void SOP_CortexConverter::doConvert( const GU_DetailHandle &handle, const std::string &name, ResultType type, const std::string &attributeFilter, bool convertStandardAttributes )
{
if ( handle.isNull() )
{
addError( SOP_MESSAGE, ( "Could not extract the geometry named " + name ).c_str() );
return;
}
FromHoudiniGeometryConverterPtr fromConverter = FromHoudiniGeometryConverter::create( handle );
if ( !fromConverter )
{
addError( SOP_MESSAGE, ( "Could not convert the geometry named " + name ).c_str() );
return;
}
IECore::ObjectPtr result = fromConverter->convert();
if ( !result )
{
addError( SOP_MESSAGE, ( "Could not find Cortex Object named " + name + " on input geometry" ).c_str() );
return;
}
if ( IECore::ParameterisedProcedural *procedural = IECore::runTimeCast<IECore::ParameterisedProcedural>( result.get() ) )
{
IECore::CapturingRendererPtr renderer = new IECore::CapturingRenderer();
// We are acquiring and releasing the GIL here to ensure that it is released when we render. This has
// to be done because a procedural might jump between c++ and python a few times (i.e. if it spawns
// subprocedurals that are implemented in python). In a normal call to cookMySop, this wouldn't be an
// issue, but if cookMySop was called from HOM, hou.Node.cook appears to be holding onto the GIL.
IECorePython::ScopedGILLock gilLock;
{
IECorePython::ScopedGILRelease gilRelease;
{
IECore::WorldBlock worldBlock( renderer );
procedural->render( renderer.get() );
}
}
result = boost::const_pointer_cast<IECore::Object>( IECore::runTimeCast<const IECore::Object>( renderer->world() ) );
}
ToHoudiniGeometryConverterPtr converter = ( type == Cortex ) ? new ToHoudiniCortexObjectConverter( result.get() ) : ToHoudiniGeometryConverter::create( result.get() );
converter->nameParameter()->setTypedValue( name );
converter->attributeFilterParameter()->setTypedValue( attributeFilter );
converter->convertStandardAttributesParameter()->setTypedValue( convertStandardAttributes );
if ( !converter->convert( myGdpHandle ) )
{
addError( SOP_MESSAGE, ( "Could not convert the Cortex Object named " + name + " to Houdini geometry" ).c_str() );
}
}
MStatus NumericParameterHandler<T>::doUpdate( IECore::ConstParameterPtr parameter, MPlug &plug ) const
{
typename IECore::NumericParameter<T>::ConstPtr p = IECore::runTimeCast<const IECore::NumericParameter<T> >( parameter );
if( !p )
{
return MS::kFailure;
}
MObject attribute = plug.attribute();
MFnNumericAttribute fnNAttr( attribute );
if( !fnNAttr.hasObj( attribute ) )
{
return MS::kFailure;
}
if( fnNAttr.unitType() != NumericTraits<T>::dataType() )
{
return MS::kFailure;
}
fnNAttr.setDefault( p->numericDefaultValue() );
if( p->minValue()!=Imath::limits<T>::min() )
{
fnNAttr.setMin( p->minValue() );
}
else
{
// parameter has no min value
if( fnNAttr.hasMin() )
{
// there is no way of unsetting a minimum value
// in maya.
return MS::kFailure;
}
}
if( p->maxValue()!=Imath::limits<T>::max() )
{
fnNAttr.setMax( p->maxValue() );
}
else
{
// parameter has no max value
if( fnNAttr.hasMax() )
{
// there is no way of unsetting a maximum value
// in maya.
return MS::kFailure;
}
}
T v;
MStatus result = plug.getValue( v );
if( result )
{
IECore::ObjectPtr d = new IECore::TypedData<T>( v );
if( !parameter->valueValid( d.get() ) )
{
return MS::kFailure;
}
}
bool keyable = true;
bool channelBox = true;
const IECore::ConstCompoundObjectPtr userData = parameter->userData();
assert( userData );
const IECore::ConstCompoundObjectPtr maya = userData->member<const IECore::CompoundObject>("maya");
if (maya)
{
const IECore::ConstBoolDataPtr keyableData = maya->member<const IECore::BoolData>("keyable");
if (keyableData)
{
keyable = keyableData->readable();
}
const IECore::ConstBoolDataPtr channelBoxData = maya->member<const IECore::BoolData>("channelBox");
if (channelBoxData)
{
channelBox = channelBoxData->readable();
}
}
fnNAttr.setKeyable( keyable );
// Calling setChannelBox(true) disables keying
if (!keyable)
{
fnNAttr.setChannelBox( channelBox );
}
return finishUpdating( parameter, plug );
}