TRTMonitoringRun3RAW_Alg.cxx

Go to the documentation of this file.

/*
  Copyright (C) 2002-2025 CERN for the benefit of the ATLAS collaboration
*/
 
#define FILLEVENTNORMALIZATION(NBINS, MIN, WIDTH, VALUE, VARPASSED, VAR, HISTGROUP) \
for (int i = 1; i <= NBINS; i++) \
    if (MIN + WIDTH*(i-1) >= VALUE || MIN + WIDTH*(i+1) <= VALUE) \
    { \
        VARPASSED = 0.0; \
        VAR = i; \
        fill(HISTGROUP, VARPASSED, VAR); \
    }
 
#include "TRTMonitoringRun3/TRTMonitoringRun3RAW_Alg.h"
 
#include "AthContainers/DataVector.h"
#include "TRT_ReadoutGeometry/TRT_DetectorManager.h"
#include "InDetRIO_OnTrack/TRT_DriftCircleOnTrack.h"
#include "TrkTrackSummary/TrackSummary.h"
#include "AtlasDetDescr/AtlasDetectorID.h"
#include "InDetIdentifier/TRT_ID.h"
#include "InDetRawData/InDetRawDataContainer.h"
#include "TrkTrack/Track.h"
#include "TrkTrack/TrackCollection.h"
#include "TRT_ConditionsServices/ITRT_CalDbTool.h"
#include "TRT_ConditionsServices/ITRT_ConditionsSvc.h"
#include "TRT_ConditionsServices/ITRT_StrawStatusSummaryTool.h"
#include "TRT_ConditionsServices/ITRT_DAQ_ConditionsSvc.h"
#include "TRT_ConditionsServices/ITRT_StrawNeighbourSvc.h"
#include "InDetConditionsSummaryService/IInDetConditionsSvc.h"
 
#include "EventPrimitives/EventPrimitivesHelpers.h"
#include "CxxUtils/trapping_fp.h"
 
#include <sstream>
#include <iomanip>
#include <memory>
#include <cmath>
using namespace std;
 
//Private Static Const data member initialization
constexpr int TRTMonitoringRun3RAW_Alg::s_numberOfBarrelStacks = 32;
constexpr int TRTMonitoringRun3RAW_Alg::s_numberOfEndCapStacks = 32;
constexpr int TRTMonitoringRun3RAW_Alg::s_Straw_max[2] = {1642, 3840};
constexpr int TRTMonitoringRun3RAW_Alg::s_iChip_max[2] = {104, 240};
 
TRTMonitoringRun3RAW_Alg::TRTMonitoringRun3RAW_Alg( const std::string& name, ISvcLocator* pSvcLocator )
:AthMonitorAlgorithm(name,pSvcLocator)
{
}
 
TRTMonitoringRun3RAW_Alg::~TRTMonitoringRun3RAW_Alg() {}
 
StatusCode TRTMonitoringRun3RAW_Alg::initialize() {
    using namespace Monitored;
 
    ATH_MSG_VERBOSE("Initializing TRT Monitoring");
 
    // initialize superclass
    ATH_CHECK( AthMonitorAlgorithm::initialize() );
 
    // Retrieve detector manager.
    ATH_CHECK( detStore()->retrieve(m_mgr, "TRT") );
    // Get ID helper for TRT to access various detector components like straw, straw_layer, layer_or_wheel, phi_module, etc...
    ATH_CHECK( detStore()->retrieve(m_pTRTHelper, "TRT_ID") );
    ATH_CHECK( detStore()->retrieve(m_idHelper, "AtlasID") );
 
    if (m_doExpert) {
        // Retrieve the TRT_Straw Status Service.
        if (m_sumTool.name().empty()) {
            ATH_MSG_WARNING("TRT_StrawStatusTool not given.");
        } else {
            ATH_CHECK( m_sumTool.retrieve() );
        }
 
        Identifier ident;
 
        if (m_sumTool.name() != "") {
            ATH_MSG_VERBOSE("Trying " << m_sumTool << " isGood");
            ATH_MSG_VERBOSE("TRT_StrawStatusTool reports status = " << m_sumTool->getStatus(ident, Gaudi::Hive::currentContext()));
        }
 
        // Retrieve the TRT_ByteStreamService.
        if (m_BSSvc.name().empty()) {
            ATH_MSG_WARNING("TRT_ByteStreamSvc not given.");
        } else {
            ATH_CHECK( m_BSSvc.retrieve() );
        }
    }//If do expert
 
    // Get Track summary tool
    if (m_TrackSummaryTool.retrieve().isFailure())
        ATH_MSG_ERROR("Cannot get TrackSummaryTool");
    else
        ATH_MSG_DEBUG("Retrieved succesfully the track summary tool" << m_TrackSummaryTool);
 
    // Retrieve TRTTrackHoleSearchTool
    if (m_useHoleFinder || m_doExpert) {
      ATH_CHECK( m_trt_hole_finder.retrieve() );
    }
    else {
      m_trt_hole_finder.disable();
    }
 
    // Initialization of VarHandleKeys
    ATH_CHECK( m_rdoContainerKey.initialize() );
    ATH_CHECK( m_TRT_BCIDCollectionKey.initialize() );
    ATH_CHECK( m_combTrackCollectionKey.initialize() );
    ATH_CHECK( m_trackCollectionKey.initialize() );
    ATH_CHECK( m_bsErrContKey.initialize(SG::AllowEmpty) );
 
    // InDetTrackSelectionTools initialization:
    ATH_CHECK( m_trackSelTool.retrieve() );
 
    // initialize chip lookup maps
    ATH_CHECK( m_TRTStrawNeighbourSvc.retrieve() );
 
    //loop over straw hash index to create straw number mapping for TRTViewer
    unsigned int maxHash = m_pTRTHelper->straw_layer_hash_max();
 
    for (int ibe = 0; ibe < 2; ibe++) { // ibe=0(barrel), ibe=1(endcap)
        for (unsigned int index = 0; index < maxHash; index++) {
            IdentifierHash idHash = index;
            Identifier id = m_pTRTHelper->layer_id(idHash);
            int idBarrelEndcap = m_pTRTHelper->barrel_ec(id);
            int idLayerWheel   = m_pTRTHelper->layer_or_wheel(id);
            int idPhiModule    = m_pTRTHelper->phi_module(id);
            int idStrawLayer   = m_pTRTHelper->straw_layer(id);
            bool isBarrel = m_pTRTHelper->is_barrel(id);
            int idSide;
            int sectorflag = 0;
            const InDetDD::TRT_BaseElement *element = nullptr;
 
            if (ibe == 0) { // barrel
                idSide = idBarrelEndcap ? 1 : -1;
 
                if (isBarrel && (idBarrelEndcap == -1)) {
                    sectorflag = 1;
                    element = m_mgr->getBarrelElement(idSide, idLayerWheel, idPhiModule, idStrawLayer);
                }
            } else if (ibe == 1) { // endcap
                idSide = idBarrelEndcap ? 1 : 0;
 
                if (!isBarrel && ((idBarrelEndcap == -2) || (idBarrelEndcap == 2))) {
                    sectorflag = 1;
                    element = m_mgr->getEndcapElement(idSide, idLayerWheel, idStrawLayer, idPhiModule);//, idStrawLayer_ec);
                }
            }
 
            if (sectorflag == 1) {
                if (!element) continue;
 
                for (unsigned int istraw = 0; istraw < element->nStraws(); istraw++) {
                    std::vector<Identifier> neighbourIDs;
                    Identifier strawID = m_pTRTHelper->straw_id(id, int(istraw));
                    int i_chip, i_pad;
                    m_TRTStrawNeighbourSvc->getChip(strawID, i_chip);
                    m_TRTStrawNeighbourSvc->getPad(id, i_pad);
 
                    if (ibe == 0) { //barrel
                        if (idLayerWheel == 1) i_chip += 21;
 
                        if (idLayerWheel == 2) i_chip += 54;
 
                        int tempStrawNumber = strawNumber(istraw, idStrawLayer, idLayerWheel);
 
                        if (tempStrawNumber < 0 || tempStrawNumber > (s_Straw_max[ibe] - 1)) {
                            ATH_MSG_WARNING("Found tempStrawNumber = " << tempStrawNumber << " out of range.");
                        } else {
                            m_mat_chip_B.at(idPhiModule).at(tempStrawNumber) = i_chip;
                            m_mat_chip_B.at(idPhiModule + 32).at(tempStrawNumber) = i_chip;
                        }
                    } else if (ibe == 1) { //endcap
                        ++i_chip -= 104;
                        int tempStrawNumber = strawNumberEndCap(istraw, idStrawLayer, idLayerWheel, idPhiModule, idSide);
 
                        if (tempStrawNumber < 0 || tempStrawNumber > (s_Straw_max[ibe] - 1)) {
                            ATH_MSG_WARNING("Found tempStrawNumber = " << tempStrawNumber << " out of range.");
                        } else {
                            m_mat_chip_E.at(idPhiModule).at(tempStrawNumber)    = i_chip;
                            m_mat_chip_E.at(idPhiModule + 32).at(tempStrawNumber) = i_chip;
                        }
                    }
                }
            }
        }
    }
 
    return StatusCode::SUCCESS;
}
 
//----------------------------------------------------------------------------------//
std::vector<std::vector<std::vector<int>>> TRTMonitoringRun3RAW_Alg::initScaleVectors(const EventContext& ctx) const {
//----------------------------------------------------------------------------------//
// if (m_flagforscale == 0 ) return 0;
    std::vector<std::vector<std::vector<int>>> scale_hHitWMap;
    std::vector<std::vector<int>> scale_hHitWMap_B, scale_hHitWMap_EA, scale_hHitWMap_EC;
    std::vector<int> scale_B_Xe, scale_B_Ar, scale_EA_Xe, scale_EA_Ar, scale_EC_Xe, scale_EC_Ar;
 
    scale_hHitWMap.clear();
    scale_hHitWMap_B.clear();
    scale_hHitWMap_EA.clear();
    scale_hHitWMap_EC.clear();
    scale_B_Xe.clear();
    scale_B_Ar.clear();
    scale_EA_Xe.clear();
    scale_EA_Ar.clear();
    scale_EC_Xe.clear();
    scale_EC_Ar.clear();
 
    for (int i = 0; i < s_Straw_max[0]; i++) {
        float countAr = 0;
        float countXe = 0;
        int sN, sLN, lN;
        strawNumber_reverse(i, &sN, &sLN, &lN);
 
        for (int side = -1 ; side < 2; side += 2 ) {
            for (int j = 0; j < 32; j++ ) {
                Identifier Dummy_Identifier;
                Dummy_Identifier = m_pTRTHelper->straw_id(side, j, lN, sLN, sN);
                bool isArgonStraw = (Straw_Gastype( m_sumTool->getStatusHT(Dummy_Identifier, ctx) ) == GasType::Ar);
 
                if (isArgonStraw)
                    countAr += 1.0;
                else
                    countXe += 1.0;
            }
        }
        scale_B_Xe.push_back(countXe);
        scale_B_Ar.push_back(countAr);
    }
 
    for (int i = 0; i < s_Straw_max[1]; i++) {
        scale_EA_Xe.push_back(32);
        scale_EA_Ar.push_back(32);
        scale_EC_Xe.push_back(32);
        scale_EC_Ar.push_back(32);
    }
 
    scale_hHitWMap_B.push_back(scale_B_Xe);
    scale_hHitWMap_B.push_back(scale_B_Ar);
    scale_hHitWMap_EA.push_back(scale_EA_Xe);
    scale_hHitWMap_EA.push_back(scale_EA_Ar);
    scale_hHitWMap_EC.push_back(scale_EC_Xe);
    scale_hHitWMap_EC.push_back(scale_EC_Ar);
    scale_hHitWMap.push_back(scale_hHitWMap_B);
    scale_hHitWMap.push_back(scale_hHitWMap_EA);
    scale_hHitWMap.push_back(scale_hHitWMap_EC);
 
// m_flagforscale = 0;
    return scale_hHitWMap;
}
 
 
//-------------------------------------------------------------------------------------------------//
StatusCode TRTMonitoringRun3RAW_Alg::checkTRTReadoutIntegrity(const xAOD::EventInfo& eventInfo) const {
//-------------------------------------------------------------------------------------------------//
    StatusCode sc = StatusCode::SUCCESS;
 
    auto ChipBSErrorsVsLB_x = Monitored::Scalar<float>("ChipBSErrorsVsLB_x", 0.0);
    auto ChipBSErrorsVsLB_y = Monitored::Scalar<float>("ChipBSErrorsVsLB_y", 0.0);
    auto RobBSErrorsVsLB_x  = Monitored::Scalar<float>("RobBSErrorsVsLB_x", 0.0);
    auto RobBSErrorsVsLB_y  = Monitored::Scalar<float>("RobBSErrorsVsLB_y", 0.0);
 
    const TRT_BSErrContainer emptyErrCont;//Empty dummy instance for MC
    const TRT_BSErrContainer* bsErrCont=&emptyErrCont;
 
    if (!m_bsErrContKey.empty()) {
      //Regular real-data case, get the byte-stream errors from SG
      SG::ReadHandle<TRT_BSErrContainer> bsErrContHdl{m_bsErrContKey};
      bsErrCont=bsErrContHdl.cptr();
    }
    else {
      ATH_MSG_DEBUG("MC case, using dummy TRT_BSErrContainer");
    }
 
    const unsigned int lumiBlock = eventInfo.lumiBlock();
    ATH_MSG_VERBOSE("This is lumiblock : " << lumiBlock);
 
    //if ((int)lumiBlock != m_lastLumiBlock) {
    //    m_lastLumiBlock = lumiBlock;
    //}
 
    //Get BSConversion errors
    const std::set<std::pair<uint32_t, uint32_t> > &L1IDErrorSet      = bsErrCont->getL1ErrorSet();
    const std::set<std::pair<uint32_t, uint32_t> > &BCIDErrorSet      = bsErrCont->getBCIDErrorSet();
    const std::set<uint32_t>                       &MissingErrorSet   = bsErrCont->getMissingErrorSet();
    const std::set<uint32_t>                       &SidErrorSet       = bsErrCont->getSidErrorSet();
    const std::set<std::pair<uint32_t, uint32_t> > &RobStatusErrorSet = bsErrCont->getRobErrorSet();
 
    const unsigned int rod_id_base[2][2] = { { 0x310000, 0x320000 }, { 0x330000, 0x340000 } };
    const unsigned int nChipsTotal[2][2] = { {     3328,     3328 }, {     7680,     7680 } };
    const unsigned int nRobsTotal[2][2]  = { {       32,       32 }, {       64,       64 } };
    float nBSErrors[2][2]  = { { 0, 0 }, { 0, 0 } };
    float nRobErrors[2][2] = { { 0, 0 }, { 0, 0 } };
 
    const std::set<std::pair<uint32_t, uint32_t> > *errorset1[2] = { &BCIDErrorSet, &L1IDErrorSet };
 
    for (int iset = 0; iset < 2; ++iset) {
        for (auto setIt = errorset1[iset]->begin(); setIt != errorset1[iset]->end(); ++setIt) {
            for (int ibe = 0; ibe < 2; ++ibe) {
                for (int iside = 0; iside < 2; ++iside) {
                    if (((setIt->first >> 8) & 0xFF0000) == rod_id_base[ibe][iside]) {
                        nBSErrors[ibe][iside] += 1. / nChipsTotal[ibe][iside];
                    }
                }
            }
        }
    }
 
    const std::set<uint32_t> *errorset2[2] = { &MissingErrorSet, &SidErrorSet };
 
    for (int iset = 0; iset < 2; ++iset) {
        for (auto setIt = errorset2[iset]->begin(); setIt != errorset2[iset]->end(); ++setIt) {
            for (int ibe = 0; ibe < 2; ++ibe) {
                for (int iside = 0; iside < 2; ++iside) {
                    if (((*setIt >> 8) & 0xFF0000) == rod_id_base[ibe][iside]) {
                        nBSErrors[ibe][iside] += 1. / nChipsTotal[ibe][iside];
                    }
                }
            }
        }
    }
 
    for (int ibe = 0; ibe < 2; ++ibe) {
        for (int iside = 0; iside < 2; ++iside) {
            ChipBSErrorsVsLB_x = lumiBlock;
            ChipBSErrorsVsLB_y = nBSErrors[ibe][iside];
        for (unsigned int i = 0; i < lumiBlock; i++) // we need this so the LastBinThreshold algorithm can find the last bin
            fill("RDOShiftSmryRebinnedHistograms"+std::to_string(ibe)+std::to_string(iside), ChipBSErrorsVsLB_x, ChipBSErrorsVsLB_y);
        }
    }
 
    for (auto setIt = RobStatusErrorSet.begin(); setIt != RobStatusErrorSet.end(); ++setIt) {
        for (int ibe = 0; ibe < 2; ++ibe) {
            for (int iside = 0; iside < 2; ++iside) {
                if (setIt->first % rod_id_base[ibe][iside] < 0xffff) {
                    nRobErrors[ibe][iside] += 1. / nRobsTotal[ibe][iside];
                }
            }
        }
    }
 
    for (int ibe = 0; ibe < 2; ++ibe) {
        for (int iside = 0; iside < 2; ++iside) {
            RobBSErrorsVsLB_x = lumiBlock;
            RobBSErrorsVsLB_y = nRobErrors[ibe][iside];
            for (unsigned int i = 0; i < lumiBlock; i++) // we need this so the LastBinThreshold algorithm can find the last bin
                fill("RDOShiftSmryRebinnedHistograms"+std::to_string(ibe)+std::to_string(iside), RobBSErrorsVsLB_x, RobBSErrorsVsLB_y);
        }
    }
 
    return sc;
}
 
 
//----------------------------------------------------------------------------------//
int TRTMonitoringRun3RAW_Alg::chipToBoard(int chip) const {
//----------------------------------------------------------------------------------//
    // return logical board index:
    // 0 for Board 1S (has 10 chips)  0 -  9
    // 1 for 1L (11)                 10 - 20
    // 2 for 2S (15)                 21 - 35
    // 3 for 2L, first 9 chips       36 - 44
    // 4 for 2L, second 9 chips      45 - 53
    // 5 for 3S, first 11            54 - 64
    // 6 for 3S, second 12           65 - 76
    // 7 for 3L, first 13            77 - 89
    // 8 for 3L, second 14           90 - 103
    const int list[] = {10, 11, 15, 9, 9, 11, 12, 13, 14};
    int count = 0;
    chip--;
 
    for (int i = 0; i < 9; i++) {
        count += list[i];
 
        if (chip < count) return i + 1;
        else if (chip == 104) return 9;
    }
 
    assert(count == 104);
    assert(false); // should never come this far
    return -1;
}
 
 
//----------------------------------------------------------------------------------//
int TRTMonitoringRun3RAW_Alg::chipToBoard_EndCap(int chip) const {
//----------------------------------------------------------------------------------//
    const int remainder = (chip - 1) % 12;
    const int Board = int(((chip - 1) - remainder) / 12);
    return Board + 1;
}
 
 
 
// Check for EventBurst: Counts high level hits and returns true if the count is less than m_passEventBurstCut.
// If m_EventBurstCut is less than zero, returns allways true
//----------------------------------------------------------------------------------//
bool TRTMonitoringRun3RAW_Alg::checkEventBurst(const TRT_RDO_Container& rdoContainer) const {
//----------------------------------------------------------------------------------//
    if (m_EventBurstCut <= 0) return true;
 
    int nHLHits = 0;
    TRT_RDO_Container::const_iterator RDO_CollectionBegin = rdoContainer.begin();
    TRT_RDO_Container::const_iterator RDO_CollectionEnd   = rdoContainer.end();
 
    for (; RDO_CollectionBegin != RDO_CollectionEnd; ++RDO_CollectionBegin) {
        const InDetRawDataCollection<TRT_RDORawData> *TRT_Collection(*RDO_CollectionBegin);
 
        if (!TRT_Collection) continue;
        else {
            DataVector<TRT_RDORawData>::const_iterator p_rdo = TRT_Collection->begin();
 
            for (; p_rdo != TRT_Collection->end(); ++p_rdo) {
                const TRT_LoLumRawData *p_lolum = dynamic_cast<const TRT_LoLumRawData *>(*p_rdo);
 
                if (!p_lolum) continue;
 
                if (p_lolum->highLevel()) nHLHits++;
            }
        }
    }
 
    if (nHLHits > m_EventBurstCut) return false;
    else return true;
}
 
 
 
// Returns the straw number (0-1641) given the layerNumber, strawlayerNumber, and strawNumber, all gotten from Athena IDHelper
//----------------------------------------------------------------------------------//
int TRTMonitoringRun3RAW_Alg::strawNumber(int strawNumber, int strawlayerNumber, int LayerNumber) const {
//----------------------------------------------------------------------------------//
    int addToStrawNumber = 0;
    int addToStrawNumberNext = 0;
    int i = 0;
    const int numberOfStraws[75] = {
        0,
        15,
        16, 16, 16, 16,
        17, 17, 17, 17, 17,
        18, 18, 18, 18, 18,
        19, 19, 19,
        18,
        19,
        20, 20, 20, 20, 20,
        21, 21, 21, 21, 21,
        22, 22, 22, 22, 22,
        23, 23, 23, 23, 23,
        24, 24,
        23, 23,
        24, 24, 24, 24,
        25, 25, 25, 25, 25,
        26, 26, 26, 26, 26,
        27, 27, 27, 27, 27,
        28, 28, 28, 28, 28,
        29, 29, 29, 29,
        28,
        0
    };
 
    do {
        i++;
        addToStrawNumber += numberOfStraws[i - 1];
        addToStrawNumberNext = addToStrawNumber + numberOfStraws[i];
    } while (strawLayerNumber(strawlayerNumber, LayerNumber) != i - 1);
 
    strawNumber = addToStrawNumberNext - strawNumber - 1;
 
    if (strawNumber < 0 || strawNumber > s_Straw_max[0] - 1) {
        ATH_MSG_WARNING("strawNumber = " << strawNumber << " out of range. Will set to 0.");
        strawNumber = 0;
    }
 
    return strawNumber;
}
 
//----------------------------------------------------------------------------------//
int TRTMonitoringRun3RAW_Alg::strawNumber_reverse (int inp_strawnumber,  int *strawNumber, int *strawlayerNumber, int *LayerNumber) const {
//----------------------------------------------------------------------------------//
    const int numberOfStraws[75] = {
        0,
        15,
        16, 16, 16, 16,
        17, 17, 17, 17, 17,
        18, 18, 18, 18, 18,
        19, 19, 19,
        18,
        19,
        20, 20, 20, 20, 20,
        21, 21, 21, 21, 21,
        22, 22, 22, 22, 22,
        23, 23, 23, 23, 23,
        24, 24,
        23, 23,
        24, 24, 24, 24,
        25, 25, 25, 25, 25,
        26, 26, 26, 26, 26,
        27, 27, 27, 27, 27,
        28, 28, 28, 28, 28,
        29, 29, 29, 29,
        28,
        0
    };
    //ToDo check inp_strawnumber
    int i = 1;
 
    for (i = 1; inp_strawnumber >= 0; i++) {
        inp_strawnumber -= numberOfStraws[i];
    }
 
    i -= 2;
    strawLayerNumber_reverse(i, strawlayerNumber, LayerNumber);
    *strawNumber = -inp_strawnumber - 1;
    return 0;
}
 
//----------------------------------------------------------------------------------//
int TRTMonitoringRun3RAW_Alg::strawNumberEndCap(int strawNumber, int strawLayerNumber, int LayerNumber, int phi_stack, int side) const {
//----------------------------------------------------------------------------------//
    // Before perfoming map, corrections need to be perfomed.
    //  apply special rotations for endcap mappings
    // for eca, rotate triplets by 180 for stacks 9-16, and 25-32.
    static const int TripletOrientation[2][32] = {
        {
            1, 1, 1, 1, 1, 1, 1, 1,
            0, 0, 0, 0, 0, 0, 0, 0,
            1, 1, 1, 1, 1, 1, 1, 1,
            0, 0, 0, 0, 0, 0, 0, 0
        },
        {
            1, 1, 1, 1, 1, 1, 1, 1,
            0, 0, 0, 0, 0, 0, 0, 0,
            1, 1, 1, 1, 1, 1, 1, 1,
            0, 0, 0, 0, 0, 0, 0, 0
        }
    };
    int phi1 = -1;
 
    if (side == 2) phi1 = phi_stack, side = 1;
    else if (side == -2) phi1 = 31 - phi_stack, side = 0;
 
    if (phi1 > -1) {
        if (TripletOrientation[side][phi1]) {
            //Change straw number from 0-23 in straw layer to 0-192
            if (strawLayerNumber < 8)strawNumber = strawNumber + 24 * strawLayerNumber;
 
            if (strawLayerNumber > 7)strawNumber = strawNumber + 24 * (strawLayerNumber - 8);
 
            strawNumber = (192 - 1) * TripletOrientation[side][phi1] + strawNumber * (1 - 2 * TripletOrientation[side][phi1]); //actual rotation
 
            //take strawNumber back to 0-23
            if (strawLayerNumber < 8) strawLayerNumber = int(strawNumber / 24);
 
            if (strawLayerNumber > 7) strawLayerNumber = int(strawNumber / 24) + 8;
 
            strawNumber = strawNumber % 24;
        }
 
        //Finish rotation
        //Flip straw in layer.
 
        if (side == 0) strawNumber = 23 - strawNumber;
 
        //Finish Flipping
    }
 
    // Done with corrections
    // Start mapping from athena identifiers to TRTViewer maps
    int strawNumberNew = 0;
 
    if (LayerNumber < 6 && strawLayerNumber > 7) {
        strawNumberNew = strawNumberNew + (384 * LayerNumber);
        strawNumberNew = strawNumberNew + 192 + (strawLayerNumber % 8) + (strawNumber * 8);
    } else if (LayerNumber < 6 && strawLayerNumber < 8) {
        strawNumberNew = strawNumberNew + (384 * LayerNumber);
        strawNumberNew = strawNumberNew + (strawLayerNumber % 8) + (strawNumber * 8);
    } else if (LayerNumber > 5 && strawLayerNumber > 7) {
        strawNumberNew = strawNumberNew + 2304 + 192 * (LayerNumber - 6);
        strawNumberNew = strawNumberNew + 192 + (strawLayerNumber % 8) + (8 * strawNumber);
    } else if (LayerNumber > 5 && strawLayerNumber < 8) {
        strawNumberNew = strawNumberNew + 2304 + 192 * (LayerNumber - 6);
        strawNumberNew = strawNumberNew + (strawLayerNumber % 8) + (8 * strawNumber);
    }
 
    strawNumber = strawNumberNew;
 
    if (strawNumber < 0 || strawNumber > s_Straw_max[1] - 1) {
        ATH_MSG_WARNING("strawNumber = " << strawNumber << " out of range. Will set to 0.");
        strawNumber = 0;
    }
 
    return strawNumber;
}
 
 
//----------------------------------------------------------------------------------//
int TRTMonitoringRun3RAW_Alg::strawLayerNumber(int strawLayerNumber, int LayerNumber) const{
//----------------------------------------------------------------------------------//
    switch (LayerNumber) {
    case 0:
        return strawLayerNumber;
 
    case 1:
        return strawLayerNumber + 19;
 
    case 2:
        return strawLayerNumber + 43;
 
    default:
        return strawLayerNumber;
    }
}
 
//----------------------------------------------------------------------------------//
int TRTMonitoringRun3RAW_Alg::strawLayerNumber_reverse(int strawLayerNumInp, int *strawLayerNumber, int *LayerNumber) const {
//----------------------------------------------------------------------------------//
    //Danger? There are no checks on input
    //use with care
    if (strawLayerNumInp < 19) {
        *strawLayerNumber = strawLayerNumInp;
        *LayerNumber = 0;
    } else if (strawLayerNumInp < 43) {
        *strawLayerNumber = strawLayerNumInp - 19;
        *LayerNumber = 1;
    } else {
        *strawLayerNumber = strawLayerNumInp - 43;
        *LayerNumber = 2;
    }
 
    return 0;
}
 
//----------------------------------------------------------------------------------//
float TRTMonitoringRun3RAW_Alg::radToDegrees(float radValue) const{
//----------------------------------------------------------------------------------//
    float degreeValue = radValue / M_PI * 180;
 
    if (degreeValue < 0) degreeValue += 360;
 
    return degreeValue;
}
 
struct straw_struct {
    int strawNumber;
    float HitTrMapS_y;
    float HitToTMapS_y;
    bool HitToTLong_cut;
    bool HitTrWMapS_cut;
    float HitTrWMapS_y;
};
 
struct chip_struct {
    int chipNumber;
    float HitTrMapC_y;
    bool HitTrWMapC_cut;
    float HitToTMapC_y;
    int HtoBCMapC_x;
    int HtoBCMapB_x;
    int HtoBCMapB_y;
    bool HtoBCMap_cut;
};
 
struct straw_struct_prob {
    int strawNumber;
    bool HitHWMapS_cut;
    float HitHWMapS_passed;
    bool HitWMapS_cut;
    float HitWMapS_passed;
    bool HitAMapS_cut;
    float HitAMapS_passed;
    bool HitAWMapS_cut;
    float HitAWMapS_passed;
    bool HitHMapS_cut;
    float HitHMapS_passed;
};
 
struct chip_struct_prob {
    int chipNumber;
    bool HitHWMapC_cut;
    float HitHWMapC_passed;
    bool HitWMapC_cut;
    float HitWMapC_passed;
    bool HitAMapC_cut;
    float HitAMapC_passed;
    bool HitAWMapC_cut;
    float HitAWMapC_passed;
    bool HitHMapC_cut;
    float HitHMapC_passed;
};
 
struct straw_shifter_struct {
    int strawNumber;
    bool isAr;
    float HitWMap_passed;
    float HitWMap_Ar_passed;
};
 
//Fill the TRT RDO Histograms
//----------------------------------------------------------------------------------//
StatusCode TRTMonitoringRun3RAW_Alg::fillTRTRDOs(const EventContext& ctx,
                                                 const TRT_RDO_Container& rdoContainer,
                                                 const xAOD::EventInfo& eventInfo,
                                                 const InDetTimeCollection* trtBCIDCollection) const {
//----------------------------------------------------------------------------------//
    ATH_MSG_DEBUG("Filling TRT RDO Histograms");
 
    // TProfile
    auto HitToTLongTrMapS_x   = Monitored::Scalar<float>("HitToTLongTrMapS_x", 0.0);
    auto HitToTLongTrMapS_y   = Monitored::Scalar<float>("HitToTLongTrMapS_y", 0.0);
    auto HitToTLongMapS_x     = Monitored::Scalar<float>("HitToTLongMapS_x", 0.0);
    auto HitToTLongMapS_y     = Monitored::Scalar<float>("HitToTLongMapS_y", 0.0);
    auto BCIDvsOcc_x          = Monitored::Scalar<float>("BCIDvsOcc_x", 0.0);
    auto BCIDvsOcc_y          = Monitored::Scalar<float>("BCIDvsOcc_y", 0.0);
    auto AvgHLOcc_side_x      = Monitored::Scalar<float>("AvgHLOcc_side_x", 0.0);
    auto AvgHLOcc_side_y      = Monitored::Scalar<float>("AvgHLOcc_side_y", 0.0);
    auto AvgLLOcc_side_x      = Monitored::Scalar<float>("AvgLLOcc_side_x", 0.0);
    auto AvgLLOcc_side_y      = Monitored::Scalar<float>("AvgLLOcc_side_y", 0.0);
    auto AvgLLOccMod_side_x   = Monitored::Scalar<float>("AvgLLOccMod_side_x", 0.0);
    auto AvgLLOccMod_side_y   = Monitored::Scalar<float>("AvgLLOccMod_side_y", 0.0);
    auto AvgHLOccMod_side_x   = Monitored::Scalar<float>("AvgHLOccMod_side_x", 0.0);
    auto AvgHLOccMod_side_y   = Monitored::Scalar<float>("AvgHLOccMod_side_y", 0.0);
    auto ChipBSErrorsVsLB_x   = Monitored::Scalar<float>("ChipBSErrorsVsLB_x", 0.0);
    auto ChipBSErrorsVsLB_y   = Monitored::Scalar<float>("ChipBSErrorsVsLB_y", 0.0);
    auto RobBSErrorsVsLB_x    = Monitored::Scalar<float>("RobBSErrorsVsLB_x", 0.0);
    auto RobBSErrorsVsLB_y    = Monitored::Scalar<float>("RobBSErrorsVsLB_y", 0.0);
    auto NHitsperLB_x         = Monitored::Scalar<float>("NHitsperLB_x", 0.0);
    auto NHitsperLB_y         = Monitored::Scalar<float>("NHitsperLB_y", 0.0);
    auto NHLHitsperLB_x       = Monitored::Scalar<float>("NHLHitsperLB_x", 0.0);
    auto NHLHitsperLB_y       = Monitored::Scalar<float>("NHLHitsperLB_y", 0.0);
 
    // TH1F
    auto OccAll               = Monitored::Scalar<float>("OccAll", 0.0);
 
    // TH2F
 
    // TEfficiency
    auto HtoLMapS             = Monitored::Scalar<float>("HtoLMapS", 0.0);
    auto HtoLMapS_passed      = Monitored::Scalar<bool>("HtoLMapS_passed", false);
    auto HtoLMapC             = Monitored::Scalar<float>("HtoLMapC", 0.0);
    auto HtoLMapC_passed      = Monitored::Scalar<bool>("HtoLMapC_passed", false);
    auto OccupancyC           = Monitored::Scalar<float>("OccupancyC", 0.0);
    auto OccupancyC_passed    = Monitored::Scalar<bool>("OccupancyC_passed", false);
    auto StrawOcc             = Monitored::Scalar<float>("StrawOcc", 0.0);
    auto StrawOcc_passed      = Monitored::Scalar<bool>("StrawOcc_passed", false);
 
    const unsigned int lumiBlock = eventInfo.lumiBlock();
    ATH_MSG_VERBOSE("This is lumiblock : " << lumiBlock);
    auto good_bcid = eventInfo.bcid();
 
    TRT_RDO_Container::const_iterator RDO_CollectionBegin = rdoContainer.begin();
    TRT_RDO_Container::const_iterator RDO_CollectionEnd   = rdoContainer.end();
    //Check readout Integrity of TRT
    ATH_CHECK( checkTRTReadoutIntegrity(eventInfo) );
    int numberOfStacks_b[2]; //Total stack number of barrel and endcap
    numberOfStacks_b[0] = s_numberOfBarrelStacks * 3;
    numberOfStacks_b[1] = s_numberOfEndCapStacks * 2;
    Identifier TRT_Identifier;
    int numberOfStrawsMod[3]; // For barrel(number if straw in module)
    numberOfStrawsMod[0] = 329;
    numberOfStrawsMod[1] = 520;
    numberOfStrawsMod[2] = 793;
    int numberOfStrawsWheel[2]; // For endcap
    numberOfStrawsWheel[0] = 2304; //6 layers (6*16=96) 96*24=2304 straws in wheel type A
    numberOfStrawsWheel[1] = 1536; //8 layers (8*8=64) 64*24=1536 straws in wheel type B
    int moduleHits_B[192];
    int moduleHits_E[128];
    int HLmoduleHits_B[192];
    int HLmoduleHits_E[128];
    int nHitsperLB_B = 0;
    int nHLHitsperLB_B = 0;
    int nHitsperLB_E[2] = {0, 0};
    int nHLHitsperLB_E[2] = {0, 0};
 
    for (int i = 0; i < 192; i++) {
        moduleHits_B[i] = 0;
        HLmoduleHits_B[i] = 0;
    }
 
    for (int i = 0; i < 128; i++) {
        moduleHits_E[i] = 0;
        HLmoduleHits_E[i] = 0;
    }
 
    auto scale_hHitWMap_B_passed = std::make_unique<short int[][s_Straw_max[0]]>(2);
    auto scale_hHitWMap_E_passed = std::make_unique<short int[][2][s_Straw_max[1]]>(2);
 
    auto scale_hHitHWMapS_B_passed = std::make_unique<short int[][s_Straw_max[0]]>(s_numberOfBarrelStacks*2);
    auto scale_hHitHWMapC_B_passed = std::make_unique<short int[][s_iChip_max[0]]>(s_numberOfBarrelStacks*2);
    auto scale_hHitWMapS_B_passed  = std::make_unique<short int[][s_Straw_max[0]]>(s_numberOfBarrelStacks*2);
    auto scale_hHitWMapC_B_passed  = std::make_unique<short int[][s_iChip_max[0]]>(s_numberOfBarrelStacks*2);
    auto scale_hHitAMapS_B_passed  = std::make_unique<short int[][s_Straw_max[0]]>(s_numberOfBarrelStacks*2);
    auto scale_hHitAMapC_B_passed  = std::make_unique<short int[][s_iChip_max[0]]>(s_numberOfBarrelStacks*2);
    auto scale_hHitAWMapS_B_passed = std::make_unique<short int[][s_Straw_max[0]]>(s_numberOfBarrelStacks*2);
    auto scale_hHitAWMapC_B_passed = std::make_unique<short int[][s_iChip_max[0]]>(s_numberOfBarrelStacks*2);
    auto scale_hHitHMapS_B_passed  = std::make_unique<short int[][s_Straw_max[0]]>(s_numberOfBarrelStacks*2);
    auto scale_hHitHMapC_B_passed  = std::make_unique<short int[][s_iChip_max[0]]>(s_numberOfBarrelStacks*2);
 
    auto scale_hHitHWMapS_E_passed = std::make_unique<short int[][s_Straw_max[1]]>(s_numberOfEndCapStacks*2);
    auto scale_hHitHWMapC_E_passed = std::make_unique<short int[][s_iChip_max[1]]>(s_numberOfEndCapStacks*2);
    auto scale_hHitWMapS_E_passed  = std::make_unique<short int[][s_Straw_max[1]]>(s_numberOfEndCapStacks*2);
    auto scale_hHitWMapC_E_passed  = std::make_unique<short int[][s_iChip_max[1]]>(s_numberOfEndCapStacks*2);
    auto scale_hHitAMapS_E_passed  = std::make_unique<short int[][s_Straw_max[1]]>(s_numberOfEndCapStacks*2);
    auto scale_hHitAMapC_E_passed  = std::make_unique<short int[][s_iChip_max[1]]>(s_numberOfEndCapStacks*2);
    auto scale_hHitAWMapS_E_passed = std::make_unique<short int[][s_Straw_max[1]]>(s_numberOfEndCapStacks*2);
    auto scale_hHitAWMapC_E_passed = std::make_unique<short int[][s_iChip_max[1]]>(s_numberOfEndCapStacks*2);
    auto scale_hHitHMapS_E_passed  = std::make_unique<short int[][s_Straw_max[1]]>(s_numberOfEndCapStacks*2);
    auto scale_hHitHMapC_E_passed  = std::make_unique<short int[][s_iChip_max[1]]>(s_numberOfEndCapStacks*2);
 
    int goodid_status = 0;
    int prev_bcid = 0;
 
    if (trtBCIDCollection) {
        InDetTimeCollection::const_iterator itrt_bcid = trtBCIDCollection->begin();
 
        while (goodid_status == 0 && itrt_bcid != trtBCIDCollection->end()) {
 
            const unsigned int trt_bcid = (*itrt_bcid).second;
 
            if (itrt_bcid > trtBCIDCollection->begin() && prev_bcid - trt_bcid == 0) {
                goodid_status = 1;
            } else if (itrt_bcid > trtBCIDCollection->begin() && prev_bcid - trt_bcid != 0) {
                ATH_MSG_WARNING("TRT BCID is not consistent.  TRT RODID is " <<
                                std::hex << (*itrt_bcid).first << " trt bcid from ROD is " <<
                                std::hex << trt_bcid);
            }
 
            prev_bcid = trt_bcid;
            ++itrt_bcid;
        }
    }
 
    // Test out the TRT_StrawStatusSummarySvc.
    if (!m_sumTool.name().empty() && m_doExpert) {
        ATH_MSG_VERBOSE("Trying " << m_sumTool << " isGood");
        ATH_MSG_VERBOSE("TRT_StrawStatusTool reports status = " << m_sumTool->getStatus(TRT_Identifier, ctx));
    }
 
    // ibe = 0 (Barrel), ibe = 1 (Endcap)
    int nTRTHits[2];
    for (int ibe = 0; ibe < 2; ibe++) {
        nTRTHits[ibe] = 0;
 
    // Insert here
    // Scaling for online environment
 
    }
 
    int nhitsall = 0;
 
    std::map<int,std::map<int, std::vector<straw_struct>>> straw_map;
    std::map<int,std::map<int, std::vector<chip_struct>>> chip_map;
    std::map<int,std::vector<straw_shifter_struct>> straw_shifter_map;
    std::map<int,std::map<int, std::vector<straw_struct_prob>>> straw_map_prob;
    std::map<int,std::map<int, std::vector<chip_struct_prob>>> chip_map_prob;
 
    std::vector<std::vector<std::vector<int>>> scale_hHitWMap = initScaleVectors(ctx);
 
    for (; RDO_CollectionBegin != RDO_CollectionEnd; ++RDO_CollectionBegin) {
        const InDetRawDataCollection<TRT_RDORawData> *TRT_Collection(*RDO_CollectionBegin);
 
        if (!TRT_Collection) continue;
 
        DataVector<TRT_RDORawData>::const_iterator p_rdo = TRT_Collection->begin();
 
        for (; p_rdo != TRT_Collection->end(); ++p_rdo) {
            int middleHTbit       = (*p_rdo)->getWord() & 0x00020000;
            //0x00020000 = 0000 0000 0000 0000 0000 0010 0000 0000 0000 0000
            int hitinvaliditygate = (*p_rdo)->getWord() & 0x000DFE80;
            //0x000DFE80 = 0000 0000 0000 0000 0000 1101 1111 1110 1000 0000 //
            bool is_middleHTbit_high   = (middleHTbit != 0);
            bool is_anybininVgate_high = (hitinvaliditygate != 0);
            TRT_Identifier = (*p_rdo)->identify();
 
            if (m_doMaskStraws && m_sumTool->get_status(TRT_Identifier, ctx)) continue;
 
            int barrel_ec = m_pTRTHelper->barrel_ec(TRT_Identifier);
            //ToDo: Check TRT_LoLumRawData object
            const TRT_LoLumRawData *p_lolum = dynamic_cast<const TRT_LoLumRawData *>(*p_rdo);
 
            if (!p_lolum) continue;
 
            nhitsall++;
            int ibe = abs(barrel_ec) - 1;
            int iside = barrel_ec > 0 ? 0 : 1;
 
            //if barrel_ec is outof range go to next measurement in rdo_collection
            if (ibe != 1 && ibe != 0) {
                ATH_MSG_DEBUG("TRT part retrieved from TRT Identifier is not a barrel or an endcap");
                continue;
            }
 
            int moduleNumber_barrel1[2];
            int moduleNumber_barrel2[2];
            int moduleNumber_barrel3[2];
            int moduleNumber_endcapA[2];
            int moduleNumber_endcapB[2];
            // Get TRT Identifier
            // Need to know phi module, module layer, straw layer, and straw # within the layer
            // To get proper straw numbering
            TRT_Identifier = p_lolum->identify();
            //inline function checks m_ArgonXenonSplitter
            const bool isArgonStraw = (Straw_Gastype( m_sumTool->getStatusHT(TRT_Identifier, ctx) ) == GasType::Ar);
            int phi_module     = m_pTRTHelper->phi_module(TRT_Identifier);
            int layer_or_wheel = m_pTRTHelper->layer_or_wheel(TRT_Identifier);
            int straw_layer    = m_pTRTHelper->straw_layer(TRT_Identifier);
            int straw          = m_pTRTHelper->straw(TRT_Identifier);
            int thisStrawNumber;
            int chip = 0;
            int board = -1;
            //ToDo: Check if that is really neccessary
            bool is_barrel = m_pTRTHelper->is_barrel(TRT_Identifier);
 
            //Сheck straw number and find the correct chip and m_ board values
            if ( is_barrel && ibe == 0 ) {
                thisStrawNumber = strawNumber(straw, straw_layer, layer_or_wheel);
 
                if (thisStrawNumber >= 0 && thisStrawNumber < s_Straw_max[ibe]) {
                    chip = m_mat_chip_B.at(phi_module).at(thisStrawNumber);
                }
 
                board = chipToBoard(chip);
 
            } else if ( !is_barrel && ibe == 1 ) {
                thisStrawNumber = strawNumberEndCap(straw, straw_layer, layer_or_wheel, phi_module, barrel_ec);
 
                if (thisStrawNumber >= 0 && thisStrawNumber < s_Straw_max[ibe]) {
                    chip = m_mat_chip_E.at(phi_module).at(thisStrawNumber);
                }
 
                board = chipToBoard_EndCap(chip);
            } else {
                thisStrawNumber = -1;
            }
 
            if (thisStrawNumber < 0 || thisStrawNumber >= s_Straw_max[ibe]) {
                ATH_MSG_WARNING("Found m_strawNumber = " << thisStrawNumber << " out of range.");
                continue;
            }
            const int driftTimeBin  = p_lolum->driftTimeBin();
            const int trailingEdge  = p_lolum->trailingEdge();
            const bool highlevel    = is_middleHTbit_high;     //Hardcoded Middle Bit
            const bool firstBinHigh = p_lolum->firstBinHigh(); // If the first time bin is up then the hit is out of time window
            const bool lastBinHigh  = p_lolum->lastBinHigh();  // If the last bin is up then the hit is out of time window.
            const float timeOverThreshold = p_lolum->timeOverThreshold();
            moduleNumber_barrel1[0] = phi_module;
            moduleNumber_barrel1[1] = phi_module + 96;
            moduleNumber_barrel2[0] = phi_module + s_numberOfBarrelStacks;
            moduleNumber_barrel2[1] = phi_module + s_numberOfBarrelStacks + 96;
            moduleNumber_barrel3[0] = phi_module + 2*s_numberOfBarrelStacks;
            moduleNumber_barrel3[1] = phi_module + 2*s_numberOfBarrelStacks + 96;
            moduleNumber_endcapA[0] = phi_module;
            moduleNumber_endcapA[1] = phi_module + 64;
            moduleNumber_endcapB[0] = phi_module + s_numberOfEndCapStacks;
            moduleNumber_endcapB[1] = phi_module + s_numberOfEndCapStacks + 64;
            int iphi_module = -999;
 
            if (iside == 0) {
                iphi_module = phi_module;
            } else if (iside == 1) {
                iphi_module = phi_module + 32;
            }
 
            if (m_doStraws) {
                    straw_shifter_struct& this_struct = straw_shifter_map[barrel_ec].emplace_back();
                    this_struct.strawNumber = thisStrawNumber;
                    this_struct.isAr = isArgonStraw;
                    this_struct.HitWMap_passed = true;
                    this_struct.HitWMap_Ar_passed = true;
                    if (abs(barrel_ec) == 1) scale_hHitWMap_B_passed[isArgonStraw ? 1 : 0][thisStrawNumber]++;
                    if (abs(barrel_ec) == 2) scale_hHitWMap_E_passed[barrel_ec < 0 ? 1 : 0][isArgonStraw ? 1 : 0][thisStrawNumber]++;
            }
 
            nTRTHits[ibe]++;
            if (ibe == 0) {
 
                if (m_doShift) {
                    nHitsperLB_B++;
 
                    if (highlevel) {
                        nHLHitsperLB_B++;
                    }
                }
            } else if (ibe == 1) {
                nTRTHits[ibe]++;
 
                if (m_doShift) {
                    nHitsperLB_E[iside]++;
 
                    if (highlevel) {
                        nHLHitsperLB_E[iside]++;
                    }
                }
            }
 
            if (m_doExpert) {
                if (m_doStraws) {
                    straw_struct_prob& this_struct = straw_map_prob[ibe][iphi_module].emplace_back();
                    this_struct.strawNumber        = thisStrawNumber;
                    this_struct.HitHWMapS_cut      = highlevel && is_middleHTbit_high;
                    this_struct.HitWMapS_cut       = (driftTimeBin > 2) && (driftTimeBin < 17);
                    this_struct.HitAMapS_cut       = (firstBinHigh || lastBinHigh || (driftTimeBin > 0) || (trailingEdge < 23));
                    this_struct.HitAWMapS_cut      = is_anybininVgate_high;
                    this_struct.HitHMapS_cut       = highlevel;
                    this_struct.HitHWMapS_passed   = 1.;
                    this_struct.HitWMapS_passed    = 1.;
                    this_struct.HitAMapS_passed    = 1.;
                    this_struct.HitAWMapS_passed   = 1.;
                    this_struct.HitHMapS_passed    = 1.;
                    if (ibe == 0) {
                        if (highlevel && is_middleHTbit_high) scale_hHitHWMapS_B_passed[iphi_module][thisStrawNumber]++;
                        if ((driftTimeBin > 2) && (driftTimeBin < 17)) scale_hHitWMapS_B_passed[iphi_module][thisStrawNumber]++;
                        if (firstBinHigh || lastBinHigh || (driftTimeBin > 0) || (trailingEdge < 23)) scale_hHitAMapS_B_passed[iphi_module][thisStrawNumber]++;
                        if (is_anybininVgate_high) scale_hHitAWMapS_B_passed[iphi_module][thisStrawNumber]++;
                        if (highlevel) scale_hHitHMapS_B_passed[iphi_module][thisStrawNumber]++;
                    }
                    if (ibe == 1) {
                        if (highlevel && is_middleHTbit_high) scale_hHitHWMapS_E_passed[iphi_module][thisStrawNumber]++;
                        if ((driftTimeBin > 2) && (driftTimeBin < 17)) scale_hHitWMapS_E_passed[iphi_module][thisStrawNumber]++;
                        if (firstBinHigh || lastBinHigh || (driftTimeBin > 0) || (trailingEdge < 23)) scale_hHitAMapS_E_passed[iphi_module][thisStrawNumber]++;
                        if (is_anybininVgate_high) scale_hHitAWMapS_E_passed[iphi_module][thisStrawNumber]++;
                        if (highlevel) scale_hHitHMapS_E_passed[iphi_module][thisStrawNumber]++;
                    }
                }
 
                float trailingEdgeScaled = (trailingEdge + 1)*3.125;
 
                if (m_doStraws) {
                    straw_struct& this_struct  = straw_map[ibe][iphi_module].emplace_back();
                    this_struct.strawNumber    = thisStrawNumber;
                    this_struct.HitTrMapS_y    = trailingEdgeScaled;
                    this_struct.HitToTMapS_y   = timeOverThreshold;
                    this_struct.HitToTLong_cut = (timeOverThreshold > m_longToTCut);
                    this_struct.HitTrWMapS_y   = trailingEdgeScaled;
                    this_struct.HitTrWMapS_cut = (trailingEdge < 23) && !lastBinHigh && !firstBinHigh;
 
                    if (highlevel) {
                        HtoLMapS = thisStrawNumber;
                        HtoLMapS_passed = 1.0;
                        fill("RDOStackHistograms"+std::to_string(ibe)+std::to_string(iphi_module), HtoLMapS_passed, HtoLMapS);
                    } else {
                        HtoLMapS = thisStrawNumber;
                        HtoLMapS_passed = 0.0;
                        fill("RDOStackHistograms"+std::to_string(ibe)+std::to_string(iphi_module), HtoLMapS_passed, HtoLMapS);
                    }
                }
 
                if (m_doChips) {
                    chip_struct_prob& this_struct = chip_map_prob[ibe][iphi_module].emplace_back();
                    this_struct.chipNumber         = chip - 1;
                    this_struct.HitHWMapC_cut      = highlevel && is_middleHTbit_high;
                    this_struct.HitWMapC_cut       = (driftTimeBin > 2) && (driftTimeBin < 17);
                    this_struct.HitAMapC_cut       = (firstBinHigh || lastBinHigh || (driftTimeBin > 0) || (trailingEdge < 23));
                    this_struct.HitAWMapC_cut      = is_anybininVgate_high;
                    this_struct.HitHMapC_cut       = highlevel;
                    this_struct.HitHWMapC_passed   = 1.;
                    this_struct.HitWMapC_passed    = 1.;
                    this_struct.HitAMapC_passed    = 1.;
                    this_struct.HitAWMapC_passed   = 1.;
                    this_struct.HitHMapC_passed    = 1.;
                    if (ibe == 0) {
                        if (highlevel && is_middleHTbit_high) scale_hHitHWMapC_B_passed[iphi_module][chip - 1]++;
                        if ((driftTimeBin > 2) && (driftTimeBin < 17)) scale_hHitWMapC_B_passed[iphi_module][chip - 1]++;
                        if (firstBinHigh || lastBinHigh || (driftTimeBin > 0) || (trailingEdge < 23)) scale_hHitAMapC_B_passed[iphi_module][chip - 1]++;
                        if (is_anybininVgate_high) scale_hHitAWMapC_B_passed[iphi_module][chip - 1]++;
                        if (highlevel) scale_hHitHMapC_B_passed[iphi_module][chip - 1]++;
                    }
                    if (ibe == 1) {
                        if (highlevel && is_middleHTbit_high) scale_hHitHWMapC_E_passed[iphi_module][chip - 1]++;
                        if ((driftTimeBin > 2) && (driftTimeBin < 17)) scale_hHitWMapC_E_passed[iphi_module][chip - 1]++;
                        if (firstBinHigh || lastBinHigh || (driftTimeBin > 0) || (trailingEdge < 23)) scale_hHitAMapC_E_passed[iphi_module][chip - 1]++;
                        if (is_anybininVgate_high) scale_hHitAWMapC_E_passed[iphi_module][chip - 1]++;
                        if (highlevel) scale_hHitHMapC_E_passed[iphi_module][chip - 1]++;
                    }
                }
 
                if (m_doChips) {
                    chip_struct& this_struct = chip_map[ibe][iphi_module].emplace_back();
                    this_struct.chipNumber = chip - 1;
                    this_struct.HitTrMapC_y = trailingEdgeScaled;
                    this_struct.HitToTMapC_y = timeOverThreshold;
                    this_struct.HitTrWMapC_cut = (trailingEdge < 23) && !lastBinHigh && !firstBinHigh;
                    this_struct.HtoBCMap_cut = false;
                    this_struct.HtoBCMapB_y  = board - 1;
                    this_struct.HtoBCMapC_x  = -1;
                    this_struct.HtoBCMapB_x  = -1;
                    if (p_lolum->highLevel(1)) {
                        this_struct.HtoBCMapC_x = 0.;
                        this_struct.HtoBCMapB_x = 0.;
                        this_struct.HtoBCMap_cut=true;
                    }
 
                    if (p_lolum->highLevel(2)) {
                        this_struct.HtoBCMapC_x = 1.;
                        this_struct.HtoBCMapB_x = 1.;
                        this_struct.HtoBCMap_cut=true;
                    }
 
                    if (p_lolum->highLevel(3)) {
                        this_struct.HtoBCMapC_x = 2.;
                        this_struct.HtoBCMapB_x = 2.;
                        this_struct.HtoBCMap_cut=true;
                    }
 
                    if (highlevel) {
                        HtoLMapC = chip - 1;
                        HtoLMapC_passed = 1.0;
                        fill("RDOStackHistograms"+std::to_string(ibe)+std::to_string(iphi_module), HtoLMapC_passed, HtoLMapC);
                    } else {
                        HtoLMapC = chip - 1;
                        HtoLMapC_passed = 0.0;
                        fill("RDOStackHistograms"+std::to_string(ibe)+std::to_string(iphi_module), HtoLMapC_passed, HtoLMapC);
                    }
                }
            }
 
            //Set Module Numbers.
            int moduleNumber = -1;
 
            if (ibe == 0) {
                if (layer_or_wheel == 0) {
                    moduleNumber = moduleNumber_barrel1[iside];
                    moduleHits_B[moduleNumber]++;
                } else if (layer_or_wheel == 1) {
                    moduleNumber = moduleNumber_barrel2[iside];
                    moduleHits_B[moduleNumber]++;
                } else if (layer_or_wheel == 2) {
                    moduleNumber = moduleNumber_barrel3[iside];
                    moduleHits_B[moduleNumber]++;
                }
 
                if (highlevel) {
                    if (layer_or_wheel == 0) {
                        moduleNumber = moduleNumber_barrel1[iside];
                        HLmoduleHits_B[moduleNumber]++;
                    } else if (layer_or_wheel == 1) {
                        moduleNumber = moduleNumber_barrel2[iside];
                        HLmoduleHits_B[moduleNumber]++;
                    } else if (layer_or_wheel == 2) {
                        moduleNumber = moduleNumber_barrel3[iside];
                        HLmoduleHits_B[moduleNumber]++;
                    }
                }
            } else if (ibe == 1) {
                if (layer_or_wheel < 6) {
                    moduleNumber = moduleNumber_endcapA[iside];
                    moduleHits_E[moduleNumber]++;
                } else if (layer_or_wheel > 5) {
                    moduleNumber = moduleNumber_endcapB[iside];
                    moduleHits_E[moduleNumber]++;
                }
 
                if (highlevel) {
                    if (layer_or_wheel < 6) {
                        moduleNumber = moduleNumber_endcapA[iside];
                        HLmoduleHits_E[moduleNumber]++;
                    } else if (layer_or_wheel > 5) {
                        moduleNumber = moduleNumber_endcapB[iside];
                        HLmoduleHits_E[moduleNumber]++;
                    }
                }
            }
        }
    }
 
    // Barrel straw normalization
    for (int k = 0; k < s_Straw_max[0]; k++) {
        for (int iGas = 0; iGas < 2; iGas++) {
            try {
                if (scale_hHitWMap[0][iGas].at(k) - scale_hHitWMap_B_passed[iGas][k] >= 0) {
                    for (int j = 0; j < scale_hHitWMap[0][iGas].at(k) - scale_hHitWMap_B_passed[iGas][k]; j++) {
                        if (m_doStraws) {
                            straw_shifter_struct& this_struct = straw_shifter_map[1].emplace_back(); // index 1 is Barrel
                            this_struct.strawNumber = k;
                            this_struct.isAr = iGas > 0 ? true : false;
                            this_struct.HitWMap_passed = false;
                            this_struct.HitWMap_Ar_passed = false;
                        }
                    }
                } else {
                    ATH_MSG_ERROR("Scale value " << scale_hHitWMap[0][iGas].at(k) - scale_hHitWMap_B_passed[iGas][k] <<
                        " is less than zero in scaling for Barrel, iGas = " << iGas << ", k = " << k);
                }
            } catch (out_of_range &e) {
                ATH_MSG_ERROR("Index " << k << " out of range in scaling for Barrel");
            }
        }
    }
 
    // Endcap straw normalization
    for (int k = 0; k < s_Straw_max[1]; k++) {
        for (int iside = 0; iside < 2; iside++) {
            for (int iGas = 0; iGas < 2; iGas++) {
                try {
                    if (scale_hHitWMap[iside + 1][iGas].at(k) - scale_hHitWMap_E_passed[iside][iGas][k] >= 0) {
                        for (int j = 0; j < scale_hHitWMap[iside + 1][iGas].at(k) - scale_hHitWMap_E_passed[iside][iGas][k]; j++) {
                            if (m_doStraws) {
                                straw_shifter_struct& this_struct = straw_shifter_map[iside == 0 ? 2 : -2].emplace_back(); // index 2 is EA, index -2 is EC
                                this_struct.strawNumber = k;
                                this_struct.isAr = iGas > 0 ? true : false;
                                this_struct.HitWMap_passed = false;
                                this_struct.HitWMap_Ar_passed = false;
                            }
                        }
                    } else {
                        ATH_MSG_ERROR("Scale value " << scale_hHitWMap[iside + 1][iGas].at(k) - scale_hHitWMap_E_passed[iside][iGas][k] <<
                            " is less than zero in scaling for Endcap, iside = " << iside << ", iGas = " << iGas << ", k = " << k);
                    }
                } catch (out_of_range &e) {
                    ATH_MSG_ERROR("Index " << k << " out of range in scaling for Endcap");
                }
            }
        }
    }
 
    if (m_doExpert) {
        // Barrel straw normalization
        for (int k = 0; k < s_Straw_max[0]; k++) {
            for (int iside = 0; iside < 2; iside++) {
                for (int phi_module = 0; phi_module < s_numberOfBarrelStacks; phi_module++) {
                    int iphi_module = -999;;
                    if (iside == 0) iphi_module = phi_module; else if (iside == 1) iphi_module = phi_module + 32;
                    if (scale_hHitHWMapS_B_passed[iphi_module][k] < 2 || scale_hHitWMapS_B_passed[iphi_module][k] < 2 ||
                        scale_hHitAMapS_B_passed[iphi_module][k] < 2 || scale_hHitAWMapS_B_passed[iphi_module][k] < 2 ||
                        scale_hHitHMapS_B_passed[iphi_module][k] < 2) {
                        for (int l = 0; l < 1 - scale_hHitHWMapS_B_passed[iphi_module][k]; l++){
                            straw_struct_prob& this_struct = straw_map_prob[0][iphi_module].emplace_back(); // index 0 is Barrel, A and C are splitted by iphi_module
                            this_struct.strawNumber = k;
                            this_struct.HitHWMapS_cut       = true;
                            this_struct.HitHWMapS_passed    = false;
                        }
                        for (int l = 0; l < 1 - scale_hHitWMapS_B_passed[iphi_module][k]; l++){
                            straw_struct_prob& this_struct = straw_map_prob[0][iphi_module].emplace_back();
                            this_struct.strawNumber = k;
                            this_struct.HitWMapS_cut       = true;
                            this_struct.HitWMapS_passed    = false;
                        }
                        for (int l = 0; l < 1 - scale_hHitAMapS_B_passed[iphi_module][k]; l++){
                            straw_struct_prob& this_struct = straw_map_prob[0][iphi_module].emplace_back();
                            this_struct.strawNumber = k;
                            this_struct.HitAMapS_cut       = true;
                            this_struct.HitAMapS_passed    = false;
                        }
                        for (int l = 0; l < 1 - scale_hHitAWMapS_B_passed[iphi_module][k]; l++){
                            straw_struct_prob& this_struct = straw_map_prob[0][iphi_module].emplace_back();
                            this_struct.strawNumber = k;
                            this_struct.HitAWMapS_cut       = true;
                            this_struct.HitAWMapS_passed    = false;
                        }
                        for (int l = 0; l < 1 - scale_hHitHMapS_B_passed[iphi_module][k]; l++){
                            straw_struct_prob& this_struct = straw_map_prob[0][iphi_module].emplace_back();
                            this_struct.strawNumber = k;
                            this_struct.HitHMapS_cut       = true;
                            this_struct.HitHMapS_passed    = false;
                        }
                    } else{
                        ATH_MSG_ERROR("Scale value is less than zero in normalization for Barrel straw!");
                    }
                }
            }
        }
 
        // Barrel chip normalization
        for (int k = 0; k < s_iChip_max[0]; k++) {
            for (int iside = 0; iside < 2; iside++) {
                for (int phi_module = 0; phi_module < s_numberOfBarrelStacks; phi_module++) {
                    int iphi_module = -999;;
                    if (iside == 0) iphi_module = phi_module; else if (iside == 1) iphi_module = phi_module + 32;
                    if (scale_hHitHWMapC_B_passed[iphi_module][k] < 17 || scale_hHitWMapC_B_passed[iphi_module][k] < 17 ||
                        scale_hHitAMapC_B_passed[iphi_module][k] < 17 || scale_hHitAWMapC_B_passed[iphi_module][k] < 17 ||
                        scale_hHitHMapC_B_passed[iphi_module][k] < 17) {
                        for (int l = 0; l < 16*1. - scale_hHitHWMapC_B_passed[iphi_module][k]; l++){
                            chip_struct_prob& this_struct = chip_map_prob[0][iphi_module].emplace_back(); // index 0 is Barrel, A and C are splitted by iphi_module
                            this_struct.chipNumber = k;
                            this_struct.HitHWMapC_cut       = true;
                            this_struct.HitHWMapC_passed    = false;
                        }
                        for (int l = 0; l < 16*1. - scale_hHitWMapC_B_passed[iphi_module][k]; l++){
                            chip_struct_prob& this_struct = chip_map_prob[0][iphi_module].emplace_back();
                            this_struct.chipNumber = k;
                            this_struct.HitWMapC_cut       = true;
                            this_struct.HitWMapC_passed    = false;
                        }
                        for (int l = 0; l < 16*1. - scale_hHitAMapC_B_passed[iphi_module][k]; l++){
                            chip_struct_prob& this_struct = chip_map_prob[0][iphi_module].emplace_back();
                            this_struct.chipNumber = k;
                            this_struct.HitAMapC_cut       = true;
                            this_struct.HitAMapC_passed    = false;
                        }
                        for (int l = 0; l < 16*1. - scale_hHitAWMapC_B_passed[iphi_module][k]; l++){
                            chip_struct_prob& this_struct = chip_map_prob[0][iphi_module].emplace_back();
                            this_struct.chipNumber = k;
                            this_struct.HitAWMapC_cut       = true;
                            this_struct.HitAWMapC_passed    = false;
                        }
                        for (int l = 0; l < 16*1. - scale_hHitHMapC_B_passed[iphi_module][k]; l++){
                            chip_struct_prob& this_struct = chip_map_prob[0][iphi_module].emplace_back();
                            this_struct.chipNumber = k;
                            this_struct.HitHMapC_cut       = true;
                            this_struct.HitHMapC_passed    = false;
                        }
                    } else{
                        ATH_MSG_ERROR("Scale value is less than zero in normalization for Barrel chip!");
                    }
                }
            }
        }
 
        // Endcap straw normalization
        for (int k = 0; k < s_Straw_max[1]; k++) {
            for (int iside = 0; iside < 2; iside++) {
                for (int phi_module = 0; phi_module < s_numberOfEndCapStacks; phi_module++) {
                    int iphi_module = -999;;
                    if (iside == 0) iphi_module = phi_module; else if (iside == 1) iphi_module = phi_module + 32;
                    if (scale_hHitHWMapS_E_passed[iphi_module][k] < 2 || scale_hHitWMapS_E_passed[iphi_module][k] < 2 ||
                        scale_hHitAMapS_E_passed[iphi_module][k] < 2 || scale_hHitAWMapS_E_passed[iphi_module][k] < 2 ||
                        scale_hHitHMapS_E_passed[iphi_module][k] < 2) {
                        for (int l = 0; l < 1. - scale_hHitHWMapS_E_passed[iphi_module][k]; l++){
                            straw_struct_prob& this_struct = straw_map_prob[1][iphi_module].emplace_back(); // index 1 is Endcap, A and C are splitted by iphi_module
                            this_struct.strawNumber = k;
                            this_struct.HitHWMapS_cut       = true;
                            this_struct.HitHWMapS_passed    = false;
                        }
                        for (int l = 0; l < 1. - scale_hHitWMapS_E_passed[iphi_module][k]; l++){
                            straw_struct_prob& this_struct = straw_map_prob[1][iphi_module].emplace_back();
                            this_struct.strawNumber = k;
                            this_struct.HitWMapS_cut       = true;
                            this_struct.HitWMapS_passed    = false;
                        }
                        for (int l = 0; l < 1. - scale_hHitAMapS_E_passed[iphi_module][k]; l++){
                            straw_struct_prob& this_struct = straw_map_prob[1][iphi_module].emplace_back();
                            this_struct.strawNumber = k;
                            this_struct.HitAMapS_cut       = true;
                            this_struct.HitAMapS_passed    = false;
                        }
                        for (int l = 0; l < 1. - scale_hHitAWMapS_E_passed[iphi_module][k]; l++){
                            straw_struct_prob& this_struct = straw_map_prob[1][iphi_module].emplace_back();
                            this_struct.strawNumber = k;
                            this_struct.HitAWMapS_cut       = true;
                            this_struct.HitAWMapS_passed    = false;
                        }
                        for (int l = 0; l < 1. - scale_hHitHMapS_E_passed[iphi_module][k]; l++){
                            straw_struct_prob& this_struct = straw_map_prob[1][iphi_module].emplace_back();
                            this_struct.strawNumber = k;
                            this_struct.HitHMapS_cut       = true;
                            this_struct.HitHMapS_passed    = false;
                        }
                    } else{
                        ATH_MSG_ERROR("Scale value is less than zero in normalization for Endcap straw!");
                    }
                }
            }
        }
 
        // Endcap chip normalization
        for (int k = 0; k < s_iChip_max[1]; k++) {
            for (int iside = 0; iside < 2; iside++) {
            for (int phi_module = 0; phi_module < s_numberOfEndCapStacks; phi_module++) {
                    int iphi_module = -999;;
                    if (iside == 0) iphi_module = phi_module; else if (iside == 1) iphi_module = phi_module + 32;
                    if (scale_hHitHWMapC_E_passed[iphi_module][k] < 17 || scale_hHitWMapC_E_passed[iphi_module][k] < 17 ||
                        scale_hHitAMapC_E_passed[iphi_module][k] < 17 || scale_hHitAWMapC_E_passed[iphi_module][k] < 17 ||
                        scale_hHitHMapC_E_passed[iphi_module][k] < 17) {
                        for (int l = 0; l < 16*1. - scale_hHitHWMapC_E_passed[iphi_module][k]; l++){
                            chip_struct_prob& this_struct = chip_map_prob[1][iphi_module].emplace_back(); // index 0 is Barrel, A and C are splitted by iphi_module
                            this_struct.chipNumber = k;
                            this_struct.HitHWMapC_cut       = true;
                            this_struct.HitHWMapC_passed    = false;
                        }
                        for (int l = 0; l < 16*1. - scale_hHitWMapC_E_passed[iphi_module][k]; l++){
                            chip_struct_prob& this_struct = chip_map_prob[1][iphi_module].emplace_back();
                            this_struct.chipNumber = k;
                            this_struct.HitWMapC_cut       = true;
                            this_struct.HitWMapC_passed    = false;
                        }
                        for (int l = 0; l < 16*1. - scale_hHitAMapC_E_passed[iphi_module][k]; l++){
                            chip_struct_prob& this_struct = chip_map_prob[1][iphi_module].emplace_back();
                            this_struct.chipNumber = k;
                            this_struct.HitAMapC_cut       = true;
                            this_struct.HitAMapC_passed    = false;
                        }
                        for (int l = 0; l < 16*1. - scale_hHitAWMapC_E_passed[iphi_module][k]; l++){
                            chip_struct_prob& this_struct = chip_map_prob[1][iphi_module].emplace_back();
                            this_struct.chipNumber = k;
                            this_struct.HitAWMapC_cut       = true;
                            this_struct.HitAWMapC_passed    = false;
                        }
                        for (int l = 0; l < 16*1. - scale_hHitHMapC_E_passed[iphi_module][k]; l++){
                            chip_struct_prob& this_struct = chip_map_prob[1][iphi_module].emplace_back();
                            this_struct.chipNumber = k;
                            this_struct.HitHMapC_cut       = true;
                            this_struct.HitHMapC_passed    = false;
                        }
                    } else{
                        ATH_MSG_ERROR("Scale value is less than zero in normalization for Endcap chip!");
                    }
                }
            }
        }
    }
 
    for (const auto& ibarrel_ecpair : straw_shifter_map) {
        int ibe = abs(ibarrel_ecpair.first) - 1;
        int iside = ibarrel_ecpair.first > 0 ? 0 : 1;
        auto strawNumber          = Monitored::Collection("strawNumber", ibarrel_ecpair.second, [](const auto& s){return s.strawNumber;});
        auto HitWMap_passed       = Monitored::Collection("HitWMap_passed", ibarrel_ecpair.second, [](const auto& s){return s.HitWMap_passed;});
        auto HitWMap_Ar_passed    = Monitored::Collection("HitWMap_Ar_passed", ibarrel_ecpair.second, [](const auto& s){return s.HitWMap_Ar_passed;});
        auto isAr                 = Monitored::Collection("isAr", ibarrel_ecpair.second, [](const auto& s){return s.isAr;});
        auto isNotAr              = Monitored::Collection("isNotAr", ibarrel_ecpair.second, [](const auto& s){return not s.isAr;});
        if (ibe == 0) {
            fill("RDOHistograms0", strawNumber, HitWMap_passed, HitWMap_Ar_passed, isAr, isNotAr);
        } else if (ibe == 1) {
            fill("RDOHistograms1"+std::to_string(iside), strawNumber, HitWMap_passed, HitWMap_Ar_passed, isAr, isNotAr);
        }
    }
 
    if (m_doExpert) {
        for (const auto& ibepair : straw_map_prob) {
            for (const auto& iphi_modulepair : ibepair.second ) {
                auto strawNumber          = Monitored::Collection("strawNumber", iphi_modulepair.second, [](const auto& s){return s.strawNumber;});
                auto HitHWMapS_passed     = Monitored::Collection("HitHWMapS_passed", iphi_modulepair.second, [](const auto& s){return s.HitHWMapS_passed;});
                auto HitWMapS_passed      = Monitored::Collection("HitWMapS_passed", iphi_modulepair.second, [](const auto& s){return s.HitWMapS_passed;});
                auto HitAMapS_passed      = Monitored::Collection("HitAMapS_passed", iphi_modulepair.second, [](const auto& s){return s.HitAMapS_passed;});
                auto HitAWMapS_passed     = Monitored::Collection("HitAWMapS_passed", iphi_modulepair.second, [](const auto& s){return s.HitAWMapS_passed;});
                auto HitHMapS_passed      = Monitored::Collection("HitHMapS_passed", iphi_modulepair.second, [](const auto& s){return s.HitHMapS_passed;});
                auto HitHWMapS_cut        = Monitored::Collection("HitHWMapS_cut", iphi_modulepair.second, [](const auto& s){return s.HitHWMapS_cut;});
                auto HitWMapS_cut         = Monitored::Collection("HitWMapS_cut", iphi_modulepair.second, [](const auto& s){return s.HitWMapS_cut;});
                auto HitAMapS_cut         = Monitored::Collection("HitAMapS_cut", iphi_modulepair.second, [](const auto& s){return s.HitAMapS_cut;});
                auto HitAWMapS_cut        = Monitored::Collection("HitAWMapS_cut", iphi_modulepair.second, [](const auto& s){return s.HitAWMapS_cut;});
                auto HitHMapS_cut         = Monitored::Collection("HitHMapS_cut", iphi_modulepair.second, [](const auto& s){return s.HitHMapS_cut;});
 
                fill("RDOStackHistograms"+std::to_string(ibepair.first)+std::to_string(iphi_modulepair.first), strawNumber, HitHWMapS_passed, HitHWMapS_cut,
                    HitWMapS_passed, HitWMapS_cut, HitAMapS_passed, HitAMapS_cut, HitAWMapS_passed, HitAWMapS_cut, HitHMapS_passed, HitHMapS_cut);
                }
        }
 
        for (const auto& ibepair : chip_map_prob) {
            for (const auto& iphi_modulepair : ibepair.second ) {
                auto chipNumber           = Monitored::Collection("chipNumber", iphi_modulepair.second, [](const auto& s){return s.chipNumber;});
                auto HitHWMapC_passed     = Monitored::Collection("HitHWMapC_passed", iphi_modulepair.second, [](const auto& s){return s.HitHWMapC_passed;});
                auto HitWMapC_passed      = Monitored::Collection("HitWMapC_passed", iphi_modulepair.second, [](const auto& s){return s.HitWMapC_passed;});
                auto HitAMapC_passed      = Monitored::Collection("HitAMapC_passed", iphi_modulepair.second, [](const auto& s){return s.HitAMapC_passed;});
                auto HitAWMapC_passed     = Monitored::Collection("HitAWMapC_passed", iphi_modulepair.second, [](const auto& s){return s.HitAWMapC_passed;});
                auto HitHMapC_passed      = Monitored::Collection("HitHMapC_passed", iphi_modulepair.second, [](const auto& s){return s.HitHMapC_passed;});
                auto HitHWMapC_cut        = Monitored::Collection("HitHWMapC_cut", iphi_modulepair.second, [](const auto& s){return s.HitHWMapC_cut;});
                auto HitWMapC_cut         = Monitored::Collection("HitWMapC_cut", iphi_modulepair.second, [](const auto& s){return s.HitWMapC_cut;});
                auto HitAMapC_cut         = Monitored::Collection("HitAMapC_cut", iphi_modulepair.second, [](const auto& s){return s.HitAMapC_cut;});
                auto HitAWMapC_cut        = Monitored::Collection("HitAWMapC_cut", iphi_modulepair.second, [](const auto& s){return s.HitAWMapC_cut;});
                auto HitHMapC_cut         = Monitored::Collection("HitHMapC_cut", iphi_modulepair.second, [](const auto& s){return s.HitHMapC_cut;});
 
                fill("RDOStackHistograms"+std::to_string(ibepair.first)+std::to_string(iphi_modulepair.first), chipNumber, HitHWMapC_passed, HitHWMapC_cut,
                    HitWMapC_passed, HitWMapC_cut, HitAMapC_passed, HitAMapC_cut, HitAWMapC_passed, HitAWMapC_cut, HitHMapC_passed, HitHMapC_cut);
                }
        }
    }
 
    for (const auto& ibepair : straw_map) {
        for (const auto& iphi_modulepair : ibepair.second ) {
            auto strawNumber          = Monitored::Collection("strawNumber", iphi_modulepair.second, [](const auto& s){return s.strawNumber;});
            auto HitTrMapS_y          = Monitored::Collection("HitTrMapS_y", iphi_modulepair.second, [](const auto& s){return s.HitTrMapS_y;});
            auto HitToTMapS_y         = Monitored::Collection("HitToTMapS_y", iphi_modulepair.second, [](const auto& s){return s.HitToTMapS_y;});
            auto HitToTLong_cut       = Monitored::Collection("HitToTLong_cut", iphi_modulepair.second, [](const auto& s){return s.HitToTLong_cut;});
            auto HitTrWMapS_y         = Monitored::Collection("HitTrWMapS_y",  iphi_modulepair.second, [](const auto& s){return s.HitTrWMapS_y;});
            auto HitTrWMapS_cut       = Monitored::Collection("HitTrWMapS_cut", iphi_modulepair.second, [](const auto& s){return s.HitTrWMapS_cut;});
 
            fill("RDOStackHistograms"+std::to_string(ibepair.first)+std::to_string(iphi_modulepair.first), strawNumber,
                 HitTrMapS_y, HitToTMapS_y, HitToTLong_cut, HitTrWMapS_y, HitTrWMapS_cut);
        }
    }
 
    for (const auto& ibepair : chip_map) {
        for (const auto& iphi_modulepair : ibepair.second ) {
            auto chipNumber           = Monitored::Collection("chipNumber", iphi_modulepair.second, [](const auto& s){return s.chipNumber;});
            auto HitTrMapC_y          = Monitored::Collection("HitTrMapC_y", iphi_modulepair.second, [](const auto& s){return s.HitTrMapC_y;});
            auto HitToTMapC_y         = Monitored::Collection("HitToTMapC_y", iphi_modulepair.second, [](const auto& s){return s.HitToTMapC_y;});
            auto HtoBCMapC_x          = Monitored::Collection("HtoBCMapC_x", iphi_modulepair.second, [](const auto& s){return s.HtoBCMapC_x;});
            auto HtoBCMapB_x          = Monitored::Collection("HtoBCMapB_x", iphi_modulepair.second, [](const auto& s){return s.HtoBCMapB_x;});
            auto HtoBCMapB_y          = Monitored::Collection("HtoBCMapB_y", iphi_modulepair.second, [](const auto& s){return s.HtoBCMapB_y;});
            auto HtoBCMap_cut = Monitored::Collection("HtoBCMap_cut", iphi_modulepair.second, [](const auto& s){return s.HtoBCMap_cut;});
            auto HitTrWMapC_cut = Monitored::Collection("HitTrWMapC_cut", iphi_modulepair.second, [](const auto& s){return s.HitTrWMapC_cut;});
 
            fill("RDOStackHistograms"+std::to_string(ibepair.first)+std::to_string(iphi_modulepair.first),
                 chipNumber, HitTrMapC_y, HitToTMapC_y, HtoBCMapC_x, HtoBCMapB_x, HtoBCMapB_y, HtoBCMap_cut, HitTrWMapC_cut);
        }
    }
 
    OccAll = nhitsall/350848.;
    fill("RDOHistograms0", OccAll);
 
    //ToDo Explain this
    for (int ibe = 0; ibe < 2; ibe++) {
        if (m_doShift) {
            if (ibe == 0) {
                BCIDvsOcc_x = good_bcid;
                BCIDvsOcc_y = nTRTHits[ibe]/105088.0;
                fill("RDOHistograms0", BCIDvsOcc_x, BCIDvsOcc_y);
            } else if (ibe == 1) {
                BCIDvsOcc_x = good_bcid;
                BCIDvsOcc_y = nTRTHits[ibe]/245760.0;
                fill("RDOHistograms1", BCIDvsOcc_x, BCIDvsOcc_y);
            }
 
            for (int iside = 0; iside < 2; iside++) {
                for (int i = 1; i <= numberOfStacks_b[ibe]; i++) {
 
                    int index_tmp = 0;
                    int modulenum_tmp = 0;
 
                    if (iside == 0) {
                        index_tmp = i - 1;
                        modulenum_tmp = i - 1;
                    } else if (iside == 1) {
                        index_tmp = i + 31;
 
                        if (ibe == 0) modulenum_tmp = (i - 1) + 96;
                        else if (ibe == 1) modulenum_tmp = (i - 1) + 64;
                    }
 
                    int nclass = -1;
 
                    if (i <= s_numberOfBarrelStacks) {
                        nclass = 0;
                    } else if (i <= 2 * s_numberOfBarrelStacks && i > s_numberOfBarrelStacks) {
                        nclass = 1;
                    } else if (i > 2 * s_numberOfBarrelStacks) {
                        nclass = 2;
                    }
                    int LLocc_index = index_tmp - 32 * nclass;
 
                    if (nclass >= 0) {
                        if (ibe == 0) {
                            // Tell clang to optimize assuming that FP operations may trap.
                            CXXUTILS_TRAPPING_FP;
                            float occLL = float(moduleHits_B[modulenum_tmp]) / float(numberOfStrawsMod[nclass]);
                            float occHL = float(HLmoduleHits_B[modulenum_tmp]) / float(numberOfStrawsMod[nclass]);
                            AvgLLOcc_side_x = i - (32 * nclass);
                            AvgLLOcc_side_y = occLL;
                            AvgHLOcc_side_x = i - (32 * nclass);
                            AvgHLOcc_side_y = occHL;
                            AvgLLOccMod_side_x = i;
                            AvgLLOccMod_side_y = occLL;
                            AvgHLOccMod_side_x = i;
                            AvgHLOccMod_side_y = occHL;
                        } else if (ibe == 1) {
                            float occLL = float(moduleHits_E[modulenum_tmp]) / float(numberOfStrawsWheel[nclass]);
                            float occHL = float(HLmoduleHits_E[modulenum_tmp]) / float(numberOfStrawsWheel[nclass]);
 
                            if (LLocc_index < 64) {
                            } else {
                                ATH_MSG_WARNING("m_LLOcc index out of bounds!"); // To satisfy Coverity defect CID 16514 which we believe is a false report.
                            }
                            AvgLLOcc_side_x = i - (32 * nclass);
                            AvgLLOcc_side_y = occLL;
                            AvgHLOcc_side_x = i - (32 * nclass);
                            AvgHLOcc_side_y = occHL;
                            AvgLLOccMod_side_x = i;
                            AvgLLOccMod_side_y = occLL;
                            AvgHLOccMod_side_x = i;
                            AvgHLOccMod_side_y = occHL;
                        }
                        fill("RDOLLHLOccHistograms"+std::to_string(ibe)+std::to_string(iside), AvgLLOcc_side_x, AvgLLOcc_side_y, AvgHLOcc_side_x, AvgHLOcc_side_y,
                                AvgLLOccMod_side_x, AvgLLOccMod_side_y, AvgHLOccMod_side_x, AvgHLOccMod_side_y);
                    }
                }
            }
        }
        // Normalization for online environmenmet
        // Insert here
    }
 
    if (m_doShift) {
        const unsigned int lumiBlock = eventInfo.lumiBlock();
        ATH_MSG_VERBOSE("This is lumiblock : " << lumiBlock);
        int lastLumiBlock = -99; // ToDo - last lumiblock calculation is not correct
        if ((int)lumiBlock != lastLumiBlock) {
            lastLumiBlock = lumiBlock;
        }
        float evtLumiBlock = 1.;
        float lumiBlockScale = (evtLumiBlock > 0) ? (1. / evtLumiBlock) : 0;
        const float barrelConst = 1. / 105088;
        const float endcapConst = 1. / 122880;
 
        if (m_doTracksMon && evtLumiBlock > 0) {
            NHitsperLB_x = lastLumiBlock;
            NHitsperLB_y = (float)nHitsperLB_B * lumiBlockScale * barrelConst;
            fill("RDOShiftRebinnedBarrelHistograms0", NHitsperLB_x, NHitsperLB_y);
            NHLHitsperLB_x = lastLumiBlock;
            NHLHitsperLB_y = (float)nHLHitsperLB_B * lumiBlockScale * barrelConst;
            fill("RDOShiftRebinnedBarrelHistograms0", NHLHitsperLB_x, NHLHitsperLB_y);
 
            for (int iside = 0; iside < 2; iside++) {
                NHitsperLB_x = lastLumiBlock;
                NHitsperLB_y = (float)nHitsperLB_E[iside] * lumiBlockScale * endcapConst;
                fill("RDOShiftRebinnedEndcapHistograms1"+std::to_string(iside), NHitsperLB_x, NHitsperLB_y);
                NHLHitsperLB_x = lastLumiBlock;
                NHLHitsperLB_y = (float)nHLHitsperLB_E[iside] * lumiBlockScale * endcapConst;
                fill("RDOShiftRebinnedEndcapHistograms1"+std::to_string(iside), NHLHitsperLB_x, NHLHitsperLB_y);
            }
 
            nHitsperLB_B = 0;
            nHLHitsperLB_B = 0;
 
            for (int iside = 0; iside < 2; iside++) {
                nHitsperLB_E[iside] = 0;
                nHLHitsperLB_E[iside] = 0;
            }
        }
    }
 
        ATH_MSG_DEBUG("end of event and lumi block");
 
    //Get BSConversion Errors from BSConditionsServices:
    std::set<std::pair<uint32_t, uint32_t> > *L1IDErrorSet      = m_BSSvc->getIdErrorSet(TRTByteStreamErrors::L1IDError);
    std::set<std::pair<uint32_t, uint32_t> > *BCIDErrorSet      = m_BSSvc->getIdErrorSet(TRTByteStreamErrors::BCIDError);
    std::set<uint32_t>                       *MissingErrorSet   = m_BSSvc->getErrorSet(TRTByteStreamErrors::MISSINGError);
    std::set<uint32_t>                       *SidErrorSet       = m_BSSvc->getErrorSet(TRTByteStreamErrors::SIDError);
    std::set<std::pair<uint32_t, uint32_t> > *RobStatusErrorSet = m_BSSvc->getRodRobErrorSet(TRTByteStreamErrors::RobStatusError);
    const unsigned int rod_id_base[2][2] = { { 0x310000, 0x320000 }, { 0x330000, 0x340000 } };
    const unsigned int nChipsTotal[2][2] = { {     3328,     3328 }, {     7680,     7680 } };
    const unsigned int nRobsTotal[2][2]  = { {       32,       32 }, {       64,       64 } };
    float nBSErrors[2][2]  = { { 0, 0 }, { 0, 0 } };
    float nRobErrors[2][2] = { { 0, 0 }, { 0, 0 } };
    const std::set<std::pair<uint32_t, uint32_t> > *errorset1[2] = { BCIDErrorSet, L1IDErrorSet };
 
    for (int iset = 0; iset < 2; ++iset) {
        for (auto setIt = errorset1[iset]->begin(); setIt != errorset1[iset]->end(); ++setIt) {
            for (int ibe = 0; ibe < 2; ++ibe) {
                for (int iside = 0; iside < 2; ++iside) {
                    if (((setIt->first >> 8) & 0xFF0000) == rod_id_base[ibe][iside]) {
                        nBSErrors[ibe][iside] += 1. / nChipsTotal[ibe][iside];
                    }
                }
            }
        }
    }
 
    const std::set<uint32_t> *errorset2[2] = { MissingErrorSet, SidErrorSet };
 
    for (int iset = 0; iset < 2; ++iset) {
        for (auto setIt = errorset2[iset]->begin(); setIt != errorset2[iset]->end(); ++setIt) {
            for (int ibe = 0; ibe < 2; ++ibe) {
                for (int iside = 0; iside < 2; ++iside) {
                    if (((*setIt >> 8) & 0xFF0000) == rod_id_base[ibe][iside]) {
                        nBSErrors[ibe][iside] += 1. / nChipsTotal[ibe][iside];
                    }
                }
            }
        }
    }
 
    for (int ibe = 0; ibe < 2; ++ibe) {
        for (int iside = 0; iside < 2; ++iside) {
            ChipBSErrorsVsLB_x = lumiBlock;
            ChipBSErrorsVsLB_y = nBSErrors[ibe][iside];
            for (unsigned int i = 0; i < lumiBlock; i++) {
                // we need this so the LastBinThreshold algorithm can find the last bin
                fill("RDOShiftSmryRebinnedHistograms"+std::to_string(ibe)+std::to_string(iside), ChipBSErrorsVsLB_x, ChipBSErrorsVsLB_y);
            }
        }
    }
 
    for (auto setIt = RobStatusErrorSet->begin(); setIt != RobStatusErrorSet->end(); ++setIt) {
        for (int ibe = 0; ibe < 2; ++ibe) {
            for (int iside = 0; iside < 2; ++iside) {
                if (setIt->first % rod_id_base[ibe][iside] < 0xffff) {
                    nRobErrors[ibe][iside] += 1. / nRobsTotal[ibe][iside];
                }
            }
        }
    }
 
    for (int ibe = 0; ibe < 2; ++ibe) {
        for (int iside = 0; iside < 2; ++iside) {
            RobBSErrorsVsLB_x = lumiBlock;
            RobBSErrorsVsLB_y = nRobErrors[ibe][iside];
            for (unsigned int i = 0; i < lumiBlock; i++) {
                // we need this so the LastBinThreshold algorithm can find the last bin
                fill("RDOShiftSmryRebinnedHistograms"+std::to_string(ibe)+std::to_string(iside), RobBSErrorsVsLB_x, RobBSErrorsVsLB_y);
            }
        }
    }
 
    ATH_MSG_VERBOSE("Leaving Fill TRT RDO Histograms");
    return StatusCode::SUCCESS;
}
 
// Fill the TRT Efficiency Histograms
//----------------------------------------------------------------------------------//
StatusCode TRTMonitoringRun3RAW_Alg::fillTRTEfficiency(const EventContext& ctx,
                                                       const TrackCollection& combTrackCollection) const {
//----------------------------------------------------------------------------------//
    ATH_MSG_VERBOSE("Filling TRT Efficiency Histograms");
 
    // TEfficiency
    auto Efficiency_eta                  = Monitored::Scalar<float>("Efficiency_eta", 0.0);
    auto Efficiency_phi                  = Monitored::Scalar<float>("Efficiency_phi", 0.0);
    auto Efficiency_pt                   = Monitored::Scalar<float>("Efficiency_pt", 0.0);
    auto Efficiency_z0                   = Monitored::Scalar<float>("Efficiency_z0", 0.0);
    auto EfficiencyBarrel_locR           = Monitored::Scalar<float>("EfficiencyBarrel_locR", 0.0);
    auto EfficiencyBarrel_locR_Ar        = Monitored::Scalar<float>("EfficiencyBarrel_locR_Ar", 0.0);
    auto EfficiencyBarrelMap             = Monitored::Scalar<float>("EfficiencyBarrelMap", 0.0);
    auto EfficiencyEndCapMap             = Monitored::Scalar<float>("EfficiencyEndCapMap", 0.0);
    auto EfficiencyEndCap_locR           = Monitored::Scalar<float>("EfficiencyEndCap_locR", 0.0);
    auto EfficiencyEndCap_locR_Ar        = Monitored::Scalar<float>("EfficiencyEndCap_locR_Ar", 0.0);
    auto EfficiencyS                     = Monitored::Scalar<float>("EfficiencyS", 0.0);
    auto EfficiencyC                     = Monitored::Scalar<float>("EfficiencyC", 0.0);
    auto Efficiency_eta_passed           = Monitored::Scalar<float>("Efficiency_eta_passed", 0.0);
    auto Efficiency_phi_passed           = Monitored::Scalar<float>("Efficiency_phi_passed", 0.0);
    auto Efficiency_pt_passed            = Monitored::Scalar<float>("Efficiency_pt_passed", 0.0);
    auto Efficiency_z0_passed            = Monitored::Scalar<float>("Efficiency_z0_passed", 0.0);
    auto EfficiencyBarrel_locR_passed    = Monitored::Scalar<bool>("EfficiencyBarrel_locR_passed", false);
    auto EfficiencyBarrel_locR_Ar_passed = Monitored::Scalar<bool>("EfficiencyBarrel_locR_Ar_passed", false);
    auto EfficiencyBarrelMap_passed      = Monitored::Scalar<bool>("EfficiencyBarrelMap_passed", false);
    auto EfficiencyEndCapMap_passed      = Monitored::Scalar<bool>("EfficiencyEndCapMap_passed", false);
    auto EfficiencyEndCap_locR_passed    = Monitored::Scalar<bool>("EfficiencyEndCap_locR_passed", false);
    auto EfficiencyEndCap_locR_Ar_passed = Monitored::Scalar<bool>("EfficiencyEndCap_locR_Ar_passed", false);
    auto EfficiencyS_passed              = Monitored::Scalar<bool>("EfficiencyS_passed", false);
    auto EfficiencyC_passed              = Monitored::Scalar<bool>("EfficiencyC_passed", false);
 
    // Reduce unnecessary divisions
    const float invGeV = 1. / CLHEP::GeV;
    const float invmm = 1. / CLHEP::mm;
    int itrack = 0;
    float track_pt  = 0;
    float track_eta = 0;
    float track_phi = 0;
    float track_d0  = 0;
    float track_z0  = 0;
 
    for (auto track = combTrackCollection.begin(); track != combTrackCollection.end(); ++track) {
        // Online: use all tracks, offline: use only every xth track, skip the rest
        if (m_environment != Environment_t::online && (itrack % m_every_xth_track) != 0) continue;
 
        ++itrack;
        // Get perigee
        const Trk::Perigee *perigee = (*track)->perigeeParameters();
 
        if (perigee) {
            track_pt  = perigee->pT();
            track_eta = perigee->eta();
            track_phi = perigee->parameters()[Trk::phi0];
            track_d0  = perigee->parameters()[Trk::d0];
            track_z0  = perigee->parameters()[Trk::z0];
            ATH_MSG_DEBUG("This track has perigee parameters:\n"
                          << "                 pT     = " << track_pt * invGeV  << " GeV" << "\n"
                          << "                 eta =    " << track_eta << "\n"
                          << "                 phi0 =   " << track_phi << "\n"
                          << "                 d0 =     " << track_d0 * invmm << "\n"
                          << "                 z0 =     " << track_z0 * invmm << "\n"
                          << "                 theta =  " << perigee->parameters()[Trk::theta] << "\n"
                          << "                 qOverP = " << perigee->parameters()[Trk::qOverP]);
        } else {
            ATH_MSG_DEBUG("This track has null perigeeParameters.");
            continue;
        }
 
        const Trk::TrackStates *track_states = (*track)->trackStateOnSurfaces();
 
        if (track_states) {
            ATH_MSG_DEBUG("This track has " << track_states->size() << " track states on surface.");
        } else {
            ATH_MSG_DEBUG("This track has null track states on surface.");
            continue;
        }
 
        const std::unique_ptr<const Trk::TrackSummary> summary(m_TrackSummaryTool->summary(ctx,*(*track)));
        int n_trt_hits = summary->get(Trk::numberOfTRTHits);
        int n_sct_hits = summary->get(Trk::numberOfSCTHits);
        int n_pixel_hits = summary->get(Trk::numberOfPixelHits);
        float p = 1.0e+08;
 
        if (perigee) {
            p = (perigee->parameters()[Trk::qOverP] != 0.) ? std::abs(1. / (perigee->parameters()[Trk::qOverP])) : 1.0e+08;
        }
 
 
        // Preselect tracks
        const bool passed_track_preselection = (static_cast<bool>(m_trackSelTool->accept(**track)) || m_isCosmics) &&
                                         n_trt_hits >= m_min_trt_hits && 
                                         p > m_minP &&
                                         perigee->pT() > (m_isCosmics?m_min_pT.value() : 2.0 * CLHEP::GeV);
 
        ATH_MSG_DEBUG("track has ntrt = " << n_trt_hits
                      << " and nsct = " << n_sct_hits
                      << " and npix = " << n_pixel_hits);
 
        if (!passed_track_preselection) {
            ATH_MSG_DEBUG("This track failed preselection.");
            continue;
        }
 
        ATH_MSG_DEBUG("This track passed preselection.");
 
        for (auto it = track_states->begin(); it != track_states->end(); it++) {
            if ( !((*it)->type(Trk::TrackStateOnSurface::Measurement)) ) continue;
 
            const Trk::TrackParameters *track_parameters = (*it)->trackParameters();
 
            if (!track_parameters) continue;
 
            Identifier id = track_parameters->associatedSurface().associatedDetectorElementIdentifier();
 
            if ( !((m_pTRTHelper->is_trt(id)) )) continue;
 
            float locR = track_parameters->parameters()[Trk::driftRadius];
            int barrel_ec       = m_pTRTHelper->barrel_ec(id);
            int layer_or_wheel  = m_pTRTHelper->layer_or_wheel(id);
            int phi_module      = m_pTRTHelper->phi_module(id);
            int straw_layer     = m_pTRTHelper->straw_layer(id);
            int straw           = m_pTRTHelper->straw(id);
            const bool isArgonStraw = (Straw_Gastype( m_sumTool->getStatusHT(id, ctx) ) == GasType::Ar);
            // Assume always Xe if m_ArgonXenonSplitter is not enabled, otherwise check the straw status (good is Xe, non-good is Ar)
            int ibe   = abs(barrel_ec) - 1;     // ibe   = 0 (Barrel), ibe   = 1 (Endcap)
            int iside = barrel_ec > 0 ? 0 : 1;  // iside = 0 (Side A), iside = 1 (Side C)
 
            if (ibe == 0) {
                if (isArgonStraw) {
                    EfficiencyBarrel_locR_Ar = locR;
                    EfficiencyBarrel_locR_Ar_passed = 1.0;
                    fill("TRTEfficiencyHistogramsBarrel", EfficiencyBarrel_locR_Ar_passed, EfficiencyBarrel_locR_Ar);
                } else {
                    EfficiencyBarrel_locR = locR;
                    EfficiencyBarrel_locR_passed = 1.0;
                    fill("TRTEfficiencyHistogramsBarrel", EfficiencyBarrel_locR_passed, EfficiencyBarrel_locR);
                }
            } else if (ibe == 1) {
                if (isArgonStraw) {
                    EfficiencyBarrel_locR_Ar = locR;
                    EfficiencyBarrel_locR_Ar_passed = 1.0;
                    fill("TRTEfficiencyHistogramsEndCap"+std::to_string(iside), EfficiencyBarrel_locR_Ar_passed, EfficiencyBarrel_locR_Ar);
                } else {
                    EfficiencyEndCap_locR = locR;
                    EfficiencyEndCap_locR_passed = 1.0;
                    fill("TRTEfficiencyHistogramsEndCap"+std::to_string(iside), EfficiencyEndCap_locR_passed, EfficiencyEndCap_locR);
                }
            }
 
            if (std::abs(locR) >= 1.3) continue;
 
            int thisStrawNumber = 0;
            int chip = 0;
 
            if (ibe == 0) {
                thisStrawNumber = strawNumber(straw, straw_layer, layer_or_wheel);
 
                if (thisStrawNumber >= 0 && thisStrawNumber < s_Straw_max[ibe])
                    chip = m_mat_chip_B.at(phi_module).at(thisStrawNumber);
            } else if (ibe == 1) {
                thisStrawNumber = strawNumberEndCap(straw, straw_layer, layer_or_wheel, phi_module, barrel_ec);
 
                if (thisStrawNumber >= 0 && thisStrawNumber < s_Straw_max[ibe])
                    chip = m_mat_chip_E.at(phi_module).at(thisStrawNumber);
            }
 
            if (ibe == 0) {
                EfficiencyBarrelMap = thisStrawNumber;
                EfficiencyBarrelMap_passed = 1.0;
                fill("TRTEfficiencyHistogramsBarrel", EfficiencyBarrelMap_passed, EfficiencyBarrelMap);
            } else if (ibe == 1) {
                EfficiencyEndCapMap = thisStrawNumber;
                EfficiencyEndCapMap_passed = 1.0;
                fill("TRTEfficiencyHistogramsEndCap", EfficiencyEndCapMap_passed, EfficiencyEndCapMap);
            }
 
            if (m_doExpert) {
                if (iside == 0) {
                    EfficiencyS = thisStrawNumber;
                    EfficiencyS_passed = 1.0;
                    fill("TRTEfficiencyHistograms"+std::to_string(ibe)+std::to_string(phi_module), EfficiencyS_passed, EfficiencyS);
                    EfficiencyC = chip;
                    EfficiencyC_passed = 1.0;
                    fill("TRTEfficiencyHistograms"+std::to_string(ibe)+std::to_string(phi_module), EfficiencyC_passed, EfficiencyC);
                } else if (iside == 1) {
                    EfficiencyS = thisStrawNumber;
                    EfficiencyS_passed = 1.0;
                    fill("TRTEfficiencyHistograms"+std::to_string(ibe)+std::to_string(phi_module + 32), EfficiencyS_passed, EfficiencyS);
                    EfficiencyC = chip;
                    EfficiencyC_passed = 1.0;
                    fill("TRTEfficiencyHistograms"+std::to_string(ibe)+std::to_string(phi_module + 32), EfficiencyC_passed, EfficiencyC);
                }
            }
 
            Efficiency_eta_passed = track_eta;
            Efficiency_eta = 1.0;
            fill("TRTEfficiencyHistograms", Efficiency_eta_passed, Efficiency_eta);
            Efficiency_phi_passed = track_phi;
            Efficiency_phi = 1.0;
            fill("TRTEfficiencyHistograms", Efficiency_phi_passed, Efficiency_phi);
            Efficiency_pt_passed = track_pt*invGeV;
            Efficiency_pt = 1.0;
            fill("TRTEfficiencyHistograms", Efficiency_pt_passed, Efficiency_pt);
            Efficiency_z0_passed = track_z0;
            Efficiency_z0 = 1.0;
            fill("TRTEfficiencyHistograms", Efficiency_z0_passed, Efficiency_z0);
        }
 
 
        // Use hole finder to find holes on this track
        if (m_useHoleFinder) {
            std::unique_ptr<const Trk::TrackStates> holes (m_trt_hole_finder->getHolesOnTrack(*(*track)));
 
            if (!holes) {
                ATH_MSG_WARNING("TRTTrackHoleSearchTool returned null results.");
                continue;
            } else {
                for (auto it = holes->begin(); it != holes->end(); ++it) { // holes->size() is always 0 for some reason
                    if ( !((*it)->type(Trk::TrackStateOnSurface::Hole)) ) continue;
 
                    const Trk::TrackParameters *track_parameters = (*it)->trackParameters();
 
                    if (!track_parameters) continue;
 
                    Identifier id = track_parameters->associatedSurface().associatedDetectorElementIdentifier();
 
                    if ( !(m_pTRTHelper->is_trt(id)) ) continue;
 
                    float locR = track_parameters->parameters()[Trk::driftRadius];
                    int barrel_ec = m_pTRTHelper->barrel_ec(id);
                    int layer_or_wheel = m_pTRTHelper->layer_or_wheel(id);
                    int phi_module = m_pTRTHelper->phi_module(id);
                    int straw_layer = m_pTRTHelper->straw_layer(id);
                    int straw = m_pTRTHelper->straw(id);
                    const bool isArgonStraw = Straw_Gastype( m_sumTool->getStatusHT(id, ctx) ) == GasType::Ar;
                    // Assume always Xe if m_ArgonXenonSplitter is not enabled, otherwise check the straw status (good is Xe, non-good is Ar)
                    int ibe = abs(barrel_ec) - 1;      // ibe   = 0 (Barrel), ibe   = 1 (Endcap)
                    int iside = barrel_ec > 0 ? 0 : 1; // iside = 0 (Side A), iside = 1 (Side C)
 
                    if (ibe == 0) {
                        if (isArgonStraw) {
                            EfficiencyBarrel_locR_Ar = locR;
                            EfficiencyBarrel_locR_Ar_passed = 0.0;
                            fill("TRTEfficiencyHistograms", EfficiencyBarrel_locR_Ar_passed, EfficiencyBarrel_locR_Ar);
                        } else {
                            EfficiencyBarrel_locR = locR;
                            EfficiencyBarrel_locR_passed = 0.0;
                            fill("TRTEfficiencyHistograms", EfficiencyBarrel_locR_passed, EfficiencyBarrel_locR);
                        }
                    } else if (ibe == 1) {
                        if (isArgonStraw) {
                            EfficiencyEndCap_locR_Ar = locR;
                            EfficiencyEndCap_locR_Ar_passed = 0.0;
                            fill("TRTEfficiencyHistogramsEndCap"+std::to_string(iside), EfficiencyEndCap_locR_Ar_passed, EfficiencyEndCap_locR_Ar);
                        } else {
                            EfficiencyEndCap_locR = locR;
                            EfficiencyEndCap_locR_passed = 0.0;
                            fill("TRTEfficiencyHistogramsEndCap"+std::to_string(iside), EfficiencyEndCap_locR_passed, EfficiencyEndCap_locR);
                        }
                    }
 
                    if (std::abs(locR) >= 1.3) continue;
 
                    int thisStrawNumber = 0;
                    int chip = 0;
 
                    if (ibe == 0) {
                        thisStrawNumber = strawNumber(straw, straw_layer, layer_or_wheel);
 
                        if (thisStrawNumber >= 0 && thisStrawNumber < s_Straw_max[ibe]) {
                            chip = m_mat_chip_B.at(phi_module).at(thisStrawNumber);
                        }
                    } else if (ibe == 1) {
                        thisStrawNumber = strawNumberEndCap(straw, straw_layer, layer_or_wheel, phi_module, barrel_ec);
 
                        if (thisStrawNumber >= 0 && thisStrawNumber < s_Straw_max[ibe]) {
                            chip = m_mat_chip_E.at(phi_module).at(thisStrawNumber);
                        }
                    }
 
                    if (ibe == 0) {
                        EfficiencyBarrelMap = thisStrawNumber;
                        EfficiencyBarrelMap_passed = 0.0;
                        fill("TRTEfficiencyHistogramsBarrel", EfficiencyBarrelMap_passed, EfficiencyBarrelMap);
                    } else if (ibe == 1) {
                        EfficiencyEndCapMap = thisStrawNumber;
                        EfficiencyEndCapMap_passed = 0.0;
                        fill("TRTEfficiencyHistogramsEndCap", EfficiencyEndCapMap_passed, EfficiencyEndCapMap);
                    }
 
                    if (m_doExpert) {
                        if (iside == 0) {
                            EfficiencyS = thisStrawNumber;
                            EfficiencyS_passed = 0.0;
                            fill("TRTEfficiencyHistograms"+std::to_string(ibe)+std::to_string(phi_module), EfficiencyS_passed, EfficiencyS);
                            EfficiencyC = chip;
                            EfficiencyC_passed = 0.0;
                            fill("TRTEfficiencyHistograms"+std::to_string(ibe)+std::to_string(phi_module), EfficiencyC_passed, EfficiencyC);
                        } else if (iside == 1) {
                            EfficiencyS = thisStrawNumber;
                            EfficiencyS_passed = 0.0;
                            fill("TRTEfficiencyHistograms"+std::to_string(ibe)+std::to_string(phi_module + 32), EfficiencyS_passed, EfficiencyS);
                            EfficiencyC = chip;
                            EfficiencyC_passed = 0.0;
                            fill("TRTEfficiencyHistograms"+std::to_string(ibe)+std::to_string(phi_module + 32), EfficiencyC_passed, EfficiencyC);
                        }
                    }
                    Efficiency_eta_passed = track_eta;
                    Efficiency_eta = 0.0;
                    fill("TRTEfficiencyHistograms", Efficiency_eta_passed, Efficiency_eta);
                    Efficiency_phi_passed = track_phi;
                    Efficiency_phi = 0.0;
                    fill("TRTEfficiencyHistograms", Efficiency_phi_passed, Efficiency_phi);
                    Efficiency_pt_passed = track_pt*invGeV;
                    Efficiency_pt = 0.0;
                    fill("TRTEfficiencyHistograms", Efficiency_pt_passed, Efficiency_pt);
                    Efficiency_z0_passed = track_z0;
                    Efficiency_z0 = 0.0;
                    fill("TRTEfficiencyHistograms", Efficiency_z0_passed, Efficiency_z0);
                }
            }
        }
    }
 
    // Efficiency calculations
    // Insert here
 
    return StatusCode::SUCCESS;
}
 
 
struct straw_edge_struct {
    int strawNumber;
    float HitWonTMap_B_y;
    float HitWonTMap_E_y;
};
 
// Fill TRT Hits histograms
//----------------------------------------------------------------------------------//
StatusCode TRTMonitoringRun3RAW_Alg::fillTRTHits(const EventContext& ctx,
                                                 const TrackCollection& trackCollection) const {
//----------------------------------------------------------------------------------//
    ATH_MSG_VERBOSE("Filling TRT Tracks Histos");
 
    // TH1F
    auto HLhitOnTrack_B          = Monitored::Scalar<float>("HLhitOnTrack_B", 0.0);
    auto HLhitOnTrack_E          = Monitored::Scalar<float>("HLhitOnTrack_E", 0.0);
    auto HtoLRatioOnTrack_B_Ar   = Monitored::Scalar<float>("HtoLRatioOnTrack_B_Ar", 0.0);
    auto HtoLRatioOnTrack_B_Xe   = Monitored::Scalar<float>("HtoLRatioOnTrack_B_Xe", 0.0);
    auto HtoLRatioOnTrack_B      = Monitored::Scalar<float>("HtoLRatioOnTrack_B", 0.0);
    auto HtoLRatioOnTrack_E      = Monitored::Scalar<float>("HtoLRatioOnTrack_E", 0.0);
    auto HtoLRatioOnTrack_E_Ar   = Monitored::Scalar<float>("HtoLRatioOnTrack_E_Ar", 0.0);
    auto HtoLRatioOnTrack_E_Xe   = Monitored::Scalar<float>("HtoLRatioOnTrack_E_Xe", 0.0);
    auto NumSwLLWoT_E            = Monitored::Scalar<float>("NumSwLLWoT_E", 0.0);
    auto NumSwLLWoT_B            = Monitored::Scalar<float>("NumSwLLWoT_B", 0.0);
    auto HitHWonTMapS            = Monitored::Scalar<float>("HitHWonTMapS", 0.0);
    auto HitWonTMapS             = Monitored::Scalar<float>("HitWonTMapS", 0.0);
    auto HitAonTMapS             = Monitored::Scalar<float>("HitAonTMapS", 0.0);
    auto HitAWonTMapS            = Monitored::Scalar<float>("HitAWonTMapS", 0.0);
    auto HitHonTMapS             = Monitored::Scalar<float>("HitHonTMapS", 0.0);
    auto HitHWonTMapC            = Monitored::Scalar<float>("HitHWonTMapC", 0.0);
    auto HitWonTMapC             = Monitored::Scalar<float>("HitWonTMapC", 0.0);
    auto HitAonTMapC             = Monitored::Scalar<float>("HitAonTMapC", 0.0);
    auto HitAWonTMapC            = Monitored::Scalar<float>("HitAWonTMapC", 0.0);
    auto HitHonTMapC             = Monitored::Scalar<float>("HitHonTMapC", 0.0);
 
    // TEfficiency
    auto StrawEffDetPhi_B        = Monitored::Scalar<float>("StrawEffDetPhi_B", 0.0);
    auto StrawEffDetPhi_B_passed = Monitored::Scalar<float>("StrawEffDetPhi_B_passed", 0.0);
    auto StrawEffDetPhi_E        = Monitored::Scalar<float>("StrawEffDetPhi_E", 0.0);
    auto StrawEffDetPhi_E_passed = Monitored::Scalar<float>("StrawEffDetPhi_E_passed", 0.0);
    auto EfficiencyS             = Monitored::Scalar<float>("EfficiencyS", 0.0);
    auto EfficiencyS_passed      = Monitored::Scalar<bool>("EfficiencyS_passed", false);
    auto EfficiencyC             = Monitored::Scalar<float>("EfficiencyC", 0.0);
    auto EfficiencyC_passed      = Monitored::Scalar<bool>("EfficiencyC_passed", false);
    auto HtoLonTMapS             = Monitored::Scalar<float>("HtoLonTMapS", 0.0);
    auto HtoLonTMapS_passed      = Monitored::Scalar<bool>("HtoLonTMapS_passed", false);
    auto HtoLWonTMapS            = Monitored::Scalar<float>("HtoLWonTMapS", 0.0);
    auto HtoLWonTMapS_passed     = Monitored::Scalar<bool>("HtoLWonTMapS_passed", false);
    auto HtoLonTMapC             = Monitored::Scalar<float>("HtoLonTMapC", 0.0);
    auto HtoLonTMapC_passed      = Monitored::Scalar<bool>("HtoLonTMapC_passed", false);
    auto HtoLWonTMapC            = Monitored::Scalar<float>("HtoLWonTMapC", 0.0);
    auto HtoLWonTMapC_passed     = Monitored::Scalar<bool>("HtoLWonTMapC_passed", false);
    auto HitTronTMapC_x          = Monitored::Scalar<float>("HitTronTMapC_x", 0.0);
    auto HitTronTMapC_y          = Monitored::Scalar<float>("HitTronTMapC_y", 0.0);
    auto HitTronTMapS_x          = Monitored::Scalar<float>("HitTronTMapS_x", 0.0);
    auto HitTronTMapS_y          = Monitored::Scalar<float>("HitTronTMapS_y", 0.0);
    auto HitToTonTMapS_x         = Monitored::Scalar<float>("HitToTonTMapS_x", 0.0);
    auto HitToTonTMapS_y         = Monitored::Scalar<float>("HitToTonTMapS_y", 0.0);
    auto HitToTonTMapC_x         = Monitored::Scalar<float>("HitToTonTMapC_x", 0.0);
    auto HitToTonTMapC_y         = Monitored::Scalar<float>("HitToTonTMapC_y", 0.0);
 
 
 
    // TProfile 
    auto HitWonTMap_B_y          = Monitored::Scalar<float>("HitWonTMap_B_y", 0.0);
    auto HitWonTMap_E_y          = Monitored::Scalar<float>("HitWonTMap_E_y", 0.0);
 
    auto scale_hHitWonTMap_B        = std::make_unique<short int[]>(s_Straw_max[0]);
    auto scale_hHitWonTMap_E        = std::make_unique<short int[][s_Straw_max[1]]>(2);
    auto scale_hHitWonTMap_B_passed = std::make_unique<short int[]>(s_Straw_max[0]);
    auto scale_hHitWonTMap_E_passed = std::make_unique<short int[][s_Straw_max[1]]>(2);
 
    std::map<int,std::vector<straw_edge_struct>> straw_edge_map;
 
    auto p_trk = trackCollection.begin();
 
    const Trk::Perigee *mPer = nullptr;
    const DataVector<const Trk::TrackParameters> *AllTrkPar(nullptr);
    DataVector<const Trk::TrackParameters>::const_iterator p_trkpariter;
 
    int ntrackstack[2][64];
 
    for (int ibe = 0; ibe < 2; ibe++) {
        std::fill(ntrackstack[ibe], ntrackstack[ibe] + 64, 0);
    }
 
    for (; p_trk != trackCollection.end(); ++p_trk) {
        const std::unique_ptr<const Trk::TrackSummary> summary(m_TrackSummaryTool->summary(ctx,*(*p_trk)));
        int nTRTHits = summary->get(Trk::numberOfTRTHits);
 
        if (nTRTHits < m_minTRThits) continue;
 
        AllTrkPar = (*p_trk)->trackParameters();
 
        // Search of MeasuredPerigee in TrackParameters
        // The following algorithm only finds the First perigee measurement.
        // As there should be one and only one perigee measurement then this assumption should be valid.
        // But no check is done to see if there is more than one perigee measurement.
        for (p_trkpariter = AllTrkPar->begin(); p_trkpariter != AllTrkPar->end(); ++p_trkpariter) {
            //if track parameter does have a measured perigee then the track parameter is a keeper and break out of the loop
            if ((mPer = dynamic_cast<const Trk::Perigee *>(*p_trkpariter))) break;
        }
 
        if (!mPer) continue;
 
        float theta   =  mPer->parameters()[Trk::theta];
        float p       =  (mPer->parameters()[Trk::qOverP] != 0.) ? std::abs(1. / (mPer->parameters()[Trk::qOverP])) : 10e7;
        float pT      =  (p * sin(theta));
        pT = pT * 1e-3;  // GeV
 
        if (p < m_minP) continue;
 
        const Trk::TrackStates *trackStates = (**p_trk).trackStateOnSurfaces();
 
        if (trackStates == nullptr) continue;
 
        Trk::TrackStates::const_iterator TSOSItBegin0    = trackStates->begin();
        Trk::TrackStates::const_iterator TSOSItBegin     = trackStates->begin();
        Trk::TrackStates::const_iterator TSOSItBeginTemp = trackStates->begin();
        Trk::TrackStates::const_iterator TSOSItEnd       = trackStates->end();
 
        const bool passed_track_preselection = (static_cast<bool>(m_trackSelTool->accept(**p_trk)) || m_isCosmics) &&
                                               summary->get(Trk::numberOfTRTHits) >= m_min_trt_hits &&
                                               mPer->pT() > (m_isCosmics?m_min_pT.value() : 2.0 * CLHEP::GeV);
 
        if (!passed_track_preselection) continue;
 
        int nTRTHitsW[2][2];
        int nTRTHitsW_Ar[2][2];
        int nTRTHitsW_Xe[2][2];
        int nTRTHLHitsW[2][2];
        int nTRTHLHitsW_Ar[2][2];
        int nTRTHLHitsW_Xe[2][2];
        int nTRTHits_side[2][2];
        int nTRTHitsW_perwheel[2][18];
        int hitontrack[2] = {0, 0};
        int hitontrack_E_side[2] = {0, 0};
 
        for (int ibe = 0; ibe < 2; ibe++) {
            for (int iside = 0; iside < 2; iside++) {
                nTRTHits_side[ibe][iside] = -1;
                nTRTHitsW[ibe][iside] = 0;
                nTRTHitsW_Ar[ibe][iside] = 0;
                nTRTHitsW_Xe[ibe][iside] = 0;
                nTRTHLHitsW[ibe][iside] = 0;
                nTRTHLHitsW_Ar[ibe][iside] = 0;
                nTRTHLHitsW_Xe[ibe][iside] = 0;
            }
            std::fill(nTRTHitsW_perwheel[ibe], nTRTHitsW_perwheel[ibe] + 18, 0);
        }
 
        bool isBarrelOnly = true;
        bool ECAhit = false;
        bool ECChit = false;
        bool Bhit = false;
        int barrel_ec = 0;
        int layer_or_wheel = 0;
        int phi_module = 0;
        int straw_layer = 0;
        int straw = 0;
        int nearest_straw_layer[2] = {100, 100};
        int nearest_straw[2] = {0, 0};
        int testLayer[2] = {100, 100};
        float phi2D[2] = {-100, -100};
 
        for (TSOSItBeginTemp = TSOSItBegin0; TSOSItBeginTemp != TSOSItEnd; ++TSOSItBeginTemp) {
            if ((*TSOSItBeginTemp) == nullptr) continue;
 
            if (! ((*TSOSItBeginTemp)->type(Trk::TrackStateOnSurface::Measurement)) ) continue;
            const InDet::TRT_DriftCircleOnTrack *trtCircle = dynamic_cast<const InDet::TRT_DriftCircleOnTrack *>((*TSOSItBeginTemp)->measurementOnTrack());
 
            if (!trtCircle) continue;
            const Trk::TrackParameters *aTrackParam = dynamic_cast<const Trk::TrackParameters *>((*TSOSItBeginTemp)->trackParameters());
 
            if (!aTrackParam) continue;
            Identifier DCoTId = trtCircle->identify();
            barrel_ec = m_pTRTHelper->barrel_ec(DCoTId);
            int ibe = std::abs(barrel_ec) - 1;
            layer_or_wheel = m_pTRTHelper->layer_or_wheel (DCoTId);
            straw_layer = m_pTRTHelper->straw_layer(DCoTId);
            straw = m_pTRTHelper->straw(DCoTId);
 
            // Restrict ourselves to the inner most TRT layers To get detector phi.
            if (layer_or_wheel >= testLayer[ibe]) continue;
            testLayer[ibe] = layer_or_wheel;
 
            if (straw_layer < nearest_straw_layer[ibe]) {
                nearest_straw_layer[ibe] = straw_layer;
                nearest_straw[ibe] = straw;
                const InDetDD::TRT_BaseElement *circleElement = nullptr;
                circleElement = trtCircle->detectorElement();
                phi2D[ibe] = radToDegrees(circleElement->strawCenter(nearest_straw[ibe]).phi());
                circleElement = nullptr;
            }
        }
 
        if (phi2D[0] == -999) {
            ATH_MSG_DEBUG("Track did not go through inner layer of Barrel.");
        } else {
            ATH_MSG_VERBOSE("Track's closest approach is m_layer_or_wheel: " <<
                            testLayer[0] << " m_straw_layer: " <<
                            nearest_straw_layer[0] << " (in the Barrel).");
        }
 
        if (phi2D[1] == -999) {
            ATH_MSG_DEBUG("Track did not go through any inner layer of EndCap A or C.");
        } else {
            ATH_MSG_VERBOSE("Track's closest approach is m_layer_or_wheel: " <<
                            testLayer[1] << " m_straw_layer: " <<
                            nearest_straw_layer[1] << " (in the EndCaps).");
        }
 
        bool trackfound[2][64];
 
        for (int i = 0; i < 2; i++) {
            std::fill(trackfound[i], trackfound[i] + 64, false);
        }
 
        for (TSOSItBegin = TSOSItBegin0; TSOSItBegin != TSOSItEnd; ++TSOSItBegin) {
            // Select a TSOS which is non-empty, measurement type and contains both drift circle and track parameters informations
            if ((*TSOSItBegin) == nullptr) continue;
 
            if ( !((*TSOSItBegin)->type(Trk::TrackStateOnSurface::Measurement)) ) continue;
 
            const InDet::TRT_DriftCircleOnTrack *trtCircle = dynamic_cast<const InDet::TRT_DriftCircleOnTrack *>((*TSOSItBegin)->measurementOnTrack());
 
            if (!trtCircle) continue;
 
            const Trk::TrackParameters *aTrackParam = dynamic_cast<const Trk::TrackParameters *>((*TSOSItBegin)->trackParameters());
 
            if (!aTrackParam) continue;
 
            Identifier DCoTId = trtCircle->identify();
            barrel_ec = m_pTRTHelper->barrel_ec(DCoTId);
            layer_or_wheel = m_pTRTHelper->layer_or_wheel(DCoTId);
            phi_module = m_pTRTHelper->phi_module(DCoTId);
            straw_layer = m_pTRTHelper->straw_layer(DCoTId);
            straw = m_pTRTHelper->straw(DCoTId);
            int ibe = std::abs(barrel_ec) - 1;     // ibe   = 0 (Barrel), ibe   = 1 (Endcap)
            int iside = barrel_ec > 0 ? 0 : 1;     // iside = 0 (Side A), iside = 1 (Side C)
            int thisStrawNumber[2] = {-1, -1};
            int chip[2] = {0, 0};
 
            if (ibe == 0) {
                thisStrawNumber[ibe] = strawNumber(straw, straw_layer, layer_or_wheel);
 
                if (thisStrawNumber[ibe] >= 0 && thisStrawNumber[ibe] < s_Straw_max[ibe]) {
                    chip[ibe] = m_mat_chip_B.at(phi_module).at(thisStrawNumber[ibe]);
                }
            } else if (ibe == 1) {
                thisStrawNumber[ibe] = strawNumberEndCap(straw, straw_layer, layer_or_wheel, phi_module, barrel_ec);
 
                if (thisStrawNumber[ibe] >= 0 && thisStrawNumber[ibe] < s_Straw_max[ibe]) {
                    chip[ibe] = m_mat_chip_E.at(phi_module).at(thisStrawNumber[ibe]);
                }
            } else {
                thisStrawNumber[ibe] = -1;
            }
 
            if (thisStrawNumber[ibe] < 0 || thisStrawNumber[ibe] >= s_Straw_max[ibe]) continue;
 
            if (ibe == 0) {
                Bhit = true;
            } else if (barrel_ec == 2) {
                isBarrelOnly = false;
                ECAhit = true;
            } else if (barrel_ec == -2) {
                isBarrelOnly = false;
                ECChit = true;
            }
 
            Identifier surfaceID;
            surfaceID = trtCircle->identify();
            const bool isArgonStraw = ( Straw_Gastype( m_sumTool->getStatusHT(surfaceID, ctx) ) == GasType::Ar );
            // Assume always Xe if m_ArgonXenonSplitter is not enabled, otherwise check the straw status (good is Xe, non-good is Ar)
            float temp_locr = aTrackParam->parameters()[Trk::driftRadius];
            int iphi_module = -9999;
 
            if (iside == 0) iphi_module = phi_module;
            else if (iside == 1) iphi_module = phi_module + 32;
 
            trackfound[ibe][iphi_module] = true;
 
            if (((ibe == 0) && (temp_locr < m_DistToStraw)) ||
                ((ibe == 1) && ((*TSOSItBegin)->type(Trk::TrackStateOnSurface::Measurement) ||
                                (*TSOSItBegin)->type(Trk::TrackStateOnSurface::Outlier) ||
                                (*TSOSItBegin)->type(Trk::TrackStateOnSurface::Hole)) &&
                 (temp_locr < m_DistToStraw))) {
                if (m_idHelper->is_trt(DCoTId)) {
                    if (ibe == 0) {
                        hitontrack[ibe]++;
 
                        if (m_doShift) {
                            StrawEffDetPhi_B_passed = phi_module;
                            StrawEffDetPhi_B = 1.0;
                            fill("ShiftTRTTrackHistograms"+std::to_string(ibe), StrawEffDetPhi_B_passed, StrawEffDetPhi_B);
 
                            if (m_doStraws) scale_hHitWonTMap_B[thisStrawNumber[ibe]]++;
                        }
 
                    } else if (ibe == 1) {
                        hitontrack[ibe]++;
                        hitontrack_E_side[iside]++;
 
                        if (m_doShift) {
                            StrawEffDetPhi_E_passed = phi_module;
                            StrawEffDetPhi_E = 1.0;
                            fill("ShiftTRTTrackHistograms"+std::to_string(ibe)+std::to_string(iside), StrawEffDetPhi_E_passed, StrawEffDetPhi_E);
 
                            if (m_doStraws) scale_hHitWonTMap_E[iside][thisStrawNumber[ibe]]++;
                        }
                    }
 
                    if (m_doStraws && m_doExpert) {
                        EfficiencyS = thisStrawNumber[ibe];
                        EfficiencyS_passed = 1.0;
                        fill("TRTTrackHistograms"+std::to_string(ibe)+std::to_string(iphi_module), EfficiencyS_passed, EfficiencyS);
                    }
 
                    if (m_doChips && m_doExpert) {
                        EfficiencyC = chip[ibe] - 1;
                        EfficiencyC_passed = 1.0;
                        fill("TRTTrackHistograms"+std::to_string(ibe)+std::to_string(iphi_module), EfficiencyC_passed, EfficiencyC);
                    }
                }
            } else {
                if (m_idHelper->is_trt(DCoTId)) { // ToDo: Is this really needed?
                    if (ibe == 0) {
                        if (m_doShift) {
                            StrawEffDetPhi_B_passed = phi_module;
                            StrawEffDetPhi_B = 0.0;
                            fill("ShiftTRTTrackHistograms"+std::to_string(ibe), StrawEffDetPhi_B_passed, StrawEffDetPhi_B);
 
                            if (m_doStraws) scale_hHitWonTMap_B[thisStrawNumber[ibe]]++;
                        }
                    } else if (ibe == 1) {
                        if (m_doShift) {
                            StrawEffDetPhi_E_passed = phi_module;
                            StrawEffDetPhi_E = 0.0;
                            fill("ShiftTRTTrackHistograms"+std::to_string(ibe)+std::to_string(iside), StrawEffDetPhi_E_passed, StrawEffDetPhi_E);
 
                            if (m_doStraws) scale_hHitWonTMap_E[iside][thisStrawNumber[ibe]]++;
                        }
                    }
 
                    if (m_doStraws && m_doExpert) {
                        EfficiencyS = thisStrawNumber[ibe];
                        EfficiencyS_passed = 0.0;
                        fill("TRTTrackHistograms"+std::to_string(ibe)+std::to_string(iphi_module), EfficiencyS_passed, EfficiencyS);
                    }
 
                    if (m_doChips  && m_doExpert) {
                        EfficiencyC = chip[ibe] - 1;
                        EfficiencyC_passed = 0.0;
                        fill("TRTTrackHistograms"+std::to_string(ibe)+std::to_string(iphi_module), EfficiencyC_passed, EfficiencyC);
                    }
                }
            }
            const InDet::TRT_DriftCircle *RawDriftCircle = dynamic_cast<const InDet::TRT_DriftCircle *>(trtCircle->prepRawData());
            if (RawDriftCircle) {
                nTRTHits_side[ibe][iside]++;
                float timeOverThreshold = RawDriftCircle->timeOverThreshold();
                int middleHTbit       = RawDriftCircle->getWord() & 0x00020000;
                //0x00020000 = 0000 0000 0000 0000 0000 0010 0000 0000 0000 0000
                int hitinvaliditygate = RawDriftCircle->getWord() & 0x000DFE80;
                //0x000DFE80 = 0000 0000 0000 0000 0000 1101 1111 1110 1000 0000
                bool is_middleHTbit_high = (middleHTbit != 0);
                bool is_anybininVgate_high = (hitinvaliditygate != 0);
 
                if (m_doExpert && m_doStraws) {
                    HitToTonTMapS_x = thisStrawNumber[ibe];
                    HitToTonTMapS_y = timeOverThreshold;
                    fill("TRTTrackHistograms"+std::to_string(ibe)+std::to_string(iphi_module), HitToTonTMapS_x, HitToTonTMapS_y);
                }
 
                if (m_doExpert && m_doChips) {
                    HitToTonTMapC_x = chip[ibe] - 1;
                    HitToTonTMapC_y = timeOverThreshold;
                    fill("TRTTrackHistograms"+std::to_string(ibe)+std::to_string(iphi_module), HitToTonTMapC_x, HitToTonTMapC_y);
                }
 
                if (m_doExpert && m_doStraws) {
                    if (is_middleHTbit_high) {
                        HitHonTMapS = thisStrawNumber[ibe];
                        fill("TRTTrackHistograms"+std::to_string(ibe)+std::to_string(iphi_module), HitHonTMapS);
                        HitHWonTMapS = thisStrawNumber[ibe];
                        fill("TRTTrackHistograms"+std::to_string(ibe)+std::to_string(iphi_module), HitHWonTMapS);
 
                        HtoLonTMapS = thisStrawNumber[ibe];
                        HtoLonTMapS_passed = 1.0;
                        fill("TRTTrackHistograms"+std::to_string(ibe)+std::to_string(iphi_module), HtoLonTMapS_passed, HtoLonTMapS);
                        HtoLWonTMapS = thisStrawNumber[ibe];
                        HtoLWonTMapS_passed = 1.0;
                        fill("TRTTrackHistograms"+std::to_string(ibe)+std::to_string(iphi_module), HtoLWonTMapS_passed, HtoLWonTMapS);
                    }
                }
 
                if (m_doExpert && m_doChips) {
                    if (is_middleHTbit_high) {
                        HitHWonTMapC = chip[ibe] - 1;
                        fill("TRTTrackHistograms"+std::to_string(ibe)+std::to_string(iphi_module), HitHWonTMapC);
                        HitHonTMapC = chip[ibe] - 1;
                        fill("TRTTrackHistograms"+std::to_string(ibe)+std::to_string(iphi_module), HitHonTMapC);
                        HtoLonTMapC = chip[ibe] - 1;
                        HtoLonTMapC_passed = 1.0;
                        fill("TRTTrackHistograms"+std::to_string(ibe)+std::to_string(iphi_module), HtoLonTMapC_passed, HtoLonTMapC);
                        HtoLWonTMapC = chip[ibe] - 1;
                        HtoLWonTMapC_passed = 1.0;
                        fill("TRTTrackHistograms"+std::to_string(ibe)+std::to_string(iphi_module), HtoLWonTMapC_passed, HtoLWonTMapC);
                    }
                }
 
                const int driftTimeBin = RawDriftCircle->driftTimeBin();
 
                if ( (driftTimeBin < 24) &&
                     !(RawDriftCircle->lastBinHigh()) &&
                     !(RawDriftCircle->firstBinHigh()) ) {
                    if (m_doStraws && m_doShift) {
                        if (ibe == 0) {
                            straw_edge_struct& this_struct = straw_edge_map[1].emplace_back(); // index 1 is Barrel
                            this_struct.strawNumber = thisStrawNumber[ibe];
                            this_struct.HitWonTMap_B_y = 1.0;
                            scale_hHitWonTMap_B_passed[thisStrawNumber[ibe]]++;
                        } else if (ibe == 1) {
                            straw_edge_struct& this_struct = straw_edge_map[iside == 0 ? 2 : -2].emplace_back(); // index 2 is EA, index -2 is EC
                            this_struct.strawNumber = thisStrawNumber[ibe];
                            this_struct.HitWonTMap_E_y = 1.0;
                            scale_hHitWonTMap_E_passed[iside][thisStrawNumber[ibe]]++;
                        }
                    }
                }
 
                if ((driftTimeBin > 2) && (driftTimeBin < 17)) {
                    if (m_doExpert && m_doStraws) {
                        HitWonTMapS = thisStrawNumber[ibe];
                        fill("TRTTrackHistograms"+std::to_string(ibe)+std::to_string(iphi_module), HitWonTMapS);
 
                    }
                    if (m_doExpert && m_doChips) {
                        HitWonTMapC = chip[ibe] - 1;
                        fill("TRTTrackHistograms"+std::to_string(ibe)+std::to_string(iphi_module), HitWonTMapC);
                    }
                }
 
                const int trailingEdge = RawDriftCircle->trailingEdge();
                float trailingEdgeScaled = (trailingEdge + 1) * 3.125;
 
                if ((trailingEdge < 23) &&
                    !(RawDriftCircle->lastBinHigh()) &&
                    !(RawDriftCircle->firstBinHigh())) {
                    if (m_doExpert && m_doStraws) {
                        HitTronTMapS_x = thisStrawNumber[ibe];
                        HitTronTMapS_y = trailingEdgeScaled;
                        fill("TRTTrackHistograms"+std::to_string(ibe)+std::to_string(iphi_module), HitTronTMapS_x, HitTronTMapS_y);
                    }
 
                    if (m_doExpert && m_doChips) {
                        HitTronTMapC_x = chip[ibe] - 1;
                        HitTronTMapC_y = trailingEdgeScaled;
                        fill("TRTTrackHistograms"+std::to_string(ibe)+std::to_string(iphi_module), HitTronTMapC_x, HitTronTMapC_y);
                    }
                }
 
                const bool firstBinHigh = RawDriftCircle->firstBinHigh();
                const bool lastBinHigh = RawDriftCircle->lastBinHigh();
 
                if (firstBinHigh || lastBinHigh || driftTimeBin > 0 || trailingEdge < 23) {
                    if (m_doExpert && m_doStraws) {
                        HitAonTMapS = thisStrawNumber[ibe];
                        fill("TRTTrackHistograms"+std::to_string(ibe)+std::to_string(iphi_module), HitAonTMapS);
 
                    if (!is_middleHTbit_high) {
                        HtoLonTMapS = thisStrawNumber[ibe];
                        HtoLonTMapS_passed = 0.0;
                        fill("TRTTrackHistograms"+std::to_string(ibe)+std::to_string(iphi_module), HtoLonTMapS_passed, HtoLonTMapS);
                    }
                    }
 
                    if (m_doExpert && m_doChips) {
                        HitAonTMapC = chip[ibe] - 1;
                        fill("TRTTrackHistograms"+std::to_string(ibe)+std::to_string(iphi_module), HitAonTMapC);
                        if (!is_middleHTbit_high) {
                            HtoLonTMapC = chip[ibe] - 1;
                            HtoLonTMapC_passed = 0.0;
                            fill("TRTTrackHistograms"+std::to_string(ibe)+std::to_string(iphi_module), HtoLonTMapC_passed, HtoLonTMapC);
                        }
                    }
 
                    nTRTHitsW[ibe][iside]++;
 
                    if (isArgonStraw) nTRTHitsW_Ar[ibe][iside]++;
                    else nTRTHitsW_Xe[ibe][iside]++;
 
                    nTRTHitsW_perwheel[iside][layer_or_wheel]++;
 
                    if (is_middleHTbit_high) {
                        nTRTHLHitsW[ibe][iside]++;
                        if (isArgonStraw) nTRTHLHitsW_Ar[ibe][iside]++;
                        else nTRTHLHitsW_Xe[ibe][iside]++;
                    }
                }
 
                if (is_anybininVgate_high) {
                    if (m_doExpert && m_doStraws) {
                        HitAWonTMapS = thisStrawNumber[ibe];
                        fill("TRTTrackHistograms"+std::to_string(ibe)+std::to_string(iphi_module), HitAWonTMapS);
 
                        if (!is_middleHTbit_high) {
                            HtoLWonTMapS = thisStrawNumber[ibe];
                            HtoLWonTMapS_passed = 0.0;
                            fill("TRTTrackHistograms"+std::to_string(ibe)+std::to_string(iphi_module), HtoLWonTMapS_passed, HtoLWonTMapS);
                        }
                    }
 
                    if (m_doExpert && m_doChips) {
                        HitAWonTMapC = chip[ibe] - 1;
                        fill("TRTTrackHistograms"+std::to_string(ibe)+std::to_string(iphi_module), HitAWonTMapC);
 
                        if (!is_middleHTbit_high) {
                            HtoLWonTMapC = chip[ibe] - 1;
                            HtoLWonTMapC_passed = 0.0;
                            fill("TRTTrackHistograms"+std::to_string(ibe)+std::to_string(iphi_module), HtoLWonTMapC_passed, HtoLWonTMapC);
                        }
                    }
                }
            }
        }
 
        // ToDo: work on the part below
        for (int ibe = 0; ibe < 2; ibe++) {
            for (int i = 0; i < 64; i++)
                if (trackfound[ibe][i])
                    ntrackstack[ibe][i]++;
 
            if (phi2D[ibe] < 0) continue;
 
 
            if (m_doShift) {
                if (ibe == 0) {
                    if (isBarrelOnly) {
                        if (nTRTHitsW[ibe][0] > 0) {
                            if (nTRTHitsW[ibe][1] > 0) {
                                NumSwLLWoT_B = nTRTHitsW[ibe][0] + nTRTHitsW[ibe][1];
                                fill("ShiftTRTTrackHistograms"+std::to_string(ibe), NumSwLLWoT_B);
                            }
                            else {
                                NumSwLLWoT_B = nTRTHitsW[ibe][0];
                                fill("ShiftTRTTrackHistograms"+std::to_string(ibe), NumSwLLWoT_B);
                            }
                        } else if (nTRTHitsW[ibe][1] > 0) {
                            NumSwLLWoT_B = nTRTHitsW[ibe][1];
                            fill("ShiftTRTTrackHistograms"+std::to_string(ibe), NumSwLLWoT_B);
                        }
                    }
 
                    if (nTRTHLHitsW[ibe][0] > 0) {
                        if (nTRTHLHitsW[ibe][1] > 0) {
                            HLhitOnTrack_B = nTRTHLHitsW[ibe][0] + nTRTHLHitsW[ibe][1];
                            fill("ShiftTRTTrackHistograms"+std::to_string(ibe), HLhitOnTrack_B);
                        } else {
                            HLhitOnTrack_B = nTRTHLHitsW[ibe][0];
                            fill("ShiftTRTTrackHistograms"+std::to_string(ibe), HLhitOnTrack_B);
                        }
                    } else if (nTRTHLHitsW[ibe][1] > 0) {
                        HLhitOnTrack_B = nTRTHLHitsW[ibe][1];
                        fill("ShiftTRTTrackHistograms"+std::to_string(ibe), HLhitOnTrack_B);
                    }
 
                    if (nTRTHitsW[ibe][0] + nTRTHitsW[ibe][1] > 0) {
                        HtoLRatioOnTrack_B = (float)(nTRTHLHitsW[ibe][0] + nTRTHLHitsW[ibe][1]) / (nTRTHitsW[ibe][0] + nTRTHitsW[ibe][1]);
                        fill("ShiftTRTTrackHistograms"+std::to_string(ibe), HtoLRatioOnTrack_B);
                    }
 
                    if (nTRTHitsW_Ar[ibe][0] + nTRTHitsW_Ar[ibe][1] > 0) {
                        HtoLRatioOnTrack_B_Ar = (float)(nTRTHLHitsW_Ar[ibe][0] + nTRTHLHitsW_Ar[ibe][1]) / (nTRTHitsW_Ar[ibe][0] + nTRTHitsW_Ar[ibe][1]);
                        fill("ShiftTRTTrackHistograms"+std::to_string(ibe), HtoLRatioOnTrack_B_Ar);
                    }
 
                    if (nTRTHitsW_Xe[ibe][0] + nTRTHitsW_Xe[ibe][1] > 0) {
                        HtoLRatioOnTrack_B_Xe = (float)(nTRTHLHitsW_Xe[ibe][0] + nTRTHLHitsW_Xe[ibe][1]) / (nTRTHitsW_Xe[ibe][0] + nTRTHitsW_Xe[ibe][1]);
                        fill("ShiftTRTTrackHistograms"+std::to_string(ibe), HtoLRatioOnTrack_B_Xe);
                    }
                } else if (ibe == 1) {
                    if (nTRTHitsW[ibe][0] > 0) {
                        if (nTRTHitsW[ibe][1] > 0) {
                            if (ECAhit && !ECChit && !Bhit) {
                                NumSwLLWoT_E = nTRTHitsW[ibe][0];
                                fill("ShiftTRTTrackHistograms"+std::to_string(ibe)+"0", NumSwLLWoT_E);
                            }
 
                            if (ECChit && !ECAhit && !Bhit) {
                                NumSwLLWoT_E = nTRTHitsW[ibe][1];
                                fill("ShiftTRTTrackHistograms"+std::to_string(ibe)+"1", NumSwLLWoT_E);
                            }
                        }
 
                        if (ECAhit && !ECChit && !Bhit) {
                            NumSwLLWoT_E = nTRTHitsW[ibe][0];
                            fill("ShiftTRTTrackHistograms"+std::to_string(ibe)+"0", NumSwLLWoT_E);
                        }
                    } else if (nTRTHitsW[ibe][1] > 0) {
                        if (ECChit && !ECAhit && !Bhit) {
                            NumSwLLWoT_E = nTRTHitsW[ibe][1];
                            fill("ShiftTRTTrackHistograms"+std::to_string(ibe)+"1", NumSwLLWoT_E);
                        }
                    }
 
                    for (int iside = 0; iside < 2; iside++) {
                        if (nTRTHLHitsW[ibe][iside] > 0) {
                            HLhitOnTrack_E = nTRTHLHitsW[ibe][iside];
                            fill("ShiftTRTTrackHistograms"+std::to_string(ibe)+std::to_string(iside), HLhitOnTrack_E);
                        }
 
                        if ((nTRTHitsW[ibe][iside]) > 0) {
                            HtoLRatioOnTrack_E = (float)(nTRTHLHitsW[ibe][iside]) / nTRTHitsW[ibe][iside];
                            fill("ShiftTRTTrackHistograms"+std::to_string(ibe)+std::to_string(iside), HtoLRatioOnTrack_E);
 
                            if ((nTRTHitsW_Ar[ibe][iside]) > 0) {
                                HtoLRatioOnTrack_E_Ar = (float)(nTRTHLHitsW_Ar[ibe][iside]) / nTRTHitsW_Ar[ibe][iside];
                                fill("ShiftTRTTrackHistograms"+std::to_string(ibe)+std::to_string(iside), HtoLRatioOnTrack_E_Ar);
                            }
 
                            if ((nTRTHitsW_Xe[ibe][iside]) > 0) {
                                HtoLRatioOnTrack_E_Xe = (float)(nTRTHLHitsW_Xe[ibe][iside]) / nTRTHitsW_Xe[ibe][iside];
                                fill("ShiftTRTTrackHistograms"+std::to_string(ibe)+std::to_string(iside), HtoLRatioOnTrack_E_Xe);
                            }
                        }
                    }
                }
            }
        }
    }
 
    // Barrel straw normalization
    for (int k = 0; k < s_Straw_max[0]; k++) {
        try {
            if (scale_hHitWonTMap_B[k] - scale_hHitWonTMap_B_passed[k] >= 0) {
                for (int j = 0; j < scale_hHitWonTMap_B[k] - scale_hHitWonTMap_B_passed[k]; j++) {
                    if (m_doStraws) {
                        straw_edge_struct& this_struct = straw_edge_map[1].emplace_back(); // index 1 is Barrel
                        this_struct.strawNumber = k;
                        this_struct.HitWonTMap_B_y = 0;
                    }
                }
            } else {
                ATH_MSG_ERROR("Scale value " << scale_hHitWonTMap_B[k] - scale_hHitWonTMap_B_passed[k] <<
                    " is less than zero in scaling for Barrel,  k = " << k);
            }
        } catch (out_of_range &e) {
            ATH_MSG_ERROR("Index " << k << " out of range in scaling for Barrel");
        }
    }
 
    // Endcap straw normalization
    for (int k = 0; k < s_Straw_max[1]; k++) {
        for (int iside = 0; iside < 2; iside++) {
            try {
                if (scale_hHitWonTMap_E[iside][k] - scale_hHitWonTMap_E_passed[iside][k] >= 0) {
                    for (int j = 0; j < scale_hHitWonTMap_E[iside][k] - scale_hHitWonTMap_E_passed[iside][k]; j++) {
                        if (m_doStraws) {
                            straw_edge_struct& this_struct = straw_edge_map[iside == 0 ? 2 : -2].emplace_back(); // index 2 is EA, index -2 is EC
                            this_struct.strawNumber = k;
                            this_struct.HitWonTMap_E_y = 0;
                        }
                    }
                } else {
                    ATH_MSG_ERROR("Scale value " << scale_hHitWonTMap_E[iside][k] - scale_hHitWonTMap_E_passed[iside][k] <<
                        " is less than zero in scaling for Endcap, iside = " << iside << ", k = " << k);
                }
            } catch (out_of_range &e) {
                ATH_MSG_ERROR("Index " << k << " out of range in scaling for Endcap");
            }
        }
    }
 
    for (const auto& ibarrel_ecpair : straw_edge_map) {
        int ibe = abs(ibarrel_ecpair.first) - 1;
        int iside = ibarrel_ecpair.first > 0 ? 0 : 1;
        auto strawNumber    = Monitored::Collection("strawNumber", ibarrel_ecpair.second, [](const auto& s){return s.strawNumber;});
        auto HitWonTMap_B_y = Monitored::Collection("HitWonTMap_B_y", ibarrel_ecpair.second, [](const auto& s){return s.HitWonTMap_B_y;});
        auto HitWonTMap_E_y = Monitored::Collection("HitWonTMap_E_y", ibarrel_ecpair.second, [](const auto& s){return s.HitWonTMap_E_y;});
        if (ibe == 0) {
            fill("ShiftTRTTrackHistograms0", strawNumber, HitWonTMap_B_y);
        } else if (ibe == 1) {
            fill("ShiftTRTTrackHistograms1"+std::to_string(iside), strawNumber, HitWonTMap_E_y);
        }
    }
 
    return StatusCode::SUCCESS;
}
 
 
StatusCode TRTMonitoringRun3RAW_Alg::fillHistograms( const EventContext& ctx ) const {
    using namespace Monitored;
    bool passEventBurst;
 
    ATH_MSG_VERBOSE("Monitoring Histograms being filled");
 
    SG::ReadHandle<TRT_RDO_Container>   rdoContainer(m_rdoContainerKey, ctx);
    SG::ReadHandle<xAOD::EventInfo>     xAODEventInfo = GetEventInfo(ctx);
    SG::ReadHandle<InDetTimeCollection> trtBCIDCollection(m_TRT_BCIDCollectionKey, ctx);
    SG::ReadHandle<TrackCollection>     combTrackCollection(m_combTrackCollectionKey, ctx);
    SG::ReadHandle<TrackCollection>     trackCollection(m_trackCollectionKey, ctx);
 
    if (m_doRDOsMon) {
        if (!rdoContainer.isValid()) {
            ATH_MSG_ERROR("Could not find TRT Raw Data Object " << m_rdoContainerKey.key() <<
                          " in store");
            return StatusCode::FAILURE;
        }
 
        passEventBurst = checkEventBurst(*rdoContainer);
        if (passEventBurst) {
            if (!trtBCIDCollection.isValid()) {
                ATH_MSG_INFO("Could not find BCID collection " << m_TRT_BCIDCollectionKey.key() <<
                             " in store");
            }
 
            ATH_CHECK( fillTRTRDOs(ctx, *rdoContainer, *xAODEventInfo, trtBCIDCollection.ptr()) );
        }
    } else passEventBurst = true;
 
    if (m_useHoleFinder) {
        if (!combTrackCollection.isValid()) {
            ATH_MSG_ERROR("Could not find track collection " << m_combTrackCollectionKey.key() <<
                          " in store");
            return StatusCode::FAILURE;
        }
        ATH_CHECK( fillTRTEfficiency(ctx, *combTrackCollection) );
    }
 
    if (m_doHitsMon) {
        if (!trackCollection.isValid()) {
            ATH_MSG_ERROR("Could not find track collection " << m_trackCollectionKey.key() <<
                        " in store");
            return StatusCode::FAILURE;
        }
        if (passEventBurst) {
            ATH_CHECK( fillTRTHits(ctx, *trackCollection) );
        }
    }
 
    return StatusCode::SUCCESS;
}