIt; ++it )
{
result->writable().push_back( it->string() );
}
return result;
}
}
IECore::msg( IECore::Msg::Warning, "OSLShader", string( "Metadata \"" ) + metadata.name.c_str() + "\" has unsupported type" );
return NULL;
}
CompoundDataPtr BGEOParticleReader::readAttributes( const std::vector<std::string> &names )
{
if( !open() )
{
return 0;
}
CompoundDataPtr result = new CompoundData();
std::vector< struct AttrInfo > attrInfo;
int intAttribBuffer[ 3 ];
int *intAttributePtr = &intAttribBuffer[0];
float floatAttribBuffer[ 4 ];
float *floatAttributePtr = &floatAttribBuffer[0];
vector<Record>::const_iterator it;
for( it=m_header.attributes.begin(); it!=m_header.attributes.end(); it++ )
{
V3fVectorDataPtr v3fVector = 0;
V2fVectorDataPtr v2fVector = 0;
FloatVectorDataPtr floatVector = 0;
IntVectorDataPtr intVector = 0;
StringVectorDataPtr stringVector = 0;
DataPtr dataVector = 0;
if ( it->size == 1 )
{
if ( it->type == Float )
{
floatVector = new FloatVectorData();
floatVector->writable().resize( numParticles() );
dataVector = floatVector;
}
else if ( it->type == Integer )
{
intVector = new IntVectorData();
intVector->writable().resize( numParticles() );
dataVector = intVector;
}
else if ( it->type == Index )
{
stringVector = new StringVectorData();
stringVector->writable().resize( numParticles() );
dataVector = stringVector;
}
}
else if ( it->size == 2 )
{
v2fVector = new V2fVectorData();
v2fVector->writable().resize( numParticles() );
dataVector = v2fVector;
}
else if ( it->size == 3 || it->size == 4 )
{
v3fVector = new V3fVectorData();
v3fVector->writable().resize( numParticles() );
dataVector = v3fVector;
}
else
{
msg( Msg::Error, "BGEOParticleReader::readAttributes()", format( "Internal error. Unrecognized type '%d' of size '%d' while loading attribute %s." ) % it->type % it->size % it->name );
return 0;
}
AttrInfo info = {
*it,
dataVector,
};
attrInfo.push_back( info );
}
// read all of the data at once
std::vector<char> dataBuffer;
dataBuffer.resize( m_header.numPoints * m_header.dataSize );
char *dataBufferPtr = &dataBuffer[0];
m_iStream->seekg( ios_base::beg + m_header.firstPointPosition );
m_iStream->read( dataBufferPtr, m_header.numPoints * m_header.dataSize );
for ( int i = 0; i < m_header.numPoints; i++)
{
std::vector< struct AttrInfo >::iterator it;
for (it = attrInfo.begin(); it != attrInfo.end(); it++)
{
// P contains an additional byte in the BGEO
if ( it->info.type == Integer || it->info.type == Index )
{
readAttributeData( &dataBufferPtr, intAttributePtr, it->info.size );
}
else
{
readAttributeData( &dataBufferPtr, floatAttributePtr, it->info.size );
}
switch (it->targetData->typeId())
{
case V3fVectorDataTypeId:
{
V3f &p = staticPointerCast<V3fVectorData>(it->targetData)->writable()[ i ];
p[0] = floatAttributePtr[0];
p[1] = floatAttributePtr[1];
p[2] = floatAttributePtr[2];
break;
}
case V2fVectorDataTypeId:
{
V2f &p = staticPointerCast<V2fVectorData>(it->targetData)->writable()[ i ];
p[0] = floatAttributePtr[0];
p[1] = floatAttributePtr[1];
break;
}
case FloatVectorDataTypeId:
staticPointerCast<FloatVectorData>(it->targetData)->writable()[ i ] = floatAttributePtr[0];
break;
case IntVectorDataTypeId:
staticPointerCast<IntVectorData>(it->targetData)->writable()[ i ] = intAttributePtr[0];
break;
case StringVectorDataTypeId:
{
std::string value = it->info.indexableValues.at( intAttributePtr[0] );
staticPointerCast<StringVectorData>(it->targetData)->writable()[ i ] = value;
break;
}
default:
msg( Msg::Error, "BGEOParticleReader::readAttributes()", format( "Internal error. Unrecognized typeId '%d'." ) % it->targetData->typeId() );
return 0;
}
}
}
/// \todo Use particle ids for filtering.
const Data *ids = 0;
DataPtr filteredData = 0;
// filter and convert each attribute individually.
std::vector< struct AttrInfo >::const_iterator attrIt;
for( attrIt=attrInfo.begin(); attrIt!=attrInfo.end(); attrIt++ )
{
// The data had to be read, but we don't need to filter or store it
if( find( names.begin(), names.end(), attrIt->info.name ) == names.end() )
{
continue;
}
if ( attrIt->info.size == 1 )
{
if ( attrIt->info.type == Float )
{
switch( realType() )
{
case ParticleReader::Native :
case ParticleReader::Float :
filteredData = filterAttr<FloatVectorData, FloatVectorData>( staticPointerCast<FloatVectorData>(attrIt->targetData), particlePercentage(), ids );
break;
case ParticleReader::Double :
filteredData = filterAttr<DoubleVectorData, FloatVectorData>( staticPointerCast<FloatVectorData>(attrIt->targetData), particlePercentage(), ids );
break;
}
}
else if ( attrIt->info.type == Integer )
{
filteredData = filterAttr<IntVectorData, IntVectorData>( staticPointerCast<IntVectorData>(attrIt->targetData), particlePercentage(), ids );
}
else if ( attrIt->info.type == Index )
{
filteredData = filterAttr<StringVectorData, StringVectorData>( staticPointerCast<StringVectorData>(attrIt->targetData), particlePercentage(), ids );
}
}
else if ( attrIt->info.size == 2 )
{
if ( attrIt->info.type == Float )
{
switch( realType() )
{
case ParticleReader::Native :
case ParticleReader::Float :
filteredData = filterAttr<V2fVectorData, V2fVectorData>( staticPointerCast<V2fVectorData>(attrIt->targetData), particlePercentage(), ids );
break;
case ParticleReader::Double :
filteredData = filterAttr<V2dVectorData, V2fVectorData>( staticPointerCast<V2fVectorData>(attrIt->targetData), particlePercentage(), ids );
break;
}
}
}
else if ( attrIt->info.size == 3 || attrIt->info.size == 4 )
{
if ( ( attrIt->info.type == Float ) || ( attrIt->info.type == Vector ) )
{
switch( realType() )
{
case ParticleReader::Native :
case ParticleReader::Float :
filteredData = filterAttr<V3fVectorData, V3fVectorData>( staticPointerCast<V3fVectorData>(attrIt->targetData), particlePercentage(), ids );
break;
case ParticleReader::Double :
filteredData = filterAttr<V3dVectorData, V3fVectorData>( staticPointerCast<V3fVectorData>(attrIt->targetData), particlePercentage(), ids );
break;
}
}
}
else
{
msg( Msg::Error, "BGEOParticleReader::readAttributes()", format( "Internal error. Unrecognized type '%d' of size '%d' while converting attribute %s." ) % attrIt->info.type % attrIt->info.size % attrIt->info.name );
return 0;
}
result->writable()[attrIt->info.name] = filteredData;
}
return result;
}
void SceneView::updateLookThrough()
{
Context::Scope scopedContext( getContext() );
const ScenePlug *scene = preprocessedInPlug<ScenePlug>();
ConstCompoundObjectPtr globals = scene->globalsPlug()->getValue();
string cameraPathString;
IECore::CameraPtr camera;
if( lookThroughEnabledPlug()->getValue() )
{
cameraPathString = lookThroughCameraPlug()->getValue();
if( cameraPathString.empty() )
{
if( const StringData *cameraPathData = globals->member<StringData>( "render:camera" ) )
{
cameraPathString = cameraPathData->readable();
}
}
if( !cameraPathString.empty() )
{
ScenePlug::ScenePath cameraPath;
ScenePlug::stringToPath( cameraPathString, cameraPath );
try
{
ConstCameraPtr constCamera = runTimeCast<const IECore::Camera>( scene->object( cameraPath ) );
if( constCamera )
{
camera = constCamera->copy();
camera->setTransform( new MatrixTransform( scene->fullTransform( cameraPath ) ) );
// if the camera has an existing screen window, remove it.
// if we didn't, it would conflict with the resolution we set
// below, yielding squashed/stretched images.
/// \todo Properly specify how cameras are represented in Gaffer
/// (the Cortex representation is very renderer-centric, with no
/// real world parameters like film back) so that this isn't necessary,
/// and add nice overlays for resolution gate etc.
camera->parameters().erase( "screenWindow" );
}
}
catch( ... )
{
// if an invalid path has been entered for the camera, computation will fail.
// we can just ignore that and fall through to lock to the current camera instead.
cameraPathString = "";
}
}
if( !camera )
{
// we couldn't find a render camera to lock to, but we can lock to the current
// camera instead.
camera = viewportGadget()->getCamera()->copy();
}
}
if( camera )
{
camera->parameters()["resolution"] = new V2iData( viewportGadget()->getViewport() );
viewportGadget()->setCamera( camera );
viewportGadget()->setCameraEditable( false );
StringVectorDataPtr invisiblePaths = new StringVectorData();
invisiblePaths->writable().push_back( cameraPathString );
hideFilter()->pathsPlug()->setValue( invisiblePaths );
}
else
{
viewportGadget()->setCameraEditable( true );
hideFilter()->pathsPlug()->setToDefault();
}
}
ObjectPtr SLOReader::doOperation( const CompoundObject * operands )
{
tbb::mutex::scoped_lock lock( g_mutex );
if( Slo_SetShader( (char *)fileName().c_str() ) )
{
throw Exception( boost::str( boost::format( "Unable to set shader to \"%s\"" ) % fileName() ) );
}
string name = Slo_GetName();
string type = Slo_TypetoStr( Slo_GetType() );
ShaderPtr result = new Shader( name, type );
CompoundDataPtr typeHints = new CompoundData;
result->blindData()->writable().insert( pair<string, DataPtr>( "ri:parameterTypeHints", typeHints ) );
// we lose the ordering of parameter names when we put them in result->parameters(),
// so we stick the correct order in the blind data as a workaround for anyone interested
// in the true ordering.
StringVectorDataPtr orderedParameterNames = new StringVectorData;
result->blindData()->writable().insert( pair<string, DataPtr>( "ri:orderedParameterNames", orderedParameterNames ) );
// we don't have a way of communicating which parameters are outputs in the Shader::parametersData(),
// so we work around that using the blind data too.
StringVectorDataPtr outputParameterNames = new StringVectorData;
result->blindData()->writable().insert( pair<string, DataPtr>( "ri:outputParameterNames", outputParameterNames ) );
int numArgs = Slo_GetNArgs();
for( int i=1; i<=numArgs; i++ )
{
DataPtr data = 0;
SLO_VISSYMDEF *arg = Slo_GetArgById( i );
switch( arg->svd_type )
{
case SLO_TYPE_POINT :
case SLO_TYPE_VECTOR :
case SLO_TYPE_NORMAL :
{
if( arg->svd_arraylen==0 )
{
const SLO_POINT *p = arg->svd_default.pointval;
if( p )
{
data = new V3fData( V3f( p->xval, p->yval, p->zval ) );
}
else
{
// 0 length and null value signifies a variable length array
data = new V3fVectorData();
}
}
else
{
V3fVectorDataPtr vData = new V3fVectorData();
data = vData;
for( int j=0; j<arg->svd_arraylen; j++ )
{
SLO_VISSYMDEF *a = Slo_GetArrayArgElement( arg, j );
const SLO_POINT *p = a->svd_default.pointval;
vData->writable().push_back( V3f( p->xval, p->yval, p->zval ) );
}
}
typeHints->writable().insert( pair<string, DataPtr>( arg->svd_name, new StringData( Slo_TypetoStr( arg->svd_type ) ) ) );
break;
}
case SLO_TYPE_COLOR :
{
if( arg->svd_arraylen==0 )
{
const SLO_POINT *p = arg->svd_default.pointval;
if( p )
{
data = new Color3fData( Color3f( p->xval, p->yval, p->zval ) );
}
else
{
// 0 length and null value signifies a variable length array
data = new Color3fVectorData();
}
}
else
{
Color3fVectorDataPtr vData = new Color3fVectorData();
data = vData;
for( int j=0; j<arg->svd_arraylen; j++ )
{
SLO_VISSYMDEF *a = Slo_GetArrayArgElement( arg, j );
const SLO_POINT *p = a->svd_default.pointval;
vData->writable().push_back( Color3f( p->xval, p->yval, p->zval ) );
}
}
}
break;
case SLO_TYPE_SCALAR :
{
if( arg->svd_arraylen==0 )
{
const float *value = arg->svd_default.scalarval;
if( value )
{
data = new FloatData( *value );
}
else
{
// 0 length and null value signifies a variable length array
data = new FloatVectorData();
}
}
else
{
FloatVectorDataPtr vData = new FloatVectorData();
data = vData;
for( int j=0; j<arg->svd_arraylen; j++ )
{
SLO_VISSYMDEF *a = Slo_GetArrayArgElement( arg, j );
vData->writable().push_back( *(a->svd_default.scalarval) );
}
if( arg->svd_arraylen==3 )
{
// allow V3fData and V3fVectorData to be mapped to float[3] parameters.
typeHints->writable().insert( pair<string, DataPtr>( arg->svd_name, new StringData( "float[3]" ) ) );
}
}
}
break;
case SLO_TYPE_STRING :
{
if( arg->svd_arraylen==0 )
{
const char *defaultValue = arg->svd_default.stringval;
if( defaultValue )
{
data = new StringData( defaultValue );
}
else
{
// 0 length and null value signifies a variable length array
data = new StringVectorData();
}
}
else
{
StringVectorDataPtr vData = new StringVectorData();
data = vData;
for( int j=0; j<arg->svd_arraylen; j++ )
{
SLO_VISSYMDEF *a = Slo_GetArrayArgElement( arg, j );
// sometimes the default value for an element of a string array can be a null pointer.
// i'm not sure what the meaning of this is. the 3delight shaderinfo utility reports such values
// as "(null)", so that's what we do too.
const char *defaultValue = a->svd_default.stringval;
vData->writable().push_back( defaultValue ? defaultValue : "(null)" );
}
}
}
break;
case SLO_TYPE_MATRIX :
{
if( arg->svd_arraylen==0 )
{
const float *m = arg->svd_default.matrixval;
if( m )
{
M44f mm( m[0], m[1], m[2], m[3],
m[4], m[5], m[6], m[7],
m[8], m[9], m[10], m[11],
m[12], m[13], m[14], m[15] );
data = new M44fData( mm );
}
else
{
// 0 length and null value signifies a variable length array
data = new M44fVectorData();
}
}
else
{
M44fVectorDataPtr vData = new M44fVectorData();
data = vData;
for( int j=0; j<arg->svd_arraylen; j++ )
{
SLO_VISSYMDEF *a = Slo_GetArrayArgElement( arg, j );
const float *m = a->svd_default.matrixval;
M44f mm( m[0], m[1], m[2], m[3],
m[4], m[5], m[6], m[7],
m[8], m[9], m[10], m[11],
m[12], m[13], m[14], m[15] );
vData->writable().push_back( mm );
}
}
}
break;
case SLO_TYPE_SHADER :
{
if( arg->svd_arraylen==0 )
{
if( !arg->svd_valisvalid )
{
// variable length array
data = new StringVectorData();
}
else
{
data = new StringData();
}
}
else
{
StringVectorDataPtr sData = new StringVectorData();
data = sData;
sData->writable().resize( arg->svd_arraylen );
}
typeHints->writable().insert( pair<string, DataPtr>( arg->svd_name, new StringData( Slo_TypetoStr( arg->svd_type ) ) ) );
}
break;
default :
msg( Msg::Warning, "SLOReader::read", format( "Parameter \"%s\" has unsupported type." ) % arg->svd_name );
}
if( data )
{
orderedParameterNames->writable().push_back( arg->svd_name );
result->parameters().insert( CompoundDataMap::value_type( arg->svd_name, data ) );
if( arg->svd_storage == SLO_STOR_OUTPUTPARAMETER )
{
outputParameterNames->writable().push_back( arg->svd_name );
}
}
}
// shader annotations
CompoundDataPtr annotations = new CompoundData;
result->blindData()->writable().insert( pair<string, DataPtr>( "ri:annotations", annotations ) );
#ifndef PRMANEXPORT
for( int i=1, n=Slo_GetNAnnotations(); i <= n; i++ )
{
const char *key = Slo_GetAnnotationKeyById( i );
annotations->writable()[key] = new StringData( Slo_GetAnnotationByKey( key ) );
}
#endif
Slo_EndShader();
return result;
}
void ToHoudiniGeometryConverter::transferAttribValues(
const Primitive *primitive, GU_Detail *geo,
const GA_Range &points, const GA_Range &prims,
PrimitiveVariable::Interpolation vertexInterpolation,
PrimitiveVariable::Interpolation primitiveInterpolation,
PrimitiveVariable::Interpolation pointInterpolation,
PrimitiveVariable::Interpolation detailInterpolation
) const
{
GA_OffsetList offsets;
if ( prims.isValid() )
{
const GA_PrimitiveList &primitives = geo->getPrimitiveList();
for ( GA_Iterator it=prims.begin(); !it.atEnd(); ++it )
{
const GA_Primitive *prim = primitives.get( it.getOffset() );
size_t numPrimVerts = prim->getVertexCount();
for ( size_t v=0; v < numPrimVerts; v++ )
{
if ( prim->getTypeId() == GEO_PRIMPOLY )
{
offsets.append( prim->getVertexOffset( numPrimVerts - 1 - v ) );
}
else
{
offsets.append( prim->getVertexOffset( v ) );
}
}
}
}
GA_Range vertRange( geo->getVertexMap(), offsets );
UT_String filter( attributeFilterParameter()->getTypedValue() );
// match all the string variables to each associated indices variable
/// \todo: replace all this logic with IECore::IndexedData once it exists...
PrimitiveVariableMap stringsToIndices;
for ( PrimitiveVariableMap::const_iterator it=primitive->variables.begin() ; it != primitive->variables.end(); it++ )
{
if ( !primitive->isPrimitiveVariableValid( it->second ) )
{
IECore::msg( IECore::MessageHandler::Warning, "ToHoudiniGeometryConverter", "PrimitiveVariable " + it->first + " is invalid. Ignoring." );
filter += UT_String( " ^" + it->first );
continue;
}
ToHoudiniAttribConverterPtr converter = ToHoudiniAttribConverter::create( it->second.data );
if ( !converter )
{
continue;
}
if ( it->second.data->isInstanceOf( StringVectorDataTypeId ) )
{
std::string indicesVariableName = it->first + "Indices";
PrimitiveVariableMap::const_iterator indices = primitive->variables.find( indicesVariableName );
if ( indices != primitive->variables.end() && indices->second.data->isInstanceOf( IntVectorDataTypeId ) && primitive->isPrimitiveVariableValid( indices->second ) )
{
stringsToIndices[it->first] = indices->second;
filter += UT_String( " ^" + indicesVariableName );
}
}
}
bool convertStandardAttributes = m_convertStandardAttributesParameter->getTypedValue();
if ( convertStandardAttributes && UT_String( "s" ).multiMatch( filter ) && UT_String( "t" ).multiMatch( filter ) )
{
// convert s and t to uv
PrimitiveVariableMap::const_iterator sPrimVar = primitive->variables.find( "s" );
PrimitiveVariableMap::const_iterator tPrimVar = primitive->variables.find( "t" );
if ( sPrimVar != primitive->variables.end() && tPrimVar != primitive->variables.end() )
{
if ( sPrimVar->second.interpolation == tPrimVar->second.interpolation )
{
const FloatVectorData *sData = runTimeCast<const FloatVectorData>( sPrimVar->second.data );
const FloatVectorData *tData = runTimeCast<const FloatVectorData>( tPrimVar->second.data );
if ( sData && tData )
{
const std::vector<float> &s = sData->readable();
const std::vector<float> &t = tData->readable();
std::vector<Imath::V3f> uvw;
uvw.reserve( s.size() );
for ( size_t i=0; i < s.size(); ++i )
{
uvw.push_back( Imath::V3f( s[i], 1 - t[i], 0 ) );
}
GA_Range range = vertRange;
if ( sPrimVar->second.interpolation == pointInterpolation )
{
range = points;
}
ToHoudiniAttribConverterPtr converter = ToHoudiniAttribConverter::create( new V3fVectorData( uvw ) );
converter->convert( "uv", geo, range );
filter += " ^s ^t";
}
}
}
}
UT_StringMMPattern attribFilter;
attribFilter.compile( filter );
// add the primitive variables to the various GEO_AttribDicts based on interpolation type
for ( PrimitiveVariableMap::const_iterator it=primitive->variables.begin() ; it != primitive->variables.end(); it++ )
{
UT_String varName( it->first );
if ( !varName.multiMatch( attribFilter ) )
{
continue;
}
PrimitiveVariable primVar = processPrimitiveVariable( primitive, it->second );
ToHoudiniAttribConverterPtr converter = ToHoudiniAttribConverter::create( primVar.data );
if ( !converter )
{
continue;
}
PrimitiveVariable::Interpolation interpolation = primVar.interpolation;
if ( converter->isInstanceOf( (IECore::TypeId)ToHoudiniStringVectorAttribConverterTypeId ) )
{
PrimitiveVariableMap::const_iterator indices = stringsToIndices.find( it->first );
if ( indices != stringsToIndices.end() )
{
ToHoudiniStringVectorAttribConverter *stringVectorConverter = IECore::runTimeCast<ToHoudiniStringVectorAttribConverter>( converter );
PrimitiveVariable indicesPrimVar = processPrimitiveVariable( primitive, indices->second );
stringVectorConverter->indicesParameter()->setValidatedValue( indicesPrimVar.data );
interpolation = indices->second.interpolation;
}
}
const std::string name = ( convertStandardAttributes ) ? processPrimitiveVariableName( it->first ) : it->first;
if ( interpolation == detailInterpolation )
{
// add detail attribs
converter->convert( name, geo );
}
else if ( interpolation == pointInterpolation )
{
// add point attribs
if ( name == "P" )
{
// special case for P
transferP( runTimeCast<const V3fVectorData>( primVar.data ), geo, points );
}
else
{
converter->convert( name, geo, points );
}
}
else if ( interpolation == primitiveInterpolation )
{
// add primitive attribs
converter->convert( name, geo, prims );
}
else if ( interpolation == vertexInterpolation )
{
// add vertex attribs
converter->convert( name, geo, vertRange );
}
}
// add the name attribute based on blindData
const StringData *nameData = primitive->blindData()->member<StringData>( "name" );
if ( nameData )
{
if ( prims.isValid() )
{
StringVectorDataPtr nameVectorData = new StringVectorData();
nameVectorData->writable().push_back( nameData->readable() );
std::vector<int> indexValues( prims.getEntries(), 0 );
IntVectorDataPtr indexData = new IntVectorData( indexValues );
ToHoudiniStringVectorAttribConverterPtr converter = new ToHoudiniStringVectorAttribConverter( nameVectorData );
converter->indicesParameter()->setValidatedValue( indexData );
converter->convert( "name", geo, prims );
}
}
}
void DisplayDriverServer::Session::handleReadOpenParameters( const boost::system::error_code& error )
{
if (error)
{
msg( Msg::Error, "DisplayDriverServer::Session::handleReadOpenParameters", error.message().c_str() );
m_socket.close();
return;
}
StringDataPtr displayDriverType;
Box2iDataPtr displayWindow, dataWindow;
StringVectorDataPtr channelNames;
CompoundDataPtr parameters;
bool scanLineOrder = false;
bool acceptsRepeatedData = false;
// handle imageOpen parameters.
try
{
MemoryIndexedIOPtr io = new MemoryIndexedIO( m_buffer, IndexedIO::rootPath, IndexedIO::Exclusive | IndexedIO::Read );
displayWindow = staticPointerCast<Box2iData>( Object::load( io, "displayWindow" ) );
dataWindow = staticPointerCast<Box2iData>( Object::load( io, "dataWindow" ) );
channelNames = staticPointerCast<StringVectorData>( Object::load( io, "channelNames" ) );
parameters = staticPointerCast<CompoundData>( Object::load( io, "parameters" ) );
const StringData *displayType = parameters->member<StringData>( "remoteDisplayType", true /* throw if missing */ );
// create a displayDriver using the factory function.
m_displayDriver = DisplayDriver::create( displayType->readable(), displayWindow->readable(), dataWindow->readable(), channelNames->readable(), parameters );
scanLineOrder = m_displayDriver->scanLineOrderOnly();
acceptsRepeatedData = m_displayDriver->acceptsRepeatedData();
}
catch( std::exception &e )
{
msg( Msg::Error, "DisplayDriverServer::Session::handleReadOpenParameters", e.what() );
sendException( e.what() );
m_socket.close();
return;
}
try
{
// send the result back.
sendResult( DisplayDriverServerHeader::imageOpen, sizeof(scanLineOrder) );
m_socket.send( boost::asio::buffer( &scanLineOrder, sizeof(scanLineOrder) ) );
sendResult( DisplayDriverServerHeader::imageOpen, sizeof(acceptsRepeatedData) );
m_socket.send( boost::asio::buffer( &acceptsRepeatedData, sizeof(acceptsRepeatedData) ) );
// prepare for getting imageData packages
boost::asio::async_read( m_socket,
boost::asio::buffer( m_header.buffer(), m_header.headerLength),
boost::bind(
&DisplayDriverServer::Session::handleReadHeader, SessionPtr(this),
boost::asio::placeholders::error
)
);
}
catch( std::exception &e )
{
msg( Msg::Error, "DisplayDriverServer::Session::handleReadOpenParameters", e.what() );
m_socket.close();
}
}
