diff --git a/Plugins/org.mitk.gui.qt.examples/src/internal/colourimageprocessing/mitkColourImageProcessor.cpp b/Plugins/org.mitk.gui.qt.examples/src/internal/colourimageprocessing/mitkColourImageProcessor.cpp
index d35fc7d4cd..774878d62c 100644
--- a/Plugins/org.mitk.gui.qt.examples/src/internal/colourimageprocessing/mitkColourImageProcessor.cpp
+++ b/Plugins/org.mitk.gui.qt.examples/src/internal/colourimageprocessing/mitkColourImageProcessor.cpp
@@ -1,988 +1,981 @@
 /*===================================================================
 
 The Medical Imaging Interaction Toolkit (MITK)
 
 Copyright (c) German Cancer Research Center,
 Division of Medical and Biological Informatics.
 All rights reserved.
 
 This software is distributed WITHOUT ANY WARRANTY; without
 even the implied warranty of MERCHANTABILITY or FITNESS FOR
 A PARTICULAR PURPOSE.
 
 See LICENSE.txt or http://www.mitk.org for details.
 
 ===================================================================*/
 
 #include "mitkColourImageProcessor.h"
 #include <mitkImage.h>
 #include <itkImage.h>
 #include <mitkImageCast.h>
 #include <mitkImageReadAccessor.h>
 
 
 
 namespace mitk
 {
-
 mitkColourImageProcessor::mitkColourImageProcessor()
 {
 }
 
 mitkColourImageProcessor::~mitkColourImageProcessor()
 {
 }
 
 template <class T> class ScalarToRGBAConverter
 {
   const T *dataPtr;
   unsigned char *tmpPtr;
   int sizeX;
   int sizeY;
   int sizeZ;
   int sizeXY;
   int sizeXm1;
   int sizeYm1;
   int sizeZm1;
   mitk::TransferFunction::Pointer tf;
 
   public:
 
   ScalarToRGBAConverter( const T *_dataPtr,unsigned char *_tmpPtr,int _sizeX,int _sizeY,int _sizeZ,mitk::TransferFunction::Pointer _tf )
   {
     dataPtr=_dataPtr;
     tmpPtr=_tmpPtr;
     sizeX=_sizeX;
     sizeY=_sizeY;
     sizeZ=_sizeZ;
 
     sizeXY=sizeX*sizeY;
     sizeXm1=sizeX-1;
     sizeYm1=sizeY-1;
     sizeZm1=sizeZ-1;
 
     tf=_tf;
   }
 
   inline float sample(int x,int y,int z)
   {
     return float(dataPtr[ x + y * sizeX + z * sizeXY ]);
   }
 
   inline int clamp(int x)
   {
     if(x<0) x=0; else if(x>255) x=255;
     return x;
   }
 
   inline void write(int x,int y,int z,float grayValue,float gx,float gy,float gz)
   {
-
  /*
     gx /= aspect[0];
     gy /= aspect[1];
     gz /= aspect[2];
  */
     // Compute the gradient magnitude
 
     float t = sqrtf( gx*gx + gy*gy + gz*gz );
 
     int doff = x + y * sizeX + z * sizeXY;
 
     vtkPiecewiseFunction* opacityTransferFunction = tf->GetScalarOpacityFunction();
     vtkPiecewiseFunction* gradientTransferFunction = tf->GetGradientOpacityFunction();
     vtkColorTransferFunction* colorTransferFunction = tf->GetColorTransferFunction();
 
     double rgb[3];
     colorTransferFunction->GetColor( double(grayValue), rgb);
 
     double opacity= opacityTransferFunction->GetValue( double(grayValue) );
 
     opacity *= gradientTransferFunction->GetValue( double(0.5f*t) );
 
     tmpPtr[doff*4+0] = int( rgb[0]*255 + 0.5 );
     tmpPtr[doff*4+1] = int( rgb[1]*255 + 0.5 );
     tmpPtr[doff*4+2] = int( rgb[2]*255 + 0.5 );
     tmpPtr[doff*4+3] = int( opacity*255 + 0.5 );
   }
 
 
   inline void compute(int x,int y,int z)
   {
     float grayValue = sample(x,y,z);
     float gx,gy,gz;
 
     gx = sample(x+1,y,z) - sample(x-1,y,z);
     gy = sample(x,y+1,z) - sample(x,y-1,z);
     gz = sample(x,y,z+1) - sample(x,y,z-1);
 
     write( x, y, z, grayValue, gx, gy, gz );
-
   }
 
   inline void computeClamp(int x,int y,int z)
   {
     float grayValue = sample(x,y,z);
     float gx,gy,gz;
 
     if(x==0)            gx = 2.0f * ( sample(x+1,y,z) - grayValue       );
     else if(x==sizeXm1) gx = 2.0f * ( grayValue       - sample(x-1,y,z) );
     else                gx =          sample(x+1,y,z) - sample(x-1,y,z);
 
     if(y==0)            gy = 2.0f * ( sample(x,y+1,z) - grayValue       );
     else if(y==sizeYm1) gy = 2.0f * ( grayValue       - sample(x,y-1,z) );
     else                gy =          sample(x,y+1,z) - sample(x,y-1,z);
 
     if(z==0)            gz = 2.0f * ( sample(x,y,z+1) - grayValue       );
     else if(z==sizeZm1) gz = 2.0f * ( grayValue       - sample(x,y,z-1) );
     else                gz =          sample(x,y,z+1) - sample(x,y,z-1);
 
     write( x, y, z, grayValue, gx, gy, gz );
   }
 
   inline void compute1D(int y,int z)
   {
     int x;
 
     x=0;
     computeClamp(x,y,z);
     x++;
 
     while(x<sizeX-1)
     {
       compute(x,y,z);
       x++;
     }
 
     if(x<sizeX)
     {
       computeClamp(x,y,z);
       x++;
     }
   }
 
   inline void computeClamp1D(int y,int z)
   {
     int x;
 
     x=0;
 
     while(x<sizeX)
     {
       computeClamp(x,y,z);
       x++;
     }
   }
 
   inline void computeClamp2D(int z)
   {
     int y;
 
     y=0;
 
     while(y<sizeY)
     {
       computeClamp1D(y,z);
       y++;
     }
   }
 
   inline void compute2D(int z)
   {
     int y;
 
     y=0;
     computeClamp1D(y,z);
     y++;
 
     while(y<sizeY-1)
     {
       compute1D(y,z);
       y++;
     }
 
     if(y<sizeY)
     {
       computeClamp1D(y,z);
       y++;
     }
   }
 
   inline void fillSlices()
   {
     int z;
 
     for(z=0;z<sizeZ;z++)
     {
       if(z==0 || z==sizeZ-1)
         computeClamp2D(z);
        else
         compute2D(z);
     }
   }
 };
 
 
 
 template<class TType> mitk::Image::Pointer mitkColourImageProcessor::ScalarToRGBA( itk::Image<TType, 3>* input  , mitk::TransferFunction::Pointer tf)
 {
-
   const TType *inputData=input->GetBufferPointer();
 
   typename itk::Image<TType, 3>::SizeType ioSize = input->GetLargestPossibleRegion().GetSize();
 
   MITK_INFO << "size input image: " << ioSize[0] << ", " << ioSize[1] << ", " << ioSize[2];
   MITK_INFO << "size voxel: " << ioSize[0] * ioSize[1] * ioSize[2];
 
   int voxel = ioSize[0] * ioSize[1] * ioSize[2];
 
   unsigned char* RGBABuffer = new unsigned char[4*voxel];
 
   // Convert volume
   {
     ScalarToRGBAConverter<TType> strc(inputData,RGBABuffer,ioSize[0],ioSize[1],ioSize[2],tf);
     strc.fillSlices();
   }
 
   // Create MITK Image out of the raw data
   {
     mitk::Image::Pointer image = mitk::Image::New();
 
     unsigned int dimensions[ 3 ];
     dimensions[ 0 ] = ioSize[0];
     dimensions[ 1 ] = ioSize[1];
     dimensions[ 2 ] = ioSize[2];
 
     mitk::PixelType pixelType( MakePixelType<RGBAImage>() );
     image->Initialize( pixelType, 3, dimensions );
     image->SetImportChannel( RGBABuffer, 0, Image::ManageMemory );
 
     return image;
   }
 }
 
  mitk::Image::Pointer mitkColourImageProcessor::convertToRGBAImage( mitk::Image::Pointer mitkInput , mitk::TransferFunction::Pointer tf )
 {
   MITK_INFO << "convertToRGBAImage" ;
 
   mitk::Image::Pointer mitkResult= mitk::Image::New();
 
   if (mitkInput->GetPixelType().GetComponentType() == itk::ImageIOBase::CHAR)
   {
     //cast to itkImage
     itk::Image< unsigned char, 3 >::Pointer itkInput;
     mitk::CastToItkImage(mitkInput,itkInput);
     mitkResult = ScalarToRGBA<unsigned char>(itkInput, tf);
   }
   else if (mitkInput->GetPixelType().GetComponentType() == itk::ImageIOBase::SHORT)
   {
     //cast to itkImage
     itk::Image< short, 3 >::Pointer itkInput;
     mitk::CastToItkImage(mitkInput,itkInput);
     mitkResult = ScalarToRGBA<short>(itkInput, tf);
   }
   else
   {
     MITK_ERROR << "unsupported pixel type";
     return NULL;
   }
 
-
-   mitkResult->SetSpacing( mitkInput->GetGeometry()->GetSpacing() );
+  mitkResult->SetClonedGeometry(mitkInput->GetGeometry());
 
   return mitkResult;
 }
 
 
 
 
 
 
 
 
 
 
 
 
 template <class T,class B>
 class ScalarBinaryToRGBAConverter
 {
   const T *dataPtr;
   const B *data2Ptr;
   unsigned char *tmpPtr;
   int sizeX;
   int sizeY;
   int sizeZ;
   int sizeXY;
   int sizeXm1;
   int sizeYm1;
   int sizeZm1;
   mitk::TransferFunction::Pointer tf;
 
   public:
 
   ScalarBinaryToRGBAConverter( const T *_dataPtr,const B *_data2Ptr,unsigned char *_tmpPtr,int _sizeX,int _sizeY,int _sizeZ,mitk::TransferFunction::Pointer _tf )
   {
     dataPtr=_dataPtr;
     data2Ptr=_data2Ptr;
     tmpPtr=_tmpPtr;
     sizeX=_sizeX;
     sizeY=_sizeY;
     sizeZ=_sizeZ;
 
     sizeXY=sizeX*sizeY;
     sizeXm1=sizeX-1;
     sizeYm1=sizeY-1;
     sizeZm1=sizeZ-1;
 
     tf=_tf;
   }
 
   inline float sample(int x,int y,int z)
   {
     return float(dataPtr[ x + y * sizeX + z * sizeXY ]);
   }
 
   inline bool sampleBinary(int x,int y,int z)
   {
     return data2Ptr[ x + y * sizeX + z * sizeXY ];
   }
 
   inline int clamp(int x)
   {
     if(x<0) x=0; else if(x>255) x=255;
     return x;
   }
 
   inline void write(int x,int y,int z,float grayValue,float gx,float gy,float gz)
   {
     if(sampleBinary(x,y,z))
     {
-
    /*
       gx /= aspect[0];
       gy /= aspect[1];
       gz /= aspect[2];
    */
       // Compute the gradient magnitude
 
       float t = sqrtf( gx*gx + gy*gy + gz*gz );
 
       int doff = x + y * sizeX + z * sizeXY;
 
       vtkPiecewiseFunction* opacityTransferFunction = tf->GetScalarOpacityFunction();
       vtkPiecewiseFunction* gradientTransferFunction = tf->GetGradientOpacityFunction();
       vtkColorTransferFunction* colorTransferFunction = tf->GetColorTransferFunction();
 
       double rgb[3];
       colorTransferFunction->GetColor( double(grayValue), rgb);
 
       double opacity= opacityTransferFunction->GetValue( double(grayValue) );
 
       opacity *= gradientTransferFunction->GetValue( double(0.5f*t) );
 
       tmpPtr[doff*4+0] = int( rgb[0]*255 + 0.5 );
       tmpPtr[doff*4+1] = int( rgb[1]*255 + 0.5 );
       tmpPtr[doff*4+2] = int( rgb[2]*255 + 0.5 );
       tmpPtr[doff*4+3] = int( opacity*255 + 0.5 );
     }
     else
     {
       int doff = x + y * sizeX + z * sizeXY;
       tmpPtr[doff*4+0] = 0;
       tmpPtr[doff*4+1] = 0;
       tmpPtr[doff*4+2] = 0;
       tmpPtr[doff*4+3] = 0;
     }
   }
 
 
   inline void compute(int x,int y,int z)
   {
     float grayValue = sample(x,y,z);
     float gx,gy,gz;
 
     gx = sample(x+1,y,z) - sample(x-1,y,z);
     gy = sample(x,y+1,z) - sample(x,y-1,z);
     gz = sample(x,y,z+1) - sample(x,y,z-1);
 
     write( x, y, z, grayValue, gx, gy, gz );
-
   }
 
   inline void computeClamp(int x,int y,int z)
   {
     float grayValue = sample(x,y,z);
     float gx,gy,gz;
 
     if(x==0)            gx = 2.0f * ( sample(x+1,y,z) - grayValue       );
     else if(x==sizeXm1) gx = 2.0f * ( grayValue       - sample(x-1,y,z) );
     else                gx =          sample(x+1,y,z) - sample(x-1,y,z);
 
     if(y==0)            gy = 2.0f * ( sample(x,y+1,z) - grayValue       );
     else if(y==sizeYm1) gy = 2.0f * ( grayValue       - sample(x,y-1,z) );
     else                gy =          sample(x,y+1,z) - sample(x,y-1,z);
 
     if(z==0)            gz = 2.0f * ( sample(x,y,z+1) - grayValue       );
     else if(z==sizeZm1) gz = 2.0f * ( grayValue       - sample(x,y,z-1) );
     else                gz =          sample(x,y,z+1) - sample(x,y,z-1);
 
     write( x, y, z, grayValue, gx, gy, gz );
   }
 
   inline void compute1D(int y,int z)
   {
     int x;
 
     x=0;
     computeClamp(x,y,z);
     x++;
 
     while(x<sizeX-1)
     {
       compute(x,y,z);
       x++;
     }
 
     if(x<sizeX)
     {
       computeClamp(x,y,z);
       x++;
     }
   }
 
   inline void computeClamp1D(int y,int z)
   {
     int x;
 
     x=0;
 
     while(x<sizeX)
     {
       computeClamp(x,y,z);
       x++;
     }
   }
 
   inline void computeClamp2D(int z)
   {
     int y;
 
     y=0;
 
     while(y<sizeY)
     {
       computeClamp1D(y,z);
       y++;
     }
   }
 
   inline void compute2D(int z)
   {
     int y;
 
     y=0;
     computeClamp1D(y,z);
     y++;
 
     while(y<sizeY-1)
     {
       compute1D(y,z);
       y++;
     }
 
     if(y<sizeY)
     {
       computeClamp1D(y,z);
       y++;
     }
   }
 
   inline void fillSlices()
   {
     int z;
 
     for(z=0;z<sizeZ;z++)
     {
       if(z==0 || z==sizeZ-1)
         computeClamp2D(z);
        else
         compute2D(z);
     }
   }
 };
 
 
 
 template<class TType,class BType>
 mitk::Image::Pointer mitkColourImageProcessor::ScalarAndBinaryToRGBA(itk::Image<TType, 3>* input  ,itk::Image<BType, 3>* input2  , mitk::TransferFunction::Pointer tf)
 {
   const TType *inputData=input->GetBufferPointer();
   const BType *input2Data=input2->GetBufferPointer();
 
   typename itk::Image<TType, 3>::SizeType ioSize = input->GetLargestPossibleRegion().GetSize();
 
   MITK_INFO << "size input image: " << ioSize[0] << ", " << ioSize[1] << ", " << ioSize[2];
   MITK_INFO << "size voxel: " << ioSize[0] * ioSize[1] * ioSize[2];
 
   int voxel= ioSize[0] * ioSize[1] * ioSize[2];
 
   unsigned char* RGBABuffer = new unsigned char[4*voxel];
 
   //for(int i=0;i<voxel;i++)
 
   // Convert volume
   {
     ScalarBinaryToRGBAConverter<TType,BType> strc(inputData,input2Data,RGBABuffer,ioSize[0],ioSize[1],ioSize[2],tf);
     strc.fillSlices();
   }
 
   // Create MITK Image out of the raw data
   {
     mitk::Image::Pointer image = mitk::Image::New();
 
     unsigned int dimensions[ 3 ];
     dimensions[ 0 ] = ioSize[0];
     dimensions[ 1 ] = ioSize[1];
     dimensions[ 2 ] = ioSize[2];
 
     mitk::PixelType pixelType( MakePixelType<RGBAImage>() );
     image->Initialize( pixelType, 3, dimensions );
     image->SetImportChannel( RGBABuffer, 0, Image::ManageMemory );
 
     return image;
   }
 }
 
  mitk::Image::Pointer mitkColourImageProcessor::convertWithBinaryToRGBAImage( mitk::Image::Pointer input1 ,mitk::Image::Pointer input2  , mitk::TransferFunction::Pointer tf )
 {
   MITK_INFO << "convertWithBinaryToRGBAImage" ;
 
   itk::Image< short, 3 >::Pointer inputCT;
   itk::Image< unsigned char, 3 >::Pointer inputBinary;
 
   if (input1->GetPixelType().GetComponentType() == itk::ImageIOBase::UCHAR && input2->GetPixelType().GetComponentType() == itk::ImageIOBase::SHORT)
   {
     mitk::CastToItkImage(input1,inputBinary);
     mitk::CastToItkImage(input2,inputCT);
   }
   else if (input1->GetPixelType().GetComponentType() == itk::ImageIOBase::SHORT && input2->GetPixelType().GetComponentType() == itk::ImageIOBase::UCHAR)
   {
     mitk::CastToItkImage(input1,inputCT);
     mitk::CastToItkImage(input2,inputBinary);
   }
   else
   {
     MITK_ERROR << "unsupported pixel type";
     return 0;
   }
 
-  return ScalarAndBinaryToRGBA<short,unsigned char>(inputCT,inputBinary, tf);
+  mitk::Image::Pointer resultImage = ScalarAndBinaryToRGBA<short,unsigned char>(inputCT,inputBinary, tf);
+  resultImage->SetClonedGeometry(input1->GetGeometry());
+  return resultImage;
 }
 
 //////////////////////////////////////////
 
 
 
 
 template <class T,class B>
 class ScalarBinaryColorToRGBAConverter
 {
   const T *dataPtr;
   const B *data2Ptr;
   unsigned char *tmpPtr;
   int sizeX;
   int sizeY;
   int sizeZ;
   int sizeXY;
   int sizeXm1;
   int sizeYm1;
   int sizeZm1;
   mitk::TransferFunction::Pointer tf;
   int *color;
 
   public:
 
   ScalarBinaryColorToRGBAConverter( const T *_dataPtr,const B *_data2Ptr,unsigned char *_tmpPtr,int _sizeX,int _sizeY,int _sizeZ,mitk::TransferFunction::Pointer _tf ,int *_color)
   {
     dataPtr=_dataPtr;
     data2Ptr=_data2Ptr;
     tmpPtr=_tmpPtr;
     sizeX=_sizeX;
     sizeY=_sizeY;
     sizeZ=_sizeZ;
 
     sizeXY=sizeX*sizeY;
     sizeXm1=sizeX-1;
     sizeYm1=sizeY-1;
     sizeZm1=sizeZ-1;
 
     tf=_tf;
 
     color = _color;
   }
 
   inline float sample(int x,int y,int z)
   {
     return float(dataPtr[ x + y * sizeX + z * sizeXY ]);
   }
 
   inline bool sampleBinary(int x,int y,int z)
   {
     return data2Ptr[ x + y * sizeX + z * sizeXY ];
   }
 
   inline int clamp(int x)
   {
     if(x<0) x=0; else if(x>255) x=255;
     return x;
   }
 
   inline void write(int x,int y,int z,float grayValue,float gx,float gy,float gz)
   {
     if(sampleBinary(x,y,z))
     {
-
    /*
       gx /= aspect[0];
       gy /= aspect[1];
       gz /= aspect[2];
    */
       // Compute the gradient magnitude
 
       float t = sqrtf( gx*gx + gy*gy + gz*gz );
 
       int doff = x + y * sizeX + z * sizeXY;
 
       vtkPiecewiseFunction* opacityTransferFunction = tf->GetScalarOpacityFunction();
       vtkPiecewiseFunction* gradientTransferFunction = tf->GetGradientOpacityFunction();
       vtkColorTransferFunction* colorTransferFunction = tf->GetColorTransferFunction();
 
       double rgb[3];
       colorTransferFunction->GetColor( double(grayValue), rgb);
 
       double opacity= opacityTransferFunction->GetValue( double(grayValue) );
 
       opacity *= gradientTransferFunction->GetValue( double(0.5f*t) );
 
       tmpPtr[doff*4+0] = int( rgb[0]*255 + 0.5 );
       tmpPtr[doff*4+1] = int( rgb[1]*255 + 0.5 );
       tmpPtr[doff*4+2] = int( rgb[2]*255 + 0.5 );
       tmpPtr[doff*4+3] = int( opacity*255 + 0.5 );
 
       tmpPtr[doff*4+0] = color[0];
       tmpPtr[doff*4+1] = color[1];
       tmpPtr[doff*4+2] = color[2];
     }
     else
     {
       int doff = x + y * sizeX + z * sizeXY;
       tmpPtr[doff*4+0] = 0;
       tmpPtr[doff*4+1] = 0;
       tmpPtr[doff*4+2] = 0;
       tmpPtr[doff*4+3] = 0;
     }
   }
 
 
   inline void compute(int x,int y,int z)
   {
     float grayValue = sample(x,y,z);
     float gx,gy,gz;
 
     gx = sample(x+1,y,z) - sample(x-1,y,z);
     gy = sample(x,y+1,z) - sample(x,y-1,z);
     gz = sample(x,y,z+1) - sample(x,y,z-1);
 
     write( x, y, z, grayValue, gx, gy, gz );
-
   }
 
   inline void computeClamp(int x,int y,int z)
   {
     float grayValue = sample(x,y,z);
     float gx,gy,gz;
 
     if(x==0)            gx = 2.0f * ( sample(x+1,y,z) - grayValue       );
     else if(x==sizeXm1) gx = 2.0f * ( grayValue       - sample(x-1,y,z) );
     else                gx =          sample(x+1,y,z) - sample(x-1,y,z);
 
     if(y==0)            gy = 2.0f * ( sample(x,y+1,z) - grayValue       );
     else if(y==sizeYm1) gy = 2.0f * ( grayValue       - sample(x,y-1,z) );
     else                gy =          sample(x,y+1,z) - sample(x,y-1,z);
 
     if(z==0)            gz = 2.0f * ( sample(x,y,z+1) - grayValue       );
     else if(z==sizeZm1) gz = 2.0f * ( grayValue       - sample(x,y,z-1) );
     else                gz =          sample(x,y,z+1) - sample(x,y,z-1);
 
     write( x, y, z, grayValue, gx, gy, gz );
   }
 
   inline void compute1D(int y,int z)
   {
     int x;
 
     x=0;
     computeClamp(x,y,z);
     x++;
 
     while(x<sizeX-1)
     {
       compute(x,y,z);
       x++;
     }
 
     if(x<sizeX)
     {
       computeClamp(x,y,z);
       x++;
     }
   }
 
   inline void computeClamp1D(int y,int z)
   {
     int x;
 
     x=0;
 
     while(x<sizeX)
     {
       computeClamp(x,y,z);
       x++;
     }
   }
 
   inline void computeClamp2D(int z)
   {
     int y;
 
     y=0;
 
     while(y<sizeY)
     {
       computeClamp1D(y,z);
       y++;
     }
   }
 
   inline void compute2D(int z)
   {
     int y;
 
     y=0;
     computeClamp1D(y,z);
     y++;
 
     while(y<sizeY-1)
     {
       compute1D(y,z);
       y++;
     }
 
     if(y<sizeY)
     {
       computeClamp1D(y,z);
       y++;
     }
   }
 
   inline void fillSlices()
   {
     int z;
 
     for(z=0;z<sizeZ;z++)
     {
       if(z==0 || z==sizeZ-1)
         computeClamp2D(z);
        else
         compute2D(z);
     }
   }
 };
 
 
 template<class TType,class BType>
 mitk::Image::Pointer mitkColourImageProcessor::ScalarAndBinaryAndColorToRGBA(itk::Image<TType, 3>* input  ,itk::Image<BType, 3>* input2  , mitk::TransferFunction::Pointer tf, int * color)
 {
   const TType *inputData=input->GetBufferPointer();
   const BType *input2Data=input2->GetBufferPointer();
 
   typename itk::Image<TType, 3>::SizeType ioSize = input->GetLargestPossibleRegion().GetSize();
 
   MITK_INFO << "size input image: " << ioSize[0] << ", " << ioSize[1] << ", " << ioSize[2];
   MITK_INFO << "size voxel: " << ioSize[0] * ioSize[1] * ioSize[2];
 
   int voxel= ioSize[0] * ioSize[1] * ioSize[2];
 
   unsigned char* RGBABuffer = new unsigned char[4*voxel];
 
   //for(int i=0;i<voxel;i++)
 
   // Convert volume
   {
     ScalarBinaryColorToRGBAConverter<TType,BType> strc(inputData,input2Data,RGBABuffer,ioSize[0],ioSize[1],ioSize[2],tf,color);
     strc.fillSlices();
   }
 
   // Create MITK Image out of the raw data
   {
     mitk::Image::Pointer image = mitk::Image::New();
 
     unsigned int dimensions[ 3 ];
     dimensions[ 0 ] = ioSize[0];
     dimensions[ 1 ] = ioSize[1];
     dimensions[ 2 ] = ioSize[2];
 
     mitk::PixelType pixelType( MakePixelType<RGBAImage>() );
     image->Initialize( pixelType, 3, dimensions );
     image->SetImportChannel( RGBABuffer, 0, Image::ManageMemory );
+    //image->GetGeometry()->SetSpacing(input->GetSpacing());
+    //image->GetGeometry()->SetOrigin(input->GetOrigin());
 
     return image;
   }
 }
 
  mitk::Image::Pointer mitkColourImageProcessor::convertWithBinaryAndColorToRGBAImage( mitk::Image::Pointer input1 ,mitk::Image::Pointer input2  , mitk::TransferFunction::Pointer tf , int * color)
 {
   MITK_INFO << "convertWithBinaryToRGBAImage" ;
 
   itk::Image< short, 3 >::Pointer inputCT;
   itk::Image< unsigned char, 3 >::Pointer inputBinary;
 
   if (input1->GetPixelType().GetComponentType() == itk::ImageIOBase::UCHAR && input2->GetPixelType().GetComponentType() == itk::ImageIOBase::SHORT)
   {
     mitk::CastToItkImage(input1,inputBinary);
     mitk::CastToItkImage(input2,inputCT);
   }
   else if (input1->GetPixelType().GetComponentType() == itk::ImageIOBase::SHORT && input2->GetPixelType().GetComponentType() == itk::ImageIOBase::UCHAR)
   {
     mitk::CastToItkImage(input1,inputCT);
     mitk::CastToItkImage(input2,inputBinary);
   }
   else
   {
     MITK_ERROR << "unsupported pixel type";
     return 0;
   }
 
-  return ScalarAndBinaryAndColorToRGBA<short,unsigned char>(inputCT,inputBinary, tf,color);
+  mitk::Image::Pointer resultImage = ScalarAndBinaryAndColorToRGBA<short,unsigned char>(inputCT,inputBinary, tf,color);
+  resultImage->SetClonedGeometry(input1->GetGeometry());
+
+  return resultImage;
 }
 
 static  inline int clamp(int x)
   {
     if(x<0) x=0; else if(x>255) x=255;
     return x;
   }
 
 
 mitk::Image::Pointer mitkColourImageProcessor::CombineRGBAImage( const unsigned char* input  , const unsigned char* input2, int sizeX,int sizeY,int sizeZ )
 {
   int voxel= sizeX*sizeY*sizeZ;
 
   unsigned char* RGBABuffer = new unsigned char[4*voxel];
 
   // Convert volume
   {
     for( int r=0;r<voxel;r++)
     {
       int rgbaInput1[4];
       int rgbaInput2[4];
 
       rgbaInput1[0]=input[r*4+0];
       rgbaInput1[1]=input[r*4+1];
       rgbaInput1[2]=input[r*4+2];
       rgbaInput1[3]=input[r*4+3];
 
       rgbaInput2[0]=input2[r*4+0];
       rgbaInput2[1]=input2[r*4+1];
       rgbaInput2[2]=input2[r*4+2];
       rgbaInput2[3]=input2[r*4+3];
 
       int result[4];
 
       /*
 
       float fac1 = rgbaInput1[3]/255.0f;
       float fac2 = rgbaInput2[3]/255.0f;
 
       float sum = fac1+fac2;
 
       float cor = 1.0f;
 
       if(sum > 1.0f)
         cor = 1.0f/sum;
 
       fac1 *= cor;
       fac2 *= cor;
 
       result[0]= clamp(int(fac1 * rgbaInput1[0] + fac2 * rgbaInput2[0] + 0.5f));
       result[1]= clamp(int(fac1 * rgbaInput1[1] + fac2 * rgbaInput2[1] + 0.5f));
       result[2]= clamp(int(fac1 * rgbaInput1[2] + fac2 * rgbaInput2[2] + 0.5f));
       result[3]= clamp(int(fac1 * rgbaInput1[3] + fac2 * rgbaInput2[3] + 0.5f));
       */
 
       if( rgbaInput1[3] )
       {
         result[0]= rgbaInput1[0];
         result[1]= rgbaInput1[1];
         result[2]= rgbaInput1[2];
         result[3]= rgbaInput1[3];
       }
       else
       {
         result[0]= rgbaInput2[0];
         result[1]= rgbaInput2[1];
         result[2]= rgbaInput2[2];
         result[3]= rgbaInput2[3];
       }
 
 
       RGBABuffer[r*4+0]= result[0];
       RGBABuffer[r*4+1]= result[1];
       RGBABuffer[r*4+2]= result[2];
       RGBABuffer[r*4+3]= result[3];
     }
-
   }
 
   // Create MITK Image out of the raw data
   {
     mitk::Image::Pointer image = mitk::Image::New();
 
     unsigned int dimensions[ 3 ];
     dimensions[ 0 ] = sizeX;
     dimensions[ 1 ] = sizeY;
     dimensions[ 2 ] = sizeZ;
 
     mitk::PixelType pixelType( MakePixelType<RGBAImage>() );
     image->Initialize( pixelType, 3, dimensions );
     image->SetImportChannel( RGBABuffer, 0, Image::ManageMemory );
 
     return image;
   }
 }
 
 mitk::Image::Pointer mitkColourImageProcessor::combineRGBAImage( mitk::Image::Pointer input1 , mitk::Image::Pointer input2)
 {
   // Order access to a whole Image object
   try
   {
     mitk::ImageReadAccessor img1(input1);
     const unsigned char* data1 = (const unsigned char*) img1.GetData();
     mitk::ImageReadAccessor img2(input2);
     const unsigned char* data2 = (const unsigned char*) img2.GetData();
 
     unsigned int *dim = input1->GetDimensions();
 
     return CombineRGBAImage(data1,data2,dim[0],dim[1],dim[2]);
   }
   catch(mitk::Exception& e)
   {
     MITK_ERROR << "mitkColourImageProcessor::combineRGBAImage - No access to image data possible." << e.what();
     return NULL;
   }
 }
-
-
-}//end namespace mitk
-
-
+}//end namespace mitk
\ No newline at end of file