Inheritance diagram for Phase2L1CaloEGammaEmulator:

Public Member Functions
	Phase2L1CaloEGammaEmulator (const edm::ParameterSet &)

	~Phase2L1CaloEGammaEmulator () override=default

Public Member Functions inherited from edm::stream::EDProducer<>
	EDProducer ()=default

	EDProducer (const EDProducer &)=delete

bool	hasAbilityToProduceInBeginLumis () const final

bool	hasAbilityToProduceInBeginProcessBlocks () const final

bool	hasAbilityToProduceInBeginRuns () const final

bool	hasAbilityToProduceInEndLumis () const final

bool	hasAbilityToProduceInEndProcessBlocks () const final

bool	hasAbilityToProduceInEndRuns () const final

const EDProducer &	operator= (const EDProducer &)=delete

Static Public Member Functions
static void	fillDescriptions (edm::ConfigurationDescriptions &)

Private Member Functions
void	produce (edm::Event &, const edm::EventSetup &) override

Additional Inherited Members
Public Types inherited from edm::stream::EDProducer<>
using	CacheTypes = CacheContexts< T... >

using	GlobalCache = typename CacheTypes::GlobalCache

using	HasAbility = AbilityChecker< T... >

using	InputProcessBlockCache = typename CacheTypes::InputProcessBlockCache

using	LuminosityBlockCache = typename CacheTypes::LuminosityBlockCache

using	LuminosityBlockContext = LuminosityBlockContextT< LuminosityBlockCache, RunCache, GlobalCache >

using	LuminosityBlockSummaryCache = typename CacheTypes::LuminosityBlockSummaryCache

using	RunCache = typename CacheTypes::RunCache

using	RunContext = RunContextT< RunCache, GlobalCache >

using	RunSummaryCache = typename CacheTypes::RunSummaryCache

Detailed Description

Definition at line 60 of file Phase2L1CaloEGammaEmulator.cc.

Constructor & Destructor Documentation

◆ Phase2L1CaloEGammaEmulator()

Phase2L1CaloEGammaEmulator::Phase2L1CaloEGammaEmulator ( const edm::ParameterSet & iConfig )

explicit

Definition at line 87 of file Phase2L1CaloEGammaEmulator.cc.

     : ecalTPEBToken_(consumes<EcalEBTrigPrimDigiCollection>(iConfig.getParameter<edm::InputTag>("ecalTPEB"))),
       hcalTPToken_(
           consumes<edm::SortedCollection<HcalTriggerPrimitiveDigi>>(iConfig.getParameter<edm::InputTag>("hcalTP"))),
       decoderTag_(esConsumes<CaloTPGTranscoder, CaloTPGRecord>(edm::ESInputTag("", ""))),
       calib_(iConfig.getParameter<edm::ParameterSet>("calib")),
       caloGeometryTag_(esConsumes<CaloGeometry, CaloGeometryRecord>(edm::ESInputTag("", ""))),
       hbTopologyTag_(esConsumes<HcalTopology, HcalRecNumberingRecord>(edm::ESInputTag("", ""))) {
   produces<l1tp2::CaloCrystalClusterCollection>("RCT");
   produces<l1tp2::CaloCrystalClusterCollection>("GCT");
   produces<l1tp2::CaloTowerCollection>("RCT");
   produces<l1tp2::CaloTowerCollection>("GCT");
   produces<l1tp2::CaloTowerCollection>("GCTFullTowers");
   produces<BXVector<l1t::EGamma>>("GCTEGammas");
   produces<l1tp2::DigitizedClusterCorrelatorCollection>("GCTDigitizedClusterToCorrelator");
   produces<l1tp2::DigitizedTowerCorrelatorCollection>("GCTDigitizedTowerToCorrelator");
   produces<l1tp2::DigitizedClusterGTCollection>("GCTDigitizedClusterToGT");
 }

◆ ~Phase2L1CaloEGammaEmulator()

Phase2L1CaloEGammaEmulator::~Phase2L1CaloEGammaEmulator ( )

overridedefault

Member Function Documentation

◆ fillDescriptions()

void Phase2L1CaloEGammaEmulator::fillDescriptions ( edm::ConfigurationDescriptions & descriptions )

static

Definition at line 643 of file Phase2L1CaloEGammaEmulator.cc.

References edm::ParameterSetDescription::add(), edm::ConfigurationDescriptions::addWithDefaultLabel(), submitPVResolutionJobs::desc, and ProducerED_cfi::InputTag.

                                                                                             {
   // l1tPhase2L1CaloEGammaEmulator
   edm::ParameterSetDescription desc;
   desc.add<edm::InputTag>("ecalTPEB", edm::InputTag("simEcalEBTriggerPrimitiveDigis"));
   desc.add<edm::InputTag>("hcalTP", edm::InputTag("simHcalTriggerPrimitiveDigis"));
   {
     edm::ParameterSetDescription psd0;
     psd0.add<std::vector<double>>("etaBins",
                                   {
                                       0.087,
                                       0.174,
                                       0.261,
                                       0.348,
                                       0.435,
                                       0.522,
                                       0.609,
                                       0.696,
                                       0.783,
                                       0.87,
                                       0.957,
                                       1.044,
                                       1.131,
                                       1.218,
                                       1.305,
                                       1.392,
                                       1.479,
                                   });
     psd0.add<std::vector<double>>("ptBins",
                                   {
                                       12,
                                       20,
                                       30,
                                       40,
                                       55,
                                       90,
                                       1000000.0,
                                   });
     psd0.add<std::vector<double>>("scale",
                                   {
                                       1.298,  1.287,
                                       1.309,  1.298,
                                       1.309,  1.309,
                                       1.309,  1.298,
                                       1.309,  1.298,
                                       1.309,  1.309,
                                       1.309,  1.32,
                                       1.309,  1.32,
                                       1.309,  1.1742,
                                       1.1639, 1.1639,
                                       1.1639, 1.1639,
                                       1.1639, 1.1639,
                                       1.1742, 1.1742,
                                       1.1639, 1.1639,
                                       1.1742, 1.1639,
                                       1.1639, 1.1742,
                                       1.1742, 1.1536000000000002,
                                       1.11,   1.11,
                                       1.11,   1.11,
                                       1.11,   1.11,
                                       1.11,   1.11,
                                       1.11,   1.11,
                                       1.11,   1.11,
                                       1.11,   1.11,
                                       1.11,   1.11,
                                       1.1,    1.09,
                                       1.09,   1.09,
                                       1.09,   1.09,
                                       1.09,   1.09,
                                       1.09,   1.09,
                                       1.09,   1.09,
                                       1.09,   1.09,
                                       1.09,   1.09,
                                       1.09,   1.09,
                                       1.07,   1.07,
                                       1.07,   1.07,
                                       1.07,   1.07,
                                       1.07,   1.08,
                                       1.07,   1.07,
                                       1.08,   1.08,
                                       1.07,   1.08,
                                       1.08,   1.08,
                                       1.08,   1.06,
                                       1.06,   1.06,
                                       1.06,   1.05,
                                       1.05,   1.06,
                                       1.06,   1.06,
                                       1.06,   1.06,
                                       1.06,   1.06,
                                       1.06,   1.06,
                                       1.06,   1.06,
                                       1.04,   1.04,
                                       1.04,   1.04,
                                       1.05,   1.04,
                                       1.05,   1.05,
                                       1.05,   1.05,
                                       1.05,   1.05,
                                       1.05,   1.05,
                                       1.05,   1.05,
                                       1.05,
                                   });
     desc.add<edm::ParameterSetDescription>("calib", psd0);
   }
   descriptions.addWithDefaultLabel(desc);
 }

◆ produce()

void Phase2L1CaloEGammaEmulator::produce	(	edm::Event &	iEvent,
		const edm::EventSetup &	iSetup
	)

overrideprivate

Definition at line 106 of file Phase2L1CaloEGammaEmulator.cc.

                                                                                       {
   using namespace edm;
 
   // Detector geometry
   const auto& caloGeometry = iSetup.getData(caloGeometryTag_);
   ebGeometry = caloGeometry.getSubdetectorGeometry(DetId::Ecal, EcalBarrel);
   hbGeometry = caloGeometry.getSubdetectorGeometry(DetId::Hcal, HcalBarrel);
   const auto& hbTopology = iSetup.getData(hbTopologyTag_);
   hcTopology_ = &hbTopology;
   HcalTrigTowerGeometry theTrigTowerGeometry(hcTopology_);
 
   const auto& decoder = iSetup.getData(decoderTag_);
 
   //***************************************************//
   // Declare RCT output collections
   //***************************************************//
 
   auto L1EGXtalClusters = std::make_unique<l1tp2::CaloCrystalClusterCollection>();
   auto L1CaloTowers = std::make_unique<l1tp2::CaloTowerCollection>();
 
   //***************************************************//
   // Get the ECAL hits
   //***************************************************//
   edm::Handle<EcalEBTrigPrimDigiCollection> pcalohits;
   iEvent.getByToken(ecalTPEBToken_, pcalohits);
 
   std::vector<p2eg::SimpleCaloHit> ecalhits;
 
   for (const auto& hit : *pcalohits.product()) {
     if (hit.encodedEt() > 0)  // hit.encodedEt() returns an int corresponding to 2x the crystal Et
     {
       // Et is 10 bit, by keeping the ADC saturation Et at 120 GeV it means that you have to divide by 8
       float et = hit.encodedEt() * p2eg::ECAL_LSB;
       if (et < p2eg::cut_500_MeV) {
         continue;  // Reject hits with < 500 MeV ET
       }
 
       // Get cell coordinates and info
       auto cell = ebGeometry->getGeometry(hit.id());
 
       p2eg::SimpleCaloHit ehit;
       ehit.setId(hit.id());
       ehit.setPosition(GlobalVector(cell->getPosition().x(), cell->getPosition().y(), cell->getPosition().z()));
       ehit.setEnergy(et);
       ehit.setEt_uint((ap_uint<10>)hit.encodedEt());  // also save the uint Et
       ehit.setPt();
       ecalhits.push_back(ehit);
     }
   }
 
   //***************************************************//
   // Get the HCAL hits
   //***************************************************//
   std::vector<p2eg::SimpleCaloHit> hcalhits;
   edm::Handle<edm::SortedCollection<HcalTriggerPrimitiveDigi>> hbhecoll;
   iEvent.getByToken(hcalTPToken_, hbhecoll);
 
   for (const auto& hit : *hbhecoll.product()) {
     float et = decoder.hcaletValue(hit.id(), hit.t0());
     ap_uint<10> encodedEt = hit.t0().compressedEt();
     // same thing as SOI_compressedEt() in HcalTriggerPrimitiveDigi.h///
     if (et <= 0)
       continue;
 
     if (!(hcTopology_->validHT(hit.id()))) {
       LogError("Phase2L1CaloEGammaEmulator")
           << " -- Hcal hit DetID not present in HCAL Geom: " << hit.id() << std::endl;
       throw cms::Exception("Phase2L1CaloEGammaEmulator");
       continue;
     }
     const std::vector<HcalDetId>& hcId = theTrigTowerGeometry.detIds(hit.id());
     if (hcId.empty()) {
       LogError("Phase2L1CaloEGammaEmulator") << "Cannot find any HCalDetId corresponding to " << hit.id() << std::endl;
       throw cms::Exception("Phase2L1CaloEGammaEmulator");
       continue;
     }
     if (hcId[0].subdetId() > 1) {
       continue;
     }
     GlobalVector hcal_tp_position = GlobalVector(0., 0., 0.);
     for (const auto& hcId_i : hcId) {
       if (hcId_i.subdetId() > 1) {
         continue;
       }
       // get the first HCAL TP/ cell
       auto cell = hbGeometry->getGeometry(hcId_i);
       if (cell == nullptr) {
         continue;
       }
       GlobalVector tmpVector = GlobalVector(cell->getPosition().x(), cell->getPosition().y(), cell->getPosition().z());
       hcal_tp_position = tmpVector;
 
       break;
     }
     p2eg::SimpleCaloHit hhit;
     hhit.setId(hit.id());
     hhit.setIdHcal(hit.id());
     hhit.setPosition(hcal_tp_position);
     hhit.setEnergy(et);
     hhit.setPt();
     hhit.setEt_uint(encodedEt);
     hcalhits.push_back(hhit);
   }
 
   //***************************************************//
   // Initialize necessary arrays for tower and clusters
   //***************************************************//
 
   // L1 Outputs definition: Arrays that use firmware convention for indexing
   p2eg::tower_t towerHCALCard
       [p2eg::n_towers_cardEta][p2eg::n_towers_cardPhi]
       [p2eg::n_towers_halfPhi];  // 17x4x36 array (not to be confused with the 12x1 array of ap_uints, towerEtHCAL
   p2eg::tower_t towerECALCard[p2eg::n_towers_cardEta][p2eg::n_towers_cardPhi][p2eg::n_towers_halfPhi];
   // There is one vector of clusters per card (up to 12 clusters before stitching across ECAL regions)
   std::vector<p2eg::Cluster> cluster_list[p2eg::n_towers_halfPhi];
   // After merging/stitching the clusters, we only take the 8 highest pt per card
   std::vector<p2eg::Cluster> cluster_list_merged[p2eg::n_towers_halfPhi];
 
   //***************************************************//
   // Fill RCT ECAL regions with ECAL hits
   //***************************************************//
   for (int cc = 0; cc < p2eg::n_towers_halfPhi; ++cc) {  // Loop over 36 L1 cards
 
     p2eg::card rctCard;
     rctCard.setIdx(cc);
 
     for (const auto& hit : ecalhits) {
       // Check if the hit is in cards 0-35
       if (hit.isInCard(cc)) {
         // Get the crystal eta and phi, relative to the bottom left corner of the card
         // (0 up to 17*5, 0 up to 4*5)
         int local_iEta = hit.crystalLocaliEta(cc);
         int local_iPhi = hit.crystalLocaliPhi(cc);
 
         // Region number (0-5) depends only on the crystal iEta in the card
         int regionNumber = p2eg::getRegionNumber(local_iEta);
 
         // Tower eta and phi index inside the card (17x4)
         int inCard_tower_iEta = local_iEta / p2eg::CRYSTALS_IN_TOWER_ETA;
         int inCard_tower_iPhi = local_iPhi / p2eg::CRYSTALS_IN_TOWER_PHI;
 
         // Tower eta and phi index inside the region (3x4)
         int inRegion_tower_iEta = inCard_tower_iEta % p2eg::TOWER_IN_ETA;
         int inRegion_tower_iPhi = inCard_tower_iPhi % p2eg::TOWER_IN_PHI;
 
         // Crystal eta and phi index inside the 3x4 region (15x20)
         int inRegion_crystal_iEta = local_iEta % (p2eg::TOWER_IN_ETA * p2eg::CRYSTALS_IN_TOWER_ETA);
         int inRegion_crystal_iPhi = local_iPhi;
 
         // Crystal eta and phi index inside the tower (5x5)
         int inLink_crystal_iEta = (inRegion_crystal_iEta % p2eg::CRYSTALS_IN_TOWER_ETA);
         int inLink_crystal_iPhi = (inRegion_crystal_iPhi % p2eg::CRYSTALS_IN_TOWER_PHI);
 
         // Add the crystal energy to the rctCard
         p2eg::region3x4& myRegion = rctCard.getRegion3x4(regionNumber);
         p2eg::linkECAL& myLink = myRegion.getLinkECAL(inRegion_tower_iEta, inRegion_tower_iPhi);
         myLink.addCrystalE(inLink_crystal_iEta, inLink_crystal_iPhi, hit.et_uint());
       }
     }
 
     //***************************************************//
     // Build RCT towers from HCAL hits
     //***************************************************//
     for (const auto& hit : hcalhits) {
       if (hit.isInCard(cc) && hit.pt() > 0) {
         // Get crystal eta and phi, relative to the bottom left corner of the card
         // (0 up to 17*5, 0 up to 4*5)
         int local_iEta = hit.crystalLocaliEta(cc);
         int local_iPhi = hit.crystalLocaliPhi(cc);
 
         // Region (0-5) the hit falls into
         int regionNumber = p2eg::getRegionNumber(local_iEta);
 
         // Tower eta and phi index inside the card (17x4)
         int inCard_tower_iEta = int(local_iEta / p2eg::CRYSTALS_IN_TOWER_ETA);
         int inCard_tower_iPhi = int(local_iPhi / p2eg::CRYSTALS_IN_TOWER_PHI);
 
         // Tower eta and phi index inside the region (3x4)
         int inRegion_tower_iEta = inCard_tower_iEta % p2eg::TOWER_IN_ETA;
         int inRegion_tower_iPhi = inCard_tower_iPhi % p2eg::TOWER_IN_PHI;
 
         // Access the right HCAL region and tower and increment the ET
         p2eg::towers3x4& myTowers3x4 = rctCard.getTowers3x4(regionNumber);
         p2eg::towerHCAL& myTower = myTowers3x4.getTowerHCAL(inRegion_tower_iEta, inRegion_tower_iPhi);
         myTower.addEt(hit.et_uint());
       }
     }
 
     //***************************************************//
     // Make clusters in each ECAL region independently
     //***************************************************//
     for (int idxRegion = 0; idxRegion < p2eg::N_REGIONS_PER_CARD; idxRegion++) {
       // ECAL crystals array
       p2eg::crystal temporary[p2eg::CRYSTAL_IN_ETA][p2eg::CRYSTAL_IN_PHI];
       // HCAL towers in 3x4 region
       ap_uint<12> towerEtHCAL[p2eg::TOWER_IN_ETA * p2eg::TOWER_IN_PHI];
 
       p2eg::region3x4& myRegion = rctCard.getRegion3x4(idxRegion);
       p2eg::towers3x4& myTowers = rctCard.getTowers3x4(idxRegion);
 
       // In each 3x4 region, loop through the links (one link = one tower)
       for (int iLinkEta = 0; iLinkEta < p2eg::TOWER_IN_ETA; iLinkEta++) {
         for (int iLinkPhi = 0; iLinkPhi < p2eg::TOWER_IN_PHI; iLinkPhi++) {
           // Get the ECAL link (one link per tower)
           p2eg::linkECAL& myLink = myRegion.getLinkECAL(iLinkEta, iLinkPhi);
 
           // We have an array of 3x4 links/towers, each link/tower is 5x5 in crystals. We need to convert this to a 15x20 of crystals
           int ref_iEta = (iLinkEta * p2eg::CRYSTALS_IN_TOWER_ETA);
           int ref_iPhi = (iLinkPhi * p2eg::CRYSTALS_IN_TOWER_PHI);
 
           // In the link, get the crystals (5x5 in each link)
           for (int iEta = 0; iEta < p2eg::CRYSTALS_IN_TOWER_ETA; iEta++) {
             for (int iPhi = 0; iPhi < p2eg::CRYSTALS_IN_TOWER_PHI; iPhi++) {
               // Et as unsigned int
               ap_uint<10> uEnergy = myLink.getCrystalE(iEta, iPhi);
 
               // Fill the 'temporary' array with a crystal object
               temporary[ref_iEta + iEta][ref_iPhi + iPhi] = p2eg::crystal(uEnergy);
             }
           }  // end of loop over crystals
 
           // HCAL tower ET
           p2eg::towerHCAL& myTower = myTowers.getTowerHCAL(iLinkEta, iLinkPhi);
           towerEtHCAL[(iLinkEta * p2eg::TOWER_IN_PHI) + iLinkPhi] = myTower.getEt();
         }
       }
 
       // Iteratively find four clusters and remove them from 'temporary' as we go, and fill cluster_list
       for (int c = 0; c < p2eg::N_CLUSTERS_PER_REGION; c++) {
         p2eg::Cluster newCluster = p2eg::getClusterFromRegion3x4(temporary);  // remove cluster from 'temporary'
         newCluster.setRegionIdx(idxRegion);                                   // add the region number
         if (newCluster.clusterEnergy() > 0) {
           // do not push back 0-energy clusters
           cluster_list[cc].push_back(newCluster);
         }
       }
 
       // Create towers using remaining ECAL energy, and the HCAL towers were already calculated in towersEtHCAL[12]
       ap_uint<12> towerEtECAL[12];
       p2eg::getECALTowersEt(temporary, towerEtECAL);
 
       // Fill towerHCALCard and towerECALCard arrays
       for (int i = 0; i < 12; i++) {
         // Get the tower's indices in a (17x4) card
         int iEta = (idxRegion * p2eg::TOWER_IN_ETA) + (i / p2eg::TOWER_IN_PHI);
         int iPhi = (i % p2eg::TOWER_IN_PHI);
 
         // If the region number is 5 (i.e. only 2x4 in towers, skip the third row) N_REGIONS_PER_CARD = 6. i.e. we do not want to consider
         // i = 8, 9, 10, 11
         if ((idxRegion == (p2eg::N_REGIONS_PER_CARD - 1)) && (i > 7)) {
           continue;
         }
         towerHCALCard[iEta][iPhi][cc] =
             p2eg::tower_t(towerEtHCAL[i], 0);  // p2eg::tower_t initializer takes an ap-uint<12> for the energy
         towerECALCard[iEta][iPhi][cc] = p2eg::tower_t(towerEtECAL[i], 0);
       }
     }
 
     //-------------------------------------------//
     // Stitching across ECAL regions             //
     //-------------------------------------------//
     const int nRegionBoundariesEta = (p2eg::N_REGIONS_PER_CARD - 1);  // 6 regions -> 5 boundaries to check
     // Upper and lower boundaries respectively, to check for stitching along
     int towerEtaBoundaries[nRegionBoundariesEta][2] = {{15, 14}, {12, 11}, {9, 8}, {6, 5}, {3, 2}};
 
     for (int iBound = 0; iBound < nRegionBoundariesEta; iBound++) {
       p2eg::stitchClusterOverRegionBoundary(
           cluster_list[cc], towerEtaBoundaries[iBound][0], towerEtaBoundaries[iBound][1], cc);
     }
 
     //--------------------------------------------------------------------------------//
     // Sort the clusters, take the 8 with highest pT, and return extras to tower
     //--------------------------------------------------------------------------------//
     if (!cluster_list[cc].empty()) {
       std::sort(cluster_list[cc].begin(), cluster_list[cc].end(), p2eg::compareClusterET);
 
       // If there are more than eight clusters, return the unused energy to the towers
       for (unsigned int kk = p2eg::n_clusters_4link; kk < cluster_list[cc].size(); ++kk) {
         p2eg::Cluster cExtra = cluster_list[cc][kk];
         if (cExtra.clusterEnergy() > 0) {
           // Increment tower ET
           // Get tower (eta, phi) (up to (17, 4)) in the RCT card
           int whichTowerEtaInCard = ((cExtra.region() * p2eg::TOWER_IN_ETA) + cExtra.towerEta());
           int whichTowerPhiInCard = cExtra.towerPhi();
           ap_uint<12> oldTowerEt = towerECALCard[whichTowerEtaInCard][whichTowerPhiInCard][cc].et();
           ap_uint<12> newTowerEt = (oldTowerEt + cExtra.clusterEnergy());
           ap_uint<4> hoe = towerECALCard[whichTowerEtaInCard][whichTowerPhiInCard][cc].hoe();
           towerECALCard[whichTowerEtaInCard][whichTowerPhiInCard][cc] = p2eg::tower_t(newTowerEt, hoe);
         }
       }
 
       // Save up to eight clusters: loop over cluster_list
       for (unsigned int kk = 0; kk < cluster_list[cc].size(); ++kk) {
         if (kk >= p2eg::n_clusters_4link)
           continue;
         if (cluster_list[cc][kk].clusterEnergy() > 0) {
           cluster_list_merged[cc].push_back(cluster_list[cc][kk]);
         }
       }
     }
 
     //-------------------------------------------//
     // Calibrate clusters
     //-------------------------------------------//
     for (auto& c : cluster_list_merged[cc]) {
       float realEta = c.realEta(cc);
       c.calib = calib_(c.getPt(), std::abs(realEta));
       c.applyCalibration(c.calib);
     }
 
     //-------------------------------------------//
     // Cluster shower shape flags
     //-------------------------------------------//
     for (auto& c : cluster_list_merged[cc]) {
       c.is_ss = p2eg::passes_ss(c.getPt(), (c.getEt2x5() / c.getEt5x5()));
       c.is_looseTkss = p2eg::passes_looseTkss(c.getPt(), (c.getEt2x5() / c.getEt5x5()));
     }
 
     //-------------------------------------------//
     // Calibrate towers
     //-------------------------------------------//
     for (int ii = 0; ii < p2eg::n_towers_cardEta; ++ii) {    // 17 towers per card in eta
       for (int jj = 0; jj < p2eg::n_towers_cardPhi; ++jj) {  // 4 towers per card in phi
         float tRealEta = p2eg::getTowerEta_fromAbsID(
             p2eg::getAbsID_iEta_fromFirmwareCardTowerLink(cc, ii, jj));  // real eta of center of tower
         double tCalib = calib_(0, tRealEta);                             // calibration factor
         towerECALCard[ii][jj][cc].applyCalibration(tCalib);
       }
     }
 
     //-------------------------------------------//
     // Calculate tower HoE
     //-------------------------------------------//
     for (int ii = 0; ii < p2eg::n_towers_cardEta; ++ii) {    // 17 towers per card in eta
       for (int jj = 0; jj < p2eg::n_towers_cardPhi; ++jj) {  // 4 towers per card in phi
         ap_uint<12> ecalEt = towerECALCard[ii][jj][cc].et();
         ap_uint<12> hcalEt = towerHCALCard[ii][jj][cc].et();
         towerECALCard[ii][jj][cc].getHoverE(ecalEt, hcalEt);
       }
     }
 
     //-----------------------------------------------------------//
     // Produce output RCT collections for event display and analyzer
     //-----------------------------------------------------------//
     for (auto& c : cluster_list_merged[cc]) {
       reco::Candidate::PolarLorentzVector p4calibrated(c.getPt(), c.realEta(cc), c.realPhi(cc), 0.);
 
       // Constructor definition at: https://github.com/cms-l1t-offline/cmssw/blob/l1t-phase2-v3.3.11/DataFormats/L1TCalorimeterPhase2/interface/CaloCrystalCluster.h#L34
       l1tp2::CaloCrystalCluster cluster(p4calibrated,
                                         c.getPt(),           // use float
                                         0,                   // float h over e
                                         0,                   // float iso
                                         0,                   // DetId seedCrystal
                                         0,                   // puCorrPt
                                         c.getBrems(),        // 0, 1, or 2 (as computed in firmware)
                                         0,                   // et2x2 (not calculated)
                                         c.getEt2x5(),        // et2x5 (as computed in firmware, save float)
                                         0,                   // et3x5 (not calculated)
                                         c.getEt5x5(),        // et5x5 (as computed in firmware, save float)
                                         c.getIsSS(),         // standalone WP
                                         c.getIsSS(),         // electronWP98
                                         false,               // photonWP80
                                         c.getIsSS(),         // electronWP90
                                         c.getIsLooseTkss(),  // looseL1TkMatchWP
                                         c.getIsSS()          // stage2effMatch
       );
 
       std::map<std::string, float> params;
       params["standaloneWP_showerShape"] = c.getIsSS();
       params["trkMatchWP_showerShape"] = c.getIsLooseTkss();
       cluster.setExperimentalParams(params);
 
       L1EGXtalClusters->push_back(cluster);
     }
     // Output tower collections
     for (int ii = 0; ii < p2eg::n_towers_cardEta; ++ii) {    // 17 towers per card in eta
       for (int jj = 0; jj < p2eg::n_towers_cardPhi; ++jj) {  // 4 towers per card in phi
 
         l1tp2::CaloTower l1CaloTower;
         // Divide by 8.0 to get ET as float (GeV)
         l1CaloTower.setEcalTowerEt(towerECALCard[ii][jj][cc].et() * p2eg::ECAL_LSB);
         // HCAL TPGs encoded ET: multiply by the LSB (0.5) to convert to GeV
         l1CaloTower.setHcalTowerEt(towerHCALCard[ii][jj][cc].et() * p2eg::HCAL_LSB);
         int absToweriEta = p2eg::getAbsID_iEta_fromFirmwareCardTowerLink(cc, ii, jj);
         int absToweriPhi = p2eg::getAbsID_iPhi_fromFirmwareCardTowerLink(cc, ii, jj);
         l1CaloTower.setTowerIEta(absToweriEta);
         l1CaloTower.setTowerIPhi(absToweriPhi);
         l1CaloTower.setTowerEta(p2eg::getTowerEta_fromAbsID(absToweriEta));
         l1CaloTower.setTowerPhi(p2eg::getTowerPhi_fromAbsID(absToweriPhi));
 
         L1CaloTowers->push_back(l1CaloTower);
       }
     }
   }  // end of loop over cards
 
   iEvent.put(std::move(L1EGXtalClusters), "RCT");
   iEvent.put(std::move(L1CaloTowers), "RCT");
 
   //*******************************************************************
   // Do GCT geometry for inputs
   //*******************************************************************
 
   // Loop over GCT cards (three of them)
   p2eg::GCTcard_t gctCards[p2eg::N_GCTCARDS];
   p2eg::GCTtoCorr_t gctToCorr[p2eg::N_GCTCARDS];
 
   // Initialize the cards (requires towerECALCard, towerHCALCard arrays, and cluster_list_merged)
   for (unsigned int gcc = 0; gcc < p2eg::N_GCTCARDS; gcc++) {
     // Each GCT card encompasses 16 RCT cards, listed in GCTcardtoRCTcardnumber[3][16]. i goes from 0 to <16
     for (int i = 0; i < (p2eg::N_RCTCARDS_PHI * 2); i++) {
       unsigned int rcc = p2eg::GCTcardtoRCTcardnumber[gcc][i];
 
       // Positive eta? Fist row is in positive eta
       bool isPositiveEta = (i < p2eg::N_RCTCARDS_PHI);
 
       // Sum tower ECAL and HCAL energies: 17 towers per link
       for (int iTower = 0; iTower < p2eg::N_GCTTOWERS_FIBER; iTower++) {
         // 4 links per card
         for (int iLink = 0; iLink < p2eg::n_links_card; iLink++) {
           p2eg::tower_t t0_ecal = towerECALCard[iTower][iLink][rcc];
           p2eg::tower_t t0_hcal = towerHCALCard[iTower][iLink][rcc];
           p2eg::RCTtower_t t;
           t.et = t0_ecal.et() + p2eg::convertHcalETtoEcalET(t0_hcal.et());
           t.hoe = t0_ecal.hoe();
           // Not needed for GCT firmware but will be written into GCT CMSSW outputs : 12 bits each
           t.ecalEt = t0_ecal.et();
           t.hcalEt = t0_hcal.et();
 
           if (isPositiveEta) {
             gctCards[gcc].RCTcardEtaPos[i % p2eg::N_RCTCARDS_PHI].RCTtoGCTfiber[iLink].RCTtowers[iTower] = t;
           } else {
             gctCards[gcc].RCTcardEtaNeg[i % p2eg::N_RCTCARDS_PHI].RCTtoGCTfiber[iLink].RCTtowers[iTower] = t;
           }
         }
       }
 
       // Distribute at most 8 RCT clusters across four links: convert to GCT coordinates
       for (size_t iCluster = 0; (iCluster < cluster_list_merged[rcc].size()) &&
                                 (iCluster < (p2eg::N_RCTGCT_FIBERS * p2eg::N_RCTCLUSTERS_FIBER));
            iCluster++) {
         p2eg::Cluster c0 = cluster_list_merged[rcc][iCluster];
         p2eg::RCTcluster_t c;
         c.et = c0.clusterEnergy();
 
         // tower Eta: c0.towerEta() refers to the tower iEta INSIDE the region, so we need to convert to tower iEta inside the card
         c.towEta = (c0.region() * p2eg::TOWER_IN_ETA) + c0.towerEta();
         c.towPhi = c0.towerPhi();
         c.crEta = c0.clusterEta();
         c.crPhi = c0.clusterPhi();
         c.et5x5 = c0.uint_et5x5();
         c.et2x5 = c0.uint_et2x5();
         c.is_ss = c0.getIsSS();
         c.is_looseTkss = c0.getIsLooseTkss();
         c.is_iso = c0.getIsIso();
         c.is_looseTkiso = c0.getIsLooseTkIso();
         c.brems = c0.getBrems();
         c.nGCTCard = gcc;  // store gct card index as well
         unsigned int iIdxInGCT = i % p2eg::N_RCTCARDS_PHI;
         unsigned int iLinkC = iCluster % p2eg::N_RCTGCT_FIBERS;
         unsigned int iPosC = iCluster / p2eg::N_RCTGCT_FIBERS;
 
         if (isPositiveEta) {
           gctCards[gcc].RCTcardEtaPos[iIdxInGCT].RCTtoGCTfiber[iLinkC].RCTclusters[iPosC] = c;
         } else {
           gctCards[gcc].RCTcardEtaNeg[iIdxInGCT].RCTtoGCTfiber[iLinkC].RCTclusters[iPosC] = c;
         }
       }
       // If there were fewer than eight clusters, make sure the remaining fiber clusters are zero'd out.
       for (size_t iZeroCluster = cluster_list_merged[rcc].size();
            iZeroCluster < (p2eg::N_RCTGCT_FIBERS * p2eg::N_RCTCLUSTERS_FIBER);
            iZeroCluster++) {
         unsigned int iIdxInGCT = i % p2eg::N_RCTCARDS_PHI;
         unsigned int iLinkC = iZeroCluster % p2eg::N_RCTGCT_FIBERS;
         unsigned int iPosC = iZeroCluster / p2eg::N_RCTGCT_FIBERS;
 
         p2eg::RCTcluster_t cZero;
         cZero.et = 0;
         cZero.towEta = 0;
         cZero.towPhi = 0;
         cZero.crEta = 0;
         cZero.crPhi = 0;
         cZero.et5x5 = 0;
         cZero.et2x5 = 0;
         cZero.is_ss = false;
         cZero.is_looseTkss = false;
         cZero.is_iso = false;
         cZero.is_looseTkiso = false;
         cZero.nGCTCard = gcc;  // store gct card index as well
         if (isPositiveEta) {
           gctCards[gcc].RCTcardEtaPos[iIdxInGCT].RCTtoGCTfiber[iLinkC].RCTclusters[iPosC] = cZero;
         } else {
           gctCards[gcc].RCTcardEtaNeg[iIdxInGCT].RCTtoGCTfiber[iLinkC].RCTclusters[iPosC] = cZero;
         }
       }
     }
   }  // end of loop over initializing GCT cards
 
   //----------------------------------------------------
   // Output collections for the GCT emulator
   //----------------------------------------------------
   auto L1GCTClusters = std::make_unique<l1tp2::CaloCrystalClusterCollection>();
   auto L1GCTTowers = std::make_unique<l1tp2::CaloTowerCollection>();
   auto L1GCTFullTowers = std::make_unique<l1tp2::CaloTowerCollection>();
   auto L1GCTEGammas = std::make_unique<l1t::EGammaBxCollection>();
   auto L1DigitizedClusterCorrelator = std::make_unique<l1tp2::DigitizedClusterCorrelatorCollection>();
   auto L1DigitizedTowerCorrelator = std::make_unique<l1tp2::DigitizedTowerCorrelatorCollection>();
   auto L1DigitizedClusterGT = std::make_unique<l1tp2::DigitizedClusterGTCollection>();
 
   //----------------------------------------------------
   // Apply the GCT firmware code to each GCT card
   //----------------------------------------------------
 
   for (unsigned int gcc = 0; gcc < p2eg::N_GCTCARDS; gcc++) {
     p2eg::algo_top(gctCards[gcc],
                    gctToCorr[gcc],
                    gcc,
                    L1GCTClusters,
                    L1GCTTowers,
                    L1GCTFullTowers,
                    L1GCTEGammas,
                    L1DigitizedClusterCorrelator,
                    L1DigitizedTowerCorrelator,
                    L1DigitizedClusterGT,
                    calib_);
   }
 
   iEvent.put(std::move(L1GCTClusters), "GCT");
   iEvent.put(std::move(L1GCTTowers), "GCT");
   iEvent.put(std::move(L1GCTFullTowers), "GCTFullTowers");
   iEvent.put(std::move(L1GCTEGammas), "GCTEGammas");
   iEvent.put(std::move(L1DigitizedClusterCorrelator), "GCTDigitizedClusterToCorrelator");
   iEvent.put(std::move(L1DigitizedTowerCorrelator), "GCTDigitizedTowerToCorrelator");
   iEvent.put(std::move(L1DigitizedClusterGT), "GCTDigitizedClusterToGT");
 }

Member Data Documentation

◆ calib_

l1tp2::ParametricCalibration Phase2L1CaloEGammaEmulator::calib_

private

Definition at line 74 of file Phase2L1CaloEGammaEmulator.cc.

Referenced by produce().

◆ caloGeometryTag_

edm::ESGetToken<CaloGeometry, CaloGeometryRecord> Phase2L1CaloEGammaEmulator::caloGeometryTag_

private

Definition at line 76 of file Phase2L1CaloEGammaEmulator.cc.

Referenced by produce().

◆ decoderTag_

edm::ESGetToken<CaloTPGTranscoder, CaloTPGRecord> Phase2L1CaloEGammaEmulator::decoderTag_

private

Definition at line 72 of file Phase2L1CaloEGammaEmulator.cc.

Referenced by produce().

◆ ebGeometry

const CaloSubdetectorGeometry* Phase2L1CaloEGammaEmulator::ebGeometry

private

Definition at line 77 of file Phase2L1CaloEGammaEmulator.cc.

Referenced by produce().

◆ ecalTPEBToken_

edm::EDGetTokenT<EcalEBTrigPrimDigiCollection> Phase2L1CaloEGammaEmulator::ecalTPEBToken_

private

Definition at line 70 of file Phase2L1CaloEGammaEmulator.cc.

Referenced by produce().

◆ hbGeometry

const CaloSubdetectorGeometry* Phase2L1CaloEGammaEmulator::hbGeometry

private

Definition at line 78 of file Phase2L1CaloEGammaEmulator.cc.

Referenced by produce().

◆ hbTopologyTag_

edm::ESGetToken<HcalTopology, HcalRecNumberingRecord> Phase2L1CaloEGammaEmulator::hbTopologyTag_

private

Definition at line 79 of file Phase2L1CaloEGammaEmulator.cc.

Referenced by produce().

◆ hcalTPToken_

edm::EDGetTokenT<edm::SortedCollection<HcalTriggerPrimitiveDigi> > Phase2L1CaloEGammaEmulator::hcalTPToken_

private

Definition at line 71 of file Phase2L1CaloEGammaEmulator.cc.

Referenced by produce().

◆ hcTopology_

const HcalTopology* Phase2L1CaloEGammaEmulator::hcTopology_

private

Definition at line 80 of file Phase2L1CaloEGammaEmulator.cc.

Referenced by produce().

Private Attributes
l1tp2::ParametricCalibration	calib_

edm::ESGetToken< CaloGeometry, CaloGeometryRecord >	caloGeometryTag_

edm::ESGetToken< CaloTPGTranscoder, CaloTPGRecord >	decoderTag_

const CaloSubdetectorGeometry *	ebGeometry

edm::EDGetTokenT< EcalEBTrigPrimDigiCollection >	ecalTPEBToken_

const CaloSubdetectorGeometry *	hbGeometry

edm::ESGetToken< HcalTopology, HcalRecNumberingRecord >	hbTopologyTag_

edm::EDGetTokenT< edm::SortedCollection< HcalTriggerPrimitiveDigi > >	hcalTPToken_

const HcalTopology *	hcTopology_

Public Member Functions

Static Public Member Functions

Private Member Functions

Private Attributes

Additional Inherited Members

Detailed Description

Constructor & Destructor Documentation

◆ Phase2L1CaloEGammaEmulator()

◆ ~Phase2L1CaloEGammaEmulator()

Member Function Documentation

◆ fillDescriptions()

◆ produce()

Member Data Documentation

◆ calib_

◆ caloGeometryTag_

◆ decoderTag_

◆ ebGeometry

◆ ecalTPEBToken_

◆ hbGeometry

◆ hbTopologyTag_

◆ hcalTPToken_

◆ hcTopology_