DDEcalBarrelNewAlgo.cc

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// File: DDEcalBarrelNewAlgo.cc
// Description: Geometry factory class for Ecal Barrel

#include <cmath>
#include <algorithm>

#include "FWCore/MessageLogger/interface/MessageLogger.h"
#include "DetectorDescription/Core/interface/DDLogicalPart.h"
#include "DetectorDescription/Core/interface/DDSolid.h"
#include "DetectorDescription/Core/interface/DDCurrentNamespace.h"
#include "DetectorDescription/Core/interface/DDTranslation.h"
#include "CLHEP/Units/GlobalSystemOfUnits.h"

#include <CLHEP/Geometry/Point3D.h>
#include <CLHEP/Geometry/Vector3D.h>
#include <CLHEP/Geometry/Transform3D.h>
#include <map>
#include <string>
#include <vector>
#include "DetectorDescription/Core/interface/DDTypes.h"
#include "DetectorDescription/Core/interface/DDName.h"
#include "DetectorDescription/Core/interface/DDAlgorithm.h"
#include "DetectorDescription/Core/interface/DDMaterial.h"
#include "DetectorDescription/Core/interface/DDSplit.h"
#include "DetectorDescription/Core/interface/DDTransform.h"
#include "Geometry/CaloGeometry/interface/EcalTrapezoidParameters.h"
#include "CLHEP/Geometry/Transform3D.h"

//#define EDM_ML_DEBUG

class DDEcalBarrelNewAlgo : public DDAlgorithm {
public:
  typedef EcalTrapezoidParameters Trap;
  typedef HepGeom::Point3D<double> Pt3D;
  typedef HepGeom::Transform3D Tf3D;
  typedef HepGeom::ReflectZ3D RfZ3D;
  typedef HepGeom::Translate3D Tl3D;
  typedef HepGeom::Rotate3D Ro3D;
  typedef HepGeom::RotateZ3D RoZ3D;
  typedef HepGeom::RotateY3D RoY3D;
  typedef HepGeom::RotateX3D RoX3D;

  typedef CLHEP::Hep3Vector Vec3;
  typedef CLHEP::HepRotation Rota;

  //Constructor and Destructor
  DDEcalBarrelNewAlgo();
  ~DDEcalBarrelNewAlgo() override;

  void initialize(const DDNumericArguments& nArgs,
                  const DDVectorArguments& vArgs,
                  const DDMapArguments& mArgs,
                  const DDStringArguments& sArgs,
                  const DDStringVectorArguments& vsArgs) override;
  void execute(DDCompactView& cpv) override;

  DDMaterial ddmat(const std::string& s) const;
  DDName ddname(const std::string& s) const;
  DDRotation myrot(const std::string& s, const CLHEP::HepRotation& r) const;
  DDSolid mytrap(const std::string& s, const Trap& t) const;

  const std::string& idNameSpace() const { return m_idNameSpace; }

  // barrel parent volume
  DDName barName() const { return ddname(m_BarName); }
  DDMaterial barMat() const { return ddmat(m_BarMat); }
  const std::vector<double>& vecBarZPts() const { return m_vecBarZPts; }
  const std::vector<double>& vecBarRMin() const { return m_vecBarRMin; }
  const std::vector<double>& vecBarRMax() const { return m_vecBarRMax; }
  const std::vector<double>& vecBarTran() const { return m_vecBarTran; }
  const std::vector<double>& vecBarRota() const { return m_vecBarRota; }
  const std::vector<double>& vecBarRota2() const { return m_vecBarRota2; }
  const std::vector<double>& vecBarRota3() const { return m_vecBarRota3; }
  double barPhiLo() const { return m_BarPhiLo; }
  double barPhiHi() const { return m_BarPhiHi; }
  double barHere() const { return m_BarHere; }

  DDName spmName() const { return ddname(m_SpmName); }
  DDMaterial spmMat() const { return ddmat(m_SpmMat); }
  const std::vector<double>& vecSpmZPts() const { return m_vecSpmZPts; }
  const std::vector<double>& vecSpmRMin() const { return m_vecSpmRMin; }
  const std::vector<double>& vecSpmRMax() const { return m_vecSpmRMax; }
  const std::vector<double>& vecSpmTran() const { return m_vecSpmTran; }
  const std::vector<double>& vecSpmRota() const { return m_vecSpmRota; }
  const std::vector<double>& vecSpmBTran() const { return m_vecSpmBTran; }
  const std::vector<double>& vecSpmBRota() const { return m_vecSpmBRota; }
  unsigned int spmNPerHalf() const { return m_SpmNPerHalf; }
  double spmLowPhi() const { return m_SpmLowPhi; }
  double spmDelPhi() const { return m_SpmDelPhi; }
  double spmPhiOff() const { return m_SpmPhiOff; }
  const std::vector<double>& vecSpmHere() const { return m_vecSpmHere; }
  DDName spmCutName() const { return ddname(m_SpmCutName); }
  double spmCutThick() const { return m_SpmCutThick; }
  int spmCutShow() const { return m_SpmCutShow; }
  double spmCutRM() const { return m_SpmCutRM; }
  double spmCutRP() const { return m_SpmCutRP; }
  const std::vector<double>& vecSpmCutTM() const { return m_vecSpmCutTM; }
  const std::vector<double>& vecSpmCutTP() const { return m_vecSpmCutTP; }
  double spmExpThick() const { return m_SpmExpThick; }
  double spmExpWide() const { return m_SpmExpWide; }
  double spmExpYOff() const { return m_SpmExpYOff; }
  DDName spmSideName() const { return ddname(m_SpmSideName); }
  DDMaterial spmSideMat() const { return ddmat(m_SpmSideMat); }
  double spmSideHigh() const { return m_SpmSideHigh; }
  double spmSideThick() const { return m_SpmSideThick; }
  double spmSideYOffM() const { return m_SpmSideYOffM; }
  double spmSideYOffP() const { return m_SpmSideYOffP; }

  double nomCryDimAF() const { return m_NomCryDimAF; }
  double nomCryDimLZ() const { return m_NomCryDimLZ; }
  const std::vector<double>& vecNomCryDimBF() const { return m_vecNomCryDimBF; }
  const std::vector<double>& vecNomCryDimCF() const { return m_vecNomCryDimCF; }
  const std::vector<double>& vecNomCryDimAR() const { return m_vecNomCryDimAR; }
  const std::vector<double>& vecNomCryDimBR() const { return m_vecNomCryDimBR; }
  const std::vector<double>& vecNomCryDimCR() const { return m_vecNomCryDimCR; }

  double underAF() const { return m_UnderAF; }
  double underLZ() const { return m_UnderLZ; }
  double underBF() const { return m_UnderBF; }
  double underCF() const { return m_UnderCF; }
  double underAR() const { return m_UnderAR; }
  double underBR() const { return m_UnderBR; }
  double underCR() const { return m_UnderCR; }

  double wallThAlv() const { return m_WallThAlv; }
  double wrapThAlv() const { return m_WrapThAlv; }
  double clrThAlv() const { return m_ClrThAlv; }
  const std::vector<double>& vecGapAlvEta() const { return m_vecGapAlvEta; }

  double wallFrAlv() const { return m_WallFrAlv; }
  double wrapFrAlv() const { return m_WrapFrAlv; }
  double clrFrAlv() const { return m_ClrFrAlv; }

  double wallReAlv() const { return m_WallReAlv; }
  double wrapReAlv() const { return m_WrapReAlv; }
  double clrReAlv() const { return m_ClrReAlv; }

  unsigned int nCryTypes() const { return m_NCryTypes; }
  unsigned int nCryPerAlvEta() const { return m_NCryPerAlvEta; }

  const std::string& cryName() const { return m_CryName; }
  const std::string& clrName() const { return m_ClrName; }
  const std::string& wrapName() const { return m_WrapName; }
  const std::string& wallName() const { return m_WallName; }

  DDMaterial cryMat() const { return ddmat(m_CryMat); }
  DDMaterial clrMat() const { return ddmat(m_ClrMat); }
  DDMaterial wrapMat() const { return ddmat(m_WrapMat); }
  DDMaterial wallMat() const { return ddmat(m_WallMat); }
  DDName capName() const { return ddname(m_capName); }
  double capHere() const { return m_capHere; }
  DDMaterial capMat() const { return ddmat(m_capMat); }
  double capXSize() const { return m_capXSize; }
  double capYSize() const { return m_capYSize; }
  double capThick() const { return m_capThick; }

  DDName cerName() const { return ddname(m_CERName); }
  DDMaterial cerMat() const { return ddmat(m_CERMat); }
  double cerXSize() const { return m_CERXSize; }
  double cerYSize() const { return m_CERYSize; }
  double cerThick() const { return m_CERThick; }

  DDName bsiName() const { return ddname(m_BSiName); }
  DDMaterial bsiMat() const { return ddmat(m_BSiMat); }
  double bsiXSize() const { return m_BSiXSize; }
  double bsiYSize() const { return m_BSiYSize; }
  double bsiThick() const { return m_BSiThick; }

  DDName atjName() const { return ddname(m_ATJName); }
  DDMaterial atjMat() const { return ddmat(m_ATJMat); }
  double atjThick() const { return m_ATJThick; }

  DDName sglName() const { return ddname(m_SGLName); }
  DDMaterial sglMat() const { return ddmat(m_SGLMat); }
  double sglThick() const { return m_SGLThick; }

  DDName aglName() const { return ddname(m_AGLName); }
  DDMaterial aglMat() const { return ddmat(m_AGLMat); }
  double aglThick() const { return m_AGLThick; }

  DDName andName() const { return ddname(m_ANDName); }
  DDMaterial andMat() const { return ddmat(m_ANDMat); }
  double andThick() const { return m_ANDThick; }

  DDName apdName() const { return ddname(m_APDName); }
  DDMaterial apdMat() const { return ddmat(m_APDMat); }
  double apdSide() const { return m_APDSide; }
  double apdThick() const { return m_APDThick; }
  double apdZ() const { return m_APDZ; }
  double apdX1() const { return m_APDX1; }
  double apdX2() const { return m_APDX2; }

  double webHere() const { return m_WebHere; }
  const std::string& webPlName() const { return m_WebPlName; }
  const std::string& webClrName() const { return m_WebClrName; }
  DDMaterial webPlMat() const { return ddmat(m_WebPlMat); }
  DDMaterial webClrMat() const { return ddmat(m_WebClrMat); }
  const std::vector<double>& vecWebPlTh() const { return m_vecWebPlTh; }
  const std::vector<double>& vecWebClrTh() const { return m_vecWebClrTh; }
  const std::vector<double>& vecWebLength() const { return m_vecWebLength; }

  double ilyHere() const { return m_IlyHere; }
  const std::string& ilyName() const { return m_IlyName; }
  double ilyPhiLow() const { return m_IlyPhiLow; }
  double ilyDelPhi() const { return m_IlyDelPhi; }
  const std::vector<std::string>& vecIlyMat() const { return m_vecIlyMat; }
  const std::vector<double>& vecIlyThick() const { return m_vecIlyThick; }

  const std::string& ilyPipeName() const { return m_IlyPipeName; }
  double ilyPipeHere() const { return m_IlyPipeHere; }
  DDMaterial ilyPipeMat() const { return ddmat(m_IlyPipeMat); }
  double ilyPipeOD() const { return m_IlyPipeOD; }
  double ilyPipeID() const { return m_IlyPipeID; }
  const std::vector<double>& vecIlyPipeLength() const { return m_vecIlyPipeLength; }
  const std::vector<double>& vecIlyPipeType() const { return m_vecIlyPipeType; }
  const std::vector<double>& vecIlyPipePhi() const { return m_vecIlyPipePhi; }
  const std::vector<double>& vecIlyPipeZ() const { return m_vecIlyPipeZ; }

  DDName ilyPTMName() const { return ddname(m_IlyPTMName); }
  double ilyPTMHere() const { return m_IlyPTMHere; }
  DDMaterial ilyPTMMat() const { return ddmat(m_IlyPTMMat); }
  double ilyPTMWidth() const { return m_IlyPTMWidth; }
  double ilyPTMLength() const { return m_IlyPTMLength; }
  double ilyPTMHeight() const { return m_IlyPTMHeight; }
  const std::vector<double>& vecIlyPTMZ() const { return m_vecIlyPTMZ; }
  const std::vector<double>& vecIlyPTMPhi() const { return m_vecIlyPTMPhi; }

  DDName ilyFanOutName() const { return ddname(m_IlyFanOutName); }
  double ilyFanOutHere() const { return m_IlyFanOutHere; }
  DDMaterial ilyFanOutMat() const { return ddmat(m_IlyFanOutMat); }
  double ilyFanOutWidth() const { return m_IlyFanOutWidth; }
  double ilyFanOutLength() const { return m_IlyFanOutLength; }
  double ilyFanOutHeight() const { return m_IlyFanOutHeight; }
  const std::vector<double>& vecIlyFanOutZ() const { return m_vecIlyFanOutZ; }
  const std::vector<double>& vecIlyFanOutPhi() const { return m_vecIlyFanOutPhi; }
  DDName ilyDiffName() const { return ddname(m_IlyDiffName); }
  DDMaterial ilyDiffMat() const { return ddmat(m_IlyDiffMat); }
  double ilyDiffOff() const { return m_IlyDiffOff; }
  double ilyDiffLength() const { return m_IlyDiffLength; }
  DDName ilyBndlName() const { return ddname(m_IlyBndlName); }
  DDMaterial ilyBndlMat() const { return ddmat(m_IlyBndlMat); }
  double ilyBndlOff() const { return m_IlyBndlOff; }
  double ilyBndlLength() const { return m_IlyBndlLength; }
  DDName ilyFEMName() const { return ddname(m_IlyFEMName); }
  DDMaterial ilyFEMMat() const { return ddmat(m_IlyFEMMat); }
  double ilyFEMWidth() const { return m_IlyFEMWidth; }
  double ilyFEMLength() const { return m_IlyFEMLength; }
  double ilyFEMHeight() const { return m_IlyFEMHeight; }
  const std::vector<double>& vecIlyFEMZ() const { return m_vecIlyFEMZ; }
  const std::vector<double>& vecIlyFEMPhi() const { return m_vecIlyFEMPhi; }

  DDName hawRName() const { return ddname(m_HawRName); }
  DDName fawName() const { return ddname(m_FawName); }
  double fawHere() const { return m_FawHere; }
  double hawRHBIG() const { return m_HawRHBIG; }
  double hawRhsml() const { return m_HawRhsml; }
  double hawRCutY() const { return m_HawRCutY; }
  double hawRCutZ() const { return m_HawRCutZ; }
  double hawRCutDelY() const { return m_HawRCutDelY; }
  double hawYOffCry() const { return m_HawYOffCry; }

  unsigned int nFawPerSupm() const { return m_NFawPerSupm; }
  double fawPhiOff() const { return m_FawPhiOff; }
  double fawDelPhi() const { return m_FawDelPhi; }
  double fawPhiRot() const { return m_FawPhiRot; }
  double fawRadOff() const { return m_FawRadOff; }

  double gridHere() const { return m_GridHere; }
  DDName gridName() const { return ddname(m_GridName); }
  DDMaterial gridMat() const { return ddmat(m_GridMat); }
  double gridThick() const { return m_GridThick; }

  double backHere() const { return m_BackHere; }
  double backXOff() const { return m_BackXOff; }
  double backYOff() const { return m_BackYOff; }
  DDName backSideName() const { return ddname(m_BackSideName); }
  double backSideHere() const { return m_BackSideHere; }
  double backSideLength() const { return m_BackSideLength; }
  double backSideHeight() const { return m_BackSideHeight; }
  double backSideWidth() const { return m_BackSideWidth; }
  double backSideYOff1() const { return m_BackSideYOff1; }
  double backSideYOff2() const { return m_BackSideYOff2; }
  double backSideAngle() const { return m_BackSideAngle; }
  DDMaterial backSideMat() const { return ddmat(m_BackSideMat); }
  DDName backPlateName() const { return ddname(m_BackPlateName); }
  double backPlateHere() const { return m_BackPlateHere; }
  double backPlateLength() const { return m_BackPlateLength; }
  double backPlateThick() const { return m_BackPlateThick; }
  double backPlateWidth() const { return m_BackPlateWidth; }
  DDMaterial backPlateMat() const { return ddmat(m_BackPlateMat); }
  DDName backPlate2Name() const { return ddname(m_BackPlate2Name); }
  double backPlate2Thick() const { return m_BackPlate2Thick; }
  DDMaterial backPlate2Mat() const { return ddmat(m_BackPlate2Mat); }
  const std::string& grilleName() const { return m_GrilleName; }
  double grilleThick() const { return m_GrilleThick; }
  double grilleHere() const { return m_GrilleHere; }
  double grilleWidth() const { return m_GrilleWidth; }
  double grilleZSpace() const { return m_GrilleZSpace; }
  DDMaterial grilleMat() const { return ddmat(m_GrilleMat); }
  const std::vector<double>& vecGrilleHeight() const { return m_vecGrilleHeight; }
  const std::vector<double>& vecGrilleZOff() const { return m_vecGrilleZOff; }

  DDName grEdgeSlotName() const { return ddname(m_GrEdgeSlotName); }
  DDMaterial grEdgeSlotMat() const { return ddmat(m_GrEdgeSlotMat); }
  double grEdgeSlotHere() const { return m_GrEdgeSlotHere; }
  double grEdgeSlotHeight() const { return m_GrEdgeSlotHeight; }
  double grEdgeSlotWidth() const { return m_GrEdgeSlotWidth; }
  const std::string& grMidSlotName() const { return m_GrMidSlotName; }
  DDMaterial grMidSlotMat() const { return ddmat(m_GrMidSlotMat); }
  double grMidSlotHere() const { return m_GrMidSlotHere; }
  double grMidSlotWidth() const { return m_GrMidSlotWidth; }
  double grMidSlotXOff() const { return m_GrMidSlotXOff; }
  const std::vector<double>& vecGrMidSlotHeight() const { return m_vecGrMidSlotHeight; }

  double backPipeHere() const { return m_BackPipeHere; }
  const std::string& backPipeName() const { return m_BackPipeName; }
  const std::vector<double>& vecBackPipeDiam() const { return m_vecBackPipeDiam; }
  const std::vector<double>& vecBackPipeThick() const { return m_vecBackPipeThick; }
  DDMaterial backPipeMat() const { return ddmat(m_BackPipeMat); }
  DDMaterial backPipeWaterMat() const { return ddmat(m_BackPipeWaterMat); }
  double backMiscHere() const { return m_BackMiscHere; }
  const std::vector<double>& vecBackMiscThick() const { return m_vecBackMiscThick; }
  const std::vector<std::string>& vecBackMiscName() const { return m_vecBackMiscName; }
  const std::vector<std::string>& vecBackMiscMat() const { return m_vecBackMiscMat; }
  double patchPanelHere() const { return m_PatchPanelHere; }
  const std::vector<double>& vecPatchPanelThick() const { return m_vecPatchPanelThick; }
  const std::vector<std::string>& vecPatchPanelNames() const { return m_vecPatchPanelNames; }
  const std::vector<std::string>& vecPatchPanelMat() const { return m_vecPatchPanelMat; }
  DDName patchPanelName() const { return ddname(m_PatchPanelName); }

  const std::vector<std::string>& vecBackCoolName() const { return m_vecBackCoolName; }
  double backCoolHere() const { return m_BackCoolHere; }
  double backCoolBarWidth() const { return m_BackCoolBarWidth; }
  double backCoolBarHeight() const { return m_BackCoolBarHeight; }
  DDMaterial backCoolMat() const { return ddmat(m_BackCoolMat); }
  double backCoolBarHere() const { return m_BackCoolBarHere; }
  DDName backCoolBarName() const { return ddname(m_BackCoolBarName); }
  double backCoolBarThick() const { return m_BackCoolBarThick; }
  DDMaterial backCoolBarMat() const { return ddmat(m_BackCoolBarMat); }
  DDName backCoolBarSSName() const { return ddname(m_BackCoolBarSSName); }
  double backCoolBarSSThick() const { return m_BackCoolBarSSThick; }
  DDMaterial backCoolBarSSMat() const { return ddmat(m_BackCoolBarSSMat); }
  DDName backCoolBarWaName() const { return ddname(m_BackCoolBarWaName); }
  double backCoolBarWaThick() const { return m_BackCoolBarWaThick; }
  DDMaterial backCoolBarWaMat() const { return ddmat(m_BackCoolBarWaMat); }
  double backCoolVFEHere() const { return m_BackCoolVFEHere; }
  DDName backCoolVFEName() const { return ddname(m_BackCoolVFEName); }
  DDMaterial backCoolVFEMat() const { return ddmat(m_BackCoolVFEMat); }
  DDName backVFEName() const { return ddname(m_BackVFEName); }
  DDMaterial backVFEMat() const { return ddmat(m_BackVFEMat); }
  const std::vector<double>& vecBackVFELyrThick() const { return m_vecBackVFELyrThick; }
  const std::vector<std::string>& vecBackVFELyrName() const { return m_vecBackVFELyrName; }
  const std::vector<std::string>& vecBackVFELyrMat() const { return m_vecBackVFELyrMat; }
  const std::vector<double>& vecBackCoolNSec() const { return m_vecBackCoolNSec; }
  const std::vector<double>& vecBackCoolSecSep() const { return m_vecBackCoolSecSep; }
  const std::vector<double>& vecBackCoolNPerSec() const { return m_vecBackCoolNPerSec; }
  double backCBStdSep() const { return m_BackCBStdSep; }

  double backCoolTankHere() const { return m_BackCoolTankHere; }
  const std::string& backCoolTankName() const { return m_BackCoolTankName; }
  double backCoolTankWidth() const { return m_BackCoolTankWidth; }
  double backCoolTankThick() const { return m_BackCoolTankThick; }
  DDMaterial backCoolTankMat() const { return ddmat(m_BackCoolTankMat); }
  const std::string& backCoolTankWaName() const { return m_BackCoolTankWaName; }
  double backCoolTankWaWidth() const { return m_BackCoolTankWaWidth; }
  DDMaterial backCoolTankWaMat() const { return ddmat(m_BackCoolTankWaMat); }
  const std::string& backBracketName() const { return m_BackBracketName; }
  double backBracketHeight() const { return m_BackBracketHeight; }
  DDMaterial backBracketMat() const { return ddmat(m_BackBracketMat); }

  double dryAirTubeHere() const { return m_DryAirTubeHere; }
  const std::string& dryAirTubeName() const { return m_DryAirTubeName; }
  double mBCoolTubeNum() const { return m_MBCoolTubeNum; }
  double dryAirTubeInnDiam() const { return m_DryAirTubeInnDiam; }
  double dryAirTubeOutDiam() const { return m_DryAirTubeOutDiam; }
  DDMaterial dryAirTubeMat() const { return ddmat(m_DryAirTubeMat); }
  double mBCoolTubeHere() const { return m_MBCoolTubeHere; }
  const std::string& mBCoolTubeName() const { return m_MBCoolTubeName; }
  double mBCoolTubeInnDiam() const { return m_MBCoolTubeInnDiam; }
  double mBCoolTubeOutDiam() const { return m_MBCoolTubeOutDiam; }
  DDMaterial mBCoolTubeMat() const { return ddmat(m_MBCoolTubeMat); }
  double mBManifHere() const { return m_MBManifHere; }
  DDName mBManifName() const { return ddname(m_MBManifName); }
  double mBManifInnDiam() const { return m_MBManifInnDiam; }
  double mBManifOutDiam() const { return m_MBManifOutDiam; }
  DDMaterial mBManifMat() const { return ddmat(m_MBManifMat); }
  double mBLyrHere() const { return m_MBLyrHere; }
  const std::vector<double>& vecMBLyrThick() const { return m_vecMBLyrThick; }
  const std::vector<std::string>& vecMBLyrName() const { return m_vecMBLyrName; }
  const std::vector<std::string>& vecMBLyrMat() const { return m_vecMBLyrMat; }

  //----------

  double pincerRodHere() const { return m_PincerRodHere; }
  DDName pincerRodName() const { return ddname(m_PincerRodName); }
  DDMaterial pincerRodMat() const { return ddmat(m_PincerRodMat); }
  std::vector<double> vecPincerRodAzimuth() const { return m_vecPincerRodAzimuth; }
  DDName pincerEnvName() const { return ddname(m_PincerEnvName); }
  DDMaterial pincerEnvMat() const { return ddmat(m_PincerEnvMat); }
  double pincerEnvWidth() const { return m_PincerEnvWidth; }
  double pincerEnvHeight() const { return m_PincerEnvHeight; }
  double pincerEnvLength() const { return m_PincerEnvLength; }
  std::vector<double> vecPincerEnvZOff() const { return m_vecPincerEnvZOff; }

  DDName pincerBlkName() const { return ddname(m_PincerBlkName); }
  DDMaterial pincerBlkMat() const { return ddmat(m_PincerBlkMat); }
  double pincerBlkLength() const { return m_PincerBlkLength; }

  DDName pincerShim1Name() const { return ddname(m_PincerShim1Name); }
  double pincerShimHeight() const { return m_PincerShimHeight; }
  DDName pincerShim2Name() const { return ddname(m_PincerShim2Name); }
  DDMaterial pincerShimMat() const { return ddmat(m_PincerShimMat); }
  double pincerShim1Width() const { return m_PincerShim1Width; }
  double pincerShim2Width() const { return m_PincerShim2Width; }

  DDName pincerCutName() const { return ddname(m_PincerCutName); }
  DDMaterial pincerCutMat() const { return ddmat(m_PincerCutMat); }
  double pincerCutWidth() const { return m_PincerCutWidth; }
  double pincerCutHeight() const { return m_PincerCutHeight; }

protected:
private:
  void web(unsigned int iWeb,
           double bWeb,
           double BWeb,
           double LWeb,
           double theta,
           const Pt3D& corner,
           const DDLogicalPart& logPar,
           double& zee,
           double side,
           double front,
           double delta,
           DDCompactView& cpv);

  std::string m_idNameSpace;  //Namespace of this and ALL sub-parts

  // Barrel volume
  std::string m_BarName;              // Barrel volume name
  std::string m_BarMat;               // Barrel material name
  std::vector<double> m_vecBarZPts;   // Barrel list of z pts
  std::vector<double> m_vecBarRMin;   // Barrel list of rMin pts
  std::vector<double> m_vecBarRMax;   // Barrel list of rMax pts
  std::vector<double> m_vecBarTran;   // Barrel translation
  std::vector<double> m_vecBarRota;   // Barrel rotation
  std::vector<double> m_vecBarRota2;  // 2nd Barrel rotation
  std::vector<double> m_vecBarRota3;  // 2nd Barrel rotation
  double m_BarPhiLo;                  // Barrel phi lo
  double m_BarPhiHi;                  // Barrel phi hi
  double m_BarHere;                   // Barrel presence flag

  // Supermodule volume
  std::string m_SpmName;              // Supermodule volume name
  std::string m_SpmMat;               // Supermodule material name
  std::vector<double> m_vecSpmZPts;   // Supermodule list of z pts
  std::vector<double> m_vecSpmRMin;   // Supermodule list of rMin pts
  std::vector<double> m_vecSpmRMax;   // Supermodule list of rMax pts
  std::vector<double> m_vecSpmTran;   // Supermodule translation
  std::vector<double> m_vecSpmRota;   // Supermodule rotation
  std::vector<double> m_vecSpmBTran;  // Base Supermodule translation
  std::vector<double> m_vecSpmBRota;  // Base Supermodule rotation
  unsigned int m_SpmNPerHalf;         // # Supermodules per half detector
  double m_SpmLowPhi;                 // Low   phi value of base supermodule
  double m_SpmDelPhi;                 // Delta phi value of base supermodule
  double m_SpmPhiOff;                 // Phi offset value supermodule
  std::vector<double> m_vecSpmHere;   // Bit saying if a supermodule is present or not
  std::string m_SpmCutName;           // Name of cut box
  double m_SpmCutThick;               // Box thickness
  int m_SpmCutShow;                   // Non-zero means show the box on display (testing only)
  std::vector<double> m_vecSpmCutTM;  // Translation for minus phi cut box
  std::vector<double> m_vecSpmCutTP;  // Translation for plus  phi cut box
  double m_SpmCutRM;                  // Rotation for minus phi cut box
  double m_SpmCutRP;                  // Rotation for plus  phi cut box
  double m_SpmExpThick;               // Thickness (x) of supermodule expansion box
  double m_SpmExpWide;                // Width     (y) of supermodule expansion box
  double m_SpmExpYOff;                // Offset    (y) of supermodule expansion box
  std::string m_SpmSideName;          // Supermodule Side Plate volume name
  std::string m_SpmSideMat;           // Supermodule Side Plate material name
  double m_SpmSideHigh;               // Side plate height
  double m_SpmSideThick;              // Side plate thickness
  double m_SpmSideYOffM;              // Side plate Y offset on minus phi side
  double m_SpmSideYOffP;              // Side plate Y offset on plus  phi side

  double m_NomCryDimAF;                  // Nominal crystal AF
  double m_NomCryDimLZ;                  // Nominal crystal LZ
  std::vector<double> m_vecNomCryDimBF;  // Nominal crystal BF
  std::vector<double> m_vecNomCryDimCF;  // Nominal crystal CF
  std::vector<double> m_vecNomCryDimAR;  // Nominal crystal AR
  std::vector<double> m_vecNomCryDimBR;  // Nominal crystal BR
  std::vector<double> m_vecNomCryDimCR;  // Nominal crystal CR

  double m_UnderAF;  // undershoot of AF
  double m_UnderLZ;  // undershoot of LZ
  double m_UnderBF;  // undershoot of BF
  double m_UnderCF;  // undershoot of CF
  double m_UnderAR;  // undershoot of AR
  double m_UnderBR;  // undershoot of BR
  double m_UnderCR;  // undershoot of CR

  double m_WallThAlv;                  // alveoli wall thickness
  double m_WrapThAlv;                  // wrapping thickness
  double m_ClrThAlv;                   // clearance thickness (nominal)
  std::vector<double> m_vecGapAlvEta;  // Extra clearance after each alveoli perp to crystal axis

  double m_WallFrAlv;  // alveoli wall frontage
  double m_WrapFrAlv;  // wrapping frontage
  double m_ClrFrAlv;   // clearance frontage (nominal)

  double m_WallReAlv;  // alveoli wall rearage
  double m_WrapReAlv;  // wrapping rearage
  double m_ClrReAlv;   // clearance rearage (nominal)

  unsigned int m_NCryTypes;      // number of crystal shapes
  unsigned int m_NCryPerAlvEta;  // number of crystals in eta per alveolus

  std::string m_CryName;   // string name of crystal volume
  std::string m_ClrName;   // string name of clearance volume
  std::string m_WrapName;  // string name of wrap volume
  std::string m_WallName;  // string name of wall volume

  std::string m_CryMat;   // string name of crystal material
  std::string m_ClrMat;   // string name of clearance material
  std::string m_WrapMat;  // string name of wrap material
  std::string m_WallMat;  // string name of wall material

  std::string m_capName;  // Capsule
  double m_capHere;       //
  std::string m_capMat;   //
  double m_capXSize;      //
  double m_capYSize;      //
  double m_capThick;      //

  std::string m_CERName;  // Ceramic
  std::string m_CERMat;   //
  double m_CERXSize;      //
  double m_CERYSize;      //
  double m_CERThick;      //

  std::string m_BSiName;  // Bulk Silicon
  std::string m_BSiMat;   //
  double m_BSiXSize;      //
  double m_BSiYSize;      //
  double m_BSiThick;      //

  std::string m_APDName;  // APD
  std::string m_APDMat;   //
  double m_APDSide;       //
  double m_APDThick;      //
  double m_APDZ;          //
  double m_APDX1;         //
  double m_APDX2;         //

  std::string m_ATJName;  // After-The-Junction
  std::string m_ATJMat;   //
  double m_ATJThick;      //

  std::string m_SGLName;  // APD-Silicone glue
  std::string m_SGLMat;   //
  double m_SGLThick;      //

  std::string m_AGLName;  // APD-Glue
  std::string m_AGLMat;   //
  double m_AGLThick;      //

  std::string m_ANDName;  // APD-Non-Depleted
  std::string m_ANDMat;   //
  double m_ANDThick;      //

  double m_WebHere;                    // here flag
  std::string m_WebPlName;             // string name of web plate volume
  std::string m_WebClrName;            // string name of web clearance volume
  std::string m_WebPlMat;              // string name of web material
  std::string m_WebClrMat;             // string name of web clearance material
  std::vector<double> m_vecWebPlTh;    // Thickness of web plates
  std::vector<double> m_vecWebClrTh;   // Thickness of total web clearance
  std::vector<double> m_vecWebLength;  // Length of web plate

  double m_IlyHere;                      // here flag
  std::string m_IlyName;                 // string name of inner layer volume
  double m_IlyPhiLow;                    // low phi of volumes
  double m_IlyDelPhi;                    // delta phi of ily
  std::vector<std::string> m_vecIlyMat;  // materials of inner layer volumes
  std::vector<double> m_vecIlyThick;     // Thicknesses of inner layer volumes

  std::string m_IlyPipeName;               // Cooling pipes
  double m_IlyPipeHere;                    //
  std::string m_IlyPipeMat;                //
  double m_IlyPipeOD;                      //
  double m_IlyPipeID;                      //
  std::vector<double> m_vecIlyPipeLength;  //
  std::vector<double> m_vecIlyPipeType;    //
  std::vector<double> m_vecIlyPipePhi;     //
  std::vector<double> m_vecIlyPipeZ;       //

  std::string m_IlyPTMName;            // PTM
  double m_IlyPTMHere;                 //
  std::string m_IlyPTMMat;             //
  double m_IlyPTMWidth;                //
  double m_IlyPTMLength;               //
  double m_IlyPTMHeight;               //
  std::vector<double> m_vecIlyPTMZ;    //
  std::vector<double> m_vecIlyPTMPhi;  //

  std::string m_IlyFanOutName;            // FanOut
  double m_IlyFanOutHere;                 //
  std::string m_IlyFanOutMat;             //
  double m_IlyFanOutWidth;                //
  double m_IlyFanOutLength;               //
  double m_IlyFanOutHeight;               //
  std::vector<double> m_vecIlyFanOutZ;    //
  std::vector<double> m_vecIlyFanOutPhi;  //
  std::string m_IlyDiffName;              // Diffuser
  std::string m_IlyDiffMat;               //
  double m_IlyDiffOff;                    //
  double m_IlyDiffLength;                 //
  std::string m_IlyBndlName;              // Fiber bundle
  std::string m_IlyBndlMat;               //
  double m_IlyBndlOff;                    //
  double m_IlyBndlLength;                 //
  std::string m_IlyFEMName;               // FEM
  std::string m_IlyFEMMat;                //
  double m_IlyFEMWidth;                   //
  double m_IlyFEMLength;                  //
  double m_IlyFEMHeight;                  //
  std::vector<double> m_vecIlyFEMZ;       //
  std::vector<double> m_vecIlyFEMPhi;     //

  std::string m_HawRName;      // string name of half-alveolar wedge
  std::string m_FawName;       // string name of full-alveolar wedge
  double m_FawHere;            // here flag
  double m_HawRHBIG;           // height at big end of half alveolar wedge
  double m_HawRhsml;           // height at small end of half alveolar wedge
  double m_HawRCutY;           // x dim of hawR cut box
  double m_HawRCutZ;           // y dim of hawR cut box
  double m_HawRCutDelY;        // y offset of hawR cut box from top of HAW
  double m_HawYOffCry;         // Y offset of crystal wrt HAW at front
  unsigned int m_NFawPerSupm;  // Number of Full Alv. Wedges per supermodule
  double m_FawPhiOff;          // Phi offset for FAW placement
  double m_FawDelPhi;          // Phi delta for FAW placement
  double m_FawPhiRot;          // Phi rotation of FAW about own axis prior to placement
  double m_FawRadOff;          // Radial offset for FAW placement

  double m_GridHere;       // here flag
  std::string m_GridName;  // Grid name
  std::string m_GridMat;   // Grid material
  double m_GridThick;      // Grid Thickness

  double m_BackXOff;  //
  double m_BackYOff;  //

  double m_BackHere;                      // here flag
  std::string m_BackSideName;             // Back Sides
  double m_BackSideHere;                  //
  double m_BackSideLength;                //
  double m_BackSideHeight;                //
  double m_BackSideWidth;                 //
  double m_BackSideYOff1;                 //
  double m_BackSideYOff2;                 //
  double m_BackSideAngle;                 //
  std::string m_BackSideMat;              //
  std::string m_BackPlateName;            // back plate
  double m_BackPlateHere;                 //
  double m_BackPlateLength;               //
  double m_BackPlateThick;                //
  double m_BackPlateWidth;                //
  std::string m_BackPlateMat;             //
  std::string m_BackPlate2Name;           // back plate2
  double m_BackPlate2Thick;               //
  std::string m_BackPlate2Mat;            //
  std::string m_GrilleName;               // grille
  double m_GrilleHere;                    //
  double m_GrilleThick;                   //
  double m_GrilleWidth;                   //
  double m_GrilleZSpace;                  //
  std::string m_GrilleMat;                //
  std::vector<double> m_vecGrilleHeight;  //
  std::vector<double> m_vecGrilleZOff;    //

  std::string m_GrEdgeSlotName;  // Slots in Grille
  std::string m_GrEdgeSlotMat;   //
  double m_GrEdgeSlotHere;       //
  double m_GrEdgeSlotHeight;     //
  double m_GrEdgeSlotWidth;      //

  std::string m_GrMidSlotName;               // Slots in Grille
  std::string m_GrMidSlotMat;                //
  double m_GrMidSlotHere;                    //
  double m_GrMidSlotWidth;                   //
  double m_GrMidSlotXOff;                    //
  std::vector<double> m_vecGrMidSlotHeight;  //

  double m_BackPipeHere;                   // here flag
  std::string m_BackPipeName;              //
  std::vector<double> m_vecBackPipeDiam;   // pipes
  std::vector<double> m_vecBackPipeThick;  // pipes
  std::string m_BackPipeMat;               //
  std::string m_BackPipeWaterMat;          //

  std::vector<std::string> m_vecBackCoolName;  // cooling circuits
  double m_BackCoolHere;                       // here flag
  double m_BackCoolBarHere;                    // here flag
  double m_BackCoolBarWidth;                   //
  double m_BackCoolBarHeight;                  //
  std::string m_BackCoolMat;
  std::string m_BackCoolBarName;  // cooling bar
  double m_BackCoolBarThick;      //
  std::string m_BackCoolBarMat;
  std::string m_BackCoolBarSSName;  // cooling bar tubing
  double m_BackCoolBarSSThick;      //
  std::string m_BackCoolBarSSMat;
  std::string m_BackCoolBarWaName;  // cooling bar water
  double m_BackCoolBarWaThick;      //
  std::string m_BackCoolBarWaMat;
  double m_BackCoolVFEHere;  // here flag
  std::string m_BackCoolVFEName;
  std::string m_BackCoolVFEMat;
  std::string m_BackVFEName;
  std::string m_BackVFEMat;
  std::vector<double> m_vecBackVFELyrThick;      //
  std::vector<std::string> m_vecBackVFELyrName;  //
  std::vector<std::string> m_vecBackVFELyrMat;   //
  std::vector<double> m_vecBackCoolNSec;         //
  std::vector<double> m_vecBackCoolSecSep;       //
  std::vector<double> m_vecBackCoolNPerSec;      //
  double m_BackMiscHere;                         // here flag
  std::vector<double> m_vecBackMiscThick;        // misc materials
  std::vector<std::string> m_vecBackMiscName;    //
  std::vector<std::string> m_vecBackMiscMat;     //
  double m_BackCBStdSep;                         //

  double m_PatchPanelHere;                        // here flag
  std::string m_PatchPanelName;                   //
  std::vector<double> m_vecPatchPanelThick;       // patch panel materials
  std::vector<std::string> m_vecPatchPanelNames;  //
  std::vector<std::string> m_vecPatchPanelMat;    //

  double m_BackCoolTankHere;         // here flag
  std::string m_BackCoolTankName;    // service tank
  double m_BackCoolTankWidth;        //
  double m_BackCoolTankThick;        //
  std::string m_BackCoolTankMat;     //
  std::string m_BackCoolTankWaName;  //
  double m_BackCoolTankWaWidth;      //
  std::string m_BackCoolTankWaMat;   //
  std::string m_BackBracketName;     //
  double m_BackBracketHeight;        //
  std::string m_BackBracketMat;      //

  double m_DryAirTubeHere;                  // here flag
  std::string m_DryAirTubeName;             // dry air tube
  unsigned int m_MBCoolTubeNum;             //
  double m_DryAirTubeInnDiam;               //
  double m_DryAirTubeOutDiam;               //
  std::string m_DryAirTubeMat;              //
  double m_MBCoolTubeHere;                  // here flag
  std::string m_MBCoolTubeName;             // mothr bd cooling tube
  double m_MBCoolTubeInnDiam;               //
  double m_MBCoolTubeOutDiam;               //
  std::string m_MBCoolTubeMat;              //
  double m_MBManifHere;                     // here flag
  std::string m_MBManifName;                //mother bd manif
  double m_MBManifInnDiam;                  //
  double m_MBManifOutDiam;                  //
  std::string m_MBManifMat;                 //
  double m_MBLyrHere;                       // here flag
  std::vector<double> m_vecMBLyrThick;      // mother bd lyrs
  std::vector<std::string> m_vecMBLyrName;  //
  std::vector<std::string> m_vecMBLyrMat;   //

  //-------------------------------------------------------------------

  double m_PincerRodHere;                     // here flag
  std::string m_PincerRodName;                // pincer rod
  std::string m_PincerRodMat;                 //
  std::vector<double> m_vecPincerRodAzimuth;  //

  std::string m_PincerEnvName;             // pincer envelope
  std::string m_PincerEnvMat;              //
  double m_PincerEnvWidth;                 //
  double m_PincerEnvHeight;                //
  double m_PincerEnvLength;                //
  std::vector<double> m_vecPincerEnvZOff;  //

  std::string m_PincerBlkName;  // pincer block
  std::string m_PincerBlkMat;   //
  double m_PincerBlkLength;     //

  std::string m_PincerShim1Name;  // pincer shim
  double m_PincerShimHeight;      //
  std::string m_PincerShim2Name;  //
  std::string m_PincerShimMat;    //
  double m_PincerShim1Width;      //
  double m_PincerShim2Width;      //

  std::string m_PincerCutName;  // pincer block
  std::string m_PincerCutMat;   //
  double m_PincerCutWidth;      //
  double m_PincerCutHeight;     //
};

namespace std {}
using namespace std;

DDEcalBarrelNewAlgo::DDEcalBarrelNewAlgo()
    : m_idNameSpace(""),
      m_BarName(""),
      m_BarMat(""),
      m_vecBarZPts(),
      m_vecBarRMin(),
      m_vecBarRMax(),
      m_vecBarTran(),
      m_vecBarRota(),
      m_vecBarRota2(),
      m_vecBarRota3(),
      m_BarPhiLo(0),
      m_BarPhiHi(0),
      m_BarHere(0),
      m_SpmName(""),
      m_SpmMat(""),
      m_vecSpmZPts(),
      m_vecSpmRMin(),
      m_vecSpmRMax(),
      m_vecSpmTran(),
      m_vecSpmRota(),
      m_vecSpmBTran(),
      m_vecSpmBRota(),
      m_SpmNPerHalf(0),
      m_SpmLowPhi(0),
      m_SpmDelPhi(0),
      m_SpmPhiOff(0),
      m_vecSpmHere(),
      m_SpmCutName(""),
      m_SpmCutThick(0),
      m_SpmCutShow(0),
      m_vecSpmCutTM(),
      m_vecSpmCutTP(),
      m_SpmCutRM(0),
      m_SpmCutRP(0),
      m_SpmExpThick(0),
      m_SpmExpWide(0),
      m_SpmExpYOff(0),
      m_SpmSideName(""),
      m_SpmSideMat(""),
      m_SpmSideHigh(0),
      m_SpmSideThick(0),
      m_SpmSideYOffM(0),
      m_SpmSideYOffP(0),
      m_NomCryDimAF(0),
      m_NomCryDimLZ(0),
      m_vecNomCryDimBF(),
      m_vecNomCryDimCF(),
      m_vecNomCryDimAR(),
      m_vecNomCryDimBR(),
      m_vecNomCryDimCR(),
      m_UnderAF(0),
      m_UnderLZ(0),
      m_UnderBF(0),
      m_UnderCF(0),
      m_UnderAR(0),
      m_UnderBR(0),
      m_UnderCR(0),
      m_WallThAlv(0),
      m_WrapThAlv(0),
      m_ClrThAlv(0),
      m_vecGapAlvEta(),
      m_WallFrAlv(0),
      m_WrapFrAlv(0),
      m_ClrFrAlv(0),
      m_WallReAlv(0),
      m_WrapReAlv(0),
      m_ClrReAlv(0),
      m_NCryTypes(0),
      m_NCryPerAlvEta(0),
      m_CryName(""),
      m_ClrName(""),
      m_WrapName(""),
      m_WallName(""),
      m_CryMat(""),
      m_ClrMat(""),
      m_WrapMat(""),
      m_WallMat(""),

      m_capName(""),
      m_capHere(0),
      m_capMat(""),
      m_capXSize(0),
      m_capYSize(0),
      m_capThick(0),

      m_CERName(""),
      m_CERMat(""),
      m_CERXSize(0),
      m_CERYSize(0),
      m_CERThick(0),

      m_BSiName(""),
      m_BSiMat(""),
      m_BSiXSize(0),
      m_BSiYSize(0),
      m_BSiThick(0),

      m_APDName(""),
      m_APDMat(""),
      m_APDSide(0),
      m_APDThick(0),
      m_APDZ(0),
      m_APDX1(0),
      m_APDX2(0),

      m_ATJName(""),
      m_ATJMat(""),
      m_ATJThick(0),

      m_SGLName(""),
      m_SGLMat(""),
      m_SGLThick(0),

      m_AGLName(""),
      m_AGLMat(""),
      m_AGLThick(0),

      m_ANDName(""),
      m_ANDMat(""),
      m_ANDThick(0),

      m_WebHere(0),
      m_WebPlName(""),
      m_WebClrName(""),
      m_WebPlMat(""),
      m_WebClrMat(""),
      m_vecWebPlTh(),
      m_vecWebClrTh(),
      m_vecWebLength(),
      m_IlyHere(0),
      m_IlyName(),
      m_IlyPhiLow(0),
      m_IlyDelPhi(0),
      m_vecIlyMat(),
      m_vecIlyThick(),
      m_IlyPipeName(""),
      m_IlyPipeHere(0),
      m_IlyPipeMat(""),
      m_IlyPipeOD(0),
      m_IlyPipeID(0),
      m_vecIlyPipeLength(),
      m_vecIlyPipeType(),
      m_vecIlyPipePhi(),
      m_vecIlyPipeZ(),
      m_IlyPTMName(""),
      m_IlyPTMHere(0),
      m_IlyPTMMat(""),
      m_IlyPTMWidth(0),
      m_IlyPTMLength(0),
      m_IlyPTMHeight(0),
      m_vecIlyPTMZ(),
      m_vecIlyPTMPhi(),
      m_IlyFanOutName(""),
      m_IlyFanOutHere(0),
      m_IlyFanOutMat(""),
      m_IlyFanOutWidth(0),
      m_IlyFanOutLength(0),
      m_IlyFanOutHeight(0),
      m_vecIlyFanOutZ(),
      m_vecIlyFanOutPhi(),
      m_IlyDiffName(""),
      m_IlyDiffMat(""),
      m_IlyDiffOff(0),
      m_IlyDiffLength(0),
      m_IlyBndlName(""),
      m_IlyBndlMat(""),
      m_IlyBndlOff(0),
      m_IlyBndlLength(0),
      m_IlyFEMName(""),
      m_IlyFEMMat(""),
      m_IlyFEMWidth(0),
      m_IlyFEMLength(0),
      m_IlyFEMHeight(0),
      m_vecIlyFEMZ(),
      m_vecIlyFEMPhi(),
      m_HawRName(""),
      m_FawName(""),
      m_FawHere(0),
      m_HawRHBIG(0),
      m_HawRhsml(0),
      m_HawRCutY(0),
      m_HawRCutZ(0),
      m_HawRCutDelY(0),
      m_HawYOffCry(0),
      m_NFawPerSupm(0),
      m_FawPhiOff(0),
      m_FawDelPhi(0),
      m_FawPhiRot(0),
      m_FawRadOff(0),
      m_GridHere(0),
      m_GridName(""),
      m_GridMat(""),
      m_GridThick(0),
      m_BackXOff(0),
      m_BackYOff(0),
      m_BackHere(0),
      m_BackSideName(""),
      m_BackSideHere(0),
      m_BackSideLength(0),
      m_BackSideHeight(0),
      m_BackSideWidth(0),
      m_BackSideYOff1(0),
      m_BackSideYOff2(0),
      m_BackSideAngle(0),
      m_BackSideMat(""),
      m_BackPlateName(""),
      m_BackPlateHere(0),
      m_BackPlateLength(0),
      m_BackPlateThick(0),
      m_BackPlateWidth(0),
      m_BackPlateMat(""),
      m_BackPlate2Name(""),
      m_BackPlate2Thick(0),
      m_BackPlate2Mat(""),
      m_GrilleName(""),
      m_GrilleHere(0),
      m_GrilleThick(0),
      m_GrilleWidth(0),
      m_GrilleZSpace(0),
      m_GrilleMat(""),
      m_vecGrilleHeight(),
      m_vecGrilleZOff(),
      m_GrEdgeSlotName(""),
      m_GrEdgeSlotMat(""),
      m_GrEdgeSlotHere(0),
      m_GrEdgeSlotHeight(0),
      m_GrEdgeSlotWidth(0),
      m_GrMidSlotName(""),
      m_GrMidSlotMat(""),
      m_GrMidSlotHere(0),
      m_GrMidSlotWidth(0),
      m_GrMidSlotXOff(0),
      m_vecGrMidSlotHeight(),
      m_BackPipeHere(0),
      m_BackPipeName(""),
      m_vecBackPipeDiam(),
      m_vecBackPipeThick(),
      m_BackPipeMat(""),
      m_BackPipeWaterMat(""),

      m_vecBackCoolName(),
      m_BackCoolHere(0),
      m_BackCoolBarHere(0),
      m_BackCoolBarWidth(0),
      m_BackCoolBarHeight(0),
      m_BackCoolMat(""),
      m_BackCoolBarName(""),
      m_BackCoolBarThick(0),
      m_BackCoolBarMat(""),
      m_BackCoolBarSSName(""),
      m_BackCoolBarSSThick(0),
      m_BackCoolBarSSMat(""),
      m_BackCoolBarWaName(""),
      m_BackCoolBarWaThick(0),
      m_BackCoolBarWaMat(""),
      m_BackCoolVFEHere(0),
      m_BackCoolVFEName(""),
      m_BackCoolVFEMat(""),
      m_BackVFEName(""),
      m_BackVFEMat(""),
      m_vecBackVFELyrThick(),
      m_vecBackVFELyrName(),
      m_vecBackVFELyrMat(),
      m_vecBackCoolNSec(),
      m_vecBackCoolSecSep(),
      m_vecBackCoolNPerSec(),

      m_BackMiscHere(0),
      m_vecBackMiscThick(),
      m_vecBackMiscName(),
      m_vecBackMiscMat(),
      m_BackCBStdSep(0),
      m_PatchPanelHere(0),
      m_PatchPanelName(""),
      m_vecPatchPanelThick(),
      m_vecPatchPanelNames(),
      m_vecPatchPanelMat(),
      m_BackCoolTankHere(0),
      m_BackCoolTankName(""),
      m_BackCoolTankWidth(0),
      m_BackCoolTankThick(0),
      m_BackCoolTankMat(""),
      m_BackCoolTankWaName(""),
      m_BackCoolTankWaWidth(0),
      m_BackCoolTankWaMat(""),
      m_BackBracketName(""),
      m_BackBracketHeight(0),
      m_BackBracketMat(""),

      m_DryAirTubeHere(0),
      m_DryAirTubeName(""),
      m_MBCoolTubeNum(0),
      m_DryAirTubeInnDiam(0),
      m_DryAirTubeOutDiam(0),
      m_DryAirTubeMat(""),
      m_MBCoolTubeHere(0),
      m_MBCoolTubeName(""),
      m_MBCoolTubeInnDiam(0),
      m_MBCoolTubeOutDiam(0),
      m_MBCoolTubeMat(""),
      m_MBManifHere(0),
      m_MBManifName(""),
      m_MBManifInnDiam(0),
      m_MBManifOutDiam(0),
      m_MBManifMat(""),
      m_MBLyrHere(0),
      m_vecMBLyrThick(0),
      m_vecMBLyrName(),
      m_vecMBLyrMat(),

      m_PincerRodHere(0),
      m_PincerRodName(""),
      m_PincerRodMat(""),
      m_vecPincerRodAzimuth(),
      m_PincerEnvName(""),
      m_PincerEnvMat(""),
      m_PincerEnvWidth(0),
      m_PincerEnvHeight(0),
      m_PincerEnvLength(0),
      m_vecPincerEnvZOff(),
      m_PincerBlkName(""),
      m_PincerBlkMat(""),
      m_PincerBlkLength(0),
      m_PincerShim1Name(""),
      m_PincerShimHeight(0),
      m_PincerShim2Name(""),
      m_PincerShimMat(""),
      m_PincerShim1Width(0),
      m_PincerShim2Width(0),
      m_PincerCutName(""),
      m_PincerCutMat(""),
      m_PincerCutWidth(0),
      m_PincerCutHeight(0)

{
#ifdef EDM_ML_DEBUG
  edm::LogVerbatim("EcalGeom") << "DDEcalBarrelAlgo info: Creating an instance";
#endif
}

DDEcalBarrelNewAlgo::~DDEcalBarrelNewAlgo() {}

void DDEcalBarrelNewAlgo::initialize(const DDNumericArguments& nArgs,
                                     const DDVectorArguments& vArgs,
                                     const DDMapArguments& /*mArgs*/,
                                     const DDStringArguments& sArgs,
                                     const DDStringVectorArguments& vsArgs) {
#ifdef EDM_ML_DEBUG
  edm::LogVerbatim("EcalGeom") << "DDEcalBarrelAlgo info: Initialize";
#endif
  m_idNameSpace = DDCurrentNamespace::ns();
  // TRICK!
  m_idNameSpace = parent().name().ns();
  // barrel parent volume
  m_BarName = sArgs["BarName"];
  m_BarMat = sArgs["BarMat"];
  m_vecBarZPts = vArgs["BarZPts"];
  m_vecBarRMin = vArgs["BarRMin"];
  m_vecBarRMax = vArgs["BarRMax"];
  m_vecBarTran = vArgs["BarTran"];
  m_vecBarRota = vArgs["BarRota"];
  m_vecBarRota2 = vArgs["BarRota2"];
  m_vecBarRota3 = vArgs["BarRota3"];
  m_BarPhiLo = nArgs["BarPhiLo"];
  m_BarPhiHi = nArgs["BarPhiHi"];
  m_BarHere = nArgs["BarHere"];

  m_SpmName = sArgs["SpmName"];
  m_SpmMat = sArgs["SpmMat"];
  m_vecSpmZPts = vArgs["SpmZPts"];
  m_vecSpmRMin = vArgs["SpmRMin"];
  m_vecSpmRMax = vArgs["SpmRMax"];
  m_vecSpmTran = vArgs["SpmTran"];
  m_vecSpmRota = vArgs["SpmRota"];
  m_vecSpmBTran = vArgs["SpmBTran"];
  m_vecSpmBRota = vArgs["SpmBRota"];
  m_SpmNPerHalf = static_cast<unsigned int>(nArgs["SpmNPerHalf"]);
  m_SpmLowPhi = nArgs["SpmLowPhi"];
  m_SpmDelPhi = nArgs["SpmDelPhi"];
  m_SpmPhiOff = nArgs["SpmPhiOff"];
  m_vecSpmHere = vArgs["SpmHere"];
  m_SpmCutName = sArgs["SpmCutName"];
  m_SpmCutThick = nArgs["SpmCutThick"];
  m_SpmCutShow = int(nArgs["SpmCutShow"]);
  m_vecSpmCutTM = vArgs["SpmCutTM"];
  m_vecSpmCutTP = vArgs["SpmCutTP"];
  m_SpmCutRM = nArgs["SpmCutRM"];
  m_SpmCutRP = nArgs["SpmCutRP"];
  m_SpmExpThick = nArgs["SpmExpThick"];
  m_SpmExpWide = nArgs["SpmExpWide"];
  m_SpmExpYOff = nArgs["SpmExpYOff"];
  m_SpmSideName = sArgs["SpmSideName"];
  m_SpmSideMat = sArgs["SpmSideMat"];
  m_SpmSideHigh = nArgs["SpmSideHigh"];
  m_SpmSideThick = nArgs["SpmSideThick"];
  m_SpmSideYOffM = nArgs["SpmSideYOffM"];
  m_SpmSideYOffP = nArgs["SpmSideYOffP"];

  m_NomCryDimAF = nArgs["NomCryDimAF"];
  m_NomCryDimLZ = nArgs["NomCryDimLZ"];
  m_vecNomCryDimBF = vArgs["NomCryDimBF"];
  m_vecNomCryDimCF = vArgs["NomCryDimCF"];
  m_vecNomCryDimAR = vArgs["NomCryDimAR"];
  m_vecNomCryDimBR = vArgs["NomCryDimBR"];
  m_vecNomCryDimCR = vArgs["NomCryDimCR"];

  m_UnderAF = nArgs["UnderAF"];
  m_UnderLZ = nArgs["UnderLZ"];
  m_UnderBF = nArgs["UnderBF"];
  m_UnderCF = nArgs["UnderCF"];
  m_UnderAR = nArgs["UnderAR"];
  m_UnderBR = nArgs["UnderBR"];
  m_UnderCR = nArgs["UnderCR"];

  m_WallThAlv = nArgs["WallThAlv"];
  m_WrapThAlv = nArgs["WrapThAlv"];
  m_ClrThAlv = nArgs["ClrThAlv"];
  m_vecGapAlvEta = vArgs["GapAlvEta"];

  m_WallFrAlv = nArgs["WallFrAlv"];
  m_WrapFrAlv = nArgs["WrapFrAlv"];
  m_ClrFrAlv = nArgs["ClrFrAlv"];

  m_WallReAlv = nArgs["WallReAlv"];
  m_WrapReAlv = nArgs["WrapReAlv"];
  m_ClrReAlv = nArgs["ClrReAlv"];

  m_NCryTypes = static_cast<unsigned int>(nArgs["NCryTypes"]);
  m_NCryPerAlvEta = static_cast<unsigned int>(nArgs["NCryPerAlvEta"]);

  m_CryName = sArgs["CryName"];
  m_ClrName = sArgs["ClrName"];
  m_WrapName = sArgs["WrapName"];
  m_WallName = sArgs["WallName"];

  m_CryMat = sArgs["CryMat"];
  m_ClrMat = sArgs["ClrMat"];
  m_WrapMat = sArgs["WrapMat"];
  m_WallMat = sArgs["WallMat"];

  m_capName = sArgs["CapName"];
  m_capHere = nArgs["CapHere"];
  m_capMat = sArgs["CapMat"];
  m_capXSize = nArgs["CapXSize"];
  m_capYSize = nArgs["CapYSize"];
  m_capThick = nArgs["CapThick"];

  m_CERName = sArgs["CerName"];
  m_CERMat = sArgs["CerMat"];
  m_CERXSize = nArgs["CerXSize"];
  m_CERYSize = nArgs["CerYSize"];
  m_CERThick = nArgs["CerThick"];

  m_BSiName = sArgs["BSiName"];
  m_BSiMat = sArgs["BSiMat"];
  m_BSiXSize = nArgs["BSiXSize"];
  m_BSiYSize = nArgs["BSiYSize"];
  m_BSiThick = nArgs["BSiThick"];

  m_APDName = sArgs["APDName"];
  m_APDMat = sArgs["APDMat"];
  m_APDSide = nArgs["APDSide"];
  m_APDThick = nArgs["APDThick"];
  m_APDZ = nArgs["APDZ"];
  m_APDX1 = nArgs["APDX1"];
  m_APDX2 = nArgs["APDX2"];

  m_ATJName = sArgs["ATJName"];
  m_ATJMat = sArgs["ATJMat"];
  m_ATJThick = nArgs["ATJThick"];

  m_SGLName = sArgs["SGLName"];
  m_SGLMat = sArgs["SGLMat"];
  m_SGLThick = nArgs["SGLThick"];

  m_AGLName = sArgs["AGLName"];
  m_AGLMat = sArgs["AGLMat"];
  m_AGLThick = nArgs["AGLThick"];

  m_ANDName = sArgs["ANDName"];
  m_ANDMat = sArgs["ANDMat"];
  m_ANDThick = nArgs["ANDThick"];

  m_WebHere = nArgs["WebHere"];
  m_WebPlName = sArgs["WebPlName"];
  m_WebClrName = sArgs["WebClrName"];
  m_WebPlMat = sArgs["WebPlMat"];
  m_WebClrMat = sArgs["WebClrMat"];
  m_vecWebPlTh = vArgs["WebPlTh"];
  m_vecWebClrTh = vArgs["WebClrTh"];
  m_vecWebLength = vArgs["WebLength"];

  m_IlyHere = nArgs["IlyHere"];
  m_IlyName = sArgs["IlyName"];
  m_IlyPhiLow = nArgs["IlyPhiLow"];
  m_IlyDelPhi = nArgs["IlyDelPhi"];
  m_vecIlyMat = vsArgs["IlyMat"];
  m_vecIlyThick = vArgs["IlyThick"];

  m_IlyPipeName = sArgs["IlyPipeName"];
  m_IlyPipeHere = nArgs["IlyPipeHere"];
  m_IlyPipeMat = sArgs["IlyPipeMat"];
  m_IlyPipeOD = nArgs["IlyPipeOD"];
  m_IlyPipeID = nArgs["IlyPipeID"];
  m_vecIlyPipeLength = vArgs["IlyPipeLength"];
  m_vecIlyPipeType = vArgs["IlyPipeType"];
  m_vecIlyPipePhi = vArgs["IlyPipePhi"];
  m_vecIlyPipeZ = vArgs["IlyPipeZ"];

  m_IlyPTMName = sArgs["IlyPTMName"];
  m_IlyPTMHere = nArgs["IlyPTMHere"];
  m_IlyPTMMat = sArgs["IlyPTMMat"];
  m_IlyPTMWidth = nArgs["IlyPTMWidth"];
  m_IlyPTMLength = nArgs["IlyPTMLength"];
  m_IlyPTMHeight = nArgs["IlyPTMHeight"];
  m_vecIlyPTMZ = vArgs["IlyPTMZ"];
  m_vecIlyPTMPhi = vArgs["IlyPTMPhi"];

  m_IlyFanOutName = sArgs["IlyFanOutName"];
  m_IlyFanOutHere = nArgs["IlyFanOutHere"];
  m_IlyFanOutMat = sArgs["IlyFanOutMat"];
  m_IlyFanOutWidth = nArgs["IlyFanOutWidth"];
  m_IlyFanOutLength = nArgs["IlyFanOutLength"];
  m_IlyFanOutHeight = nArgs["IlyFanOutHeight"];
  m_vecIlyFanOutZ = vArgs["IlyFanOutZ"];
  m_vecIlyFanOutPhi = vArgs["IlyFanOutPhi"];
  m_IlyDiffName = sArgs["IlyDiffName"];
  m_IlyDiffMat = sArgs["IlyDiffMat"];
  m_IlyDiffOff = nArgs["IlyDiffOff"];
  m_IlyDiffLength = nArgs["IlyDiffLength"];
  m_IlyBndlName = sArgs["IlyBndlName"];
  m_IlyBndlMat = sArgs["IlyBndlMat"];
  m_IlyBndlOff = nArgs["IlyBndlOff"];
  m_IlyBndlLength = nArgs["IlyBndlLength"];
  m_IlyFEMName = sArgs["IlyFEMName"];
  m_IlyFEMMat = sArgs["IlyFEMMat"];
  m_IlyFEMWidth = nArgs["IlyFEMWidth"];
  m_IlyFEMLength = nArgs["IlyFEMLength"];
  m_IlyFEMHeight = nArgs["IlyFEMHeight"];
  m_vecIlyFEMZ = vArgs["IlyFEMZ"];
  m_vecIlyFEMPhi = vArgs["IlyFEMPhi"];

  m_HawRName = sArgs["HawRName"];
  m_FawName = sArgs["FawName"];
  m_FawHere = nArgs["FawHere"];
  m_HawRHBIG = nArgs["HawRHBIG"];
  m_HawRhsml = nArgs["HawRhsml"];
  m_HawRCutY = nArgs["HawRCutY"];
  m_HawRCutZ = nArgs["HawRCutZ"];
  m_HawRCutDelY = nArgs["HawRCutDelY"];
  m_HawYOffCry = nArgs["HawYOffCry"];

  m_NFawPerSupm = static_cast<unsigned int>(nArgs["NFawPerSupm"]);
  m_FawPhiOff = nArgs["FawPhiOff"];
  m_FawDelPhi = nArgs["FawDelPhi"];
  m_FawPhiRot = nArgs["FawPhiRot"];
  m_FawRadOff = nArgs["FawRadOff"];

  m_GridHere = nArgs["GridHere"];
  m_GridName = sArgs["GridName"];
  m_GridMat = sArgs["GridMat"];
  m_GridThick = nArgs["GridThick"];

  m_BackHere = nArgs["BackHere"];
  m_BackXOff = nArgs["BackXOff"];
  m_BackYOff = nArgs["BackYOff"];
  m_BackSideName = sArgs["BackSideName"];
  m_BackSideHere = nArgs["BackSideHere"];
  m_BackSideLength = nArgs["BackSideLength"];
  m_BackSideHeight = nArgs["BackSideHeight"];
  m_BackSideWidth = nArgs["BackSideWidth"];
  m_BackSideYOff1 = nArgs["BackSideYOff1"];
  m_BackSideYOff2 = nArgs["BackSideYOff2"];
  m_BackSideAngle = nArgs["BackSideAngle"];
  m_BackSideMat = sArgs["BackSideMat"];
  m_BackPlateName = sArgs["BackPlateName"];
  m_BackPlateHere = nArgs["BackPlateHere"];
  m_BackPlateLength = nArgs["BackPlateLength"];
  m_BackPlateThick = nArgs["BackPlateThick"];
  m_BackPlateWidth = nArgs["BackPlateWidth"];
  m_BackPlateMat = sArgs["BackPlateMat"];
  m_BackPlate2Name = sArgs["BackPlate2Name"];
  m_BackPlate2Thick = nArgs["BackPlate2Thick"];
  m_BackPlate2Mat = sArgs["BackPlate2Mat"];
  m_GrilleName = sArgs["GrilleName"];
  m_GrilleHere = nArgs["GrilleHere"];
  m_GrilleThick = nArgs["GrilleThick"];
  m_GrilleWidth = nArgs["GrilleWidth"];
  m_GrilleZSpace = nArgs["GrilleZSpace"];
  m_GrilleMat = sArgs["GrilleMat"];
  m_vecGrilleHeight = vArgs["GrilleHeight"];
  m_vecGrilleZOff = vArgs["GrilleZOff"];

  m_GrEdgeSlotName = sArgs["GrEdgeSlotName"];
  m_GrEdgeSlotMat = sArgs["GrEdgeSlotMat"];
  m_GrEdgeSlotHere = nArgs["GrEdgeSlotHere"];
  m_GrEdgeSlotHeight = nArgs["GrEdgeSlotHeight"];
  m_GrEdgeSlotWidth = nArgs["GrEdgeSlotWidth"];
  m_GrMidSlotName = sArgs["GrMidSlotName"];
  m_GrMidSlotMat = sArgs["GrMidSlotMat"];
  m_GrMidSlotHere = nArgs["GrMidSlotHere"];
  m_GrMidSlotWidth = nArgs["GrMidSlotWidth"];
  m_GrMidSlotXOff = nArgs["GrMidSlotXOff"];
  m_vecGrMidSlotHeight = vArgs["GrMidSlotHeight"];

  m_BackPipeHere = nArgs["BackPipeHere"];
  m_BackPipeName = sArgs["BackPipeName"];
  m_vecBackPipeDiam = vArgs["BackPipeDiam"];
  m_vecBackPipeThick = vArgs["BackPipeThick"];
  m_BackPipeMat = sArgs["BackPipeMat"];
  m_BackPipeWaterMat = sArgs["BackPipeWaterMat"];

  m_BackCoolHere = nArgs["BackCoolHere"];
  m_vecBackCoolName = vsArgs["BackCoolName"];
  m_BackCoolBarHere = nArgs["BackCoolBarHere"];
  m_BackCoolBarWidth = nArgs["BackCoolBarWidth"];
  m_BackCoolBarHeight = nArgs["BackCoolBarHeight"];
  m_BackCoolMat = sArgs["BackCoolMat"];
  m_BackCoolBarName = sArgs["BackCoolBarName"];
  m_BackCoolBarThick = nArgs["BackCoolBarThick"];
  m_BackCoolBarMat = sArgs["BackCoolBarMat"];
  m_BackCoolBarSSName = sArgs["BackCoolBarSSName"];
  m_BackCoolBarSSThick = nArgs["BackCoolBarSSThick"];
  m_BackCoolBarSSMat = sArgs["BackCoolBarSSMat"];
  m_BackCoolBarWaName = sArgs["BackCoolBarWaName"];
  m_BackCoolBarWaThick = nArgs["BackCoolBarWaThick"];
  m_BackCoolBarWaMat = sArgs["BackCoolBarWaMat"];
  m_BackCoolVFEHere = nArgs["BackCoolVFEHere"];
  m_BackCoolVFEName = sArgs["BackCoolVFEName"];
  m_BackCoolVFEMat = sArgs["BackCoolVFEMat"];
  m_BackVFEName = sArgs["BackVFEName"];
  m_BackVFEMat = sArgs["BackVFEMat"];
  m_vecBackVFELyrThick = vArgs["BackVFELyrThick"];
  m_vecBackVFELyrName = vsArgs["BackVFELyrName"];
  m_vecBackVFELyrMat = vsArgs["BackVFELyrMat"];
  m_vecBackCoolNSec = vArgs["BackCoolNSec"];
  m_vecBackCoolSecSep = vArgs["BackCoolSecSep"];
  m_vecBackCoolNPerSec = vArgs["BackCoolNPerSec"];
  m_BackCBStdSep = nArgs["BackCBStdSep"];

  m_BackMiscHere = nArgs["BackMiscHere"];
  m_vecBackMiscThick = vArgs["BackMiscThick"];
  m_vecBackMiscName = vsArgs["BackMiscName"];
  m_vecBackMiscMat = vsArgs["BackMiscMat"];
  m_PatchPanelHere = nArgs["PatchPanelHere"];
  m_vecPatchPanelThick = vArgs["PatchPanelThick"];
  m_vecPatchPanelNames = vsArgs["PatchPanelNames"];
  m_vecPatchPanelMat = vsArgs["PatchPanelMat"];
  m_PatchPanelName = sArgs["PatchPanelName"];

  m_BackCoolTankHere = nArgs["BackCoolTankHere"];
  m_BackCoolTankName = sArgs["BackCoolTankName"];
  m_BackCoolTankWidth = nArgs["BackCoolTankWidth"];
  m_BackCoolTankThick = nArgs["BackCoolTankThick"];
  m_BackCoolTankMat = sArgs["BackCoolTankMat"];
  m_BackCoolTankWaName = sArgs["BackCoolTankWaName"];
  m_BackCoolTankWaWidth = nArgs["BackCoolTankWaWidth"];
  m_BackCoolTankWaMat = sArgs["BackCoolTankWaMat"];
  m_BackBracketName = sArgs["BackBracketName"];
  m_BackBracketHeight = nArgs["BackBracketHeight"];
  m_BackBracketMat = sArgs["BackBracketMat"];

  m_DryAirTubeHere = nArgs["DryAirTubeHere"];
  m_DryAirTubeName = sArgs["DryAirTubeName"];
  m_MBCoolTubeNum = static_cast<unsigned int>(nArgs["MBCoolTubeNum"]);
  m_DryAirTubeInnDiam = nArgs["DryAirTubeInnDiam"];
  m_DryAirTubeOutDiam = nArgs["DryAirTubeOutDiam"];
  m_DryAirTubeMat = sArgs["DryAirTubeMat"];
  m_MBCoolTubeHere = nArgs["MBCoolTubeHere"];
  m_MBCoolTubeName = sArgs["MBCoolTubeName"];
  m_MBCoolTubeInnDiam = nArgs["MBCoolTubeInnDiam"];
  m_MBCoolTubeOutDiam = nArgs["MBCoolTubeOutDiam"];
  m_MBCoolTubeMat = sArgs["MBCoolTubeMat"];
  m_MBManifHere = nArgs["MBManifHere"];
  m_MBManifName = sArgs["MBManifName"];
  m_MBManifInnDiam = nArgs["MBManifInnDiam"];
  m_MBManifOutDiam = nArgs["MBManifOutDiam"];
  m_MBManifMat = sArgs["MBManifMat"];
  m_MBLyrHere = nArgs["MBLyrHere"];
  m_vecMBLyrThick = vArgs["MBLyrThick"];
  m_vecMBLyrName = vsArgs["MBLyrName"];
  m_vecMBLyrMat = vsArgs["MBLyrMat"];

  m_PincerRodHere = nArgs["PincerRodHere"];
  m_PincerRodName = sArgs["PincerRodName"];
  m_PincerRodMat = sArgs["PincerRodMat"];
  m_vecPincerRodAzimuth = vArgs["PincerRodAzimuth"];
  m_PincerEnvName = sArgs["PincerEnvName"];
  m_PincerEnvMat = sArgs["PincerEnvMat"];
  m_PincerEnvWidth = nArgs["PincerEnvWidth"];
  m_PincerEnvHeight = nArgs["PincerEnvHeight"];
  m_PincerEnvLength = nArgs["PincerEnvLength"];
  m_vecPincerEnvZOff = vArgs["PincerEnvZOff"];
  m_PincerBlkName = sArgs["PincerBlkName"];
  m_PincerBlkMat = sArgs["PincerBlkMat"];
  m_PincerBlkLength = nArgs["PincerBlkLength"];
  m_PincerShim1Name = sArgs["PincerShim1Name"];
  m_PincerShimHeight = nArgs["PincerShimHeight"];
  m_PincerShim2Name = sArgs["PincerShim2Name"];
  m_PincerShimMat = sArgs["PincerShimMat"];
  m_PincerShim1Width = nArgs["PincerShim1Width"];
  m_PincerShim2Width = nArgs["PincerShim2Width"];
  m_PincerCutName = sArgs["PincerCutName"];
  m_PincerCutMat = sArgs["PincerCutMat"];
  m_PincerCutWidth = nArgs["PincerCutWidth"];
  m_PincerCutHeight = nArgs["PincerCutHeight"];

#ifdef EDM_ML_DEBUG
  edm::LogVerbatim("EcalGeom") << "DDEcalBarrelAlgo info: end initialize";
#endif
}

// DDEcalBarrelAlgo methods...

void DDEcalBarrelNewAlgo::execute(DDCompactView& cpv) {
#ifdef EDM_ML_DEBUG
  edm::LogVerbatim("EcalGeom") << "******** DDEcalBarrelAlgo execute!" << std::endl;
#endif
  if (barHere() != 0) {
    const unsigned int copyOne(1);
    const unsigned int copyTwo(2);
    // Barrel parent volume----------------------------------------------------------
    cpv.position(
        DDLogicalPart(barName(),
                      barMat(),
                      DDSolidFactory::polycone(
                          barName(), barPhiLo(), (barPhiHi() - barPhiLo()), vecBarZPts(), vecBarRMin(), vecBarRMax())),
        parent().name(),
        copyOne,
        DDTranslation(vecBarTran()[0], vecBarTran()[1], vecBarTran()[2]),
        myrot(barName().name() + "Rot",
              Rota(Vec3(vecBarRota3()[0], vecBarRota3()[1], vecBarRota3()[2]), vecBarRota3()[3]) *
                  Rota(Vec3(vecBarRota2()[0], vecBarRota2()[1], vecBarRota2()[2]), vecBarRota2()[3]) *
                  Rota(Vec3(vecBarRota()[0], vecBarRota()[1], vecBarRota()[2]), vecBarRota()[3])));
#ifdef EDM_ML_DEBUG
    edm::LogVerbatim("EBGeom") << barName() << " PolyCone from " << barPhiLo() / CLHEP::deg << " to "
                               << barPhiHi() / CLHEP::deg << " with " << vecBarZPts().size() << " points";
    for (unsigned int k = 0; k < vecBarZPts().size(); ++k)
      edm::LogVerbatim("EBGeom") << "[" << k << "] " << vecBarZPts()[k] << ":" << vecBarRMin()[k] << ":"
                                 << vecBarRMax()[k];
    edm::LogVerbatim("EBGeomX") << barName() << ":" << copyOne << " positioned in " << parent().name() << " at "
                                << DDTranslation(vecBarTran()[0], vecBarTran()[1], vecBarTran()[2]) << " with rotation";
#endif
    // End Barrel parent volume----------------------------------------------------------

    // Supermodule parent------------------------------------------------------------

    const DDName spmcut1ddname((0 != spmCutShow()) ? spmName() : ddname(m_SpmName + "CUT1"));
    const DDSolid ddspm(
        DDSolidFactory::polycone(spmcut1ddname, spmLowPhi(), spmDelPhi(), vecSpmZPts(), vecSpmRMin(), vecSpmRMax()));
#ifdef EDM_ML_DEBUG
    edm::LogVerbatim("EBGeom") << spmcut1ddname << " PolyCone from " << spmLowPhi() / CLHEP::deg << " to "
                               << (spmLowPhi() + spmDelPhi()) / CLHEP::deg << " with " << vecSpmZPts().size()
                               << " points";
    for (unsigned int k = 0; k < vecSpmZPts().size(); ++k)
      edm::LogVerbatim("EBGeom") << "[" << k << "] " << vecSpmZPts()[k] << ":" << vecSpmRMin()[k] << ":"
                                 << vecSpmRMax()[k];
#endif

    const unsigned int indx(vecSpmRMax().size() / 2);

    // Deal with the cut boxes first
    const DDSolid spmCutBox(DDSolidFactory::box(spmCutName(),
                                                1.05 * (vecSpmRMax()[indx] - vecSpmRMin()[indx]) / 2.,
                                                spmCutThick() / 2.,
                                                fabs(vecSpmZPts().back() - vecSpmZPts().front()) / 2. + 1 * mm));
#ifdef EDM_ML_DEBUG
    edm::LogVerbatim("EBGeom") << spmCutName() << " Box " << 1.05 * (vecSpmRMax()[indx] - vecSpmRMin()[indx]) / 2.
                               << ":" << spmCutThick() / 2. << ":"
                               << (fabs(vecSpmZPts().back() - vecSpmZPts().front()) / 2. + 1 * mm);
#endif
    const std::vector<double>& cutBoxParms(spmCutBox.parameters());
    const DDLogicalPart spmCutLog(spmCutName(), spmMat(), spmCutBox);
    /*
    // Now the expansion box
    const double xExp(spmExpThick() / 2.);
    const double yExp(spmExpWide() / 2.);
    const double zExp(fabs(vecSpmZPts().back() - vecSpmZPts().front()) / 2.);
    const DDName expName(m_SpmName + "EXP");
    const DDSolid spmExpBox(DDSolidFactory::box(expName, xExp, yExp, zExp));
#ifdef EDM_ML_DEBUG
    edm::LogVerbatim("EBGeom") << expName << " Box " << xExp << ":" << yExp << ":" << zExp;
#endif
    const DDTranslation expTra(vecSpmRMax().back() - xExp, spmExpYOff(), vecSpmZPts().front() + zExp);
    const DDLogicalPart expLog(expName, spmMat(), spmExpBox);

    const DDName unionName ( ddname( m_SpmName + "UNI" ) ) ;
      if( 0 != spmCutShow() )
      {
     cpv.position( expLog, spmName(), copyOne, expTra, DDRotation() ) ;
      }
      else
      {
     const DDSolid unionSolid ( DDSolidFactory::unionSolid(
                       unionName,
                       spmcut1ddname, expName,
                       expTra, DDRotation() ) ) ;
                       }
    */

    // Supermodule side platess
    const DDSolid sideSolid(DDSolidFactory::box(
        spmSideName(), spmSideHigh() / 2., spmSideThick() / 2., fabs(vecSpmZPts()[1] - vecSpmZPts()[0]) / 2.));
#ifdef EDM_ML_DEBUG
    edm::LogVerbatim("EBGeom") << spmSideName() << " Box " << spmSideHigh() / 2. << ":" << spmSideThick() / 2. << ":"
                               << fabs(vecSpmZPts()[1] - vecSpmZPts()[0]) / 2.;
#endif
    const std::vector<double>& sideParms(sideSolid.parameters());
    const DDLogicalPart sideLog(spmSideName(), spmSideMat(), sideSolid);

    DDSolid temp1;
    DDSolid temp2;
    for (unsigned int icopy(1); icopy <= 2; ++icopy) {
      const std::vector<double>& tvec(1 == icopy ? vecSpmCutTM() : vecSpmCutTP());
      const double rang(1 == icopy ? spmCutRM() : spmCutRP());

      const Tl3D tr(tvec[0], tvec[1], tvec[2]);
      const RoZ3D ro(rang);
      const Tf3D alltrot(
          RoZ3D(1 == icopy ? spmLowPhi() : spmLowPhi() + spmDelPhi()) *
          Tl3D((vecSpmRMax()[indx] + vecSpmRMin()[indx]) / 2., 0, (vecSpmZPts().front() + vecSpmZPts().back()) / 2.) *
          tr * ro);

      const DDRotation ddrot(myrot(spmCutName().name() + std::to_string(icopy), alltrot.getRotation()));
      const DDTranslation ddtra(alltrot.getTranslation());

      const Tl3D trSide(tvec[0],
                        tvec[1] + (1 == icopy ? 1. : -1.) * (cutBoxParms[1] + sideParms[1]) +
                            (1 == icopy ? spmSideYOffM() : spmSideYOffP()),
                        tvec[2]);
      const RoZ3D roSide(rang);
      const Tf3D sideRot(RoZ3D(1 == icopy ? spmLowPhi() : spmLowPhi() + spmDelPhi()) *
                         Tl3D(vecSpmRMin().front() + sideParms[0], 0, vecSpmZPts().front() + sideParms[2]) * trSide *
                         roSide);

      const DDRotation sideddrot(myrot(spmSideName().name() + std::to_string(icopy), sideRot.getRotation()));
      const DDTranslation sideddtra(sideRot.getTranslation());

      cpv.position(sideLog, spmName(), icopy, sideddtra, sideddrot);
#ifdef EDM_ML_DEBUG
      edm::LogVerbatim("EBGeomX") << sideLog.name() << ":" << icopy << " positioned in " << spmName() << " at "
                                  << sideddtra << " with rotation";
#endif
      if (0 != spmCutShow())  // do this if we are "showing" the boxes
      {
        cpv.position(spmCutLog, spmName(), icopy, ddtra, ddrot);
#ifdef EDM_ML_DEBUG
        edm::LogVerbatim("EBGeomX") << spmCutLog.name() << ":" << icopy << " positioned in " << spmName() << " at "
                                    << ddtra << " with rotation";
#endif
      } else  // do this if we are subtracting the boxes
      {
        if (1 == icopy) {
          temp1 = DDSolidFactory::subtraction(DDName(m_SpmName + "_T1"), spmcut1ddname, spmCutBox, ddtra, ddrot);
#ifdef EDM_ML_DEBUG
          edm::LogVerbatim("EBGeom") << DDName(m_SpmName + "_T1") << " Subtraction " << spmcut1ddname << ":"
                                     << spmCutBox.name() << " at " << ddtra;
#endif
        } else {
          temp2 = DDSolidFactory::subtraction(spmName(), temp1, spmCutBox, ddtra, ddrot);
#ifdef EDM_ML_DEBUG
          edm::LogVerbatim("EBGeom") << spmName() << " Subtraction " << temp1.name() << ":" << spmCutBox.name()
                                     << " at " << ddtra;
#endif
        }
      }
    }

    const DDLogicalPart spmLog(spmName(), spmMat(), ((0 != spmCutShow()) ? ddspm : temp2));

    const double dphi(360. * deg / (1. * spmNPerHalf()));
    for (unsigned int iphi(0); iphi < 2 * spmNPerHalf(); ++iphi) {
      const double phi(iphi * dphi + spmPhiOff());  //- 0.000130/deg ) ;

      // this base rotation includes the base translation & rotation
      // plus flipping for the negative z hemisphere, plus
      // the phi rotation for this module
      const Tf3D rotaBase(RoZ3D(phi) * (iphi < spmNPerHalf() ? Ro3D() : RoX3D(180. * deg)) *
                          Ro3D(vecSpmBRota()[3], Vec3(vecSpmBRota()[0], vecSpmBRota()[1], vecSpmBRota()[2])) *
                          Tl3D(Vec3(vecSpmBTran()[0], vecSpmBTran()[1], vecSpmBTran()[2])));

      // here the individual rotations & translations of the supermodule
      // are implemented on top of the overall "base" rotation & translation

      const unsigned int offr(4 * iphi);
      const unsigned int offt(3 * iphi);

      const Ro3D r1(vecSpmRota()[offr + 3],
                    Vec3(vecSpmRota()[offr + 0], vecSpmRota()[offr + 1], vecSpmRota()[offr + 2]));

      const Tf3D rotaExtra(r1 * Tl3D(Vec3(vecSpmTran()[offt + 0], vecSpmTran()[offt + 1], vecSpmTran()[offt + 2])));

      const Tf3D both(rotaExtra * rotaBase);

      const DDRotation rota(myrot(spmName().name() + std::to_string(phi / deg), both.getRotation()));

      if (vecSpmHere()[iphi] != 0) {
        // convert from CLHEP to DDTranslation & etc. -- Michael Case
        DDTranslation myTran(both.getTranslation().x(), both.getTranslation().y(), both.getTranslation().z());
        cpv.position(spmLog, barName(), iphi + 1, myTran, rota);
#ifdef EDM_ML_DEBUG
        edm::LogVerbatim("EBGeomX") << spmLog.name() << ":" << (iphi + 1) << " positioned in " << barName() << " at "
                                    << myTran << " with rotation";
#endif
      }
    }
    // End Supermodule parent------------------------------------------------------------

    // Begin Inner Layer volumes---------------------------------------------------------
    const double ilyLength(vecSpmZPts()[1] - vecSpmZPts()[0]);
    double ilyRMin(vecSpmRMin()[0]);
    double ilyThick(0);
    for (unsigned int ilyx(0); ilyx != vecIlyThick().size(); ++ilyx) {
      ilyThick += vecIlyThick()[ilyx];
    }
    const DDName ilyDDName(ddname(ilyName()));
    const DDSolid ilySolid(
        DDSolidFactory::tubs(ilyDDName, ilyLength / 2, ilyRMin, ilyRMin + ilyThick, ilyPhiLow(), ilyDelPhi()));
#ifdef EDM_ML_DEBUG
    edm::LogVerbatim("EBGeom") << ilyDDName << " Tubs " << ilyLength / 2 << ":" << ilyRMin << ":" << ilyRMin + ilyThick
                               << ":" << ilyPhiLow() / CLHEP::deg << ":" << ilyDelPhi() / CLHEP::deg;
#endif
    const DDLogicalPart ilyLog(ilyDDName, spmMat(), ilySolid);
    cpv.position(ilyLog, spmLog, copyOne, DDTranslation(0, 0, ilyLength / 2), DDRotation());
#ifdef EDM_ML_DEBUG
    edm::LogVerbatim("EBGeomX") << ilyDDName << ":" << copyOne << " positioned in " << spmLog.name() << " at "
                                << DDTranslation(0, 0, ilyLength / 2) << " with no rotation";
#endif
    DDLogicalPart ilyPipeLog[200];

    if (0 != ilyPipeHere()) {
      for (unsigned int iPipeType(0); iPipeType != vecIlyPipeLength().size(); ++iPipeType) {
        const DDName pName(ddname(ilyPipeName() + "_" + std::to_string(iPipeType + 1)));

        DDSolid ilyPipeSolid(
            DDSolidFactory::tubs(pName, vecIlyPipeLength()[iPipeType] / 2., 0, ilyPipeOD() / 2, 0 * deg, 360 * deg));
#ifdef EDM_ML_DEBUG
        edm::LogVerbatim("EBGeom") << pName << " Tubs " << vecIlyPipeLength()[iPipeType] / 2.
                                   << ":0:" << ilyPipeOD() / 2 << ":0:360";
#endif
        ilyPipeLog[iPipeType] = DDLogicalPart(pName, ilyPipeMat(), ilyPipeSolid);

        const DDName pWaName(ddname(ilyPipeName() + "Wa_" + std::to_string(iPipeType + 1)));
        DDSolid ilyPipeWaSolid(
            DDSolidFactory::tubs(pWaName, vecIlyPipeLength()[iPipeType] / 2., 0, ilyPipeID() / 2, 0 * deg, 360 * deg));
#ifdef EDM_ML_DEBUG
        edm::LogVerbatim("EBGeom") << pWaName << " Tubs " << vecIlyPipeLength()[iPipeType] / 2.
                                   << ":0:" << ilyPipeID() / 2 << ":0:360";
#endif
        const DDLogicalPart ilyPipeWaLog(pWaName, backPipeWaterMat(), ilyPipeWaSolid);

        cpv.position(ilyPipeWaLog, pName, copyOne, DDTranslation(0, 0, 0), DDRotation());
#ifdef EDM_ML_DEBUG
        edm::LogVerbatim("EBGeomX") << pWaName << ":" << copyOne << " positioned in " << pName << " at "
                                    << DDTranslation(0, 0, 0) << " with no rotation";
#endif
      }
    }

    DDSolid ilyPTMSolid(
        DDSolidFactory::box(ilyPTMName(), ilyPTMHeight() / 2., ilyPTMWidth() / 2., ilyPTMLength() / 2.));
#ifdef EDM_ML_DEBUG
    edm::LogVerbatim("EBGeom") << ilyPTMName() << " Box " << ilyPTMHeight() / 2. << ":" << ilyPTMWidth() / 2. << ":"
                               << ilyPTMLength() / 2.;
#endif
    const DDLogicalPart ilyPTMLog(ilyPTMName(), ilyPTMMat(), ilyPTMSolid);

    DDSolid ilyFanOutSolid(
        DDSolidFactory::box(ilyFanOutName(), ilyFanOutHeight() / 2., ilyFanOutWidth() / 2., ilyFanOutLength() / 2.));
#ifdef EDM_ML_DEBUG
    edm::LogVerbatim("EBGeom") << ilyFanOutName() << " Box " << ilyFanOutHeight() / 2. << ":" << ilyFanOutWidth() / 2.
                               << ":" << ilyFanOutLength() / 2.;
#endif
    const DDLogicalPart ilyFanOutLog(ilyFanOutName(), ilyFanOutMat(), ilyFanOutSolid);

    DDSolid ilyFEMSolid(
        DDSolidFactory::box(ilyFEMName(), ilyFEMHeight() / 2., ilyFEMWidth() / 2., ilyFEMLength() / 2.));
#ifdef EDM_ML_DEBUG
    edm::LogVerbatim("EBGeom") << ilyFEMName() << " Box " << ilyFEMHeight() / 2. << ":" << ilyFEMWidth() / 2. << ":"
                               << ilyFEMLength() / 2.;
#endif
    const DDLogicalPart ilyFEMLog(ilyFEMName(), ilyFEMMat(), ilyFEMSolid);

    DDSolid ilyDiffSolid(
        DDSolidFactory::box(ilyDiffName(), ilyFanOutHeight() / 2., ilyFanOutWidth() / 2., ilyDiffLength() / 2.));
#ifdef EDM_ML_DEBUG
    edm::LogVerbatim("EBGeom") << ilyDiffName() << " Box " << ilyFanOutHeight() / 2. << ":" << ilyFanOutWidth() / 2.
                               << ":" << ilyDiffLength() / 2.;
#endif
    const DDLogicalPart ilyDiffLog(ilyDiffName(), ilyDiffMat(), ilyDiffSolid);

    DDSolid ilyBndlSolid(
        DDSolidFactory::box(ilyBndlName(), ilyFanOutHeight() / 2., ilyFanOutWidth() / 2., ilyBndlLength() / 2.));
#ifdef EDM_ML_DEBUG
    edm::LogVerbatim("EBGeom") << ilyBndlName() << " Box " << ilyFanOutHeight() / 2. << ":" << ilyFanOutWidth() / 2.
                               << ":" << ilyBndlLength() / 2.;
#endif
    const DDLogicalPart ilyBndlLog(ilyBndlName(), ilyBndlMat(), ilyBndlSolid);
    cpv.position(ilyDiffLog,
                 ilyFanOutName(),
                 copyOne,
                 DDTranslation(0, 0, -ilyFanOutLength() / 2 + ilyDiffLength() / 2 + ilyDiffOff()),
                 DDRotation());
#ifdef EDM_ML_DEBUG
    edm::LogVerbatim("EBGeomX") << ilyDiffName() << ":" << copyOne << " positioned in " << ilyFanOutName() << " at "
                                << DDTranslation(0, 0, -ilyFanOutLength() / 2 + ilyDiffLength() / 2 + ilyDiffOff())
                                << " with no rotation";
#endif
    cpv.position(ilyBndlLog,
                 ilyFanOutName(),
                 copyOne,
                 DDTranslation(0, 0, -ilyFanOutLength() / 2 + ilyBndlLength() / 2 + ilyBndlOff()),
                 DDRotation());
#ifdef EDM_ML_DEBUG
    edm::LogVerbatim("EBGeomX") << ilyBndlName() << ":" << copyOne << " positioned in " << ilyFanOutName() << " at "
                                << DDTranslation(0, 0, -ilyFanOutLength() / 2 + ilyBndlLength() / 2 + ilyBndlOff())
                                << " with no rotation";
#endif
    for (unsigned int ily(0); ily != vecIlyThick().size(); ++ily) {
      const double ilyRMax(ilyRMin + vecIlyThick()[ily]);
      const DDName xilyName(ddname(ilyName() + std::to_string(ily)));
      const DDSolid xilySolid(
          DDSolidFactory::tubs(xilyName, ilyLength / 2, ilyRMin, ilyRMax, ilyPhiLow(), ilyDelPhi()));
#ifdef EDM_ML_DEBUG
      edm::LogVerbatim("EBGeom") << xilyName << " Tubs " << ilyLength / 2 << ":" << ilyRMin << ":" << ilyRMax << ":"
                                 << ilyPhiLow() / CLHEP::deg << ":" << ilyDelPhi() / CLHEP::deg;
#endif

      const DDLogicalPart xilyLog(xilyName, ddmat(vecIlyMat()[ily]), xilySolid);

      if (0 != ilyHere()) {
        cpv.position(xilyLog, ilyLog, copyOne, DDTranslation(0, 0, 0), DDRotation());
#ifdef EDM_ML_DEBUG
        edm::LogVerbatim("EBGeomX") << xilyLog.name() << ":" << copyOne << " positioned in " << ilyLog.name() << " at "
                                    << DDTranslation(0, 0, 0) << " with no rotation";
#endif
        unsigned int copyNum[] = {0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0};

        if (10 * mm < vecIlyThick()[ily] && vecIlyThick().size() != (ily + 1) && 0 != ilyPipeHere()) {
          if (0 != ilyPTMHere()) {
            unsigned int ptmCopy(0);
            for (unsigned int ilyPTM(0); ilyPTM != vecIlyPTMZ().size(); ++ilyPTM) {
              const double radius(ilyRMax - 1 * mm - ilyPTMHeight() / 2.);
              const double phi(vecIlyPTMPhi()[ilyPTM]);
              const double yy(radius * sin(phi));
              const double xx(radius * cos(phi));
              ++ptmCopy;
              cpv.position(ilyPTMLog,
                           xilyLog,
                           ptmCopy,
                           DDTranslation(xx, yy, vecIlyPTMZ()[ilyPTM] - ilyLength / 2),
                           myrot(ilyPTMLog.name().name() + "_rot" + std::to_string(ptmCopy), CLHEP::HepRotationZ(phi)));
#ifdef EDM_ML_DEBUG
              edm::LogVerbatim("EBGeomX")
                  << ilyPTMLog.name() << ":" << ptmCopy << " positioned in " << xilyLog.name() << " at "
                  << DDTranslation(xx, yy, vecIlyPTMZ()[ilyPTM] - ilyLength / 2) << " with rotation";
#endif
            }
          }
          if (0 != ilyFanOutHere()) {
            unsigned int fanOutCopy(0);
            for (unsigned int ilyFO(0); ilyFO != vecIlyFanOutZ().size(); ++ilyFO) {
              const double radius(ilyRMax - 1 * mm - ilyFanOutHeight() / 2.);
              const double phi(vecIlyFanOutPhi()[ilyFO]);
              const double yy(radius * sin(phi));
              const double xx(radius * cos(phi));
              ++fanOutCopy;
              cpv.position(ilyFanOutLog,
                           xilyLog,
                           fanOutCopy,
                           DDTranslation(xx, yy, vecIlyFanOutZ()[ilyFO] - ilyLength / 2),
                           myrot(ilyFanOutLog.name().name() + "_rot" + std::to_string(fanOutCopy),
                                 CLHEP::HepRotationZ(phi) * CLHEP::HepRotationY(180 * deg)));
#ifdef EDM_ML_DEBUG
              edm::LogVerbatim("EBGeomX")
                  << ilyFanOutLog.name() << ":" << fanOutCopy << " positioned in " << xilyLog.name() << " at "
                  << DDTranslation(xx, yy, vecIlyFanOutZ()[ilyFO] - ilyLength / 2) << " with rotation";
#endif
            }
            unsigned int femCopy(0);
            for (unsigned int ilyFEM(0); ilyFEM != vecIlyFEMZ().size(); ++ilyFEM) {
              const double radius(ilyRMax - 1 * mm - ilyFEMHeight() / 2.);
              const double phi(vecIlyFEMPhi()[ilyFEM]);
              const double yy(radius * sin(phi));
              const double xx(radius * cos(phi));
              ++femCopy;
              cpv.position(ilyFEMLog,
                           xilyLog,
                           femCopy,
                           DDTranslation(xx, yy, vecIlyFEMZ()[ilyFEM] - ilyLength / 2),
                           myrot(ilyFEMLog.name().name() + "_rot" + std::to_string(femCopy), CLHEP::HepRotationZ(phi)));
#ifdef EDM_ML_DEBUG
              edm::LogVerbatim("EBGeomX")
                  << ilyFEMLog.name() << ":" << femCopy << " positioned in " << xilyLog.name() << " at "
                  << DDTranslation(xx, yy, vecIlyFEMZ()[ilyFEM] - ilyLength / 2) << " with rotation";
#endif
            }
          }
          for (unsigned int iPipe(0); iPipe != vecIlyPipePhi().size(); ++iPipe) {
            const unsigned int type(static_cast<unsigned int>(round(vecIlyPipeType()[iPipe])));
            //        edm::LogVerbatim("EcalGeom") <<" iPipe, type= " << iPipe << ", " << type;
            const double zz(-ilyLength / 2 + vecIlyPipeZ()[iPipe] + (9 > type ? vecIlyPipeLength()[type] / 2. : 0));

            for (unsigned int ly(0); ly != 2; ++ly) {
              const double radius(0 == ly ? ilyRMin + ilyPipeOD() / 2. + 1 * mm : ilyRMax - ilyPipeOD() / 2. - 1 * mm);
              const double phi(vecIlyPipePhi()[iPipe]);
              const double yy(radius * sin(phi));
              const double xx(radius * cos(phi));
              ++copyNum[type],
                  cpv.position(
                      ilyPipeLog[type],
                      xilyLog,
                      copyNum[type],
                      DDTranslation(xx, yy, zz),
                      (9 > type ? DDRotation()
                                : myrot(ilyPipeLog[type].name().name() + "_rot" + std::to_string(copyNum[type]),
                                        Rota(Vec3(xx, yy, 0), 90 * deg))));
#ifdef EDM_ML_DEBUG
              std::string rrr = (9 > type) ? " with no rotation" : " with rotation";
              edm::LogVerbatim("EBGeomX") << ilyPipeLog[type].name() << ":" << copyNum[type] << " positioned in "
                                          << xilyLog.name() << " at" << DDTranslation(xx, yy, zz) << rrr;
#endif
            }
          }
        }
      }
      ilyRMin = ilyRMax;
    }
    // End Inner Layer volumes---------------------------------------------------------

    const DDName clyrName(DDName("ECLYR"));
    std::vector<double> cri;
    std::vector<double> cro;
    std::vector<double> czz;
    czz.emplace_back(vecSpmZPts()[1]);
    cri.emplace_back(vecSpmRMin()[0]);
    cro.emplace_back(vecSpmRMin()[0] + 25 * mm);
    czz.emplace_back(vecSpmZPts()[2]);
    cri.emplace_back(vecSpmRMin()[2]);
    cro.emplace_back(vecSpmRMin()[2] + 10 * mm);
    const DDSolid clyrSolid(DDSolidFactory::polycone(clyrName, -9.5 * deg, 19 * deg, czz, cri, cro));
#ifdef EDM_ML_DEBUG
    edm::LogVerbatim("EBGeom") << clyrName << " PolyCone from -9.5 to 9.5 with " << czz.size() << " points";
    for (unsigned int k = 0; k < czz.size(); ++k)
      edm::LogVerbatim("EBGeom") << "[" << k << "] " << czz[k] << ":" << cri[k] << ":" << cro[k];
#endif
    const DDLogicalPart clyrLog(clyrName, ddmat(vecIlyMat()[4]), clyrSolid);
    cpv.position(clyrLog, spmLog, copyOne, DDTranslation(0, 0, 0), DDRotation());
#ifdef EDM_ML_DEBUG
    edm::LogVerbatim("EBGeomX") << clyrLog.name() << ":" << copyOne << " positioned in " << spmLog.name() << " at "
                                << DDTranslation(0, 0, 0) << " with no rotation";
#endif
    // Begin Alveolar Wedge parent ------------------------------------------------------
    //----------------

    // the next few lines accumulate dimensions appropriate to crystal type 1
    // which we use to set some of the features of the half-alveolar wedge (hawR).

    //      const double ANom1 ( vecNomCryDimAR()[0] ) ;
    const double BNom1(vecNomCryDimCR()[0]);
    const double bNom1(vecNomCryDimCF()[0]);
    //      const double HNom1 ( vecNomCryDimBR()[0] ) ;
    //      const double hNom1 ( vecNomCryDimBF()[0] ) ;
    const double sWall1(wallThAlv());
    const double fWall1(wallFrAlv());
    //      const double rWall1( wallReAlv() ) ;
    const double sWrap1(wrapThAlv());
    const double fWrap1(wrapFrAlv());
    //      const double rWrap1( wrapReAlv() ) ;
    const double sClr1(clrThAlv());
    const double fClr1(clrFrAlv());
    //      const double rClr1 ( clrReAlv() ) ;
    const double LNom1(nomCryDimLZ());
    const double beta1(atan((BNom1 - bNom1) / LNom1));
    //      const double cosbeta1   ( cos( beta1 ) ) ;
    const double sinbeta1(sin(beta1));

    const double tana_hawR((BNom1 - bNom1) / LNom1);

    const double H_hawR(hawRHBIG());
    const double h_hawR(hawRhsml());
    const double a_hawR(bNom1 + sClr1 + 2 * sWrap1 + 2 * sWall1 - sinbeta1 * (fClr1 + fWrap1 + fWall1));
    const double B_hawR(a_hawR + H_hawR * tana_hawR);
    const double b_hawR(a_hawR + h_hawR * tana_hawR);
    const double L_hawR(vecSpmZPts()[2]);

    const Trap trapHAWR(a_hawR / 2.,  //double aHalfLengthXNegZLoY , // bl1, A/2
                        a_hawR / 2.,  //double aHalfLengthXPosZLoY , // bl2, a/2
                        b_hawR / 2.,  //double aHalfLengthXPosZHiY , // tl2, b/2
                        H_hawR / 2.,  //double aHalfLengthYNegZ    , // h1, H/2
                        h_hawR / 2.,  //double aHalfLengthYPosZ    , // h2, h/2
                        L_hawR / 2.,  //double aHalfLengthZ        , // dz,  L/2
                        90 * deg,     //double aAngleAD            , // alfa1
                        0,            //double aCoord15X           , // x15
                        0             //double aCoord15Y             // y15
    );

    const DDName hawRName1(ddname(hawRName().name() + "1"));
    const DDSolid hawRSolid1(mytrap(hawRName1.name(), trapHAWR));
    const DDLogicalPart hawRLog1(hawRName1, spmMat(), hawRSolid1);

    const double al1_fawR(atan((B_hawR - a_hawR) / H_hawR) + M_PI_2);

    // here is trap for Full Alveolar Wedge
    const Trap trapFAW(a_hawR,       //double aHalfLengthXNegZLoY , // bl1, A/2
                       a_hawR,       //double aHalfLengthXPosZLoY , // bl2, a/2
                       b_hawR,       //double aHalfLengthXPosZHiY , // tl2, b/2
                       H_hawR / 2.,  //double aHalfLengthYNegZ    , // h1, H/2
                       h_hawR / 2.,  //double aHalfLengthYPosZ    , // h2, h/2
                       L_hawR / 2.,  //double aHalfLengthZ        , // dz,  L/2
                       al1_fawR,     //double aAngleAD            , // alfa1
                       0,            //double aCoord15X           , // x15
                       0             //double aCoord15Y             // y15
    );

    const DDName fawName1(ddname(fawName().name() + "1"));
    const DDSolid fawSolid1(mytrap(fawName1.name(), trapFAW));
    const DDLogicalPart fawLog1(fawName1, spmMat(), fawSolid1);

    const Trap::VertexList vHAW(trapHAWR.vertexList());
    const Trap::VertexList vFAW(trapFAW.vertexList());

    const double hawBoxClr(1 * mm);

    // HAW cut box to cut off back end of wedge
    const DDName hawCutName(ddname(hawRName().name() + "CUTBOX"));
    const DDSolid hawCutBox(DDSolidFactory::box(hawCutName, b_hawR / 2 + hawBoxClr, hawRCutY() / 2, hawRCutZ() / 2));
#ifdef EDM_ML_DEBUG
    edm::LogVerbatim("EBGeom") << hawCutName << " Box " << (b_hawR / 2 + hawBoxClr) << ":" << hawRCutY() / 2 << ":"
                               << hawRCutZ() / 2;
#endif
    const std::vector<double>& hawBoxParms(hawCutBox.parameters());
    const DDLogicalPart hawCutLog(hawCutName, spmMat(), hawCutBox);

    const Pt3D b1(hawBoxParms[0], hawBoxParms[1], hawBoxParms[2]);
    const Pt3D b2(-hawBoxParms[0], hawBoxParms[1], hawBoxParms[2]);
    const Pt3D b3(-hawBoxParms[0], hawBoxParms[1], -hawBoxParms[2]);

    const double zDel(sqrt(4 * hawBoxParms[2] * hawBoxParms[2] - (h_hawR - hawRCutDelY()) * (h_hawR - hawRCutDelY())));

    const Tf3D hawCutForm(b1,
                          b2,
                          b3,
                          vHAW[2] + Pt3D(hawBoxClr, -hawRCutDelY(), 0),
                          vHAW[1] + Pt3D(-hawBoxClr, -hawRCutDelY(), 0),
                          Pt3D(vHAW[0].x() - hawBoxClr, vHAW[0].y(), vHAW[0].z() - zDel));

    const DDSolid hawRSolid(DDSolidFactory::subtraction(
        hawRName(),
        hawRSolid1,
        hawCutBox,
        DDTranslation(
            hawCutForm.getTranslation().x(), hawCutForm.getTranslation().y(), hawCutForm.getTranslation().z()),
        myrot(hawCutName.name() + "R", hawCutForm.getRotation())));
#ifdef EDM_ML_DEBUG
    edm::LogVerbatim("EBGeom") << hawRName() << " Subtraction " << hawRSolid1.name() << ":" << hawCutBox.name()
                               << " at "
                               << DDTranslation(hawCutForm.getTranslation().x(),
                                                hawCutForm.getTranslation().y(),
                                                hawCutForm.getTranslation().z());
#endif
    const DDLogicalPart hawRLog(hawRName(), spmMat(), hawRSolid);

    // FAW cut box to cut off back end of wedge
    const DDName fawCutName(ddname(fawName().name() + "CUTBOX"));
    const DDSolid fawCutBox(DDSolidFactory::box(fawCutName, 2 * hawBoxParms[0], hawBoxParms[1], hawBoxParms[2]));
#ifdef EDM_ML_DEBUG
    edm::LogVerbatim("EBGeom") << fawCutName << " Box " << 2 * hawBoxParms[0] << ":" << hawBoxParms[1] << ":"
                               << hawBoxParms[2];
#endif

    const std::vector<double>& fawBoxParms(fawCutBox.parameters());
    const DDLogicalPart fawCutLog(fawCutName, spmMat(), fawCutBox);

    const Pt3D bb1(fawBoxParms[0], fawBoxParms[1], fawBoxParms[2]);
    const Pt3D bb2(-fawBoxParms[0], fawBoxParms[1], fawBoxParms[2]);
    const Pt3D bb3(-fawBoxParms[0], fawBoxParms[1], -fawBoxParms[2]);

    const Tf3D fawCutForm(bb1,
                          bb2,
                          bb3,
                          vFAW[2] + Pt3D(2 * hawBoxClr, -5 * mm, 0),
                          vFAW[1] + Pt3D(-2 * hawBoxClr, -5 * mm, 0),
                          Pt3D(vFAW[1].x() - 2 * hawBoxClr, vFAW[1].y() - trapFAW.h(), vFAW[1].z() - zDel));

    const DDSolid fawSolid(DDSolidFactory::subtraction(
        fawName(),
        fawSolid1,
        fawCutBox,
        DDTranslation(
            fawCutForm.getTranslation().x(), fawCutForm.getTranslation().y(), fawCutForm.getTranslation().z()),
        myrot(fawCutName.name() + "R", fawCutForm.getRotation())));
#ifdef EDM_ML_DEBUG
    edm::LogVerbatim("EBGeom") << fawName() << " Subtraction " << fawSolid1.name() << ":" << fawCutBox.name() << " at "
                               << DDTranslation(fawCutForm.getTranslation().x(),
                                                fawCutForm.getTranslation().y(),
                                                fawCutForm.getTranslation().z());
#endif
    const DDLogicalPart fawLog(fawName(), spmMat(), fawSolid);

    const Tf3D hawRform(vHAW[3],
                        vHAW[0],
                        vHAW[1],  // HAW inside FAW
                        vFAW[3],
                        0.5 * (vFAW[0] + vFAW[3]),
                        0.5 * (vFAW[1] + vFAW[2]));
    cpv.position(
        hawRLog,
        fawLog,
        copyOne,
        DDTranslation(hawRform.getTranslation().x(), hawRform.getTranslation().y(), hawRform.getTranslation().z()),
        myrot(hawRName().name() + "R", hawRform.getRotation()));
#ifdef EDM_ML_DEBUG
    edm::LogVerbatim("EBGeomX") << hawRLog.name() << ":" << copyOne << " positioned in " << fawLog.name() << " at "
                                << DDTranslation(hawRform.getTranslation().x(),
                                                 hawRform.getTranslation().y(),
                                                 hawRform.getTranslation().z())
                                << " with rotation";
#endif
    cpv.position(
        hawRLog,
        fawLog,
        copyTwo,
        DDTranslation(-hawRform.getTranslation().x(), -hawRform.getTranslation().y(), -hawRform.getTranslation().z()),
        myrot(hawRName().name() + "RotRefl",
              CLHEP::HepRotationY(180 * deg) *  // rotate about Y after refl thru Z
                  CLHEP::HepRep3x3(1, 0, 0, 0, 1, 0, 0, 0, -1)));
#ifdef EDM_ML_DEBUG
    edm::LogVerbatim("EBGeomX") << hawRLog.name() << ":" << copyTwo << " positioned in " << fawLog.name() << " at "
                                << DDTranslation(-hawRform.getTranslation().x(),
                                                 -hawRform.getTranslation().y(),
                                                 -hawRform.getTranslation().z())
                                << " with rotation";
#endif
    /* this for display of haw cut box instead of subtraction
      cpv.position( hawCutLog,
         hawRName, 
         copyOne, 
         hawCutForm.getTranslation(),
         myrot( hawCutName.name()+"R", 
            hawCutForm.getRotation() )   ) ;
*/

    for (unsigned int iPhi(1); iPhi <= nFawPerSupm(); ++iPhi) {
      const double rPhi(fawPhiOff() + (iPhi - 0.5) * fawDelPhi());

      const Tf3D fawform(RoZ3D(rPhi) * Tl3D(fawRadOff() + (trapFAW.H() + trapFAW.h()) / 4, 0, trapFAW.L() / 2) *
                         RoZ3D(-90 * deg + fawPhiRot()));
      if (fawHere())
        cpv.position(
            fawLog,
            spmLog,
            iPhi,
            DDTranslation(fawform.getTranslation().x(), fawform.getTranslation().y(), fawform.getTranslation().z()),
            myrot(fawName().name() + "_Rot" + std::to_string(iPhi), fawform.getRotation()));
#ifdef EDM_ML_DEBUG
      edm::LogVerbatim("EBGeomX") << fawLog.name() << ":" << iPhi << " positioned in " << spmLog.name() << " at "
                                  << DDTranslation(fawform.getTranslation().x(),
                                                   fawform.getTranslation().y(),
                                                   fawform.getTranslation().z())
                                  << " with rotation";
#endif
    }

    // End Alveolar Wedge parent ------------------------------------------------------

    // Begin Grid + Tablet insertion

    const double h_Grid(gridThick());

    const Trap trapGrid((B_hawR - h_Grid * (B_hawR - a_hawR) / H_hawR) / 2,  // bl1, A/2
                        (b_hawR - h_Grid * (B_hawR - a_hawR) / H_hawR) / 2,  // bl2, a/2
                        b_hawR / 2.,                                         // tl2, b/2
                        h_Grid / 2.,                                         // h1, H/2
                        h_Grid / 2.,                                         // h2, h/2
                        (L_hawR - 8 * cm) / 2.,                              // dz,  L/2
                        90 * deg,                                            // alfa1
                        0,                                                   // x15
                        H_hawR - h_hawR                                      // y15
    );

    const DDSolid gridSolid(mytrap(gridName().name(), trapGrid));
    const DDLogicalPart gridLog(gridName(), gridMat(), gridSolid);

    const Trap::VertexList vGrid(trapGrid.vertexList());

    const Tf3D gridForm(vGrid[4],
                        vGrid[5],
                        vGrid[6],  // Grid inside HAW
                        vHAW[5] - Pt3D(0, h_Grid, 0),
                        vHAW[5],
                        vHAW[6]);

    if (0 != gridHere())
      cpv.position(
          gridLog,
          hawRLog,
          copyOne,
          DDTranslation(gridForm.getTranslation().x(), gridForm.getTranslation().y(), gridForm.getTranslation().z()),
          myrot(gridName().name() + "R", gridForm.getRotation()));
#ifdef EDM_ML_DEBUG
    edm::LogVerbatim("EBGeomX") << gridLog.name() << ":" << copyOne << " positioned in " << hawRLog.name() << " at "
                                << DDTranslation(gridForm.getTranslation().x(),
                                                 gridForm.getTranslation().y(),
                                                 gridForm.getTranslation().z())
                                << " with rotation";
#endif
    // End Grid + Tablet insertion

    // begin filling Wedge with crystal plus supports --------------------------

    const double aNom(nomCryDimAF());
    const double LNom(nomCryDimLZ());

    const double AUnd(underAR());
    const double aUnd(underAF());
    //      const double BUnd ( underCR() ) ;
    const double bUnd(underCF());
    const double HUnd(underBR());
    const double hUnd(underBF());
    const double LUnd(underLZ());

    const double sWall(wallThAlv());
    const double sWrap(wrapThAlv());
    const double sClr(clrThAlv());

    const double fWall(wallFrAlv());
    const double fWrap(wrapFrAlv());
    const double fClr(clrFrAlv());

    const double rWall(wallReAlv());
    const double rWrap(wrapReAlv());
    const double rClr(clrReAlv());

    // theta is angle in yz plane between z axis & leading edge of crystal
    double theta(90 * deg);
    double zee(0 * mm);
    double side(0 * mm);
    double zeta(0 * deg);  // increment in theta for last crystal

    for (unsigned int cryType(1); cryType <= nCryTypes(); ++cryType) {
      const std::string sType("_" + std::string(10 > cryType ? "0" : "") + std::to_string(cryType));

#ifdef EDM_ML_DEBUG
      edm::LogVerbatim("EcalGeom") << "Crytype=" << cryType;
#endif
      const double ANom(vecNomCryDimAR()[cryType - 1]);
      const double BNom(vecNomCryDimCR()[cryType - 1]);
      const double bNom(vecNomCryDimCF()[cryType - 1]);
      const double HNom(vecNomCryDimBR()[cryType - 1]);
      const double hNom(vecNomCryDimBF()[cryType - 1]);

      const double alfCry(90 * deg + atan((bNom - bUnd - aNom + aUnd) / (hNom - hUnd)));

      const Trap trapCry((ANom - AUnd) / 2.,         //double aHalfLengthXNegZLoY , // bl1, A/2
                         (aNom - aUnd) / 2.,         //double aHalfLengthXPosZLoY , // bl2, a/2
                         (bNom - bUnd) / 2.,         //double aHalfLengthXPosZHiY , // tl2, b/2
                         (HNom - HUnd) / 2.,         //double aHalfLengthYNegZ    , // h1, H/2
                         (hNom - hUnd) / 2.,         //double aHalfLengthYPosZ    , // h2, h/2
                         (LNom - LUnd) / 2.,         //double aHalfLengthZ        , // dz,  L/2
                         alfCry,                     //double aAngleAD            , // alfa1
                         aNom - aUnd - ANom + AUnd,  //double aCoord15X           , // x15
                         hNom - hUnd - HNom + HUnd   //double aCoord15Y             // y15
      );

      const DDName cryDDName(cryName() + sType);
      const DDSolid crySolid(mytrap(cryDDName.name(), trapCry));
      const DDLogicalPart cryLog(cryDDName, cryMat(), crySolid);

      //++++++++++++++++++++++++++++++++++  APD ++++++++++++++++++++++++++++++++++
      const unsigned int copyCap(1);

      const DDName capDDName(capName().name() + sType);

      DDSolid capSolid(DDSolidFactory::box(capDDName, capXSize() / 2., capYSize() / 2., capThick() / 2.));
#ifdef EDM_ML_DEBUG
      edm::LogVerbatim("EBGeom") << capDDName << " Box " << capXSize() / 2. << ":" << capYSize() / 2 << ":"
                                 << capThick() / 2;
#endif

      const DDLogicalPart capLog(capDDName, capMat(), capSolid);

      const DDName sglDDName(sglName().name() + sType);

      DDSolid sglSolid(DDSolidFactory::box(sglDDName, capXSize() / 2., capYSize() / 2., sglThick() / 2.));
#ifdef EDM_ML_DEBUG
      edm::LogVerbatim("EBGeom") << sglDDName << " Box " << capXSize() / 2. << ":" << capYSize() / 2 << ":"
                                 << sglThick() / 2;
#endif

      const DDLogicalPart sglLog(sglDDName, sglMat(), sglSolid);

      const unsigned int copySGL(1);

      const DDName cerDDName(cerName().name() + sType);

      DDSolid cerSolid(DDSolidFactory::box(cerDDName, cerXSize() / 2., cerYSize() / 2., cerThick() / 2.));
#ifdef EDM_ML_DEBUG
      edm::LogVerbatim("EBGeom") << cerDDName << " Box " << cerXSize() / 2. << ":" << cerYSize() / 2 << ":"
                                 << cerThick() / 2;
#endif

      const DDLogicalPart cerLog(cerDDName, cerMat(), cerSolid);

      unsigned int copyCER(0);

      const DDName bsiDDName(bsiName().name() + sType);

      DDSolid bsiSolid(DDSolidFactory::box(bsiDDName, bsiXSize() / 2., bsiYSize() / 2., bsiThick() / 2.));
#ifdef EDM_ML_DEBUG
      edm::LogVerbatim("EBGeom") << bsiDDName << " Box " << bsiXSize() / 2. << ":" << bsiYSize() / 2 << ":"
                                 << bsiThick() / 2;
#endif

      const DDLogicalPart bsiLog(bsiDDName, bsiMat(), bsiSolid);

      const unsigned int copyBSi(1);

      const DDName atjDDName(atjName().name() + sType);

      DDSolid atjSolid(DDSolidFactory::box(atjDDName, apdSide() / 2., apdSide() / 2., atjThick() / 2.));
#ifdef EDM_ML_DEBUG
      edm::LogVerbatim("EBGeom") << atjDDName << " Box " << apdSide() / 2. << ":" << apdSide() / 2 << ":"
                                 << atjThick() / 2;
#endif

      const DDLogicalPart atjLog(atjDDName, atjMat(), atjSolid);

      const unsigned int copyATJ(1);

      const DDName aglDDName(aglName().name() + sType);

      DDSolid aglSolid(DDSolidFactory::box(aglDDName, bsiXSize() / 2., bsiYSize() / 2., aglThick() / 2.));
#ifdef EDM_ML_DEBUG
      edm::LogVerbatim("EBGeom") << aglDDName << " Box " << bsiXSize() / 2. << ":" << bsiYSize() / 2 << ":"
                                 << aglThick() / 2;
#endif

      const DDLogicalPart aglLog(aglDDName, aglMat(), aglSolid);

      const unsigned int copyAGL(1);

      const DDName andDDName(andName().name() + sType);

      DDSolid andSolid(DDSolidFactory::box(andDDName, apdSide() / 2., apdSide() / 2., andThick() / 2.));
#ifdef EDM_ML_DEBUG
      edm::LogVerbatim("EBGeom") << andDDName << " Box " << apdSide() / 2. << ":" << apdSide() / 2 << ":"
                                 << andThick() / 2;
#endif

      const DDLogicalPart andLog(andDDName, andMat(), andSolid);

      const unsigned int copyAND(1);

      const DDName apdDDName(apdName().name() + sType);

      DDSolid apdSolid(DDSolidFactory::box(apdDDName, apdSide() / 2., apdSide() / 2., apdThick() / 2.));
#ifdef EDM_ML_DEBUG
      edm::LogVerbatim("EBGeom") << apdDDName << " Box " << apdSide() / 2. << ":" << apdSide() / 2. << ":"
                                 << apdThick() / 2;
#endif

      const DDLogicalPart apdLog(apdDDName, apdMat(), apdSolid);

      const unsigned int copyAPD(1);
      //++++++++++++++++++++++++++++++++++ END APD ++++++++++++++++++++++++++++++++++

      const double delta(atan((HNom - hNom) / LNom));
      //unused   const double cosdelta  ( cos( delta ) ) ;
      const double sindelta(sin(delta));

      const double gamma(atan((ANom - aNom) / LNom));
      //unused   const double cosgamma  ( cos( gamma ) ) ;
      const double singamma(sin(gamma));

      const double beta(atan((BNom - bNom) / LNom));
      //unused   const double cosbeta   ( cos( beta ) ) ;
      const double sinbeta(sin(beta));

      // Now clearance trap
      const double alfClr(90 * deg + atan((bNom - aNom) / (hNom + sClr)));

      const Trap trapClr((ANom + sClr + rClr * singamma) / 2.,  //double aHalfLengthXNegZLoY , // bl1, A/2
                         (aNom + sClr - fClr * singamma) / 2.,  //double aHalfLengthXPosZLoY , // bl2, a/2
                         (bNom + sClr - fClr * sinbeta) / 2.,   //double aHalfLengthXPosZHiY , // tl2, b/2
                         (HNom + sClr + rClr * sindelta) / 2.,  //double aHalfLengthYNegZ    , // h1,  H/2
                         (hNom + sClr - fClr * sindelta) / 2.,  //double aHalfLengthYPosZ    , // h2,  h/2
                         (LNom + fClr + rClr) / 2.,             // dz,  L/2
                         alfClr,                                //double aAngleAD            , // alfa1
                         aNom - ANom,                           //double aCoord15X           , // x15
                         hNom - HNom                            //double aCoord15Y             // y15
      );

      const DDName clrDDName(clrName() + sType);
      const DDSolid clrSolid(mytrap(clrDDName.name(), trapClr));
      const DDLogicalPart clrLog(clrDDName, clrMat(), clrSolid);

      // Now wrap trap

      const double alfWrap(90 * deg + atan((bNom - aNom) / (hNom + sClr + 2 * sWrap)));

      const Trap trapWrap((trapClr.A() + 2 * sWrap + rWrap * singamma) / 2,  // bl1, A/2
                          (trapClr.a() + 2 * sWrap - fWrap * singamma) / 2,  // bl2, a/2
                          (trapClr.b() + 2 * sWrap - fWrap * sinbeta) / 2,   // tl2, b/2
                          (trapClr.H() + 2 * sWrap + rWrap * sindelta) / 2,  // h1,  H/2
                          (trapClr.h() + 2 * sWrap - fWrap * sindelta) / 2,  // h2,  h/2
                          (trapClr.L() + fWrap + rWrap) / 2.,                // dz,  L/2
                          alfWrap,                                           //double aAngleAD            , // alfa1
                          aNom - ANom - (cryType > 9 ? 0 : 0.020 * mm),
                          hNom - HNom  //double aCoord15Y             // y15
      );

      const DDName wrapDDName(wrapName() + sType);
      const DDSolid wrapSolid(mytrap(wrapDDName.name(), trapWrap));
      const DDLogicalPart wrapLog(wrapDDName, wrapMat(), wrapSolid);

      // Now wall trap

      const double alfWall(90 * deg + atan((bNom - aNom) / (hNom + sClr + 2 * sWrap + 2 * sWall)));

      const Trap trapWall((trapWrap.A() + 2 * sWall + rWall * singamma) / 2,  // A/2
                          (trapWrap.a() + 2 * sWall - fWall * singamma) / 2,  // a/2
                          (trapWrap.b() + 2 * sWall - fWall * sinbeta) / 2,   // b/2
                          (trapWrap.H() + 2 * sWall + rWall * sindelta) / 2,  // H/2
                          (trapWrap.h() + 2 * sWall - fWall * sindelta) / 2,  // h/2
                          (trapWrap.L() + fWall + rWall) / 2.,                // L/2
                          alfWall,                                            // alfa1
                          aNom - ANom - (cryType < 10 ? 0.150 * mm : 0.100 * mm),
                          hNom - HNom  // y15
      );

      const DDName wallDDName(wallName() + sType);
      const DDSolid wallSolid(mytrap(wallDDName.name(), trapWall));
      const DDLogicalPart wallLog(wallDDName, wallMat(), wallSolid);

      /*     
         edm::LogVerbatim("EcalGeom") << "Traps:\n a: " 
        << trapCry.a() << ", " 
        << trapClr.a() << ", " 
        << trapWrap.a() << ", " 
        << trapWall.a() << "\n b: " 
        << trapCry.b() << ", " 
        << trapClr.b() << ", " 
        << trapWrap.b() << ", " 
        << trapWall.b() << "\n A: " 
        << trapCry.A() << ", " 
        << trapClr.A() << ", " 
        << trapWrap.A() << ", " 
        << trapWall.A() << "\n B: " 
        << trapCry.B() << ", " 
        << trapClr.B() << ", " 
        << trapWrap.B() << ", " 
        << trapWall.B() << "\n h: " 
        << trapCry.h() << ", " 
        << trapClr.h() << ", " 
        << trapWrap.h() << ", " 
        << trapWall.h() << "\n H: " 
        << trapCry.H() << ", " 
        << trapClr.H() << ", " 
        << trapWrap.H() << ", " 
        << trapWall.H() << "\n a1: " 
        << trapCry.a1()/deg << ", " 
        << trapClr.a1()/deg << ", " 
        << trapWrap.a1()/deg << ", " 
        << trapWall.a1()/deg << "\n a4: " 
        << trapCry.a4()/deg << ", " 
        << trapClr.a4()/deg << ", " 
        << trapWrap.a4()/deg << ", " 
        << trapWall.a4()/deg << "\n x15: " 
        << trapCry.x15() << ", " 
        << trapClr.x15() << ", " 
        << trapWrap.x15() << ", " 
        << trapWall.x15() << "\n y15: " 
        << trapCry.y15() << ", " 
        << trapClr.y15() << ", " 
        << trapWrap.y15() << ", " 
        << trapWall.y15();
*/
      // Now for placement of cry within clr
      const Vec3 cryToClr(0, 0, (rClr - fClr) / 2);

      cpv.position(cryLog,
                   clrLog,
                   copyOne,
                   DDTranslation(0, 0, (rClr - fClr) / 2),  //SAME as cryToClr above.
                   DDRotation());
#ifdef EDM_ML_DEBUG
      edm::LogVerbatim("EBGeomX") << cryLog.name() << ":" << copyOne << " positioned in " << clrLog.name() << " at "
                                  << DDTranslation(0, 0, (rClr - fClr) / 2) << " with no rotation";
#endif
      if (0 != capHere()) {
        cpv.position(aglLog, bsiLog, copyAGL, DDTranslation(0, 0, -aglThick() / 2. + bsiThick() / 2.), DDRotation());
#ifdef EDM_ML_DEBUG
        edm::LogVerbatim("EBGeomX") << aglLog.name() << ":" << copyAGL << " positioned in " << bsiLog.name() << " at "
                                    << DDTranslation(0, 0, -aglThick() / 2. + bsiThick() / 2.) << " with no rotation";
#endif

        cpv.position(
            andLog, bsiLog, copyAND, DDTranslation(0, 0, -andThick() / 2. - aglThick() + bsiThick() / 2.), DDRotation());
#ifdef EDM_ML_DEBUG
        edm::LogVerbatim("EBGeomX") << andLog.name() << ":" << copyAND << " positioned in " << bsiLog.name() << " at "
                                    << DDTranslation(0, 0, -andThick() / 2. - aglThick() + bsiThick() / 2.)
                                    << " with no rotation";
#endif
        cpv.position(apdLog,
                     bsiLog,
                     copyAPD,
                     DDTranslation(0, 0, -apdThick() / 2. - andThick() - aglThick() + bsiThick() / 2.),
                     DDRotation());
#ifdef EDM_ML_DEBUG
        edm::LogVerbatim("EBGeomX") << apdLog.name() << ":" << copyAPD << " positioned in " << bsiLog.name() << " at "
                                    << DDTranslation(0, 0, -apdThick() / 2. - andThick() - aglThick() + bsiThick() / 2.)
                                    << " with no rotation";
#endif
        cpv.position(atjLog,
                     bsiLog,
                     copyATJ,
                     DDTranslation(0, 0, -atjThick() / 2. - apdThick() - andThick() - aglThick() + bsiThick() / 2.),
                     DDRotation());
#ifdef EDM_ML_DEBUG
        edm::LogVerbatim("EBGeomX")
            << atjLog.name() << ":" << copyATJ << " positioned in " << bsiLog.name() << " at "
            << DDTranslation(0, 0, -atjThick() / 2. - apdThick() - andThick() - aglThick() + bsiThick() / 2.)
            << " with no rotation";
#endif
        cpv.position(bsiLog, cerLog, copyBSi, DDTranslation(0, 0, -bsiThick() / 2. + cerThick() / 2.), DDRotation());
#ifdef EDM_ML_DEBUG
        edm::LogVerbatim("EBGeomX") << bsiLog.name() << ":" << copyBSi << " positioned in " << cerLog.name() << " at "
                                    << DDTranslation(0, 0, -bsiThick() / 2. + cerThick() / 2.) << " with no rotation";
#endif
        cpv.position(sglLog, capLog, copySGL, DDTranslation(0, 0, -sglThick() / 2. + capThick() / 2.), DDRotation());
#ifdef EDM_ML_DEBUG
        edm::LogVerbatim("EBGeomX") << sglLog.name() << ":" << copySGL << " positioned in " << capLog.name() << " at "
                                    << DDTranslation(0, 0, -sglThick() / 2. + capThick() / 2.) << " with no rotation";
#endif
        for (unsigned int ijkl(0); ijkl != 2; ++ijkl) {
          cpv.position(cerLog,
                       capLog,
                       ++copyCER,
                       DDTranslation(trapCry.bl1() - (0 == ijkl ? apdX1() : apdX2()),
                                     trapCry.h1() - apdZ(),
                                     -sglThick() - cerThick() / 2. + capThick() / 2.),
                       DDRotation());
#ifdef EDM_ML_DEBUG
          edm::LogVerbatim("EBGeomX") << cerLog.name() << ":" << copyCER << " positioned in " << capLog.name() << " at "
                                      << DDTranslation(trapCry.bl1() - (0 == ijkl ? apdX1() : apdX2()),
                                                       (trapCry.h1() - apdZ()),
                                                       (-sglThick() - cerThick() / 2. + capThick() / 2.))
                                      << " with no rotation";
#endif
        }
        cpv.position(capLog,
                     clrLog,
                     copyCap,
                     DDTranslation(0, 0, -trapCry.dz() - capThick() / 2. + (rClr - fClr) / 2.),
                     DDRotation());
#ifdef EDM_ML_DEBUG
        edm::LogVerbatim("EBGeomX") << capLog.name() << ":" << copyCap << " positioned in " << clrLog.name() << " at "
                                    << DDTranslation(0, 0, -trapCry.dz() - capThick() / 2. + (rClr - fClr) / 2.)
                                    << " with no rotation";
#endif
      }

      const Vec3 clrToWrap(0, 0, (rWrap - fWrap) / 2);

      cpv.position(clrLog,
                   wrapLog,
                   copyOne,
                   DDTranslation(0, 0, (rWrap - fWrap) / 2),  //SAME as cryToWrap
                   DDRotation());
#ifdef EDM_ML_DEBUG
      edm::LogVerbatim("EBGeomX") << clrLog.name() << ":" << copyOne << " positioned in " << wrapLog.name() << " at "
                                  << DDTranslation(0, 0, (rWrap - fWrap) / 2) << " with no rotation";
#endif

      // Now for placement of clr within wall
      const Vec3 wrapToWall1(0, 0, (rWall - fWall) / 2);
      const Vec3 wrapToWall(Vec3((cryType > 9 ? 0 : 0.005 * mm), 0, 0) + wrapToWall1);

      cpv.position(wrapLog,
                   wallLog,
                   copyOne,
                   DDTranslation(Vec3((cryType > 9 ? 0 : 0.005 * mm), 0, 0) + wrapToWall1),  //SAME as wrapToWall
                   DDRotation());
#ifdef EDM_ML_DEBUG
      edm::LogVerbatim("EBGeomX") << wrapLog.name() << ":" << copyOne << " positioned in " << wallLog.name() << " at "
                                  << DDTranslation(Vec3((cryType > 9 ? 0 : 0.005 * mm), 0, 0) + wrapToWall1)
                                  << " with no rotation";
#endif
      const Trap::VertexList vWall(trapWall.vertexList());
      const Trap::VertexList vCry(trapCry.vertexList());

      const double sidePrime((trapWall.a() - trapCry.a()) / 2);
      const double frontPrime(fWall + fWrap + fClr + LUnd / 2);

      // define web plates with clearance ===========================================

      if (1 == cryType)  // first web plate: inside clearance volume
      {
        web(0,
            trapWall.b(),
            trapWall.B(),
            trapWall.L(),
            theta,
            vHAW[4] + Pt3D(0, hawYOffCry(), 0),
            hawRLog,
            zee,
            sidePrime,
            frontPrime,
            delta,
            cpv);
        zee += vecGapAlvEta()[0];
      }

      for (unsigned int etaAlv(1); etaAlv <= nCryPerAlvEta(); ++etaAlv) {
#ifdef EDM_ML_DEBUG
        edm::LogVerbatim("EcalGeom") << "theta=" << theta / deg << ", sidePrime=" << sidePrime
                                     << ", frontPrime=" << frontPrime << ",  zeta=" << zeta << ", delta=" << delta
                                     << ",  zee=" << zee;
#endif
        zee += 0.075 * mm + (side * cos(zeta) + trapWall.h() - sidePrime) / sin(theta);

#ifdef EDM_ML_DEBUG
        edm::LogVerbatim("EcalGeom") << "New zee=" << zee;
#endif
        // make transform for placing enclosed crystal

        const Pt3D trap2(vCry[2] + cryToClr + clrToWrap + wrapToWall);

        const Pt3D trap3(trap2 + Pt3D(0, -trapCry.h(), 0));
        const Pt3D trap1(trap3 + Pt3D(-trapCry.a(), 0, 0));

        const Pt3D wedge3(vHAW[4] + Pt3D(sidePrime, hawYOffCry(), zee));
        const Pt3D wedge2(wedge3 + Pt3D(0, trapCry.h() * cos(theta), -trapCry.h() * sin(theta)));
        const Pt3D wedge1(wedge3 + Pt3D(trapCry.a(), 0, 0));

        const Tf3D tForm1(trap1, trap2, trap3, wedge1, wedge2, wedge3);

        const double xx(0.050 * mm);

        const Tf3D tForm(HepGeom::Translate3D(xx, 0, 0) * tForm1);

        cpv.position(wallLog,
                     hawRLog,
                     etaAlv,
                     DDTranslation(tForm.getTranslation().x(), tForm.getTranslation().y(), tForm.getTranslation().z()),
                     myrot(wallLog.name().name() + "_" + std::to_string(etaAlv), tForm.getRotation()));
#ifdef EDM_ML_DEBUG
        edm::LogVerbatim("EBGeomX") << wallLog.name() << ":" << etaAlv << " positioned in " << hawRLog.name() << " at "
                                    << DDTranslation(tForm.getTranslation().x(),
                                                     tForm.getTranslation().y(),
                                                     tForm.getTranslation().z())
                                    << " with rotation";
#endif
        theta -= delta;
        side = sidePrime;
        zeta = delta;
      }
      if (5 == cryType || 9 == cryType || 13 == cryType || 17 == cryType)  // web plates
      {
        const unsigned int webIndex(cryType / 4);
        zee += 0.5 * vecGapAlvEta()[cryType] / sin(theta);
        web(webIndex,
            trapWall.a(),
            trapWall.A(),
            trapWall.L(),
            theta,
            vHAW[4] + Pt3D(0, hawYOffCry(), 0),
            hawRLog,
            zee,
            sidePrime,
            frontPrime,
            delta,
            cpv);
        zee += 0.5 * vecGapAlvEta()[cryType] / sin(theta);
      } else {
        if (17 != cryType)
          zee += vecGapAlvEta()[cryType] / sin(theta);
      }
    }
    // END   filling Wedge with crystal plus supports --------------------------

    //------------------------------------------------------------------------
    //------------------------------------------------------------------------
    //------------------------------------------------------------------------
    //------------------------------------------------------------------------
    //**************** Material at outer radius of supermodule ***************
    //------------------------------------------------------------------------
    //------------------------------------------------------------------------
    //------------------------------------------------------------------------
    //------------------------------------------------------------------------

    if (0 != backHere()) {

      const DDTranslation outtra(backXOff() + backSideHeight() / 2, backYOff(), backSideLength() / 2);

      const double realBPthick(backPlateThick() + backPlate2Thick());

      DDSolid backPlateSolid(
          DDSolidFactory::box(backPlateName(), backPlateWidth() / 2., realBPthick / 2., backPlateLength() / 2.));
#ifdef EDM_ML_DEBUG
      edm::LogVerbatim("EBGeom") << backPlateName() << " Box " << backPlateWidth() / 2. << ":" << realBPthick / 2.
                                 << ":" << backPlateLength() / 2;
#endif
      const std::vector<double>& backPlateParms(backPlateSolid.parameters());
      const DDLogicalPart backPlateLog(backPlateName(), backPlateMat(), backPlateSolid);

      const DDTranslation backPlateTra(
          backSideHeight() / 2 + backPlateParms[1], 0 * mm, backPlateParms[2] - backSideLength() / 2);

      DDSolid backPlate2Solid(
          DDSolidFactory::box(backPlate2Name(), backPlateWidth() / 2., backPlate2Thick() / 2., backPlateLength() / 2.));
#ifdef EDM_ML_DEBUG
      edm::LogVerbatim("EBGeom") << backPlate2Name() << " Box " << backPlateWidth() / 2. << ":"
                                 << backPlate2Thick() / 2. << ":" << backPlateLength() / 2;
#endif

      const DDLogicalPart backPlate2Log(backPlate2Name(), backPlate2Mat(), backPlate2Solid);

      const DDTranslation backPlate2Tra(0, -backPlateParms[1] + backPlate2Thick() / 2., 0);
      if (0 != backPlateHere()) {
        cpv.position(backPlate2Log, backPlateName(), copyOne, backPlate2Tra, DDRotation());
#ifdef EDM_ML_DEBUG
        edm::LogVerbatim("EBGeomX") << backPlate2Log.name() << ":" << copyOne << " positioned in " << backPlateName()
                                    << " at " << backPlate2Tra << " with no rotation";
#endif
        cpv.position(backPlateLog,
                     spmName(),
                     copyOne,
                     outtra + backPlateTra,
                     myrot(backPlateName().name() + "Rot5", CLHEP::HepRotationZ(270 * deg)));
#ifdef EDM_ML_DEBUG
        edm::LogVerbatim("EBGeomX") << backPlateLog.name() << ":" << copyOne << " positioned in " << spmName() << " at "
                                    << (outtra + backPlateTra) << " with rotation";
#endif
      }


      const Trap trapBS(backSideWidth() / 2.,   //double aHalfLengthXNegZLoY , // bl1, A/2
                        backSideWidth() / 2.,   //double aHalfLengthXPosZLoY , // bl2, a/2
                        backSideWidth() / 4.,   //double aHalfLengthXPosZHiY , // tl2, b/2
                        backSideHeight() / 2.,  //double aHalfLengthYNegZ    , // h1, H/2
                        backSideHeight() / 2.,  //double aHalfLengthYPosZ    , // h2, h/2
                        backSideLength() / 2.,  //double aHalfLengthZ        , // dz,  L/2
                        backSideAngle(),        //double aAngleAD            , // alfa1
                        0,                      //double aCoord15X           , // x15
                        0                       //double aCoord15Y             // y15
      );

      const DDSolid backSideSolid(mytrap(backSideName().name(), trapBS));
      const DDLogicalPart backSideLog(backSideName(), backSideMat(), backSideSolid);

      const DDTranslation backSideTra1(0 * mm, backPlateWidth() / 2 + backSideYOff1(), 1 * mm);
      if (0 != backSideHere()) {
        cpv.position(
            backSideLog,
            spmName(),
            copyOne,
            outtra + backSideTra1,
            myrot(backSideName().name() + "Rot8", CLHEP::HepRotationX(180 * deg) * CLHEP::HepRotationZ(90 * deg)));
#ifdef EDM_ML_DEBUG
        edm::LogVerbatim("EBGeomX") << backSideLog.name() << ":" << copyOne << " positioned in " << spmName() << " at "
                                    << (outtra + backSideTra1) << " with rotation";
#endif
        const DDTranslation backSideTra2(0 * mm, -backPlateWidth() / 2 + backSideYOff2(), 1 * mm);
        cpv.position(backSideLog,
                     spmName(),
                     copyTwo,
                     outtra + backSideTra2,
                     myrot(backSideName().name() + "Rot9", CLHEP::HepRotationZ(90 * deg)));
#ifdef EDM_ML_DEBUG
        edm::LogVerbatim("EBGeomX") << backSideLog.name() << ":" << copyTwo << " positioned in " << spmName() << " at "
                                    << (outtra + backSideTra2) << " with rotation";
#endif
      }

      //=====================
      const double backCoolWidth(backCoolBarWidth() + 2. * backCoolTankWidth());


      const double manifCut(2 * mm);

      DDSolid mBManifSolid(DDSolidFactory::tubs(
          mBManifName(), backCoolWidth / 2. - manifCut, 0, mBManifOutDiam() / 2, 0 * deg, 360 * deg));
#ifdef EDM_ML_DEBUG
      edm::LogVerbatim("EBGeom") << mBManifName() << " Tubs " << backCoolWidth / 2. - manifCut
                                 << ":0:" << mBManifOutDiam() / 2 << ":0:360";
#endif
      const DDLogicalPart mBManifLog(mBManifName(), mBManifMat(), mBManifSolid);

      const DDName mBManifWaName(ddname(mBManifName().name() + "Wa"));
      DDSolid mBManifWaSolid(DDSolidFactory::tubs(
          mBManifWaName, backCoolWidth / 2. - manifCut, 0, mBManifInnDiam() / 2, 0 * deg, 360 * deg));
#ifdef EDM_ML_DEBUG
      edm::LogVerbatim("EBGeom") << mBManifWaName << " Tubs " << backCoolWidth / 2. - manifCut
                                 << ":0:" << mBManifInnDiam() / 2 << ":0:360";
#endif
      const DDLogicalPart mBManifWaLog(mBManifWaName, backPipeWaterMat(), mBManifWaSolid);
      cpv.position(mBManifWaLog, mBManifName(), copyOne, DDTranslation(0, 0, 0), DDRotation());
#ifdef EDM_ML_DEBUG
      edm::LogVerbatim("EBGeomX") << mBManifWaLog.name() << ":" << copyOne << " positioned in " << mBManifName()
                                  << " at " << DDTranslation(0, 0, 0) << " with no rotation";
#endif
      //=====================

      const double deltaY(-5 * mm);

      DDSolid grEdgeSlotSolid(
          DDSolidFactory::box(grEdgeSlotName(), grEdgeSlotHeight() / 2., grEdgeSlotWidth() / 2., grilleThick() / 2.));
#ifdef EDM_ML_DEBUG
      edm::LogVerbatim("EBGeom") << grEdgeSlotName() << " Box " << grEdgeSlotHeight() / 2. << ":"
                                 << grEdgeSlotWidth() / 2 << ":" << grilleThick() / 2;
#endif
      const DDLogicalPart grEdgeSlotLog(grEdgeSlotName(), grEdgeSlotMat(), grEdgeSlotSolid);

      unsigned int edgeSlotCopy(0);
      unsigned int midSlotCopy(0);

      DDLogicalPart grMidSlotLog[4];

      for (unsigned int iGr(0); iGr != vecGrilleHeight().size(); ++iGr) {
        DDName gName(ddname(grilleName() + std::to_string(iGr)));
        DDSolid grilleSolid(
            DDSolidFactory::box(gName, vecGrilleHeight()[iGr] / 2., backCoolWidth / 2., grilleThick() / 2.));
#ifdef EDM_ML_DEBUG
        edm::LogVerbatim("EBGeom") << gName << " Box " << vecGrilleHeight()[iGr] / 2. << ":" << backCoolWidth / 2 << ":"
                                   << grilleThick() / 2;
#endif
        const DDLogicalPart grilleLog(gName, grilleMat(), grilleSolid);

        const DDTranslation grilleTra(-realBPthick / 2 - vecGrilleHeight()[iGr] / 2,
                                      deltaY,
                                      vecGrilleZOff()[iGr] + grilleThick() / 2 - backSideLength() / 2);
        const DDTranslation gTra(outtra + backPlateTra + grilleTra);

        if (0 != grMidSlotHere() && 0 != iGr) {
          if (0 == (iGr - 1) % 2) {
            DDName mName(ddname(grMidSlotName() + std::to_string(iGr / 2)));
            DDSolid grMidSlotSolid(DDSolidFactory::box(
                mName, vecGrMidSlotHeight()[(iGr - 1) / 2] / 2., grMidSlotWidth() / 2., grilleThick() / 2.));
#ifdef EDM_ML_DEBUG
            edm::LogVerbatim("EBGeom") << mName << " Box " << vecGrMidSlotHeight()[(iGr - 1) / 2] / 2. << ":"
                                       << grMidSlotWidth() / 2 << ":" << grilleThick() / 2;
#endif
            grMidSlotLog[(iGr - 1) / 2] = DDLogicalPart(mName, grMidSlotMat(), grMidSlotSolid);
          }
          cpv.position(grMidSlotLog[(iGr - 1) / 2],
                       gName,
                       ++midSlotCopy,
                       DDTranslation(
                           vecGrilleHeight()[iGr] / 2. - vecGrMidSlotHeight()[(iGr - 1) / 2] / 2., +grMidSlotXOff(), 0),
                       DDRotation());
#ifdef EDM_ML_DEBUG
          edm::LogVerbatim("EBGeomX") << grMidSlotLog[(iGr - 1) / 2].name() << ":" << midSlotCopy << " positioned in "
                                      << gName << " at "
                                      << DDTranslation(
                                             vecGrilleHeight()[iGr] / 2. - vecGrMidSlotHeight()[(iGr - 1) / 2] / 2.,
                                             +grMidSlotXOff(),
                                             0)
                                      << " with no rotation";
#endif

          cpv.position(grMidSlotLog[(iGr - 1) / 2],
                       gName,
                       ++midSlotCopy,
                       DDTranslation(
                           vecGrilleHeight()[iGr] / 2. - vecGrMidSlotHeight()[(iGr - 1) / 2] / 2., -grMidSlotXOff(), 0),
                       DDRotation());
#ifdef EDM_ML_DEBUG
          edm::LogVerbatim("EBGeomX") << grMidSlotLog[(iGr - 1) / 2].name() << ":" << midSlotCopy << " positioned in "
                                      << gName << " at "
                                      << DDTranslation(
                                             vecGrilleHeight()[iGr] / 2. - vecGrMidSlotHeight()[(iGr - 1) / 2] / 2.,
                                             -grMidSlotXOff(),
                                             0)
                                      << " with no rotation";
#endif
        }

        if (0 != grEdgeSlotHere() && 0 != iGr) {
          cpv.position(
              grEdgeSlotLog,
              gName,
              ++edgeSlotCopy,
              DDTranslation(
                  vecGrilleHeight()[iGr] / 2. - grEdgeSlotHeight() / 2., backCoolWidth / 2 - grEdgeSlotWidth() / 2., 0),
              DDRotation());
#ifdef EDM_ML_DEBUG
          edm::LogVerbatim("EBGeomX") << grEdgeSlotLog.name() << ":" << edgeSlotCopy << " positioned in " << gName
                                      << " at "
                                      << DDTranslation(vecGrilleHeight()[iGr] / 2. - grEdgeSlotHeight() / 2.,
                                                       backCoolWidth / 2 - grEdgeSlotWidth() / 2.,
                                                       0)
                                      << " with no rotation";
#endif
          cpv.position(grEdgeSlotLog,
                       gName,
                       ++edgeSlotCopy,
                       DDTranslation(vecGrilleHeight()[iGr] / 2. - grEdgeSlotHeight() / 2.,
                                     -backCoolWidth / 2 + grEdgeSlotWidth() / 2.,
                                     0),
                       DDRotation());
#ifdef EDM_ML_DEBUG
          edm::LogVerbatim("EBGeomX") << grEdgeSlotLog.name() << ":" << edgeSlotCopy << " positioned in " << gName
                                      << " at "
                                      << DDTranslation(vecGrilleHeight()[iGr] / 2. - grEdgeSlotHeight() / 2.,
                                                       -backCoolWidth / 2 + grEdgeSlotWidth() / 2.,
                                                       0)
                                      << " with no rotation";
#endif
        }
        if (0 != grilleHere()) {
          cpv.position(grilleLog, spmName(), iGr, gTra, DDRotation());
#ifdef EDM_ML_DEBUG
          edm::LogVerbatim("EBGeomX") << grilleLog.name() << ":" << iGr << " positioned in " << spmName() << " at "
                                      << gTra << " with no rotation";
#endif
        }
        if ((0 != iGr % 2) && (0 != mBManifHere())) {
          cpv.position(mBManifLog,
                       spmName(),
                       iGr,
                       gTra - DDTranslation(-mBManifOutDiam() / 2. + vecGrilleHeight()[iGr] / 2.,
                                            manifCut,
                                            grilleThick() / 2. + 3 * mBManifOutDiam() / 2.),
                       myrot(mBManifName().name() + "R1", CLHEP::HepRotationX(90 * deg)));
#ifdef EDM_ML_DEBUG
          edm::LogVerbatim("EBGeomX") << mBManifLog.name() << ":" << iGr << " positioned in " << spmName() << " at "
                                      << (gTra - DDTranslation(-mBManifOutDiam() / 2. + vecGrilleHeight()[iGr] / 2.,
                                                               manifCut,
                                                               grilleThick() / 2. + 3 * mBManifOutDiam() / 2.))
                                      << " with rotation";
#endif
          cpv.position(mBManifLog,
                       spmName(),
                       iGr - 1,
                       gTra - DDTranslation(-3 * mBManifOutDiam() / 2. + vecGrilleHeight()[iGr] / 2.,
                                            manifCut,
                                            grilleThick() / 2 + 3 * mBManifOutDiam() / 2.),
                       myrot(mBManifName().name() + "R2", CLHEP::HepRotationX(90 * deg)));
#ifdef EDM_ML_DEBUG
          edm::LogVerbatim("EBGeomX") << mBManifLog.name() << ":" << (iGr - 1) << " positioned in " << spmName()
                                      << " at "
                                      << (gTra - DDTranslation(-3 * mBManifOutDiam() / 2. + vecGrilleHeight()[iGr] / 2.,
                                                               manifCut,
                                                               grilleThick() / 2 + 3 * mBManifOutDiam() / 2.))
                                      << " with rotation";
#endif
        }
      }



      DDSolid backCoolBarSolid(DDSolidFactory::box(
          backCoolBarName(), backCoolBarHeight() / 2., backCoolBarWidth() / 2., backCoolBarThick() / 2.));
#ifdef EDM_ML_DEBUG
      edm::LogVerbatim("EBGeom") << backCoolBarName() << " Box " << backCoolBarHeight() / 2. << ":"
                                 << backCoolBarWidth() / 2 << ":" << backCoolBarThick() / 2;
#endif
      const DDLogicalPart backCoolBarLog(backCoolBarName(), backCoolBarMat(), backCoolBarSolid);

      DDSolid backCoolBarSSSolid(DDSolidFactory::box(
          backCoolBarSSName(), backCoolBarHeight() / 2., backCoolBarWidth() / 2., backCoolBarSSThick() / 2.));
#ifdef EDM_ML_DEBUG
      edm::LogVerbatim("EBGeom") << backCoolBarSSName() << " Box " << backCoolBarHeight() / 2. << ":"
                                 << backCoolBarWidth() / 2. << ":" << backCoolBarSSThick() / 2.;
#endif
      const DDLogicalPart backCoolBarSSLog(backCoolBarSSName(), backCoolBarSSMat(), backCoolBarSSSolid);
      const DDTranslation backCoolBarSSTra(0, 0, 0);
      cpv.position(backCoolBarSSLog, backCoolBarName(), copyOne, backCoolBarSSTra, DDRotation());
#ifdef EDM_ML_DEBUG
      edm::LogVerbatim("EBGeomX") << backCoolBarSSLog.name() << ":" << copyOne << " positioned in " << backCoolBarName()
                                  << " at " << backCoolBarSSTra << " with no rotation";
#endif

      DDSolid backCoolBarWaSolid(DDSolidFactory::box(
          backCoolBarWaName(), backCoolBarHeight() / 2., backCoolBarWidth() / 2., backCoolBarWaThick() / 2.));
#ifdef EDM_ML_DEBUG
      edm::LogVerbatim("EBGeom") << backCoolBarWaName() << " Box " << backCoolBarHeight() / 2. << ":"
                                 << backCoolBarWidth() / 2. << ":" << backCoolBarWaThick() / 2;
#endif
      const DDLogicalPart backCoolBarWaLog(backCoolBarWaName(), backCoolBarWaMat(), backCoolBarWaSolid);
      const DDTranslation backCoolBarWaTra(0, 0, 0);
      cpv.position(backCoolBarWaLog, backCoolBarSSName(), copyOne, backCoolBarWaTra, DDRotation());
#ifdef EDM_ML_DEBUG
      edm::LogVerbatim("EBGeomX") << backCoolBarWaLog.name() << ":" << copyOne << " positioned in "
                                  << backCoolBarSSName() << " at " << backCoolBarWaTra << " with no rotation";
#endif



      double thickVFE(0);
      for (unsigned int iLyr(0); iLyr != vecBackVFELyrThick().size(); ++iLyr) {
        thickVFE += vecBackVFELyrThick()[iLyr];
      }
      DDSolid backVFESolid(
          DDSolidFactory::box(backVFEName(), backCoolBarHeight() / 2., backCoolBarWidth() / 2., thickVFE / 2.));
#ifdef EDM_ML_DEBUG
      edm::LogVerbatim("EBGeom") << backVFEName() << " Box " << backCoolBarHeight() / 2. << ":"
                                 << backCoolBarWidth() / 2 << ":" << thickVFE / 2;
#endif
      const DDLogicalPart backVFELog(backVFEName(), backVFEMat(), backVFESolid);
      DDTranslation offTra(0, 0, -thickVFE / 2);
      for (unsigned int iLyr(0); iLyr != vecBackVFELyrThick().size(); ++iLyr) {
        DDSolid backVFELyrSolid(DDSolidFactory::box(ddname(vecBackVFELyrName()[iLyr]),
                                                    backCoolBarHeight() / 2.,
                                                    backCoolBarWidth() / 2.,
                                                    vecBackVFELyrThick()[iLyr] / 2.));
#ifdef EDM_ML_DEBUG
        edm::LogVerbatim("EBGeom") << ddname(vecBackVFELyrName()[iLyr]) << " Box " << backCoolBarHeight() / 2. << ":"
                                   << backCoolBarWidth() / 2. << ":" << vecBackVFELyrThick()[iLyr] / 2;
#endif
        const DDLogicalPart backVFELyrLog(
            ddname(vecBackVFELyrName()[iLyr]), ddmat(vecBackVFELyrMat()[iLyr]), backVFELyrSolid);
        const DDTranslation backVFELyrTra(0, 0, vecBackVFELyrThick()[iLyr] / 2);
        cpv.position(backVFELyrLog, backVFEName(), copyOne, backVFELyrTra + offTra, DDRotation());
#ifdef EDM_ML_DEBUG
        edm::LogVerbatim("EBGeomX") << backVFELyrLog.name() << ":" << copyOne << " positioned in " << backVFEName()
                                    << " at " << (backVFELyrTra + offTra) << " with no rotation";
#endif
        offTra += 2 * backVFELyrTra;
      }



      const double halfZCoolVFE(thickVFE + backCoolBarThick() / 2.);
      DDSolid backCoolVFESolid(
          DDSolidFactory::box(backCoolVFEName(), backCoolBarHeight() / 2., backCoolBarWidth() / 2., halfZCoolVFE));
#ifdef EDM_ML_DEBUG
      edm::LogVerbatim("EBGeom") << backCoolVFEName() << " Box " << backCoolBarHeight() / 2. << ":"
                                 << backCoolBarWidth() / 2. << ":" << halfZCoolVFE;
#endif
      const DDLogicalPart backCoolVFELog(backCoolVFEName(), backCoolVFEMat(), backCoolVFESolid);
      if (0 != backCoolBarHere()) {
        cpv.position(backCoolBarLog, backCoolVFEName(), copyOne, DDTranslation(), DDRotation());
#ifdef EDM_ML_DEBUG
        edm::LogVerbatim("EBGeomX") << backCoolBarLog.name() << ":" << copyOne << " positioned in " << backCoolVFEName()
                                    << " at " << DDTranslation() << " with no rotation";
#endif
      }
      if (0 != backCoolVFEHere()) {
        cpv.position(backVFELog,
                     backCoolVFEName(),
                     copyOne,
                     DDTranslation(0, 0, backCoolBarThick() / 2. + thickVFE / 2.),
                     DDRotation());
#ifdef EDM_ML_DEBUG
        edm::LogVerbatim("EBGeomX") << backVFELog.name() << ":" << copyOne << " positioned in " << backCoolVFEName()
                                    << " at " << DDTranslation(0, 0, backCoolBarThick() / 2. + thickVFE / 2.)
                                    << " with no rotation";
#endif
      }
      cpv.position(backVFELog,
                   backCoolVFEName(),
                   copyTwo,
                   DDTranslation(0, 0, -backCoolBarThick() / 2. - thickVFE / 2.),
                   myrot(backVFEName().name() + "Flip", CLHEP::HepRotationX(180 * deg)));
#ifdef EDM_ML_DEBUG
      edm::LogVerbatim("EBGeomX") << backVFELog.name() << ":" << copyTwo << " positioned in " << backCoolVFEName()
                                  << " at " << DDTranslation(0, 0, -backCoolBarThick() / 2. - thickVFE / 2.)
                                  << " with rotation";
#endif

      unsigned int iCVFECopy(1);
      unsigned int iSep(0);
      unsigned int iNSec(0);
      const unsigned int nMisc(vecBackMiscThick().size() / 4);
      for (unsigned int iMod(0); iMod != 4; ++iMod) {
        const double pipeLength(vecGrilleZOff()[2 * iMod + 1] - vecGrilleZOff()[2 * iMod] - grilleThick() - 3 * mm);

        const double pipeZPos(vecGrilleZOff()[2 * iMod + 1] - pipeLength / 2 - 1.5 * mm);

        // accumulate total height of parent volume

        double backCoolHeight(backCoolBarHeight() + mBCoolTubeOutDiam());
        for (unsigned int iMisc(0); iMisc != nMisc; ++iMisc) {
          backCoolHeight += vecBackMiscThick()[iMod * nMisc + iMisc];
        }
        double bottomThick(mBCoolTubeOutDiam());
        for (unsigned int iMB(0); iMB != vecMBLyrThick().size(); ++iMB) {
          backCoolHeight += vecMBLyrThick()[iMB];
          bottomThick += vecMBLyrThick()[iMB];
        }

        DDName backCName(ddname(vecBackCoolName()[iMod]));
        const double halfZBCool((pipeLength - 2 * mBManifOutDiam() - grilleZSpace()) / 2);
        DDSolid backCoolSolid(DDSolidFactory::box(backCName, backCoolHeight / 2., backCoolWidth / 2., halfZBCool));
#ifdef EDM_ML_DEBUG
        edm::LogVerbatim("EBGeom") << backCName << " Box " << backCoolHeight / 2. << ":" << backCoolWidth / 2. << ":"
                                   << halfZBCool;
#endif
        const DDLogicalPart backCoolLog(backCName, spmMat(), backCoolSolid);

        const DDTranslation bCoolTra(
            -realBPthick / 2 + backCoolHeight / 2 - vecGrilleHeight()[2 * iMod],
            deltaY,
            vecGrilleZOff()[2 * iMod] + grilleThick() + grilleZSpace() + halfZBCool - backSideLength() / 2);
        if (0 != backCoolHere()) {
          cpv.position(backCoolLog, spmName(), iMod + 1, outtra + backPlateTra + bCoolTra, DDRotation());
#ifdef EDM_ML_DEBUG
          edm::LogVerbatim("EBGeomX") << backCoolLog.name() << ":" << (iMod + 1) << " positioned in " << spmName()
                                      << " at " << (outtra + backPlateTra + bCoolTra) << " with no rotation";
#endif
        }
        //===
        const double backCoolTankHeight(backCoolBarHeight());  // - backBracketHeight() ) ;

        const double halfZTank(halfZBCool - 5 * cm);

        DDName bTankName(ddname(backCoolTankName() + std::to_string(iMod + 1)));
        DDSolid backCoolTankSolid(
            DDSolidFactory::box(bTankName, backCoolTankHeight / 2., backCoolTankWidth() / 2., halfZTank));
#ifdef EDM_ML_DEBUG
        edm::LogVerbatim("EBGeom") << bTankName << " Box " << backCoolTankHeight / 2. << ":" << backCoolTankWidth() / 2.
                                   << ":" << halfZTank;
#endif
        const DDLogicalPart backCoolTankLog(bTankName, backCoolTankMat(), backCoolTankSolid);
        if (0 != backCoolTankHere()) {
          cpv.position(backCoolTankLog,
                       backCName,
                       copyOne,
                       DDTranslation(-backCoolHeight / 2 + backCoolTankHeight / 2. + bottomThick,
                                     backCoolBarWidth() / 2. + backCoolTankWidth() / 2.,
                                     0),
                       DDRotation());
#ifdef EDM_ML_DEBUG
          edm::LogVerbatim("EBGeomX") << backCoolTankLog.name() << ":" << copyOne << " positioned in " << backCName
                                      << " at "
                                      << DDTranslation(-backCoolHeight / 2 + backCoolTankHeight / 2. + bottomThick,
                                                       backCoolBarWidth() / 2. + backCoolTankWidth() / 2.,
                                                       0)
                                      << " with no rotation";
#endif
        }

        DDName bTankWaName(ddname(backCoolTankWaName() + std::to_string(iMod + 1)));
        DDSolid backCoolTankWaSolid(DDSolidFactory::box(bTankWaName,
                                                        backCoolTankHeight / 2. - backCoolTankThick() / 2.,
                                                        backCoolTankWaWidth() / 2.,
                                                        halfZTank - backCoolTankThick() / 2.));
#ifdef EDM_ML_DEBUG
        edm::LogVerbatim("EBGeom") << bTankWaName << " Box " << (backCoolTankHeight / 2. - backCoolTankThick() / 2.)
                                   << ":" << backCoolTankWaWidth() / 2. << ":"
                                   << (halfZTank - backCoolTankThick() / 2.);
#endif
        const DDLogicalPart backCoolTankWaLog(bTankWaName, backCoolTankWaMat(), backCoolTankWaSolid);
        cpv.position(backCoolTankWaLog, bTankName, copyOne, DDTranslation(0, 0, 0), DDRotation());
#ifdef EDM_ML_DEBUG
        edm::LogVerbatim("EBGeomX") << backCoolTankWaLog.name() << ":" << copyOne << " positioned in " << bTankName
                                    << " at " << DDTranslation(0, 0, 0) << " with no rotation";
#endif

        DDName bBracketName(ddname(backBracketName() + std::to_string(iMod + 1)));
        DDSolid backBracketSolid(
            DDSolidFactory::box(bBracketName, backBracketHeight() / 2., backCoolTankWidth() / 2., halfZTank));
#ifdef EDM_ML_DEBUG
        edm::LogVerbatim("EBGeom") << bBracketName << " Box " << backBracketHeight() / 2. << ":"
                                   << backCoolTankWidth() / 2. << ":" << halfZTank;
#endif
        const DDLogicalPart backBracketLog(bBracketName, backBracketMat(), backBracketSolid);
        if (0 != backCoolTankHere()) {
          cpv.position(backBracketLog,
                       backCName,
                       copyOne,
                       DDTranslation(backCoolBarHeight() - backCoolHeight / 2. - backBracketHeight() / 2. + bottomThick,
                                     -backCoolBarWidth() / 2. - backCoolTankWidth() / 2.,
                                     0),
                       DDRotation());
#ifdef EDM_ML_DEBUG
          edm::LogVerbatim("EBGeomX") << backBracketLog.name() << ":" << copyOne << " positioned in " << backCName
                                      << " at "
                                      << DDTranslation(backCoolBarHeight() - backCoolHeight / 2. -
                                                           backBracketHeight() / 2. + bottomThick,
                                                       -backCoolBarWidth() / 2. - backCoolTankWidth() / 2.,
                                                       0)
                                      << " with no rotation";
#endif
        }

        /*   cpv.position( backBracketLog,
        backCName, 
        copyTwo, 
        DDTranslation( backCoolBarHeight() - backCoolHeight/2. - backBracketHeight()/2.,
                   backCoolBarWidth()/2. + backCoolTankWidth()/2., 0),
                   DDRotation() ) ;*/

        //===

        DDTranslation bSumTra(backCoolBarHeight() - backCoolHeight / 2. + bottomThick, 0, 0);
        for (unsigned int j(0); j != nMisc; ++j)  // loop over miscellaneous layers
        {
          const DDName bName(ddname(vecBackMiscName()[iMod * nMisc + j]));

          DDSolid bSolid(DDSolidFactory::box(bName,
                                             vecBackMiscThick()[iMod * nMisc + j] / 2,
                                             backCoolBarWidth() / 2. + backCoolTankWidth(),
                                             halfZBCool));
#ifdef EDM_ML_DEBUG
          edm::LogVerbatim("EBGeom") << bName << " Box " << vecBackMiscThick()[iMod * nMisc + j] / 2 << ":"
                                     << backCoolBarWidth() / 2. + backCoolTankWidth() << ":" << halfZBCool;
#endif

          const DDLogicalPart bLog(bName, ddmat(vecBackMiscMat()[iMod * nMisc + j]), bSolid);

          const DDTranslation bTra(vecBackMiscThick()[iMod * nMisc + j] / 2, 0 * mm, 0 * mm);

          if (0 != backMiscHere()) {
            cpv.position(bLog, backCName, copyOne, bSumTra + bTra, DDRotation());
#ifdef EDM_ML_DEBUG
            edm::LogVerbatim("EBGeomX") << bLog.name() << ":" << copyOne << " positioned in " << backCName << " at "
                                        << (bSumTra + bTra) << " with no rotation";
#endif
          }
          bSumTra += 2 * bTra;
        }

        const double bHalfWidth(backCoolBarWidth() / 2. + backCoolTankWidth());

        if (0 != mBLyrHere()) {
          DDTranslation mTra(-backCoolHeight / 2. + mBCoolTubeOutDiam(), 0, 0);
          for (unsigned int j(0); j != vecMBLyrThick().size(); ++j)  // loop over MB layers
          {
            const DDName mName(ddname(vecMBLyrName()[j] + "_" + std::to_string(iMod + 1)));

            DDSolid mSolid(DDSolidFactory::box(mName, vecMBLyrThick()[j] / 2, bHalfWidth, halfZBCool));
#ifdef EDM_ML_DEBUG
            edm::LogVerbatim("EBGeom") << mName << " Box " << vecMBLyrThick()[j] / 2 << ":" << bHalfWidth << ":"
                                       << halfZBCool;
#endif

            const DDLogicalPart mLog(mName, ddmat(vecMBLyrMat()[j]), mSolid);

            mTra += DDTranslation(vecMBLyrThick()[j] / 2.0, 0 * mm, 0 * mm);
            cpv.position(mLog, backCName, copyOne, mTra, DDRotation());
#ifdef EDM_ML_DEBUG
            edm::LogVerbatim("EBGeomX") << mLog.name() << ":" << copyOne << " positioned in " << backCName << " at "
                                        << mTra << " with no rotation";
#endif
            mTra += DDTranslation(vecMBLyrThick()[j] / 2.0, 0 * mm, 0 * mm);
          }
        }

        if (0 != mBCoolTubeHere()) {
          const DDName mBName(ddname(mBCoolTubeName() + "_" + std::to_string(iMod + 1)));

          DDSolid mBCoolTubeSolid(
              DDSolidFactory::tubs(mBName, halfZBCool, 0, mBCoolTubeOutDiam() / 2, 0 * deg, 360 * deg));
#ifdef EDM_ML_DEBUG
          edm::LogVerbatim("EBGeom") << mBName << " Tubs " << halfZBCool << ":0:" << mBCoolTubeOutDiam() / 2
                                     << ":0:360";
#endif
          const DDLogicalPart mBLog(mBName, mBCoolTubeMat(), mBCoolTubeSolid);

          const DDName mBWaName(ddname(mBCoolTubeName() + "Wa_" + std::to_string(iMod + 1)));
          DDSolid mBCoolTubeWaSolid(
              DDSolidFactory::tubs(mBWaName, halfZBCool, 0, mBCoolTubeInnDiam() / 2, 0 * deg, 360 * deg));
#ifdef EDM_ML_DEBUG
          edm::LogVerbatim("EBGeom") << mBWaName << " Tubs " << halfZBCool << ":0:" << mBCoolTubeInnDiam() / 2
                                     << ":0:360";
#endif
          const DDLogicalPart mBWaLog(mBWaName, backPipeWaterMat(), mBCoolTubeWaSolid);
          cpv.position(mBWaLog, mBName, copyOne, DDTranslation(0, 0, 0), DDRotation());
#ifdef EDM_ML_DEBUG
          edm::LogVerbatim("EBGeomX") << mBWaLog.name() << ":" << copyOne << " positioned in " << mBName << " at "
                                      << DDTranslation(0, 0, 0) << " with no rotation";
#endif
          for (unsigned int j(0); j != mBCoolTubeNum(); ++j)  // loop over all MB cooling circuits
          {
            cpv.position(
                mBLog,
                backCName,
                2 * j + 1,
                DDTranslation(
                    -backCoolHeight / 2.0 + mBCoolTubeOutDiam() / 2., -bHalfWidth + (j + 1) * bHalfWidth / 5, 0),
                DDRotation());
#ifdef EDM_ML_DEBUG
            edm::LogVerbatim("EBGeomX") << mBLog.name() << ":" << (2 * j + 1) << " positioned in " << backCName
                                        << " at "
                                        << DDTranslation(-backCoolHeight / 2.0 + mBCoolTubeOutDiam() / 2.,
                                                         -bHalfWidth + (j + 1) * bHalfWidth / 5,
                                                         0)
                                        << " with no rotation";
#endif
          }
        }

        if (0 != backPipeHere() && 0 != iMod) {
          DDName bPipeName(ddname(backPipeName() + "_" + std::to_string(iMod + 1)));
          DDName bInnerName(ddname(backPipeName() + "_H2O_" + std::to_string(iMod + 1)));

          DDSolid backPipeSolid(
              DDSolidFactory::tubs(bPipeName, pipeLength / 2, 0 * mm, vecBackPipeDiam()[iMod] / 2, 0 * deg, 360 * deg));
#ifdef EDM_ML_DEBUG
          edm::LogVerbatim("EBGeom") << bPipeName << " Tubs " << pipeLength / 2 << ":0:" << vecBackPipeDiam()[iMod] / 2
                                     << ":0:360";
#endif

          DDSolid backInnerSolid(DDSolidFactory::tubs(bInnerName,
                                                      pipeLength / 2,
                                                      0 * mm,
                                                      vecBackPipeDiam()[iMod] / 2 - vecBackPipeThick()[iMod],
                                                      0 * deg,
                                                      360 * deg));
#ifdef EDM_ML_DEBUG
          edm::LogVerbatim("EBGeom") << bInnerName << " Tubs " << pipeLength / 2
                                     << ":0:" << vecBackPipeDiam()[iMod] / 2 - vecBackPipeThick()[iMod] << ":0:360";
#endif

          const DDLogicalPart backPipeLog(bPipeName, backPipeMat(), backPipeSolid);

          const DDLogicalPart backInnerLog(bInnerName, backPipeWaterMat(), backInnerSolid);

          const DDTranslation bPipeTra1(
              backXOff() + backSideHeight() - 0.7 * vecBackPipeDiam()[iMod],
              backYOff() + backPlateWidth() / 2 - backSideWidth() - 0.7 * vecBackPipeDiam()[iMod],
              pipeZPos);

          cpv.position(backPipeLog, spmName(), copyOne, bPipeTra1, DDRotation());
#ifdef EDM_ML_DEBUG
          edm::LogVerbatim("EBGeomX") << backPipeLog.name() << ":" << copyOne << " positioned in " << spmName()
                                      << " at " << bPipeTra1 << " with no rotation";
#endif

          const DDTranslation bPipeTra2(bPipeTra1.x(),
                                        backYOff() - backPlateWidth() / 2 + backSideWidth() + vecBackPipeDiam()[iMod],
                                        bPipeTra1.z());

          cpv.position(backPipeLog, spmName(), copyTwo, bPipeTra2, DDRotation());
#ifdef EDM_ML_DEBUG
          edm::LogVerbatim("EBGeomX") << backPipeLog.name() << ":" << copyTwo << " positioned in " << spmName()
                                      << " at " << bPipeTra2 << " with no rotation";
#endif
          cpv.position(backInnerLog, bPipeName, copyOne, DDTranslation(), DDRotation());
#ifdef EDM_ML_DEBUG
          edm::LogVerbatim("EBGeomX") << backInnerLog.name() << ":" << copyOne << " positioned in " << bPipeName
                                      << " at " << DDTranslation() << " with no rotation";
#endif
        }

        //=================================================

        if (0 != dryAirTubeHere()) {
          DDName dryAirTubName(ddname(dryAirTubeName() + std::to_string(iMod + 1)));

          DDSolid dryAirTubeSolid(DDSolidFactory::tubs(
              dryAirTubName, pipeLength / 2, dryAirTubeInnDiam() / 2, dryAirTubeOutDiam() / 2, 0 * deg, 360 * deg));
#ifdef EDM_ML_DEBUG
          edm::LogVerbatim("EBGeom") << dryAirTubName << " Tubs " << pipeLength / 2 << ":" << dryAirTubeInnDiam() / 2
                                     << ":" << dryAirTubeOutDiam() / 2 << ":0:360";
#endif

          const DDLogicalPart dryAirTubeLog(dryAirTubName, dryAirTubeMat(), dryAirTubeSolid);

          const DDTranslation dryAirTubeTra1(
              backXOff() + backSideHeight() - 0.7 * dryAirTubeOutDiam() - vecBackPipeDiam()[iMod],
              backYOff() + backPlateWidth() / 2 - backSideWidth() - 1.2 * dryAirTubeOutDiam(),
              pipeZPos);

          cpv.position(dryAirTubeLog, spmName(), copyOne, dryAirTubeTra1, DDRotation());
#ifdef EDM_ML_DEBUG
          edm::LogVerbatim("EBGeomX") << dryAirTubeLog.name() << ":" << copyOne << " positioned in " << spmName()
                                      << " at " << dryAirTubeTra1 << " with no rotation";
#endif

          const DDTranslation dryAirTubeTra2(
              dryAirTubeTra1.x(),
              backYOff() - backPlateWidth() / 2 + backSideWidth() + 0.7 * dryAirTubeOutDiam(),
              dryAirTubeTra1.z());

          cpv.position(dryAirTubeLog, spmName(), copyTwo, dryAirTubeTra2, DDRotation());
#ifdef EDM_ML_DEBUG
          edm::LogVerbatim("EBGeomX") << dryAirTubeLog.name() << ":" << copyTwo << " positioned in " << spmName()
                                      << " at " << dryAirTubeTra2 << " with no rotation";
#endif
        }
        //++++++++++++++++++++++++++++++++++++++++++++++++++++++++++


        DDTranslation cTra(backCoolBarHeight() / 2. - backCoolHeight / 2. + bottomThick, 0, -halfZTank + halfZCoolVFE);
        const unsigned int numSec(static_cast<unsigned int>(vecBackCoolNSec()[iMod]));
        for (unsigned int jSec(0); jSec != numSec; ++jSec) {
          const unsigned int nMax(static_cast<unsigned int>(vecBackCoolNPerSec()[iNSec++]));
          for (unsigned int iBar(0); iBar != nMax; ++iBar) {
            cpv.position(backCoolVFELog, backCName, iCVFECopy++, cTra, DDRotation());
#ifdef EDM_ML_DEBUG
            edm::LogVerbatim("EBGeomX") << backCoolVFELog.name() << ":" << iCVFECopy << " positioned in " << backCName
                                        << " at " << cTra << " with no rotation";
#endif
            cTra += DDTranslation(0, 0, backCBStdSep());
          }
          cTra -= DDTranslation(0, 0, backCBStdSep());  // backspace to previous
          if (jSec != numSec - 1)
            cTra += DDTranslation(0, 0, vecBackCoolSecSep()[iSep++]);  // now take atypical step
        }
      }



      double patchHeight(0);
      for (unsigned int iPatch(0); iPatch != vecPatchPanelThick().size(); ++iPatch) {
        patchHeight += vecPatchPanelThick()[iPatch];
      }

      DDSolid patchSolid(DDSolidFactory::box(patchPanelName(),
                                             patchHeight / 2.,
                                             backCoolBarWidth() / 2.,
                                             (vecSpmZPts().back() - vecGrilleZOff().back() - grilleThick()) / 2));
#ifdef EDM_ML_DEBUG
      edm::LogVerbatim("EBGeom") << patchPanelName() << " Box " << patchHeight / 2. << ":" << backCoolBarWidth() / 2.
                                 << ":" << (vecSpmZPts().back() - vecGrilleZOff().back() - grilleThick()) / 2;
#endif

      const std::vector<double>& patchParms(patchSolid.parameters());

      const DDLogicalPart patchLog(patchPanelName(), spmMat(), patchSolid);

      const DDTranslation patchTra(backXOff() + 4 * mm, 0 * mm, vecGrilleZOff().back() + grilleThick() + patchParms[2]);
      if (0 != patchPanelHere()) {
        cpv.position(patchLog, spmName(), copyOne, patchTra, DDRotation());
#ifdef EDM_ML_DEBUG
        edm::LogVerbatim("EBGeomX") << patchLog.name() << ":" << copyOne << " positioned in " << spmName() << " at "
                                    << patchTra << " with no rotation";
#endif
      }
      DDTranslation pTra(-patchParms[0], 0, 0);

      for (unsigned int j(0); j != vecPatchPanelNames().size(); ++j) {
        const DDName pName(ddname(vecPatchPanelNames()[j]));

        DDSolid pSolid(DDSolidFactory::box(pName, vecPatchPanelThick()[j] / 2., patchParms[1], patchParms[2]));
#ifdef EDM_ML_DEBUG
        edm::LogVerbatim("EBGeom") << pName << " Box " << vecPatchPanelThick()[j] / 2. << ":" << patchParms[1] << ":"
                                   << patchParms[2];
#endif
        const DDLogicalPart pLog(pName, ddmat(vecPatchPanelMat()[j]), pSolid);

        pTra += DDTranslation(vecPatchPanelThick()[j] / 2, 0 * mm, 0 * mm);

        cpv.position(pLog, patchPanelName(), copyOne, pTra, DDRotation());
#ifdef EDM_ML_DEBUG
        edm::LogVerbatim("EBGeomX") << pLog.name() << ":" << copyOne << " positioned in " << patchPanelName() << " at "
                                    << pTra << " with no rotation";
#endif
        pTra += DDTranslation(vecPatchPanelThick()[j] / 2, 0 * mm, 0 * mm);
      }


      if (0 != pincerRodHere()) {
        // Make hierarchy of rods, envelopes, blocks, shims, and cutouts

        DDSolid rodSolid(
            DDSolidFactory::box(pincerRodName(), pincerEnvWidth() / 2., pincerEnvHeight() / 2., ilyLength / 2));
#ifdef EDM_ML_DEBUG
        edm::LogVerbatim("EBGeom") << pincerRodName() << " Box " << pincerEnvWidth() / 2. << ":"
                                   << pincerEnvHeight() / 2. << ":" << ilyLength / 2;
#endif
        const DDLogicalPart rodLog(pincerRodName(), pincerRodMat(), rodSolid);

        DDSolid envSolid(
            DDSolidFactory::box(pincerEnvName(), pincerEnvWidth() / 2., pincerEnvHeight() / 2., pincerEnvLength() / 2));
#ifdef EDM_ML_DEBUG
        edm::LogVerbatim("EBGeom") << pincerEnvName() << " Box " << pincerEnvWidth() / 2. << ":"
                                   << pincerEnvHeight() / 2. << ":" << pincerEnvLength() / 2;
#endif
        const DDLogicalPart envLog(pincerEnvName(), pincerEnvMat(), envSolid);
        const std::vector<double>& envParms(envSolid.parameters());

        DDSolid blkSolid(
            DDSolidFactory::box(pincerBlkName(), pincerEnvWidth() / 2., pincerEnvHeight() / 2., pincerBlkLength() / 2));
#ifdef EDM_ML_DEBUG
        edm::LogVerbatim("EBGeom") << pincerBlkName() << " Box " << pincerEnvWidth() / 2. << ":"
                                   << pincerEnvHeight() / 2. << ":" << pincerBlkLength() / 2;
#endif
        const DDLogicalPart blkLog(pincerBlkName(), pincerBlkMat(), blkSolid);
        const std::vector<double>& blkParms(blkSolid.parameters());
        cpv.position(blkLog,
                     pincerEnvName(),
                     copyOne,
                     DDTranslation(0, 0, pincerEnvLength() / 2 - pincerBlkLength() / 2),
                     DDRotation());
#ifdef EDM_ML_DEBUG
        edm::LogVerbatim("EBGeomX") << blkLog.name() << ":" << copyOne << " positioned in " << pincerEnvName() << " at "
                                    << DDTranslation(0, 0, pincerEnvLength() / 2 - pincerBlkLength() / 2)
                                    << " with no rotation";
#endif

        DDSolid cutSolid(
            DDSolidFactory::box(pincerCutName(), pincerCutWidth() / 2., pincerCutHeight() / 2., pincerBlkLength() / 2));
#ifdef EDM_ML_DEBUG
        edm::LogVerbatim("EBGeom") << pincerCutName() << " Box " << pincerCutWidth() / 2. << ":"
                                   << pincerCutHeight() / 2 << ":" << pincerBlkLength() / 2;
#endif
        const DDLogicalPart cutLog(pincerCutName(), pincerCutMat(), cutSolid);
        const std::vector<double>& cutParms(cutSolid.parameters());
        cpv.position(
            cutLog,
            pincerBlkName(),
            copyOne,
            DDTranslation(
                +blkParms[0] - cutParms[0] - pincerShim1Width() + pincerShim2Width(), -blkParms[1] + cutParms[1], 0),
            DDRotation());
#ifdef EDM_ML_DEBUG
        edm::LogVerbatim("EBGeomX") << cutLog.name() << ":" << copyOne << " positioned in " << pincerBlkName() << " at "
                                    << DDTranslation(
                                           blkParms[0] - cutParms[0] - pincerShim1Width() + pincerShim2Width(),
                                           -blkParms[1] + cutParms[1],
                                           0)
                                    << " with no rotation";
#endif

        DDSolid shim2Solid(DDSolidFactory::box(
            pincerShim2Name(), pincerShim2Width() / 2., pincerShimHeight() / 2., pincerBlkLength() / 2));
#ifdef EDM_ML_DEBUG
        edm::LogVerbatim("EBGeom") << pincerShim2Name() << " Box " << pincerShim2Width() / 2. << ":"
                                   << pincerShimHeight() / 2. << ":" << pincerBlkLength() / 2;
#endif
        const DDLogicalPart shim2Log(pincerShim2Name(), pincerShimMat(), shim2Solid);
        const std::vector<double>& shim2Parms(shim2Solid.parameters());
        cpv.position(shim2Log,
                     pincerCutName(),
                     copyOne,
                     DDTranslation(+cutParms[0] - shim2Parms[0], -cutParms[1] + shim2Parms[1], 0),
                     DDRotation());
#ifdef EDM_ML_DEBUG
        edm::LogVerbatim("EBGeomX") << shim2Log.name() << ":" << copyOne << " positioned in " << pincerCutName()
                                    << " at "
                                    << DDTranslation(+cutParms[0] - shim2Parms[0], -cutParms[1] + shim2Parms[1], 0)
                                    << " with no rotation";
#endif

        DDSolid shim1Solid(DDSolidFactory::box(pincerShim1Name(),
                                               pincerShim1Width() / 2.,
                                               pincerShimHeight() / 2.,
                                               (pincerEnvLength() - pincerBlkLength()) / 2));
#ifdef EDM_ML_DEBUG
        edm::LogVerbatim("EBGeom") << pincerShim1Name() << " Box " << pincerShim1Width() / 2. << ":"
                                   << pincerShimHeight() / 2. << ":" << (pincerEnvLength() - pincerBlkLength()) / 2;
#endif

        const DDLogicalPart shim1Log(pincerShim1Name(), pincerShimMat(), shim1Solid);
        const std::vector<double>& shim1Parms(shim1Solid.parameters());
        cpv.position(
            shim1Log,
            pincerEnvName(),
            copyOne,
            DDTranslation(+envParms[0] - shim1Parms[0], -envParms[1] + shim1Parms[1], -envParms[2] + shim1Parms[2]),
            DDRotation());
#ifdef EDM_ML_DEBUG
        edm::LogVerbatim("EBGeomX") << shim1Log.name() << ":" << copyOne << " positioned in " << pincerEnvName()
                                    << " at "
                                    << DDTranslation(+envParms[0] - shim1Parms[0],
                                                     -envParms[1] + shim1Parms[1],
                                                     -envParms[2] + shim1Parms[2])
                                    << " with no rotation";
#endif
        for (unsigned int iEnv(0); iEnv != vecPincerEnvZOff().size(); ++iEnv) {
          cpv.position(envLog,
                       pincerRodName(),
                       1 + iEnv,
                       DDTranslation(0, 0, -ilyLength / 2. + vecPincerEnvZOff()[iEnv] - pincerEnvLength() / 2.),
                       DDRotation());
#ifdef EDM_ML_DEBUG
          edm::LogVerbatim("EBGeomX") << envLog.name() << ":" << (1 + iEnv) << " positioned in " << pincerRodName()
                                      << " at "
                                      << DDTranslation(
                                             0, 0, -ilyLength / 2. + vecPincerEnvZOff()[iEnv] - pincerEnvLength() / 2.)
                                      << " with no rotation";
#endif
        }

        // Place the rods
        //   const double radius ( fawRadOff() - pincerEnvHeight()/2 -1*mm ) ;
        const double radius(ilyRMin - pincerEnvHeight() / 2 - 1 * mm);

        const DDName xilyName(ddname(ilyName() + std::to_string(vecIlyMat().size() - 1)));

        for (unsigned int iRod(0); iRod != vecPincerRodAzimuth().size(); ++iRod) {
          const DDTranslation rodTra(
              radius * cos(vecPincerRodAzimuth()[iRod]), radius * sin(vecPincerRodAzimuth()[iRod]), 0);

          cpv.position(rodLog,
                       xilyName,
                       1 + iRod,
                       rodTra,
                       myrot(pincerRodName().name() + std::to_string(iRod),
                             CLHEP::HepRotationZ(90 * deg + vecPincerRodAzimuth()[iRod])));
#ifdef EDM_ML_DEBUG
          edm::LogVerbatim("EBGeomX") << rodLog.name() << ":" << (1 + iRod) << " positioned in " << xilyName << " at "
                                      << rodTra << " with rotation";
#endif
        }
      }
    }
  }

#ifdef EDM_ML_DEBUG
  edm::LogVerbatim("EcalGeom") << "******** DDEcalBarrelAlgo test: end it...";
#endif
}

DDRotation DDEcalBarrelNewAlgo::myrot(const std::string& s, const CLHEP::HepRotation& r) const {
  return DDrot(
      ddname(m_idNameSpace + ":" + s),
      std::make_unique<DDRotationMatrix>(r.xx(), r.xy(), r.xz(), r.yx(), r.yy(), r.yz(), r.zx(), r.zy(), r.zz()));
}

DDMaterial DDEcalBarrelNewAlgo::ddmat(const std::string& s) const { return DDMaterial(ddname(s)); }

DDName DDEcalBarrelNewAlgo::ddname(const std::string& s) const {
  const pair<std::string, std::string> temp(DDSplit(s));
  if (temp.second.empty()) {
    return DDName(temp.first, m_idNameSpace);
  } else {
    return DDName(temp.first, temp.second);
  }
}

DDSolid DDEcalBarrelNewAlgo::mytrap(const std::string& s, const EcalTrapezoidParameters& t) const {
#ifdef EDM_ML_DEBUG
  edm::LogVerbatim("EBGeom") << DDName(s) << " Trap " << t.theta() / CLHEP::deg << ":" << t.phi() / CLHEP::deg << ":"
                             << t.h1() << ":" << t.bl1() << ":" << t.tl1() << ":" << t.alp1() / CLHEP::deg << ":"
                             << t.h2() << ":" << t.bl2() << ":" << t.tl2() << ":" << t.alp2() / CLHEP::deg;
#endif
  return DDSolidFactory::trap(
      ddname(s), t.dz(), t.theta(), t.phi(), t.h1(), t.bl1(), t.tl1(), t.alp1(), t.h2(), t.bl2(), t.tl2(), t.alp2());
}

void DDEcalBarrelNewAlgo::web(unsigned int iWeb,
                              double bWeb,
                              double BWeb,
                              double LWeb,
                              double theta,
                              const HepGeom::Point3D<double>& corner,
                              const DDLogicalPart& logPar,
                              double& zee,
                              double side,
                              double front,
                              double delta,
                              DDCompactView& cpv) {
  const unsigned int copyOne(1);

  const double LWebx(vecWebLength()[iWeb]);

  const double BWebx(bWeb + (BWeb - bWeb) * LWebx / LWeb);

  const double thick(vecWebPlTh()[iWeb] + vecWebClrTh()[iWeb]);
  const Trap trapWebClr(BWebx / 2,     // A/2
                        bWeb / 2,      // a/2
                        bWeb / 2,      // b/2
                        thick / 2,     // H/2
                        thick / 2,     // h/2
                        LWebx / 2,     // L/2
                        90 * deg,      // alfa1
                        bWeb - BWebx,  // x15
                        0              // y15
  );
  const DDName webClrDDName(webClrName() + std::to_string(iWeb));
  const DDSolid webClrSolid(mytrap(webClrDDName.name(), trapWebClr));
  const DDLogicalPart webClrLog(webClrDDName, webClrMat(), webClrSolid);

  const Trap trapWebPl(trapWebClr.A() / 2,               // A/2
                       trapWebClr.a() / 2,               // a/2
                       trapWebClr.b() / 2,               // b/2
                       vecWebPlTh()[iWeb] / 2,           // H/2
                       vecWebPlTh()[iWeb] / 2,           // h/2
                       trapWebClr.L() / 2.,              // L/2
                       90 * deg,                         // alfa1
                       trapWebClr.b() - trapWebClr.B(),  // x15
                       0                                 // y15
  );
  const DDName webPlDDName(webPlName() + std::to_string(iWeb));
  const DDSolid webPlSolid(mytrap(webPlDDName.fullname(), trapWebPl));
  const DDLogicalPart webPlLog(webPlDDName, webPlMat(), webPlSolid);

  cpv.position(webPlLog,  // place plate inside clearance volume
               webClrDDName,
               copyOne,
               DDTranslation(0, 0, 0),
               DDRotation());
#ifdef EDM_ML_DEBUG
  edm::LogVerbatim("EBGeomX") << webPlLog.name() << ":" << copyOne << " positioned in " << webClrDDName << " at "
                              << DDTranslation(0, 0, 0) << " with no rotation";
#endif
  const Trap::VertexList vWeb(trapWebClr.vertexList());

  zee += trapWebClr.h() / sin(theta);

  const double beta(theta + delta);

  const double zWeb(zee - front * cos(beta) + side * sin(beta));
  const double yWeb(front * sin(beta) + side * cos(beta));

  const Pt3D wedge3(corner + Pt3D(0, -yWeb, zWeb));
  const Pt3D wedge2(wedge3 + Pt3D(0, trapWebClr.h() * cos(theta), -trapWebClr.h() * sin(theta)));
  const Pt3D wedge1(wedge3 + Pt3D(trapWebClr.a(), 0, 0));

#ifdef EDM_ML_DEBUG
  edm::LogVerbatim("EcalGeom") << "trap1=" << vWeb[0] << ", trap2=" << vWeb[2] << ", trap3=" << vWeb[3];

  edm::LogVerbatim("EcalGeom") << "wedge1=" << wedge1 << ", wedge2=" << wedge2 << ", wedge3=" << wedge3;
#endif
  const Tf3D tForm(vWeb[0], vWeb[2], vWeb[3], wedge1, wedge2, wedge3);

  if (0 != webHere()) {
    cpv.position(webClrLog,
                 logPar,
                 copyOne,
                 DDTranslation(tForm.getTranslation().x(), tForm.getTranslation().y(), tForm.getTranslation().z()),
                 myrot(webClrLog.name().name() + std::to_string(iWeb), tForm.getRotation()));
#ifdef EDM_ML_DEBUG
    edm::LogVerbatim("EBGeomX") << webClrLog.name() << ":" << copyOne << " positioned in " << logPar.name() << " at "
                                << DDTranslation(tForm.getTranslation().x(),
                                                 tForm.getTranslation().y(),
                                                 tForm.getTranslation().z())
                                << " with rotation";
#endif
  }
}

#include "DetectorDescription/Core/interface/DDAlgorithmFactory.h"

DEFINE_EDM_PLUGIN(DDAlgorithmFactory, DDEcalBarrelNewAlgo, "ecal:DDEcalBarrelNewAlgo");