CSCGeometryParsFromDD Class Reference

#include <CSCGeometryParsFromDD.h>

Public Member Functions
bool	build (const cms::DDCompactView *cview, const cms::MuonNumbering &muonConstants, RecoIdealGeometry &rig, CSCRecoDigiParameters &rdp)
bool	build (const DDCompactView *cview, const MuonGeometryConstants &muonConstants, RecoIdealGeometry &rig, CSCRecoDigiParameters &rdp)
	Build the geometry returning the RecoIdealGeometry and the CSCRecoDigiParameters objects. More...
	CSCGeometryParsFromDD ()
	Constructor. More...
virtual	~CSCGeometryParsFromDD ()
	Destructor. More...

Private Attributes
std::string	myName

Detailed Description

Definition at line 32 of file CSCGeometryParsFromDD.h.

Constructor & Destructor Documentation

CSCGeometryParsFromDD()

CSCGeometryParsFromDD::CSCGeometryParsFromDD

(

)

Constructor.

Definition at line 44 of file CSCGeometryParsFromDD.cc.

: myName("CSCGeometryParsFromDD") {}

~CSCGeometryParsFromDD()

CSCGeometryParsFromDD::~CSCGeometryParsFromDD ( )

virtual

Destructor.

Definition at line 46 of file CSCGeometryParsFromDD.cc.

{}

Member Function Documentation

build() [1/2]

bool CSCGeometryParsFromDD::build	(	const cms::DDCompactView *	cview,
		const cms::MuonNumbering &	muonConstants,
		RecoIdealGeometry &	rig,
		CSCRecoDigiParameters &	rdp
	)

end stuff

Definition at line 363 of file CSCGeometryParsFromDD.cc.

                                                              {
  const std::string attribute = "MuStructure";
  const std::string value = "MuonEndcapCSC";
  cms::DDFilteredView fv(cview->detector(), cview->detector()->worldVolume());
  cms::DDSpecParRefs refs;
  const cms::DDSpecParRegistry& mypar = cview->specpars();
  mypar.filter(refs, attribute, value);
  fv.mergedSpecifics(refs);
 
  int noOfAnonParams = 0;
 
  std::vector<double> uparvals;
  std::vector<double> fpar;
  std::vector<double> dpar;
  std::vector<double> gtran(3);
  std::vector<double> grmat(9);
  std::vector<double> trm(9);
  while (fv.firstChild()) {
    MuonBaseNumber mbn = muonConstants.geoHistoryToBaseNumber(fv.history());
 
    cms::CSCNumberingScheme cscnum(muonConstants.values());
 
    cscnum.baseNumberToUnitNumber(mbn);
    int id = cscnum.getDetId();
 
    CSCDetId detid = CSCDetId(id);
    int jendcap = detid.endcap();
    int jstation = detid.station();
    int jring = detid.ring();
    int jchamber = detid.chamber();
    int jlayer = detid.layer();
 
    // Package up the wire group info as it's decoded
    CSCWireGroupPackage wg;
    uparvals.clear();
 
    // if the specs are made no need to get all this stuff!
    int chamberType = CSCChamberSpecs::whatChamberType(jstation, jring);
 
    size_t ct = 0;
    bool chSpecsAlreadyExist = false;
 
    for (; ct < rdp.pChamberType.size(); ++ct) {
      if (chamberType == rdp.pChamberType[ct]) {
        break;
      }
    }
 
    if (ct < rdp.pChamberType.size() && rdp.pChamberType[ct] == chamberType) {
      chSpecsAlreadyExist = true;
    } else {
      std::string_view my_name_bis = fv.name();
      std::string my_name_tris = std::string(my_name_bis);
      std::vector<std::string_view> namesInPath = mypar.names("//" + my_name_tris);
      std::string my_string = "ChamberSpecs_";
      int index = -1;
      for (vector<string_view>::size_type i = 0; i < namesInPath.size(); ++i) {
        std::size_t found = namesInPath[i].find(my_string);
        if (found != std::string::npos)
          index = i;
      }
      uparvals = fv.get<std::vector<double>>(std::string(namesInPath[index]), "upar");
 
      auto it = uparvals.begin();
      it = uparvals.insert(it, uparvals.size());
      auto noofanonparams = fv.get<double>("NoOfAnonParams");
      noOfAnonParams = static_cast<int>(noofanonparams);
 
      for (auto i : fv.get<std::vector<double>>(std::string(namesInPath[index]), "NumWiresPerGrp")) {
        wg.wiresInEachGroup.emplace_back(int(i));
      }
 
      for (auto i : fv.get<std::vector<double>>(std::string(namesInPath[index]), "NumGroups")) {
        wg.consecutiveGroups.emplace_back(int(i));
      }
 
      auto wirespacing = fv.get<double>("WireSpacing");
      wg.wireSpacing = static_cast<double>(wirespacing);
 
      auto alignmentpintofirstwire = fv.get<double>("AlignmentPinToFirstWire");
      wg.alignmentPinToFirstWire = static_cast<double>(alignmentpintofirstwire);
 
      auto totnumwiregroups = fv.get<double>("TotNumWireGroups");
      wg.numberOfGroups = static_cast<int>(totnumwiregroups);
 
      auto lengthoffirstwire = fv.get<double>("LengthOfFirstWire");
      wg.narrowWidthOfWirePlane = static_cast<double>(lengthoffirstwire);
 
      auto lengthoflastwire = fv.get<double>("LengthOfLastWire");
      wg.wideWidthOfWirePlane = static_cast<double>(lengthoflastwire);
 
      auto radialextentofwireplane = fv.get<double>("RadialExtentOfWirePlane");
      wg.lengthOfWirePlane = static_cast<double>(radialextentofwireplane);
 
      uparvals.emplace_back((wg.wireSpacing) * 10.0);
      uparvals.emplace_back(wg.alignmentPinToFirstWire);
      uparvals.emplace_back(wg.numberOfGroups);
      uparvals.emplace_back(wg.narrowWidthOfWirePlane);
      uparvals.emplace_back(wg.wideWidthOfWirePlane);
      uparvals.emplace_back(wg.lengthOfWirePlane);
      uparvals.emplace_back(wg.wiresInEachGroup.size());
 
      for (CSCWireGroupPackage::Container::const_iterator it = wg.wiresInEachGroup.begin();
           it != wg.wiresInEachGroup.end();
           ++it) {
        uparvals.emplace_back(*it);
      }
      for (CSCWireGroupPackage::Container::const_iterator it = wg.consecutiveGroups.begin();
           it != wg.consecutiveGroups.end();
           ++it) {
        uparvals.emplace_back(*it);
      }
 
    }
 
    fpar.clear();
 
    std::string my_title(fv.solid()->GetTitle());
 
    if (my_title == "Subtraction") {
      cms::DDSolid mysolid(fv.solid());
      auto solidA = mysolid.solidA();
      std::vector<double> dpar = solidA.dimensions();
 
      std::transform(
          dpar.begin(), dpar.end(), dpar.begin(), [](double i) -> double { return cms_rounding::roundIfNear0(i); });
 
      fpar.emplace_back((dpar[1]));
      fpar.emplace_back((dpar[2]));
      fpar.emplace_back((dpar[3]));
      fpar.emplace_back((dpar[4]));
    } else {
      dpar = fv.parameters();
 
      std::transform(
          dpar.begin(), dpar.end(), dpar.begin(), [](double i) -> double { return cms_rounding::roundIfNear0(i); });
 
      fpar.emplace_back((dpar[0]));
      fpar.emplace_back((dpar[1]));
      fpar.emplace_back((dpar[2]));
      fpar.emplace_back((dpar[3]));
    }
 
    gtran[0] = static_cast<float>(fv.translation().X());
    gtran[1] = static_cast<float>(fv.translation().Y());
    gtran[2] = static_cast<float>(fv.translation().Z());
 
    std::transform(
        gtran.begin(), gtran.end(), gtran.begin(), [](double i) -> double { return cms_rounding::roundIfNear0(i); });
 
    fv.rotation().GetComponents(trm.begin(), trm.end());
    size_t rotindex = 0;
    for (size_t i = 0; i < 9; ++i) {
      grmat[i] = static_cast<float>(trm[rotindex]);
      rotindex = rotindex + 3;
      if ((i + 1) % 3 == 0) {
        rotindex = (i + 1) / 3;
      }
    }
 
    if (wg.numberOfGroups != 0) {
      for (size_t i = 0; i < wg.consecutiveGroups.size(); i++) {
      }
    } else {
      LogTrace(myName) << myName << " wg.numberOfGroups == 0 ";
    }
 
    if (jlayer == 0) {  // Can only build chambers if we're filtering them
 
      if (jstation == 1 && jring == 1) {
        std::transform(gtran.begin(), gtran.end(), gtran.begin(), [](double i) -> double {
          return cms_rounding::roundIfNear0(i);
        });
 
        std::transform(grmat.begin(), grmat.end(), grmat.begin(), [](double i) -> double {
          return cms_rounding::roundIfNear0(i);
        });
 
        std::transform(
            fpar.begin(), fpar.end(), fpar.begin(), [](double i) -> double { return cms_rounding::roundIfNear0(i); });
 
        rig.insert(id, gtran, grmat, fpar);
        if (!chSpecsAlreadyExist) {
          rdp.pChamberType.emplace_back(chamberType);
          rdp.pUserParOffset.emplace_back(rdp.pfupars.size());
          rdp.pUserParSize.emplace_back(uparvals.size());
          std::copy(uparvals.begin(), uparvals.end(), std::back_inserter(rdp.pfupars));
        }
 
        // No. of anonymous parameters per chamber type should be read from cscSpecs file...
        // Only required for ME11 splitting into ME1a and ME1b values,
        // If it isn't seen may as well try to get further but this value will depend
        // on structure of the file so may not even match!
        const int kNoOfAnonParams = 35;
        if (noOfAnonParams == 0) {
          noOfAnonParams = kNoOfAnonParams;
        }  // in case it wasn't seen
 
        // copy ME1a params from back to the front
        std::copy(
            uparvals.begin() + noOfAnonParams + 1, uparvals.begin() + (2 * noOfAnonParams) + 2, uparvals.begin() + 1);
 
        CSCDetId detid1a = CSCDetId(jendcap, 1, 4, jchamber, 0);  // reset to ME1A
 
        std::transform(gtran.begin(), gtran.end(), gtran.begin(), [](double i) -> double {
          return cms_rounding::roundIfNear0(i);
        });
 
        std::transform(grmat.begin(), grmat.end(), grmat.begin(), [](double i) -> double {
          return cms_rounding::roundIfNear0(i);
        });
 
        std::transform(
            fpar.begin(), fpar.end(), fpar.begin(), [](double i) -> double { return cms_rounding::roundIfNear0(i); });
 
        rig.insert(detid1a.rawId(), gtran, grmat, fpar);
        int chtypeA = CSCChamberSpecs::whatChamberType(1, 4);
        ct = 0;
        for (; ct < rdp.pChamberType.size(); ++ct) {
          if (chtypeA == rdp.pChamberType[ct]) {
            break;
          }
        }
        if (ct < rdp.pChamberType.size() && rdp.pChamberType[ct] == chtypeA) {
          // then its in already, don't put it
          LogTrace(myName) << myName << " ct < rdp.pChamberType.size() && rdp.pChamberType[ct] == chtypeA ";
        } else {
          rdp.pChamberType.emplace_back(chtypeA);
          rdp.pUserParOffset.emplace_back(rdp.pfupars.size());
          rdp.pUserParSize.emplace_back(uparvals.size());
          std::copy(uparvals.begin(), uparvals.end(), std::back_inserter(rdp.pfupars));
        }
 
      } else {
        std::transform(gtran.begin(), gtran.end(), gtran.begin(), [](double i) -> double {
          return cms_rounding::roundIfNear0(i);
        });
 
        std::transform(grmat.begin(), grmat.end(), grmat.begin(), [](double i) -> double {
          return cms_rounding::roundIfNear0(i);
        });
 
        std::transform(
            fpar.begin(), fpar.end(), fpar.begin(), [](double i) -> double { return cms_rounding::roundIfNear0(i); });
 
        rig.insert(id, gtran, grmat, fpar);
        if (!chSpecsAlreadyExist) {
          rdp.pChamberType.emplace_back(chamberType);
          rdp.pUserParOffset.emplace_back(rdp.pfupars.size());
          rdp.pUserParSize.emplace_back(uparvals.size());
          std::copy(uparvals.begin(), uparvals.end(), std::back_inserter(rdp.pfupars));
        }
      }
 
    }  // filtering chambers.
  }
 
  return true;
}

References CSCWireGroupPackage::alignmentPinToFirstWire, cms::CSCNumberingScheme::baseNumberToUnitNumber(), CSCDetId::chamber(), CSCWireGroupPackage::consecutiveGroups, filterCSVwithJSON::copy, cms::DDCompactView::detector(), CSCDetId::endcap(), cms::DDSpecParRegistry::filter(), newFWLiteAna::found, cms::MuonNumbering::geoHistoryToBaseNumber(), mps_fire::i, RecoIdealGeometry::insert(), CSCDetId::layer(), CSCWireGroupPackage::lengthOfWirePlane, LogTrace, myName, cms::DDSpecParRegistry::names(), CSCWireGroupPackage::narrowWidthOfWirePlane, CSCWireGroupPackage::numberOfGroups, CSCRecoDigiParameters::pChamberType, CSCRecoDigiParameters::pfupars, CSCRecoDigiParameters::pUserParOffset, CSCRecoDigiParameters::pUserParSize, CSCDetId::ring(), cms_rounding::roundIfNear0(), cms::DDSolid::solidA(), cms::DDCompactView::specpars(), CSCDetId::station(), AlCaHLTBitMon_QueryRunRegistry::string, HcalDetIdTransform::transform(), cms::MuonNumbering::values(), CSCChamberSpecs::whatChamberType(), CSCWireGroupPackage::wideWidthOfWirePlane, CSCWireGroupPackage::wiresInEachGroup, CSCWireGroupPackage::wireSpacing, and cms::DDDetector::worldVolume().

build() [2/2]

bool CSCGeometryParsFromDD::build	(	const DDCompactView *	cview,
		const MuonGeometryConstants &	muonConstants,
		RecoIdealGeometry &	rig,
		CSCRecoDigiParameters &	rdp
	)

Build the geometry returning the RecoIdealGeometry and the CSCRecoDigiParameters objects.

stuff: using a constructed wg to deconstruct it and put it in db... alternative? use temporary (not wg!) storage.

format as inserted is best documented by the actualy emplace_back statements below.

fupar size now becomes origSize+6+wg.wiresInEachGroup.size()+wg.consecutiveGroups.size()

end stuff

Definition at line 48 of file CSCGeometryParsFromDD.cc.

                                                              {
  std::string attribute = "MuStructure";  // could come from outside
  std::string value = "MuonEndcapCSC";    // could come from outside
 
  // Asking for a specific section of the MuStructure
 
  DDSpecificsMatchesValueFilter filter{DDValue(attribute, value, 0.0)};
 
  DDFilteredView fv(*cview, filter);
 
  bool doSubDets = fv.firstChild();
 
  if (!doSubDets) {
    edm::LogError("CSCGeometryParsFromDD")
        << "Can not proceed, no CSC parts found with the filter.  The current node is: " << fv.logicalPart().toString();
    return false;
  }
  int noOfAnonParams = 0;
  std::vector<const DDsvalues_type*> spec = fv.specifics();
  std::vector<const DDsvalues_type*>::const_iterator spit = spec.begin();
  std::vector<double> uparvals;
  std::vector<double> fpar;
  std::vector<double> dpar;
  std::vector<double> gtran(3);
  std::vector<double> grmat(9);
  std::vector<double> trm(9);
  while (doSubDets) {
    spec = fv.specifics();
    spit = spec.begin();
 
    // get numbering information early for possible speed up of code.
 
    LogTrace(myName) << myName << ": create numbering scheme...";
 
    MuonDDDNumbering mdn(muonConstants);
    MuonBaseNumber mbn = mdn.geoHistoryToBaseNumber(fv.geoHistory());
    CSCNumberingScheme mens(muonConstants);
 
    LogTrace(myName) << myName << ": find detid...";
 
    int id = mens.baseNumberToUnitNumber(mbn);  //@@ FIXME perhaps should return CSCDetId itself?
 
    LogTrace(myName) << myName << ": raw id for this detector is " << id << ", octal " << std::oct << id << ", hex "
                     << std::hex << id << std::dec;
 
    CSCDetId detid = CSCDetId(id);
    int jendcap = detid.endcap();
    int jstation = detid.station();
    int jring = detid.ring();
    int jchamber = detid.chamber();
    int jlayer = detid.layer();
 
    // Package up the wire group info as it's decoded
    CSCWireGroupPackage wg;
    uparvals.clear();
    LogDebug(myName) << "size of spec=" << spec.size();
 
    // if the specs are made no need to get all this stuff!
    int chamberType = CSCChamberSpecs::whatChamberType(jstation, jring);
 
    LogDebug(myName) << "Chamber Type: " << chamberType;
    size_t ct = 0;
    bool chSpecsAlreadyExist = false;
    for (; ct < rdp.pChamberType.size(); ++ct) {
      if (chamberType == rdp.pChamberType[ct]) {
        break;
      }
    }
    if (ct < rdp.pChamberType.size() && rdp.pChamberType[ct] == chamberType) {
      // it was found, therefore no need to load all the intermediate stuff from DD.
      LogDebug(myName) << "already found a " << chamberType << " at index " << ct;
 
      chSpecsAlreadyExist = true;
    } else {
      for (; spit != spec.end(); spit++) {
        DDsvalues_type::const_iterator it = (**spit).begin();
        for (; it != (**spit).end(); it++) {
          LogDebug(myName) << "it->second.name()=" << it->second.name();
          if (it->second.name() == "upar") {
            uparvals.emplace_back(it->second.doubles().size());
            for (double i : it->second.doubles()) {
              uparvals.emplace_back(i);
            }
 
            LogDebug(myName) << "found upars ";
          } else if (it->second.name() == "NoOfAnonParams") {
            noOfAnonParams = static_cast<int>(it->second.doubles()[0]);
          } else if (it->second.name() == "NumWiresPerGrp") {
            for (double i : it->second.doubles()) {
              wg.wiresInEachGroup.emplace_back(int(i));
            }
            LogDebug(myName) << "found upars " << std::endl;
          } else if (it->second.name() == "NumGroups") {
            for (double i : it->second.doubles()) {
              wg.consecutiveGroups.emplace_back(int(i));
            }
          } else if (it->second.name() == "WireSpacing") {
            wg.wireSpacing = it->second.doubles()[0];
          } else if (it->second.name() == "AlignmentPinToFirstWire") {
            wg.alignmentPinToFirstWire = it->second.doubles()[0];
          } else if (it->second.name() == "TotNumWireGroups") {
            wg.numberOfGroups = int(it->second.doubles()[0]);
          } else if (it->second.name() == "LengthOfFirstWire") {
            wg.narrowWidthOfWirePlane = it->second.doubles()[0];
          } else if (it->second.name() == "LengthOfLastWire") {
            wg.wideWidthOfWirePlane = it->second.doubles()[0];
          } else if (it->second.name() == "RadialExtentOfWirePlane") {
            wg.lengthOfWirePlane = it->second.doubles()[0];
          }
        }
      }
 
      uparvals.emplace_back(wg.wireSpacing);
 
      uparvals.emplace_back(wg.alignmentPinToFirstWire);
      uparvals.emplace_back(wg.numberOfGroups);
      uparvals.emplace_back(wg.narrowWidthOfWirePlane);
      uparvals.emplace_back(wg.wideWidthOfWirePlane);
      uparvals.emplace_back(wg.lengthOfWirePlane);
      uparvals.emplace_back(wg.wiresInEachGroup.size());
      for (CSCWireGroupPackage::Container::const_iterator it = wg.wiresInEachGroup.begin();
           it != wg.wiresInEachGroup.end();
           ++it) {
        uparvals.emplace_back(*it);
      }
      for (CSCWireGroupPackage::Container::const_iterator it = wg.consecutiveGroups.begin();
           it != wg.consecutiveGroups.end();
           ++it) {
        uparvals.emplace_back(*it);
      }
 
    }
 
    fpar.clear();
 
    if (fv.logicalPart().solid().shape() == DDSolidShape::ddsubtraction) {
      const DDSubtraction& first = fv.logicalPart().solid();
      const DDSubtraction& second = first.solidA();
      const DDSolid& third = second.solidA();
      dpar = third.parameters();
      std::transform(
          dpar.begin(), dpar.end(), dpar.begin(), [](double i) -> double { return cms_rounding::roundIfNear0(i); });
 
    } else {
      dpar = fv.logicalPart().solid().parameters();
      std::transform(
          dpar.begin(), dpar.end(), dpar.begin(), [](double i) -> double { return cms_rounding::roundIfNear0(i); });
    }
 
    LogTrace(myName) << myName << ": noOfAnonParams=" << noOfAnonParams;
    LogTrace(myName) << myName << ": fill fpar...";
    LogTrace(myName) << myName << ": dpars are... " << dpar[4] / cm << ", " << dpar[8] / cm << ", " << dpar[3] / cm
                     << ", " << dpar[0] / cm;
 
    fpar.emplace_back((dpar[4] / cm));
    fpar.emplace_back((dpar[8] / cm));
    fpar.emplace_back((dpar[3] / cm));
    fpar.emplace_back((dpar[0] / cm));
 
    LogTrace(myName) << myName << ": fill gtran...";
 
    gtran[0] = (float)1.0 * (fv.translation().X() / cm);
    gtran[1] = (float)1.0 * (fv.translation().Y() / cm);
    gtran[2] = (float)1.0 * (fv.translation().Z() / cm);
 
    LogTrace(myName) << myName << ": gtran[0]=" << gtran[0] << ", gtran[1]=" << gtran[1] << ", gtran[2]=" << gtran[2];
 
    LogTrace(myName) << myName << ": fill grmat...";
 
    fv.rotation().GetComponents(trm.begin(), trm.end());
    size_t rotindex = 0;
    for (size_t i = 0; i < 9; ++i) {
      grmat[i] = (float)1.0 * trm[rotindex];
      rotindex = rotindex + 3;
      if ((i + 1) % 3 == 0) {
        rotindex = (i + 1) / 3;
      }
    }
    LogTrace(myName) << myName << ": looking for wire group info for layer "
                     << "E" << CSCDetId::endcap(id) << " S" << CSCDetId::station(id) << " R" << CSCDetId::ring(id)
                     << " C" << CSCDetId::chamber(id) << " L" << CSCDetId::layer(id);
 
    if (wg.numberOfGroups != 0) {
      LogTrace(myName) << myName << ": fv.geoHistory:      = " << fv.geoHistory();
      LogTrace(myName) << myName << ": TotNumWireGroups     = " << wg.numberOfGroups;
      LogTrace(myName) << myName << ": WireSpacing          = " << wg.wireSpacing;
      LogTrace(myName) << myName << ": AlignmentPinToFirstWire = " << wg.alignmentPinToFirstWire;
      LogTrace(myName) << myName << ": Narrow width of wire plane = " << wg.narrowWidthOfWirePlane;
      LogTrace(myName) << myName << ": Wide width of wire plane = " << wg.wideWidthOfWirePlane;
      LogTrace(myName) << myName << ": Length in y of wire plane = " << wg.lengthOfWirePlane;
      LogTrace(myName) << myName << ": wg.consecutiveGroups.size() = " << wg.consecutiveGroups.size();
      LogTrace(myName) << myName << ": wg.wiresInEachGroup.size() = " << wg.wiresInEachGroup.size();
      LogTrace(myName) << myName << ": \tNumGroups\tWiresInGroup";
      for (size_t i = 0; i < wg.consecutiveGroups.size(); i++) {
        LogTrace(myName) << myName << " \t" << wg.consecutiveGroups[i] << "\t\t" << wg.wiresInEachGroup[i];
      }
    } else {
      LogTrace(myName) << myName << ": DDD is MISSING SpecPars for wire groups";
    }
    LogTrace(myName) << myName << ": end of wire group info. ";
 
    LogTrace(myName) << myName << ":_z_ E" << jendcap << " S" << jstation << " R" << jring << " C" << jchamber << " L"
                     << jlayer << " gx=" << gtran[0] << ", gy=" << gtran[1] << ", gz=" << gtran[2]
                     << " thickness=" << fpar[2] * 2.;
 
    if (jlayer == 0) {  // Can only build chambers if we're filtering them
 
      LogTrace(myName) << myName << ":_z_ frame=" << uparvals[31] / 10. << " gap=" << uparvals[32] / 10.
                       << " panel=" << uparvals[33] / 10. << " offset=" << uparvals[34] / 10.;
 
      if (jstation == 1 && jring == 1) {
        // set up params for ME1a and ME1b and call buildChamber *for each*
        // Both get the full ME11 dimensions
 
        // detid is for ME11 and that's what we're using for ME1b in the software
 
        std::transform(gtran.begin(), gtran.end(), gtran.begin(), [](double i) -> double {
          return cms_rounding::roundIfNear0(i);
        });
        std::transform(grmat.begin(), grmat.end(), grmat.begin(), [](double i) -> double {
          return cms_rounding::roundIfNear0(i);
        });
        std::transform(
            fpar.begin(), fpar.end(), fpar.begin(), [](double i) -> double { return cms_rounding::roundIfNear0(i); });
 
        rig.insert(id, gtran, grmat, fpar);
        if (!chSpecsAlreadyExist) {
          LogDebug(myName) << " inserting chamber type " << chamberType << std::endl;
          rdp.pChamberType.emplace_back(chamberType);
          rdp.pUserParOffset.emplace_back(rdp.pfupars.size());
          rdp.pUserParSize.emplace_back(uparvals.size());
          std::copy(uparvals.begin(), uparvals.end(), std::back_inserter(rdp.pfupars));
        }
 
        // No. of anonymous parameters per chamber type should be read from cscSpecs file...
        // Only required for ME11 splitting into ME1a and ME1b values,
        // If it isn't seen may as well try to get further but this value will depend
        // on structure of the file so may not even match!
        const int kNoOfAnonParams = 35;
        if (noOfAnonParams == 0) {
          noOfAnonParams = kNoOfAnonParams;
        }  // in case it wasn't seen
 
        // copy ME1a params from back to the front
        std::copy(
            uparvals.begin() + noOfAnonParams + 1, uparvals.begin() + (2 * noOfAnonParams) + 2, uparvals.begin() + 1);
 
        CSCDetId detid1a = CSCDetId(jendcap, 1, 4, jchamber, 0);  // reset to ME1A
 
        std::transform(gtran.begin(), gtran.end(), gtran.begin(), [](double i) -> double {
          return cms_rounding::roundIfNear0(i);
        });
        std::transform(grmat.begin(), grmat.end(), grmat.begin(), [](double i) -> double {
          return cms_rounding::roundIfNear0(i);
        });
        std::transform(
            fpar.begin(), fpar.end(), fpar.begin(), [](double i) -> double { return cms_rounding::roundIfNear0(i); });
 
        rig.insert(detid1a.rawId(), gtran, grmat, fpar);
        int chtypeA = CSCChamberSpecs::whatChamberType(1, 4);
        ct = 0;
        for (; ct < rdp.pChamberType.size(); ++ct) {
          if (chtypeA == rdp.pChamberType[ct]) {
            break;
          }
        }
        if (ct < rdp.pChamberType.size() && rdp.pChamberType[ct] == chtypeA) {
          // then its in already, don't put it
          LogDebug(myName) << "found chamber type " << chtypeA << " so don't put it in! ";
        } else {
          LogDebug(myName) << " inserting chamber type " << chtypeA;
          rdp.pChamberType.emplace_back(chtypeA);
          rdp.pUserParOffset.emplace_back(rdp.pfupars.size());
          rdp.pUserParSize.emplace_back(uparvals.size());
          std::copy(uparvals.begin(), uparvals.end(), std::back_inserter(rdp.pfupars));
        }
 
      } else {
        std::transform(gtran.begin(), gtran.end(), gtran.begin(), [](double i) -> double {
          return cms_rounding::roundIfNear0(i);
        });
        std::transform(grmat.begin(), grmat.end(), grmat.begin(), [](double i) -> double {
          return cms_rounding::roundIfNear0(i);
        });
        std::transform(
            fpar.begin(), fpar.end(), fpar.begin(), [](double i) -> double { return cms_rounding::roundIfNear0(i); });
        rig.insert(id, gtran, grmat, fpar);
        if (!chSpecsAlreadyExist) {
          LogDebug(myName) << " inserting chamber type " << chamberType;
          rdp.pChamberType.emplace_back(chamberType);
          rdp.pUserParOffset.emplace_back(rdp.pfupars.size());
          rdp.pUserParSize.emplace_back(uparvals.size());
          std::copy(uparvals.begin(), uparvals.end(), std::back_inserter(rdp.pfupars));
        }
      }
 
    }  // filtering chambers.
 
    doSubDets = fv.next();
  }
  return true;
}

References CSCWireGroupPackage::alignmentPinToFirstWire, CSCNumberingScheme::baseNumberToUnitNumber(), CSCDetId::chamber(), CSCWireGroupPackage::consecutiveGroups, filterCSVwithJSON::copy, ddsubtraction, TauDecayModes::dec, CSCDetId::endcap(), ALCARECOTkAlBeamHalo_cff::filter, dqmdumpme::first, DDFilteredView::firstChild(), dqmMemoryStats::float, DDFilteredView::geoHistory(), MuonDDDNumbering::geoHistoryToBaseNumber(), mps_fire::i, RecoIdealGeometry::insert(), createfilelist::int, CSCDetId::layer(), CSCWireGroupPackage::lengthOfWirePlane, LogDebug, DDFilteredView::logicalPart(), LogTrace, myName, CSCWireGroupPackage::narrowWidthOfWirePlane, DDFilteredView::next(), CSCWireGroupPackage::numberOfGroups, DDSolid::parameters(), CSCRecoDigiParameters::pChamberType, CSCRecoDigiParameters::pfupars, CSCRecoDigiParameters::pUserParOffset, CSCRecoDigiParameters::pUserParSize, CSCDetId::ring(), DDFilteredView::rotation(), cms_rounding::roundIfNear0(), edm::second(), DDSolid::shape(), DDLogicalPart::solid(), DDFilteredView::specifics(), CSCDetId::station(), AlCaHLTBitMon_QueryRunRegistry::string, DDBase< N, C >::toString(), HcalDetIdTransform::transform(), DDFilteredView::translation(), CSCChamberSpecs::whatChamberType(), CSCWireGroupPackage::wideWidthOfWirePlane, CSCWireGroupPackage::wiresInEachGroup, and CSCWireGroupPackage::wireSpacing.

Referenced by CSCRecoIdealDBLoader::beginRun(), and CSCGeometryBuilderFromDDD::build().

Member Data Documentation

myName

std::string CSCGeometryParsFromDD::myName

private

Definition at line 53 of file CSCGeometryParsFromDD.h.

Referenced by build().