LogicIDTranslation.cc

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#include "DQM/EcalMonitorDbModule/interface/LogicIDTranslation.h"

#include "DQM/EcalCommon/interface/EcalDQMCommonUtils.h"

#include "FWCore/Utilities/interface/Exception.h"

namespace ecaldqm {
  EcalLogicID ecalID() { return EcalLogicID("ECAL", 1); }

  EcalLogicID subdetID(EcalSubdetector _subdet) {
    switch (_subdet) {
      case EcalBarrel:
        return EcalLogicID("EB", 1000000000UL);
      case EcalEndcap:
        return EcalLogicID("EE", 2000000000UL);
      default:
        throw cms::Exception("UndefinedLogicID");
    }
  }

  EcalLogicID crystalID(DetId const &_id, EcalElectronicsMapping const *electronicsMap) {
    unsigned iDCC(dccId(_id, electronicsMap) - 1);
    if (iDCC <= kEEmHigh || iDCC >= kEEpLow) {
      EEDetId eeid(_id);
      return EcalLogicID("EE_crystal_number",
                         2010000000UL + 1000000 * (eeid.positiveZ() ? 2 : 0) + 1000 * eeid.ix() + eeid.iy(),
                         eeid.zside(),
                         eeid.ix(),
                         eeid.iy());
    } else {
      int ism(iDCC <= kEBmHigh ? 19 + iDCC - kEBmLow : 1 + iDCC - kEBpLow);
      EBDetId ebid(_id);
      return EcalLogicID("EB_crystal_number", 1011000000UL + 10000 * ism + ebid.ic(), ism, ebid.ic());
    }
  }

  EcalLogicID towerID(EcalElectronicsId const &_id) {
    unsigned iDCC(_id.dccId() - 1);
    if (iDCC <= kEEmHigh || iDCC >= kEEpLow) {
      return EcalLogicID(
          "EE_readout_tower", 2110000000UL + 100 * (601 + iDCC) + _id.towerId(), 601 + iDCC, _id.towerId());
    } else {
      int ism(iDCC <= kEBmHigh ? 19 + iDCC - kEBmLow : 1 + iDCC - kEBpLow);
      return EcalLogicID("EB_trigger_tower", 1021000000UL + 10000 * ism + _id.towerId(), ism, _id.towerId());
    }
  }

  EcalLogicID memChannelID(EcalPnDiodeDetId const &_id) {
    // using the PN ID degenerates the logic ID - 50 time samples are actually
    // split into 5 channels each
    unsigned iDCC(_id.iDCCId() - 1);
    int memId((_id.iPnId() - 1) % 5 + ((_id.iPnId() - 1) / 5) * 25 + 1);
    if (iDCC <= kEEmHigh || iDCC >= kEEpLow) {
      return EcalLogicID("EE_mem_channel", 100 * (601 + iDCC) + memId, 601 + iDCC, memId);
    } else {
      int ism(iDCC <= kEBmHigh ? 19 + iDCC - kEBmLow : 1 + iDCC - kEBpLow);
      return EcalLogicID("EB_mem_channel", 1191000000UL + 10000 * ism + memId, ism, memId);
    }
  }

  EcalLogicID memTowerID(EcalElectronicsId const &_id) {
    unsigned iDCC(_id.dccId() - 1);
    if (iDCC <= kEEmHigh || iDCC >= kEEpLow) {
      return EcalLogicID("EE_mem_TT", 100 * (601 + iDCC) + _id.towerId(), 601 + iDCC, _id.towerId());
    } else {
      int ism(iDCC <= kEBmHigh ? 19 + iDCC - kEBmLow : 1 + iDCC - kEBpLow);
      return EcalLogicID("EB_mem_TT", 1181000000UL + 10000 * ism + _id.towerId(), ism, _id.towerId());
    }
  }

  EcalLogicID lmPNID(EcalPnDiodeDetId const &_id) {
    unsigned iDCC(_id.iDCCId() - 1);
    int pnid(_id.iPnId());
    if (iDCC <= kEEmHigh || iDCC >= kEEpLow) {
      return EcalLogicID("EE_LM_PN", 100 * (601 + iDCC) + pnid, 601 + iDCC, pnid);
    } else {
      int ism(iDCC <= kEBmHigh ? 19 + iDCC - kEBmLow : 1 + iDCC - kEBpLow);
      return EcalLogicID("EB_LM_PN", 1131000000UL + 10000 * ism + pnid, ism, pnid);
    }
  }

  DetId toDetId(EcalLogicID const &_id) { return DetId(); }
}  // namespace ecaldqm