RpcCablingCondData.cxx

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/*
   Copyright (C) 2002-2025 CERN for the benefit of the ATLAS collaboration
   */
 
#include "RPC_CondCabling/RpcCablingCondData.h"
#include "RPC_CondCabling/RPCofflineId.h"
#include "MuonIdHelpers/RpcIdHelper.h"
#include "AthenaKernel/getMessageSvc.h"
#include "GaudiKernel/MsgStream.h"
 
const RpcCablingCondData::RDOmap& RpcCablingCondData::give_RDOs(void) const { return m_RDOs; }
 
bool RpcCablingCondData::give_ROBid(const Identifier& compactID, unsigned short int& id) const {
    OfflineOnlineMap::const_iterator it = m_RDOmap.find(compactID);
    if (it == m_RDOmap.end()) return false;
    const RDOindex* index = (*m_RDOmap.find(compactID)).second;
    if (!index) return false;
    id = index->ROBid();
    return true;
}
bool RpcCablingCondData::give_ROBid(const unsigned int hashID, unsigned short int& id) const {
    if (hashID >= m_HashVec.size()) return false;
    const RDOindex* index = m_HashVec[hashID];
    if (!index) return false;
    id = index->ROBid();
    return true;
}
 
bool RpcCablingCondData::give_RODid(const Identifier& compactID, unsigned short int& id) const {
    OfflineOnlineMap::const_iterator it = m_RDOmap.find(compactID);
    if (it == m_RDOmap.end()) return false;
    const RDOindex* index = (*m_RDOmap.find(compactID)).second;
    if (!index) return false;
    id = index->RODid();
    return true;
}
bool RpcCablingCondData::give_RODid(const unsigned int hashID, unsigned short int& id) const {
    if (hashID >= m_HashVec.size()) return false;
    const RDOindex* index = m_HashVec[hashID];
    if (!index) return false;
    id = index->RODid();
    return true;
}
 
bool RpcCablingCondData::give_side(const Identifier& compactID, unsigned short int& id) const {
    OfflineOnlineMap::const_iterator it = m_RDOmap.find(compactID);
    if (it == m_RDOmap.end()) return false;
    const RDOindex* index = (*m_RDOmap.find(compactID)).second;
    if (!index) return false;
    id = index->side();
    return true;
}
bool RpcCablingCondData::give_side(const unsigned int hashID, unsigned short int& id) const {
    if (hashID >= m_HashVec.size()) return false;
    const RDOindex* index = m_HashVec[hashID];
    if (!index) return false;
    id = index->side();
    return true;
}
 
bool RpcCablingCondData::give_SLid(const Identifier& compactID, unsigned short int& id) const {
    OfflineOnlineMap::const_iterator it = m_RDOmap.find(compactID);
    if (it == m_RDOmap.end()) return false;
    const RDOindex* index = (*m_RDOmap.find(compactID)).second;
    if (!index) return false;
    id = index->SLid();
    return true;
}
bool RpcCablingCondData::give_SLid(const unsigned int hashID, unsigned short int& id) const {
    if (hashID >= m_HashVec.size()) return false;
    const RDOindex* index = m_HashVec[hashID];
    if (!index) return false;
    id = index->SLid();
    return true;
}
 
bool RpcCablingCondData::give_RXid(const Identifier& compactID, unsigned short int& id) const {
    OfflineOnlineMap::const_iterator it = m_RDOmap.find(compactID);
    if (it == m_RDOmap.end()) return false;
    const RDOindex* index = (*m_RDOmap.find(compactID)).second;
    if (!index) return false;
    id = index->RXid();
    return true;
}
bool RpcCablingCondData::give_RXid(const unsigned int hashID, unsigned short int& id) const {
    if (hashID >= m_HashVec.size()) return false;
    const RDOindex* index = m_HashVec[hashID];
    if (!index) return false;
    id = index->RXid();
    return true;
}
 
bool RpcCablingCondData::give_PADid(const Identifier& compactID, unsigned short int& id) const {
    OfflineOnlineMap::const_iterator it = m_RDOmap.find(compactID);
    if (it == m_RDOmap.end()) return false;
    const RDOindex* index = (*m_RDOmap.find(compactID)).second;
    if (!index) return false;
    id = index->PADid();
    return true;
}
bool RpcCablingCondData::give_PADid(const unsigned int hashID, unsigned short int& id) const {
    if (hashID >= m_HashVec.size()) return false;
    const RDOindex* index = m_HashVec[hashID];
    if (!index) return false;
    id = index->PADid();
    return true;
}
 
const std::vector<uint32_t>& RpcCablingCondData::giveFullListOfRobIds() const { return m_fullListOfRobIds; }
 
Identifier RpcCablingCondData::identifier(int index) const {
    int size = m_int2id.size();
    if (index >= 0 && index < size) { return m_int2id[index]; }
 
    Identifier id;
    return id;
}
 
int RpcCablingCondData::operator()(const Identifier& id) const {
    std::map<Identifier, int>::const_iterator it = m_lookup.find(id);
    if (it != m_lookup.end()) { return (*it).second; }
 
    // FIXME  -1 for invalid ID?
    return -1;
}
 
int RpcCablingCondData::max() const { return m_int2id.size(); }
 
int RpcCablingCondData::offset() { return 0; }
 
std::vector<IdentifierHash> RpcCablingCondData::rod2hash(uint16_t subsystem_id, uint16_t rod_id) const {
    if ((subsystem_id != 0x66 && subsystem_id != 0x65) || (rod_id >= 16)) return std::vector<IdentifierHash>();
    return m_rod2hash[(subsystem_id == 0x66) ? 0 : 1][rod_id];
}
 
uint32_t RpcCablingCondData::hash2source(unsigned int h) const {
    unsigned short int side;
    unsigned short int RODid;
    if (give_side(h, side) && give_RODid(h, RODid)) {
        uint32_t sub = side;
        uint32_t rod = RODid;
        return (sub << 16) | rod;
    }
    return 0;
}
 
StatusCode RpcCablingCondData::giveROB_fromRDO(const IdentifierHash rdoHashId, uint32_t& robId) const {
    StatusCode sc = StatusCode::SUCCESS;
    unsigned int hash = (unsigned int)rdoHashId;
 
    if (hash >= m_HashVec.size()) { return StatusCode::FAILURE; }
 
    unsigned short int rob_id = m_HashVec[hash]->ROBid();
    unsigned short int side = m_HashVec[hash]->side();
 
    robId = (side << 16) | rob_id;
 
    return sc;
}
 
StatusCode RpcCablingCondData::giveROB_fromRDO(const std::vector<IdentifierHash>& rdoHashVec, std::vector<uint32_t>& robIdVec) const {
    StatusCode sc = StatusCode::SUCCESS;
 
    robIdVec.clear();
 
    for (IdentifierHash rdoHashId : rdoHashVec) {
        uint32_t robid = 0xffffffff;
        if (!giveROB_fromRDO(rdoHashId, robid)) sc = StatusCode::FAILURE;
        robIdVec.push_back(robid);
    }
 
    // sort and remove duplicates
    std::sort(robIdVec.begin(), robIdVec.end());
    robIdVec.erase(unique(robIdVec.begin(), robIdVec.end()), robIdVec.end());
 
    return sc;
}
 
const CMAparameters::CMAlist RpcCablingCondData::give_CMAs(const int logic_sector, const ViewType side, const int station,
                                                           const int cabling_code) const {
    const RPC_CondCabling::SectorLogicSetup& s = m_SectorType[m_SectorMap[logic_sector] - 1];
    CMAparameters::CMAlist result = s.give_CMAs(logic_sector, side, station, cabling_code);
    return result;
}
 
unsigned long int RpcCablingCondData::strip_code_fromOffId(const std::string& stationName, int stationEta, int stationPhi, int doubletR,
                                                           int doubletZ, int doubletPhi, int gasGap, int measuresPhi, int strip) const {
    unsigned long int code = 0;
 
    unsigned long int etaPhiView = 2;
    unsigned long int phi1_16 = 2. * stationPhi;
    if (largeSector(stationName)) phi1_16 = phi1_16 - 1;
    int logicSector = (phi1_16 - 1) * 2 + doubletPhi - 2;
    if (logicSector < 0) logicSector = 31;
    if (measuresPhi > 0) etaPhiView = 1;
    if (stationEta >= 0) logicSector += 32;
 
    unsigned long int cabStat = doubletR;
    if (stationName.substr(0, 2) == "BO") {
        cabStat = 2 + cabStat;
        if (cabStat > 3) cabStat = 2;  // special case of BOF and BOG with dbr=2
    } else if (stationName.substr(0, 3) == "BML") {
        if (abs(stationEta) == 7 || (abs(stationEta) == 6 && stationPhi == 7)) {
            cabStat = 2;  // special case of single RPC Chambers at the same R or dbr2
        }
    }
    if (stationName.substr(0,3)=="BIS" && logicSector>31) logicSector+=1; // BIS78 are in doubPhi==1
 
    if (logicSector < 0 || logicSector > 63) { return 999999; }
 
    int zIndexInCablingStation = computeZIndexInCablingStation(stationName, logicSector, stationEta, doubletR, doubletZ, cabStat);
    if (zIndexInCablingStation > 99) return 0;
    int cablingStation = cabStat;
 
    unsigned long int gg = gasGap - 1;
    code = strip_code_fromOffline(etaPhiView, logicSector, cablingStation, gg, zIndexInCablingStation, strip);
 
    return code;
}
 
unsigned long int RpcCablingCondData::strip_code_fromOffline(int etaPhiView, int logicSector, int cablingStation, int gasGap,
                                                             int zIndexInCablingStation, int strip) {
    unsigned long int code = 0;
    code = etaPhiView * 100000000 + logicSector * 1000000 + cablingStation * 100000 + gasGap * 10000 + zIndexInCablingStation * 100 +
           (strip - 1);
    return code;
}
 
bool RpcCablingCondData::largeSector(const std::string& stName) {
    bool ls = false;
    if (stName == "BML" ||  // 2
        stName == "BOL" ||  // 4
        stName == "BME" ||  // 53
        stName == "BIR"     // 52
    )
        ls = true;
    return ls;
}
 
unsigned int RpcCablingCondData::computeZIndexInCablingStation(const std::string& stationName, int logicSector, int stationEta,
                                                               int doubletR, int doubletZ, int cabStat) const {
    unsigned int zIndexInCablingStation = 999;
    int cablingStation = -1;
    int sectType = m_SectorMap[logicSector];
    assert(m_MaxType != -999999);
    if (sectType < 1 || sectType > m_MaxType + 1) { return 99999; }
    const RPC_CondCabling::SectorLogicSetup& sec = m_SectorType[sectType - 1];
 
    for (unsigned int jStat = 1; jStat < 4; ++jStat) {
        if (cablingStation != -1) break;
        for (unsigned int jCham = 0; jCham < 20; ++jCham) {
            const RPC_CondCabling::RPCchamber* rpcC = sec.find_chamber(jStat, jCham);
            if (rpcC == nullptr) continue;
 
            if ((rpcC->chamber_name()).substr(0, 3) != stationName) { continue; }
            if (rpcC->stationEta() != abs(stationEta)) { continue; }
            if (rpcC->doubletR() != doubletR) { continue; }
            if (rpcC->doubletZ() != doubletZ) { continue; }
            cablingStation = jStat;
            zIndexInCablingStation = jCham;
            break;
        }
    }
    if (cablingStation < 1 || cablingStation > 3 || (cabStat != cablingStation)) { return 99999; }
    if (zIndexInCablingStation > 19) { return 99999; }
 
    return zIndexInCablingStation;
}
 
std::list<Identifier> RpcCablingCondData::give_strip_id(unsigned short int SubsystemId, unsigned short int SectorId,
                                                        unsigned short int PADId, unsigned short int CMAId, unsigned short ijk,
                                                        unsigned short int Channel, const RpcIdHelper* rpcId) const {
    std::list<unsigned int> CodeList;
 
    int logic_sector = SectorId + SubsystemId * 32;
    unsigned short int Ixx = CMAId & 1;
    unsigned short int ep = (CMAId >> 1) & 1;
    unsigned short int lh = (CMAId >> 2) & 1;
 
    ep = (ep == 1) ? 0 : 1;
 
    // retrieve the Sector Logic setup
    const RPC_CondCabling::SectorLogicSetup& s = m_SectorType[m_SectorMap[logic_sector] - 1];
 
    // retrieve the CMAparameters associated to the identifiers
    if (ep) {
        CMAcoverage PhiCov = (logic_sector % 2) ? OddSectors : EvenSectors;
        CMAidentity PHI(Phi, PhiCov, PADId, Ixx);
        CodeList = s.give_strip_code(PHI, logic_sector, lh, ijk, Channel);
    } else {
        CMAidentity ETA(Eta, AllSectors, PADId, Ixx);
        CodeList = s.give_strip_code(ETA, logic_sector, lh, ijk, Channel);
    }
 
    std::list<RPCofflineId> offlineIdList;
    std::list<unsigned int>::const_iterator it = CodeList.begin();
    while (it != CodeList.end()) {
        RPCdecoder decode(*it);
        RPCofflineId rpcId;
 
        int RPC_strip = decode.strip_number();
        int RPC_chamber = decode.rpc_z_index();
        int RPC_layer = decode.rpc_layer();
        int RPC_station = decode.lvl1_station();
        int sector = (decode.logic_sector()) % 32;
 
        const RPC_CondCabling::RPCchamber* rpc = s.find_chamber(RPC_station, RPC_chamber);
 
        rpcId.stationName = rpc->stationName();
        rpcId.stationEta = (decode.half_barrel() == Positive) ? rpc->stationEta() : -rpc->stationEta();
        rpcId.stationPhi = (sector == 31) ? 1 : (sector + 1) / 4 + 1;
        rpcId.doubletR = rpc->doubletR();
        rpcId.doubletZ = rpc->doubletZ();
        rpcId.doubletPhi = (rpc->phiReadoutPannels() == 2) ? (sector + 1) % 2 + 1 : 1;
        rpcId.gasGap = RPC_layer + 1;
        rpcId.measuresPhi = static_cast<int>(decode.view());
        rpcId.strip = RPC_strip + 1;
 
        offlineIdList.push_back(std::move(rpcId));
 
        ++it;
    }
 
    std::list<Identifier> ids;
    std::list<RPCofflineId>::const_iterator iterator = offlineIdList.begin();
    while (iterator != offlineIdList.end()) {
        Identifier id =
            rpcId->channelID((*iterator).stationName, (*iterator).stationEta, (*iterator).stationPhi, (*iterator).doubletR,
                             (*iterator).doubletZ, (*iterator).doubletPhi, (*iterator).gasGap, (*iterator).measuresPhi, (*iterator).strip);
        ids.push_back(id);
        ++iterator;
    }
 
    return ids;
}
 
StatusCode RpcCablingCondData::giveRDO_fromPRD(const IdentifierHash prdHashId, std::vector<IdentifierHash>& rdoHashVec) const {
    StatusCode sc = StatusCode::SUCCESS;
 
    rdoHashVec.clear();
 
    PRD_RDO_Map::const_iterator it = m_PRD_RDO_map.find(prdHashId);
 
    if (it == m_PRD_RDO_map.cend()) return sc;
 
    for (IdentifierHash rdoId : (*it).second) rdoHashVec.push_back(rdoId);
 
    return sc;
}
 
StatusCode RpcCablingCondData::giveRDO_fromPRD(const std::vector<IdentifierHash>& prdHashVec,
                                               std::vector<IdentifierHash>& rdoHashVec) const {
    StatusCode sc = StatusCode::SUCCESS;
 
    rdoHashVec.clear();
    std::set<IdentifierHash> requestedRdoHashSet;
 
    for (IdentifierHash prdHashId : prdHashVec) {
        // find the requested PRD HashId in the map
        PRD_RDO_Map::const_iterator it = m_PRD_RDO_map.find(prdHashId);
        if (it == m_PRD_RDO_map.cend()) { continue; }
        // if the PRD was found in the map, add the corresponding set of RDO HashIds to the set of requested RDO HashIds
        requestedRdoHashSet.insert((*it).second.begin(), (*it).second.end());
    }
 
    // convert set to vector
    for (IdentifierHash rdoHashId : requestedRdoHashSet) { rdoHashVec.push_back(rdoHashId); }
 
    return sc;
}
 
StatusCode RpcCablingCondData::giveRDO_fromROB(const std::vector<uint32_t>& robIdVec, std::vector<IdentifierHash>& rdoHashVec) const {
    StatusCode sc = StatusCode::SUCCESS;
 
    rdoHashVec.clear();
    std::set<IdentifierHash> requestedRdoHashSet;
 
    for (uint32_t robId : robIdVec) {
        // find the requested ROB Id in the map
        ROB_RDO_Map::const_iterator it = m_ROB_RDO_map.find(robId);
        if (it == m_ROB_RDO_map.cend()) { continue; }
        // if the ROB Id was found in the map, add the corresponding set of RDO HashIds to the set of requested RDO HashIds
        requestedRdoHashSet.insert((*it).second.begin(), (*it).second.end());
    }
 
    // convert set to vector
    for (IdentifierHash rdoHashId : requestedRdoHashSet) { rdoHashVec.push_back(rdoHashId); }
 
    return sc;
}
 
StatusCode RpcCablingCondData::giveROB_fromPRD(const IdentifierHash prdHashId, std::vector<uint32_t>& robIdVec) const {
    StatusCode sc = StatusCode::SUCCESS;
 
    robIdVec.clear();
 
    PRD_ROB_Map::const_iterator it = m_PRD_ROB_map.find(prdHashId);
 
    if (it == m_PRD_ROB_map.cend()) return sc;
 
    for (uint32_t robId : (*it).second) robIdVec.push_back(robId);
 
    return sc;
}
 
bool RpcCablingCondData::give_Pad_Parameters(unsigned short int logic_sector, unsigned short int PADId, bool& feet, bool& eta_and_phi,
                                             unsigned short int& cma_mask, unsigned short int& feet_th0, unsigned short int& feet_th1,
                                             unsigned short int& feet_th2) const {
    if (logic_sector >= MAX_LOGICSECTOR || PADId >= MAX_PADID) return false;
 
    feet = m_RPCPadParameters_array[logic_sector][PADId].feet_on();
    eta_and_phi = m_RPCPadParameters_array[logic_sector][PADId].eta_and_phi();
    cma_mask = m_RPCPadParameters_array[logic_sector][PADId].cma_mask();
    feet_th0 = m_RPCPadParameters_array[logic_sector][PADId].feet_threshold(0);
    feet_th1 = m_RPCPadParameters_array[logic_sector][PADId].feet_threshold(1);
    feet_th2 = m_RPCPadParameters_array[logic_sector][PADId].feet_threshold(2);
 
    return true;
}
 
bool RpcCablingCondData::give_PAD_address(unsigned short int SubsystemId, unsigned short int SectorId, unsigned short int RoIId,
                                          unsigned int& padIdHash) const {
    unsigned short int PADId = (RoIId) / 4;
 
    int key = SubsystemId * 10000 + SectorId * 100 + PADId;
 
    // checks if the key is in the map
    RDOmap::const_iterator it = m_RDOs.find(key);
    if (it == m_RDOs.end()) return false;
 
    // Retrieve the identifier elements from the map
    const RDOindex index = (*it).second;
 
    padIdHash = index.hash();
 
    return true;
}
 
bool RpcCablingCondData::give_RoI_borders_id(unsigned short int SubsystemId, unsigned short int SectorId, unsigned short int RoIId,
                                             Identifier& EtaLowBorder_id, Identifier& EtaHighBorder_id, Identifier& PhiLowBorder_id,
                                             Identifier& PhiHighBorder_id, const RpcIdHelper* rpcId) const {
    unsigned int EtaLowBorder = 0;
    unsigned int EtaHighBorder = 0;
    unsigned int PhiLowBorder = 0;
    unsigned int PhiHighBorder = 0;
    bool ok = give_RoI_borders(SubsystemId, SectorId, RoIId, EtaLowBorder, EtaHighBorder, PhiLowBorder, PhiHighBorder);
    // give_RoI_borders() already complains if the return code is false
    if (ok) {
        EtaLowBorder_id = protected_strip_OffId_fromCode(EtaLowBorder, rpcId);
        EtaHighBorder_id = protected_strip_OffId_fromCode(EtaHighBorder, rpcId);
        PhiLowBorder_id = protected_strip_OffId_fromCode(PhiLowBorder, rpcId);
        PhiHighBorder_id = protected_strip_OffId_fromCode(PhiHighBorder, rpcId);
    }
    return ok;
}
 
bool RpcCablingCondData::give_RoI_borders(unsigned short int SubsystemId, unsigned short int SectorId, unsigned short int RoIId,
                                          unsigned int& EtaLowBorder, unsigned int& EtaHighBorder, unsigned int& PhiLowBorder,
                                          unsigned int& PhiHighBorder) const {
    int logic_sector = SectorId + SubsystemId * 32;
    int PadId = (RoIId) / 4;
    int PadRoI = (RoIId) % 4;
    int PhiIxx = PadRoI / 2;
    int EtaIxx = PadRoI % 2;
 
    CMAcoverage PhiCov = (logic_sector % 2) ? OddSectors : EvenSectors;
 
    const RPC_CondCabling::SectorLogicSetup& s = m_SectorType[m_SectorMap[logic_sector] - 1];
 
    CMAidentity ETA(Eta, AllSectors, PadId, EtaIxx);
    CMAidentity PHI(Phi, PhiCov, PadId, PhiIxx);
 
    if (!s.give_RoI_borders(ETA, PHI, EtaLowBorder, EtaHighBorder, PhiLowBorder, PhiHighBorder)) {
        MsgStream log(Athena::getMessageSvc(), "RpcCablingCondData");
        if (log.level() <= MSG::WARNING)
            log << MSG::WARNING
                << "give_RoI_borders() - failed to call give_RoI_borders() on SectorLogicSetup, borders not set, return false..." << endmsg;
        return false;
    }
 
    EtaLowBorder += logic_sector * 1000000;
    EtaHighBorder += logic_sector * 1000000;
    PhiLowBorder += logic_sector * 1000000;
    PhiHighBorder += logic_sector * 1000000;
 
    return true;
}
 
Identifier RpcCablingCondData::protected_strip_OffId_fromCode(unsigned long int strip_code, const RpcIdHelper* rpcId) const {
    RPCofflineId rpc_strip = strip_id_fromCode(strip_code);
    if (rpc_strip.stationName == "BOG") {
        if (std::abs(rpc_strip.stationEta) == 4 && rpc_strip.doubletR == 2 && rpc_strip.measuresPhi == 1) {
            if (rpc_strip.strip > 48) rpc_strip.strip = 48;
        }
    }
    if (rpc_strip.stationName == "BME") {
        if (rpc_strip.doubletR == 2 && rpc_strip.measuresPhi == 1) {
            if (rpc_strip.strip > 36) rpc_strip.strip = 36;
        }
    }
    return rpcId->channelID(rpc_strip.stationName, rpc_strip.stationEta, rpc_strip.stationPhi, rpc_strip.doubletR, rpc_strip.doubletZ,
                            rpc_strip.doubletPhi, rpc_strip.gasGap, rpc_strip.measuresPhi, rpc_strip.strip);
}
 
RPCofflineId RpcCablingCondData::strip_id_fromCode(unsigned long int strip_code) const {
    RPCdecoder decode(strip_code);
    RPCofflineId rpcId;
    rpcId.init();
    if (!decode) { return rpcId; }
    int RPC_logic_sector = decode.logic_sector();
    int RPC_strip = decode.strip_number();
    int RPC_chamber = decode.rpc_z_index();
    int RPC_layer = decode.rpc_layer();
    int RPC_station = decode.lvl1_station();
    int sector = (decode.logic_sector()) % 32;
 
    // retrieve the Sector Logic setup
    const RPC_CondCabling::SectorLogicSetup& s = m_SectorType[m_SectorMap[RPC_logic_sector] - 1];
    // retrieve chamber
    const RPC_CondCabling::RPCchamber* rpc = s.find_chamber(RPC_station, RPC_chamber);
 
    rpcId.stationName = rpc->stationName();
    rpcId.stationEta = (decode.half_barrel() == Positive) ? rpc->stationEta() : -rpc->stationEta();
    rpcId.stationPhi = (sector == 31) ? 1 : (sector + 1) / 4 + 1;
    rpcId.doubletR = rpc->doubletR();
    rpcId.doubletZ = rpc->doubletZ();
    rpcId.doubletPhi = (rpc->phiReadoutPannels() == 2) ? (sector + 1) % 2 + 1 : 1;
    rpcId.gasGap = RPC_layer + 1;
    rpcId.measuresPhi = static_cast<int>(decode.view());
    rpcId.strip = RPC_strip + 1;
 
    return rpcId;
}
 
bool RpcCablingCondData::give_LowPt_borders(unsigned short int SubsystemId, unsigned short int SectorId, unsigned short int RoIId,
                                            unsigned int& EtaLowBorder, unsigned int& EtaHighBorder, unsigned int& PhiLowBorder,
                                            unsigned int& PhiHighBorder) const {
    int logic_sector = SectorId + SubsystemId * 32;
    int PadId = (RoIId) / 4;
    int PadRoI = (RoIId) % 4;
    int PhiIxx = PadRoI / 2;
    int EtaIxx = PadRoI % 2;
 
    CMAcoverage PhiCov = (logic_sector % 2) ? OddSectors : EvenSectors;
 
    const RPC_CondCabling::SectorLogicSetup& s = m_SectorType[m_SectorMap[logic_sector] - 1];
 
    CMAidentity ETA(Eta, AllSectors, PadId, EtaIxx);
    CMAidentity PHI(Phi, PhiCov, PadId, PhiIxx);
 
    if (!s.give_LowPt_borders(ETA, PHI, EtaLowBorder, EtaHighBorder, PhiLowBorder, PhiHighBorder)) {
        return false;  // Added for HLT
                       /* Commented for HLT
                       // LOCAL RoI within the pad may be wrong if triggering only phi vew only, try the other local eta
                       EtaIxx = (EtaIxx + 1)%2;
                       CMAidentity ETA1(Eta,AllSectors,PadId,EtaIxx);
                       if(!s.give_LowPt_borders(ETA1,PHI,EtaLowBorder,EtaHighBorder,PhiLowBorder,
                       PhiHighBorder)){
                       DISP << "  Unmatched RoIId= " << RoIId
                       << "  Side="  << SubsystemId << ", Sector=" << SectorId;
                       DISP_DEBUG;
                       return false;
                       }
                       */
    }
    if (EtaLowBorder == 0 || EtaHighBorder == 0 || PhiLowBorder == 0 || PhiHighBorder == 0) return false;
 
    EtaLowBorder += logic_sector * 1000000;
    EtaHighBorder += logic_sector * 1000000;
    PhiLowBorder += logic_sector * 1000000;
    PhiHighBorder += logic_sector * 1000000;
 
    return true;
}
 
bool RpcCablingCondData::give_LowPt_borders_id(unsigned short int SubsystemId, unsigned short int SectorId, unsigned short int RoIId,
                                               Identifier& EtaLowBorder_id, Identifier& EtaHighBorder_id, Identifier& PhiLowBorder_id,
                                               Identifier& PhiHighBorder_id, const RpcIdHelper* rpcId) const {
    unsigned int EtaLowBorder = 0;
    unsigned int EtaHighBorder = 0;
    unsigned int PhiLowBorder = 0;
    unsigned int PhiHighBorder = 0;
    bool ok = give_LowPt_borders(SubsystemId, SectorId, RoIId, EtaLowBorder, EtaHighBorder, PhiLowBorder, PhiHighBorder);
    if (ok) {
        EtaLowBorder_id = strip_OffId_fromCode(EtaLowBorder, rpcId);
        EtaHighBorder_id = strip_OffId_fromCode(EtaHighBorder, rpcId);
        PhiLowBorder_id = strip_OffId_fromCode(PhiLowBorder, rpcId);
        PhiHighBorder_id = strip_OffId_fromCode(PhiHighBorder, rpcId);
    }
    return ok;
}
 
bool RpcCablingCondData::give_HighPt_borders(unsigned short int SubsystemId, unsigned short int SectorId, unsigned short int RoIId,
                                             unsigned int& EtaLowBorder, unsigned int& EtaHighBorder, unsigned int& PhiLowBorder,
                                             unsigned int& PhiHighBorder) const {
    int logic_sector = SectorId + SubsystemId * 32;
    int PadId = (RoIId) / 4;
    int PadRoI = (RoIId) % 4;
    int PhiIxx = PadRoI / 2;
    int EtaIxx = PadRoI % 2;
 
    CMAcoverage PhiCov = (logic_sector % 2) ? OddSectors : EvenSectors;
 
    const RPC_CondCabling::SectorLogicSetup& s = m_SectorType[m_SectorMap[logic_sector] - 1];
 
    CMAidentity ETA(Eta, AllSectors, PadId, EtaIxx);
    CMAidentity PHI(Phi, PhiCov, PadId, PhiIxx);
 
    if (!s.give_HighPt_borders(ETA, PHI, EtaLowBorder, EtaHighBorder, PhiLowBorder, PhiHighBorder)) {
        return false;  // Added for HLT
                       /* commented for HLT
                       // LOCAL RoI within the pad may be wrong if triggering only phi vew only, try the other local eta
                       EtaIxx = (EtaIxx + 1)%2;
                       CMAidentity ETA1(Eta,AllSectors,PadId,EtaIxx);
                       if(!s.give_HighPt_borders(ETA1,PHI,EtaLowBorder,EtaHighBorder,PhiLowBorder,
                       PhiHighBorder)){
                       DISP << "  Unmatched RoIId= " << RoIId
                       << "  Side="  << SubsystemId << ", Sector=" << SectorId;
                       DISP_DEBUG;
                       return false;
                       }
                       */
    }
    if (EtaLowBorder == 0 || EtaHighBorder == 0 || PhiLowBorder == 0 || PhiHighBorder == 0) return false;
 
    EtaLowBorder += logic_sector * 1000000;
    EtaHighBorder += logic_sector * 1000000;
    PhiLowBorder += logic_sector * 1000000;
    PhiHighBorder += logic_sector * 1000000;
 
    return true;
}
 
bool RpcCablingCondData::give_HighPt_borders_id(unsigned short int SubsystemId, unsigned short int SectorId, unsigned short int RoIId,
                                                Identifier& EtaLowBorder_id, Identifier& EtaHighBorder_id, Identifier& PhiLowBorder_id,
                                                Identifier& PhiHighBorder_id, const RpcIdHelper* rpcId) const {
    unsigned int EtaLowBorder = 0;
    unsigned int EtaHighBorder = 0;
    unsigned int PhiLowBorder = 0;
    unsigned int PhiHighBorder = 0;
    bool ok = give_HighPt_borders(SubsystemId, SectorId, RoIId, EtaLowBorder, EtaHighBorder, PhiLowBorder, PhiHighBorder);
 
    if (ok) {
        EtaLowBorder_id = strip_OffId_fromCode(EtaLowBorder, rpcId);
        EtaHighBorder_id = strip_OffId_fromCode(EtaHighBorder, rpcId);
        PhiLowBorder_id = strip_OffId_fromCode(PhiLowBorder, rpcId);
        PhiHighBorder_id = strip_OffId_fromCode(PhiHighBorder, rpcId);
    }
    return ok;
}
 
Identifier RpcCablingCondData::strip_OffId_fromCode(unsigned long int strip_code, const RpcIdHelper* rpcId) const {
    RPCofflineId rpc_strip = strip_id_fromCode(strip_code);
    return rpcId->channelID(rpc_strip.stationName, rpc_strip.stationEta, rpc_strip.stationPhi, rpc_strip.doubletR, rpc_strip.doubletZ,
                            rpc_strip.doubletPhi, rpc_strip.gasGap, rpc_strip.measuresPhi, rpc_strip.strip);
}
 
bool RpcCablingCondData::giveOfflineId(const unsigned short int side, const unsigned short int sector, const unsigned short int padId,
                                       Identifier& id) const {
    if (side >= 2) return false;
    if (sector >= 32) return false;
    if (padId >= 10) return false;
    id = m_offline_id[side][sector][padId];
    return id.is_valid();
}
 
void RpcCablingCondData::setIds(const std::vector<Identifier>& int2id) { m_int2id = int2id; }
 
void RpcCablingCondData::setLookup(const std::vector<Identifier>& ids) {
    for (size_t i = 0; i < ids.size(); i++) { m_lookup.emplace(ids[i], i); }
}