ReturnType operator()( typename T::ConstPtr data ) const
{
const typename T::BaseType *begin = data->baseReadable();
const typename T::BaseType *end = begin + data->baseSize();
for( ; begin != end; begin++ )
{
m_container.push_back( (typename Container::value_type)*begin );
}
return true;
}
ToHoudiniCurvesConverter::RemoveDuplicateEnds::ReturnType ToHoudiniCurvesConverter::RemoveDuplicateEnds::operator()( typename T::ConstPtr data ) const
{
assert( data );
typedef typename T::ValueType::value_type ValueType;
const std::vector<ValueType> &origValues = data->readable();
typename T::Ptr result = new T();
std::vector<ValueType> &newValues = result->writable();
size_t index = 0;
for ( size_t i=0; i < m_vertsPerCurve.size(); i++ )
{
for ( size_t j=0; j < (size_t)m_vertsPerCurve[i]; j++, index++ )
{
if ( j > 1 && j < (size_t)m_vertsPerCurve[i]-2 )
{
newValues.push_back( origValues[index] );
}
}
}
return result;
}
ReturnType operator()( typename T::ConstPtr data )
{
typedef typename T::ValueType Container;
typedef typename Container::value_type V;
const Container &input = data->readable();
V2i paddedSize = m_size + V2i( 2 ); // padding with the border value makes the iteration easier later
m_output.resize( paddedSize.x * paddedSize.y );
V threshold = (V)m_threshold;
std::fill( m_output.begin(), m_output.begin() + paddedSize.x, m_borderValue ); // 1 scanline padding at top
int ii = 0;
int oi = paddedSize.x;
for( int y=0; y<m_size.y; y++ )
{
m_output[oi++] = m_borderValue; // 1 pixel padding at left
for( int x=0; x<m_size.x; x++ )
{
m_output[oi++] = input[ii++] > threshold ? 1 : 0;
}
m_output[oi++] = m_borderValue; // 1 pixel padding at right
}
std::fill( m_output.begin() + oi, m_output.begin() + oi + paddedSize.x, m_borderValue ); // 1 scanline padding at bottom
}
bool operator() ( typename T::ConstPtr data )
{
assert( data );
const typename T::ValueType &v = data->readable();
return v.size() == m_variableSize;
}
ReturnType operator()( typename T::ConstPtr data ) const
{
return sizeof( typename T::BaseType ) * data->baseSize();
}
static std::string decToHexVector( typename T::ConstPtr v )
{
const typename T::ValueType &c = v->readable();
return IECore::decToHex( c.begin(), c.end() );
}
void operator()( typename T::ConstPtr data, const F& functor )
{
assert( data );
throw InvalidArgumentException( ( boost::format( "ToMayaImageConverter: Invalid data type \"%s\" for channel \"%s\"." ) % Object::typeNameFromTypeId( data->typeId() ) % functor.m_channelName ).str() );
}
void operator()( typename T::ConstPtr data, const F& functor )
{
assert( data );
throw InvalidArgumentException( ( boost::format( "CurveExtrudeOp: Invalid data type \"%s\" for uniform primitive variable \"%s\"." ) % Object::typeNameFromTypeId( data->typeId() ) % functor.m_primVarName ).str() );
}
void operator()( typename T::ConstPtr data, const F& functor )
{
assert( data );
throw InvalidArgumentException( ( boost::format( "ImageFile: Invalid data type \"%s\" for channel %s while reading %s" ) % Object::typeNameFromTypeId( data->typeId() ) % functor.m_channelName % functor.m_pathName ).str() );
}
