HcaluLUTTPGCoder.cc

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#include <iostream>
#include <fstream>
#include <cmath>
#include <string>
#include "CalibCalorimetry/HcalTPGAlgos/interface/HcaluLUTTPGCoder.h"
#include "CalibFormats/HcalObjects/interface/HcalCoderDb.h"
#include "CalibFormats/HcalObjects/interface/HcalCalibrations.h"
#include "CalibFormats/HcalObjects/interface/HcalDbService.h"
#include "DataFormats/HcalDigi/interface/HcalQIENum.h"
#include "DataFormats/HcalDigi/interface/QIE10DataFrame.h"
#include "DataFormats/HcalDigi/interface/QIE11DataFrame.h"
#include "DataFormats/HcalDetId/interface/HcalTrigTowerDetId.h"
#include "Geometry/HcalTowerAlgo/interface/HcalTrigTowerGeometry.h"
#include "Geometry/Records/interface/IdealGeometryRecord.h"
#include "Geometry/CaloGeometry/interface/CaloGeometry.h"
#include "FWCore/Utilities/interface/Exception.h"
#include "FWCore/MessageLogger/interface/MessageLogger.h"
#include "FWCore/Framework/interface/Event.h"
#include "FWCore/Framework/interface/EventSetup.h"
#include "FWCore/Framework/interface/Frameworkfwd.h"
#include "FWCore/Framework/interface/MakerMacros.h"
#include "FWCore/ParameterSet/interface/ParameterSet.h"
#include "CondFormats/HcalObjects/interface/HcalL1TriggerObjects.h"
#include "CondFormats/HcalObjects/interface/HcalL1TriggerObject.h"
#include "CalibCalorimetry/HcalAlgos/interface/HcalDbASCIIIO.h"
#include "CalibCalorimetry/HcalAlgos/interface/HcalSiPMnonlinearity.h"
#include "CalibCalorimetry/HcalAlgos/interface/HcalPulseContainmentCorrection.h"
#include "CalibCalorimetry/HcalTPGAlgos/interface/XMLProcessor.h"
#include "CalibCalorimetry/HcalTPGAlgos/interface/LutXml.h"

const float HcaluLUTTPGCoder::lsb_ = 1. / 16;
const float HcaluLUTTPGCoder::zdc_lsb_ = 50.;

const int HcaluLUTTPGCoder::QIE8_LUT_BITMASK;
const int HcaluLUTTPGCoder::QIE10_LUT_BITMASK;
const int HcaluLUTTPGCoder::QIE11_LUT_BITMASK;
const int HcaluLUTTPGCoder::QIE10_ZDC_LUT_BITMASK;

constexpr double MaximumFractionalError = 0.002;  // 0.2% error allowed from this source

HcaluLUTTPGCoder::HcaluLUTTPGCoder()
    : topo_{},
      delay_{},
      LUTGenerationMode_{},
      FG_HF_thresholds_{},
      bitToMask_{},
      firstHBEta_{},
      lastHBEta_{},
      nHBEta_{},
      maxDepthHB_{},
      sizeHB_{},
      firstHEEta_{},
      lastHEEta_{},
      nHEEta_{},
      maxDepthHE_{},
      sizeHE_{},
      firstHFEta_{},
      lastHFEta_{},
      nHFEta_{},
      maxDepthHF_{},
      sizeHF_{},
      sizeZDC_{},
      cosh_ieta_28_HE_low_depths_{},
      cosh_ieta_28_HE_high_depths_{},
      cosh_ieta_29_HE_{},
      allLinear_{},
      contain1TSHB_{},
      contain1TSHE_{},
      applyFixPCC_{},
      linearLSB_QIE8_{},
      linearLSB_QIE11_{},
      linearLSB_QIE11Overlap_{} {}

HcaluLUTTPGCoder::HcaluLUTTPGCoder(const HcalTopology* top, const HcalTimeSlew* delay) { init(top, delay); }

void HcaluLUTTPGCoder::init(const HcalTopology* top, const HcalTimeSlew* delay) {
  topo_ = top;
  delay_ = delay;
  LUTGenerationMode_ = true;
  FG_HF_thresholds_ = {0, 0};
  bitToMask_ = 0;
  allLinear_ = false;
  contain1TSHB_ = false;
  contain1TSHE_ = false;
  applyFixPCC_ = false;
  linearLSB_QIE8_ = 1.;
  linearLSB_QIE11_ = 1.;
  linearLSB_QIE11Overlap_ = 1.;
  pulseCorr_ = std::make_unique<HcalPulseContainmentManager>(MaximumFractionalError, false);
  firstHBEta_ = topo_->firstHBRing();
  lastHBEta_ = topo_->lastHBRing();
  nHBEta_ = (lastHBEta_ - firstHBEta_ + 1);
  maxDepthHB_ = topo_->maxDepth(HcalBarrel);
  sizeHB_ = 2 * nHBEta_ * nFi_ * maxDepthHB_;
  firstHEEta_ = topo_->firstHERing();
  lastHEEta_ = topo_->lastHERing();
  nHEEta_ = (lastHEEta_ - firstHEEta_ + 1);
  maxDepthHE_ = topo_->maxDepth(HcalEndcap);
  sizeHE_ = 2 * nHEEta_ * nFi_ * maxDepthHE_;
  firstHFEta_ = topo_->firstHFRing();
  lastHFEta_ = topo_->lastHFRing();
  nHFEta_ = (lastHFEta_ - firstHFEta_ + 1);
  maxDepthHF_ = topo_->maxDepth(HcalForward);
  sizeHF_ = 2 * nHFEta_ * nFi_ * maxDepthHF_;
  sizeZDC_ = 2 * 9;
  size_t nluts = (size_t)(sizeHB_ + sizeHE_ + sizeHF_ + sizeZDC_ * 2 + 1);
  inputLUT_ = std::vector<HcaluLUTTPGCoder::Lut>(nluts);
  gain_ = std::vector<float>(nluts, 0.);
  ped_ = std::vector<float>(nluts, 0.);
  make_cosh_ieta_map();
}

void HcaluLUTTPGCoder::compress(const IntegerCaloSamples& ics,
                                const std::vector<bool>& featureBits,
                                HcalTriggerPrimitiveDigi& tp) const {
  throw cms::Exception("PROBLEM: This method should never be invoked!");
}

HcaluLUTTPGCoder::~HcaluLUTTPGCoder() {}

int HcaluLUTTPGCoder::getLUTId(HcalSubdetector id, int ieta, int iphi, int depth) const {
  int retval(0);
  if (id == HcalBarrel) {
    retval = (depth - 1) + maxDepthHB_ * (iphi - 1);
    if (ieta > 0)
      retval += maxDepthHB_ * nFi_ * (ieta - firstHBEta_);
    else
      retval += maxDepthHB_ * nFi_ * (ieta + lastHBEta_ + nHBEta_);
  } else if (id == HcalEndcap) {
    retval = sizeHB_;
    retval += (depth - 1) + maxDepthHE_ * (iphi - 1);
    if (ieta > 0)
      retval += maxDepthHE_ * nFi_ * (ieta - firstHEEta_);
    else
      retval += maxDepthHE_ * nFi_ * (ieta + lastHEEta_ + nHEEta_);
  } else if (id == HcalForward) {
    retval = sizeHB_ + sizeHE_;
    retval += (depth - 1) + maxDepthHF_ * (iphi - 1);
    if (ieta > 0)
      retval += maxDepthHF_ * nFi_ * (ieta - firstHFEta_);
    else
      retval += maxDepthHF_ * nFi_ * (ieta + lastHFEta_ + nHFEta_);
  } else if (id == HcalOther) {
    retval = sizeHB_ + sizeHE_ + sizeHF_;
    retval += depth;
    if (iphi != 1)
      retval += 5;
    if (ieta <= 0)
      retval += 9;
  }
  return retval;
}

int HcaluLUTTPGCoder::getLUTId(uint32_t rawid) const {
  HcalDetId detid(rawid);
  return getLUTId(detid.subdet(), detid.ieta(), detid.iphi(), detid.depth());
}

int HcaluLUTTPGCoder::getLUTId(const HcalDetId& detid) const {
  return getLUTId(detid.subdet(), detid.ieta(), detid.iphi(), detid.depth());
}

int HcaluLUTTPGCoder::getLUTId(const HcalZDCDetId& detid) const {
  if (detid.section() == HcalZDCDetId::EM) {
    return getLUTId(HcalOther, detid.zside(), 1, detid.channel());
  } else if (detid.section() == HcalZDCDetId::HAD) {
    return getLUTId(HcalOther, detid.zside(), 2, detid.channel());
  } else if (detid.section() == HcalZDCDetId::LUM) {
    return getLUTId(HcalOther, detid.zside(), 3, detid.channel());
  } else {
    return getLUTId(HcalOther, detid.zside(), 4, detid.channel());
  }
}

void HcaluLUTTPGCoder::update(const char* filename, bool appendMSB) {
  std::ifstream file(filename, std::ios::in);
  assert(file.is_open());

  std::vector<HcalSubdetector> subdet;
  std::string buffer;

  // Drop first (comment) line
  std::getline(file, buffer);
  std::getline(file, buffer);

  unsigned int index = buffer.find('H', 0);
  while (index < buffer.length()) {
    std::string subdetStr = buffer.substr(index, 2);
    if (subdetStr == "HB")
      subdet.push_back(HcalBarrel);
    else if (subdetStr == "HE")
      subdet.push_back(HcalEndcap);
    else if (subdetStr == "HF")
      subdet.push_back(HcalForward);
    //TODO Check subdet
    //else exception
    index += 2;
    index = buffer.find('H', index);
  }

  // Get upper/lower ranges for ieta/iphi/depth
  size_t nCol = subdet.size();
  assert(nCol > 0);

  std::vector<int> ietaU;
  std::vector<int> ietaL;
  std::vector<int> iphiU;
  std::vector<int> iphiL;
  std::vector<int> depU;
  std::vector<int> depL;
  std::vector<Lut> lutFromFile(nCol);
  LutElement lutValue;

  for (size_t i = 0; i < nCol; ++i) {
    int ieta;
    file >> ieta;
    ietaL.push_back(ieta);
  }

  for (size_t i = 0; i < nCol; ++i) {
    int ieta;
    file >> ieta;
    ietaU.push_back(ieta);
  }

  for (size_t i = 0; i < nCol; ++i) {
    int iphi;
    file >> iphi;
    iphiL.push_back(iphi);
  }

  for (size_t i = 0; i < nCol; ++i) {
    int iphi;
    file >> iphi;
    iphiU.push_back(iphi);
  }

  for (size_t i = 0; i < nCol; ++i) {
    int dep;
    file >> dep;
    depL.push_back(dep);
  }

  for (size_t i = 0; i < nCol; ++i) {
    int dep;
    file >> dep;
    depU.push_back(dep);
  }

  // Read Lut Entry
  for (size_t i = 0; file >> lutValue; i = (i + 1) % nCol) {
    lutFromFile[i].push_back(lutValue);
  }

  // Check lut size
  for (size_t i = 0; i < nCol; ++i)
    assert(lutFromFile[i].size() == INPUT_LUT_SIZE);

  for (size_t i = 0; i < nCol; ++i) {
    for (int ieta = ietaL[i]; ieta <= ietaU[i]; ++ieta) {
      for (int iphi = iphiL[i]; iphi <= iphiU[i]; ++iphi) {
        for (int depth = depL[i]; depth <= depU[i]; ++depth) {
          HcalDetId id(subdet[i], ieta, iphi, depth);
          if (!topo_->valid(id))
            continue;

          int lutId = getLUTId(id);
          for (size_t adc = 0; adc < INPUT_LUT_SIZE; ++adc) {
            if (appendMSB) {
              // Append FG bit LUT to MSB
              // MSB = Most Significant Bit = bit 10
              // Overwrite bit 10
              LutElement msb = (lutFromFile[i][adc] != 0 ? QIE8_LUT_MSB : 0);
              inputLUT_[lutId][adc] = (msb | (inputLUT_[lutId][adc] & QIE8_LUT_BITMASK));
            } else
              inputLUT_[lutId][adc] = lutFromFile[i][adc];
          }  // for adc
        }    // for depth
      }      // for iphi
    }        // for ieta
  }          // for nCol
}

void HcaluLUTTPGCoder::updateXML(const char* filename) {
  LutXml* _xml = new LutXml(filename);
  _xml->create_lut_map();
  HcalSubdetector subdet[3] = {HcalBarrel, HcalEndcap, HcalForward};
  for (int ieta = -HcalDetId::kHcalEtaMask2; ieta <= (int)(HcalDetId::kHcalEtaMask2); ++ieta) {
    for (unsigned int iphi = 0; iphi <= HcalDetId::kHcalPhiMask2; ++iphi) {
      for (unsigned int depth = 1; depth < HcalDetId::kHcalDepthMask2; ++depth) {
        for (int isub = 0; isub < 3; ++isub) {
          HcalDetId detid(subdet[isub], ieta, iphi, depth);
          if (!topo_->valid(detid))
            continue;
          int id = getLUTId(subdet[isub], ieta, iphi, depth);
          std::vector<unsigned int>* lut = _xml->getLutFast(detid);
          if (lut == nullptr)
            throw cms::Exception("PROBLEM: No inputLUT_ in xml file for ") << detid << std::endl;
          if (lut->size() != UPGRADE_LUT_SIZE)
            throw cms::Exception("PROBLEM: Wrong inputLUT_ size in xml file for ") << detid << std::endl;
          Lut& lutRaw = inputLUT_[id];
          lutRaw.resize(UPGRADE_LUT_SIZE, 0);
          for (unsigned int i = 0; i < UPGRADE_LUT_SIZE; ++i)
            inputLUT_[id][i] = (LutElement)lut->at(i);
        }
      }
    }
  }
  delete _xml;
  XMLProcessor::getInstance()->terminate();
}

double HcaluLUTTPGCoder::cosh_ieta(int ieta, int depth, HcalSubdetector subdet) {
  // ieta = 28 and 29 are both associated with trigger tower 28
  // so special handling is required. HF ieta=29 channels included in TT30
  // are already handled correctly in cosh_ieta_
  if (abs(ieta) >= 28 && subdet == HcalEndcap && allLinear_) {
    if (abs(ieta) == 29)
      return cosh_ieta_29_HE_;
    if (abs(ieta) == 28) {
      if (depth <= 3)
        return cosh_ieta_28_HE_low_depths_;
      else
        return cosh_ieta_28_HE_high_depths_;
    }
  }

  return cosh_ieta_[ieta];
}

void HcaluLUTTPGCoder::make_cosh_ieta_map(void) {
  cosh_ieta_ = std::vector<double>(lastHFEta_ + 1, -1.0);

  HcalTrigTowerGeometry triggeo(topo_);

  for (int i = 1; i <= firstHFEta_; ++i) {
    double eta_low = 0., eta_high = 0.;
    triggeo.towerEtaBounds(i, 0, eta_low, eta_high);
    cosh_ieta_[i] = cosh((eta_low + eta_high) / 2.);
  }
  for (int i = firstHFEta_; i <= lastHFEta_; ++i) {
    std::pair<double, double> etas = topo_->etaRange(HcalForward, i);
    double eta1 = etas.first;
    double eta2 = etas.second;
    cosh_ieta_[i] = cosh((eta1 + eta2) / 2.);
  }

  // trigger tower 28 in HE has a more complicated geometry
  std::pair<double, double> eta28 = topo_->etaRange(HcalEndcap, 28);
  std::pair<double, double> eta29 = topo_->etaRange(HcalEndcap, 29);
  cosh_ieta_29_HE_ = cosh((eta29.first + eta29.second) / 2.);
  cosh_ieta_28_HE_low_depths_ = cosh((eta28.first + eta28.second) / 2.);
  // for higher depths in ieta = 28, the trigger tower extends past
  // the ieta = 29 channels
  cosh_ieta_28_HE_high_depths_ = cosh((eta28.first + eta29.second) / 2.);
}

void HcaluLUTTPGCoder::update(const HcalDbService& conditions) {
  const HcalLutMetadata* metadata = conditions.getHcalLutMetadata();
  assert(metadata != nullptr);
  float nominalgain_ = metadata->getNominalGain();

  pulseCorr_ = std::make_unique<HcalPulseContainmentManager>(MaximumFractionalError, applyFixPCC_);
  pulseCorr_->beginRun(&conditions, delay_);

  make_cosh_ieta_map();

  // Here we will determine if we are using new version of TPs (1TS)
  // i.e. are we using a new pulse filter scheme.
  const HcalElectronicsMap* emap = conditions.getHcalMapping();

  int lastHBRing = topo_->lastHBRing();
  int lastHERing = topo_->lastHERing();

  // First, determine if we should configure for the filter scheme
  // Check the tp version to make this determination
  bool foundHB = false;
  bool foundHE = false;
  bool newHBtp = false;
  bool newHEtp = false;
  std::vector<HcalElectronicsId> vIds = emap->allElectronicsIdTrigger();
  for (std::vector<HcalElectronicsId>::const_iterator eId = vIds.begin(); eId != vIds.end(); eId++) {
    // The first HB or HE id is enough to tell whether to use new scheme in HB or HE
    if (foundHB and foundHE)
      break;

    HcalTrigTowerDetId hcalTTDetId(emap->lookupTrigger(*eId));
    if (hcalTTDetId.null())
      continue;

    int aieta = abs(hcalTTDetId.ieta());
    // The absence of TT channels in the HcalTPChannelParameters
    // is intepreted as to not use the new filter
    int weight = -1.0;
    auto tpParam = conditions.getHcalTPChannelParameter(hcalTTDetId, false);
    if (tpParam)
      weight = tpParam->getauxi1();

    if (aieta <= lastHBRing) {
      foundHB = true;
      if (weight != -1.0)
        newHBtp = true;
    } else if (aieta > lastHBRing and aieta < lastHERing) {
      foundHE = true;
      if (weight != -1.0)
        newHEtp = true;
    }
  }

  for (const auto& id : metadata->getAllChannels()) {
    if (id.det() == DetId::Hcal and topo_->valid(id)) {
      HcalDetId cell(id);
      HcalSubdetector subdet = cell.subdet();

      if (subdet != HcalBarrel and subdet != HcalEndcap and subdet != HcalForward and subdet != HcalOther)
        continue;

      const HcalQIECoder* channelCoder = conditions.getHcalCoder(cell);
      const HcalQIEShape* shape = conditions.getHcalShape(cell);
      HcalCoderDb coder(*channelCoder, *shape);
      const HcalLutMetadatum* meta = metadata->getValues(cell);

      // defaults for energy requirement for bits 12-15 are high / low to avoid FG bit 0-4 being set when not intended
      unsigned int bit12_energy = 0;
      unsigned int bit13_energy = 0;
      unsigned int bit14_energy = 999;
      unsigned int bit15_energy = 999;

      bool is2018OrLater = topo_->triggerMode() >= HcalTopologyMode::TriggerMode_2018 or
                           topo_->triggerMode() == HcalTopologyMode::TriggerMode_2018legacy;
      if (is2018OrLater or topo_->dddConstants()->isPlan1(cell)) {
        bit12_energy = 16;  // depths 1,2 max energy
        bit13_energy = 80;  // depths 3+ min energy
        bit14_energy = 64;  // prompt min energy
        bit15_energy = 64;  // delayed min energy
      }

      int lutId = getLUTId(cell);
      Lut& lut = inputLUT_[lutId];
      float ped = 0;
      float gain = 0;
      uint32_t status = 0;

      if (LUTGenerationMode_) {
        const HcalCalibrations& calibrations = conditions.getHcalCalibrations(cell);
        for (auto capId : {0, 1, 2, 3}) {
          ped += calibrations.effpedestal(capId);
          gain += calibrations.LUTrespcorrgain(capId);
        }
        ped /= 4.0;
        gain /= 4.0;

        //Get Channel Quality
        const HcalChannelStatus* channelStatus = conditions.getHcalChannelStatus(cell);
        status = channelStatus->getValue();

      } else {
        const HcalL1TriggerObject* myL1TObj = conditions.getHcalL1TriggerObject(cell);
        ped = myL1TObj->getPedestal();
        gain = myL1TObj->getRespGain();
        status = myL1TObj->getFlag();
      }  // LUTGenerationMode_

      ped_[lutId] = ped;
      gain_[lutId] = gain;
      bool isMasked = ((status & bitToMask_) > 0);
      float rcalib = meta->getRCalib();

      auto adc2fC = [channelCoder, shape](unsigned int adc) {
        float fC = 0;
        for (auto capId : {0, 1, 2, 3})
          fC += channelCoder->charge(*shape, adc, capId);
        return fC / 4;
      };

      int qieType = conditions.getHcalQIEType(cell)->getValue();

      const size_t SIZE = qieType == QIE8 ? INPUT_LUT_SIZE : UPGRADE_LUT_SIZE;
      const int MASK = qieType == QIE8 ? QIE8_LUT_BITMASK : qieType == QIE10 ? QIE10_LUT_BITMASK : QIE11_LUT_BITMASK;
      double linearLSB = linearLSB_QIE8_;
      if (qieType == QIE11 and cell.ietaAbs() == topo_->lastHBRing())
        linearLSB = linearLSB_QIE11Overlap_;
      else if (qieType == QIE11)
        linearLSB = linearLSB_QIE11_;

      lut.resize(SIZE, 0);

      // Input LUT for HB/HE/HF
      if (subdet == HcalBarrel || subdet == HcalEndcap) {
        int granularity = meta->getLutGranularity();

        double correctionPhaseNS = conditions.getHcalRecoParam(cell)->correctionPhaseNS();

        if (qieType == QIE11) {
          if (overrideDBweightsAndFilterHB_ and cell.ietaAbs() <= lastHBRing)
            correctionPhaseNS = containPhaseNSHB_;
          else if (overrideDBweightsAndFilterHE_ and cell.ietaAbs() > lastHBRing)
            correctionPhaseNS = containPhaseNSHE_;
        }
        for (unsigned int adc = 0; adc < SIZE; ++adc) {
          if (isMasked)
            lut[adc] = 0;
          else {
            double nonlinearityCorrection = 1.0;
            double containmentCorrection = 1.0;
            // SiPM nonlinearity was not corrected in 2017
            // and containment corrections  were not
            // ET-dependent prior to 2018
            if (is2018OrLater) {
              double containmentCorrection1TS = pulseCorr_->correction(cell, 1, correctionPhaseNS, adc2fC(adc));
              // Use the 1-TS containment correction to estimate the charge of the pulse
              // from the individual samples
              double correctedCharge = containmentCorrection1TS * adc2fC(adc);
              double containmentCorrection2TSCorrected =
                  pulseCorr_->correction(cell, 2, correctionPhaseNS, correctedCharge);
              if (qieType == QIE11) {
                // When contain1TS_ is set, it should still only apply for QIE11-related things
                if ((((contain1TSHB_ and overrideDBweightsAndFilterHB_) or newHBtp) and cell.ietaAbs() <= lastHBRing) or
                    (((contain1TSHE_ and overrideDBweightsAndFilterHE_) or newHEtp) and cell.ietaAbs() > lastHBRing)) {
                  containmentCorrection = containmentCorrection1TS;
                } else {
                  containmentCorrection = containmentCorrection2TSCorrected;
                }

                const HcalSiPMParameter& siPMParameter(*conditions.getHcalSiPMParameter(cell));
                HcalSiPMnonlinearity corr(
                    conditions.getHcalSiPMCharacteristics()->getNonLinearities(siPMParameter.getType()));
                const double fcByPE = siPMParameter.getFCByPE();
                const double effectivePixelsFired = correctedCharge / fcByPE;
                nonlinearityCorrection = corr.getRecoCorrectionFactor(effectivePixelsFired);
              } else {
                containmentCorrection = containmentCorrection2TSCorrected;
              }
            }
            if (allLinear_)
              lut[adc] = (LutElement)std::min(
                  std::max(0,
                           int((adc2fC(adc) - ped) * gain * rcalib * nonlinearityCorrection * containmentCorrection /
                               linearLSB / cosh_ieta(cell.ietaAbs(), cell.depth(), HcalEndcap))),
                  MASK);
            else
              lut[adc] =
                  (LutElement)std::min(std::max(0,
                                                int((adc2fC(adc) - ped) * gain * rcalib * nonlinearityCorrection *
                                                    containmentCorrection / nominalgain_ / granularity)),
                                       MASK);

            unsigned int linearizedADC =
                lut[adc];  // used for bits 12, 13, 14, 15 for Group 0 LUT for LLP time and depth bits that rely on linearized energies

            if (qieType == QIE11) {
              if (subdet == HcalBarrel) {  // edit since bits 12-15 not supported in HE yet
                if ((linearizedADC < bit12_energy and cell.depth() <= 2) or (cell.depth() >= 3))
                  lut[adc] |= 1 << 12;
                if (linearizedADC >= bit13_energy and cell.depth() >= 3)
                  lut[adc] |= 1 << 13;
                if (linearizedADC >= bit14_energy)
                  lut[adc] |= 1 << 14;
                if (linearizedADC >= bit15_energy)
                  lut[adc] |= 1 << 15;
              }
            }

            //Zeroing the 4th depth in the trigger towers where |ieta| = 16 to match the behavior in the uHTR firmware in Run3, where the 4th depth is not included in the sum over depths when constructing the TP energy for this tower.
            if (abs(cell.ieta()) == 16 && cell.depth() == 4 &&
                topo_->triggerMode() >= HcalTopologyMode::TriggerMode_2021) {
              lut[adc] = 0;
            }
          }
        }
      } else if (subdet == HcalForward) {
        for (unsigned int adc = 0; adc < SIZE; ++adc) {
          if (isMasked)
            lut[adc] = 0;
          else {
            lut[adc] = std::min(
                std::max(0, int((adc2fC(adc) - ped) * gain * rcalib / lsb_ / cosh_ieta_[cell.ietaAbs()])), MASK);
            if (adc > FG_HF_thresholds_[0])
              lut[adc] |= QIE10_LUT_MSB0;
            if (adc > FG_HF_thresholds_[1])
              lut[adc] |= QIE10_LUT_MSB1;
          }
        }
      }
    } else if (id.det() == DetId::Calo && id.subdetId() == HcalZDCDetId::SubdetectorId) {
      HcalZDCDetId cell(id.rawId());

      if (cell.section() != HcalZDCDetId::EM && cell.section() != HcalZDCDetId::HAD)
        continue;

      const HcalQIECoder* channelCoder = conditions.getHcalCoder(cell);
      const HcalQIEShape* shape = conditions.getHcalShape(cell);
      const HcalPedestal* effPedestals = conditions.getEffectivePedestal(cell);
      HcalCoderDb coder(*channelCoder, *shape);
      const HcalLutMetadatum* meta = metadata->getValues(cell);

      auto tpParam = conditions.getHcalTPChannelParameter(cell, false);
      int weight = tpParam->getauxi1();

      int lutId = getLUTId(cell);
      int lutId_ootpu = lutId + sizeZDC_;
      Lut& lut = inputLUT_[lutId];
      Lut& lut_ootpu = inputLUT_[lutId_ootpu];
      float ped = 0;
      float gain = 0;
      float pedWidth = 0;
      uint32_t status = 0;

      if (LUTGenerationMode_) {
        const HcalCalibrations& calibrations = conditions.getHcalCalibrations(cell);
        for (auto capId : {0, 1, 2, 3}) {
          ped += calibrations.effpedestal(capId);
          gain += calibrations.LUTrespcorrgain(capId);
          pedWidth += effPedestals->getWidth(capId);
        }
        ped /= 4.0;
        gain /= 4.0;
        pedWidth /= 4.0;

        const HcalChannelStatus* channelStatus = conditions.getHcalChannelStatus(cell);
        status = channelStatus->getValue();

      } else {
        const HcalL1TriggerObject* myL1TObj = conditions.getHcalL1TriggerObject(cell);
        ped = myL1TObj->getPedestal();
        gain = myL1TObj->getRespGain();
        status = myL1TObj->getFlag();
      }  // LUTGenerationMode_

      ped_[lutId] = ped;
      gain_[lutId] = gain;
      bool isMasked = ((status & bitToMask_) > 0);
      float rcalib = meta->getRCalib();

      auto adc2fC = [channelCoder, shape](unsigned int adc) {
        float fC = 0;
        for (auto capId : {0, 1, 2, 3})
          fC += channelCoder->charge(*shape, adc, capId);
        return fC / 4;
      };

      int qieType = conditions.getHcalQIEType(cell)->getValue();

      const size_t SIZE = qieType == QIE8 ? INPUT_LUT_SIZE : UPGRADE_LUT_SIZE;
      const int MASK = QIE10_ZDC_LUT_BITMASK;

      lut.resize(SIZE, 0);
      lut_ootpu.resize(SIZE, 0);

      for (unsigned int adc = 0; adc < SIZE; ++adc) {
        if (isMasked) {
          lut[adc] = 0;
          lut_ootpu[adc] = 0;
        } else {
          if ((adc2fC(adc) - ped) < (pedWidth * 5.)) {
            lut[adc] = 0;
            lut_ootpu[adc] = 0;
          } else {
            lut[adc] = std::min(std::max(0, int((adc2fC(adc) - ped) * gain * rcalib / zdc_lsb_)), MASK);
            lut_ootpu[adc] =
                std::min(std::max(0, int((adc2fC(adc) - ped) * gain * rcalib * weight / (zdc_lsb_ * 256))), MASK);
          }
        }
      }
    } else {
      continue;
    }
  }
}

void HcaluLUTTPGCoder::adc2Linear(const HBHEDataFrame& df, IntegerCaloSamples& ics) const {
  int lutId = getLUTId(df.id());
  const Lut& lut = inputLUT_.at(lutId);
  for (int i = 0; i < df.size(); i++) {
    ics[i] = (lut.at(df[i].adc()) & QIE8_LUT_BITMASK);
  }
}

void HcaluLUTTPGCoder::adc2Linear(const HFDataFrame& df, IntegerCaloSamples& ics) const {
  int lutId = getLUTId(df.id());
  const Lut& lut = inputLUT_.at(lutId);
  for (int i = 0; i < df.size(); i++) {
    ics[i] = (lut.at(df[i].adc()) & QIE8_LUT_BITMASK);
  }
}

void HcaluLUTTPGCoder::adc2Linear(const QIE10DataFrame& df, IntegerCaloSamples& ics, bool ootpu_lut) const {
  DetId detId = DetId(df.detid());
  if (detId.det() == DetId::Hcal) {
    int lutId = getLUTId(HcalDetId(df.id()));
    const Lut& lut = inputLUT_.at(lutId);
    for (int i = 0; i < df.samples(); i++) {
      ics[i] = (lut.at(df[i].adc()) & QIE10_LUT_BITMASK);
    }
  } else {
    int lutId = getLUTId(HcalZDCDetId(df.id()));
    if (ootpu_lut)
      lutId = lutId + sizeZDC_;
    const Lut& lut = inputLUT_.at(lutId);
    for (int i = 0; i < df.samples(); i++) {
      ics[i] = (lut.at(df[i].adc()) & QIE10_ZDC_LUT_BITMASK);
    }
  }
}

void HcaluLUTTPGCoder::adc2Linear(const QIE11DataFrame& df, IntegerCaloSamples& ics) const {
  int lutId = getLUTId(HcalDetId(df.id()));
  const Lut& lut = inputLUT_.at(lutId);
  for (int i = 0; i < df.samples(); i++) {
    ics[i] = (lut.at(df[i].adc()) & QIE11_LUT_BITMASK);
  }
}

unsigned short HcaluLUTTPGCoder::adc2Linear(HcalQIESample sample, HcalDetId id) const {
  int lutId = getLUTId(id);
  return ((inputLUT_.at(lutId)).at(sample.adc()) & QIE8_LUT_BITMASK);
}

std::vector<unsigned short> HcaluLUTTPGCoder::group0FGbits(const QIE11DataFrame& df) const {
  int lutId = getLUTId(HcalDetId(df.id()));
  const Lut& lut = inputLUT_.at(lutId);
  std::vector<unsigned short> group0LLPbits;
  group0LLPbits.reserve(df.samples());
  for (int i = 0; i < df.samples(); i++) {
    group0LLPbits.push_back((lut.at(df[i].adc()) >> 12) &
                            0xF);  // four bits (12-15) of LUT used to set 6 finegrain bits from uHTR
  }
  return group0LLPbits;
}

float HcaluLUTTPGCoder::getLUTPedestal(HcalDetId id) const {
  int lutId = getLUTId(id);
  return ped_.at(lutId);
}

float HcaluLUTTPGCoder::getLUTGain(HcalDetId id) const {
  int lutId = getLUTId(id);
  return gain_.at(lutId);
}

std::vector<unsigned short> HcaluLUTTPGCoder::getLinearizationLUT(HcalDetId id) const {
  int lutId = getLUTId(id);
  return inputLUT_.at(lutId);
}

std::vector<unsigned short> HcaluLUTTPGCoder::getLinearizationLUT(HcalZDCDetId id, bool ootpu_lut) const {
  int lutId = getLUTId(id);
  if (ootpu_lut)
    return inputLUT_.at(lutId + sizeZDC_);
  else
    return inputLUT_.at(lutId);
}

void HcaluLUTTPGCoder::lookupMSB(const HBHEDataFrame& df, std::vector<bool>& msb) const {
  msb.resize(df.size());
  for (int i = 0; i < df.size(); ++i)
    msb[i] = getMSB(df.id(), df.sample(i).adc());
}

bool HcaluLUTTPGCoder::getMSB(const HcalDetId& id, int adc) const {
  int lutId = getLUTId(id);
  const Lut& lut = inputLUT_.at(lutId);
  return (lut.at(adc) & QIE8_LUT_MSB);
}

void HcaluLUTTPGCoder::lookupMSB(const QIE10DataFrame& df, std::vector<std::bitset<2>>& msb) const {
  msb.resize(df.samples());
  int lutId = getLUTId(HcalDetId(df.id()));
  const Lut& lut = inputLUT_.at(lutId);
  for (int i = 0; i < df.samples(); ++i) {
    msb[i][0] = lut.at(df[i].adc()) & QIE10_LUT_MSB0;
    msb[i][1] = lut.at(df[i].adc()) & QIE10_LUT_MSB1;
  }
}

void HcaluLUTTPGCoder::lookupMSB(const QIE11DataFrame& df, std::vector<std::bitset<2>>& msb) const {
  int lutId = getLUTId(HcalDetId(df.id()));
  const Lut& lut = inputLUT_.at(lutId);
  for (int i = 0; i < df.samples(); ++i) {
    msb[i][0] = lut.at(df[i].adc()) & QIE11_LUT_MSB0;
    msb[i][1] = lut.at(df[i].adc()) & QIE11_LUT_MSB1;
  }
}