/*=========================================================================
 *
 *  Copyright NumFOCUS
 *
 *  Licensed under the Apache License, Version 2.0 (the "License");
 *  you may not use this file except in compliance with the License.
 *  You may obtain a copy of the License at
 *
 *         https://www.apache.org/licenses/LICENSE-2.0.txt
 *
 *  Unless required by applicable law or agreed to in writing, software
 *  distributed under the License is distributed on an "AS IS" BASIS,
 *  WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
 *  See the License for the specific language governing permissions and
 *  limitations under the License.
 *
 *=========================================================================*/
#ifndef itkBinaryMask3DMeshSource_hxx
#define itkBinaryMask3DMeshSource_hxx

#include "itkContinuousIndex.h"
#include "itkNumericTraits.h"
#include "itkMath.h"

namespace itk
{
template <typename TInputImage, typename TOutputMesh>
BinaryMask3DMeshSource<TInputImage, TOutputMesh>::BinaryMask3DMeshSource()
  : m_ObjectValue(NumericTraits<InputPixelType>::OneValue())
  , m_OutputMesh(nullptr)
  , m_InputImage(nullptr)
{
  // Modify superclass default values, can be overridden by subclasses
  this->SetNumberOfRequiredInputs(1);

  SizeType size;
  size.Fill(0);
  m_RegionOfInterest.SetSize(size);

  this->GetOutput()->GetPoints()->Reserve(m_NodeLimit);
  this->GetOutput()->GetCells()->Reserve(m_CellLimit);
}

template <typename TInputImage, typename TOutputMesh>
BinaryMask3DMeshSource<TInputImage, TOutputMesh>::~BinaryMask3DMeshSource()
{
  int i;

  if (m_CurrentFrame)
  {
    for (i = 0; i < 2000; ++i)
    {
      free(m_CurrentFrame[i]);
    }
    free(m_CurrentFrame);
  }
  if (m_CurrentRow)
  {
    for (i = 0; i < 200; ++i)
    {
      free(m_CurrentRow[i]);
    }
    free(m_CurrentRow);
  }
  if (m_LastFrame)
  {
    for (i = 0; i < m_LastFrameNum; ++i)
    {
      free(m_LastFrame[i]);
    }
    free(m_LastFrame);
  }
  if (m_LastRow)
  {
    for (i = 0; i < m_LastRowNum; ++i)
    {
      free(m_LastRow[i]);
    }
    free(m_LastRow);
  }
}

template <typename TInputImage, typename TOutputMesh>
void
BinaryMask3DMeshSource<TInputImage, TOutputMesh>::SetInput(const InputImageType * image)
{
  this->ProcessObject::SetNthInput(0, const_cast<InputImageType *>(image));
}

template <typename TInputImage, typename TOutputMesh>
void
BinaryMask3DMeshSource<TInputImage, TOutputMesh>::GenerateData()
{
  if (!m_RegionOfInterestProvidedByUser)
  {
    m_RegionOfInterest = this->GetInput()->GetBufferedRegion();
  }
  else
  {
    m_RegionOfInterest.Crop(this->GetInput()->GetBufferedRegion());
  }

  this->InitializeLUT();
  this->CreateMesh();
}

template <typename TInputImage, typename TOutputMesh>
void
BinaryMask3DMeshSource<TInputImage, TOutputMesh>::XFlip(unsigned char * x)
{
  unsigned char nodeindex;

  int i = 0;

  while (i < 3)
  {
    nodeindex = x[i];
    switch (static_cast<int>(nodeindex))
    {
      case 1:
        break;
      case 2:
        x[i] = 4;
        break;
      case 3:
        break;
      case 4:
        x[i] = 2;
        break;
      case 5:
        break;
      case 6:
        x[i] = 8;
        break;
      case 7:
        break;
      case 8:
        x[i] = 6;
        break;
      case 9:
        x[i] = 10;
        break;
      case 10:
        x[i] = 9;
        break;
      case 11:
        x[i] = 12;
        break;
      case 12:
        x[i] = 11;
        break;
      case 13:
        break;
    }
    ++i;
  }
}

template <typename TInputImage, typename TOutputMesh>
void
BinaryMask3DMeshSource<TInputImage, TOutputMesh>::YFlip(unsigned char * x)
{
  unsigned char nodeindex;

  int i = 0;

  while (i < 3)
  {
    nodeindex = x[i];
    switch (static_cast<int>(nodeindex))
    {
      case 1:
        x[i] = 3;
        break;
      case 2:
        break;
      case 3:
        x[i] = 1;
        break;
      case 4:
        break;
      case 5:
        x[i] = 7;
        break;
      case 6:
        break;
      case 7:
        x[i] = 5;
        break;
      case 8:
        break;
      case 9:
        x[i] = 12;
        break;
      case 10:
        x[i] = 11;
        break;
      case 11:
        x[i] = 10;
        break;
      case 12:
        x[i] = 9;
        break;
      case 13:
        break;
    }
    ++i;
  }
}

template <typename TInputImage, typename TOutputMesh>
void
BinaryMask3DMeshSource<TInputImage, TOutputMesh>::ZFlip(unsigned char * x)
{
  unsigned char nodeindex;

  int i = 0;

  while (i < 3)
  {
    nodeindex = x[i];
    switch (static_cast<int>(nodeindex))
    {
      case 1:
        x[i] = 5;
        break;
      case 2:
        x[i] = 6;
        break;
      case 3:
        x[i] = 7;
        break;
      case 4:
        x[i] = 8;
        break;
      case 5:
        x[i] = 1;
        break;
      case 6:
        x[i] = 2;
        break;
      case 7:
        x[i] = 3;
        break;
      case 8:
        x[i] = 4;
        break;
      case 9:
        break;
      case 10:
        break;
      case 11:
        break;
      case 12:
        break;
      case 13:
        break;
    }
    ++i;
  }
}

template <typename TInputImage, typename TOutputMesh>
void
BinaryMask3DMeshSource<TInputImage, TOutputMesh>::XRotation(unsigned char * x)
{
  unsigned char nodeindex;

  int i = 0;

  while (i < 3)
  {
    nodeindex = x[i];
    switch (static_cast<int>(nodeindex))
    {
      case 1:
        x[i] = 4;
        break;
      case 2:
        x[i] = 1;
        break;
      case 3:
        x[i] = 2;
        break;
      case 4:
        x[i] = 3;
        break;
      case 5:
        x[i] = 8;
        break;
      case 6:
        x[i] = 5;
        break;
      case 7:
        x[i] = 6;
        break;
      case 8:
        x[i] = 7;
        break;
      case 9:
        x[i] = 12;
        break;
      case 10:
        x[i] = 9;
        break;
      case 11:
        x[i] = 10;
        break;
      case 12:
        x[i] = 11;
        break;
      case 13:
        break;
    }
    ++i;
  }
}

template <typename TInputImage, typename TOutputMesh>
void
BinaryMask3DMeshSource<TInputImage, TOutputMesh>::YRotation(unsigned char * x)
{
  unsigned char nodeindex;

  int i = 0;

  while (i < 3)
  {
    nodeindex = x[i];
    switch (static_cast<int>(nodeindex))
    {
      case 1:
        x[i] = 9;
        break;
      case 2:
        x[i] = 4;
        break;
      case 3:
        x[i] = 12;
        break;
      case 4:
        x[i] = 8;
        break;
      case 5:
        x[i] = 10;
        break;
      case 6:
        x[i] = 2;
        break;
      case 7:
        x[i] = 11;
        break;
      case 8:
        x[i] = 6;
        break;
      case 9:
        x[i] = 5;
        break;
      case 10:
        x[i] = 1;
        break;
      case 11:
        x[i] = 3;
        break;
      case 12:
        x[i] = 7;
        break;
      case 13:
        break;
    }
    ++i;
  }
}

template <typename TInputImage, typename TOutputMesh>
void
BinaryMask3DMeshSource<TInputImage, TOutputMesh>::ZRotation(unsigned char * x)
{
  unsigned char nodeindex;

  int i = 0;

  while (i < 3)
  {
    nodeindex = x[i];
    switch (static_cast<int>(nodeindex))
    {
      case 1:
        x[i] = 3;
        break;
      case 2:
        x[i] = 11;
        break;
      case 3:
        x[i] = 7;
        break;
      case 4:
        x[i] = 12;
        break;
      case 5:
        x[i] = 1;
        break;
      case 6:
        x[i] = 10;
        break;
      case 7:
        x[i] = 5;
        break;
      case 8:
        x[i] = 9;
        break;
      case 9:
        x[i] = 4;
        break;
      case 10:
        x[i] = 2;
        break;
      case 11:
        x[i] = 6;
        break;
      case 12:
        x[i] = 8;
        break;
      case 13:
        break;
    }
    ++i;
  }
}

template <typename TInputImage, typename TOutputMesh>
void
BinaryMask3DMeshSource<TInputImage, TOutputMesh>::inverse(unsigned char * x)
{
  unsigned char tmp;

  tmp = x[2];
  x[2] = x[1];
  x[1] = tmp;
}

template <typename TInputImage, typename TOutputMesh>
void
BinaryMask3DMeshSource<TInputImage, TOutputMesh>::InitializeLUT()
{
  m_LUT[0][0] = 0;
  m_LUT[1][0] = 1;
  m_LUT[2][0] = 1;
  m_LUT[3][0] = 2;
  m_LUT[4][0] = 1;
  m_LUT[5][0] = 3;
  m_LUT[6][0] = 2;
  m_LUT[7][0] = 5;
  m_LUT[8][0] = 1;
  m_LUT[9][0] = 2;
  m_LUT[10][0] = 3;
  m_LUT[11][0] = 5;
  m_LUT[12][0] = 2;
  m_LUT[13][0] = 5;
  m_LUT[14][0] = 5;
  m_LUT[15][0] = 8;
  m_LUT[16][0] = 1;
  m_LUT[17][0] = 2;
  m_LUT[18][0] = 3;
  m_LUT[19][0] = 5;
  m_LUT[20][0] = 4;
  m_LUT[21][0] = 6;
  m_LUT[22][0] = 6;
  m_LUT[23][0] = 11;
  m_LUT[24][0] = 3;
  m_LUT[25][0] = 5;
  m_LUT[26][0] = 7;
  m_LUT[27][0] = 9;
  m_LUT[28][0] = 6;
  m_LUT[29][0] = 11;
  m_LUT[30][0] = 12;
  m_LUT[31][0] = 5;
  m_LUT[32][0] = 1;
  m_LUT[33][0] = 3;
  m_LUT[34][0] = 2;
  m_LUT[35][0] = 5;
  m_LUT[36][0] = 3;
  m_LUT[37][0] = 7;
  m_LUT[38][0] = 5;
  m_LUT[39][0] = 9;
  m_LUT[40][0] = 4;
  m_LUT[41][0] = 6;
  m_LUT[42][0] = 6;
  m_LUT[43][0] = 11;
  m_LUT[44][0] = 6;
  m_LUT[45][0] = 12;
  m_LUT[46][0] = 11;
  m_LUT[47][0] = 5;
  m_LUT[48][0] = 2;
  m_LUT[49][0] = 5;
  m_LUT[50][0] = 5;
  m_LUT[51][0] = 8;
  m_LUT[52][0] = 6;
  m_LUT[53][0] = 12;
  m_LUT[54][0] = 11;
  m_LUT[55][0] = 5;
  m_LUT[56][0] = 6;
  m_LUT[57][0] = 11;
  m_LUT[58][0] = 12;
  m_LUT[59][0] = 5;
  m_LUT[60][0] = 10;
  m_LUT[61][0] = 16;
  m_LUT[62][0] = 16;
  m_LUT[63][0] = 2;
  m_LUT[64][0] = 1;
  m_LUT[65][0] = 4;
  m_LUT[66][0] = 3;
  m_LUT[67][0] = 6;
  m_LUT[68][0] = 2;
  m_LUT[69][0] = 6;
  m_LUT[70][0] = 5;
  m_LUT[71][0] = 11;
  m_LUT[72][0] = 3;
  m_LUT[73][0] = 6;
  m_LUT[74][0] = 7;
  m_LUT[75][0] = 12;
  m_LUT[76][0] = 5;
  m_LUT[77][0] = 11;
  m_LUT[78][0] = 9;
  m_LUT[79][0] = 5;
  m_LUT[80][0] = 3;
  m_LUT[81][0] = 6;
  m_LUT[82][0] = 7;
  m_LUT[83][0] = 12;
  m_LUT[84][0] = 6;
  m_LUT[85][0] = 10;
  m_LUT[86][0] = 12;
  m_LUT[87][0] = 16;
  m_LUT[88][0] = 7;
  m_LUT[89][0] = 12;
  m_LUT[90][0] = 13;
  m_LUT[91][0] = 14;
  m_LUT[92][0] = 12;
  m_LUT[93][0] = 16;
  m_LUT[94][0] = 14;
  m_LUT[95][0] = 15;
  m_LUT[96][0] = 2;
  m_LUT[97][0] = 6;
  m_LUT[98][0] = 5;
  m_LUT[99][0] = 11;
  m_LUT[100][0] = 5;
  m_LUT[101][0] = 12;
  m_LUT[102][0] = 8;
  m_LUT[103][0] = 5;
  m_LUT[104][0] = 6;
  m_LUT[105][0] = 10;
  m_LUT[106][0] = 12;
  m_LUT[107][0] = 16;
  m_LUT[108][0] = 11;
  m_LUT[109][0] = 16;
  m_LUT[110][0] = 5;
  m_LUT[111][0] = 2;
  m_LUT[112][0] = 5;
  m_LUT[113][0] = 11;
  m_LUT[114][0] = 9;
  m_LUT[115][0] = 5;
  m_LUT[116][0] = 11;
  m_LUT[117][0] = 16;
  m_LUT[118][0] = 5;
  m_LUT[119][0] = 2;
  m_LUT[120][0] = 12;
  m_LUT[121][0] = 16;
  m_LUT[122][0] = 14;
  m_LUT[123][0] = 15;
  m_LUT[124][0] = 16;
  m_LUT[125][0] = 4;
  m_LUT[126][0] = 15;
  m_LUT[127][0] = 1;
  m_LUT[128][0] = 1;
  m_LUT[129][0] = 3;
  m_LUT[130][0] = 4;
  m_LUT[131][0] = 6;
  m_LUT[132][0] = 3;
  m_LUT[133][0] = 7;
  m_LUT[134][0] = 6;
  m_LUT[135][0] = 12;
  m_LUT[136][0] = 2;
  m_LUT[137][0] = 5;
  m_LUT[138][0] = 6;
  m_LUT[139][0] = 11;
  m_LUT[140][0] = 5;
  m_LUT[141][0] = 9;
  m_LUT[142][0] = 11;
  m_LUT[143][0] = 5;
  m_LUT[144][0] = 2;
  m_LUT[145][0] = 5;
  m_LUT[146][0] = 6;
  m_LUT[147][0] = 11;
  m_LUT[148][0] = 6;
  m_LUT[149][0] = 12;
  m_LUT[150][0] = 10;
  m_LUT[151][0] = 16;
  m_LUT[152][0] = 5;
  m_LUT[153][0] = 8;
  m_LUT[154][0] = 12;
  m_LUT[155][0] = 5;
  m_LUT[156][0] = 11;
  m_LUT[157][0] = 5;
  m_LUT[158][0] = 16;
  m_LUT[159][0] = 2;
  m_LUT[160][0] = 3;
  m_LUT[161][0] = 7;
  m_LUT[162][0] = 6;
  m_LUT[163][0] = 12;
  m_LUT[164][0] = 7;
  m_LUT[165][0] = 13;
  m_LUT[166][0] = 12;
  m_LUT[167][0] = 14;
  m_LUT[168][0] = 6;
  m_LUT[169][0] = 12;
  m_LUT[170][0] = 10;
  m_LUT[171][0] = 16;
  m_LUT[172][0] = 12;
  m_LUT[173][0] = 14;
  m_LUT[174][0] = 16;
  m_LUT[175][0] = 15;
  m_LUT[176][0] = 5;
  m_LUT[177][0] = 9;
  m_LUT[178][0] = 11;
  m_LUT[179][0] = 5;
  m_LUT[180][0] = 12;
  m_LUT[181][0] = 14;
  m_LUT[182][0] = 16;
  m_LUT[183][0] = 15;
  m_LUT[184][0] = 11;
  m_LUT[185][0] = 5;
  m_LUT[186][0] = 16;
  m_LUT[187][0] = 2;
  m_LUT[188][0] = 16;
  m_LUT[189][0] = 15;
  m_LUT[190][0] = 4;
  m_LUT[191][0] = 1;
  m_LUT[192][0] = 2;
  m_LUT[193][0] = 6;
  m_LUT[194][0] = 6;
  m_LUT[195][0] = 10;
  m_LUT[196][0] = 5;
  m_LUT[197][0] = 12;
  m_LUT[198][0] = 11;
  m_LUT[199][0] = 16;
  m_LUT[200][0] = 5;
  m_LUT[201][0] = 11;
  m_LUT[202][0] = 12;
  m_LUT[203][0] = 16;
  m_LUT[204][0] = 8;
  m_LUT[205][0] = 5;
  m_LUT[206][0] = 5;
  m_LUT[207][0] = 2;
  m_LUT[208][0] = 5;
  m_LUT[209][0] = 11;
  m_LUT[210][0] = 12;
  m_LUT[211][0] = 16;
  m_LUT[212][0] = 11;
  m_LUT[213][0] = 16;
  m_LUT[214][0] = 16;
  m_LUT[215][0] = 4;
  m_LUT[216][0] = 9;
  m_LUT[217][0] = 5;
  m_LUT[218][0] = 14;
  m_LUT[219][0] = 15;
  m_LUT[220][0] = 5;
  m_LUT[221][0] = 2;
  m_LUT[222][0] = 15;
  m_LUT[223][0] = 1;
  m_LUT[224][0] = 5;
  m_LUT[225][0] = 12;
  m_LUT[226][0] = 11;
  m_LUT[227][0] = 16;
  m_LUT[228][0] = 9;
  m_LUT[229][0] = 14;
  m_LUT[230][0] = 5;
  m_LUT[231][0] = 15;
  m_LUT[232][0] = 11;
  m_LUT[233][0] = 16;
  m_LUT[234][0] = 16;
  m_LUT[235][0] = 4;
  m_LUT[236][0] = 5;
  m_LUT[237][0] = 15;
  m_LUT[238][0] = 2;
  m_LUT[239][0] = 1;
  m_LUT[240][0] = 8;
  m_LUT[241][0] = 5;
  m_LUT[242][0] = 5;
  m_LUT[243][0] = 2;
  m_LUT[244][0] = 5;
  m_LUT[245][0] = 15;
  m_LUT[246][0] = 2;
  m_LUT[247][0] = 1;
  m_LUT[248][0] = 5;
  m_LUT[249][0] = 2;
  m_LUT[250][0] = 15;
  m_LUT[251][0] = 1;
  m_LUT[252][0] = 2;
  m_LUT[253][0] = 1;
  m_LUT[254][0] = 1;
  m_LUT[255][0] = 0;
  m_LUT[0][1] = 0;
  m_LUT[1][1] = 0;
  m_LUT[2][1] = 4;
  m_LUT[3][1] = 0;
  m_LUT[4][1] = 6;
  m_LUT[5][1] = 0;
  m_LUT[6][1] = 34;
  m_LUT[7][1] = 8;
  m_LUT[8][1] = 2;
  m_LUT[9][1] = 32;
  m_LUT[10][1] = 2;
  m_LUT[11][1] = 12;
  m_LUT[12][1] = 2;
  m_LUT[13][1] = 13;
  m_LUT[14][1] = 9;
  m_LUT[15][1] = 8;
  m_LUT[16][1] = 1;
  m_LUT[17][1] = 16;
  m_LUT[18][1] = 11;
  m_LUT[19][1] = 5;
  m_LUT[20][1] = 1;
  m_LUT[21][1] = 16;
  m_LUT[22][1] = 34;
  m_LUT[23][1] = 1;
  m_LUT[24][1] = 16;
  m_LUT[25][1] = 24;
  m_LUT[26][1] = 6;
  m_LUT[27][1] = 1;
  m_LUT[28][1] = 6;
  m_LUT[29][1] = 37;
  m_LUT[30][1] = 9;
  m_LUT[31][1] = 75;
  m_LUT[32][1] = 5;
  m_LUT[33][1] = 9;
  m_LUT[34][1] = 17;
  m_LUT[35][1] = 1;
  m_LUT[36][1] = 17;
  m_LUT[37][1] = 2;
  m_LUT[38][1] = 26;
  m_LUT[39][1] = 5;
  m_LUT[40][1] = 2;
  m_LUT[41][1] = 32;
  m_LUT[42][1] = 17;
  m_LUT[43][1] = 5;
  m_LUT[44][1] = 2;
  m_LUT[45][1] = 13;
  m_LUT[46][1] = 39;
  m_LUT[47][1] = 79;
  m_LUT[48][1] = 1;
  m_LUT[49][1] = 4;
  m_LUT[50][1] = 0;
  m_LUT[51][1] = 0;
  m_LUT[52][1] = 1;
  m_LUT[53][1] = 4;
  m_LUT[54][1] = 16;
  m_LUT[55][1] = 70;
  m_LUT[56][1] = 5;
  m_LUT[57][1] = 17;
  m_LUT[58][1] = 0;
  m_LUT[59][1] = 66;
  m_LUT[60][1] = 25;
  m_LUT[61][1] = 23;
  m_LUT[62][1] = 22;
  m_LUT[63][1] = 67;
  m_LUT[64][1] = 7;
  m_LUT[65][1] = 0;
  m_LUT[66][1] = 19;
  m_LUT[67][1] = 0;
  m_LUT[68][1] = 19;
  m_LUT[69][1] = 19;
  m_LUT[70][1] = 27;
  m_LUT[71][1] = 35;
  m_LUT[72][1] = 8;
  m_LUT[73][1] = 36;
  m_LUT[74][1] = 0;
  m_LUT[75][1] = 12;
  m_LUT[76][1] = 3;
  m_LUT[77][1] = 7;
  m_LUT[78][1] = 7;
  m_LUT[79][1] = 78;
  m_LUT[80][1] = 1;
  m_LUT[81][1] = 20;
  m_LUT[82][1] = 3;
  m_LUT[83][1] = 5;
  m_LUT[84][1] = 23;
  m_LUT[85][1] = 9;
  m_LUT[86][1] = 27;
  m_LUT[87][1] = 7;
  m_LUT[88][1] = 5;
  m_LUT[89][1] = 24;
  m_LUT[90][1] = 1;
  m_LUT[91][1] = 1;
  m_LUT[92][1] = 3;
  m_LUT[93][1] = 1;
  m_LUT[94][1] = 7;
  m_LUT[95][1] = 1;
  m_LUT[96][1] = 35;
  m_LUT[97][1] = 35;
  m_LUT[98][1] = 30;
  m_LUT[99][1] = 20;
  m_LUT[100][1] = 31;
  m_LUT[101][1] = 31;
  m_LUT[102][1] = 26;
  m_LUT[103][1] = 93;
  m_LUT[104][1] = 39;
  m_LUT[105][1] = 0;
  m_LUT[106][1] = 30;
  m_LUT[107][1] = 14;
  m_LUT[108][1] = 22;
  m_LUT[109][1] = 15;
  m_LUT[110][1] = 92;
  m_LUT[111][1] = 97;
  m_LUT[112][1] = 10;
  m_LUT[113][1] = 0;
  m_LUT[114][1] = 4;
  m_LUT[115][1] = 71;
  m_LUT[116][1] = 34;
  m_LUT[117][1] = 6;
  m_LUT[118][1] = 89;
  m_LUT[119][1] = 82;
  m_LUT[120][1] = 10;
  m_LUT[121][1] = 8;
  m_LUT[122][1] = 4;
  m_LUT[123][1] = 8;
  m_LUT[124][1] = 16;
  m_LUT[125][1] = 67;
  m_LUT[126][1] = 16;
  m_LUT[127][1] = 67;
  m_LUT[128][1] = 3;
  m_LUT[129][1] = 18;
  m_LUT[130][1] = 3;
  m_LUT[131][1] = 4;
  m_LUT[132][1] = 10;
  m_LUT[133][1] = 4;
  m_LUT[134][1] = 38;
  m_LUT[135][1] = 8;
  m_LUT[136][1] = 18;
  m_LUT[137][1] = 25;
  m_LUT[138][1] = 18;
  m_LUT[139][1] = 33;
  m_LUT[140][1] = 7;
  m_LUT[141][1] = 3;
  m_LUT[142][1] = 3;
  m_LUT[143][1] = 74;
  m_LUT[144][1] = 33;
  m_LUT[145][1] = 28;
  m_LUT[146][1] = 33;
  m_LUT[147][1] = 21;
  m_LUT[148][1] = 37;
  m_LUT[149][1] = 28;
  m_LUT[150][1] = 1;
  m_LUT[151][1] = 10;
  m_LUT[152][1] = 29;
  m_LUT[153][1] = 24;
  m_LUT[154][1] = 29;
  m_LUT[155][1] = 95;
  m_LUT[156][1] = 23;
  m_LUT[157][1] = 94;
  m_LUT[158][1] = 11;
  m_LUT[159][1] = 99;
  m_LUT[160][1] = 3;
  m_LUT[161][1] = 7;
  m_LUT[162][1] = 21;
  m_LUT[163][1] = 1;
  m_LUT[164][1] = 1;
  m_LUT[165][1] = 0;
  m_LUT[166][1] = 26;
  m_LUT[167][1] = 5;
  m_LUT[168][1] = 22;
  m_LUT[169][1] = 25;
  m_LUT[170][1] = 8;
  m_LUT[171][1] = 3;
  m_LUT[172][1] = 7;
  m_LUT[173][1] = 3;
  m_LUT[174][1] = 5;
  m_LUT[175][1] = 3;
  m_LUT[176][1] = 14;
  m_LUT[177][1] = 0;
  m_LUT[178][1] = 4;
  m_LUT[179][1] = 67;
  m_LUT[180][1] = 14;
  m_LUT[181][1] = 0;
  m_LUT[182][1] = 12;
  m_LUT[183][1] = 10;
  m_LUT[184][1] = 32;
  m_LUT[185][1] = 91;
  m_LUT[186][1] = 2;
  m_LUT[187][1] = 83;
  m_LUT[188][1] = 17;
  m_LUT[189][1] = 17;
  m_LUT[190][1] = 64;
  m_LUT[191][1] = 71;
  m_LUT[192][1] = 3;
  m_LUT[193][1] = 7;
  m_LUT[194][1] = 3;
  m_LUT[195][1] = 24;
  m_LUT[196][1] = 2;
  m_LUT[197][1] = 2;
  m_LUT[198][1] = 18;
  m_LUT[199][1] = 20;
  m_LUT[200][1] = 6;
  m_LUT[201][1] = 19;
  m_LUT[202][1] = 6;
  m_LUT[203][1] = 21;
  m_LUT[204][1] = 2;
  m_LUT[205][1] = 64;
  m_LUT[206][1] = 68;
  m_LUT[207][1] = 65;
  m_LUT[208][1] = 15;
  m_LUT[209][1] = 36;
  m_LUT[210][1] = 15;
  m_LUT[211][1] = 19;
  m_LUT[212][1] = 6;
  m_LUT[213][1] = 0;
  m_LUT[214][1] = 13;
  m_LUT[215][1] = 66;
  m_LUT[216][1] = 2;
  m_LUT[217][1] = 90;
  m_LUT[218][1] = 2;
  m_LUT[219][1] = 19;
  m_LUT[220][1] = 65;
  m_LUT[221][1] = 81;
  m_LUT[222][1] = 11;
  m_LUT[223][1] = 69;
  m_LUT[224][1] = 11;
  m_LUT[225][1] = 11;
  m_LUT[226][1] = 38;
  m_LUT[227][1] = 18;
  m_LUT[228][1] = 6;
  m_LUT[229][1] = 6;
  m_LUT[230][1] = 88;
  m_LUT[231][1] = 18;
  m_LUT[232][1] = 2;
  m_LUT[233][1] = 9;
  m_LUT[234][1] = 4;
  m_LUT[235][1] = 65;
  m_LUT[236][1] = 69;
  m_LUT[237][1] = 9;
  m_LUT[238][1] = 80;
  m_LUT[239][1] = 65;
  m_LUT[240][1] = 10;
  m_LUT[241][1] = 73;
  m_LUT[242][1] = 77;
  m_LUT[243][1] = 66;
  m_LUT[244][1] = 76;
  m_LUT[245][1] = 0;
  m_LUT[246][1] = 96;
  m_LUT[247][1] = 66;
  m_LUT[248][1] = 72;
  m_LUT[249][1] = 98;
  m_LUT[250][1] = 2;
  m_LUT[251][1] = 70;
  m_LUT[252][1] = 64;
  m_LUT[253][1] = 68;
  m_LUT[254][1] = 64;
  m_LUT[255][1] = 0;

  m_LocationOffset[1][0] = 0.5;
  m_LocationOffset[2][0] = 1;
  m_LocationOffset[3][0] = 0.5;
  m_LocationOffset[4][0] = 0;
  m_LocationOffset[5][0] = 0.5;
  m_LocationOffset[6][0] = 1;
  m_LocationOffset[7][0] = 0.5;
  m_LocationOffset[8][0] = 0;
  m_LocationOffset[9][0] = 0;
  m_LocationOffset[10][0] = 1;
  m_LocationOffset[11][0] = 1;
  m_LocationOffset[12][0] = 0;
  m_LocationOffset[13][0] = 0.5;
  m_LocationOffset[1][1] = 0;
  m_LocationOffset[2][1] = 0.5;
  m_LocationOffset[3][1] = 1;
  m_LocationOffset[4][1] = 0.5;
  m_LocationOffset[5][1] = 0;
  m_LocationOffset[6][1] = 0.5;
  m_LocationOffset[7][1] = 1;
  m_LocationOffset[8][1] = 0.5;
  m_LocationOffset[9][1] = 0;
  m_LocationOffset[10][1] = 0;
  m_LocationOffset[11][1] = 1;
  m_LocationOffset[12][1] = 1;
  m_LocationOffset[13][1] = 0.5;
  m_LocationOffset[1][2] = 0;
  m_LocationOffset[2][2] = 0;
  m_LocationOffset[3][2] = 0;
  m_LocationOffset[4][2] = 0;
  m_LocationOffset[5][2] = 1;
  m_LocationOffset[6][2] = 1;
  m_LocationOffset[7][2] = 1;
  m_LocationOffset[8][2] = 1;
  m_LocationOffset[9][2] = 0.5;
  m_LocationOffset[10][2] = 0.5;
  m_LocationOffset[11][2] = 0.5;
  m_LocationOffset[12][2] = 0.5;
  m_LocationOffset[13][2] = 0.5;
}

template <typename TInputImage, typename TOutputMesh>
void
BinaryMask3DMeshSource<TInputImage, TOutputMesh>::CreateMesh()
{
  // NOTE ALEX: this is checked by the new pipeline
  // through SetNumberOfRequiredInput
  // if (this->GetNumberOfInputs() < 1)
  //  {
  //  std::cout << "BinaryMask3DMeshSource : Binary image mask not set";
  //  std::cout << std::endl;
  //  return;
  //  }

  // Initialize variables
  m_NumberOfCells = 0;
  m_NumberOfNodes = 0;
  m_NodeLimit = 2000;
  m_CellLimit = 4000;
  m_LastRowIndex = 0;
  m_LastVoxelIndex = 0;
  m_LastFrameIndex = 0;
  m_CurrentRowIndex = 0;
  m_CurrentFrameIndex = 0;
  m_CurrentFrame = nullptr;
  m_CurrentRow = nullptr;
  m_LastRow = nullptr;
  m_LastRowNum = 0;
  m_LastFrameNum = 0;
  m_LastFrame = nullptr;
  m_CurrentRowNum = 200;
  m_CurrentFrameNum = 2000;
  m_OutputMesh = this->GetOutput();
  m_InputImage = this->GetInput();
  m_InputImage = static_cast<const InputImageType *>(this->ProcessObject::GetInput(0));

  InputImageIterator it1(m_InputImage, m_RegionOfInterest);
  InputImageIterator it2(m_InputImage, m_RegionOfInterest);
  InputImageIterator it3(m_InputImage, m_RegionOfInterest);
  InputImageIterator it4(m_InputImage, m_RegionOfInterest);

  it1.GoToBegin();
  it2.GoToBegin();
  it3.GoToBegin();
  it4.GoToBegin();

  InputImageSizeType inputImageSize = m_RegionOfInterest.GetSize();
  m_ImageWidth = inputImageSize[0];
  m_ImageHeight = inputImageSize[1];
  m_ImageDepth = inputImageSize[2];
  int frame = m_ImageWidth * m_ImageHeight;
  int row = m_ImageWidth;

  int i = 0;
  int j;

  while (i < frame)
  {
    ++it3;
    ++it4;
    ++i;
  }

  i = 0;

  while (i < row)
  {
    ++it2;
    ++it4;
    ++i;
  }

  unsigned char vertexindex;

  if (m_CurrentRow)
  {
    for (i = 0; i < 200; ++i)
    {
      free(m_CurrentRow[i]);
    }
    free(m_CurrentRow);
  }
  m_CurrentRow = (IdentifierType **)malloc(200 * sizeof(IdentifierType *));
  for (i = 0; i < 200; ++i)
  {
    m_CurrentRow[i] = (IdentifierType *)malloc(2 * sizeof(IdentifierType));
  }

  if (m_CurrentFrame)
  {
    for (i = 0; i < 2000; ++i)
    {
      free(m_CurrentFrame[i]);
    }
    free(m_CurrentFrame);
  }

  m_CurrentFrame = (IdentifierType **)malloc(2000 * sizeof(IdentifierType *));

  for (i = 0; i < 2000; ++i)
  {
    m_CurrentFrame[i] = (IdentifierType *)malloc(2 * sizeof(IdentifierType));
  }

  i = 0;

  while (!it4.IsAtEnd())
  {
    vertexindex = 0;

    if (Math::ExactlyEquals(it1.Value(), m_ObjectValue))
    {
      vertexindex += 1;
    }
    if (Math::ExactlyEquals(it2.Value(), m_ObjectValue))
    {
      vertexindex += 8;
    }
    if (Math::ExactlyEquals(it3.Value(), m_ObjectValue))
    {
      vertexindex += 16;
    }
    if (Math::ExactlyEquals(it4.Value(), m_ObjectValue))
    {
      vertexindex += 128;
    }
    ++it1;
    ++it2;
    ++it3;
    ++it4;

    if ((i % m_ImageWidth < m_ImageWidth - 1) &&
        ((i % (m_ImageWidth * m_ImageHeight)) / m_ImageWidth < m_ImageHeight - 1))
    {
      if (Math::ExactlyEquals(it1.Value(), m_ObjectValue))
      {
        vertexindex += 2;
      }
      if (Math::ExactlyEquals(it2.Value(), m_ObjectValue))
      {
        vertexindex += 4;
      }
      if (Math::ExactlyEquals(it3.Value(), m_ObjectValue))
      {
        vertexindex += 32;
      }
      if (Math::ExactlyEquals(it4.Value(), m_ObjectValue))
      {
        vertexindex += 64;
      }
    }
    else
    {
      if ((i % (m_ImageWidth * m_ImageHeight)) / m_ImageWidth == m_ImageHeight - 1)
      {
        if (vertexindex > 50)
        {
          vertexindex -= 128;
        }
        if (((vertexindex > 7) && (vertexindex < 10)) || (vertexindex > 17))
        {
          vertexindex -= 8;
        }
        if (Math::ExactlyEquals(it1.Value(), m_ObjectValue))
        {
          vertexindex += 2;
        }
        if (Math::ExactlyEquals(it3.Value(), m_ObjectValue))
        {
          vertexindex += 32;
        }
      }
    }

    for (j = 0; j < 14; ++j)
    {
      m_CurrentVoxel[j] = 0;
    }

    if ((vertexindex == 0) || (vertexindex == 255))
    {
      //      for ( j=0; j<13; j++ ) m_LastVoxel[j] = 0;
    }
    else
    {
      this->AddCells(m_LUT[vertexindex][0], m_LUT[vertexindex][1], i);
    }
    ++i;
  }

  // This indicates that the current BufferedRegion is equal to the
  // requested region. This action prevents useless re-executions of
  // the pipeline.
  this->m_OutputMesh->SetBufferedRegion(this->GetOutput()->GetRequestedRegion());
}

template <typename TInputImage, typename TOutputMesh>
void
BinaryMask3DMeshSource<TInputImage, TOutputMesh>::AddCells(unsigned char celltype, unsigned char celltran, int index)
{

  int               i;
  IdentifierType ** currentrowtmp;
  IdentifierType ** currentframetmp;

  currentrowtmp = (IdentifierType **)malloc(4 * sizeof(IdentifierType *));
  for (i = 0; i < 4; ++i)
  {
    currentrowtmp[i] = (IdentifierType *)malloc(2 * sizeof(IdentifierType));
    currentrowtmp[i][0] = 0;
    currentrowtmp[i][1] = 0;
  }
  currentframetmp = (IdentifierType **)malloc(4 * sizeof(IdentifierType *));
  for (i = 0; i < 4; ++i)
  {
    currentframetmp[i] = (IdentifierType *)malloc(2 * sizeof(IdentifierType));
    currentframetmp[i][0] = 0;
    currentframetmp[i][1] = 0;
  }

  if ((index % m_ImageWidth == 0) || (index > m_LastVoxelIndex + 1))
  {
    m_ColFlag = 0;
    for (i = 0; i < 14; ++i)
    {
      m_LastVoxel[i] = 0;
    }
  }
  else
  {
    m_ColFlag = 1;
  }

  if (((index % (m_ImageWidth * m_ImageHeight)) < m_ImageWidth) || ((index / m_ImageWidth) > m_LastRowIndex + 1))
  {
    m_RowFlag = 0;
  }
  else
  {
    m_RowFlag = 1;
  }

  if ((index < m_ImageWidth * m_ImageHeight) || ((index / (m_ImageWidth * m_ImageHeight)) > m_LastFrameIndex + 1))
  {
    m_FrameFlag = 0;
  }
  else
  {
    m_FrameFlag = 1;
  }

  /** allocate memory */
  if (m_RowFlag == 1)
  {
    if ((index / m_ImageWidth) != m_LastRowIndex)
    {
      if (m_LastRowNum == 0)
      {
        m_LastRow = (IdentifierType **)malloc(m_CurrentRowIndex * sizeof(IdentifierType *));
      }
      else
      {
        if (m_LastRowNum > m_CurrentRowIndex)
        {
          for (i = m_CurrentRowIndex; i < m_LastRowNum; ++i)
          {
            free(m_LastRow[i]);
          }
        }
        m_LastRow = (IdentifierType **)realloc(m_LastRow, m_CurrentRowIndex * sizeof(IdentifierType *));
      }
      for (i = 0; i < m_CurrentRowIndex; ++i)
      {
        if (i > m_LastRowNum - 1)
        {
          m_LastRow[i] = (IdentifierType *)malloc(2 * sizeof(IdentifierType));
        }
        m_LastRow[i][0] = m_CurrentRow[i][0];
        m_LastRow[i][1] = m_CurrentRow[i][1];
      }
      m_LastRowNum = m_CurrentRowIndex;
      m_CurrentRowIndex = 0;
    }
  }
  else
  {
    if (m_ColFlag == 0)
    {
      if (m_LastRowNum > 0)
      {
        for (i = 0; i < m_LastRowNum; ++i)
        {
          free(m_LastRow[i]);
        }
        free(m_LastRow);
        m_LastRow = nullptr;
      }
      m_LastRowNum = 0;
    }
  }

  if (m_FrameFlag == 1)
  {
    if ((index / (m_ImageWidth * m_ImageHeight)) != m_LastFrameIndex)
    {
      if (m_LastFrameNum == 0)
      {
        m_LastFrame = (IdentifierType **)malloc(m_CurrentFrameIndex * sizeof(IdentifierType *));
      }
      else
      {
        if (m_LastFrameNum > m_CurrentFrameIndex)
        {
          for (i = m_CurrentFrameIndex; i < m_LastFrameNum; ++i)
          {
            free(m_LastFrame[i]);
          }
        }
        m_LastFrame = (IdentifierType **)realloc(m_LastFrame, m_CurrentFrameIndex * sizeof(IdentifierType *));
      }
      for (i = 0; i < m_CurrentFrameIndex; ++i)
      {
        if (i > m_LastFrameNum - 1)
        {
          m_LastFrame[i] = (IdentifierType *)malloc(2 * sizeof(IdentifierType));
        }
        m_LastFrame[i][0] = m_CurrentFrame[i][0];
        m_LastFrame[i][1] = m_CurrentFrame[i][1];
      }
      m_LastFrameNum = m_CurrentFrameIndex;
      m_CurrentFrameIndex = 0;
    }
  }
  else
  {
    if (index % (m_ImageWidth * m_ImageHeight) == 0)
    {
      for (i = 0; i < m_LastFrameNum; ++i)
      {
        free(m_LastFrame[i]);
      }
      free(m_LastFrame);
      m_LastFrame = nullptr;
    }
  }

  m_LastVoxelIndex = index;
  m_LastRowIndex = index / m_ImageWidth;
  m_LastFrameIndex = index / (m_ImageWidth * m_ImageHeight);

  m_AvailableNodes[1] = 0;
  m_AvailableNodes[2] = 0;
  m_AvailableNodes[3] = 0;
  m_AvailableNodes[4] = 0;
  m_AvailableNodes[5] = 0;
  m_AvailableNodes[6] = 1;
  m_AvailableNodes[7] = 1;
  m_AvailableNodes[8] = 0;
  m_AvailableNodes[9] = 0;
  m_AvailableNodes[10] = 0;
  m_AvailableNodes[11] = 1;
  m_AvailableNodes[12] = 0;
  m_AvailableNodes[13] = 1;

  if (m_ColFlag == 0)
  {
    m_AvailableNodes[4] = 1;
    m_AvailableNodes[8] = 1;
    m_AvailableNodes[9] = 1;
    m_AvailableNodes[12] = 1;
  }

  if (m_RowFlag == 0)
  {
    m_AvailableNodes[1] = 1;
    m_AvailableNodes[5] = 1;
    m_AvailableNodes[9] = 1;
    m_AvailableNodes[10] = 1;
  }

  if (m_FrameFlag == 0)
  {
    m_AvailableNodes[1] = 1;
    m_AvailableNodes[2] = 1;
    m_AvailableNodes[3] = 1;
    m_AvailableNodes[4] = 1;
  }

  typename TriCell::CellAutoPointer        insertCell;
  typename OutputMeshType::PointIdentifier tripoints[3];
  unsigned char *                          tp;
  tp = (unsigned char *)malloc(3 * sizeof(unsigned char));

  IdentifierType * tpl;
  tpl = (IdentifierType *)malloc(3 * sizeof(IdentifierType));

  switch (static_cast<int>(celltype))
  {
    case 1:
      tp[0] = 1;
      tp[1] = 9;
      tp[2] = 4;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      break;
    case 2:
      tp[0] = 4;
      tp[1] = 2;
      tp[2] = 9;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 10;
      tp[1] = 9;
      tp[2] = 2;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      break;
    case 3:
      tp[0] = 1;
      tp[1] = 9;
      tp[2] = 4;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 2;
      tp[1] = 3;
      tp[2] = 11;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      break;
    case 4:
      tp[0] = 1;
      tp[1] = 9;
      tp[2] = 4;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 6;
      tp[1] = 11;
      tp[2] = 7;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      break;
    case 5:
      tp[0] = 1;
      tp[1] = 2;
      tp[2] = 13;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 1;
      tp[1] = 13;
      tp[2] = 9;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 9;
      tp[1] = 13;
      tp[2] = 8;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 13;
      tp[1] = 2;
      tp[2] = 6;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 13;
      tp[1] = 6;
      tp[2] = 8;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      break;
    case 6:
      tp[0] = 10;
      tp[1] = 9;
      tp[2] = 2;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 4;
      tp[1] = 2;
      tp[2] = 9;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 6;
      tp[1] = 11;
      tp[2] = 7;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      break;
    case 7:
      tp[0] = 1;
      tp[1] = 2;
      tp[2] = 10;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 6;
      tp[1] = 11;
      tp[2] = 7;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 3;
      tp[1] = 4;
      tp[2] = 12;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      break;
    case 8:
      tp[0] = 13;
      tp[1] = 2;
      tp[2] = 6;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 13;
      tp[1] = 6;
      tp[2] = 8;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 13;
      tp[1] = 8;
      tp[2] = 4;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 13;
      tp[1] = 4;
      tp[2] = 2;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      break;
    case 9:
      tp[0] = 1;
      tp[1] = 10;
      tp[2] = 13;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 10;
      tp[1] = 6;
      tp[2] = 13;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 6;
      tp[1] = 7;
      tp[2] = 13;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 7;
      tp[1] = 12;
      tp[2] = 13;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 12;
      tp[1] = 4;
      tp[2] = 13;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 1;
      tp[1] = 13;
      tp[2] = 4;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      break;
    case 10:
      tp[0] = 1;
      tp[1] = 9;
      tp[2] = 3;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 9;
      tp[1] = 12;
      tp[2] = 3;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 5;
      tp[1] = 10;
      tp[2] = 7;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 10;
      tp[1] = 11;
      tp[2] = 7;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      break;
    case 11:
      tp[0] = 1;
      tp[1] = 10;
      tp[2] = 13;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 13;
      tp[1] = 10;
      tp[2] = 11;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 7;
      tp[1] = 13;
      tp[2] = 11;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 7;
      tp[1] = 8;
      tp[2] = 13;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 13;
      tp[1] = 8;
      tp[2] = 4;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 1;
      tp[1] = 13;
      tp[2] = 4;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      break;
    case 12:
      tp[0] = 1;
      tp[1] = 2;
      tp[2] = 13;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 1;
      tp[1] = 13;
      tp[2] = 9;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 9;
      tp[1] = 13;
      tp[2] = 8;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 13;
      tp[1] = 2;
      tp[2] = 6;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 13;
      tp[1] = 6;
      tp[2] = 8;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 3;
      tp[1] = 4;
      tp[2] = 12;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      break;
    case 13:
      tp[0] = 1;
      tp[1] = 9;
      tp[2] = 4;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 5;
      tp[1] = 10;
      tp[2] = 6;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 2;
      tp[1] = 3;
      tp[2] = 11;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 8;
      tp[1] = 7;
      tp[2] = 12;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      break;
    case 14:
      tp[0] = 1;
      tp[1] = 10;
      tp[2] = 13;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 10;
      tp[1] = 6;
      tp[2] = 13;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 6;
      tp[1] = 7;
      tp[2] = 13;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 7;
      tp[1] = 12;
      tp[2] = 13;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 12;
      tp[1] = 4;
      tp[2] = 13;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 1;
      tp[1] = 13;
      tp[2] = 4;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 2;
      tp[1] = 3;
      tp[2] = 11;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      break;
    case 15:
      tp[0] = 1;
      tp[1] = 10;
      tp[2] = 13;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 2;
      tp[1] = 13;
      tp[2] = 10;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 2;
      tp[1] = 3;
      tp[2] = 13;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 3;
      tp[1] = 12;
      tp[2] = 13;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 4;
      tp[1] = 13;
      tp[2] = 12;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 1;
      tp[1] = 13;
      tp[2] = 4;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      break;
    case 16:
      tp[0] = 13;
      tp[1] = 1;
      tp[2] = 5;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 5;
      tp[1] = 6;
      tp[2] = 13;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 13;
      tp[1] = 6;
      tp[2] = 2;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 2;
      tp[1] = 3;
      tp[2] = 13;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 3;
      tp[1] = 12;
      tp[2] = 13;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 4;
      tp[1] = 13;
      tp[2] = 12;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      tp[0] = 1;
      tp[1] = 13;
      tp[2] = 4;
      CellTransfer(tp, celltran);
      AddNodes(index, tp, tpl, currentrowtmp, currentframetmp);
      tripoints[0] = tpl[0];
      tripoints[1] = tpl[2];
      tripoints[2] = tpl[1];
      insertCell.TakeOwnership(new TriCell);
      insertCell->SetPointIds(tripoints);
      this->m_OutputMesh->SetCell(m_NumberOfCells, insertCell);
      this->m_OutputMesh->SetCellData(m_NumberOfCells, 0.0);
      ++m_NumberOfCells;
      break;
  }

  i = 0;
  int j;
  while (i < 4)
  {
    if (currentrowtmp[i][0] != 0)
    {
      m_CurrentRow[m_CurrentRowIndex][1] = currentrowtmp[i][1];
      m_CurrentRow[m_CurrentRowIndex++][0] = currentrowtmp[i][0];
      if (m_CurrentRowIndex == m_CurrentRowNum)
      {
        m_CurrentRowNum += 100;
        m_CurrentRow = (IdentifierType **)realloc(m_CurrentRow, sizeof(IdentifierType *) * m_CurrentRowNum);
        for (j = m_CurrentRowIndex; j < m_CurrentRowNum; ++j)
        {
          m_CurrentRow[j] = (IdentifierType *)malloc(sizeof(IdentifierType) * 2);
        }
      }
    }

    if (currentframetmp[i][0] != 0)
    {
      m_CurrentFrame[m_CurrentFrameIndex][1] = currentframetmp[i][1];
      m_CurrentFrame[m_CurrentFrameIndex++][0] = currentframetmp[i][0];
      if (m_CurrentFrameIndex == m_CurrentFrameNum)
      {
        m_CurrentFrameNum += 1000;
        m_CurrentFrame = (IdentifierType **)realloc(m_CurrentFrame, sizeof(IdentifierType *) * m_CurrentFrameNum);
        for (j = m_CurrentFrameIndex; j < m_CurrentFrameNum; ++j)
        {
          m_CurrentFrame[j] = (IdentifierType *)malloc(sizeof(IdentifierType) * 2);
        }
      }
    }

    ++i;
  }

  for (i = 0; i < 4; ++i)
  {
    free(currentrowtmp[i]);
  }
  free(currentrowtmp);

  for (i = 0; i < 4; ++i)
  {
    free(currentframetmp[i]);
  }

  free(currentframetmp);

  free(tp);
  free(tpl);

  m_LastVoxel[4] = m_CurrentVoxel[2];
  m_LastVoxel[9] = m_CurrentVoxel[10];
  m_LastVoxel[8] = m_CurrentVoxel[6];
  m_LastVoxel[12] = m_CurrentVoxel[11];
  for (i = 1; i < 14; ++i)
  {
    m_CurrentVoxel[i] = 0;
  }
}

template <typename TInputImage, typename TOutputMesh>
void
BinaryMask3DMeshSource<TInputImage, TOutputMesh>::AddNodes(int               index,
                                                           unsigned char *   nodesid,
                                                           IdentifierType *  globalnodesid,
                                                           IdentifierType ** currentrowtmp,
                                                           IdentifierType ** currentframetmp)
{
  int        i;
  OPointType new_p;

  for (i = 0; i < 3; ++i)
  {
    m_PointFound = 0;
    if (m_AvailableNodes[nodesid[i]] != 0)
    {
      m_PointFound = 1;

      using PointValueType = typename OPointType::ValueType;
      using ContinuousIndexType = ContinuousIndex<PointValueType, 3>;

      ContinuousIndexType indTemp;
      indTemp[0] = m_LocationOffset[nodesid[i]][0] + (index % m_ImageWidth) + m_RegionOfInterest.GetIndex()[0];
      indTemp[1] = m_LocationOffset[nodesid[i]][1] + ((index % (m_ImageWidth * m_ImageHeight)) / m_ImageWidth) +
                   m_RegionOfInterest.GetIndex()[1];
      indTemp[2] =
        m_LocationOffset[nodesid[i]][2] + (index / (m_ImageWidth * m_ImageHeight)) + m_RegionOfInterest.GetIndex()[2];


      // We transform the point to the physical space since the mesh does not
      // have the notion
      // of spacing and origin
      this->m_InputImage->TransformContinuousIndexToPhysicalPoint(indTemp, new_p);
      this->m_OutputMesh->SetPoint(m_NumberOfNodes, new_p);

      switch (nodesid[i])
      {
        case 2:
          m_CurrentVoxel[2] = m_NumberOfNodes;
          break;
        case 6:
          m_CurrentVoxel[6] = m_NumberOfNodes;
          currentframetmp[1][1] = m_NumberOfNodes;
          currentframetmp[1][0] = (index % (m_ImageWidth * m_ImageHeight)) * 13 + 2;
          break;
        case 10:
          m_CurrentVoxel[10] = m_NumberOfNodes;
          break;
        case 11:
          m_CurrentVoxel[11] = m_NumberOfNodes;
          currentrowtmp[3][1] = m_NumberOfNodes;
          currentrowtmp[3][0] = (index % m_ImageWidth) * 13 + 10;
          break;
        case 3:
          currentrowtmp[0][1] = m_NumberOfNodes;
          currentrowtmp[0][0] = (index % m_ImageWidth) * 13 + 1;
          break;
        case 7:
          currentrowtmp[1][1] = m_NumberOfNodes;
          currentrowtmp[1][0] = (index % m_ImageWidth) * 13 + 5;
          currentframetmp[2][1] = m_NumberOfNodes;
          currentframetmp[2][0] = (index % (m_ImageWidth * m_ImageHeight)) * 13 + 3;
          break;
        case 12:
          currentrowtmp[2][1] = m_NumberOfNodes;
          currentrowtmp[2][0] = (index % m_ImageWidth) * 13 + 9;
          break;
        case 5:
          currentframetmp[0][1] = m_NumberOfNodes;
          currentframetmp[0][0] = (index % (m_ImageWidth * m_ImageHeight)) * 13 + 1;
          break;
        case 8:
          currentframetmp[3][1] = m_NumberOfNodes;
          currentframetmp[3][0] = (index % (m_ImageWidth * m_ImageHeight)) * 13 + 4;
          break;
        case 1:
          m_CurrentVoxel[1] = m_NumberOfNodes;
          break;
        case 4:
          m_CurrentVoxel[4] = m_NumberOfNodes;
          break;
        case 9:
          m_CurrentVoxel[9] = m_NumberOfNodes;
          break;
        case 13:
          m_CurrentVoxel[13] = m_NumberOfNodes;
          break;
      }
      globalnodesid[i] = m_NumberOfNodes;
      m_AvailableNodes[nodesid[i]] = 0;
      m_CurrentVoxel[nodesid[i]] = m_NumberOfNodes;
      ++m_NumberOfNodes;
    }
    else
    {
      if (m_CurrentVoxel[nodesid[i]] != 0)
      {
        globalnodesid[i] = m_CurrentVoxel[nodesid[i]];
        m_PointFound = 1;

        continue;
      }
      if (m_LastVoxel[nodesid[i]] != 0)
      {
        globalnodesid[i] = m_LastVoxel[nodesid[i]];
        m_PointFound = 1;

        continue;
      }
      if ((m_LastRowNum != 0) && ((nodesid[i] == 1) || (nodesid[i] == 5) || (nodesid[i] == 9) || (nodesid[i] == 10)))
      {
        globalnodesid[i] = this->SearchThroughLastRow((index % m_ImageWidth) * 13 + nodesid[i], 0, m_LastRowNum - 1);
        if (m_PointFound != 0)
        {
          continue;
        }
        else
        {
          if (nodesid[i] == 9)
          {
            globalnodesid[i] = this->SearchThroughLastRow((index % m_ImageWidth) * 13 - 3, 0, m_LastRowNum - 1);
          }
          if (nodesid[i] == 10)
          {
            globalnodesid[i] = this->SearchThroughLastRow((index % m_ImageWidth) * 13 + 22, 0, m_LastRowNum - 1);
          }
          if (m_PointFound != 0)
          {
            continue;
          }
        }
      }
      if ((m_LastFrameNum != 0) && ((nodesid[i] == 1) || (nodesid[i] == 2) || (nodesid[i] == 3) || (nodesid[i] == 4)))
      {
        globalnodesid[i] = this->SearchThroughLastFrame(
          (index % (m_ImageWidth * m_ImageHeight)) * 13 + nodesid[i], 0, m_LastFrameNum - 1);
        if (m_PointFound != 0)
        {
          continue;
        }
        else
        {
          if (nodesid[i] == 4)
          {
            globalnodesid[i] =
              this->SearchThroughLastFrame((index % (m_ImageWidth * m_ImageHeight)) * 13 - 11, 0, m_LastFrameNum - 1);
          }
          if (nodesid[i] == 1)
          {
            globalnodesid[i] = this->SearchThroughLastFrame(
              (index % (m_ImageWidth * m_ImageHeight) - m_ImageWidth) * 13 + 3, 0, m_LastFrameNum - 1);
          }
          if (m_PointFound != 0)
          {
            continue;
          }
        }
      }
    }

    if (m_PointFound == 0)
    {
      m_AvailableNodes[nodesid[i]] = 1;
      --i;
    }
  }
}

template <typename TInputImage, typename TOutputMesh>
void
BinaryMask3DMeshSource<TInputImage, TOutputMesh>::CellTransfer(unsigned char * nodesid, unsigned char celltran)
{
  if ((celltran & 1) != 0)
  {
    this->ZFlip(nodesid);
    if (celltran > 64)
    {
      celltran -= 64;
    }
    else
    {
      celltran += 64;
    }
  }
  if ((celltran & 2) != 0)
  {
    this->YFlip(nodesid);
    if (celltran > 64)
    {
      celltran -= 64;
    }
    else
    {
      celltran += 64;
    }
  }
  if ((celltran & 4) != 0)
  {
    this->XFlip(nodesid);
    if (celltran > 64)
    {
      celltran -= 64;
    }
    else
    {
      celltran += 64;
    }
  }
  if ((celltran & 8) != 0)
  {
    this->ZRotation(nodesid);
  }
  if ((celltran & 16) != 0)
  {
    this->YRotation(nodesid);
  }
  if ((celltran & 32) != 0)
  {
    this->XRotation(nodesid);
  }
  if ((celltran & 64) != 0)
  {
    this->inverse(nodesid);
  }
}

template <typename TInputImage, typename TOutputMesh>
IdentifierType
BinaryMask3DMeshSource<TInputImage, TOutputMesh>::SearchThroughLastRow(int index, int start, int end)
{
  int  mid;
  auto lindex = static_cast<IdentifierType>(index);

  if ((end - start) > 1)
  {
    mid = static_cast<int>(std::floor(static_cast<float>((start + end) / 2)));
    if (lindex == m_LastRow[mid][0])
    {
      m_PointFound = 1;
      return m_LastRow[mid][1];
    }
    else
    {
      if (lindex > m_LastRow[mid][0])
      {
        return this->SearchThroughLastRow(index, mid + 1, end);
      }
      else
      {
        return this->SearchThroughLastRow(index, start, mid);
      }
    }
  }
  else
  {
    if (lindex == m_LastRow[start][0])
    {
      m_PointFound = 1;
      return m_LastRow[start][1];
    }
    if (lindex == m_LastRow[end][0])
    {
      m_PointFound = 1;
      return m_LastRow[end][1];
    }
  }
  return 0;
}

template <typename TInputImage, typename TOutputMesh>
IdentifierType
BinaryMask3DMeshSource<TInputImage, TOutputMesh>::SearchThroughLastFrame(int index, int start, int end)
{
  int            mid;
  auto           lindex = static_cast<IdentifierType>(index);
  IdentifierType result = 0;

  if ((end - start) > 1)
  {
    mid = static_cast<int>(std::floor(static_cast<float>((start + end) / 2)));
    if (lindex == m_LastFrame[mid][0])
    {
      m_PointFound = 1;
      result = m_LastFrame[mid][1];
    }
    else
    {
      if (lindex > m_LastFrame[mid][0])
      {
        result = this->SearchThroughLastFrame(index, mid + 1, end);
      }
      else
      {
        result = this->SearchThroughLastFrame(index, start, mid);
      }
    }
  }
  else
  {
    if (lindex == m_LastFrame[start][0])
    {
      m_PointFound = 1;
      result = m_LastFrame[start][1];
    }
    if (lindex == m_LastFrame[end][0])
    {
      m_PointFound = 1;
      result = m_LastFrame[end][1];
    }
  }
  return result;
}

template <typename TInputImage, typename TOutputMesh>
void
BinaryMask3DMeshSource<TInputImage, TOutputMesh>::PrintSelf(std::ostream & os, Indent indent) const
{
  Superclass::PrintSelf(os, indent);

  os << indent << "RegionOfInterestProvidedByUser: " << (m_RegionOfInterestProvidedByUser ? "On" : "Off") << std::endl;
  os << indent << "RegionOfInterest: " << m_RegionOfInterest << std::endl;

  os << indent << "LUT: " << m_LUT << std::endl;

  os << indent << "LastVoxel: " << static_cast<typename NumericTraits<IdentifierType>::PrintType>(*m_LastVoxel)
     << std::endl;
  os << indent << "CurrentVoxel: " << static_cast<typename NumericTraits<IdentifierType>::PrintType>(*m_CurrentVoxel)
     << std::endl;

  os << indent << "LastRow: ";
  if (m_LastRow != nullptr)
  {
    if (*m_LastRow != nullptr)
    {
      os << static_cast<typename NumericTraits<IdentifierType>::PrintType>(**m_LastRow) << std::endl;
    }
  }
  else
  {
    os << "(null)" << std::endl;
  }

  os << indent << "LastFrame: ";
  if (m_LastFrame != nullptr)
  {
    if (*m_LastFrame != nullptr)
    {
      os << static_cast<typename NumericTraits<IdentifierType>::PrintType>(**m_LastFrame) << std::endl;
    }
  }
  else
  {
    os << "(null)" << std::endl;
  }

  os << indent << "CurrentRow: ";
  if (m_CurrentRow != nullptr)
  {
    if (*m_CurrentRow != nullptr)
    {
      os << static_cast<typename NumericTraits<IdentifierType>::PrintType>(**m_CurrentRow) << std::endl;
    }
  }
  else
  {
    os << "(null)" << std::endl;
  }

  os << indent << "CurrentFrame: ";
  if (m_CurrentFrame != nullptr)
  {
    if (*m_CurrentFrame != nullptr)
    {
      os << static_cast<typename NumericTraits<IdentifierType>::PrintType>(**m_CurrentFrame) << std::endl;
    }
  }
  else
  {
    os << "(null)" << std::endl;
  }

  os << indent << "CurrentRowIndex: " << m_CurrentRowIndex << std::endl;
  os << indent << "CurrentFrameIndex: " << m_CurrentFrameIndex << std::endl;
  os << indent << "LastRowNum: " << m_LastRowNum << std::endl;
  os << indent << "LastFrameNum: " << m_LastFrameNum << std::endl;
  os << indent << "CurrentRowNum: " << m_CurrentRowNum << std::endl;
  os << indent << "CurrentFrameNum: " << m_CurrentFrameNum << std::endl;
  os << indent << "AvailableNodes: " << m_AvailableNodes << std::endl;

  os << indent << "LocationOffset: " << m_LocationOffset << std::endl;

  os << indent << "NumberOfNodes: " << static_cast<typename NumericTraits<SizeValueType>::PrintType>(m_NumberOfNodes)
     << std::endl;
  os << indent << "NumberOfCells: " << static_cast<typename NumericTraits<SizeValueType>::PrintType>(m_NumberOfCells)
     << std::endl;

  os << indent << "NodeLimit: " << m_NodeLimit << std::endl;
  os << indent << "CellLimit: " << m_CellLimit << std::endl;
  os << indent << "ImageWidth: " << m_ImageWidth << std::endl;
  os << indent << "ImageHeight: " << m_ImageHeight << std::endl;
  os << indent << "ImageDepth: " << m_ImageDepth << std::endl;
  os << indent << "ColFlag: " << m_ColFlag << std::endl;
  os << indent << "RowFlag: " << m_RowFlag << std::endl;
  os << indent << "FrameFlag: " << m_FrameFlag << std::endl;
  os << indent << "LastRowIndex: " << m_LastRowIndex << std::endl;
  os << indent << "LastVoxelIndex: " << m_LastVoxelIndex << std::endl;
  os << indent << "LastFrameIndex: " << m_LastFrameIndex << std::endl;

  os << indent << "PointFound: " << m_PointFound << std::endl;
  os << indent << "ObjectValue: " << static_cast<typename NumericTraits<InputPixelType>::PrintType>(m_ObjectValue)
     << std::endl;

  os << indent << "m_OutputMesh: ";
  if (m_OutputMesh != nullptr)
  {
    os << *m_OutputMesh << std::endl;
  }
  else
  {
    os << "(null)" << std::endl;
  }

  os << indent << "InputImage: ";
  if (m_InputImage != nullptr)
  {
    os << *m_InputImage << std::endl;
  }
  else
  {
    os << "(null)" << std::endl;
  }
}
} // namespace itk

#endif