IO/Exodus/vtkExodusIIReader.cxx

/*=========================================================================

  Program:   Visualization Toolkit
  Module:    vtkExodusIIReader.cxx

  Copyright (c) Ken Martin, Will Schroeder, Bill Lorensen
  All rights reserved.
  See Copyright.txt or http://www.kitware.com/Copyright.htm for details.

     This software is distributed WITHOUT ANY WARRANTY; without even
     the implied warranty of MERCHANTABILITY or FITNESS FOR A PARTICULAR
     PURPOSE.  See the above copyright notice for more information.

=========================================================================*/
/*----------------------------------------------------------------------------
 Copyright (c) Sandia Corporation
 See Copyright.txt or http://www.paraview.org/HTML/Copyright.html for details.
----------------------------------------------------------------------------*/
#include "vtkExodusIIReader.h"
#include "vtkExodusIICache.h"

#include "vtkCellArray.h"
#include "vtkCellData.h"
#include "vtkCellType.h"
#include "vtkCharArray.h"
#include "vtkDoubleArray.h"
#include "vtkExodusIIReaderParser.h"
#include "vtkFloatArray.h"
#include "vtkIdTypeArray.h"
#include "vtkInformation.h"
#include "vtkInformationIntegerKey.h"
#include "vtkInformationVector.h"
#include "vtkIntArray.h"
#include "vtkLogger.h"
#include "vtkMath.h"
#include "vtkMultiBlockDataSet.h"
#include "vtkMutableDirectedGraph.h"
#include "vtkNew.h"
#include "vtkObjectFactory.h"
#include "vtkPointData.h"
#include "vtkPoints.h"
#include "vtkPolyData.h"
#include "vtkSmartPointer.h"
#include "vtkSortDataArray.h"
#include "vtkStdString.h"
#include "vtkStreamingDemandDrivenPipeline.h"
#include "vtkStringArray.h"
#include "vtkTypeInt64Array.h"
#include "vtkUnsignedCharArray.h"
#include "vtkUnstructuredGrid.h"
#include "vtkVariantArray.h"
#include "vtkXMLParser.h"

#include "vtksys/SystemTools.hxx"
#include <algorithm>
#include <deque>
#include <map>
#include <set>
#include <string>
#include <vector>

#include "vtksys/RegularExpression.hxx"

#include "vtk_exodusII.h"
#include <cctype> /* for toupper(), isgraph() */
#include <cmath>  /* for cos() */
#include <cstdio>
#include <cstdlib> /* for free() */
#include <cstring> /* for memset() */

#ifdef EXODUSII_HAVE_MALLOC_H
#include <malloc.h>
#endif /* EXODUSII_HAVE_MALLOC_H */

/// Define this to get printouts summarizing array glomming process
#undef VTK_DBG_GLOM

#define VTK_EXO_FUNC(funcall, errmsg)                                                              \
  if ((funcall) < 0)                                                                               \
  {                                                                                                \
    vtkErrorMacro(errmsg);                                                                         \
    return 1;                                                                                      \
  }

// ------------------------------------------------------------------- CONSTANTS
static int obj_types[] = { EX_EDGE_BLOCK, EX_FACE_BLOCK, EX_ELEM_BLOCK, EX_NODE_SET, EX_EDGE_SET,
  EX_FACE_SET, EX_SIDE_SET, EX_ELEM_SET, EX_NODE_MAP, EX_EDGE_MAP, EX_FACE_MAP, EX_ELEM_MAP,
  EX_NODAL };

static int num_obj_types = (int)(sizeof(obj_types) / sizeof(obj_types[0]));

static ex_inquiry obj_sizes[] = { EX_INQ_EDGE_BLK, EX_INQ_FACE_BLK, EX_INQ_ELEM_BLK,
  EX_INQ_NODE_SETS, EX_INQ_EDGE_SETS, EX_INQ_FACE_SETS, EX_INQ_SIDE_SETS, EX_INQ_ELEM_SETS,
  EX_INQ_NODE_MAP, EX_INQ_EDGE_MAP, EX_INQ_FACE_MAP, EX_INQ_ELEM_MAP, EX_INQ_NODES };

static const char* objtype_names[] = { "Edge block", "Face block", "Element block", "Node set",
  "Edge set", "Face set", "Side set", "Element set", "Node map", "Edge map", "Face map",
  "Element map", "Nodal" };

static const char* obj_typestr[] = { "L", "F", "E", "M", "D", "A", "S", "T",
  nullptr, /* maps have no result variables */
  nullptr, nullptr, nullptr, "N" };

#define OBJTYPE_IS_BLOCK(i) (((i) >= 0) && ((i) < 3))
#define OBJTYPE_IS_SET(i) (((i) > 2) && ((i) < 8))
#define OBJTYPE_IS_MAP(i) (((i) > 7) && ((i) < 12))
#define OBJTYPE_IS_NODAL(i) ((i) == 12)

// Unlike obj* items above:
// - conn* arrays only reference objects that generate connectivity information
// - conn* arrays are ordered the way users expect the output (*not* the same as above)
static int conn_types[] = { vtkExodusIIReader::ELEM_BLOCK_ELEM_CONN,
  vtkExodusIIReader::FACE_BLOCK_CONN, vtkExodusIIReader::EDGE_BLOCK_CONN,
  vtkExodusIIReader::ELEM_SET_CONN, vtkExodusIIReader::SIDE_SET_CONN,
  vtkExodusIIReader::FACE_SET_CONN, vtkExodusIIReader::EDGE_SET_CONN,
  vtkExodusIIReader::NODE_SET_CONN };

static const char* conn_types_names[] = { "Element Blocks", "Face Blocks", "Edge Blocks",
  "Element Sets", "Side Sets", "Face Sets", "Edge Sets", "Node Sets" };

static int num_conn_types = (int)(sizeof(conn_types) / sizeof(conn_types[0]));

// Given a conn_type index, what is its matching obj_type index?
static int conn_obj_idx_cvt[] = { 2, 1, 0, 7, 6, 5, 4, 3 };

#define CONNTYPE_IS_BLOCK(i) (((i) >= 0) && ((i) < 3))
#define CONNTYPE_IS_SET(i) (((i) > 2) && ((i) < 8))

static const char* glomTypeNames[] = { "Scalar", "Vector2", "Vector3", "Symmetric Tensor",
  "Integration Point Values" };

// used to store pointer to ex_get_node_num_map or ex_get_elem_num_map:
extern "C"
{
  typedef int (*vtkExodusIIGetMapFunc)(int, int*);
}

// --------------------------------------------------- PRIVATE CLASS DECLARATION
#include "vtkExodusIIReaderPrivate.h"
#include "vtkExodusIIReaderVariableCheck.h"

// --------------------------------------------------- PRIVATE CLASS Implementations
vtkExodusIIReaderPrivate::BlockSetInfoType::BlockSetInfoType(
  const vtkExodusIIReaderPrivate::BlockSetInfoType& block)
  : vtkExodusIIReaderPrivate::ObjectInfoType(block)
  , FileOffset(block.FileOffset)
  , PointMap(block.PointMap)
  , ReversePointMap(block.ReversePointMap)
  , CachedConnectivity(nullptr)
{
  // this is needed to properly manage memory.
  // when vectors are resized or reserved the container
  // might be copied to a memory spot, so we need a proper copy constructor
  // so that the cache remains valid
  this->CachedConnectivity = block.CachedConnectivity;
}

vtkExodusIIReaderPrivate::BlockSetInfoType::~BlockSetInfoType()
{
  if (this->CachedConnectivity)
  {
    this->CachedConnectivity->Delete();
  }
}

vtkExodusIIReaderPrivate::BlockSetInfoType& vtkExodusIIReaderPrivate::BlockSetInfoType::operator=(
  const vtkExodusIIReaderPrivate::BlockSetInfoType& block)
{
  // protect against invalid self-assignment
  if (this != &block)
  {
    // superclass
    this->ObjectInfoType::operator=(static_cast<ObjectInfoType const&>(block));

    // delete existing
    if (this->CachedConnectivity)
    {
      this->CachedConnectivity->Delete();
      this->CachedConnectivity = nullptr;
    }

    this->FileOffset = block.FileOffset;
    this->PointMap = block.PointMap;
    this->ReversePointMap = block.ReversePointMap;
    this->NextSqueezePoint = block.NextSqueezePoint;
    if (block.CachedConnectivity)
    {
      this->CachedConnectivity = vtkUnstructuredGrid::New();
      this->CachedConnectivity->ShallowCopy(block.CachedConnectivity);
    }
  }

  return *this;
}

// ----------------------------------------------------------- UTILITY ROUTINES

// This function exists because FORTRAN ordering sucks.
static void extractTruthForVar(
  int num_obj, int num_vars, const int* truth_tab, int var, std::vector<int>& truth)
{
  truth.clear();

  int obj;
  int ttObj; // truth table entry for variable var on object obj.
  for (obj = 0; obj < num_obj; ++obj)
  {
    ttObj = truth_tab[var + obj * num_vars];
    truth.push_back(ttObj);
  }
}

static void printBlock(
  ostream& os, vtkIndent indent, int btyp, vtkExodusIIReaderPrivate::BlockInfoType& binfo)
{
  int b = 0;
  while (obj_types[b] >= 0 && obj_types[b] != btyp)
    ++b;
  const char* btypnam = objtype_names[b];
  os << indent << btypnam << " " << binfo.Id << " \"" << binfo.Name.c_str() << "\" (" << binfo.Size
     << ")\n";
  os << indent << "    FileOffset: " << binfo.FileOffset << "\n";
  os << indent << "    CachedConn: " << binfo.CachedConnectivity << " (" << binfo.Status << ")\n";
  os << indent << "    PointMap: " << binfo.PointMap.size() << " entries, "
     << "ReversePointMap: " << binfo.ReversePointMap.size() << " entries\n";
  os << indent << "    Type: " << binfo.TypeName.c_str() << "\n";
  os << indent << "    Bounds per entry, Node: " << binfo.BdsPerEntry[0]
     << " Edge: " << binfo.BdsPerEntry[1] << " Face: " << binfo.BdsPerEntry[2] << "\n";
  os << indent << "    Attributes (" << binfo.AttributesPerEntry << "):";
  int a;
  for (a = 0; a < binfo.AttributesPerEntry; ++a)
  {
    os << " \"" << binfo.AttributeNames[a].c_str() << "\"(" << binfo.AttributeStatus[a] << ")";
  }
  os << "\n";
}

static void printSet(
  ostream& os, vtkIndent indent, int styp, vtkExodusIIReaderPrivate::SetInfoType& sinfo)
{
  int s = 0;
  while (obj_types[s] >= 0 && obj_types[s] != styp)
    ++s;
  const char* stypnam = objtype_names[s];
  os << indent << stypnam << " " << sinfo.Id << " \"" << sinfo.Name.c_str() << "\" (" << sinfo.Size
     << ")\n";
  os << indent << "    FileOffset: " << sinfo.FileOffset << "\n";
  os << indent << "    CachedConn: " << sinfo.CachedConnectivity << " (" << sinfo.Status << ")\n";
  os << indent << "    PointMap: " << sinfo.PointMap.size() << " entries, "
     << "ReversePointMap: " << sinfo.ReversePointMap.size() << " entries\n";
  os << indent << "    DistFact: " << sinfo.DistFact << "\n";
}

static void printMap(
  ostream& os, vtkIndent indent, int mtyp, vtkExodusIIReaderPrivate::MapInfoType& minfo)
{
  int m = 0;
  while (obj_types[m] >= 0 && obj_types[m] != mtyp)
    ++m;
  const char* mtypnam = objtype_names[m];
  os << indent << mtypnam << " " << minfo.Id << " \"" << minfo.Name.c_str() << "\" (" << minfo.Size
     << ")\n";
  os << indent << "    Status: " << minfo.Status << "\n";
}

static void printArray(
  ostream& os, vtkIndent indent, int atyp, vtkExodusIIReaderPrivate::ArrayInfoType& ainfo)
{
  (void)atyp;
  os << indent << "    " << ainfo.Name.c_str() << " [" << ainfo.Status << "] ( " << ainfo.Components
     << " = { ";
  os << ainfo.OriginalIndices[0] << " \"" << ainfo.OriginalNames[0] << "\"";
  int i;
  for (i = 1; i < (int)ainfo.OriginalIndices.size(); ++i)
  {
    os << ", " << ainfo.OriginalIndices[i] << " \"" << ainfo.OriginalNames[i] << "\"";
  }
  os << " } )\n";
  os << indent << "    " << glomTypeNames[ainfo.GlomType] << " Truth:";
  for (i = 0; i < (int)ainfo.ObjectTruth.size(); ++i)
  {
    os << " " << ainfo.ObjectTruth[i];
  }
  os << "\n";
}

// --------------------------------------------------- PRIVATE SUBCLASS MEMBERS
void vtkExodusIIReaderPrivate::ArrayInfoType::Reset()
{
  if (!this->Name.empty())
  {
    this->Name.erase(this->Name.begin(), this->Name.end());
  }
  this->Components = 0;
  this->GlomType = -1;
  this->Status = 0;
  this->Source = -1;
  this->OriginalNames.clear();
  this->OriginalIndices.clear();
  this->ObjectTruth.clear();
}

// ------------------------------------------------------- PRIVATE CLASS MEMBERS
vtkStandardNewMacro(vtkExodusIIReaderPrivate);

//------------------------------------------------------------------------------
vtkExodusIIReaderPrivate::vtkExodusIIReaderPrivate()
{
  this->Exoid = -1;
  this->ExodusVersion = -1.;

  this->AppWordSize = 8;
  this->DiskWordSize = 8;

  this->Cache = vtkExodusIICache::New();
  this->CacheSize = 0;

  this->HasModeShapes = 0;
  this->ModeShapeTime = -1.;
  this->AnimateModeShapes = 1;

  this->IgnoreFileTime = false;

  this->GenerateObjectIdArray = 1;
  this->GenerateGlobalElementIdArray = 0;
  this->GenerateGlobalNodeIdArray = 0;
  this->GenerateImplicitElementIdArray = 0;
  this->GenerateImplicitNodeIdArray = 0;
  this->GenerateGlobalIdArray = 0;
  this->GenerateFileIdArray = 0;
  this->FileId = 0;
  this->ApplyDisplacements = 1;
  this->DisplacementMagnitude = 1.;

  this->SqueezePoints = 1;

  this->Parser = nullptr;

  this->SIL = vtkMutableDirectedGraph::New();
  this->SkipUpdateTimeInformation = false;

  memset((void*)&this->ModelParameters, 0, sizeof(this->ModelParameters));
}

//------------------------------------------------------------------------------
vtkExodusIIReaderPrivate::~vtkExodusIIReaderPrivate()
{
  this->CloseFile();
  this->Cache->Delete();
  this->CacheSize = 0;
  this->ClearConnectivityCaches();
  if (this->Parser)
  {
    this->Parser->Delete();
    this->Parser = nullptr;
  }
  this->SIL->Delete();
  this->SIL = nullptr;
}

//------------------------------------------------------------------------------
void vtkExodusIIReaderPrivate::GlomArrayNames(
  int objtyp, int num_obj, int num_vars, char** var_names, int* truth_tab)
{
  // Clear out existing array names since we are re-reading them in.
  this->ArrayInfo[objtyp].clear();

  // Create some objects that try to glom names together in different ways.
  const char endRZ[] = "RZ";
  const char endV2[] = "xy";
  const char endV3[] = "xYz";
  const char endST23[] = "XXYYZZXYXZYZ";
  const char endST34[] = "XXXYYYZZZWWWXXYXXZXXWXYYXYZXYWXZZXZWXWWYYZYYWYZZYZWYWWZZWZWW";

  vtkExodusIIReaderScalarCheck* scalar = new vtkExodusIIReaderScalarCheck;
  // vtkExodusIIReaderVectorCheck* vecx2 = new vtkExodusIIReaderVectorCheck( endV2, 2 );
  // vtkExodusIIReaderVectorCheck* vecx3 = new vtkExodusIIReaderVectorCheck( endV3, 3 );
  // vtkExodusIIReaderVectorCheck* vecrz = new vtkExodusIIReaderVectorCheck( endRZ, 2 );
  vtkExodusIIReaderTensorCheck* vecx2 = new vtkExodusIIReaderTensorCheck(endV2, 2, 1, 2);
  vtkExodusIIReaderTensorCheck* vecx3 = new vtkExodusIIReaderTensorCheck(endV3, 3, 1, 3);
  vtkExodusIIReaderTensorCheck* vecrz = new vtkExodusIIReaderTensorCheck(endRZ, 2, 1, 2);
  vtkExodusIIReaderTensorCheck* ten23 = new vtkExodusIIReaderTensorCheck(endST23, 6, 2, 3);
  vtkExodusIIReaderTensorCheck* ten34 = new vtkExodusIIReaderTensorCheck(endST34, 20, 3, 4);
  vtkExodusIIReaderIntPointCheck* intpt = new vtkExodusIIReaderIntPointCheck;
  typedef std::vector<vtkExodusIIReaderVariableCheck*> glomVec;
  glomVec glommers;
  glommers.push_back(scalar);
  glommers.push_back(vecx2);
  glommers.push_back(vecx3);
  glommers.push_back(vecrz);
  glommers.push_back(ten23);
  glommers.push_back(ten34);
  glommers.push_back(intpt);
  glomVec::iterator glommer;
  std::vector<int> tmpTruth;
  // Advance through the variable names.
  for (int i = 0; i < num_vars; ++i)
  {
    // Prepare all the glommers with the next unused variable name
    extractTruthForVar(num_obj, num_vars, truth_tab, i, tmpTruth);
    bool stop = true;
    for (glommer = glommers.begin(); glommer != glommers.end(); ++glommer)
    {
      if ((*glommer)->Start(var_names[i], &tmpTruth[0], num_obj))
      {
        stop = false;
      }
    }
    int j = i + 1;
    // If any glommers can continue accepting names, give them more names until no more can accept
    // names
    while (j < num_vars && !stop)
    {
      stop = true;
      for (glommer = glommers.begin(); glommer != glommers.end(); ++glommer)
      {
        if ((*glommer)->Add(var_names[j], &tmpTruth[0]))
        {
          stop = false;
        }
      }
      ++j;
    }
    // Find longest glom that worked. (The scalar glommer always works with Length() 1.)
    unsigned int longestGlom = 0;
    glomVec::iterator longestGlommer = glommers.end();
    for (glommer = glommers.begin(); glommer != glommers.end(); ++glommer)
    {
      if ((*glommer)->Length() > longestGlom)
      {
        longestGlom = static_cast<unsigned int>((*glommer)->Length());
        longestGlommer = glommer;
      }
    }
    if (longestGlommer != glommers.end())
    {
      i += (*longestGlommer)->Accept(this->ArrayInfo[objtyp], i, this, objtyp) -
        1; // the ++i takes care of length 1
    }
  }

  // Now see what the gloms were.
  /*
  typedef std::vector<vtkExodusIIReaderPrivate::ArrayInfoType> varVec;
  for ( varVec::iterator it = this->ArrayInfo[objtyp].begin(); it != this->ArrayInfo[objtyp].end();
  ++ it )
    {
    cout << "Name: \"" << it->Name.c_str() << "\" (" << it->Components << ")\n";
    }
    */

  delete scalar;
  delete vecx2;
  delete vecx3;
  delete vecrz;
  delete ten23;
  delete ten34;
  delete intpt;
}

//------------------------------------------------------------------------------
int vtkExodusIIReaderPrivate::AssembleOutputConnectivity(vtkIdType timeStep, int otyp, int oidx,
  int conntypidx, BlockSetInfoType* bsinfop, vtkUnstructuredGrid* output)
{
  // FIXME: Don't think I need this, since we ShallowCopy over it... right?
  output->Reset();
  if (bsinfop->CachedConnectivity)
  {
    output->ShallowCopy(bsinfop->CachedConnectivity);
    return 1;
  }

  // OK, we needed to remake the cache...
  bsinfop->CachedConnectivity = vtkUnstructuredGrid::New();
  bsinfop->CachedConnectivity->Allocate(bsinfop->Size);
  if (this->SqueezePoints)
  {
    bsinfop->NextSqueezePoint = 0;
    bsinfop->PointMap.clear();
    bsinfop->ReversePointMap.clear();
  }

  // Need to assemble connectivity array from smaller ones.
  // Call GetCacheOrRead() for each smaller array

  // Might want to experiment with the effectiveness of caching connectivity...
  //   set up the ExodusIICache class with the ability to never cache some
  //   key types.
  // Might also want to experiment with policies other than LRU, especially
  //   applied to arrays that are not time-varying. During animations, they
  //   will most likely get dropped even though that might not be wise.

  if (CONNTYPE_IS_BLOCK(conntypidx))
  {
    this->InsertBlockCells(
      otyp, oidx, conn_types[conntypidx], timeStep, static_cast<BlockInfoType*>(bsinfop));
  }
  else if (CONNTYPE_IS_SET(conntypidx))
  {
    this->InsertSetCells(
      otyp, oidx, conn_types[conntypidx], timeStep, static_cast<SetInfoType*>(bsinfop));
  }
  else
  {
    vtkErrorMacro("Bad connectivity object type. Harass the responsible programmer.");
  }

  // OK, now copy our cache to the output...
  output->ShallowCopy(bsinfop->CachedConnectivity);
  // this->CachedConnectivity->ShallowCopy( output );
  if (this->SqueezePoints)
  {
    vtkDebugMacro(<< "Squeezed down to " << bsinfop->NextSqueezePoint << " points\n");
  }
  return 0;
}

int vtkExodusIIReaderPrivate::AssembleOutputPoints(
  vtkIdType timeStep, BlockSetInfoType* bsinfop, vtkUnstructuredGrid* output)
{
  (void)timeStep;
  vtkPoints* pts = output->GetPoints();
  if (!pts)
  {
    pts = vtkPoints::New();
    output->SetPoints(pts);
    pts->FastDelete();
  }
  else
  {
    pts->Reset();
  }

  int ts = -1; // If we don't have displacements, only cache the array under one key.
  if (this->ApplyDisplacements && this->FindDisplacementVectors(timeStep))
  { // Otherwise, each time step's array will be different.
    ts = timeStep;
  }

  vtkDataArray* arr =
    this->GetCacheOrRead(vtkExodusIICacheKey(ts, vtkExodusIIReader::NODAL_COORDS, 0, 0));
  if (!arr)
  {
    vtkErrorMacro("Unable to read points from file.");
    return 0;
  }

  if (this->SqueezePoints)
  {
    pts->SetNumberOfPoints(bsinfop->NextSqueezePoint);
    std::map<vtkIdType, vtkIdType>::iterator it;
    for (it = bsinfop->PointMap.begin(); it != bsinfop->PointMap.end(); ++it)
    {
      pts->SetPoint(it->second, arr->GetTuple(it->first));
    }
  }
  else
  {
    pts->SetData(arr);
  }
  return 1;
}

//------------------------------------------------------------------------------
int vtkExodusIIReaderPrivate::AssembleOutputPointArrays(
  vtkIdType timeStep, BlockSetInfoType* bsinfop, vtkUnstructuredGrid* output)
{
  int status = 1;
  std::vector<ArrayInfoType>::iterator ai;
  int aidx = 0;

  for (ai = this->ArrayInfo[vtkExodusIIReader::NODAL].begin();
       ai != this->ArrayInfo[vtkExodusIIReader::NODAL].end(); ++ai, ++aidx)
  {
    if (!ai->Status)
      continue; // Skip arrays we don't want.

    vtkExodusIICacheKey key(timeStep, vtkExodusIIReader::NODAL, 0, aidx);
    vtkDataArray* src = this->GetCacheOrRead(key);
    if (!src)
    {
      vtkDebugMacro(
        "Unable to read point array " << ai->Name.c_str() << " at time step " << timeStep);
      status = 0;
      continue;
    }

    this->AddPointArray(src, bsinfop, output);
  }
  return status;
}

//------------------------------------------------------------------------------
#if 0
// Copy tuples from one array to another, possibly with a different number of components per tuple.
static void vtkEmbedTuplesInLargerArray(
  vtkDataSetAttributes* attr, vtkDataArray* dst, vtkDataArray* src, vtkIdType numTuples, vtkIdType offset )
{
  vtkIdType i;
  int srcNumComp = src->GetNumberOfComponents();
  int dstNumComp = dst->GetNumberOfComponents();
  if ( dstNumComp != srcNumComp )
  { // We've promoted the array from 2-D to 3-D... can't use CopyTuple
    if ( dst->GetDataType() != src->GetDataType() )
    {
      return;
    }
    vtkIdType sid = 0;
    vtkIdType did = offset * dstNumComp;
    int minNumComp = dstNumComp < srcNumComp ? dstNumComp : srcNumComp;
    switch( dst->GetDataType() )
    {
      vtkTemplateMacro(
      {
        VTK_TT* srcTuple = (VTK_TT*) src->GetVoidPointer( sid );
        VTK_TT* dstTuple = (VTK_TT*) dst->GetVoidPointer( did );
        for ( i = 0; i < numTuples; ++i, srcTuple += srcNumComp, dstTuple += dstNumComp )
        {
          for ( int j = 0; j < minNumComp; ++j )
          {
            dstTuple[j] = srcTuple[j];
          }
        }
      }
      );
    }
  }
  else
  {
    for ( i = 0; i < numTuples; ++i )
    {
      attr->CopyTuple( src, dst, i, i + offset );
    }
  }
}
#endif // 0

//------------------------------------------------------------------------------
int vtkExodusIIReaderPrivate::AssembleOutputCellArrays(
  vtkIdType timeStep, int otyp, int obj, BlockSetInfoType* bsinfop, vtkUnstructuredGrid* output)
{
  // Don't create arrays for deselected objects
  if (!output || !bsinfop->Status)
  {
    return 1;
  }

  vtkCellData* cd = output->GetCellData();
  // Load (time-constant) attributes first because their status is in the block info.
  if (otyp == vtkExodusIIReader::ELEM_BLOCK || otyp == vtkExodusIIReader::EDGE_BLOCK ||
    otyp == vtkExodusIIReader::FACE_BLOCK)
  {
    BlockInfoType* binfop = (BlockInfoType*)bsinfop;
    std::vector<int>::iterator atit;
    vtkIdType a = 0;
    for (atit = binfop->AttributeStatus.begin(); atit != binfop->AttributeStatus.end(); ++atit, ++a)
    {
      if (*atit)
      {
        vtkDataArray* arr = this->GetCacheOrRead(
          vtkExodusIICacheKey(timeStep, vtkExodusIIReader::ELEM_BLOCK_ATTRIB, obj, a));
        if (arr)
        {
          cd->AddArray(arr);
        }
      }
    }
  }

  // Panic if we're given a bad otyp.
  std::map<int, std::vector<ArrayInfoType>>::iterator ami = this->ArrayInfo.find(otyp);
  if (ami == this->ArrayInfo.end())
  {
#if 0
    vtkErrorMacro( "Unknown block or set type \"" << otyp << "\" encountered." );
    for ( ami = this->ArrayInfo.begin(); ami != this->ArrayInfo.end(); ++ ami )
    {
      cerr << "   Have type: \"" << ami->first << "\"\n";
    }
    return 0;
#else
    return 1;
#endif // 0
  }

  // For each array defined on objects of the same type as our output,
  // look for ones that are turned on (Status != 0) and have a truth
  // table indicating values are present for object obj in the file.
  std::vector<ArrayInfoType>::iterator ai;
  int aidx = 0;
  for (ai = ami->second.begin(); ai != ami->second.end(); ++ai, ++aidx)
  {
    if (!ai->Status)
      continue;

    if (!ai->ObjectTruth[obj])
      continue;

    vtkDataArray* arr = this->GetCacheOrRead(vtkExodusIICacheKey(timeStep, ami->first, obj, aidx));
    if (arr)
    {
      cd->AddArray(arr);
    }
  }

  return 1;
}

//------------------------------------------------------------------------------
int vtkExodusIIReaderPrivate::AssembleOutputProceduralArrays(
  vtkIdType timeStep, int otyp, int obj, vtkUnstructuredGrid* output)
{
  (void)timeStep;
  int status = 7;
  vtkCellData* cd = output->GetCellData();
  if (this->GenerateObjectIdArray)
  {
    vtkExodusIICacheKey key(-1, vtkExodusIIReader::OBJECT_ID, otyp, obj);
    vtkDataArray* arr = this->GetCacheOrRead(key);
    if (arr)
    {
      cd->AddArray(arr);
      status -= 1;
    }
  }

  if (this->GenerateGlobalElementIdArray &&
    (otyp == vtkExodusIIReader::SIDE_SET_CONN || otyp == vtkExodusIIReader::SIDE_SET))
  {
    vtkExodusIICacheKey ckey(-1, vtkExodusIIReader::ELEMENT_ID, 0, 0);
    vtkIdTypeArray* src = nullptr;

    if (vtkDataArray* elems = this->GetCacheOrRead(ckey))
    {
      src = vtkIdTypeArray::New();
      src->DeepCopy(elems);
    }

    vtkExodusIICacheKey key(-1, vtkExodusIIReader::SIDE_SET_CONN, obj, 1);
    if (vtkDataArray* arr = this->GetCacheOrRead(key))
    {

      vtkIdTypeArray* idarray = vtkArrayDownCast<vtkIdTypeArray>(arr);
      vtkIdTypeArray* elementid = vtkIdTypeArray::New();
      elementid->SetNumberOfTuples(idarray->GetNumberOfTuples());
      elementid->SetName(vtkExodusIIReader::GetSideSetSourceElementIdArrayName());
      vtkIntArray* elementside = vtkIntArray::New();
      elementside->SetNumberOfTuples(idarray->GetNumberOfTuples());
      elementside->SetName(vtkExodusIIReader::GetSideSetSourceElementSideArrayName());
      vtkIdType values[2];

      for (vtkIdType i = 0; i < idarray->GetNumberOfTuples(); i++)
      {
        idarray->GetTypedTuple(i, values);
        if (src == nullptr || src->GetValue(values[0] - 1) <= 0)
        {
          elementid->SetValue(i, values[0] - 1);
        }
        else
        {
          elementid->SetValue(i, src->GetValue(values[0] - 1) - 1); // find the global element id
        }
        // now we have to worry about mapping from exodus canonical side
        // ordering to vtk canonical side ordering for wedges and hexes.
        // Even if the element block isn't loaded that we still know what
        // types of cells it would have contained since all elements
        // in a block are of the same type.
        BlockInfoType* type =
          this->GetBlockFromFileGlobalId(vtkExodusIIReader::ELEM_BLOCK, values[0]);
        switch (type->CellType)
        {
          case VTK_WEDGE:
          {
            int wedgeMapping[5] = { 2, 3, 4, 0, 1 };
            elementside->SetValue(i, wedgeMapping[values[1] - 1]);
            break;
          }
          case VTK_HEXAHEDRON:
          {
            int hexMapping[6] = { 2, 1, 3, 0, 4, 5 };
            elementside->SetValue(i, hexMapping[values[1] - 1]);
            break;
          }
          default:
          { // switch to 0-based indexing
            elementside->SetValue(i, values[1] - 1);
          }
        }
      }
      cd->AddArray(elementid);
      cd->AddArray(elementside);
      elementid->FastDelete();
      elementside->FastDelete();
      status -= 2;
    }

    if (src != nullptr)
    {
      src->Delete();
    }
  }

  if (this->GenerateGlobalElementIdArray && !OBJTYPE_IS_SET(otyp))
  {
    // This retrieves the first new-style map, or if that is not present,
    // the solitary old-style map (which always exists but may be
    // procedurally generated if it is not stored with the file).
    vtkExodusIICacheKey key(-1, vtkExodusIIReader::GLOBAL_ELEMENT_ID, otyp, obj);
    vtkDataArray* arr = this->GetCacheOrRead(key);
    if (arr)
    {
      vtkDataArray* ped = vtkIdTypeArray::New();
      ped->DeepCopy(arr);
      ped->SetName(vtkExodusIIReader::GetPedigreeElementIdArrayName());

      cd->SetGlobalIds(arr);
      cd->SetPedigreeIds(ped);
      ped->FastDelete();

      status -= 2;
    }
  }

  if (this->GenerateGlobalNodeIdArray)
  {
    // This retrieves the first new-style map, or if that is not present,
    // the solitary old-style map (which always exists but may be
    // procedurally generated if it is not stored with the file).
    vtkExodusIICacheKey key(-1, vtkExodusIIReader::GLOBAL_NODE_ID, otyp, obj);
    vtkDataArray* arr = this->GetCacheOrRead(key);
    vtkPointData* pd = output->GetPointData();
    if (arr)
    {
      vtkDataArray* ped = vtkIdTypeArray::New();
      ped->DeepCopy(arr);
      ped->SetName(vtkExodusIIReader::GetPedigreeNodeIdArrayName());

      pd->SetGlobalIds(arr);
      pd->SetPedigreeIds(ped);
      ped->FastDelete();

      status -= 4;
    }
  }

  if (this->GenerateImplicitElementIdArray)
  {
    // This retrieves the old style map if it is a parallel data set.  The old
    // style map stores the global implicit id if parallel.  Otherwise it
    // generates the implicit id.
    vtkExodusIICacheKey key(-1, vtkExodusIIReader::IMPLICIT_ELEMENT_ID, otyp, obj);
    vtkDataArray* arr = this->GetCacheOrRead(key);
    if (arr)
    {
      cd->AddArray(arr);
    }
  }

  if (this->GenerateImplicitNodeIdArray)
  {
    // This retrieves the old style map if it is a parallel data set.  The old
    // style map stores the global implicit id if parallel.  Otherwise it
    // generates the implicit id.
    vtkExodusIICacheKey key(-1, vtkExodusIIReader::IMPLICIT_NODE_ID, otyp, obj);
    vtkDataArray* arr = this->GetCacheOrRead(key);
    vtkPointData* pd = output->GetPointData();
    if (arr)
    {
      pd->AddArray(arr);
    }
  }

  if (this->GenerateFileIdArray)
  { // Don't cache this... it's not worth it.
    vtkIdType numCells = output->GetNumberOfCells();
    vtkIntArray* iarr = vtkIntArray::New();
    iarr->SetNumberOfComponents(1);
    iarr->SetNumberOfTuples(numCells);
    iarr->SetName(vtkExodusIIReaderPrivate::GetFileIdArrayName());
    cd->AddArray(iarr);
    iarr->FastDelete();
    for (vtkIdType i = 0; i < numCells; ++i)
    {
      iarr->SetValue(i, this->FileId);
    }
  }

  return status;
}

//------------------------------------------------------------------------------
int vtkExodusIIReaderPrivate::AssembleOutputGlobalArrays(
  vtkIdType timeStep, int otyp, int obj, BlockSetInfoType* bsinfop, vtkUnstructuredGrid* output)
{
  (void)obj;
  vtkFieldData* ofieldData = output->GetFieldData();

  int status = 1;
  std::vector<ArrayInfoType>::iterator ai;
  int aidx = 0;

  for (ai = this->ArrayInfo[vtkExodusIIReader::GLOBAL].begin();
       ai != this->ArrayInfo[vtkExodusIIReader::GLOBAL].end(); ++ai, ++aidx)
  {
    if (!ai->Status)
    {
      continue;
    }

    // Add time-varying global data
    vtkExodusIICacheKey tdKey(-1, vtkExodusIIReader::GLOBAL_TEMPORAL, -1, aidx);
    vtkDataArray* temporalData = this->GetCacheOrRead(tdKey);
    if (!temporalData)
    {
      vtkDebugMacro("Unable to read array " << ai->Name.c_str());
      status = 0;
      continue;
    }

    ofieldData->AddArray(temporalData);
  }

  // Add block id information for the exodus writer (if we're an element block)
  if (otyp == vtkExodusIIReader::ELEM_BLOCK)
  {
    vtkIntArray* elemBlockIdArray = vtkIntArray::New();
    elemBlockIdArray->SetNumberOfComponents(1);
    elemBlockIdArray->SetNumberOfValues(1); // one elem block per unstructured grid
    elemBlockIdArray->SetName("ElementBlockIds");
    elemBlockIdArray->SetValue(0, bsinfop->Id);
    ofieldData->AddArray(elemBlockIdArray);
    elemBlockIdArray->Delete();
  }

  // Add QA record, title, and INFO record metadata from the Exodus II file
  vtkExodusIICacheKey qakey(-1, vtkExodusIIReader::QA_RECORDS, 0, 0);
  vtkDataArray* arr = this->GetCacheOrRead(qakey);
  if (arr)
  {
    ofieldData->AddArray(arr);
  }

  // Add the title
  {
    vtkStringArray* sarr = vtkStringArray::New();
    sarr->SetName("Title");
    sarr->SetNumberOfComponents(1);
    sarr->SetNumberOfTuples(1);
    sarr->SetValue(0, this->ModelParameters.title);
    ofieldData->AddArray(sarr);
    sarr->Delete();
  }

  // Add mode_shape/time_step
  if (this->HasModeShapes)
  {
    vtkNew<vtkIntArray> dataIndexArray;
    dataIndexArray->SetName("mode_shape");
    dataIndexArray->SetNumberOfComponents(1);
    dataIndexArray->SetNumberOfTuples(1);
    // mode-shape == (timestep + 1). See vtkExodusIIReader::SetModeShape().
    dataIndexArray->SetValue(0, (timeStep + 1));
    ofieldData->AddArray(dataIndexArray);

    vtkNew<vtkIntArray> modeShapeRange;
    modeShapeRange->SetName("mode_shape_range");
    modeShapeRange->SetNumberOfComponents(2);
    modeShapeRange->SetNumberOfTuples(1);
    modeShapeRange->SetValue(0, this->Parent->GetModeShapesRange()[0]);
    modeShapeRange->SetValue(1, this->Parent->GetModeShapesRange()[1]);
    ofieldData->AddArray(modeShapeRange);
  }

  vtkExodusIICacheKey infokey(-1, vtkExodusIIReader::INFO_RECORDS, 0, 0);
  arr = this->GetCacheOrRead(infokey);
  if (arr)
  {
    ofieldData->AddArray(arr);
  }

  return status;
}

//------------------------------------------------------------------------------
int vtkExodusIIReaderPrivate::AssembleOutputPointMaps(
  vtkIdType timeStep, BlockSetInfoType* bsinfop, vtkUnstructuredGrid* output)
{
  (void)timeStep;
  int status = 1;
  std::vector<MapInfoType>::iterator mi;
  int midx = 0;

  for (mi = this->MapInfo[vtkExodusIIReader::NODE_MAP].begin();
       mi != this->MapInfo[vtkExodusIIReader::NODE_MAP].end(); ++mi, ++midx)
  {
    if (!mi->Status)
      continue; // Skip arrays we don't want.

    vtkIdTypeArray* src = vtkArrayDownCast<vtkIdTypeArray>(
      this->GetCacheOrRead(vtkExodusIICacheKey(-1, vtkExodusIIReader::NODE_MAP, 0, midx)));
    if (!src)
    {
      vtkDebugMacro(
        "Unable to read point map array \"" << mi->Name.c_str() << "\" (" << midx << ")");
      status = 0;
      continue;
    }

    this->AddPointArray(src, bsinfop, output);
  }
  return status;
}

//------------------------------------------------------------------------------
int vtkExodusIIReaderPrivate::AssembleOutputCellMaps(vtkIdType vtkNotUsed(timeStep), int otyp,
  int obj, BlockSetInfoType* bsinfop, vtkUnstructuredGrid* output)
{
  (void)obj;
  // Don't create arrays for deselected objects
  if (!output || !bsinfop->Status)
  {
    return 1;
  }

  // Ignore invalid otyp values (sets cannot have maps, only blocks).
  int mtyp = this->GetMapTypeFromObjectType(otyp);
  std::map<int, std::vector<MapInfoType>>::iterator mmi = this->MapInfo.find(mtyp);
  if (mmi == this->MapInfo.end())
  {
    return 1;
  }

  vtkCellData* cd = output->GetCellData();
  // For each map defined on objects of the same type as our output,
  // look for ones that are turned on (Status != 0).
  std::vector<MapInfoType>::iterator mi;
  int midx = 0;
  for (mi = mmi->second.begin(); mi != mmi->second.end(); ++mi, ++midx)
  {
    if (!mi->Status)
      continue;

    vtkDataArray* src = this->GetCacheOrRead(vtkExodusIICacheKey(-1, mmi->first, 0, midx));
    if (!src)
      continue;

    if (otyp == vtkExodusIIReader::ELEM_BLOCK)
    {
      if (bsinfop->Size == src->GetNumberOfTuples() && bsinfop->FileOffset == 1 &&
        this->BlockInfo[otyp].size() == 1)
      {
        cd->AddArray(src);
      }
      else
      {
        // Create the array and copy the applicable subset from the map
        vtkIdTypeArray* arr = vtkIdTypeArray::New();
        arr->SetName(mi->Name.c_str());
        arr->SetNumberOfComponents(1);
        arr->SetNumberOfTuples(bsinfop->Size);
        memcpy(arr->GetVoidPointer(0), src->GetVoidPointer(bsinfop->FileOffset - 1),
          bsinfop->Size * sizeof(vtkIdType));
        cd->AddArray(arr);
        arr->FastDelete();
      }
    }
    else
    {
      // FIXME: We have a set (no maps are defined on sets but we could determine
      //        map values given the set generators) or an edge/face block (unclear
      //        whether maps are useful/possible on these block types).
    }
  }
  return 1;
}

//------------------------------------------------------------------------------
vtkIdType vtkExodusIIReaderPrivate::GetPolyhedronFaceConnectivity(
  vtkIdType fileLocalFaceId, vtkIdType*& facePtIds)
{
  // I. Find the face block containing \a fileLocalFaceId.
  //    An element may refer to faces anywhere in the file, not just in
  //    a corresponding face block, so each face of an element may be
  //    in a different face block.
  if (this->BlockInfo.find(EX_FACE_BLOCK) == this->BlockInfo.end())
  {
    vtkWarningMacro("No face blocks in exodus file, but polyhedral cell requires at least 1");
    return -1;
  }
  std::vector<BlockInfoType>& faceBlocks(this->BlockInfo[EX_FACE_BLOCK]);
  std::vector<BlockInfoType>::const_iterator fbit;
  int fbidx = 0;
  vtkIdType blockLocalFaceId = -1;
  for (fbit = faceBlocks.begin(); fbit != faceBlocks.end() &&
       (blockLocalFaceId = fileLocalFaceId + 1 - fbit->FileOffset) > fbit->Size;
       ++fbit)
  {
    ++fbidx;
    // std::cout << "Skipping block " << fbit->Id << " (" << fbit->Name << ") offset " <<
    // fbit->FileOffset << "\n";
  }
  if (fbit == faceBlocks.end() || blockLocalFaceId < 0)
  {
    vtkWarningMacro("Could not find a face block containing face "
      << fileLocalFaceId << " (block-relative " << blockLocalFaceId << ").");
    return -1;
  }
  std::map<int, std::vector<std::vector<vtkIdType>>>::iterator fcit =
    this->PolyhedralFaceConnArrays.find(fbidx);
  if (fcit == this->PolyhedralFaceConnArrays.end())
  {
    // Add faces for the entire face-block to the cache (because
    // the connectivity is run-length encoded). Hopefully each
    // polyhedral element block will use many faces from each
    // face block so the cost is amortized.
    vtkSmartPointer<vtkIdTypeArray> fconn = vtkArrayDownCast<vtkIdTypeArray>(
      this->GetCacheOrRead(vtkExodusIICacheKey(-1, vtkExodusIIReader::FACE_BLOCK_CONN, fbidx, 0)));
    if (!fconn)
    {
      vtkWarningMacro(
        "Face block " << fbidx << " (id " << fbit->Id << ") missing its connectivity array.");
      return -1;
    }
    vtkSmartPointer<vtkIntArray> ptsPerFace = vtkArrayDownCast<vtkIntArray>(
      this->GetCacheOrRead(vtkExodusIICacheKey(-1, vtkExodusIIReader::ENTITY_COUNTS, fbidx,
        /* get counts for face-block as opposed to element-block: */ 1)));
    if (!ptsPerFace)
    {
      vtkWarningMacro(
        "Face block " << fbidx << " (id " << fbit->Id << ") missing its points-per-face array.");
      return -1;
    }
    // Decompose the whole face block into a ragged
    // array (vector of vectors) to future lookups
    // are fast:
    static std::vector<std::vector<vtkIdType>> blank;
    this->PolyhedralFaceConnArrays[fbidx] = blank;
    fcit = this->PolyhedralFaceConnArrays.find(fbidx);
    vtkIdType numFaces = ptsPerFace->GetNumberOfTuples();
    fcit->second.resize(numFaces);
    vtkIdType cc = 0;
    for (vtkIdType ii = 0; ii < numFaces; ++ii)
    {
      int numPts = ptsPerFace->GetValue(ii);
      std::vector<vtkIdType>& facePts(fcit->second[ii]);
      facePts.resize(numPts);
      for (int jj = 0; jj < numPts; ++jj)
      {
        facePts[jj] = fconn->GetValue(cc++);
      }
    }
  }
  // II. Now that we have a cache for the face block, look up the
  //     one face in the block we currently need:
  vtkIdType numPoints = static_cast<vtkIdType>(fcit->second[blockLocalFaceId].size());
  facePtIds = &fcit->second[blockLocalFaceId][0];
  return numPoints;
}

//------------------------------------------------------------------------------
void vtkExodusIIReaderPrivate::FreePolyhedronFaceArrays()
{
  this->PolyhedralFaceConnArrays.clear();
}

//------------------------------------------------------------------------------
void vtkExodusIIReaderPrivate::InsertBlockPolyhedra(
  BlockInfoType* binfo, vtkIntArray* facesPerCell, vtkIdTypeArray* exoCellConn)
{
  vtkIdType numCells = facesPerCell->GetMaxId() + 1;

  // The Exodus file format is more compact than VTK's; it
  // allows multiple elements(cells) to refer to the same face so
  // that no face->point connectivity needs to be repeated.
  // VTK's polyhedral cells unpacks each element's faces
  // into a contiguous list for fast access to each element's
  // face->point connectivity.
  // So, we cannot use the arrays we are given as-is.
  // Also, VTK requires a list, without duplicates, of all the
  // points per cell (across all its faces), which Exodus does
  // not provide.

  // II. Insert cells using face-point connectivity.
  vtkIdType curCell = 0;
  vtkIdType curCellCurFace = 0;
  std::vector<vtkIdType> vtkCellPts;
  for (vtkIdType i = 0; i < numCells; ++i)
  {
    vtkCellPts.clear();
    int numFacesThisCell = facesPerCell->GetValue(curCell++);
    for (vtkIdType j = 0; j < numFacesThisCell; ++j)
    {
      vtkIdType curFace = exoCellConn->GetValue(curCellCurFace++);
      // std::vector<vtkIdType>& curFacePts(facePointLists[curFace]);
      vtkIdType* facePtsRaw;
      vtkIdType numFacePts = this->GetPolyhedronFaceConnectivity(curFace, facePtsRaw);
      // Copy face connectivity, optionally (and usually) mapping to squeezed-points for the block
      vtkCellPts.push_back(numFacePts);
      for (vtkIdType pp = 0; pp < numFacePts; ++pp)
      {
        vtkCellPts.push_back(
          this->SqueezePoints ? this->GetSqueezePointId(binfo, facePtsRaw[pp]) : facePtsRaw[pp]);
      }
    }
    binfo->CachedConnectivity->InsertNextCell(VTK_POLYHEDRON, numFacesThisCell, &vtkCellPts[0]);
  }
  this->FreePolyhedronFaceArrays();
}

//------------------------------------------------------------------------------
void vtkExodusIIReaderPrivate::InsertBlockCells(
  int otyp, int obj, int conn_type, int timeStep, BlockInfoType* binfo)
{
  (void)timeStep;
  (void)otyp;
  if (binfo->Size == 0)
  {
    // No entries in this block.
    // This happens in parallel filesets when all
    // elements are distributed to other files.
    // Silently ignore.
    return;
  }

  vtkSmartPointer<vtkIntArray> ent;
  if (binfo->PointsPerCell == 0)
  {
    int arrId = (conn_type == vtkExodusIIReader::ELEM_BLOCK_ELEM_CONN ? 0 : 1);
    ent = vtkArrayDownCast<vtkIntArray>(
      this->GetCacheOrRead(vtkExodusIICacheKey(-1, vtkExodusIIReader::ENTITY_COUNTS, obj, arrId)));
    if (!ent)
    {
      vtkErrorMacro("Entity used 0 points per cell, "
                    "but didn't return polyhedra correctly");
      binfo->Status = 0;
      return;
    }
  }

  // Handle 3-D polyhedra (not 2-D polygons) separately
  // from other cell types for simplicity.
  // In addition to the element block connectivity (which
  // lists faces bounding the polyhedra, we must load face
  // block connectivity (which lists corner nodes for each
  // face).
  if (binfo->CellType == VTK_POLYHEDRON)
  {
    vtkSmartPointer<vtkIdTypeArray> efconn = vtkArrayDownCast<vtkIdTypeArray>(this->GetCacheOrRead(
      vtkExodusIICacheKey(-1, vtkExodusIIReader::ELEM_BLOCK_FACE_CONN, obj, 0)));
    if (!efconn || !ent)
    {
      vtkWarningMacro(<< "Element block (" << efconn.GetPointer() << ") and "
                      << "number of faces per poly (" << ent.GetPointer()
                      << ") arrays are both required. "
                      << "Skipping block id " << binfo->Id << "; expect trouble.");
      binfo->Status = 0;
      return;
    }
    this->InsertBlockPolyhedra(binfo, ent, efconn);
    return;
  }

  vtkIdTypeArray* arr = vtkArrayDownCast<vtkIdTypeArray>(
    this->GetCacheOrRead(vtkExodusIICacheKey(-1, conn_type, obj, 0)));
  if (!arr)
  {
    vtkWarningMacro("Block wasn't present in file? Working around it. Expect trouble.");
    binfo->Status = 0;
    return;
  }

  if (this->SqueezePoints)
  {
    std::vector<vtkIdType> cellIds;
    cellIds.resize(binfo->PointsPerCell);
    auto srcIds = arr->GetPointer(0);

    for (int i = 0; i < binfo->Size; ++i)
    {
      int entitiesPerCell;
      if (ent)
      {
        entitiesPerCell = ent->GetValue(i);
        cellIds.resize(entitiesPerCell);
      }
      else
      {
        entitiesPerCell = binfo->PointsPerCell;
      }

      for (int p = 0; p < entitiesPerCell; ++p)
      {
        cellIds[p] = this->GetSqueezePointId(binfo, srcIds[p]);
        // cout << " " << srcIds[p] << "(" << cellIds[p] << ")";
      }
      // cout << "\n";
      // cout << " " <<
      binfo->CachedConnectivity->InsertNextCell(binfo->CellType, entitiesPerCell, &cellIds[0]);
      srcIds += entitiesPerCell;
    }
    // cout << "\n";
  }
  else
  {
    // The id type size used by exodus should match VTK_USE_64BIT_IDS length
    vtkIdType* srcIds = (vtkIdType*)arr->GetPointer(0);

    for (int i = 0; i < binfo->Size; ++i)
    {
      int entitiesPerCell = binfo->PointsPerCell;
      if (ent != nullptr)
      {
        entitiesPerCell = ent->GetValue(i);
      }
      binfo->CachedConnectivity->InsertNextCell(binfo->CellType, entitiesPerCell, srcIds);
      srcIds += entitiesPerCell;
      // for ( int k = 0; k < binfo->PointsPerCell; ++k )
      // cout << " " << srcIds[k];
      // cout << "\n";
    }
  }
}

//------------------------------------------------------------------------------
void vtkExodusIIReaderPrivate::InsertSetCells(
  int otyp, int obj, int conn_type, int timeStep, SetInfoType* sinfo)
{
  (void)timeStep;
  if (sinfo->Size == 0)
  {
    // No entries in this set.
    // This happens in parallel filesets when all elements are distributed to other files.
    // Silently ignore.
    return;
  }

  auto* arr = vtkArrayDownCast<vtkIdTypeArray>(
    this->GetCacheOrRead(vtkExodusIICacheKey(-1, conn_type, obj, 0)));
  if (!arr)
  {
    vtkWarningMacro("Set wasn't present in file? Working around it. Expect trouble.");
    sinfo->Status = 0;
    return;
  }

  switch (otyp)
  {
    case vtkExodusIIReader::NODE_SET:
      // Easy
      this->InsertSetNodeCopies(arr, otyp, obj, sinfo);
      break;
    case vtkExodusIIReader::EDGE_SET:
      // Not so fun. We must copy cells from possibly many edge blocks.
      this->InsertSetCellCopies(arr, vtkExodusIIReader::EDGE_BLOCK, obj, sinfo);
      break;
    case vtkExodusIIReader::FACE_SET:
      // Not so fun. We must copy cells from possibly many face blocks.
      this->InsertSetCellCopies(arr, vtkExodusIIReader::FACE_BLOCK, obj, sinfo);
      break;
    case vtkExodusIIReader::SIDE_SET:
      // Way hard even when we let Exodus do a lot for us.
      this->InsertSetSides(arr, otyp, obj, sinfo);
      break;
    case vtkExodusIIReader::ELEM_SET:
      // Not so fun. We must copy cells from possibly many element blocks.
      this->InsertSetCellCopies(arr, vtkExodusIIReader::ELEM_BLOCK, obj, sinfo);
      break;
  }
}

//------------------------------------------------------------------------------
void vtkExodusIIReaderPrivate::AddPointArray(
  vtkDataArray* src, BlockSetInfoType* bsinfop, vtkUnstructuredGrid* output)
{
  vtkPointData* pd = output->GetPointData();
  if (this->SqueezePoints)
  {
    // subset the array using PointMap
    vtkDataArray* dest = vtkDataArray::CreateDataArray(src->GetDataType());
    dest->SetName(src->GetName());
    dest->SetNumberOfComponents(src->GetNumberOfComponents());
    dest->SetNumberOfTuples(bsinfop->NextSqueezePoint);
    std::map<vtkIdType, vtkIdType>::iterator it, itEnd;
    //
    // I moved the end condition of the loop out of the for(;;) loop.
    //   Assuming it doesn't change within the loop itself!
    //   The reason is that the code was making the call every loop.
    //
    itEnd = bsinfop->PointMap.end();
    for (it = bsinfop->PointMap.begin(); it != itEnd; ++it)
    {
      pd->CopyTuple(src, dest, it->first, it->second);
    }
    pd->AddArray(dest);
    dest->FastDelete();
  }
  else
  {
    pd->AddArray(src);
  }
}

//------------------------------------------------------------------------------
void vtkExodusIIReaderPrivate::InsertSetNodeCopies(
  vtkIdTypeArray* refs, int otyp, int obj, SetInfoType* sinfo)
{
  (void)otyp;
  (void)obj;
  // Insert a "VERTEX" cell for each node in the set.
  vtkIdType ref;
  vtkIdType tmp;
  auto* iptr = refs->GetPointer(0);

  if (this->SqueezePoints)
  { // this loop is separated out to handle case (stride > 1 && pref[1] < 0 && this->SqueezePoints)
    for (ref = 0; ref < refs->GetNumberOfTuples(); ++ref, ++iptr)
    {
      tmp = *iptr;
      vtkIdType x = this->GetSqueezePointId(sinfo, tmp);
      sinfo->CachedConnectivity->InsertNextCell(VTK_VERTEX, 1, &x);
    }
  }
  else
  {
    for (ref = 0; ref < refs->GetNumberOfTuples(); ++ref, ++iptr)
    {
      tmp = *iptr;
      sinfo->CachedConnectivity->InsertNextCell(VTK_VERTEX, 1, &tmp);
    }
  }
}

//------------------------------------------------------------------------------
void vtkExodusIIReaderPrivate::InsertSetCellCopies(
  vtkIdTypeArray* refs, int otyp, int obj, SetInfoType* sinfo)
{
  (void)obj;
  // First, sort the set by entry number (element, face, or edge ID)
  // so that we can refer to each block just once as we process cells.
  vtkSortDataArray::SortArrayByComponent(refs, 0);
  refs->Register(this); // Don't let the cache delete this array when we fetch others...

  vtkIdType nrefs = refs->GetNumberOfTuples();
  vtkIdType ref = 0;
  vtkIdType bnum = -1;
  vtkIdType lastBlockEntry = -1;
  auto* pref = refs->GetPointer(0);
  int stride = refs->GetNumberOfComponents();
  BlockInfoType* binfop = nullptr; //&this->BlockInfo[otyp][bnum];
  int* nodeconn = nullptr;
  vtkIdType* cellConn;
  int nnpe = 0;
  vtkIntArray* nconn;
  std::vector<vtkIdType> tmpTuple;
  while (ref < nrefs)
  {
    int loadNewBlk = 0;
    while (pref[0] >= lastBlockEntry)
    { // advance to the next block (always true first time through parent loop)
      ++bnum;
      if (bnum >= (int)this->BlockInfo[otyp].size())
        return;
      binfop = &this->BlockInfo[otyp][bnum];
      lastBlockEntry = binfop->FileOffset + binfop->Size - 1;
      loadNewBlk = 1;
    }
    if (loadNewBlk)
    {
      nconn = vtkArrayDownCast<vtkIntArray>(this->GetCacheOrRead(
        vtkExodusIICacheKey(-1, this->GetBlockConnTypeFromBlockType(otyp), bnum, 0)));
      if (!nconn)
      {
        vtkErrorMacro(
          "Unable to read block \"" << binfop->Name.c_str() << "\" (" << binfop->Id << ")");
        break;
      }
      nodeconn = nconn->GetPointer(0);
      nnpe = nconn->GetNumberOfComponents();
      if (stride > 1 || this->SqueezePoints)
      {
        tmpTuple.resize(nnpe);
      }
    }

    if (stride > 1 && pref[1] < 0)
    { // negative orientation => reverse cell connectivity
      vtkIdType off = (pref[0] + 2 - binfop->FileOffset) * nnpe - 1;
      for (int k = 0; k < nnpe; ++k)
        tmpTuple[k] = nodeconn[off - k];
      cellConn = &tmpTuple[0];
    }
    else
#ifndef VTK_USE_64BIT_IDS
      if (this->SqueezePoints)
#endif // VTK_USE_64BIT_IDS
    {
      vtkIdType off = (pref[0] + 1 - binfop->FileOffset) * nnpe;
      for (int k = 0; k < nnpe; ++k)
        tmpTuple[k] = nodeconn[off + k];
      cellConn = &tmpTuple[0];
    }
#ifndef VTK_USE_64BIT_IDS
    else
    {
      cellConn = (int*)nodeconn + (pref[0] + 1 - binfop->FileOffset) * nnpe;
    }
#endif // VTK_USE_64BIT_IDS

    if (this->SqueezePoints)
    { // this loop is separated out to handle case (stride > 1 && pref[1] < 0 &&
      // this->SqueezePoints)
      for (int k = 0; k < nnpe; ++k)
      { // FIXME: Double-check that cellConn[k] should be in-place re-assigned.
        cellConn[k] = this->GetSqueezePointId(sinfo, cellConn[k]);
      }
    }

    sinfo->CachedConnectivity->InsertNextCell(binfop->CellType, nnpe, cellConn);

    pref += stride;
    ++ref;
  }

  refs->UnRegister(this);
}

//------------------------------------------------------------------------------
void vtkExodusIIReaderPrivate::InsertSetSides(
  vtkIdTypeArray* refs, int otyp, int obj, SetInfoType* sinfo)
{
  static const int sideCellTypes[] = {
    VTK_EMPTY_CELL, // don't support any cells with 0 nodes per side
    VTK_VERTEX, VTK_LINE, VTK_TRIANGLE, VTK_QUAD,
    VTK_EMPTY_CELL, // don't support any cells with 5 nodes per side
    VTK_QUADRATIC_TRIANGLE,
    VTK_EMPTY_CELL, // don't support any cells with 7 nodes per side
    VTK_QUADRATIC_QUAD, VTK_BIQUADRATIC_QUAD
  };

  int numSides = this->SetInfo[otyp][obj].Size;
  auto* nodesPerSide = refs->GetPointer(0);
  auto* sideNodes = nodesPerSide + numSides;
  std::vector<vtkIdType> cellConn;
  cellConn.resize(9);

  if (this->SqueezePoints)
  {
    int nnpe;
    for (int side = 0; side < numSides; ++side)
    {
      nnpe = nodesPerSide[side];
      for (int k = 0; k < nnpe; ++k)
      {
        cellConn[k] = this->GetSqueezePointId(sinfo, sideNodes[k]);
      }
      sinfo->CachedConnectivity->InsertNextCell(sideCellTypes[nnpe], nnpe, &cellConn[0]);
      sideNodes += nnpe;
    }
  }
  else
  {
    int nnpe;
    for (int side = 0; side < numSides; ++side)
    {
      nnpe = nodesPerSide[side];
#ifdef VTK_USE_64BIT_IDS
      for (int k = 0; k < nnpe; ++k)
      {
        cellConn[k] = sideNodes[k];
      }
      sinfo->CachedConnectivity->InsertNextCell(sideCellTypes[nnpe], nnpe, &cellConn[0]);
#else  // VTK_USE_64BIT_IDS
      sinfo->CachedConnectivity->InsertNextCell(sideCellTypes[nnpe], nnpe, sideNodes);
#endif // VTK_USE_64BIT_IDS
      sideNodes += nnpe;
    }
  }
}

//------------------------------------------------------------------------------
vtkDataArray* vtkExodusIIReaderPrivate::GetCacheOrRead(vtkExodusIICacheKey key)
{
  vtkDataArray* arr;
  // Never cache points deflected for a mode shape animation... doubles don't make good keys.
  if (this->HasModeShapes && key.ObjectType == vtkExodusIIReader::NODAL_COORDS)
  {
    arr = nullptr;
  }
  else
  {
    arr = this->Cache->Find(key);
  }

  if (arr)
  {
    //
    return arr;
  }

  int exoid = this->Exoid;
  int maxNameLength = this->Parent->GetMaxNameLength();

  // If array is nullptr, try reading it from file.
  if (key.ObjectType == vtkExodusIIReader::GLOBAL)
  {
    // need to assemble result array from smaller ones.
    // call GetCacheOrRead() for each smaller array
    // pay attention to SqueezePoints

    // ArrayInfoType* ainfop = &this->ArrayInfo[vtkExodusIIReader::GLOBAL][key.ArrayId];
    arr = vtkDataArray::CreateDataArray(VTK_DOUBLE);
    arr->SetName(vtkExodusIIReaderPrivate::GetGlobalVariableValuesArrayName());
    arr->SetNumberOfComponents(1);
    arr->SetNumberOfTuples(
      static_cast<vtkIdType>(this->ArrayInfo[vtkExodusIIReader::GLOBAL].size()));

    if (ex_get_glob_vars(exoid, key.Time + 1, arr->GetNumberOfTuples(), arr->GetVoidPointer(0)) < 0)
    {
      vtkErrorMacro(
        "Could not read global variable " << this->GetGlobalVariableValuesArrayName() << ".");
      arr->Delete();
      arr = nullptr;
    }
    auto info = arr->GetInformation();
    // add the `GLOBAL_VARIABLE` key so filters may use it.
    info->Set(vtkExodusIIReader::GLOBAL_VARIABLE(), 1);
  }
  else if (key.ObjectType == vtkExodusIIReader::NODAL)
  {
    // read nodal array
    ArrayInfoType* ainfop = &this->ArrayInfo[vtkExodusIIReader::NODAL][key.ArrayId];
    int ncomps =
      (this->ModelParameters.num_dim == 2 && ainfop->Components == 2) ? 3 : ainfop->Components;
    arr = vtkDataArray::CreateDataArray(ainfop->StorageType);
    arr->SetName(ainfop->Name.c_str());
    arr->SetNumberOfComponents(ncomps);
    arr->SetNumberOfTuples(this->ModelParameters.num_nodes);
    if (ncomps != ainfop->Components)
    {
      arr->FillComponent(2, 0.);
    }
    if (ncomps == 1)
    {
      if (ex_get_var(exoid, key.Time + 1, static_cast<ex_entity_type>(key.ObjectType),
            ainfop->OriginalIndices[0], 0, arr->GetNumberOfTuples(), arr->GetVoidPointer(0)) < 0)
      {
        vtkErrorMacro("Could not read nodal result variable " << ainfop->Name.c_str() << ".");
        arr->Delete();
        arr = nullptr;
      }
    }
    else
    {
      // Exodus doesn't support reading with a stride, so we have to manually interleave the arrays.
      // Bleh.
      std::vector<std::vector<double>> tmpVal;
      tmpVal.resize(ainfop->Components);
      int c;
      for (c = 0; c < ainfop->Components; ++c)
      {
        vtkIdType N = this->ModelParameters.num_nodes;
        tmpVal[c].resize(N);
        if (ex_get_var(exoid, key.Time + 1, static_cast<ex_entity_type>(key.ObjectType),
              ainfop->OriginalIndices[c], 0, arr->GetNumberOfTuples(), &tmpVal[c][0]) < 0)
        {
          vtkErrorMacro(
            "Could not read nodal result variable " << ainfop->OriginalNames[c].c_str() << ".");
          arr->Delete();
          arr = nullptr;
          return nullptr;
        }
      }
      int t;
      std::vector<double> tmpTuple;
      tmpTuple.resize(ncomps);
      tmpTuple[ncomps - 1] = 0.; // In case we're embedding a 2-D vector in 3-D

      //
      // Lets unroll the most common case - components == 3.
      //
      if (ainfop->Components == 3)
      {
        int maxTuples = arr->GetNumberOfTuples();
        for (t = 0; t < maxTuples; ++t)
        {
          tmpTuple[0] = tmpVal[0][t];
          tmpTuple[1] = tmpVal[1][t];
          tmpTuple[2] = tmpVal[2][t];
          arr->SetTuple(t, &tmpTuple[0]);
        }
      }
      else
      {
        for (t = 0; t < arr->GetNumberOfTuples(); ++t)
        {
          for (c = 0; c < ainfop->Components; ++c)
          {
            tmpTuple[c] = tmpVal[c][t];
          }
          arr->SetTuple(t, &tmpTuple[0]);
        }
      }
    }
  }
  else if (key.ObjectType == vtkExodusIIReader::GLOBAL_TEMPORAL)
  {
    // read temporal nodal array
    ArrayInfoType* ainfop = &this->ArrayInfo[vtkExodusIIReader::GLOBAL][key.ArrayId];
    arr = vtkDataArray::CreateDataArray(ainfop->StorageType);
    // vtkStdString newArrayName = ainfop->Name + "OverTime";
    arr->SetName(ainfop->Name);
    arr->SetNumberOfComponents(ainfop->Components);
    arr->SetNumberOfTuples(this->GetNumberOfTimeSteps());
    if (ainfop->Components != 1)
    {
      // Exodus doesn't support reading with a stride, so we have to manually interleave the arrays.
      // Bleh.
      std::vector<std::vector<double>> tmpVal;
      tmpVal.resize(ainfop->Components);
      int c;
      for (c = 0; c < ainfop->Components; ++c)
      {
        vtkIdType N = this->GetNumberOfTimeSteps();
        tmpVal[c].resize(N);
        if (ex_get_var_time(exoid, EX_GLOBAL, ainfop->OriginalIndices[c], key.ObjectId, 1,
              this->GetNumberOfTimeSteps(), &tmpVal[c][0]) < 0)
        {
          vtkErrorMacro("Could not read temporal global result variable "
            << ainfop->OriginalNames[c].c_str() << ".");
          arr->Delete();
          arr = nullptr;
          return nullptr;
        }
      }
      int t;
      std::vector<double> tmpTuple;
      tmpTuple.resize(ainfop->Components);
      for (t = 0; t < arr->GetNumberOfTuples(); ++t)
      {
        for (c = 0; c < ainfop->Components; ++c)
        {
          tmpTuple[c] = tmpVal[c][t];
        }
        arr->SetTuple(t, &tmpTuple[0]);
      }
    }
    else if (ex_get_var_time(exoid, EX_GLOBAL, ainfop->OriginalIndices[0], key.ObjectId, 1,
               this->GetNumberOfTimeSteps(), arr->GetVoidPointer(0)) < 0)
    {
      vtkErrorMacro("Could not read global result variable " << ainfop->Name.c_str() << ".");
      arr->Delete();
      arr = nullptr;
    }
    auto info = arr->GetInformation();
    // add the `GLOBAL_TEMPORAL_VARIABLE` key so filters may use it.
    info->Set(vtkExodusIIReader::GLOBAL_TEMPORAL_VARIABLE(), 1);
  }
  else if (key.ObjectType == vtkExodusIIReader::NODAL_TEMPORAL)
  {
    // read temporal nodal array
    ArrayInfoType* ainfop = &this->ArrayInfo[vtkExodusIIReader::NODAL][key.ArrayId];
    arr = vtkDataArray::CreateDataArray(ainfop->StorageType);
    vtkStdString newArrayName = ainfop->Name + "OverTime";
    arr->SetName(newArrayName.c_str());
    arr->SetNumberOfComponents(ainfop->Components);
    arr->SetNumberOfTuples(this->GetNumberOfTimeSteps());
    if (ainfop->Components == 1)
    {
      if (ex_get_var_time(exoid, EX_NODAL, ainfop->OriginalIndices[0], key.ObjectId, 1,
            this->GetNumberOfTimeSteps(), arr->GetVoidPointer(0)) < 0)
      {
        vtkErrorMacro("Could not read nodal result variable " << ainfop->Name.c_str() << ".");
        arr->Delete();
        arr = nullptr;
      }
    }
    else
    {
      // Exodus doesn't support reading with a stride, so we have to manually interleave the arrays.
      // Bleh.
      std::vector<std::vector<double>> tmpVal;
      tmpVal.resize(ainfop->Components);
      int c;
      for (c = 0; c < ainfop->Components; ++c)
      {
        vtkIdType N = this->GetNumberOfTimeSteps();
        tmpVal[c].resize(N);
        if (ex_get_var_time(exoid, EX_NODAL, ainfop->OriginalIndices[c], key.ObjectId, 1,
              this->GetNumberOfTimeSteps(), &tmpVal[c][0]) < 0)
        {
          vtkErrorMacro("Could not read temporal nodal result variable "
            << ainfop->OriginalNames[c].c_str() << ".");
          arr->Delete();
          arr = nullptr;
          return nullptr;
        }
      }
      int t;
      std::vector<double> tmpTuple;
      tmpTuple.resize(ainfop->Components);
      for (t = 0; t < arr->GetNumberOfTuples(); ++t)
      {
        for (c = 0; c < ainfop->Components; ++c)
        {
          tmpTuple[c] = tmpVal[c][t];
        }
        arr->SetTuple(t, &tmpTuple[0]);
      }
    }
  }
  else if (key.ObjectType == vtkExodusIIReader::ELEM_BLOCK_TEMPORAL)
  {
    // read temporal element array
    ArrayInfoType* ainfop = &this->ArrayInfo[vtkExodusIIReader::ELEM_BLOCK][key.ArrayId];
    arr = vtkDataArray::CreateDataArray(ainfop->StorageType);
    vtkStdString newArrayName = ainfop->Name + "OverTime";
    arr->SetName(newArrayName.c_str());
    arr->SetNumberOfComponents(ainfop->Components);
    arr->SetNumberOfTuples(this->GetNumberOfTimeSteps());
    if (ainfop->Components == 1)
    {
      if (ex_get_var_time(exoid, EX_ELEM_BLOCK, ainfop->OriginalIndices[0], key.ObjectId, 1,
            this->GetNumberOfTimeSteps(), arr->GetVoidPointer(0)) < 0)
      {
        vtkErrorMacro("Could not read element result variable " << ainfop->Name.c_str() << ".");
        arr->Delete();
        arr = nullptr;
      }
    }
    else
    {
      // Exodus doesn't support reading with a stride, so we have to manually interleave the arrays.
      // Bleh.
      std::vector<std::vector<double>> tmpVal;
      tmpVal.resize(ainfop->Components);
      int c;
      for (c = 0; c < ainfop->Components; ++c)
      {
        vtkIdType N = this->GetNumberOfTimeSteps();
        tmpVal[c].resize(N);
        if (ex_get_var_time(exoid, EX_ELEM_BLOCK, ainfop->OriginalIndices[c], key.ObjectId, 1,
              this->GetNumberOfTimeSteps(), &tmpVal[c][0]) < 0)
        {
          vtkErrorMacro("Could not read temporal element result variable "
            << ainfop->OriginalNames[c].c_str() << ".");
          arr->Delete();
          arr = nullptr;
          return nullptr;
        }
      }
      int t;
      std::vector<double> tmpTuple;
      tmpTuple.resize(ainfop->Components);
      for (t = 0; t < arr->GetNumberOfTuples(); ++t)
      {
        for (c = 0; c < ainfop->Components; ++c)
        {
          tmpTuple[c] = tmpVal[c][t];
        }
        arr->SetTuple(t, &tmpTuple[0]);
      }
    }
  }
  else if (key.ObjectType == vtkExodusIIReader::EDGE_BLOCK ||
    key.ObjectType == vtkExodusIIReader::FACE_BLOCK ||
    key.ObjectType == vtkExodusIIReader::ELEM_BLOCK ||
    key.ObjectType == vtkExodusIIReader::NODE_SET ||
    key.ObjectType == vtkExodusIIReader::EDGE_SET ||
    key.ObjectType == vtkExodusIIReader::FACE_SET ||
    key.ObjectType == vtkExodusIIReader::SIDE_SET || key.ObjectType == vtkExodusIIReader::ELEM_SET)
  {
    int otypidx = this->GetObjectTypeIndexFromObjectType(key.ObjectType);
    ArrayInfoType* ainfop = &this->ArrayInfo[key.ObjectType][key.ArrayId];
    ObjectInfoType* oinfop = this->GetObjectInfo(otypidx, key.ObjectId);

    arr = vtkDataArray::CreateDataArray(ainfop->StorageType);
    arr->SetName(ainfop->Name.c_str());
    if (ainfop->Components == 2 && this->ModelParameters.num_dim == 2)
    {
      // Promote 2-component arrays to 3-component arrays when we have 2-D coordinates
      arr->SetNumberOfComponents(3);
    }
    else
    {
      arr->SetNumberOfComponents(ainfop->Components);
    }
    arr->SetNumberOfTuples(oinfop->Size);
    if (ainfop->Components == 1)
    {
      if (ex_get_var(exoid, key.Time + 1, static_cast<ex_entity_type>(key.ObjectType),
            ainfop->OriginalIndices[0], oinfop->Id, arr->GetNumberOfTuples(),
            arr->GetVoidPointer(0)) < 0)
      {
        vtkErrorMacro("Could not read result variable "
          << ainfop->Name.c_str() << " for " << objtype_names[otypidx] << " " << oinfop->Id << ".");
        arr->Delete();
        arr = nullptr;
      }
    }
    else
    {
      // Exodus doesn't support reading with a stride, so we have to manually interleave the arrays.
      // Bleh.
      std::vector<std::vector<double>> tmpVal;
      tmpVal.resize(ainfop->Components);
      int c;
      for (c = 0; c < ainfop->Components; ++c)
      {
        vtkIdType N = arr->GetNumberOfTuples();
        tmpVal[c].resize(N + 1); // + 1 to avoid errors when N == 0.
                                 // BUG #8746.
        if (ex_get_var(exoid, key.Time + 1, static_cast<ex_entity_type>(key.ObjectType),
              ainfop->OriginalIndices[c], oinfop->Id, arr->GetNumberOfTuples(), &tmpVal[c][0]) < 0)
        {
          vtkErrorMacro("Could not read result variable "
            << ainfop->OriginalNames[c].c_str() << " for " << objtype_names[otypidx] << " "
            << oinfop->Id << ".");
          arr->Delete();
          arr = nullptr;
        }
      }
      // Carefully use arr->GetNumberOfComponents() when sizing
      // output as we may have promoted 2-D arrays to 3-D.
      int t = arr->GetNumberOfComponents();
      std::vector<double> tmpTuple;
      tmpTuple.resize(t);
      tmpTuple[t - 1] = 0.;
      for (t = 0; t < arr->GetNumberOfTuples(); ++t)
      {
        for (c = 0; c < ainfop->Components; ++c)
        {
          tmpTuple[c] = tmpVal[c][t];
        }
        arr->SetTuple(t, &tmpTuple[0]);
      }
    }
  }
  else if (key.ObjectType == vtkExodusIIReader::NODE_MAP ||
    key.ObjectType == vtkExodusIIReader::EDGE_MAP ||
    key.ObjectType == vtkExodusIIReader::FACE_MAP || key.ObjectType == vtkExodusIIReader::ELEM_MAP)
  {
    MapInfoType* minfop = &this->MapInfo[key.ObjectType][key.ArrayId];
    vtkIdTypeArray* iarr = vtkIdTypeArray::New();
    arr = iarr;
    arr->SetName(minfop->Name.c_str());
    arr->SetNumberOfComponents(1);
    switch (key.ObjectType)
    {
      case vtkExodusIIReader::NODE_MAP:
        arr->SetNumberOfTuples(this->ModelParameters.num_nodes);
        break;
      case vtkExodusIIReader::EDGE_MAP:
        arr->SetNumberOfTuples(this->ModelParameters.num_edge);
        break;
      case vtkExodusIIReader::FACE_MAP:
        arr->SetNumberOfTuples(this->ModelParameters.num_face);
        break;
      case vtkExodusIIReader::ELEM_MAP:
        arr->SetNumberOfTuples(this->ModelParameters.num_elem);
        break;
    }
    if (ex_get_num_map(exoid, static_cast<ex_entity_type>(key.ObjectType), minfop->Id,
          (vtkIdType*)arr->GetVoidPointer(0)) < 0)
    {
      vtkErrorMacro("Could not read nodal map variable " << minfop->Name.c_str() << ".");
      arr->Delete();
      arr = nullptr;
    }
  }
  else if (key.ObjectType == vtkExodusIIReader::GLOBAL_ELEMENT_ID)
  {
    // Yes, the next 2 statements are an intentional misuse of key
    // fields reserved for the ObjectId and ArrayId (since ObjectType
    // is used to signal that we want IDs instead of a field value).
    int otypidx = this->GetObjectTypeIndexFromObjectType(key.ObjectId);
    int obj = key.ArrayId;
    BlockSetInfoType* bsinfop = (BlockSetInfoType*)this->GetObjectInfo(otypidx, obj);

    vtkExodusIICacheKey ckey(-1, -1, 0, 0);
    switch (key.ObjectId)
    {
      case vtkExodusIIReader::EDGE_BLOCK:
        ckey.ObjectType = vtkExodusIIReader::EDGE_ID;
        break;
      case vtkExodusIIReader::FACE_BLOCK:
        ckey.ObjectType = vtkExodusIIReader::FACE_ID;
        break;
      case vtkExodusIIReader::ELEM_BLOCK:
      default:
        ckey.ObjectType = vtkExodusIIReader::ELEMENT_ID;
        break;
    }
    vtkIdTypeArray* src = vtkArrayDownCast<vtkIdTypeArray>(this->GetCacheOrRead(ckey));
    if (!src)
    {
      arr = nullptr;
      return nullptr;
    }
    vtkIdTypeArray* iarr = vtkIdTypeArray::New();
    iarr->SetName(vtkExodusIIReader::GetGlobalElementIdArrayName());
    iarr->SetNumberOfComponents(1);
    iarr->SetNumberOfTuples(bsinfop->Size);
    vtkIdType* gloIds = iarr->GetPointer(0);
    vtkIdType* srcIds = src->GetPointer(bsinfop->FileOffset - 1);
    memcpy(gloIds, srcIds, sizeof(vtkIdType) * bsinfop->Size);
    arr = iarr;
  }
  else if (key.ObjectType == vtkExodusIIReader::IMPLICIT_ELEMENT_ID)
  {
    // Yes, the next 2 statements are an intentional misuse of key
    // fields reserved for the ObjectId and ArrayId (since ObjectType
    // is used to signal that we want IDs instead of a field value).
    int otypidx = this->GetObjectTypeIndexFromObjectType(key.ObjectId);
    int obj = key.ArrayId;
    BlockSetInfoType* bsinfop = (BlockSetInfoType*)this->GetObjectInfo(otypidx, obj);

    vtkExodusIICacheKey ckey(-1, -1, 0, 0);
    vtkIdType mapSize;
    int nMaps;
    switch (key.ObjectId)
    {
      case vtkExodusIIReader::EDGE_BLOCK:
        ckey.ObjectType = vtkExodusIIReader::EDGE_ID;
        mapSize = this->ModelParameters.num_edge;
        nMaps = this->ModelParameters.num_edge_maps;
        break;
      case vtkExodusIIReader::FACE_BLOCK:
        ckey.ObjectType = vtkExodusIIReader::FACE_ID;
        mapSize = this->ModelParameters.num_face;
        nMaps = this->ModelParameters.num_face_maps;
        break;
      case vtkExodusIIReader::ELEM_BLOCK:
      default:
        ckey.ObjectType = vtkExodusIIReader::ELEMENT_ID;
        mapSize = this->ModelParameters.num_elem;
        nMaps = this->ModelParameters.num_elem_maps;
        break;
    }
    vtkIdTypeArray* src = vtkIdTypeArray::New();
    src->SetNumberOfComponents(1);
    src->SetNumberOfTuples(mapSize);
    if (nMaps > 0) // FIXME correctly detect parallel
    {
      if (ex_get_id_map(exoid, static_cast<ex_entity_type>(ckey.ObjectType),
            (vtkIdType*)src->GetPointer(0)) < 0)
      {
        vtkErrorMacro("Could not read elem num map for global implicit id");
        src->Delete();
        return nullptr;
      }
    }
    else // single file, just make the implicit index explicit
    {
      for (vtkIdType i = 0; i < src->GetNumberOfTuples(); i++)
      {
        src->SetValue(i, i + 1);
      }
    }
    vtkIdTypeArray* iarr = vtkIdTypeArray::New();
    iarr->SetName(vtkExodusIIReader::GetImplicitElementIdArrayName());
    iarr->SetNumberOfComponents(1);
    iarr->SetNumberOfTuples(bsinfop->Size);
    vtkIdType* gloIds = iarr->GetPointer(0);
    vtkIdType* srcIds = src->GetPointer(bsinfop->FileOffset - 1);
    memcpy(gloIds, srcIds, sizeof(vtkIdType) * bsinfop->Size);
    arr = iarr;
    src->Delete();
  }
  else if (key.ObjectType == vtkExodusIIReader::GLOBAL_NODE_ID)
  { // subset the NODE_ID array choosing only entries for nodes in output grid (using PointMap)
    // Yes, the next 2 statements are an intentional misuse of key
    // fields reserved for the ObjectId and ArrayId (since ObjectType
    // is used to signal that we want IDs instead of a field value).
    int otypidx = this->GetObjectTypeIndexFromObjectType(key.ObjectId);
    int obj = key.ArrayId;
    BlockSetInfoType* bsinfop = (BlockSetInfoType*)this->GetObjectInfo(otypidx, obj);
    vtkIdTypeArray* src = vtkArrayDownCast<vtkIdTypeArray>(
      this->GetCacheOrRead(vtkExodusIICacheKey(-1, vtkExodusIIReader::NODE_ID, 0, 0)));
    if (this->SqueezePoints && src)
    {
      vtkIdTypeArray* iarr = vtkIdTypeArray::New();
      iarr->SetName(vtkExodusIIReader::GetGlobalNodeIdArrayName());
      iarr->SetNumberOfComponents(1);
      iarr->SetNumberOfTuples(bsinfop->NextSqueezePoint);
      vtkIdType* gloIds = iarr->GetPointer(0);
      vtkIdType* srcIds = src->GetPointer(0);
      std::map<vtkIdType, vtkIdType>::iterator it;
      for (it = bsinfop->PointMap.begin(); it != bsinfop->PointMap.end(); ++it)
      {
        gloIds[it->second] = srcIds[it->first];
      }
      arr = iarr;
    }
    else
    {
      arr = src;
    }
  }
  else if (key.ObjectType == vtkExodusIIReader::IMPLICIT_NODE_ID)
  { // subset the NODE_ID array choosing only entries for nodes in output grid (using PointMap)
    // Yes, the next 2 statements are an intentional misuse of key
    // fields reserved for the ObjectId and ArrayId (since ObjectType
    // is used to signal that we want IDs instead of a field value).
    int otypidx = this->GetObjectTypeIndexFromObjectType(key.ObjectId);
    int obj = key.ArrayId;
    BlockSetInfoType* bsinfop = (BlockSetInfoType*)this->GetObjectInfo(otypidx, obj);
    vtkIdTypeArray* src = vtkIdTypeArray::New();
    src->SetNumberOfComponents(1);
    src->SetNumberOfTuples(this->ModelParameters.num_nodes);
    if (this->ModelParameters.num_node_maps > 0) // FIXME correctly detect parallel
    {
      if (ex_get_id_map(exoid, (ex_entity_type)(vtkExodusIIReader::NODE_MAP),
            (vtkIdType*)src->GetPointer(0)) < 0)
      {
        vtkErrorMacro("Could not node node num map for global implicit id");
        src->Delete();
        return nullptr;
      }
    }
    else // single file, just make the implicit index explicit
    {
      for (vtkIdType i = 0; i < src->GetNumberOfTuples(); i++)
      {
        src->SetValue(i, i + 1);
      }
    }
    if (this->SqueezePoints && src)
    {
      vtkIdTypeArray* iarr = vtkIdTypeArray::New();
      iarr->SetName(vtkExodusIIReader::GetImplicitNodeIdArrayName());
      iarr->SetNumberOfComponents(1);
      iarr->SetNumberOfTuples(bsinfop->NextSqueezePoint);
      vtkIdType* gloIds = iarr->GetPointer(0);
      vtkIdType* srcIds = src->GetPointer(0);
      std::map<vtkIdType, vtkIdType>::iterator it;
      for (it = bsinfop->PointMap.begin(); it != bsinfop->PointMap.end(); ++it)
      {
        gloIds[it->second] = srcIds[it->first];
      }
      arr = iarr;
    }
    else
    {
      arr = src;
    }
    src->Delete();
  }
  else if (key.ObjectType == vtkExodusIIReader::ELEMENT_ID ||
    key.ObjectType == vtkExodusIIReader::EDGE_ID || key.ObjectType == vtkExodusIIReader::FACE_ID ||
    key.ObjectType == vtkExodusIIReader::NODE_ID)
  {
    vtkIdTypeArray* iarr;
    int nMaps;
    vtkIdType mapSize;
    vtkExodusIICacheKey ktmp;
    if (key.ObjectType == vtkExodusIIReader::ELEMENT_ID)
    {
      nMaps = this->ModelParameters.num_elem_maps;
      mapSize = this->ModelParameters.num_elem;
      ktmp = vtkExodusIICacheKey(-1, vtkExodusIIReader::ELEM_MAP, 0, 0);
    }
    else if (key.ObjectType == vtkExodusIIReader::FACE_ID)
    {
      nMaps = this->ModelParameters.num_face_maps;
      mapSize = this->ModelParameters.num_face;
      ktmp = vtkExodusIICacheKey(-1, vtkExodusIIReader::FACE_MAP, 0, 0);
    }
    else if (key.ObjectType == vtkExodusIIReader::EDGE_ID)
    {
      nMaps = this->ModelParameters.num_edge_maps;
      mapSize = this->ModelParameters.num_edge;
      ktmp = vtkExodusIICacheKey(-1, vtkExodusIIReader::EDGE_MAP, 0, 0);
    }
    else // ( key.ObjectType == vtkExodusIIReader::NODE_ID )
    {
      nMaps = this->ModelParameters.num_node_maps;
      mapSize = this->ModelParameters.num_nodes;
      ktmp = vtkExodusIICacheKey(-1, vtkExodusIIReader::NODE_MAP, 0, 0);
    }
    // If there are no new-style maps, get the old-style map (which creates a default if nothing is
    // stored on disk).
    if (nMaps < 1 || !(iarr = vtkArrayDownCast<vtkIdTypeArray>(this->GetCacheOrRead(ktmp))))
    {
      iarr = vtkIdTypeArray::New();
      iarr->SetNumberOfComponents(1);
      iarr->SetNumberOfTuples(mapSize);
      if (mapSize)
      {
        if (ex_get_id_map(exoid, static_cast<ex_entity_type>(ktmp.ObjectType),
              (vtkIdType*)iarr->GetPointer(0)) < 0)
        {
          vtkErrorMacro("Could not read old-style node or element map.");
          iarr->Delete();
          iarr = nullptr;
        }
      }
    }
    else
    {
      // FastDelete will be called below (because we are assumed to have created the array with
      // New()). So we must reference the array one extra time here to account for the extra
      // delete...
      iarr->Register(this);
    }
    arr = iarr;
  }
  else if (key.ObjectType == vtkExodusIIReader::GLOBAL_CONN)
  {
    vtkErrorMacro(
      "Global connectivity is created in AssembleOutputConnectivity since it can't be cached\n"
      "with a single vtkDataArray. Who told you to call this routine to get it?");
  }
  else if (key.ObjectType == vtkExodusIIReader::ENTITY_COUNTS)
  {
    int ctypidx = (key.ArrayId == 0 ? 0 : 1);
    int otypidx = conn_obj_idx_cvt[ctypidx];
    int otyp = obj_types[otypidx];
    BlockInfoType* binfop = (BlockInfoType*)this->GetObjectInfo(otypidx, key.ObjectId);
    vtkIntArray* iarr = vtkIntArray::New();
    iarr->SetNumberOfComponents(1);
    iarr->SetNumberOfTuples(binfop->Size);
    if (ex_get_entity_count_per_polyhedra(
          exoid, static_cast<ex_entity_type>(otyp), binfop->Id, iarr->GetPointer(0)) < 0)
    {
      vtkErrorMacro("Unable to read " << binfop->Id << " (index " << key.ObjectId
                                      << ") entity count per polyhedra");
      iarr->Delete();
      iarr = nullptr;
    }
    arr = iarr;
  }
  else if (key.ObjectType == vtkExodusIIReader::ELEM_BLOCK_ELEM_CONN ||
    key.ObjectType == vtkExodusIIReader::FACE_BLOCK_CONN ||
    key.ObjectType == vtkExodusIIReader::EDGE_BLOCK_CONN)
  {
    int ctypidx = this->GetConnTypeIndexFromConnType(key.ObjectType);
    int otypidx = conn_obj_idx_cvt[ctypidx];
    int otyp = obj_types[otypidx];
    BlockInfoType* binfop = (BlockInfoType*)this->GetObjectInfo(otypidx, key.ObjectId);

    auto* iarr = vtkIdTypeArray::New();
    if (binfop->CellType == VTK_POLYGON)
    {
      iarr->SetNumberOfValues(binfop->BdsPerEntry[0]);
    }
    else if (binfop->CellType == VTK_POLYHEDRON)
    {
      iarr->SetNumberOfValues(binfop->BdsPerEntry[2]);
    }
    else
    {
      iarr->SetNumberOfComponents(binfop->BdsPerEntry[0]);
      iarr->SetNumberOfTuples(binfop->Size);
    }

    if (ex_get_conn(exoid, static_cast<ex_entity_type>(otyp), binfop->Id, iarr->GetPointer(0),
          nullptr, nullptr) < 0)
    {
      vtkErrorMacro("Unable to read " << objtype_names[otypidx] << " " << binfop->Id << " (index "
                                      << key.ObjectId << ") nodal connectivity.");
      iarr->Delete();
      iarr = nullptr;
    }

    vtkIdType c;
    auto ptr = iarr->GetPointer(0);
    if (binfop->CellType == VTK_QUADRATIC_HEXAHEDRON ||
      binfop->CellType == VTK_TRIQUADRATIC_HEXAHEDRON)
    {
      // Edge order for VTK is different than Exodus edge order.
      for (c = 0; c < iarr->GetNumberOfTuples(); ++c)
      {
        int k;
        int itmp[4];

        for (k = 0; k < 12; ++k, ++ptr)
          *ptr = *ptr - 1;

        for (k = 0; k < 4; ++k, ++ptr)
        {
          itmp[k] = *ptr;
          *ptr = ptr[4] - 1;
        }

        for (k = 0; k < 4; ++k, ++ptr)
          *ptr = itmp[k] - 1;

        if (binfop->CellType == VTK_TRIQUADRATIC_HEXAHEDRON)
        { // Face/body order for VTK is different than Exodus (Patran) order.
          for (k = 0; k < 4; ++k, ++ptr)
          {
            itmp[k] = *ptr;
            *ptr = ptr[3] - 1;
          }
          *(ptr++) = itmp[1] - 1;
          *(ptr++) = itmp[2] - 1;
          *(ptr++) = itmp[0] - 1;
        }
      }
      ptr += binfop->BdsPerEntry[0] - binfop->PointsPerCell;
    }
    else if (binfop->CellType == VTK_QUADRATIC_WEDGE)
    {
      int k;
      int itmp[3];
      for (c = 0; c < iarr->GetNumberOfTuples(); ++c)
      {
        for (k = 0; k < 9; ++k, ++ptr)
          *ptr = *ptr - 1;

        for (k = 0; k < 3; ++k, ++ptr)
        {
          itmp[k] = *ptr;
          *ptr = ptr[3] - 1;
        }

        for (k = 0; k < 3; ++k, ++ptr)
        {
          *ptr = itmp[k] - 1;
        }
      }
      ptr += binfop->BdsPerEntry[0] - binfop->PointsPerCell;
    }
    else if ((binfop->CellType == VTK_LAGRANGE_WEDGE && binfop->PointsPerCell == 21) ||
      (binfop->CellType == VTK_BIQUADRATIC_QUADRATIC_WEDGE && binfop->PointsPerCell == 18))
    {
      // Exodus orders edges like so:
      //   r-dir @ -z, 1-r-s-dir @ -z, s-dir @ -z,
      //   t-dir @ +1-r-s, t-dir @ +r, t-dir @ +s,
      //   r-dir @ +z, 1-r-s-dir @ +z, s-dir @ +z,
      // VTK orders edges like so:
      //   r-dir @ -z, 1-r-s-dir @ -z, s-dir @ -z,
      //   r-dir @ +z, 1-r-s-dir @ +z, s-dir @ +z,
      //   t-dir @ +1-r-s, t-dir @ +r, t-dir @ +s,
      int k;
      int itmp[3];
      for (c = 0; c < iarr->GetNumberOfTuples(); ++c)
      {
        for (k = 0; k < 9; ++k, ++ptr)
          *ptr = *ptr - 1;

        for (k = 0; k < 3; ++k, ++ptr)
        {
          itmp[k] = *ptr;
          *ptr = ptr[3] - 1;
        }

        for (k = 0; k < 3; ++k, ++ptr)
        {
          *ptr = itmp[k] - 1;
        }
        // The body-centered node immediately follows the edges in the
        // Exodus file and is then followed by wedge face nodes,
        // but not in the same order as VTK or the linear Exodus side-set
        // ordering:
        if (binfop->PointsPerCell == 21)
        {
          int ftmp[6];
          static int wedgeMapping6[6] = { 1, 2, 5, 3, 4, 0 };
          for (k = 0; k < 6; ++k)
          {
            ftmp[k] = ptr[wedgeMapping6[k]];
          }
          for (k = 0; k < 6; ++k, ++ptr)
          {
            *ptr = ftmp[k] - 1;
          }
        }
        else
        {
          for (k = 0; k < 3; ++k, ++ptr)
            *ptr = *ptr - 1;
        }
      }
      ptr += binfop->BdsPerEntry[0] - binfop->PointsPerCell;
    }
    else if (binfop->CellType == VTK_LAGRANGE_TETRAHEDRON && binfop->PointsPerCell == 15)
    {
      int k;
      for (c = 0; c < iarr->GetNumberOfTuples(); ++c)
      {
        // Tet corners and edges are ordered as expected
        for (k = 0; k < 10; ++k, ++ptr)
        {
          *ptr = *ptr - 1;
        }
        // ... but the body-centered node is placed *before* the
        // tet face nodes and the faces are not in the canonical
        // side-set ordering.
        static int tetMapping[5] = { 1, 4, 2, 3, 0 };
        int ftmp[5];
        for (k = 0; k < 5; ++k)
        {
          ftmp[k] = ptr[tetMapping[k]];
        }
        for (k = 0; k < 5; ++k, ++ptr)
        {
          *ptr = ftmp[k] - 1;
        }
      }
      ptr += binfop->BdsPerEntry[0] - binfop->PointsPerCell;
    }
    else
    {
      for (c = 0; c <= iarr->GetMaxId(); ++c, ++ptr)
      {
        *ptr = *ptr - 1;
      }
    }

    arr = iarr;
  }
  else if (key.ObjectType == vtkExodusIIReader::ELEM_BLOCK_FACE_CONN ||
    key.ObjectType == vtkExodusIIReader::ELEM_BLOCK_EDGE_CONN)
  {
    arr = nullptr;

    // bdsEntry will determine whether we call ex_get_conn to read edge or face connectivity:
    int bdsEntry = key.ObjectType == vtkExodusIIReader::ELEM_BLOCK_EDGE_CONN ? 1 : 2;

    // Fetch the block information from the key
    // int ctypidx = this->GetConnTypeIndexFromConnType( key.ObjectType );
    int otypidx = 2; // These always refer to the element block
    int otyp = obj_types[otypidx];
    BlockInfoType* binfop = (BlockInfoType*)this->GetObjectInfo(otypidx, key.ObjectId);

    // Only create the array if there's anything to put in it.
    if (binfop->BdsPerEntry[bdsEntry] > 0)
    {
      auto* iarr = vtkIdTypeArray::New();
      iarr->SetNumberOfValues(binfop->BdsPerEntry[2]);

      if (ex_get_conn(exoid, static_cast<ex_entity_type>(otyp), binfop->Id, nullptr,
            bdsEntry == 1 ? iarr->GetPointer(0) : nullptr,
            bdsEntry == 2 ? iarr->GetPointer(0) : nullptr) < 0)
      {
        vtkErrorMacro("Unable to read " << objtype_names[otypidx] << " " << binfop->Id << " (index "
                                        << key.ObjectId << ") " << (bdsEntry == 1 ? "edge" : "face")
                                        << " connectivity.");
        iarr->Delete();
        iarr = nullptr;
      }
      else
      {
        vtkIdType c;
        auto ptr = iarr->GetPointer(0);
        for (c = 0; c <= iarr->GetMaxId(); ++c, ++ptr)
        {
          *ptr = *ptr - 1;
        }
      }
      arr = iarr;
    }
  }
  else if (key.ObjectType == vtkExodusIIReader::NODE_SET_CONN ||
    key.ObjectType == vtkExodusIIReader::ELEM_SET_CONN)
  {
    int otyp = this->GetSetTypeFromSetConnType(key.ObjectType);
    int otypidx = this->GetObjectTypeIndexFromObjectType(otyp);
    SetInfoType* sinfop = &this->SetInfo[otyp][key.ObjectId];

    auto* iarr = vtkIdTypeArray::New();
    iarr->SetNumberOfComponents(1);
    iarr->SetNumberOfTuples(sinfop->Size);
    auto iptr = iarr->GetPointer(0);

    if (ex_get_set(exoid, static_cast<ex_entity_type>(otyp), sinfop->Id, iptr, nullptr) < 0)
    {
      vtkErrorMacro("Unable to read " << objtype_names[otypidx] << " " << sinfop->Id << " (index "
                                      << key.ObjectId << ") nodal connectivity.");
      iarr->Delete();
      iarr = nullptr;
    }

    vtkIdType id;
    for (id = 0; id < sinfop->Size; ++id, ++iptr)
    { // VTK uses 0-based indexing, unlike Exodus:
      --(*iptr);
    }

    arr = iarr;
  }
  else if (key.ObjectType == vtkExodusIIReader::EDGE_SET_CONN ||
    key.ObjectType == vtkExodusIIReader::FACE_SET_CONN)
  {
    int otyp = this->GetSetTypeFromSetConnType(key.ObjectType);
    int otypidx = this->GetObjectTypeIndexFromObjectType(otyp);
    SetInfoType* sinfop = &this->SetInfo[otyp][key.ObjectId];

    auto* iarr = vtkIdTypeArray::New();
    iarr->SetNumberOfComponents(2);
    iarr->SetNumberOfTuples(sinfop->Size);
    std::vector<int>
      tmpOrient; // hold the edge/face orientation information until we can interleave it.
    tmpOrient.resize(sinfop->Size);

    if (ex_get_set(exoid, static_cast<ex_entity_type>(otyp), sinfop->Id, iarr->GetPointer(0),
          &tmpOrient[0]) < 0)
    {
      vtkErrorMacro("Unable to read " << objtype_names[otypidx] << " " << sinfop->Id << " (index "
                                      << key.ObjectId << ") nodal connectivity.");
      iarr->Delete();
      iarr = nullptr;
      return nullptr;
    }

    auto iap = iarr->GetPointer(0);
    vtkIdType c;
    for (c = sinfop->Size - 1; c >= 0; --c)
    {
      iap[2 * c] = iap[c] - 1; // VTK uses 0-based indexing
      iap[2 * c + 1] = tmpOrient[c];
    }

    arr = iarr;
  }
  else if (key.ObjectType == vtkExodusIIReader::SIDE_SET_CONN)
  {
    if (key.ArrayId <= 0)
    {
      // Stick all of side_set_node_list and side_set_node_count and side_set_nodes_per_side in one
      // array let InsertSetSides() figure it all out. Except for 0-based indexing
      SetInfoType* sinfop = &this->SetInfo[vtkExodusIIReader::SIDE_SET][key.ObjectId];
      vtkIdType ssnllen; // side set node list length
      if (ex_get_side_set_node_list_len(exoid, sinfop->Id, &ssnllen) < 0)
      {
        vtkErrorMacro("Unable to fetch side set \"" << sinfop->Name.c_str() << "\" (" << sinfop->Id
                                                    << ") node list length");
        arr = nullptr;
        return nullptr;
      }
      auto* iarr = vtkIdTypeArray::New();
      vtkIdType ilen = ssnllen + sinfop->Size;
      iarr->SetNumberOfComponents(1);
      iarr->SetNumberOfTuples(ilen);
      auto* dat = iarr->GetPointer(0);
      if (ex_get_side_set_node_list(exoid, sinfop->Id, dat, dat + sinfop->Size) < 0)
      {
        vtkErrorMacro("Unable to fetch side set \"" << sinfop->Name.c_str() << "\" (" << sinfop->Id
                                                    << ") node list");
        iarr->Delete();
        arr = nullptr;
        return nullptr;
      }
      while (ilen > sinfop->Size)
      { // move to 0-based indexing on nodes, don't touch nodes/side counts at head of array
        --dat[--ilen];
      }
      arr = iarr;
    } // if(key.ArrayId <= 0)
    else
    {
      // return information about where the side set cells come from on the elements
      // the first tuple value is the element id and the second is the canonical side
      // sinfop->Size is the number of sides in this side set
      SetInfoType* sinfop = &this->SetInfo[vtkExodusIIReader::SIDE_SET][key.ObjectId];
      std::vector<vtkIdType> side_set_elem_list(sinfop->Size);
      std::vector<vtkIdType> side_set_side_list(sinfop->Size);
      if (ex_get_side_set(exoid, sinfop->Id, &side_set_elem_list[0], &side_set_side_list[0]) < 0)
      {
        vtkErrorMacro("Unable to fetch side set \"" << sinfop->Name.c_str() << "\" (" << sinfop->Id
                                                    << ") node list");
        arr = nullptr;
        return nullptr;
      }
      vtkIdTypeArray* iarr = vtkIdTypeArray::New();
      iarr->SetNumberOfComponents(2);
      iarr->SetNumberOfTuples(sinfop->Size);
      for (int i = 0; i < sinfop->Size; i++)
      { // we'll have to fix up the side indexing later
        // because Exodus and VTK have different canonical orderings for wedges and hexes.
        vtkIdType info[2] = { side_set_elem_list[i], side_set_side_list[i] };
        iarr->SetTypedTuple(i, info);
      }
      arr = iarr;
    }
  }
  else if (key.ObjectType == vtkExodusIIReader::NODAL_COORDS)
  {
    // read node coords
    vtkDataArray* displ = nullptr;
    if (this->ApplyDisplacements && key.Time >= 0)
    {
      displ = this->FindDisplacementVectors(key.Time);
    }

    std::vector<double> coordTmp;
    vtkDoubleArray* darr = vtkDoubleArray::New();
    arr = darr;
    arr->SetNumberOfComponents(3);
    arr->SetNumberOfTuples(this->ModelParameters.num_nodes);
    int dim = this->ModelParameters.num_dim;
    int c;
    vtkIdType t;
    double* xc = nullptr;
    double* yc = nullptr;
    double* zc = nullptr;
    coordTmp.resize(this->ModelParameters.num_nodes);
    for (c = 0; c < dim; ++c)
    {
      switch (c)
      {
        case 0:
          xc = &coordTmp[0];
          break;
        case 1:
          yc = xc;
          xc = nullptr;
          break;
        case 2:
          zc = yc;
          yc = nullptr;
          break;
        default:
          vtkErrorMacro("Bad coordinate index " << c << " when reading point coordinates.");
          xc = yc = zc = nullptr;
      }
      if (ex_get_coord(exoid, xc, yc, zc) < 0)
      {
        vtkErrorMacro("Unable to read node coordinates for index " << c << ".");
        arr->Delete();
        arr = nullptr;
        break;
      }
      double* cptr = darr->GetPointer(c);

      //
      // num_nodes can get big.  Lets unroll the loop
      //
      for (t = 0; t + 8 < this->ModelParameters.num_nodes; t += 8)
      {
        *(cptr + 3 * 0) = coordTmp[t + 0];
        *(cptr + 3 * 1) = coordTmp[t + 1];
        *(cptr + 3 * 2) = coordTmp[t + 2];
        *(cptr + 3 * 3) = coordTmp[t + 3];
        *(cptr + 3 * 4) = coordTmp[t + 4];
        *(cptr + 3 * 5) = coordTmp[t + 5];
        *(cptr + 3 * 6) = coordTmp[t + 6];
        *(cptr + 3 * 7) = coordTmp[t + 7];
        cptr += 3 * 8;
      }

      for (; t < this->ModelParameters.num_nodes; ++t)
      {
        *cptr = coordTmp[t];
        cptr += 3;
      }
    }
    if (dim < 3)
    {
      double* cptr = darr->GetPointer(2);
      for (t = 0; t < this->ModelParameters.num_nodes; ++t, cptr += 3)
      {
        *cptr = 0.;
      }
    }
    //
    // Unrolling some of the inner loops for the most common case - dim 3.
    // Also moving the maxTuples from inside of the for(;;) loops
    // Also moving cos() calculations out of the bottom of loops.
    //
    if (displ)
    {
      double* coords = darr->GetPointer(0);
      if (this->HasModeShapes && this->AnimateModeShapes)
      {
        double tempDouble =
          this->DisplacementMagnitude * cos(2.0 * vtkMath::Pi() * this->ModeShapeTime);
        if (dim == 3)
        {
          vtkIdType maxTuples = arr->GetNumberOfTuples();
          for (vtkIdType idx = 0; idx < maxTuples; ++idx)
          {
            double* dispVal = displ->GetTuple(idx);
            coords[0] += dispVal[0] * tempDouble;
            coords[1] += dispVal[1] * tempDouble;
            coords[2] += dispVal[2] * tempDouble;
            coords += 3;
          }
        }
        else
        {
          for (vtkIdType idx = 0; idx < displ->GetNumberOfTuples(); ++idx)
          {
            double* dispVal = displ->GetTuple(idx);
            for (c = 0; c < dim; ++c)
              coords[c] += dispVal[c] * tempDouble;

            coords += 3;
          }
        }
      }
      else
      {
        if (dim == 3)
        {
          vtkIdType maxTuples = arr->GetNumberOfTuples();
          for (vtkIdType idx = 0; idx < maxTuples; ++idx)
          {
            double* dispVal = displ->GetTuple(idx);
            coords[0] += dispVal[0] * this->DisplacementMagnitude;
            coords[1] += dispVal[1] * this->DisplacementMagnitude;
            coords[2] += dispVal[2] * this->DisplacementMagnitude;

            coords += 3;
          }
        }
        else
        {
          for (vtkIdType idx = 0; idx < displ->GetNumberOfTuples(); ++idx)
          {
            double* dispVal = displ->GetTuple(idx);
            for (c = 0; c < dim; ++c)
              coords[c] += dispVal[c] * this->DisplacementMagnitude;

            coords += 3;
          }
        }
      }
    }
  }
  else if (key.ObjectType == vtkExodusIIReader::OBJECT_ID)
  {
    BlockSetInfoType* bsinfop;
    // Yes, the next 2 statements are an intentional misuse of key
    // fields reserved for the ObjectId and ArrayId (since ObjectType
    // is used to signal that we want IDs instead of a field value).
    int otypidx = this->GetObjectTypeIndexFromObjectType(key.ObjectId);
    int obj = key.ArrayId;
    bsinfop = (BlockSetInfoType*)this->GetObjectInfo(otypidx, obj);

    arr = vtkIntArray::New();
    arr->SetName(vtkExodusIIReaderPrivate::GetObjectIdArrayName());
    arr->SetNumberOfComponents(1);
    arr->SetNumberOfTuples(bsinfop->Size);
    arr->FillComponent(0, bsinfop->Id);
  }
  else if (key.ObjectType == vtkExodusIIReader::ELEM_BLOCK_ATTRIB ||
    key.ObjectType == vtkExodusIIReader::FACE_BLOCK_ATTRIB ||
    key.ObjectType == vtkExodusIIReader::EDGE_BLOCK_ATTRIB)
  {
    int blkType = (key.ObjectType == vtkExodusIIReader::ELEM_BLOCK_ATTRIB
        ? vtkExodusIIReader::ELEM_BLOCK
        : (key.ObjectType == vtkExodusIIReader::FACE_BLOCK_ATTRIB ? vtkExodusIIReader::FACE_BLOCK
                                                                  : vtkExodusIIReader::EDGE_BLOCK));
    BlockInfoType* binfop = &this->BlockInfo[blkType][key.ObjectId];
    vtkDoubleArray* darr = vtkDoubleArray::New();
    arr = darr;
    darr->SetName(binfop->AttributeNames[key.ArrayId].c_str());
    darr->SetNumberOfComponents(1);
    darr->SetNumberOfTuples(binfop->Size);
    if (ex_get_one_attr(exoid, static_cast<ex_entity_type>(blkType), binfop->Id, key.ArrayId + 1,
          darr->GetVoidPointer(0)) < 0)
    { // NB: The error message references the file-order object id, not the numerically sorted index
      // presented to users.
      vtkErrorMacro("Unable to read attribute " << key.ArrayId << " for object " << key.ObjectId
                                                << " of type " << key.ObjectType << " block type "
                                                << blkType << ".");
      arr->Delete();
      arr = nullptr;
    }
  }
  else if (key.ObjectType == vtkExodusIIReader::INFO_RECORDS)
  {
    // Get Exodus II INFO records.  Each INFO record is a single character string.
    vtkIdType num_info = 0;
    float fdum;
    char* cdum = nullptr;
    int i;

    vtkCharArray* carr = vtkCharArray::New();
    carr->SetName("Info_Records");
    carr->SetNumberOfComponents(MAX_LINE_LENGTH + 1);

    if (ex_inquire(exoid, EX_INQ_INFO, &num_info, &fdum, cdum) < 0)
    {
      vtkErrorMacro("Unable to get number of INFO records from ex_inquire");
      carr->Delete();
      arr = nullptr;
    }
    else
    {
      if (num_info > 0)
      {
        carr->SetNumberOfTuples(num_info);
        char** info = (char**)calloc(num_info, sizeof(char*));

        for (i = 0; i < num_info; ++i)
          info[i] = (char*)calloc((MAX_LINE_LENGTH + 1), sizeof(char));

        if (ex_get_info(exoid, info) < 0)
        {
          vtkErrorMacro("Unable to read INFO records from ex_get_info");
          carr->Delete();
          arr = nullptr;
        }
        else
        {
          for (i = 0; i < num_info; ++i)
          {
            carr->InsertTypedTuple(i, info[i]);
          }
          arr = carr;
        }

        for (i = 0; i < num_info; ++i)
        {
          free(info[i]);
        }
        free(info);
      }
      else
      {
        carr->Delete();
        arr = nullptr;
      }
    }
  }
  else if (key.ObjectType == vtkExodusIIReader::QA_RECORDS)
  {
    // Get Exodus II QA records.  Each QA record is made up of 4 character strings.
    vtkIdType num_qa_rec = 0;
    float fdum;
    char* cdum = nullptr;
    int i, j;

    vtkCharArray* carr = vtkCharArray::New();
    carr->SetName("QA_Records");
    carr->SetNumberOfComponents(maxNameLength + 1);

    if (ex_inquire(exoid, EX_INQ_QA, &num_qa_rec, &fdum, cdum) < 0)
    {
      vtkErrorMacro("Unable to get number of QA records from ex_inquire");
      carr->Delete();
      arr = nullptr;
    }
    else
    {
      if (num_qa_rec > 0)
      {
        carr->SetNumberOfTuples(num_qa_rec * 4);
        char*(*qa_record)[4] = (char*(*)[4])calloc(num_qa_rec, sizeof(*qa_record));

        for (i = 0; i < num_qa_rec; ++i)
        {
          for (j = 0; j < 4; ++j)
          { // QA record string length is different than MaxNameLength
            qa_record[i][j] = (char*)calloc((MAX_STR_LENGTH + 1), sizeof(char));
          }
        }

        if (ex_get_qa(exoid, qa_record) < 0)
        {
          vtkErrorMacro("Unable to read QA records from ex_get_qa");
          carr->Delete();
          arr = nullptr;
        }
        else
        {
          for (i = 0; i < num_qa_rec; ++i)
          {
            for (j = 0; j < 4; ++j)
            {
              carr->InsertTypedTuple((i * 4) + j, qa_record[i][j]);
            }
          }
          arr = carr;
        }

        for (i = 0; i < num_qa_rec; ++i)
        {
          for (j = 0; j < 4; ++j)
          {
            free(qa_record[i][j]);
          }
        }
        free(qa_record);
      }
      else
      {
        carr->Delete();
        arr = nullptr;
      }
    }
  }
  else
  {
    vtkWarningMacro("You requested an array for objects of type " << key.ObjectType
                                                                  << " which I know nothing about");
    arr = nullptr;
  }

  // Even if the array is larger than the allowable cache size, it will keep the most recent
  // insertion. So, we delete our reference knowing that the Cache will keep the object "alive"
  // until whatever called GetCacheOrRead() references the array. But, once you get an array from
  // GetCacheOrRead(), you better start running!
  if (arr)
  {
    this->Cache->Insert(key, arr);
    arr->FastDelete();
  }
  return arr;
}

//------------------------------------------------------------------------------
int vtkExodusIIReaderPrivate::GetConnTypeIndexFromConnType(int ctyp)
{
  int i;
  for (i = 0; i < num_conn_types; ++i)
  {
    if (conn_types[i] == ctyp)
    {
      return i;
    }
  }
  return -1;
}

//------------------------------------------------------------------------------
int vtkExodusIIReaderPrivate::GetObjectTypeIndexFromObjectType(int otyp)
{
  int i;
  for (i = 0; i < num_obj_types; ++i)
  {
    if (obj_types[i] == otyp)
    {
      return i;
    }
  }
  return -1;
}

//------------------------------------------------------------------------------
int vtkExodusIIReaderPrivate::GetNumberOfObjectsAtTypeIndex(int typeIndex)
{
  if (typeIndex < 0)
  {
    return 0;
  }
  else if (typeIndex < 3)
  {
    return (int)this->BlockInfo[obj_types[typeIndex]].size();
  }
  else if (typeIndex < 8)
  {
    return (int)this->SetInfo[obj_types[typeIndex]].size();
  }
  else if (typeIndex < 12)
  {
    return (int)this->MapInfo[obj_types[typeIndex]].size();
  }
  return 0;
}

//------------------------------------------------------------------------------
vtkExodusIIReaderPrivate::ObjectInfoType* vtkExodusIIReaderPrivate::GetObjectInfo(
  int typeIndex, int objectIndex)
{
  if (typeIndex < 0)
  {
    return nullptr;
  }
  else if (typeIndex < 3)
  {
    return &this->BlockInfo[obj_types[typeIndex]][objectIndex];
  }
  else if (typeIndex < 8)
  {
    return &this->SetInfo[obj_types[typeIndex]][objectIndex];
  }
  else if (typeIndex < 12)
  {
    return &this->MapInfo[obj_types[typeIndex]][objectIndex];
  }
  return nullptr;
}

//------------------------------------------------------------------------------
vtkExodusIIReaderPrivate::ObjectInfoType* vtkExodusIIReaderPrivate::GetSortedObjectInfo(
  int otyp, int k)
{
  int i = this->GetObjectTypeIndexFromObjectType(otyp);
  if (i < 0)
  {
    vtkDebugMacro("Could not find collection of objects with type " << otyp << ".");
    return nullptr;
  }
  int N = this->GetNumberOfObjectsAtTypeIndex(i);
  if (k < 0 || k >= N)
  {
    const char* otname = i >= 0 ? objtype_names[i] : "object";
    static_cast<void>(otname); // not referenced warning
    vtkDebugMacro(
      "You requested " << otname << " " << k << " in a collection of only " << N << " objects.");
    return nullptr;
  }
  return this->GetObjectInfo(i, this->SortedObjectIndices[otyp][k]);
}

//------------------------------------------------------------------------------
vtkExodusIIReaderPrivate::ObjectInfoType* vtkExodusIIReaderPrivate::GetUnsortedObjectInfo(
  int otyp, int k)
{
  int i = this->GetObjectTypeIndexFromObjectType(otyp);
  if (i < 0)
  {
    vtkDebugMacro("Could not find collection of objects with type " << otyp << ".");
    return nullptr;
  }
  int N = this->GetNumberOfObjectsAtTypeIndex(i);
  if (k < 0 || k >= N)
  {
    const char* otname = i >= 0 ? objtype_names[i] : "object";
    static_cast<void>(otname); // not referenced warning
    vtkDebugMacro(
      "You requested " << otname << " " << k << " in a collection of only " << N << " objects.");
    return nullptr;
  }
  return this->GetObjectInfo(i, k);
}

//------------------------------------------------------------------------------
int vtkExodusIIReaderPrivate::GetBlockIndexFromFileGlobalId(int otyp, int refId)
{
  std::vector<BlockInfoType>::iterator bi;
  int i = 0;
  for (bi = this->BlockInfo[otyp].begin(); bi != this->BlockInfo[otyp].end(); ++bi, ++i)
  {
    if (refId >= bi->FileOffset && refId <= bi->FileOffset + bi->Size)
      return i;
  }
  return -1;
}

//------------------------------------------------------------------------------
vtkExodusIIReaderPrivate::BlockInfoType* vtkExodusIIReaderPrivate::GetBlockFromFileGlobalId(
  int otyp, int refId)
{
  int blk = this->GetBlockIndexFromFileGlobalId(otyp, refId);
  if (blk >= 0)
  {
    return &this->BlockInfo[otyp][blk];
  }
  return nullptr;
}

//------------------------------------------------------------------------------
vtkIdType vtkExodusIIReaderPrivate::GetSqueezePointId(BlockSetInfoType* bsinfop, int i)
{
  if (i < 0)
  {
    vtkGenericWarningMacro("Invalid point id: " << i << ". Data file may be incorrect.");
    throw std::runtime_error("invalid point id in `GetSqueezePointId`");
  }

  vtkIdType x;
  std::map<vtkIdType, vtkIdType>::iterator it = bsinfop->PointMap.find(i);
  if (it == bsinfop->PointMap.end())
  { // Nothing found; add a new entry to the map.
    x = bsinfop->NextSqueezePoint++;
    bsinfop->PointMap[i] = x;
    bsinfop->ReversePointMap[x] = i;
  }
  else
  {
    x = it->second;
  }
  return x;
}

//------------------------------------------------------------------------------
void vtkExodusIIReaderPrivate::DetermineVtkCellType(BlockInfoType& binfo)
{
  vtkStdString elemType(vtksys::SystemTools::UpperCase(binfo.TypeName));

  // Check for quadratic elements
  if ((elemType.substr(0, 3) == "TRI") && (binfo.BdsPerEntry[0] == 6))
  {
    binfo.CellType = VTK_QUADRATIC_TRIANGLE;
    binfo.PointsPerCell = 6;
  }
  else if ((elemType.substr(0, 3) == "SHE") && (binfo.BdsPerEntry[0] == 8))
  {
    binfo.CellType = VTK_QUADRATIC_QUAD;
    binfo.PointsPerCell = 8;
  }
  else if ((elemType.substr(0, 3) == "SHE") && (binfo.BdsPerEntry[0] == 9))
  {
    binfo.CellType = VTK_QUADRATIC_QUAD;
    binfo.PointsPerCell = 8;
  }
  else if ((elemType.substr(0, 3) == "TET") && (binfo.BdsPerEntry[0] == 10))
  {
    binfo.CellType = VTK_QUADRATIC_TETRA;
    binfo.PointsPerCell = 10;
  }
  else if ((elemType.substr(0, 3) == "TET") && (binfo.BdsPerEntry[0] == 11))
  {
    binfo.CellType = VTK_QUADRATIC_TETRA;
    binfo.PointsPerCell = 10;
  }
  else if ((elemType.substr(0, 3) == "TET") && (binfo.BdsPerEntry[0] == 15))
  {
    binfo.CellType = VTK_LAGRANGE_TETRAHEDRON;
    binfo.PointsPerCell = 15;
  }
  else if ((elemType.substr(0, 3) == "WED") && (binfo.BdsPerEntry[0] == 15))
  {
    binfo.CellType = VTK_QUADRATIC_WEDGE;
    binfo.PointsPerCell = 15;
  }
  else if ((elemType.substr(0, 3) == "WED") && (binfo.BdsPerEntry[0] == 18))
  {
    binfo.CellType = VTK_BIQUADRATIC_QUADRATIC_WEDGE;
    binfo.PointsPerCell = 18;
  }
  else if ((elemType.substr(0, 3) == "WED") && (binfo.BdsPerEntry[0] == 21))
  {
    binfo.CellType = VTK_LAGRANGE_WEDGE;
    binfo.PointsPerCell = 21;
  }
  else if ((elemType.substr(0, 3) == "HEX") && (binfo.BdsPerEntry[0] == 20))
  {
    binfo.CellType = VTK_QUADRATIC_HEXAHEDRON;
    binfo.PointsPerCell = 20;
  }
  else if ((elemType.substr(0, 3) == "HEX") && (binfo.BdsPerEntry[0] == 21))
  {
    binfo.CellType = VTK_QUADRATIC_HEXAHEDRON;
    binfo.PointsPerCell = 20;
  }
  else if ((elemType.substr(0, 3) == "HEX") && (binfo.BdsPerEntry[0] == 27))
  {
    binfo.CellType = VTK_TRIQUADRATIC_HEXAHEDRON;
    binfo.PointsPerCell = 27;
  }
  else if ((elemType.substr(0, 3) == "QUA") && (binfo.BdsPerEntry[0] == 8))
  {
    binfo.CellType = VTK_QUADRATIC_QUAD;
    binfo.PointsPerCell = 8;
  }
  else if ((elemType.substr(0, 3) == "QUA") && (binfo.BdsPerEntry[0] == 9))
  {
    binfo.CellType = VTK_BIQUADRATIC_QUAD;
    binfo.PointsPerCell = 9;
  }
  else if ((elemType.substr(0, 3) == "TRU") && (binfo.BdsPerEntry[0] == 3))
  {
    binfo.CellType = VTK_QUADRATIC_EDGE;
    binfo.PointsPerCell = 3;
  }
  else if ((elemType.substr(0, 3) == "BEA") && (binfo.BdsPerEntry[0] == 3))
  {
    binfo.CellType = VTK_QUADRATIC_EDGE;
    binfo.PointsPerCell = 3;
  }
  else if ((elemType.substr(0, 3) == "BAR") && (binfo.BdsPerEntry[0] == 3))
  {
    binfo.CellType = VTK_QUADRATIC_EDGE;
    binfo.PointsPerCell = 3;
  }
  else if ((elemType.substr(0, 3) == "EDG") && (binfo.BdsPerEntry[0] == 3))
  {
    binfo.CellType = VTK_QUADRATIC_EDGE;
    binfo.PointsPerCell = 3;
  }
  else if ((elemType.substr(0, 3) == "PYR") && (binfo.BdsPerEntry[0] == 13))
  {
    binfo.CellType = VTK_QUADRATIC_PYRAMID;
    binfo.PointsPerCell = 13;
  }

  // Check for regular elements
  else if (elemType.substr(0, 3) == "CIR")
  {
    binfo.CellType = VTK_VERTEX;
    binfo.PointsPerCell = 1;
  }
  else if (elemType.substr(0, 3) == "SPH")
  {
    binfo.CellType = VTK_VERTEX;
    binfo.PointsPerCell = 1;
  }
  else if (elemType.substr(0, 3) == "BAR")
  {
    binfo.CellType = VTK_LINE;
    binfo.PointsPerCell = 2;
  }
  else if (elemType.substr(0, 3) == "TRU")
  {
    binfo.CellType = VTK_LINE;
    binfo.PointsPerCell = 2;
  }
  else if (elemType.substr(0, 3) == "BEA")
  {
    binfo.CellType = VTK_LINE;
    binfo.PointsPerCell = 2;
  }
  else if (elemType.substr(0, 3) == "EDG")
  {
    binfo.CellType = VTK_LINE;
    binfo.PointsPerCell = 2;
  }
  else if (elemType.substr(0, 3) == "TRI")
  {
    binfo.CellType = VTK_TRIANGLE;
    binfo.PointsPerCell = 3;
  }
  else if (elemType.substr(0, 3) == "QUA")
  {
    binfo.CellType = VTK_QUAD;
    binfo.PointsPerCell = 4;
  }
  else if (elemType.substr(0, 3) == "TET")
  {
    binfo.CellType = VTK_TETRA;
    binfo.PointsPerCell = 4;
  }
  else if (elemType.substr(0, 3) == "PYR")
  {
    binfo.CellType = VTK_PYRAMID;
    binfo.PointsPerCell = 5;
  }
  else if (elemType.substr(0, 3) == "WED")
  {
    binfo.CellType = VTK_WEDGE;
    binfo.PointsPerCell = 6;
  }
  else if (elemType.substr(0, 3) == "HEX")
  {
    binfo.CellType = VTK_HEXAHEDRON;
    binfo.PointsPerCell = 8;
  }
  else if (elemType.substr(0, 3) == "NSI")
  {
    binfo.CellType = VTK_POLYGON;
    binfo.PointsPerCell = 0;
  }
  else if (elemType.substr(0, 3) == "NFA")
  {
    binfo.CellType = VTK_POLYHEDRON;
    binfo.PointsPerCell = 0;
  }
  else if ((elemType.substr(0, 3) == "SHE") && (binfo.BdsPerEntry[0] == 3))
  {
    binfo.CellType = VTK_TRIANGLE;
    binfo.PointsPerCell = 3;
  }
  else if ((elemType.substr(0, 3) == "SHE") && (binfo.BdsPerEntry[0] == 4))
  {
    binfo.CellType = VTK_QUAD;
    binfo.PointsPerCell = 4;
  }
  else if ((elemType.substr(0, 8) == "STRAIGHT") && (binfo.BdsPerEntry[0] == 2))
  {
    binfo.CellType = VTK_LINE;
    binfo.PointsPerCell = 2;
  }
  else if (elemType.substr(0, 3) == "SUP")
  {
    binfo.CellType = VTK_POLY_VERTEX;
    binfo.PointsPerCell = binfo.BdsPerEntry[0];
  }
  else if ((elemType.substr(0, 4) == "NULL") && (binfo.Size == 0))
  {
    (void)binfo; // silently ignore empty element blocks
  }
  else
  {
    vtkErrorMacro("Unsupported element type: " << elemType.c_str());
  }

  // cell types not currently handled
  // quadratic wedge - 15,16 nodes
  // quadratic pyramid - 13 nodes
}

//------------------------------------------------------------------------------
vtkExodusIIReaderPrivate::ArrayInfoType* vtkExodusIIReaderPrivate::FindArrayInfoByName(
  int otyp, const char* name)
{
  std::vector<ArrayInfoType>::iterator ai;
  for (ai = this->ArrayInfo[otyp].begin(); ai != this->ArrayInfo[otyp].end(); ++ai)
  {
    if (ai->Name == name)
      return &(*ai);
  }
  return nullptr;
}

//------------------------------------------------------------------------------
int vtkExodusIIReaderPrivate::IsObjectTypeBlock(int otyp)
{
  return (otyp == vtkExodusIIReader::ELEM_BLOCK || otyp == vtkExodusIIReader::EDGE_BLOCK ||
    otyp == vtkExodusIIReader::FACE_BLOCK);
}

//------------------------------------------------------------------------------
int vtkExodusIIReaderPrivate::IsObjectTypeSet(int otyp)
{
  return (otyp == vtkExodusIIReader::ELEM_SET || otyp == vtkExodusIIReader::EDGE_SET ||
    otyp == vtkExodusIIReader::FACE_SET || otyp == vtkExodusIIReader::NODE_SET ||
    otyp == vtkExodusIIReader::SIDE_SET);
}

//------------------------------------------------------------------------------
int vtkExodusIIReaderPrivate::IsObjectTypeMap(int otyp)
{
  return (otyp == vtkExodusIIReader::ELEM_MAP || otyp == vtkExodusIIReader::EDGE_MAP ||
    otyp == vtkExodusIIReader::FACE_MAP || otyp == vtkExodusIIReader::NODE_MAP);
}

//------------------------------------------------------------------------------
int vtkExodusIIReaderPrivate::GetObjectTypeFromMapType(int mtyp)
{
  switch (mtyp)
  {
    case vtkExodusIIReader::ELEM_MAP:
      return vtkExodusIIReader::ELEM_BLOCK;
    case vtkExodusIIReader::FACE_MAP:
      return vtkExodusIIReader::FACE_BLOCK;
    case vtkExodusIIReader::EDGE_MAP:
      return vtkExodusIIReader::EDGE_BLOCK;
    case vtkExodusIIReader::NODE_MAP:
      return vtkExodusIIReader::NODAL;
  }
  return -1;
}

//------------------------------------------------------------------------------
int vtkExodusIIReaderPrivate::GetMapTypeFromObjectType(int otyp)
{
  switch (otyp)
  {
    case vtkExodusIIReader::ELEM_BLOCK:
      return vtkExodusIIReader::ELEM_MAP;
    case vtkExodusIIReader::FACE_BLOCK:
      return vtkExodusIIReader::FACE_MAP;
    case vtkExodusIIReader::EDGE_BLOCK:
      return vtkExodusIIReader::EDGE_MAP;
    case vtkExodusIIReader::NODAL:
      return vtkExodusIIReader::NODE_MAP;
  }
  return -1;
}

//------------------------------------------------------------------------------
int vtkExodusIIReaderPrivate::GetTemporalTypeFromObjectType(int otyp)
{
  switch (otyp)
  {
    case vtkExodusIIReader::ELEM_BLOCK:
      return vtkExodusIIReader::ELEM_BLOCK_TEMPORAL;
    // case vtkExodusIIReader::FACE_BLOCK:
    //  return vtkExodusIIReader::FACE_MAP;
    // case vtkExodusIIReader::EDGE_BLOCK:
    //  return vtkExodusIIReader::EDGE_MAP;
    case vtkExodusIIReader::NODAL:
      return vtkExodusIIReader::NODAL_TEMPORAL;
    case vtkExodusIIReader::GLOBAL:
      return vtkExodusIIReader::GLOBAL_TEMPORAL;
  }
  return -1;
}

//------------------------------------------------------------------------------
int vtkExodusIIReaderPrivate::GetSetTypeFromSetConnType(int sctyp)
{
  switch (sctyp)
  {
    case vtkExodusIIReader::NODE_SET_CONN:
      return vtkExodusIIReader::NODE_SET;
    case vtkExodusIIReader::EDGE_SET_CONN:
      return vtkExodusIIReader::EDGE_SET;
    case vtkExodusIIReader::FACE_SET_CONN:
      return vtkExodusIIReader::FACE_SET;
    case vtkExodusIIReader::SIDE_SET_CONN:
      return vtkExodusIIReader::SIDE_SET;
    case vtkExodusIIReader::ELEM_SET_CONN:
      return vtkExodusIIReader::ELEM_SET;
  }
  return -1;
}

//------------------------------------------------------------------------------
int vtkExodusIIReaderPrivate::GetBlockConnTypeFromBlockType(int btyp)
{
  switch (btyp)
  {
    case vtkExodusIIReader::EDGE_BLOCK:
      return vtkExodusIIReader::EDGE_BLOCK_CONN;
    case vtkExodusIIReader::FACE_BLOCK:
      return vtkExodusIIReader::FACE_BLOCK_CONN;
    case vtkExodusIIReader::ELEM_BLOCK:
      return vtkExodusIIReader::ELEM_BLOCK_ELEM_CONN;
  }
  return -1;
}

//------------------------------------------------------------------------------
void vtkExodusIIReaderPrivate::RemoveBeginningAndTrailingSpaces(
  int len, char** names, int maxNameLength)
{
  for (int i = 0; i < len; i++)
  {
    char* c = names[i];
    int nmlen = (int)strlen(c);

    char* cbegin = c;
    char* cend = c + nmlen - 1;

    // remove spaces or non-printing character from start and end

    for (int j = 0; j < nmlen; j++)
    {
      if (!isgraph(*cbegin))
        cbegin++;
      else
        break;
    }

    for (int j = 0; j < nmlen; j++)
    {
      if (!isgraph(*cend))
        cend--;
      else
        break;
    }

    if (cend < cbegin)
    {
      snprintf(names[i], maxNameLength + 1, "null_%d", i);
      continue;
    }

    int newlen = cend - cbegin + 1;

    if (newlen < nmlen)
    {
      for (int j = 0; j < newlen; j++)
      {
        *c++ = *cbegin++;
      }
      *c = '\0';
    }
  }
}

//------------------------------------------------------------------------------
void vtkExodusIIReaderPrivate::ClearConnectivityCaches()
{
  std::map<int, std::vector<BlockInfoType>>::iterator blksit;
  for (blksit = this->BlockInfo.begin(); blksit != this->BlockInfo.end(); ++blksit)
  {
    std::vector<BlockInfoType>::iterator blkit;
    for (blkit = blksit->second.begin(); blkit != blksit->second.end(); ++blkit)
    {
      if (blkit->CachedConnectivity)
      {
        blkit->CachedConnectivity->Delete();
        blkit->CachedConnectivity = nullptr;
      }
    }
  }
  std::map<int, std::vector<SetInfoType>>::iterator setsit;
  for (setsit = this->SetInfo.begin(); setsit != this->SetInfo.end(); ++setsit)
  {
    std::vector<SetInfoType>::iterator setit;
    for (setit = setsit->second.begin(); setit != setsit->second.end(); ++setit)
    {
      if (setit->CachedConnectivity)
      {
        setit->CachedConnectivity->Delete();
        setit->CachedConnectivity = nullptr;
      }
    }
  }
}

//------------------------------------------------------------------------------
void vtkExodusIIReaderPrivate::SetParser(vtkExodusIIReaderParser* parser)
{
  // Properly sets the parser object but does not call Modified.  The parser
  // represents the state of the data in files, not the state of this object.
  if (this->Parser != parser)
  {
    vtkExodusIIReaderParser* oldParser = this->Parser;
    this->Parser = parser;
    if (this->Parser)
      this->Parser->Register(this);
    if (oldParser)
      oldParser->UnRegister(this);
  }
}

//------------------------------------------------------------------------------
int vtkExodusIIReaderPrivate::GetNumberOfParts()
{
  return static_cast<int>(this->PartInfo.size());
}

//------------------------------------------------------------------------------
const char* vtkExodusIIReaderPrivate::GetPartName(int idx)
{
  return this->PartInfo[idx].Name.c_str();
}

//------------------------------------------------------------------------------
const char* vtkExodusIIReaderPrivate::GetPartBlockInfo(int idx)
{
  char buffer[80];
  vtkStdString blocks;
  std::vector<int> blkIndices = this->PartInfo[idx].BlockIndices;
  for (unsigned int i = 0; i < blkIndices.size(); i++)
  {
    snprintf(buffer, sizeof(buffer), "%d, ", blkIndices[i]);
    blocks += buffer;
  }

  blocks.erase(blocks.size() - 2, blocks.size() - 1);

  return blocks.c_str();
}

//------------------------------------------------------------------------------
int vtkExodusIIReaderPrivate::GetPartStatus(int idx)
{
  // a part is only active if all its blocks are active
  std::vector<int> blkIndices = this->PartInfo[idx].BlockIndices;
  for (unsigned int i = 0; i < blkIndices.size(); i++)
  {
    if (!this->GetUnsortedObjectStatus(vtkExodusIIReader::ELEM_BLOCK, blkIndices[i]))
    {
      return 0;
    }
  }
  return 1;
}

//------------------------------------------------------------------------------
int vtkExodusIIReaderPrivate::GetPartStatus(const vtkStdString& name)
{
  for (unsigned int i = 0; i < this->PartInfo.size(); i++)
  {
    if (this->PartInfo[i].Name == name)
    {
      return this->GetPartStatus(i);
    }
  }
  return -1;
}

//------------------------------------------------------------------------------
void vtkExodusIIReaderPrivate::SetPartStatus(int idx, int on)
{
  // update the block status for all the blocks in this part
  std::vector<int> blkIndices = this->PartInfo[idx].BlockIndices;
  for (unsigned int i = 0; i < blkIndices.size(); i++)
  {
    this->SetUnsortedObjectStatus(vtkExodusIIReader::ELEM_BLOCK, blkIndices[i], on);
  }
}

//------------------------------------------------------------------------------
void vtkExodusIIReaderPrivate::SetPartStatus(const vtkStdString& name, int flag)
{
  for (unsigned int idx = 0; idx < this->PartInfo.size(); ++idx)
  {
    if (name == this->PartInfo[idx].Name)
    {
      this->SetPartStatus(idx, flag);
      return;
    }
  }
}

//------------------------------------------------------------------------------
int vtkExodusIIReaderPrivate::GetNumberOfMaterials()
{
  return static_cast<int>(this->MaterialInfo.size());
}

//------------------------------------------------------------------------------
const char* vtkExodusIIReaderPrivate::GetMaterialName(int idx)
{
  return this->MaterialInfo[idx].Name.c_str();
}

//------------------------------------------------------------------------------
int vtkExodusIIReaderPrivate::GetMaterialStatus(int idx)
{
  std::vector<int> blkIndices = this->MaterialInfo[idx].BlockIndices;

  for (unsigned int i = 0; i < blkIndices.size(); i++)
  {
    if (!this->GetUnsortedObjectStatus(vtkExodusIIReader::ELEM_BLOCK, blkIndices[i]))
    {
      return 0;
    }
  }
  return 1;
}

//------------------------------------------------------------------------------
int vtkExodusIIReaderPrivate::GetMaterialStatus(const vtkStdString& name)
{
  for (unsigned int i = 0; i < this->MaterialInfo.size(); i++)
  {
    if (this->MaterialInfo[i].Name == name)
    {
      return this->GetMaterialStatus(i);
    }
  }
  return -1;
}

//------------------------------------------------------------------------------
void vtkExodusIIReaderPrivate::SetMaterialStatus(int idx, int on)
{
  // update the block status for all the blocks in this material
  std::vector<int> blkIndices = this->MaterialInfo[idx].BlockIndices;

  for (unsigned int i = 0; i < blkIndices.size(); i++)
  {
    this->SetUnsortedObjectStatus(vtkExodusIIReader::ELEM_BLOCK, blkIndices[i], on);
  }
}

//------------------------------------------------------------------------------
void vtkExodusIIReaderPrivate::SetMaterialStatus(const vtkStdString& name, int flag)
{
  for (unsigned int idx = 0; idx < this->MaterialInfo.size(); ++idx)
  {
    if (name == this->MaterialInfo[idx].Name)
    {
      this->SetMaterialStatus(idx, flag);
      return;
    }
  }
}

//------------------------------------------------------------------------------
int vtkExodusIIReaderPrivate::GetNumberOfAssemblies()
{
  return static_cast<int>(this->AssemblyInfo.size());
}

//------------------------------------------------------------------------------
const char* vtkExodusIIReaderPrivate::GetAssemblyName(int idx)
{
  return this->AssemblyInfo[idx].Name.c_str();
}

//------------------------------------------------------------------------------
int vtkExodusIIReaderPrivate::GetAssemblyStatus(int idx)
{
  std::vector<int> blkIndices = this->AssemblyInfo[idx].BlockIndices;

  for (unsigned int i = 0; i < blkIndices.size(); i++)
  {
    if (!this->GetUnsortedObjectStatus(vtkExodusIIReader::ELEM_BLOCK, blkIndices[i]))
    {
      return 0;
    }
  }
  return 1;
}

//------------------------------------------------------------------------------
int vtkExodusIIReaderPrivate::GetAssemblyStatus(const vtkStdString& name)
{
  for (unsigned int i = 0; i < this->AssemblyInfo.size(); i++)
  {
    if (this->AssemblyInfo[i].Name == name)
    {
      return this->GetAssemblyStatus(i);
    }
  }
  return -1;
}

//------------------------------------------------------------------------------
void vtkExodusIIReaderPrivate::SetAssemblyStatus(int idx, int on)
{
  std::vector<int> blkIndices = this->AssemblyInfo[idx].BlockIndices;

  // update the block status for all the blocks in this material
  for (unsigned int i = 0; i < blkIndices.size(); i++)
  {
    this->SetUnsortedObjectStatus(vtkExodusIIReader::ELEM_BLOCK, blkIndices[i], on);
  }
}

//------------------------------------------------------------------------------
void vtkExodusIIReaderPrivate::SetAssemblyStatus(const vtkStdString& name, int flag)
{
  for (unsigned int idx = 0; idx < this->AssemblyInfo.size(); ++idx)
  {
    if (name == this->AssemblyInfo[idx].Name)
    {
      this->SetAssemblyStatus(idx, flag);
      return;
    }
  }
}

//------------------------------------------------------------------------------
// Normally, this would be below with all the other vtkExodusIIReader member definitions,
// but the PrintSelf test script is really lame.
void vtkExodusIIReader::PrintSelf(ostream& os, vtkIndent indent)
{
  this->Superclass::PrintSelf(os, indent);
  os << indent << "FileName: " << (this->FileName ? this->FileName : "(null)") << "\n";
  os << indent << "XMLFileName: " << (this->XMLFileName ? this->XMLFileName : "(null)") << "\n";
  os << indent << "DisplayType: " << this->DisplayType << "\n";
  os << indent << "TimeStep: " << this->TimeStep << "\n";
  os << indent << "TimeStepRange: [" << this->TimeStepRange[0] << ", " << this->TimeStepRange[1]
     << "]\n";
  os << indent << "ModeShapesRange:  [ " << this->GetModeShapesRange()[0] << ", "
     << this->GetModeShapesRange()[1] << "]\n";
  os << indent << "IgnoreFileTime: " << this->GetIgnoreFileTime() << "\n";
  os << indent << "SILUpdateStamp: " << this->SILUpdateStamp << "\n";
  os << indent << "UseLegacyBlockNames: " << this->UseLegacyBlockNames << "\n";
  if (this->Metadata)
  {
    os << indent << "Metadata:\n";
    this->Metadata->PrintSelf(os, indent.GetNextIndent());
  }
  else
  {
    os << indent << "Metadata: (null)\n";
  }
}

void vtkExodusIIReaderPrivate::PrintSelf(ostream& os, vtkIndent indent)
{
  // this->Superclass::Print Self( os, indent );
  os << indent << "Exoid: " << this->Exoid << "\n";
  os << indent << "AppWordSize: " << this->AppWordSize << "\n";
  os << indent << "DiskWordSize: " << this->DiskWordSize << "\n";
  os << indent << "ExodusVersion: " << this->ExodusVersion << "\n";
  os << indent << "ModelParameters:\n";

  vtkIndent inden2 = indent.GetNextIndent();
  os << inden2 << "Title: " << this->ModelParameters.title << "\n";
  os << inden2 << "Dimension: " << this->ModelParameters.num_dim << "\n";
  os << inden2 << "Nodes: " << this->ModelParameters.num_nodes << "\n";
  os << inden2 << "Edges: " << this->ModelParameters.num_edge << "\n";
  os << inden2 << "Faces: " << this->ModelParameters.num_face << "\n";
  os << inden2 << "Elements: " << this->ModelParameters.num_elem << "\n";
  os << inden2 << "Edge Blocks: " << this->ModelParameters.num_edge_blk << "\n";
  os << inden2 << "Face Blocks: " << this->ModelParameters.num_face_blk << "\n";
  os << inden2 << "Element Blocks: " << this->ModelParameters.num_elem_blk << "\n";
  os << inden2 << "Node Sets: " << this->ModelParameters.num_node_sets << "\n";
  os << inden2 << "Edge Sets: " << this->ModelParameters.num_edge_sets << "\n";
  os << inden2 << "Face Sets: " << this->ModelParameters.num_face_sets << "\n";
  os << inden2 << "Side Sets: " << this->ModelParameters.num_side_sets << "\n";
  os << inden2 << "Element Sets: " << this->ModelParameters.num_elem_sets << "\n";
  os << inden2 << "Node Maps: " << this->ModelParameters.num_node_maps << "\n";
  os << inden2 << "Edge Maps: " << this->ModelParameters.num_edge_maps << "\n";
  os << inden2 << "Face Maps: " << this->ModelParameters.num_face_maps << "\n";
  os << inden2 << "Element Maps: " << this->ModelParameters.num_elem_maps << "\n";

  os << indent << "Time steps (" << this->Times.size() << "):";
  int i;
  for (i = 0; i < (int)this->Times.size(); ++i)
  {
    os << " " << this->Times[i];
  }
  os << "\n";
  os << indent << "HasModeShapes: " << this->HasModeShapes << "\n";
  os << indent << "ModeShapeTime: " << this->ModeShapeTime << "\n";
  os << indent << "AnimateModeShapes: " << this->AnimateModeShapes << "\n";

  // Print nodal variables
  if (!this->ArrayInfo[vtkExodusIIReader::NODAL].empty())
  {
    os << indent << "Nodal Arrays:\n";
    std::vector<ArrayInfoType>::iterator ai;
    for (ai = this->ArrayInfo[vtkExodusIIReader::NODAL].begin();
         ai != this->ArrayInfo[vtkExodusIIReader::NODAL].end(); ++ai)
    {
      printArray(os, indent, vtkExodusIIReader::NODAL, *ai);
    }
  }

  // Print blocks
  os << indent << "Blocks:\n";
  std::map<int, std::vector<BlockInfoType>>::iterator bti;
  for (bti = this->BlockInfo.begin(); bti != this->BlockInfo.end(); ++bti)
  {
    std::vector<BlockInfoType>::iterator bi;
    for (bi = bti->second.begin(); bi != bti->second.end(); ++bi)
    {
      printBlock(os, indent.GetNextIndent(), bti->first, *bi);
    }
    if (!this->ArrayInfo[bti->first].empty())
    {
      os << indent << "    Results variables:\n";
      std::vector<ArrayInfoType>::iterator ai;
      for (ai = this->ArrayInfo[bti->first].begin(); ai != this->ArrayInfo[bti->first].end(); ++ai)
      {
        printArray(os, indent.GetNextIndent(), bti->first, *ai);
      }
    }
  }

  // Print sets
  os << indent << "Sets:\n";
  std::map<int, std::vector<SetInfoType>>::iterator sti;
  for (sti = this->SetInfo.begin(); sti != this->SetInfo.end(); ++sti)
  {
    std::vector<SetInfoType>::iterator si;
    for (si = sti->second.begin(); si != sti->second.end(); ++si)
    {
      printSet(os, indent.GetNextIndent(), sti->first, *si);
    }
    if (!this->ArrayInfo[sti->first].empty())
    {
      os << indent << "    Results variables:\n";
      std::vector<ArrayInfoType>::iterator ai;
      for (ai = this->ArrayInfo[sti->first].begin(); ai != this->ArrayInfo[sti->first].end(); ++ai)
      {
        printArray(os, indent.GetNextIndent(), sti->first, *ai);
      }
    }
  }

  // Print maps
  os << indent << "Maps:\n";
  std::map<int, std::vector<MapInfoType>>::iterator mti;
  for (mti = this->MapInfo.begin(); mti != this->MapInfo.end(); ++mti)
  {
    std::vector<MapInfoType>::iterator mi;
    for (mi = mti->second.begin(); mi != mti->second.end(); ++mi)
    {
      printMap(os, indent.GetNextIndent(), mti->first, *mi);
    }
  }

  os << indent << "Array Cache:\n";
  this->Cache->PrintSelf(os, inden2);

  os << indent << "SqueezePoints: " << this->SqueezePoints << "\n";
  os << indent << "ApplyDisplacements: " << this->ApplyDisplacements << "\n";
  os << indent << "DisplacementMagnitude: " << this->DisplacementMagnitude << "\n";
  os << indent << "GenerateObjectIdArray: " << this->GenerateObjectIdArray << "\n";
  os << indent << "GenerateFileIdArray: " << this->GenerateFileIdArray << "\n";
  os << indent << "FileId: " << this->FileId << "\n";
}

int vtkExodusIIReaderPrivate::OpenFile(const char* filename)
{
  if (!filename || !strlen(filename))
  {
    vtkErrorMacro("Exodus filename pointer was nullptr or pointed to an empty string.");
    return 0;
  }

  if (this->Exoid >= 0)
  {
    this->CloseFile();
  }

  this->Exoid =
    ex_open(filename, EX_READ, &this->AppWordSize, &this->DiskWordSize, &this->ExodusVersion);
  if (this->Exoid <= 0)
  {
    vtkErrorMacro("Unable to open \"" << filename << "\" for reading");
    return 0;
  }

#ifdef VTK_USE_64BIT_IDS
  // Set the exodus API to always return integer types as 64-bit
  // without this call, large exodus files are not supported (which
  // is ok in 32 bit ids mode since VTK's ids can't fit the data).
  ex_set_int64_status(this->Exoid, EX_ALL_INT64_API);
#endif
  // figure out the longest string name we have and then set that to be the
  // maximum length for the variable names. This is called every time that the reader
  // is updated so we don't have to worry about setting the global max_name_length variable.
  // this is because in our current version of the ExodusII libraries the exo Id isn't used
  // in the ex_set_max_name_length() function.
  ex_set_max_name_length(this->Exoid, this->Parent->GetMaxNameLength());

  vtkIdType numNodesInFile;
  char dummyChar;
  float dummyFloat;
  ex_inquire(this->Exoid, EX_INQ_NODES, &numNodesInFile, &dummyFloat, &dummyChar);

  return 1;
}

int vtkExodusIIReaderPrivate::CloseFile()
{
  if (this->Exoid >= 0)
  {
    VTK_EXO_FUNC(ex_close(this->Exoid), "Could not close an open file (" << this->Exoid << ")");
    this->Exoid = -1;
  }
  return 0;
}

int vtkExodusIIReaderPrivate::UpdateTimeInformation()
{
  // BUG #15632: For files with spatial partitions, vtkPExodusIIReader uses vtkExodusIIReader
  // to read each of the files. Since time information between those files doesn't change and
  // it can be quite time consuming to collect the time information, vtkPExodusIIReader forcibly
  // passes time information from the first reader to all others. SkipUpdateTimeInformation helps us
  // get that going without significant changes to the reader.
  if (this->SkipUpdateTimeInformation)
  {
    return 0;
  }

  int exoid = this->Exoid;
  vtkIdType itmp[5];
  int num_timesteps;
  int i;

  VTK_EXO_FUNC(
    ex_inquire(exoid, EX_INQ_TIME, itmp, nullptr, nullptr), "Inquire for EX_INQ_TIME failed");
  num_timesteps = itmp[0];

  this->Times.clear();
  if (num_timesteps > 0)
  {
    this->Times.resize(num_timesteps);

    int exo_err = ex_get_all_times(this->Exoid, &this->Times[0]);
    if (exo_err < 0 || this->IgnoreFileTime)
    {
      for (i = 0; i < num_timesteps; ++i)
      {
        this->Times[i] = i;
      }
      // vtkWarningMacro("Could not retrieve time values, assuming times equal to timesteps");
    }
  }
  return 0;
}

//------------------------------------------------------------------------------
void vtkExodusIIReaderPrivate::BuildSIL()
{
  // Initialize the SIL, dump all previous information.
  this->SIL->Initialize();
  if (this->Parser)
  {
    // The parser has built the SIL for us,
    // use that.
    this->SIL->ShallowCopy(this->Parser->GetSIL());
    return;
  }

  // Else build a minimal SIL with only the blocks.
  vtkSmartPointer<vtkVariantArray> childEdge = vtkSmartPointer<vtkVariantArray>::New();
  childEdge->InsertNextValue(0);

  vtkSmartPointer<vtkVariantArray> crossEdge = vtkSmartPointer<vtkVariantArray>::New();
  crossEdge->InsertNextValue(0);

  // CrossEdge is an edge linking hierarchies.
  vtkUnsignedCharArray* crossEdgesArray = vtkUnsignedCharArray::New();
  crossEdgesArray->SetName("CrossEdges");
  this->SIL->GetEdgeData()->AddArray(crossEdgesArray);
  crossEdgesArray->Delete();

  std::deque<std::string> names;
  int cc;

  // Now build the hierarchy.
  vtkIdType rootId = this->SIL->AddVertex();
  names.emplace_back("SIL");

  // Add the ELEM_BLOCK subtree.
  vtkIdType blocksRoot = this->SIL->AddChild(rootId, childEdge);
  names.emplace_back("Blocks");

  // Add the assembly subtree
  this->SIL->AddChild(rootId, childEdge);
  names.emplace_back("Assemblies");

  // Add the materials subtree
  this->SIL->AddChild(rootId, childEdge);
  names.emplace_back("Materials");

  // This is the map of block names to node ids.
  std::map<std::string, vtkIdType> blockids;
  int numBlocks = this->GetNumberOfObjectsOfType(vtkExodusIIReader::ELEM_BLOCK);
  for (cc = 0; cc < numBlocks; cc++)
  {
    vtkIdType child = this->SIL->AddChild(blocksRoot, childEdge);
    std::string block_name = this->GetObjectName(vtkExodusIIReader::ELEM_BLOCK, cc);
    names.push_back(block_name);
    blockids[block_name] = child;
  }

  // This array is used to assign names to nodes.
  vtkStringArray* namesArray = vtkStringArray::New();
  namesArray->SetName("Names");
  namesArray->SetNumberOfTuples(this->SIL->GetNumberOfVertices());
  this->SIL->GetVertexData()->AddArray(namesArray);
  namesArray->Delete();

  std::deque<std::string>::iterator iter;
  for (cc = 0, iter = names.begin(); iter != names.end(); ++iter, ++cc)
  {
    namesArray->SetValue(cc, (*iter).c_str());
  }
}

//------------------------------------------------------------------------------
int vtkExodusIIReaderPrivate::RequestInformation()
{
  int exoid = this->Exoid;
  // int itmp[5];
  vtkIdType* ids;
  vtkIdType nids;
  int obj;
  int i, j;
  int num_timesteps;
  char** obj_names;
  char** obj_typenames = nullptr;
  char** var_names = nullptr;
  int have_var_names;
  int num_vars = 0; /* number of variables per object */
  char tmpName[256];
  tmpName[255] = '\0';
  int maxNameLength = this->Parent->GetMaxNameLength();

  this->InformationTimeStamp
    .Modified(); // Update MTime so that it will be newer than parent's FileNameMTime

  VTK_EXO_FUNC(
    ex_get_init_ext(exoid, &this->ModelParameters), "Unable to read database parameters.");

  VTK_EXO_FUNC(this->UpdateTimeInformation(), "");

  // VTK_EXO_FUNC( ex_inquire( exoid, EX_INQ_TIME,       itmp, 0, 0 ), "Inquire for EX_INQ_TIME
  // failed" ); num_timesteps = itmp[0];

  num_timesteps = static_cast<int>(this->Times.size());
  /*
    this->Times.clear();
    if ( num_timesteps > 0 )
      {
      this->Times.resize( num_timesteps );
      VTK_EXO_FUNC( ex_get_all_times( this->Exoid, &this->Times[0] ), "Could not retrieve time
    values." );
      }
  */
  for (i = 0; i < num_obj_types; ++i)
  {
    if (OBJTYPE_IS_NODAL(i))
    {
      continue;
    }

    vtkIdType blockEntryFileOffset = 1;
    vtkIdType setEntryFileOffset = 1;

    std::map<int, int> sortedObjects;

    int* truth_tab = nullptr;
    have_var_names = 0;

    VTK_EXO_FUNC(ex_inquire(exoid, obj_sizes[i], &nids, nullptr, nullptr),
      "Object ID list size could not be determined.");

    if (nids)
    {
      ids = (vtkIdType*)malloc(nids * sizeof(vtkIdType));
      obj_names = (char**)malloc(nids * sizeof(char*));
      for (obj = 0; obj < nids; ++obj)
      {
        obj_names[obj] = (char*)malloc((maxNameLength + 1) * sizeof(char));
      }
      if (OBJTYPE_IS_BLOCK(i))
      {
        obj_typenames = (char**)malloc(nids * sizeof(char*));
        for (obj = 0; obj < nids; ++obj)
        {
          obj_typenames[obj] = (char*)malloc((maxNameLength + 1) * sizeof(char));
          obj_typenames[obj][0] = '\0';
        }
      }
    }
    else
    {
      ids = nullptr;
      obj_names = nullptr;
      obj_typenames = nullptr;
    }

    if (nids == 0 && !OBJTYPE_IS_MAP(i))
      continue;

    if (nids)
    {
      VTK_EXO_FUNC(ex_get_ids(exoid, static_cast<ex_entity_type>(obj_types[i]), ids),
        "Could not read object ids for i=" << i << " and otyp=" << obj_types[i] << ".");
      VTK_EXO_FUNC(ex_get_names(exoid, static_cast<ex_entity_type>(obj_types[i]), obj_names),
        "Could not read object names.");
    }

    BlockInfoType binfo;
    SetInfoType sinfo;
    MapInfoType minfo;

    if (OBJTYPE_IS_BLOCK(i))
    {
      this->BlockInfo[obj_types[i]].clear();
      this->BlockInfo[obj_types[i]].reserve(nids);
    }
    else if (OBJTYPE_IS_SET(i))
    {
      this->SetInfo[obj_types[i]].clear();
      this->SetInfo[obj_types[i]].reserve(nids);
    }
    else
    {
      this->MapInfo[obj_types[i]].clear();
      this->MapInfo[obj_types[i]].reserve(nids);
    }

    if ((OBJTYPE_IS_BLOCK(i)) || (OBJTYPE_IS_SET(i)))
    {
      VTK_EXO_FUNC(
        ex_get_var_param(exoid, obj_typestr[i], &num_vars), "Could not read number of variables.");

      if (num_vars && num_timesteps > 0)
      {
        truth_tab = (int*)malloc(num_vars * nids * sizeof(int));
        VTK_EXO_FUNC(ex_get_var_tab(exoid, obj_typestr[i], nids, num_vars, truth_tab),
          "Could not read truth table.");

        var_names = (char**)malloc(num_vars * sizeof(char*));
        for (j = 0; j < num_vars; ++j)
          var_names[j] = (char*)malloc((maxNameLength + 1) * sizeof(char));

        VTK_EXO_FUNC(ex_get_var_names(exoid, obj_typestr[i], num_vars, var_names),
          "Could not read variable names.");
        this->RemoveBeginningAndTrailingSpaces(num_vars, var_names, maxNameLength);
        have_var_names = 1;
      }
    }

    if (!have_var_names)
      var_names = nullptr;

    for (obj = 0; obj < nids; ++obj)
    {

      if (OBJTYPE_IS_BLOCK(i))
      {

        binfo.Name = obj_names[obj];
        binfo.Id = ids[obj];
        binfo.CachedConnectivity = nullptr;
        binfo.NextSqueezePoint = 0;
        if (obj_types[i] == vtkExodusIIReader::ELEM_BLOCK)
        {
          VTK_EXO_FUNC(ex_get_block(exoid, static_cast<ex_entity_type>(obj_types[i]), ids[obj],
                         obj_typenames[obj], &binfo.Size, &binfo.BdsPerEntry[0],
                         &binfo.BdsPerEntry[1], &binfo.BdsPerEntry[2], &binfo.AttributesPerEntry),
            "Could not read block params.");
          binfo.Status = 1; // load element blocks by default
          binfo.TypeName = obj_typenames[obj];
        }
        else
        {
          VTK_EXO_FUNC(ex_get_block(exoid, static_cast<ex_entity_type>(obj_types[i]), ids[obj],
                         obj_typenames[obj], &binfo.Size, &binfo.BdsPerEntry[0],
                         &binfo.BdsPerEntry[1], &binfo.BdsPerEntry[2], &binfo.AttributesPerEntry),
            "Could not read block params.");
          binfo.Status = 0; // don't load edge/face blocks by default
          binfo.TypeName = obj_typenames[obj];
          binfo.BdsPerEntry[1] = binfo.BdsPerEntry[2] = 0;
        }
        this->GetInitialObjectStatus(obj_types[i], &binfo);
        // num_entries = binfo.Size;
        binfo.FileOffset = blockEntryFileOffset;
        blockEntryFileOffset += binfo.Size;
        if (binfo.Name.length() == 0)
        {
          if (this->Parent->GetUseLegacyBlockNames())
          {
            snprintf(tmpName, sizeof(tmpName),
#ifdef VTK_USE_64BIT_IDS
              "Unnamed block ID: %lld Type: %s",
#else
              "Unnamed block ID: %d Type: %s",
#endif
              ids[obj], binfo.TypeName.length() ? binfo.TypeName.c_str() : "nullptr");
          }
          else
          {
#ifdef VTK_USE_64BIT_IDS
            snprintf(tmpName, sizeof(tmpName), "Unnamed block ID: %lld", ids[obj]);
#else
            snprintf(tmpName, sizeof(tmpName), "Unnamed block ID: %d", ids[obj]);
#endif
          }
          binfo.Name = tmpName;
        }
        binfo.OriginalName = binfo.Name;
        this->DetermineVtkCellType(binfo);

        if (binfo.AttributesPerEntry)
        {
          char** attr_names;
          attr_names = (char**)malloc(binfo.AttributesPerEntry * sizeof(char*));
          for (j = 0; j < binfo.AttributesPerEntry; ++j)
            attr_names[j] = (char*)malloc((maxNameLength + 1) * sizeof(char));

          VTK_EXO_FUNC(ex_get_attr_names(
                         exoid, static_cast<ex_entity_type>(obj_types[i]), ids[obj], attr_names),
            "Could not read attributes names.");

          for (j = 0; j < binfo.AttributesPerEntry; ++j)
          {
            binfo.AttributeNames.emplace_back(attr_names[j]);
            binfo.AttributeStatus.push_back(0); // don't load attributes by default
          }

          for (j = 0; j < binfo.AttributesPerEntry; ++j)
            free(attr_names[j]);
          free(attr_names);
        }

        // Check to see if there is metadata that defines what part, material,
        //  and assembly(ies) this block belongs to.

        if (this->Parser && this->Parser->HasInformationAboutBlock(binfo.Id))
        {
          // Update the block name using the XML.
          binfo.Name = this->Parser->GetBlockName(binfo.Id);

          // int blockIdx = static_cast<int>( this->BlockInfo[obj_types[i]].size() );
          //// Add this block to our parts, materials, and assemblies collections
          // unsigned int k;
          // int found = 0;

          //// Look to see if this part has already been created
          // for (k=0;k<this->PartInfo.size();k++)
          //  {
          //  if (this->PartInfo[k].Name==partName)
          //    {
          //    //binfo.PartId = k;
          //    this->PartInfo[k].BlockIndices.push_back(blockIdx);
          //    found=1;
          //    }
          //  }

          // if (!found)
          //  {
          //  PartInfoType pinfo;
          //  pinfo.Name = partName;
          //  pinfo.Id = static_cast<int>( this->PartInfo.size() );
          //  //binfo.PartId = k;
          //  pinfo.BlockIndices.push_back(blockIdx);
          //  this->PartInfo.push_back(pinfo);
          //  }
          //
          // found=0;
          // for (k=0;k<this->MaterialInfo.size();k++)
          //  {
          //  if (this->MaterialInfo[k].Name==materialName)
          //    {
          //    //binfo.MaterialId = k;
          //    this->MaterialInfo[k].BlockIndices.push_back(blockIdx);
          //    found=1;
          //    }
          //  }
          // if (!found)
          //  {
          //  MaterialInfoType matinfo;
          //  matinfo.Name = materialName;
          //  matinfo.Id = static_cast<int>( this->MaterialInfo.size() );
          //  //binfo.MaterialId = k;
          //  matinfo.BlockIndices.push_back(blockIdx);
          //  this->MaterialInfo.push_back(matinfo);
          //  }
          //
          // for (k=0;k<localAssemblyNames.size();k++)
          //  {
          //  vtkStdString assemblyName=localAssemblyNames[k];
          //  found=0;
          //  for (unsigned int n=0;n<this->AssemblyInfo.size();n++)
          //    {
          //    if (this->AssemblyInfo[n].Name==assemblyName) {
          //      //binfo.AssemblyIds.push_back(j);
          //      this->AssemblyInfo[n].BlockIndices.push_back(blockIdx);
          //      found=1;
          //      }
          //    }
          //  if (!found)
          //    {
          //    AssemblyInfoType ainfo;
          //    ainfo.Name = assemblyName;
          //    ainfo.Id = static_cast<int>( this->AssemblyInfo.size() );
          //    //binfo.AssemblyIds.push_back(k);
          //    ainfo.BlockIndices.push_back(blockIdx);
          //    this->AssemblyInfo.push_back(ainfo);
          //    }
          //  }
        }

        sortedObjects[binfo.Id] = static_cast<int>(this->BlockInfo[obj_types[i]].size());
        this->BlockInfo[obj_types[i]].push_back(binfo);
      }
      else if (OBJTYPE_IS_SET(i))
      {

        sinfo.Name = obj_names[obj];
        sinfo.Status = 0;
        sinfo.Id = ids[obj];
        sinfo.CachedConnectivity = nullptr;
        sinfo.NextSqueezePoint = 0;

        VTK_EXO_FUNC(ex_get_set_param(exoid, static_cast<ex_entity_type>(obj_types[i]), ids[obj],
                       &sinfo.Size, &sinfo.DistFact),
          "Could not read set parameters.");
        // num_entries = sinfo.Size;
        sinfo.FileOffset = setEntryFileOffset;
        setEntryFileOffset += sinfo.Size;
        this->GetInitialObjectStatus(obj_types[i], &sinfo);
        if (sinfo.Name.length() == 0)
        {
          snprintf(tmpName, sizeof(tmpName),
#ifdef VTK_USE_64BIT_IDS
            "Unnamed set ID: %lld",
#else
            "Unnamed set ID: %d",
#endif
            ids[obj]);
          sinfo.Name = tmpName;
        }
        sortedObjects[sinfo.Id] = (int)this->SetInfo[obj_types[i]].size();
        this->SetInfo[obj_types[i]].push_back(sinfo);
      }
      else
      { /* object is map */

        minfo.Id = ids[obj];
        minfo.Status = obj == 0 ? 1 : 0; // only load the first map by default
        switch (obj_types[i])
        {
          case vtkExodusIIReader::NODE_MAP:
            minfo.Size = this->ModelParameters.num_nodes;
            break;
          case vtkExodusIIReader::EDGE_MAP:
            minfo.Size = this->ModelParameters.num_edge;
            break;
          case vtkExodusIIReader::FACE_MAP:
            minfo.Size = this->ModelParameters.num_face;
            break;
          case vtkExodusIIReader::ELEM_MAP:
            minfo.Size = this->ModelParameters.num_elem;
            break;
          default:
            minfo.Size = 0;
        }
        minfo.Name = obj_names[obj];
        if (minfo.Name.length() == 0)
        {
          snprintf(tmpName, sizeof(tmpName),
#ifdef VTK_USE_64BIT_IDS
            "Unnamed map ID: %lld",
#else
            "Unnamed map ID: %d",
#endif
            ids[obj]);
          minfo.Name = tmpName;
        }
        sortedObjects[minfo.Id] = (int)this->MapInfo[obj_types[i]].size();
        this->MapInfo[obj_types[i]].push_back(minfo);
      }

    } // end of loop over all object ids

    // Now that we have all objects of that type in the sortedObjects, we can
    // iterate over it to fill in the SortedObjectIndices (the map is a *sorted*
    // associative container)
    std::map<int, int>::iterator soit;
    for (soit = sortedObjects.begin(); soit != sortedObjects.end(); ++soit)
    {
      this->SortedObjectIndices[obj_types[i]].push_back(soit->second);
    }

    if (((OBJTYPE_IS_BLOCK(i)) || (OBJTYPE_IS_SET(i))) && num_vars && num_timesteps > 0)
    {
      this->ArrayInfo[obj_types[i]].clear();
      // Fill in ArrayInfo entries, combining array names into vectors/tensors where appropriate:
      this->GlomArrayNames(obj_types[i], nids, num_vars, var_names, truth_tab);
    }

    if (var_names)
    {
      for (j = 0; j < num_vars; ++j)
        free(var_names[j]);
      free(var_names);
    }
    if (truth_tab)
      free(truth_tab);

    if (nids)
    {
      free(ids);

      for (obj = 0; obj < nids; ++obj)
        free(obj_names[obj]);
      free(obj_names);

      if (OBJTYPE_IS_BLOCK(i))
      {
        for (obj = 0; obj < nids; ++obj)
          free(obj_typenames[obj]);
        free(obj_typenames);
      }
    }

  } // end of loop over all object types
  // this->ComputeGridOffsets();

  // Now read information for nodal arrays
  VTK_EXO_FUNC(
    ex_get_var_param(exoid, "n", &num_vars), "Unable to read number of nodal variables.");
  if (num_vars > 0)
  {
    var_names = (char**)malloc(num_vars * sizeof(char*));
    for (j = 0; j < num_vars; ++j)
    {
      var_names[j] = (char*)malloc((maxNameLength + 1) * sizeof(char));
    }

    VTK_EXO_FUNC(
      ex_get_var_names(exoid, "n", num_vars, var_names), "Could not read nodal variable names.");
    this->RemoveBeginningAndTrailingSpaces(num_vars, var_names, maxNameLength);

    nids = 1;
    std::vector<int> dummy_truth;
    dummy_truth.reserve(num_vars);
    for (j = 0; j < num_vars; ++j)
    {
      dummy_truth.push_back(1);
    }

    this->GlomArrayNames(vtkExodusIIReader::NODAL, nids, num_vars, var_names, &dummy_truth[0]);

    for (j = 0; j < num_vars; ++j)
    {
      free(var_names[j]);
    }
    free(var_names);
    var_names = nullptr;
  }

  // Now read information for global variables
  VTK_EXO_FUNC(
    ex_get_var_param(exoid, "g", &num_vars), "Unable to read number of global variables.");
  if (num_vars > 0)
  {
    var_names = (char**)malloc(num_vars * sizeof(char*));
    for (j = 0; j < num_vars; ++j)
    {
      var_names[j] = (char*)malloc((maxNameLength + 1) * sizeof(char));
    }

    VTK_EXO_FUNC(
      ex_get_var_names(exoid, "g", num_vars, var_names), "Could not read global variable names.");
    this->RemoveBeginningAndTrailingSpaces(num_vars, var_names, maxNameLength);

    nids = 1;
    std::vector<int> dummy_truth;
    dummy_truth.reserve(num_vars);
    for (j = 0; j < num_vars; ++j)
    {
      dummy_truth.push_back(1);
    }

    this->GlomArrayNames(vtkExodusIIReader::GLOBAL, nids, num_vars, var_names, &dummy_truth[0]);

    for (j = 0; j < num_vars; ++j)
    {
      free(var_names[j]);
    }
    free(var_names);
    var_names = nullptr;
  }

  return 0;
}

int vtkExodusIIReaderPrivate::RequestData(vtkIdType timeStep, vtkMultiBlockDataSet* output)
{
  // The work done here depends on several conditions:
  // - Has connectivity changed (i.e., has block/set status changed)?
  //   - If so, AND if point "squeeze" turned on, must reload points and re-squeeze.
  //   - If so, must re-assemble all arrays
  //   - Must recreate block/set id array.
  // - Has requested time changed?
  //   - If so, AND if "deflect mesh" turned on, must load new deflections and compute new points.
  //   - If so, must assemble all time-varying arrays for new time.
  // - Has array status changed?
  //   - If so, must delete old and/or load new arrays.
  // Obviously, many of these tasks overlap. For instance, it would be
  // foolish to re-assemble all the arrays when the connectivity has
  // changed and then toss them out in order to load arrays for a
  // different time step.

  // Caching strategy: use GLOBAL "object type" for assembled arrays.
  // If connectivity hasn't changed, then these arrays can be used;
  // otherwise, "raw" arrays must be used.
  // Pro:
  //   - single cache == easier bookkeeping (two caches would require us to decide how to equitably
  //   split avail mem between them)
  //   - many different operations are accelerated:
  //     - just changing which variables are loaded
  //     - changing which blocks are in output (doesn't require disk access if cache hit)
  //     - possible extension to single-node/cell over time
  // Con:
  //   - higher memory consumption for caching the same set of arrays (or, holding cache size fixed:
  //   fewer arrays fit)

  if (!output)
  {
    vtkErrorMacro("You must specify an output mesh");
  }

  // Iterate over all block and set types, creating a
  // multiblock dataset to hold objects of each type.
  int conntypidx;
  output->SetNumberOfBlocks(num_conn_types);
  for (conntypidx = 0; conntypidx < num_conn_types; ++conntypidx)
  {
    int otypidx = conn_obj_idx_cvt[conntypidx];
    int otyp = obj_types[otypidx];
    // Loop over all blocks/sets of this type
    int numObj = this->GetNumberOfObjectsOfType(otyp);
    vtkMultiBlockDataSet* mbds;
    mbds = vtkMultiBlockDataSet::New();
    mbds->SetNumberOfBlocks(numObj);
    output->SetBlock(conntypidx, mbds);
    output->GetMetaData(conntypidx)->Set(vtkCompositeDataSet::NAME(), conn_types_names[conntypidx]);
    mbds->FastDelete();
    // cout << "++ Block: " << mbds << " ObjectType: " << otyp << "\n";
    int obj;
    int sortIdx;
    for (sortIdx = 0; sortIdx < numObj; ++sortIdx)
    {
      const char* object_name = this->GetObjectName(otyp, sortIdx);

      // Preserve the "sorted" order when concatenating
      obj = this->SortedObjectIndices[otyp][sortIdx];
      BlockSetInfoType* bsinfop = static_cast<BlockSetInfoType*>(this->GetObjectInfo(otypidx, obj));
      // cout << ( bsinfop->Status ? "++" : "--" ) << "   ObjectId: " << bsinfop->Id;
      // vtkLogF(TRACE, "%s: name=%s, idx=%d, type=%d status=%d",
      //    vtkLogIdentifier(this), object_name, sortIdx, otypidx, bsinfop->Status);
      if (!bsinfop->Status)
      {
        mbds->SetBlock(sortIdx, nullptr);
        if (object_name)
        {
          mbds->GetMetaData(sortIdx)->Set(vtkCompositeDataSet::NAME(), object_name);
        }
        continue;
      }
      vtkUnstructuredGrid* ug = vtkUnstructuredGrid::New();
      mbds->SetBlock(sortIdx, ug);
      if (object_name)
      {
        mbds->GetMetaData(sortIdx)->Set(vtkCompositeDataSet::NAME(), object_name);
      }
      ug->FastDelete();
      // cout << " Grid: " << ug << "\n";

      try
      {
        // Connectivity first. Either from the cache in bsinfop or read from disk.
        // Connectivity isn't allowed to change with time.
        this->AssembleOutputConnectivity(timeStep, otyp, obj, conntypidx, bsinfop, ug);

        // Now prepare points.
        // These shouldn't change unless the connectivity has changed.
        this->AssembleOutputPoints(timeStep, bsinfop, ug);

        // Then, add the desired arrays from cache (or disk)
        // Point and cell arrays are handled differently because they
        // have different problems to solve.
        // Point arrays must use the PointMap index to subset values.
        // Cell arrays may be used as-is.
        this->AssembleOutputPointArrays(timeStep, bsinfop, ug);
        this->AssembleOutputCellArrays(timeStep, otyp, obj, bsinfop, ug);

        // Some arrays may be procedurally generated (e.g., the ObjectId
        // array, global element and node number arrays). This constructs
        // them as required.
        this->AssembleOutputProceduralArrays(timeStep, otyp, obj, ug);

        // QA and informational records in the ExodusII file are appended
        // to each and every output unstructured grid.
        this->AssembleOutputGlobalArrays(timeStep, otyp, obj, bsinfop, ug);

        // Maps (as distinct from the global element and node arrays above)
        // are per-cell or per-node integers. As with point arrays, the
        // PointMap is used to subset node maps. Cell arrays are stored in
        // ExodusII files for all elements (across all blocks of a given type)
        // and thus must be subset for the unstructured grid of interest.
        this->AssembleOutputPointMaps(timeStep, bsinfop, ug);
        this->AssembleOutputCellMaps(timeStep, otyp, obj, bsinfop, ug);
      }
      catch (const std::runtime_error&)
      {
        vtkErrorMacro("Error reading block '" << (object_name ? object_name : "(no-name)")
                                              << "', id=" << bsinfop->Id << ". Skipping.");
        ug->Initialize();
      }
    }
  }

  this->CloseFile();

  return 0;
}

int vtkExodusIIReaderPrivate::SetUpEmptyGrid(vtkMultiBlockDataSet* output)
{
  if (!output)
  {
    vtkErrorMacro("You must specify an output mesh");
  }

  // Iterate over all block and set types, creating a
  // multiblock dataset to hold objects of each type.
  int conntypidx;
  int nbl = 0;
  output->SetNumberOfBlocks(num_conn_types);
  for (conntypidx = 0; conntypidx < num_conn_types; ++conntypidx)
  {
    int otypidx = conn_obj_idx_cvt[conntypidx];
    int otyp = obj_types[otypidx];
    // Loop over all blocks/sets of this type
    int numObj = this->GetNumberOfObjectsOfType(otyp);
    vtkMultiBlockDataSet* mbds;
    mbds = vtkMultiBlockDataSet::New();
    mbds->SetNumberOfBlocks(numObj);
    output->SetBlock(conntypidx, mbds);
    output->GetMetaData(conntypidx)->Set(vtkCompositeDataSet::NAME(), conn_types_names[conntypidx]);
    mbds->FastDelete();
    int obj;
    int sortIdx;
    for (sortIdx = 0; sortIdx < numObj; ++sortIdx)
    {
      // Preserve the "sorted" order when concatenating
      obj = this->SortedObjectIndices[otyp][sortIdx];
      BlockSetInfoType* bsinfop = static_cast<BlockSetInfoType*>(this->GetObjectInfo(otypidx, obj));
      // cout << ( bsinfop->Status ? "++" : "--" ) << "   ObjectId: " << bsinfop->Id;
      if (!bsinfop->Status)
      {
        // cout << "\n";
        mbds->SetBlock(sortIdx, nullptr);
        continue;
      }
      vtkUnstructuredGrid* ug = vtkUnstructuredGrid::New();
      mbds->SetBlock(sortIdx, ug);
      ug->FastDelete();
      ++nbl;
    }
  }
#if 0
  int idx;
  vtkUnstructuredGrid* leaf;

  // Set up an empty unstructured grid
  leaf->Allocate(0);

  // Create new points
  vtkPoints* newPoints = vtkPoints::New();
  newPoints->SetNumberOfPoints( 0 );
  leaf->SetPoints( newPoints );
  newPoints->Delete();
  newPoints = nullptr;

  // Create point and cell arrays
  int typ;
  for ( typ = 0; typ < numObjResultTypes; ++typ )
  {
    int otyp = objResultTypes[typ];
    int nObjArr = this->GetNumberOfObjectArrays( otyp );
    for ( idx = 0; idx < nObjArr; ++idx )
    {
      vtkDoubleArray* da = vtkDoubleArray::New();
      da->SetName( this->GetObjectArrayName( otyp, idx ) );
      da->SetNumberOfComponents( this->GetNumberOfObjectArrayComponents( otyp, idx ) );
      if ( otyp == vtkExodusIIReader::NODAL )
      {
        leaf->GetPointData()->AddArray( da );
      }
      else
      {
        leaf->GetCellData()->AddArray( da );
      }
      da->FastDelete();
    }
  }

  for ( typ = 0; typ < numObjAttribTypes; ++typ )
  {
    int otyp = objAttribTypes[typ];
    int nObj = this->GetNumberOfObjects( otyp );
    for ( idx = 0; idx < nObj; ++ idx )
    {
      // Attributes are defined per block, not per block type.
      int nObjAtt = this->GetNumberOfObjectAttributes( otyp, idx );
      for ( int aidx = 0; aidx < nObjAtt; ++ aidx )
      {
        vtkDoubleArray* da = vtkDoubleArray::New();
        da->SetName( this->GetObjectAttributeName( otyp, idx, aidx ) );
        da->SetNumberOfComponents( 1 );
        // All attributes are cell data
        leaf->GetCellData()->AddArray( da );
        da->FastDelete();
      }
    }
  }

  if ( this->GetGenerateObjectIdCellArray() )
  {
    vtkIntArray* ia = vtkIntArray::New();
    ia->SetName( this->GetObjectIdArrayName() );
    ia->SetNumberOfComponents( 1 );
    leaf->GetCellData()->AddArray( ia );
    ia->FastDelete();
  }

  if ( this->GetGenerateGlobalNodeIdArray() )
  {
    vtkIntArray* ia = vtkIntArray::New();
    ia->SetName( this->GetGlobalNodeIdArrayName() );
    ia->SetNumberOfComponents( 1 );
    leaf->GetPointData()->AddArray( ia );
    ia->FastDelete();
  }

  if ( this->GetGenerateGlobalElementIdArray() )
  {
    vtkIntArray* ia = vtkIntArray::New();
    ia->SetName( this->GetGlobalElementIdArrayName() );
    ia->SetNumberOfComponents( 1 );
    leaf->GetCellData()->AddArray( ia );
    ia->FastDelete();
  }
#endif // 0
  return 1;
}

void vtkExodusIIReaderPrivate::Reset()
{
  vtkLogF(TRACE, "vtkExodusIIReaderPrivate(%p)::Reset", this);
  this->CloseFile();
  this->ResetCache(); // must come before BlockInfo and SetInfo are cleared.
  this->BlockInfo.clear();
  this->SetInfo.clear();
  this->MapInfo.clear();
  this->PartInfo.clear();
  this->MaterialInfo.clear();
  this->AssemblyInfo.clear();
  this->SortedObjectIndices.clear();
  this->ArrayInfo.clear();
  this->ExodusVersion = -1.;
  this->Times.clear();
  memset((void*)&this->ModelParameters, 0, sizeof(this->ModelParameters));

  // Don't clear file id since it's not part of meta-data that's read from the
  // file, it's set externally (by vtkPExodusIIReader).
  // Refer to BUG #7633.
  // this->FileId = 0;

  this->Modified();
}

void vtkExodusIIReaderPrivate::ResetSettings()
{
  this->GenerateGlobalElementIdArray = 0;
  this->GenerateGlobalNodeIdArray = 0;
  this->GenerateImplicitElementIdArray = 0;
  this->GenerateImplicitNodeIdArray = 0;
  this->GenerateGlobalIdArray = 0;
  this->GenerateObjectIdArray = 1;
  this->GenerateFileIdArray = 0;

  this->ApplyDisplacements = 1;
  this->DisplacementMagnitude = 1.;

  this->HasModeShapes = 0;
  this->ModeShapeTime = -1.;
  this->AnimateModeShapes = 1;

  this->SqueezePoints = 1;

  this->InitialArrayInfo.clear();
  this->InitialObjectInfo.clear();
}

void vtkExodusIIReaderPrivate::ResetCache()
{
  this->Cache->Clear();
  this->Cache->SetCacheCapacity(
    this->CacheSize); // FIXME: Perhaps Cache should have a Reset and a Clear method?
  this->ClearConnectivityCaches();
}

void vtkExodusIIReaderPrivate::SetCacheSize(double size)
{
  if (this->CacheSize != size)
  {
    this->CacheSize = size;
    this->Cache->SetCacheCapacity(this->CacheSize);
    this->Modified();
  }
}

bool vtkExodusIIReaderPrivate::IsXMLMetadataValid()
{
  // Make sure that each block id referred to in the metadata arrays exist
  // in the data

  std::set<int> blockIdsFromXml;
  this->Parser->GetBlockIds(blockIdsFromXml);
  std::vector<BlockInfoType> blocksFromData = this->BlockInfo[vtkExodusIIReader::ELEM_BLOCK];
  std::vector<BlockInfoType>::iterator iter2;
  std::set<int>::iterator iter;
  bool isBlockValid = false;
  for (iter = blockIdsFromXml.begin(); iter != blockIdsFromXml.end(); ++iter)
  {
    isBlockValid = false;
    for (iter2 = blocksFromData.begin(); iter2 != blocksFromData.end(); ++iter2)
    {
      if (*iter == (*iter2).Id)
      {
        isBlockValid = true;
        break;
      }
    }
    if (!isBlockValid)
    {
      break;
    }
  }

  return isBlockValid;
}

void vtkExodusIIReaderPrivate::SetSqueezePoints(int sp)
{
  if (this->SqueezePoints == sp)
    return;

  this->SqueezePoints = sp;
  this->Modified();

  // Invalidate global "topology" cache
  // The point maps should be invalidated
  // FIXME: bsinfop->NextSqueezePoint = 0 for all bsinfop
  // FIXME: bsinfop->CachedConnectivity = 0 for all bsinfop
  // FIXME: bsinfop->PointMap.clear() for all bsinfop
  // FIXME: bsinfop->ReversePointMap.clear() for all bsinfop
}

int vtkExodusIIReaderPrivate::GetNumberOfNodes()
{
  return this->ModelParameters.num_nodes;
}

int vtkExodusIIReaderPrivate::GetNumberOfObjectsOfType(int otyp)
{
  int i = this->GetObjectTypeIndexFromObjectType(otyp);
  if (i < 0)
  {
    // Could signal warning here, but might not want it if file simply doesn't have objects of some
    // obscure type (e.g., edge sets)
    return 0;
  }
  return this->GetNumberOfObjectsAtTypeIndex(i);
}

int vtkExodusIIReaderPrivate::GetNumberOfObjectArraysOfType(int otyp)
{
  std::map<int, std::vector<ArrayInfoType>>::iterator it = this->ArrayInfo.find(otyp);
  if (it != this->ArrayInfo.end())
  {
    return (int)it->second.size();
  }
  // Could signal warning here, but might not want it if file simply doesn't have objects of some
  // obscure type (e.g., edge sets)
  return 0;
}

const char* vtkExodusIIReaderPrivate::GetObjectName(int otyp, int k)
{
  ObjectInfoType* oinfop = this->GetSortedObjectInfo(otyp, k);
  return oinfop ? oinfop->Name.c_str() : nullptr;
}

int vtkExodusIIReaderPrivate::GetObjectId(int otyp, int k)
{
  ObjectInfoType* oinfop = this->GetSortedObjectInfo(otyp, k);
  return oinfop ? oinfop->Id : -1;
}

int vtkExodusIIReaderPrivate::GetObjectSize(int otyp, int k)
{
  ObjectInfoType* oinfop = this->GetSortedObjectInfo(otyp, k);
  return oinfop ? oinfop->Size : 0;
}

int vtkExodusIIReaderPrivate::GetObjectStatus(int otyp, int k)
{
  ObjectInfoType* oinfop = this->GetSortedObjectInfo(otyp, k);
  return oinfop ? oinfop->Status : 0;
}

int vtkExodusIIReaderPrivate::GetUnsortedObjectStatus(int otyp, int k)
{
  ObjectInfoType* oinfop = this->GetUnsortedObjectInfo(otyp, k);
  return oinfop ? oinfop->Status : 0;
}

void vtkExodusIIReaderPrivate::GetInitialObjectStatus(int otyp, ObjectInfoType* objType)
{
  for (unsigned int oidx = 0; oidx < this->InitialObjectInfo[otyp].size(); oidx++)
  {
    if ((!this->InitialObjectInfo[otyp][oidx].Name.empty() &&
          objType->Name == this->InitialObjectInfo[otyp][oidx].Name) ||
      (this->InitialObjectInfo[otyp][oidx].Id != -1 &&
        objType->Id == this->InitialObjectInfo[otyp][oidx].Id))
    {
      objType->Status = this->InitialObjectInfo[otyp][oidx].Status;
      break;
    }
  }
}

void vtkExodusIIReaderPrivate::SetObjectStatus(int otyp, int k, int stat)
{
  stat = (stat != 0); // Force stat to be either 0 or 1
  // OK, found the object
  ObjectInfoType* oinfop = this->GetSortedObjectInfo(otyp, k);
  if (!oinfop)
  { // error message will have been generated by GetSortedObjectInfo()
    return;
  }

  vtkLogF(TRACE, "vtkExodusIIReaderPrivate(%p): SetObjectStatus(%d, %d (%s), %d)", this, otyp, k,
    oinfop->Name.c_str(), stat);

  if (oinfop->Status == stat)
  { // no change => do nothing
    return;
  }
  oinfop->Status = stat;
  this->Modified();
}

void vtkExodusIIReaderPrivate::SetUnsortedObjectStatus(int otyp, int k, int stat)
{
  stat = (stat != 0); // Force stat to be either 0 or 1
  // OK, found the object
  ObjectInfoType* oinfop = this->GetUnsortedObjectInfo(otyp, k);
  if (!oinfop)
  { // error message will have been generated by GetSortedObjectInfo()
    return;
  }

  vtkLogF(TRACE, "vtkExodusIIReaderPrivate(%p): SetUnsortedObjectStatus(%d, %d (%s), %d)", this,
    otyp, k, oinfop->Name.c_str(), stat);

  if (oinfop->Status == stat)
  { // no change => do nothing
    return;
  }
  oinfop->Status = stat;

  this->Modified();
}

void vtkExodusIIReaderPrivate::SetInitialObjectStatus(
  int objectType, const char* objName, int status)
{
  ObjectInfoType info;
  vtkStdString nm = objName;
  size_t idx = 0;
  int idlen = 0;
  int id = -1;

  // When no name is found for an object, it is given one of a certain format.
  // Parse the id out of that string and use it to identify the object later.
  if ((idx = nm.find("ID: ")) != vtkStdString::npos)
  {
    idx += 4;
    idlen = 0;
    while (idx + idlen < nm.length() && nm.at(idx + idlen) != ' ')
    {
      idlen++;
    }
    id = atoi(nm.substr(idx, idlen).c_str());
  }
  else
  {
    info.Name = objName;
  }
  info.Id = id;
  info.Status = status;
  this->InitialObjectInfo[objectType].push_back(info);
}

const char* vtkExodusIIReaderPrivate::GetObjectArrayName(int otyp, int i)
{
  std::map<int, std::vector<ArrayInfoType>>::iterator it = this->ArrayInfo.find(otyp);
  if (it != this->ArrayInfo.end())
  {
    int N = (int)it->second.size();
    if (i < 0 || i >= N)
    {
      vtkDebugMacro("You requested array " << i << " in a collection of only " << N << " arrays.");
      return nullptr;
    }
    return it->second[i].Name.c_str();
  }
  vtkDebugMacro("Could not find collection of arrays for objects of type "
    << otyp << " (" << objtype_names[this->GetObjectTypeIndexFromObjectType(otyp)] << ").");
  return nullptr;
}

int vtkExodusIIReaderPrivate::GetNumberOfObjectArrayComponents(int otyp, int i)
{
  std::map<int, std::vector<ArrayInfoType>>::iterator it = this->ArrayInfo.find(otyp);
  if (it != this->ArrayInfo.end())
  {
    int N = (int)it->second.size();
    if (i < 0 || i >= N)
    {
      vtkDebugMacro("You requested array " << i << " in a collection of only " << N << " arrays.");
      return 0;
    }
    return it->second[i].Components;
  }
  vtkDebugMacro("Could not find collection of arrays for objects of type "
    << otyp << " (" << objtype_names[this->GetObjectTypeIndexFromObjectType(otyp)] << ").");
  return 0;
}

int vtkExodusIIReaderPrivate::GetObjectArrayStatus(int otyp, int i)
{
  std::map<int, std::vector<ArrayInfoType>>::iterator it = this->ArrayInfo.find(otyp);
  if (it != this->ArrayInfo.end())
  {
    int N = (int)it->second.size();
    if (i < 0 || i >= N)
    {
      vtkDebugMacro("You requested array " << i << " in a collection of only " << N << " arrays.");
      return 0;
    }
    return it->second[i].Status;
  }
  vtkDebugMacro("Could not find collection of arrays for objects of type "
    << otyp << " (" << objtype_names[this->GetObjectTypeIndexFromObjectType(otyp)] << ").");
  return 0;
}

void vtkExodusIIReaderPrivate::GetInitialObjectArrayStatus(int otyp, ArrayInfoType* objType)
{
  for (unsigned int oidx = 0; oidx < this->InitialArrayInfo[otyp].size(); oidx++)
  {
    if (objType->Name == this->InitialArrayInfo[otyp][oidx].Name)
    {
      objType->Status = this->InitialArrayInfo[otyp][oidx].Status;
      break;
    }
  }
}

void vtkExodusIIReaderPrivate::SetObjectArrayStatus(int otyp, int i, int stat)
{
  stat = (stat != 0); // Force stat to be either 0 or 1
  std::map<int, std::vector<ArrayInfoType>>::iterator it = this->ArrayInfo.find(otyp);
  if (it != this->ArrayInfo.end())
  {
    int N = (int)it->second.size();
    if (i < 0 || i >= N)
    {
      vtkDebugMacro("You requested array " << i << " in a collection of only " << N << " arrays.");
      return;
    }
    if (it->second[i].Status == stat)
    {
      // no change => do nothing
      return;
    }
    it->second[i].Status = stat;
    this->Modified();
    // FIXME: Mark something so we know what's changed since the last RequestData?!
    // For the "global" (assembled) array, this is tricky because we really only want
    // to invalidate a range of the total array... For now, we'll just force the "global"
    // array to be reassembled even if it does mean a lot more copying -- it's not like
    // it was any faster before.
    // vtkExodusIICacheKey key( 0, GLOBAL, 0, i );
    // vtkExodusIICacheKey pattern( 0, 1, 0, 1 );
    this->Cache->Invalidate(
      vtkExodusIICacheKey(0, vtkExodusIIReader::GLOBAL, otyp, i), vtkExodusIICacheKey(0, 1, 1, 1));
  }
  else
  {
    vtkDebugMacro("Could not find collection of arrays for objects of type "
      << otyp << " (" << objtype_names[this->GetObjectTypeIndexFromObjectType(otyp)] << ").");
  }
}

void vtkExodusIIReaderPrivate::SetInitialObjectArrayStatus(
  int objectType, const char* arrayName, int status)
{
  ArrayInfoType ainfo;
  ainfo.Name = arrayName;
  ainfo.Status = status;
  this->InitialArrayInfo[objectType].push_back(ainfo);
}

int vtkExodusIIReaderPrivate::GetNumberOfObjectAttributes(int otyp, int oi)
{
  std::map<int, std::vector<BlockInfoType>>::iterator it = this->BlockInfo.find(otyp);
  if (it != this->BlockInfo.end())
  {
    int N = (int)it->second.size();
    if (oi < 0 || oi >= N)
    {
      int otypIdx = this->GetObjectTypeIndexFromObjectType(otyp);
      const char* btname = otypIdx >= 0 ? objtype_names[otypIdx] : "block";
      static_cast<void>(btname); // not referenced warning
      vtkDebugMacro(
        "You requested " << btname << " " << oi << " in a collection of only " << N << " blocks.");
      return 0;
    }
    oi = this->SortedObjectIndices[otyp][oi]; // index into sorted list of objects (block order, not
                                              // file order)
    return (int)it->second[oi].AttributeNames.size();
  }
  return 0;
}

const char* vtkExodusIIReaderPrivate::GetObjectAttributeName(int otyp, int oi, int ai)
{
  std::map<int, std::vector<BlockInfoType>>::iterator it = this->BlockInfo.find(otyp);
  if (it != this->BlockInfo.end())
  {
    int N = (int)it->second.size();
    if (oi < 0 || oi >= N)
    {
      vtkDebugMacro("You requested block " << oi << " in a collection of only " << N << " blocks.");
      return nullptr;
    }
    oi = this->SortedObjectIndices[otyp][oi]; // index into sorted list of objects (block order, not
                                              // file order)
    N = (int)it->second[oi].AttributeNames.size();
    if (ai < 0 || ai >= N)
    {
      vtkDebugMacro(
        "You requested attribute " << ai << " in a collection of only " << N << " attributes.");
      return nullptr;
    }
    else
    {
      return it->second[oi].AttributeNames[ai].c_str();
    }
  }
  vtkDebugMacro("Could not find collection of blocks of type "
    << otyp << " (" << objtype_names[this->GetObjectTypeIndexFromObjectType(otyp)] << ").");
  return nullptr;
}

int vtkExodusIIReaderPrivate::GetObjectAttributeIndex(int otyp, int oi, const char* attribName)
{
  std::map<int, std::vector<BlockInfoType>>::iterator it = this->BlockInfo.find(otyp);
  if (it != this->BlockInfo.end())
  {
    int N = (int)it->second.size();
    if (oi < 0 || oi >= N)
    {
      vtkDebugMacro("You requested block " << oi << " in a collection of only " << N << " blocks.");
      return -1;
    }
    oi = this->SortedObjectIndices[otyp][oi]; // index into sorted list of objects (block order, not
                                              // file order)
    N = (int)it->second[oi].AttributeNames.size();
    int ai;
    for (ai = 0; ai < N; ++ai)
    {
      if (it->second[oi].AttributeNames[ai] == attribName)
      {
        return ai;
      }
    }
    return -1;
  }
  vtkDebugMacro("Could not find collection of blocks of type "
    << otyp << " (" << objtype_names[this->GetObjectTypeIndexFromObjectType(otyp)] << ").");
  return -1;
}

int vtkExodusIIReaderPrivate::GetObjectAttributeStatus(int otyp, int oi, int ai)
{
  std::map<int, std::vector<BlockInfoType>>::iterator it = this->BlockInfo.find(otyp);
  if (it != this->BlockInfo.end())
  {
    int N = (int)it->second.size();
    if (oi < 0 || oi >= N)
    {
      vtkDebugMacro("You requested block " << oi << " in a collection of only " << N << " blocks.");
      return 0;
    }
    oi = this->SortedObjectIndices[otyp][oi]; // index into sorted list of objects (block order, not
                                              // file order)
    N = (int)it->second[oi].AttributeStatus.size();
    if (ai < 0 || ai >= N)
    {
      vtkDebugMacro(
        "You requested attribute " << ai << " in a collection of only " << N << " attributes.");
      return 0;
    }
    else
    {
      return it->second[oi].AttributeStatus[ai];
    }
  }
  vtkDebugMacro("Could not find collection of blocks of type "
    << otyp << " (" << objtype_names[this->GetObjectTypeIndexFromObjectType(otyp)] << ").");
  return 0;
}

void vtkExodusIIReaderPrivate::SetObjectAttributeStatus(int otyp, int oi, int ai, int status)
{
  status = status ? 1 : 0;
  std::map<int, std::vector<BlockInfoType>>::iterator it = this->BlockInfo.find(otyp);
  if (it != this->BlockInfo.end())
  {
    int N = (int)it->second.size();
    if (oi < 0 || oi >= N)
    {
      vtkDebugMacro("You requested block " << oi << " in a collection of only " << N << " blocks.");
      return;
    }
    oi = this->SortedObjectIndices[otyp][oi]; // index into sorted list of objects (block order, not
                                              // file order)
    N = (int)it->second[oi].AttributeStatus.size();
    if (ai < 0 || ai >= N)
    {
      vtkDebugMacro(
        "You requested attribute " << ai << " in a collection of only " << N << " attribute.");
      return;
    }
    else
    {
      if (it->second[oi].AttributeStatus[ai] == status)
      {
        return;
      }
      it->second[oi].AttributeStatus[ai] = status;
      this->Modified();
    }
  }
  vtkDebugMacro("Could not find collection of blocks of type "
    << otyp << " (" << objtype_names[this->GetObjectTypeIndexFromObjectType(otyp)] << ").");
}

void vtkExodusIIReaderPrivate::SetApplyDisplacements(vtkTypeBool d)
{
  if (this->ApplyDisplacements == d)
    return;

  this->ApplyDisplacements = d;
  this->Modified();

  // Require the coordinates to be recomputed:
  this->Cache->Invalidate(
    vtkExodusIICacheKey(0, vtkExodusIIReader::NODAL_COORDS, 0, 0), vtkExodusIICacheKey(0, 1, 0, 0));
}

void vtkExodusIIReaderPrivate::SetDisplacementMagnitude(double s)
{
  if (this->DisplacementMagnitude == s)
    return;

  this->DisplacementMagnitude = s;
  this->Modified();

  // Require the coordinates to be recomputed:
  this->Cache->Invalidate(
    vtkExodusIICacheKey(0, vtkExodusIIReader::NODAL_COORDS, 0, 0), vtkExodusIICacheKey(0, 1, 0, 0));
}

vtkDataArray* vtkExodusIIReaderPrivate::FindDisplacementVectors(int timeStep)
{
  std::map<int, std::vector<ArrayInfoType>>::iterator it =
    this->ArrayInfo.find(vtkExodusIIReader::NODAL);
  if (it != this->ArrayInfo.end())
  {
    int N = (int)it->second.size();
    for (int i = 0; i < N; ++i)
    {
      std::string upperName = vtksys::SystemTools::UpperCase(it->second[i].Name.substr(0, 3));
      if (upperName == "DIS" && it->second[i].Components == this->ModelParameters.num_dim)
      {
        return this->GetCacheOrRead(vtkExodusIICacheKey(timeStep, vtkExodusIIReader::NODAL, 0, i));
      }
    }
  }
  return nullptr;
}

// -------------------------------------------------------- PUBLIC CLASS MEMBERS

vtkStandardNewMacro(vtkExodusIIReader);
vtkCxxSetObjectMacro(vtkExodusIIReader, Metadata, vtkExodusIIReaderPrivate);
vtkInformationKeyMacro(vtkExodusIIReader, GLOBAL_VARIABLE, Integer);
vtkInformationKeyMacro(vtkExodusIIReader, GLOBAL_TEMPORAL_VARIABLE, Integer);
vtkExodusIIReader::vtkExodusIIReader()
{
  this->FileName = nullptr;
  this->XMLFileName = nullptr;
  this->Metadata = vtkExodusIIReaderPrivate::New();
  this->Metadata->Parent = this;
  this->Metadata->SetCacheSize(0.0);
  this->TimeStep = 0;
  this->TimeStepRange[0] = 0;
  this->TimeStepRange[1] = 0;
  this->ModeShapesRange[0] = 0;
  this->ModeShapesRange[1] = 0;
  this->DisplayType = 0;
  this->DisplayType = 0;
  this->SILUpdateStamp = -1;
  this->UseLegacyBlockNames = false;
  this->SetNumberOfInputPorts(0);
}

vtkExodusIIReader::~vtkExodusIIReader()
{
  this->SetXMLFileName(nullptr);
  this->SetFileName(nullptr);

  this->SetMetadata(nullptr);
  // this->SetExodusModel( 0 );
}

// Normally, vtkExodusIIReader::PrintSelf would be here.
// But it's above to prevent PrintSelf-Hybrid from failing because it assumes
// the first PrintSelf method is the one for the class declared in the header file.

int vtkExodusIIReader::CanReadFile(const char* fname)
{
  int exoid;
  int appWordSize = 8;
  int diskWordSize = 8;
  float version;

  if ((exoid = ex_open(fname, EX_READ, &appWordSize, &diskWordSize, &version)) < 0)
  {
    return 0;
  }
  if (ex_close(exoid) != 0)
  {
    vtkWarningMacro("Unable to close \"" << fname << "\" opened for testing.");
    return 0;
  }
  return 1;
}

#if 0
void vtkExodusIIReaderPrivate::Modified()
{
  cout << "E2RP modified\n"; this->Superclass::Modified();
}

void vtkExodusIIReader::Modified()
{
  cout << "E2R modified\n"; this->Superclass::Modified();
}
#endif // 0

vtkMTimeType vtkExodusIIReader::GetMTime()
{
  // return this->MTime.GetMTime();
  /*
  vtkMTimeType mtime1, mtime2;
  vtkMTimeType readerMTime = this->MTime.GetMTime();
  vtkMTimeType privateMTime = this->Metadata->GetMTime();
  vtkMTimeType fileNameMTime = this->FileNameMTime.GetMTime();
  vtkMTimeType xmlFileNameMTime = this->XMLFileNameMTime.GetMTime();
  mtime1 = privateMTime > readerMTime ? privateMTime : readerMTime;
  mtime2 = fileNameMTime > xmlFileNameMTime ? fileNameMTime : xmlFileNameMTime;
  return mtime1 > mtime2 ? mtime1 : mtime2;
  */
  vtkMTimeType readerMTime = this->MTime.GetMTime();
  vtkMTimeType privateMTime = this->Metadata->GetMTime();
  return privateMTime > readerMTime ? privateMTime : readerMTime;
}

vtkMTimeType vtkExodusIIReader::GetMetadataMTime()
{
  return this->Metadata->InformationTimeStamp < this->Metadata->GetMTime()
    ? this->Metadata->InformationTimeStamp
    : this->Metadata->GetMTime();
}

#define vtkSetStringMacroBody(propName, fname)                                                     \
  int modified = 0;                                                                                \
  if (fname == this->propName)                                                                     \
    return;                                                                                        \
  if (fname && this->propName && !strcmp(fname, this->propName))                                   \
    return;                                                                                        \
  modified = 1;                                                                                    \
  delete[] this->propName;                                                                         \
  if (fname)                                                                                       \
  {                                                                                                \
    this->propName = vtksys::SystemTools::DuplicateString(fname);                                  \
  }                                                                                                \
  else                                                                                             \
  {                                                                                                \
    this->propName = nullptr;                                                                      \
  }

void vtkExodusIIReader::SetFileName(const char* fname)
{
  vtkLogF(TRACE, "%s: SetFileName old=%s, new=%s", vtkLogIdentifier(this), this->FileName, fname);
  vtkSetStringMacroBody(FileName, fname);
  if (modified)
  {
    this->Metadata->Reset();
    this->FileNameMTime.Modified();
  }
}

void vtkExodusIIReader::SetXMLFileName(const char* fname)
{
  vtkSetStringMacroBody(XMLFileName, fname);
  if (modified)
  {
    this->XMLFileNameMTime.Modified();
    this->Modified();
  }
}

//------------------------------------------------------------------------------
vtkTypeBool vtkExodusIIReader::ProcessRequest(
  vtkInformation* request, vtkInformationVector** inputVector, vtkInformationVector* outputVector)
{
  if (request->Has(vtkDemandDrivenPipeline::REQUEST_DATA()))
  {
    return this->RequestData(request, inputVector, outputVector);
  }

  // execute information
  if (request->Has(vtkDemandDrivenPipeline::REQUEST_INFORMATION()))
  {
    return this->RequestInformation(request, inputVector, outputVector);
  }

  return this->Superclass::ProcessRequest(request, inputVector, outputVector);
}

//------------------------------------------------------------------------------
int vtkExodusIIReader::RequestInformation(vtkInformation* vtkNotUsed(request),
  vtkInformationVector** vtkNotUsed(inputVector), vtkInformationVector* outputVector)
{
  int newMetadata = 0;
  vtkInformation* outInfo = outputVector->GetInformationObject(0);

  // If the metadata is older than the filename
  if (this->GetMetadataMTime() < this->FileNameMTime)
  {
    if (this->Metadata->OpenFile(this->FileName))
    {
      // We need to initialize the XML parser before calling RequestInformation
      //    on the metadata
      if (this->FindXMLFile())
      {
        vtkExodusIIReaderParser* parser = vtkExodusIIReaderParser::New();
        this->Metadata->SetParser(parser);
        // Now overwrite any names in the exodus file with names from XML file.
        parser->Go(this->XMLFileName);
        parser->Delete();
      }

      this->Metadata->RequestInformation();

      // Now check to see if the DART metadata is valid
      if (this->Metadata->Parser && !this->Metadata->IsXMLMetadataValid())
      {
        this->Metadata->Parser->Delete();
        this->Metadata->Parser = nullptr;

        // Reset block names.
        int numBlocks = this->Metadata->GetNumberOfObjectsOfType(vtkExodusIIReader::ELEM_BLOCK);
        for (int cc = 0; cc < numBlocks; cc++)
        {
          vtkExodusIIReaderPrivate::BlockInfoType* binfop =
            static_cast<vtkExodusIIReaderPrivate::BlockInfoType*>(
              this->Metadata->GetSortedObjectInfo(vtkExodusIIReader::ELEM_BLOCK, cc));
          binfop->Name = binfop->OriginalName;
        }
      }

      // Once meta-data has been refreshed we update the SIL.
      this->Metadata->BuildSIL();
      this->SILUpdateStamp++; // update the timestamp.

      this->Metadata->CloseFile();
      newMetadata = 1;
    }
    else
    {
      vtkErrorMacro("Unable to open file \"" << (this->FileName ? this->FileName : "(null)")
                                             << "\" to read metadata");
      return 0;
    }
  }

  this->AdvertiseTimeSteps(outInfo);

  // Advertize the SIL.
  outInfo->Set(vtkDataObject::SIL(), this->Metadata->GetSIL());

  if (newMetadata)
  {
    // update ExodusModelMetadata
  }

  return 1;
}

int vtkExodusIIReader::RequestData(vtkInformation* vtkNotUsed(request),
  vtkInformationVector** vtkNotUsed(inputVector), vtkInformationVector* outputVector)
{
  if (!this->FileName || !this->Metadata->OpenFile(this->FileName))
  {
    vtkErrorMacro("Unable to open file \"" << (this->FileName ? this->FileName : "(null)")
                                           << "\" to read data");
    return 0;
  }

  vtkInformation* outInfo = outputVector->GetInformationObject(0);
  vtkMultiBlockDataSet* output =
    vtkMultiBlockDataSet::SafeDownCast(outInfo->Get(vtkDataObject::DATA_OBJECT()));

  // Check if a particular time was requested.
  if (outInfo->Has(vtkStreamingDemandDrivenPipeline::UPDATE_TIME_STEP()))
  { // Get the requested time step. We only support requests of a single time step in this reader
    // right now
    double requestedTimeStep = outInfo->Get(vtkStreamingDemandDrivenPipeline::UPDATE_TIME_STEP());

    // Save the time value in the output data information.
    int length = outInfo->Length(vtkStreamingDemandDrivenPipeline::TIME_STEPS());
    double* steps = outInfo->Get(vtkStreamingDemandDrivenPipeline::TIME_STEPS());

    if (!this->GetHasModeShapes())
    {
      // find the highest time step with a time value that is smaller than the requested time.
      // timeStep = 0;
      // while (timeStep < length - 1 && steps[timeStep] < requestedTimeStep)
      //  {
      //  timeStep++;
      //  }
      // this->TimeStep = timeStep;

      // find the timestep with the closest value
      int cnt = 0;
      int closestStep = 0;
      double minDist = -1;
      for (cnt = 0; cnt < length; cnt++)
      {
        double tdist = (steps[cnt] - requestedTimeStep > requestedTimeStep - steps[cnt])
          ? steps[cnt] - requestedTimeStep
          : requestedTimeStep - steps[cnt];
        if (minDist < 0 || tdist < minDist)
        {
          minDist = tdist;
          closestStep = cnt;
        }
      }
      this->TimeStep = closestStep;
      // cout << "Requested value: " << requestedTimeStep << " Step: " << this->TimeStep << endl;
      output->GetInformation()->Set(vtkDataObject::DATA_TIME_STEP(), steps[this->TimeStep]);
    }
    else if (this->GetAnimateModeShapes())
    {
      // Let the metadata know the time value so that the Metadata->RequestData call below will
      // generate the animated mode shape properly.
      this->Metadata->ModeShapeTime = requestedTimeStep;
      output->GetInformation()->Set(vtkDataObject::DATA_TIME_STEP(), this->Metadata->ModeShapeTime);
      // output->GetInformation()->Remove( vtkDataObject::DATA_TIME_STEP() );
    }
  }

  this->Metadata->RequestData(this->TimeStep, output);

  return 1;
}

int vtkExodusIIReader::GetMaxNameLength()
{
  return ex_inquire_int(this->Metadata->Exoid, EX_INQ_DB_MAX_USED_NAME_LENGTH);
}

void vtkExodusIIReader::SetGenerateObjectIdCellArray(vtkTypeBool x)
{
  this->Metadata->SetGenerateObjectIdArray(x);
}
vtkTypeBool vtkExodusIIReader::GetGenerateObjectIdCellArray()
{
  return this->Metadata->GetGenerateObjectIdArray();
}

void vtkExodusIIReader::SetGenerateGlobalElementIdArray(vtkTypeBool x)
{
  this->Metadata->SetGenerateGlobalElementIdArray(x);
}
vtkTypeBool vtkExodusIIReader::GetGenerateGlobalElementIdArray()
{
  return this->Metadata->GetGenerateGlobalElementIdArray();
}

void vtkExodusIIReader::SetGenerateGlobalNodeIdArray(vtkTypeBool x)
{
  this->Metadata->SetGenerateGlobalNodeIdArray(x);
}
vtkTypeBool vtkExodusIIReader::GetGenerateGlobalNodeIdArray()
{
  return this->Metadata->GetGenerateGlobalNodeIdArray();
}

void vtkExodusIIReader::SetGenerateImplicitElementIdArray(vtkTypeBool x)
{
  this->Metadata->SetGenerateImplicitElementIdArray(x);
}
vtkTypeBool vtkExodusIIReader::GetGenerateImplicitElementIdArray()
{
  return this->Metadata->GetGenerateImplicitElementIdArray();
}

void vtkExodusIIReader::SetGenerateImplicitNodeIdArray(vtkTypeBool x)
{
  this->Metadata->SetGenerateImplicitNodeIdArray(x);
}
vtkTypeBool vtkExodusIIReader::GetGenerateImplicitNodeIdArray()
{
  return this->Metadata->GetGenerateImplicitNodeIdArray();
}

void vtkExodusIIReader::SetGenerateFileIdArray(vtkTypeBool x)
{
  this->Metadata->SetGenerateFileIdArray(x);
}
vtkTypeBool vtkExodusIIReader::GetGenerateFileIdArray()
{
  return this->Metadata->GetGenerateFileIdArray();
}

void vtkExodusIIReader::SetFileId(int x)
{
  this->Metadata->SetFileId(x);
}
int vtkExodusIIReader::GetFileId()
{
  return this->Metadata->GetFileId();
}

// FIXME: Implement the four functions that return ID_NOT_FOUND below.
int vtkExodusIIReader::GetGlobalElementID(vtkDataSet* data, int localID)
{
  return GetGlobalElementID(data, localID, SEARCH_TYPE_ELEMENT_THEN_NODE);
}
int vtkExodusIIReader::GetGlobalElementID(vtkDataSet* data, int localID, int searchType)
{
  (void)data;
  (void)localID;
  (void)searchType;
  return ID_NOT_FOUND;
}

int vtkExodusIIReader::GetGlobalFaceID(vtkDataSet* data, int localID)
{
  return GetGlobalFaceID(data, localID, SEARCH_TYPE_ELEMENT_THEN_NODE);
}
int vtkExodusIIReader::GetGlobalFaceID(vtkDataSet* data, int localID, int searchType)
{
  (void)data;
  (void)localID;
  (void)searchType;
  return ID_NOT_FOUND;
}

int vtkExodusIIReader::GetGlobalEdgeID(vtkDataSet* data, int localID)
{
  return GetGlobalEdgeID(data, localID, SEARCH_TYPE_ELEMENT_THEN_NODE);
}
int vtkExodusIIReader::GetGlobalEdgeID(vtkDataSet* data, int localID, int searchType)
{
  (void)data;
  (void)localID;
  (void)searchType;
  return ID_NOT_FOUND;
}

int vtkExodusIIReader::GetGlobalNodeID(vtkDataSet* data, int localID)
{
  return GetGlobalNodeID(data, localID, SEARCH_TYPE_NODE_THEN_ELEMENT);
}
int vtkExodusIIReader::GetGlobalNodeID(vtkDataSet* data, int localID, int searchType)
{
  (void)data;
  (void)localID;
  (void)searchType;
  return ID_NOT_FOUND;
}

void vtkExodusIIReader::SetApplyDisplacements(vtkTypeBool d)
{
  this->Metadata->SetApplyDisplacements(d);
}
vtkTypeBool vtkExodusIIReader::GetApplyDisplacements()
{
  return this->Metadata->GetApplyDisplacements();
}

void vtkExodusIIReader::SetDisplacementMagnitude(float s)
{
  this->Metadata->SetDisplacementMagnitude(s);
}
float vtkExodusIIReader::GetDisplacementMagnitude()
{
  return this->Metadata->GetDisplacementMagnitude();
}

void vtkExodusIIReader::SetHasModeShapes(vtkTypeBool ms)
{
  this->Metadata->SetHasModeShapes(ms);
}

vtkTypeBool vtkExodusIIReader::GetHasModeShapes()
{
  return this->Metadata->GetHasModeShapes();
}

void vtkExodusIIReader::SetModeShapeTime(double phase)
{
  // Phase should repeat outside the bounds [0,1].  For example, 0.25 is
  // equivalent to 1.25, 2.25, -0.75, and -1.75.
  double x = phase - floor(phase);
  this->Metadata->SetModeShapeTime(x);
}

double vtkExodusIIReader::GetModeShapeTime()
{
  return this->Metadata->GetModeShapeTime();
}

void vtkExodusIIReader::SetAnimateModeShapes(vtkTypeBool flag)
{
  this->Metadata->SetAnimateModeShapes(flag);
}

vtkTypeBool vtkExodusIIReader::GetAnimateModeShapes()
{
  return this->Metadata->GetAnimateModeShapes();
}

void vtkExodusIIReader::SetIgnoreFileTime(bool value)
{
  if (this->Metadata->GetIgnoreFileTime() == value)
  {
    return;
  }

  this->Metadata->SetIgnoreFileTime(value);
  this->Modified();
}

bool vtkExodusIIReader::GetIgnoreFileTime()
{
  return this->Metadata->GetIgnoreFileTime();
}

const char* vtkExodusIIReader::GetTitle()
{
  return this->Metadata->ModelParameters.title;
}
int vtkExodusIIReader::GetDimensionality()
{
  return this->Metadata->ModelParameters.num_dim;
}
int vtkExodusIIReader::GetNumberOfTimeSteps()
{
  return (int)this->Metadata->Times.size();
}

int vtkExodusIIReader::GetNumberOfNodesInFile()
{
  return this->Metadata->ModelParameters.num_nodes;
}
int vtkExodusIIReader::GetNumberOfEdgesInFile()
{
  return this->Metadata->ModelParameters.num_edge;
}
int vtkExodusIIReader::GetNumberOfFacesInFile()
{
  return this->Metadata->ModelParameters.num_face;
}
int vtkExodusIIReader::GetNumberOfElementsInFile()
{
  return this->Metadata->ModelParameters.num_elem;
}

int vtkExodusIIReader::GetNumberOfObjects(int objectType)
{
  return this->Metadata->GetNumberOfObjectsOfType(objectType);
}

int vtkExodusIIReader::GetObjectTypeFromName(const char* name)
{
  vtkStdString tname(name);
  if (tname == "edge")
    return EDGE_BLOCK;
  else if (tname == "face")
    return FACE_BLOCK;
  else if (tname == "element")
    return ELEM_BLOCK;
  else if (tname == "node set")
    return NODE_SET;
  else if (tname == "edge set")
    return EDGE_SET;
  else if (tname == "face set")
    return FACE_SET;
  else if (tname == "side set")
    return SIDE_SET;
  else if (tname == "element set")
    return ELEM_SET;
  else if (tname == "node map")
    return NODE_MAP;
  else if (tname == "edge map")
    return EDGE_MAP;
  else if (tname == "face map")
    return FACE_MAP;
  else if (tname == "element map")
    return ELEM_MAP;
  else if (tname == "grid")
    return GLOBAL;
  else if (tname == "node")
    return NODAL;
  else if (tname == "assembly")
    return ASSEMBLY;
  else if (tname == "part")
    return PART;
  else if (tname == "material")
    return MATERIAL;
  else if (tname == "hierarchy")
    return HIERARCHY;
  else if (tname == "cell")
    return GLOBAL_CONN;
  else if (tname == "element block cell")
    return ELEM_BLOCK_ELEM_CONN;
  else if (tname == "element block face")
    return ELEM_BLOCK_FACE_CONN;
  else if (tname == "element block edge")
    return ELEM_BLOCK_EDGE_CONN;
  else if (tname == "face block cell")
    return FACE_BLOCK_CONN;
  else if (tname == "edge block cell")
    return EDGE_BLOCK_CONN;
  else if (tname == "element set cell")
    return ELEM_SET_CONN;
  else if (tname == "side set cell")
    return SIDE_SET_CONN;
  else if (tname == "face set cell")
    return FACE_SET_CONN;
  else if (tname == "edge set cell")
    return EDGE_SET_CONN;
  else if (tname == "node set cell")
    return NODE_SET_CONN;
  else if (tname == "nodal coordinates")
    return NODAL_COORDS;
  else if (tname == "object id")
    return OBJECT_ID;
  else if (tname == "implicit element id")
    return IMPLICIT_ELEMENT_ID;
  else if (tname == "implicit node id")
    return IMPLICIT_NODE_ID;
  else if (tname == "global element id")
    return GLOBAL_ELEMENT_ID;
  else if (tname == "global node id")
    return GLOBAL_NODE_ID;
  else if (tname == "element id")
    return ELEMENT_ID;
  else if (tname == "node id")
    return NODE_ID;
  else if (tname == "pointmap")
    return NODAL_SQUEEZEMAP;
  return -1;
}

const char* vtkExodusIIReader::GetObjectTypeName(int otyp)
{
  switch (otyp)
  {
    case EDGE_BLOCK:
      return "edge";
    case FACE_BLOCK:
      return "face";
    case ELEM_BLOCK:
      return "element";
    case NODE_SET:
      return "node set";
    case EDGE_SET:
      return "edge set";
    case FACE_SET:
      return "face set";
    case SIDE_SET:
      return "side set";
    case ELEM_SET:
      return "element set";
    case NODE_MAP:
      return "node map";
    case EDGE_MAP:
      return "edge map";
    case FACE_MAP:
      return "face map";
    case ELEM_MAP:
      return "element map";
    case GLOBAL:
      return "grid";
    case NODAL:
      return "node";
    case ASSEMBLY:
      return "assembly";
    case PART:
      return "part";
    case MATERIAL:
      return "material";
    case HIERARCHY:
      return "hierarchy";
    case GLOBAL_CONN:
      return "cell";
    case ELEM_BLOCK_ELEM_CONN:
      return "element block cell";
    case ELEM_BLOCK_FACE_CONN:
      return "element block face";
    case ELEM_BLOCK_EDGE_CONN:
      return "element block edge";
    case FACE_BLOCK_CONN:
      return "face block cell";
    case EDGE_BLOCK_CONN:
      return "edge block cell";
    case ELEM_SET_CONN:
      return "element set cell";
    case SIDE_SET_CONN:
      return "side set cell";
    case FACE_SET_CONN:
      return "face set cell";
    case EDGE_SET_CONN:
      return "edge set cell";
    case NODE_SET_CONN:
      return "node set cell";
    case NODAL_COORDS:
      return "nodal coordinates";
    case OBJECT_ID:
      return "object id";
    case IMPLICIT_ELEMENT_ID:
      return "implicit element id";
    case IMPLICIT_NODE_ID:
      return "implicit node id";
    case GLOBAL_ELEMENT_ID:
      return "global element id";
    case GLOBAL_NODE_ID:
      return "global node id";
    case ELEMENT_ID:
      return "element id";
    case NODE_ID:
      return "node id";
    case NODAL_SQUEEZEMAP:
      return "pointmap";
  }
  return nullptr;
}

int vtkExodusIIReader::GetNumberOfNodes()
{
  return this->Metadata->GetNumberOfNodes();
}

int vtkExodusIIReader::GetNumberOfEntriesInObject(int objectType, int objectIndex)
{
  return this->Metadata->GetObjectSize(objectType, objectIndex);
}

int vtkExodusIIReader::GetObjectId(int objectType, int objectIndex)
{
  return this->Metadata->GetObjectId(objectType, objectIndex);
}

int vtkExodusIIReader::GetObjectStatus(int objectType, int objectIndex)
{
  return this->Metadata->GetObjectStatus(objectType, objectIndex);
}

void vtkExodusIIReader::SetObjectStatus(int objectType, int objectIndex, int status)
{
  vtkLogF(TRACE, "%s: SetObjectStatus(type=%d, idx=%d, status=%d)", vtkLogIdentifier(this),
    objectType, objectIndex, status);
  this->Metadata->SetObjectStatus(objectType, objectIndex, status);
}

void vtkExodusIIReader::SetObjectStatus(int objectType, const char* objectName, int status)
{
  vtkLogScopeF(TRACE, "%s: SetObjectStatus(%s, %s, %d)", vtkLogIdentifier(this),
    this->GetObjectTypeName(objectType), objectName, status);
  if (objectName && strlen(objectName) > 0)
  {
    if (this->GetNumberOfObjects(objectType) == 0)
    {
      // The object status is being set before the meta data has been finalized
      // so cache this value for later and use as the initial value
      // If the number of objects really is zero then this doesn't do any harm.
      this->Metadata->SetInitialObjectStatus(objectType, objectName, status);
      return;
    }
    this->SetObjectStatus(objectType, this->GetObjectIndex(objectType, objectName), status);
    assert(this->GetObjectStatus(objectType, objectName) == status);
  }
}

const char* vtkExodusIIReader::GetObjectName(int objectType, int objectIndex)
{
  return this->Metadata->GetObjectName(objectType, objectIndex);
}

int vtkExodusIIReader::GetObjectIndex(int objectType, const char* objectName)
{
  if (!objectName)
  {
    vtkErrorMacro("You must specify a non-nullptr name");
    return -1;
  }
  int nObj = this->GetNumberOfObjects(objectType);
  if (nObj == 0)
  {
    vtkDebugMacro("No objects of that type (" << objectType << ") to find index for given name "
                                              << objectName << ".");
    return -1;
  }

  vtkStdString objectRealName(objectName);

  // handle legacy block names.
  vtksys::RegularExpression regex(
    "^(Unnamed block ID: [0-9]+)( Type: [0-9a-zA-Z]+)?( Size: [0-9]+)?$");
  if (regex.find(objectRealName))
  {
    objectRealName = regex.match(1);
  }

  for (int obj = 0; obj < nObj; ++obj)
  {
    const char* storedObjName = this->GetObjectName(objectType, obj);
    if (objectRealName == vtkStdString(storedObjName))
    {
      return obj;
    }
  }
  vtkDebugMacro(
    "No objects named \"" << objectName << "\" of the specified type (" << objectType << ").");
  return -1;
}

int vtkExodusIIReader::GetObjectIndex(int objectType, int id)
{
  int nObj = this->GetNumberOfObjects(objectType);
  if (nObj == 0)
  {
    vtkDebugMacro(
      "No objects of that type (" << objectType << ") to find index for given id " << id << ".");
    return -1;
  }
  for (int obj = 0; obj < nObj; ++obj)
  {
    if (this->GetObjectId(objectType, obj) == id)
    {
      return obj;
    }
  }
  vtkDebugMacro(
    "No objects with id \"" << id << "\" of the specified type (" << objectType << ").");
  return -1;
}

int vtkExodusIIReader::GetNumberOfObjectArrays(int objectType)
{
  return this->Metadata->GetNumberOfObjectArraysOfType(objectType);
}

const char* vtkExodusIIReader::GetObjectArrayName(int objectType, int arrayIndex)
{
  return this->Metadata->GetObjectArrayName(objectType, arrayIndex);
}

int vtkExodusIIReader::GetNumberOfObjectArrayComponents(int objectType, int arrayIndex)
{
  return this->Metadata->GetNumberOfObjectArrayComponents(objectType, arrayIndex);
}

int vtkExodusIIReader::GetObjectArrayStatus(int objectType, int arrayIndex)
{
  return this->Metadata->GetObjectArrayStatus(objectType, arrayIndex);
}

void vtkExodusIIReader::SetObjectArrayStatus(int objectType, int arrayIndex, int status)
{
  this->Metadata->SetObjectArrayStatus(objectType, arrayIndex, status);
}

void vtkExodusIIReader::SetObjectArrayStatus(int objectType, const char* arrayName, int status)
{
  if (arrayName && strlen(arrayName) > 0)
  {
    if (this->GetNumberOfObjectArrays(objectType) == 0)
    {
      // The array status is being set before the meta data has been finalized
      // so cache this value for later and use as the initial value
      // If the number of arrays really is zero then this doesn't do any harm.
      this->Metadata->SetInitialObjectArrayStatus(objectType, arrayName, status);
      return;
    }
    this->SetObjectArrayStatus(
      objectType, this->GetObjectArrayIndex(objectType, arrayName), status);
  }
}

int vtkExodusIIReader::GetNumberOfObjectAttributes(int objectType, int objectIndex)
{
  return this->Metadata->GetNumberOfObjectAttributes(objectType, objectIndex);
}

const char* vtkExodusIIReader::GetObjectAttributeName(
  int objectType, int objectIndex, int attribIndex)
{
  return this->Metadata->GetObjectAttributeName(objectType, objectIndex, attribIndex);
}

int vtkExodusIIReader::GetObjectAttributeIndex(
  int objectType, int objectIndex, const char* attribName)
{
  return this->Metadata->GetObjectAttributeIndex(objectType, objectIndex, attribName);
}

int vtkExodusIIReader::GetObjectAttributeStatus(int objectType, int objectIndex, int attribIndex)
{
  return this->Metadata->GetObjectAttributeStatus(objectType, objectIndex, attribIndex);
}

void vtkExodusIIReader::SetObjectAttributeStatus(
  int objectType, int objectIndex, int attribIndex, int status)
{
  this->Metadata->SetObjectAttributeStatus(objectType, objectIndex, attribIndex, status);
}

int vtkExodusIIReader::GetObjectArrayIndex(int objectType, const char* arrayName)
{
  if (!arrayName)
  {
    vtkErrorMacro("You must specify a non-nullptr name");
    return -1;
  }
  int nObj = this->GetNumberOfObjectArrays(objectType);
  if (nObj == 0)
  {
    vtkDebugMacro("No objects of that type (" << objectType << ") to find index for given array "
                                              << arrayName << ".");
    return -1;
  }
  for (int obj = 0; obj < nObj; ++obj)
  {
    if (!strcmp(arrayName, this->GetObjectArrayName(objectType, obj)))
    {
      return obj;
    }
  }
  vtkDebugMacro(
    "No arrays named \"" << arrayName << "\" of the specified type (" << objectType << ").");
  return -1;
}

vtkIdType vtkExodusIIReader::GetTotalNumberOfNodes()
{
  return this->Metadata->GetModelParams()->num_nodes;
}
vtkIdType vtkExodusIIReader::GetTotalNumberOfEdges()
{
  return this->Metadata->GetModelParams()->num_edge;
}
vtkIdType vtkExodusIIReader::GetTotalNumberOfFaces()
{
  return this->Metadata->GetModelParams()->num_face;
}
vtkIdType vtkExodusIIReader::GetTotalNumberOfElements()
{
  return this->Metadata->GetModelParams()->num_elem;
}

// %---------------------------------------------------------------------------
int vtkExodusIIReader::GetNumberOfPartArrays()
{
  return this->Metadata->GetNumberOfParts();
}

const char* vtkExodusIIReader::GetPartArrayName(int arrayIdx)
{
  return this->Metadata->GetPartName(arrayIdx);
}

int vtkExodusIIReader::GetPartArrayID(const char* name)
{
  int numArrays = this->GetNumberOfPartArrays();
  for (int i = 0; i < numArrays; i++)
  {
    if (strcmp(name, this->GetPartArrayName(i)) == 0)
    {
      return i;
    }
  }
  return -1;
}

const char* vtkExodusIIReader::GetPartBlockInfo(int arrayIdx)
{
  return this->Metadata->GetPartBlockInfo(arrayIdx);
}

void vtkExodusIIReader::SetPartArrayStatus(int index, int flag)
{
  // Only modify if we are 'out of sync'
  if (this->Metadata->GetPartStatus(index) != flag)
  {
    this->Metadata->SetPartStatus(index, flag);

    // Because which parts are on/off affects the
    // geometry we need to remake the mesh cache
    // this->RemakeDataCacheFlag = 1;
    this->Modified();
  }
}

void vtkExodusIIReader::SetPartArrayStatus(const char* name, int flag)
{
  // Only modify if we are 'out of sync'
  if (this->Metadata->GetPartStatus(name) != flag)
  {
    this->Metadata->SetPartStatus(name, flag);

    // Because which parts are on/off affects the
    // geometry we need to remake the mesh cache
    // this->RemakeDataCacheFlag = 1;
    this->Modified();
  }
}

int vtkExodusIIReader::GetPartArrayStatus(int index)
{
  return this->Metadata->GetPartStatus(index);
}

int vtkExodusIIReader::GetPartArrayStatus(const char* part)
{
  return this->Metadata->GetPartStatus(part);
}

int vtkExodusIIReader::GetNumberOfMaterialArrays()
{
  return this->Metadata->GetNumberOfMaterials();
}

const char* vtkExodusIIReader::GetMaterialArrayName(int arrayIdx)
{
  return this->Metadata->GetMaterialName(arrayIdx);
}

int vtkExodusIIReader::GetMaterialArrayID(const char* matl)
{
  (void)matl;
  return 0;
}

void vtkExodusIIReader::SetMaterialArrayStatus(int index, int flag)
{
  // Only modify if we are 'out of sync'
  if (this->Metadata->GetMaterialStatus(index) != flag)
  {
    this->Metadata->SetMaterialStatus(index, flag);

    // Because which materials are on/off affects the
    // geometry we need to remake the mesh cache
    // this->RemakeDataCacheFlag = 1;
    this->Modified();
  }
}

void vtkExodusIIReader::SetMaterialArrayStatus(const char* matl, int flag)
{
  // Only modify if we are 'out of sync'
  if (this->Metadata->GetMaterialStatus(matl) != flag)
  {
    this->Metadata->SetMaterialStatus(matl, flag);

    // Because which materials are on/off affects the
    // geometry we need to remake the mesh cache
    // this->RemakeDataCacheFlag = 1;
    this->Modified();
  }
}

int vtkExodusIIReader::GetMaterialArrayStatus(int index)
{
  return this->Metadata->GetMaterialStatus(index);
}

int vtkExodusIIReader::GetMaterialArrayStatus(const char* matl)
{
  return this->Metadata->GetMaterialStatus(matl);
}

int vtkExodusIIReader::GetNumberOfAssemblyArrays()
{
  return this->Metadata->GetNumberOfAssemblies();
}

const char* vtkExodusIIReader::GetAssemblyArrayName(int arrayIdx)
{
  return this->Metadata->GetAssemblyName(arrayIdx);
}

int vtkExodusIIReader::GetAssemblyArrayID(const char* name)
{
  int numArrays = this->GetNumberOfAssemblyArrays();
  for (int i = 0; i < numArrays; i++)
  {
    if (strcmp(name, this->GetAssemblyArrayName(i)) == 0)
    {
      return i;
    }
  }
  return -1;
}

void vtkExodusIIReader::SetAssemblyArrayStatus(int index, int flag)
{
  // Only modify if we are 'out of sync'
  if (this->Metadata->GetAssemblyStatus(index) != flag)
  {
    this->Metadata->SetAssemblyStatus(index, flag);

    // Because which materials are on/off affects the
    // geometry we need to remake the mesh cache
    // this->RemakeDataCacheFlag = 1;
    this->Modified();
  }
}

void vtkExodusIIReader::SetAssemblyArrayStatus(const char* name, int flag)
{
  // Only modify if we are 'out of sync'
  if (this->Metadata->GetAssemblyStatus(name) != flag)
  {
    this->Metadata->SetAssemblyStatus(name, flag);

    // Because which materials are on/off affects the
    // geometry we need to remake the mesh cache
    // this->RemakeDataCacheFlag = 1;
    this->Modified();
  }
}

int vtkExodusIIReader::GetAssemblyArrayStatus(int index)
{
  return this->Metadata->GetAssemblyStatus(index);
}

int vtkExodusIIReader::GetAssemblyArrayStatus(const char* name)
{
  return this->Metadata->GetAssemblyStatus(name);
}

int vtkExodusIIReader::GetNumberOfHierarchyArrays()
{
  // if (this->Metadata->Parser)
  //  {
  //  return this->Metadata->Parser->GetNumberOfHierarchyEntries();
  //  }
  return 0;
}

const char* vtkExodusIIReader::GetHierarchyArrayName(int vtkNotUsed(arrayIdx))
{
  // if (this->Metadata->Parser)
  //  {
  //  this->Metadata->Parser->SetCurrentHierarchyEntry(arrayIdx);
  //  return this->Metadata->Parser->GetCurrentHierarchyEntry();
  //  }
  return "Should not see this";
}

void vtkExodusIIReader::SetHierarchyArrayStatus(int vtkNotUsed(index), int vtkNotUsed(flag))
{
  //// Only modify if we are 'out of sync'
  ////if (this->GetHierarchyArrayStatus(index) != flag)
  //// {
  // if (this->Metadata->Parser)
  //  {
  //  std::vector<int> blocksIds = this->Metadata->Parser->GetBlocksForEntry(index);
  //  for (std::vector<int>::size_type i=0;i<blocksIds.size();i++)
  //    {
  //    this->Metadata->SetObjectStatus(vtkExodusIIReader::ELEM_BLOCK,
  //      this->GetObjectIndex(ELEM_BLOCK,blocksIds[i]),flag);
  //    }
  //
  //  // Because which materials are on/off affects the
  //  // geometry we need to remake the mesh cache
  //  //this->RemakeDataCacheFlag = 1;
  //  this->Modified();
  //  }
}

void vtkExodusIIReader::SetHierarchyArrayStatus(const char* vtkNotUsed(name), int vtkNotUsed(flag))
{
  //// Only modify if we are 'out of sync'
  ////if (this->GetHierarchyArrayStatus(name) != flag)
  ////{
  // if (this->Metadata->Parser)
  //  {
  //  std::vector<int> blocksIds=this->Metadata->Parser->GetBlocksForEntry
  //    (vtkStdString(name));
  //  for (std::vector<int>::size_type i=0;i<blocksIds.size();i++)
  //    {
  //    //cout << "turning block " << blocks[i] << " " << flag << endl;
  //    this->Metadata->SetObjectStatus(vtkExodusIIReader::ELEM_BLOCK,
  //      this->GetObjectIndex(ELEM_BLOCK,blocksIds[i]),flag);
  //    }
  //
  //  // Because which materials are on/off affects the
  //  // geometry we need to remake the mesh cache
  //  //this->RemakeDataCacheFlag = 1;
  //  this->Modified();
  //  }
}

//------------------------------------------------------------------------------
int vtkExodusIIReader::GetHierarchyArrayStatus(int vtkNotUsed(index))
{
  // if (this->Metadata->Parser)
  //  {
  //  std::vector<int> blocksIds=this->Metadata->Parser->GetBlocksForEntry(index);
  //  for (std::vector<int>::size_type i=0;i<blocksIds.size();i++)
  //    {
  //    if (this->Metadata->GetObjectStatus(vtkExodusIIReader::ELEM_BLOCK,
  //        this->GetObjectIndex(ELEM_BLOCK,blocksIds[i]))==0)
  //      return 0;
  //    }
  //  }
  return 1;
}

//------------------------------------------------------------------------------
int vtkExodusIIReader::GetHierarchyArrayStatus(const char* vtkNotUsed(name))
{
  // if (this->Metadata->Parser)
  //  {
  //  std::vector<int> blocksIds=this->Metadata->Parser->GetBlocksForEntry(name);
  //  for (std::vector<int>::size_type i=0;i<blocksIds.size();i++)
  //    {
  //    if (this->Metadata->GetObjectStatus(vtkExodusIIReader::ELEM_BLOCK,
  //        this->GetObjectIndex(ELEM_BLOCK,blocksIds[i]))==0)
  //      return 0;
  //    }
  //  }
  return 1;
}

//------------------------------------------------------------------------------
vtkGraph* vtkExodusIIReader::GetSIL()
{
  return this->Metadata->GetSIL();
}

//------------------------------------------------------------------------------
void vtkExodusIIReader::SetDisplayType(int typ)
{
  if (typ == this->DisplayType || typ < 0 || typ > 2)
    return;

  this->DisplayType = typ;
  this->Modified();
}

//------------------------------------------------------------------------------
int vtkExodusIIReader::IsValidVariable(const char* type, const char* name)
{
  return (this->GetVariableID(type, name) >= 0);
}

//------------------------------------------------------------------------------
int vtkExodusIIReader::GetVariableID(const char* type, const char* name)
{
  int otyp = this->GetObjectTypeFromName(type);
  if (otyp < 0)
  {
    return 0;
  }
  switch (otyp)
  {
    case NODAL:
    case EDGE_BLOCK:
    case FACE_BLOCK:
    case ELEM_BLOCK:
    case NODE_SET:
    case EDGE_SET:
    case FACE_SET:
    case SIDE_SET:
    case ELEM_SET:
      return this->GetObjectArrayIndex(otyp, name);
    case ASSEMBLY:
      return this->GetAssemblyArrayID(name);
    case HIERARCHY:
      return -1; // FIXME: There is no this->GetHierarchyArrayID( name ) and it's not clear there
                 // should be.
    case MATERIAL:
      return this->GetMaterialArrayID(name);
    case PART:
      return this->GetPartArrayID(name);
    default:
      return -1;
  }
}

int vtkExodusIIReader::GetTimeSeriesData(
  int ID, const char* vName, const char* vType, vtkFloatArray* result)
{
  (void)ID;
  (void)vName;
  (void)vType;
  (void)result;
  return -1;
}

void vtkExodusIIReader::SetAllArrayStatus(int otyp, int status)
{
  int numObj;
  int i;
  switch (otyp)
  {
    case EDGE_BLOCK_CONN:
    case FACE_BLOCK_CONN:
    case ELEM_BLOCK_ELEM_CONN:
    case NODE_SET_CONN:
    case EDGE_SET_CONN:
    case FACE_SET_CONN:
    case SIDE_SET_CONN:
    case ELEM_SET_CONN:
    { // Convert the "connectivity" type into an "object" type:
      int ctypidx = this->Metadata->GetConnTypeIndexFromConnType(otyp);
      int otypidx = conn_obj_idx_cvt[ctypidx];
      otyp = obj_types[otypidx];
      // Now set the status
      numObj = this->GetNumberOfObjects(otyp);
      for (i = 0; i < numObj; ++i)
      {
        this->SetObjectStatus(otyp, i, status);
      }
    }
    break;
    case NODAL:
    case GLOBAL:
    case EDGE_BLOCK:
    case FACE_BLOCK:
    case ELEM_BLOCK:
    case NODE_SET:
    case EDGE_SET:
    case FACE_SET:
    case SIDE_SET:
    case ELEM_SET:
      numObj = this->GetNumberOfObjectArrays(otyp);
      for (i = 0; i < numObj; ++i)
      {
        this->SetObjectArrayStatus(otyp, i, status);
      }
      break;
    // ---------------------
    case ASSEMBLY:
      numObj = this->GetNumberOfAssemblyArrays();
      for (i = 0; i < numObj; ++i)
      {
        this->SetAssemblyArrayStatus(i, status);
      }
      VTK_FALLTHROUGH;
    case PART:
      numObj = this->GetNumberOfPartArrays();
      for (i = 0; i < numObj; ++i)
      {
        this->SetPartArrayStatus(i, status);
      }
      VTK_FALLTHROUGH;
    case MATERIAL:
      numObj = this->GetNumberOfMaterialArrays();
      for (i = 0; i < numObj; ++i)
      {
        this->SetMaterialArrayStatus(i, status);
      }
      VTK_FALLTHROUGH;
    case HIERARCHY:
      numObj = this->GetNumberOfHierarchyArrays();
      for (i = 0; i < numObj; ++i)
      {
        this->SetHierarchyArrayStatus(i, status);
      }
      break;
    default:
      break;
  }
}

void vtkExodusIIReader::Dump()
{
  vtkIndent indent;
  this->PrintSelf(cout, indent);
}

bool vtkExodusIIReader::FindXMLFile()
{
  // If the XML filename exists and is newer than any existing parser (or there is no parser),
  // reread XML file.
  if ((this->Metadata->Parser && this->Metadata->Parser->GetMTime() < this->XMLFileNameMTime &&
        this->XMLFileName) ||
    (!Metadata->Parser))
  {
    if (Metadata->Parser)
    {
      Metadata->Parser->Delete();
      Metadata->Parser = nullptr;
    }

    if (!this->XMLFileName || !vtksys::SystemTools::FileExists(this->XMLFileName))
    {
      if (this->FileName)
      {
        // Catch the case where filename was non-nullptr but didn't exist.
        this->SetXMLFileName(nullptr);
      }
    }
    else
    {
      return true;
    }
  }

  return false;
}

void vtkExodusIIReader::AdvertiseTimeSteps(vtkInformation* outInfo)
{
  // This method is called in vtkExodusIIReader::RequestInformation() to update
  // information about timesteps. Since this gets called after this->Metadata
  // has processed the file meta-data it's a good place to update iVars that
  // reflect the meta-data read from the file about timesteps/mode shapes.

  int nTimes = static_cast<int>(this->Metadata->Times.size());
  this->TimeStepRange[0] = 0;
  this->TimeStepRange[1] = (nTimes > 0) ? (nTimes - 1) : 0;

  // Since modeshape range is 1 indexed.
  this->ModeShapesRange[0] = this->TimeStepRange[0] + 1;
  this->ModeShapesRange[1] = this->TimeStepRange[1] + 1;

  if (!this->GetHasModeShapes())
  {
    if (this->GetIgnoreFileTime())
    {
      std::vector<double> times(nTimes);
      for (size_t i = 0; i < times.size(); ++i)
      {
        times[i] = i;
      }
      double timeRange[2];
      timeRange[0] = 0;
      timeRange[1] = nTimes - 1;
      outInfo->Set(vtkStreamingDemandDrivenPipeline::TIME_STEPS(), &times[0], nTimes);
      outInfo->Set(vtkStreamingDemandDrivenPipeline::TIME_RANGE(), timeRange, 2);
    }
    else
    {
      if (nTimes)
      {
        double timeRange[2];
        timeRange[0] = this->Metadata->Times[0];
        timeRange[1] = this->Metadata->Times[nTimes - 1];
        outInfo->Set(
          vtkStreamingDemandDrivenPipeline::TIME_STEPS(), &this->Metadata->Times[0], nTimes);
        outInfo->Set(vtkStreamingDemandDrivenPipeline::TIME_RANGE(), timeRange, 2);
      }
    }
  }
  else if (this->GetAnimateModeShapes())
  {
    outInfo->Remove(vtkStreamingDemandDrivenPipeline::TIME_STEPS());
    static double timeRange[] = { 0, 1 };
    outInfo->Set(vtkStreamingDemandDrivenPipeline::TIME_RANGE(), timeRange, 2);
  }
  else
  {
    outInfo->Remove(vtkStreamingDemandDrivenPipeline::TIME_STEPS());
    outInfo->Remove(vtkStreamingDemandDrivenPipeline::TIME_RANGE());
  }
}

void vtkExodusIIReader::Reset()
{
  this->Metadata->Reset();
  this->Metadata->ResetSettings();
}

void vtkExodusIIReader::ResetSettings()
{
  this->Metadata->ResetSettings();
}

void vtkExodusIIReader::SetCacheSize(double CacheSize)
{
  this->Metadata->SetCacheSize(CacheSize);
}

double vtkExodusIIReader::GetCacheSize()
{
  return this->Metadata->GetCacheSize();
}

void vtkExodusIIReader::SetSqueezePoints(bool sp)
{
  this->Metadata->SetSqueezePoints(sp ? 1 : 0);
}

bool vtkExodusIIReader::GetSqueezePoints()
{
  return this->Metadata->GetSqueezePoints() != 0;
}

void vtkExodusIIReader::ResetCache()
{
  this->Metadata->ResetCache();
}