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#include "DQM/L1TMonitor/interface/L1TStage2uGMT.h"
L1TStage2uGMT::L1TStage2uGMT(const edm::ParameterSet& ps)
: ugmtMuonToken_(consumes<l1t::MuonBxCollection>(ps.getParameter<edm::InputTag>("muonProducer"))),
ugmtMuonShowerToken_(consumes<l1t::MuonShowerBxCollection>(ps.getParameter<edm::InputTag>("muonShowerProducer"))),
monitorDir_(ps.getUntrackedParameter<std::string>("monitorDir")),
emul_(ps.getUntrackedParameter<bool>("emulator")),
verbose_(ps.getUntrackedParameter<bool>("verbose")),
displacedQuantities_(ps.getUntrackedParameter<bool>("displacedQuantities")),
hadronicShowers_(ps.getUntrackedParameter<bool>("hadronicShowers")),
etaScale_(0.010875), // eta scale (CMS DN-2015/017)
phiScale_(0.010908) // phi scale (2*pi/576 HW values)
{
if (!emul_) {
ugmtBMTFToken_ = consumes<l1t::RegionalMuonCandBxCollection>(ps.getParameter<edm::InputTag>("bmtfProducer"));
ugmtOMTFToken_ = consumes<l1t::RegionalMuonCandBxCollection>(ps.getParameter<edm::InputTag>("omtfProducer"));
ugmtEMTFToken_ = consumes<l1t::RegionalMuonCandBxCollection>(ps.getParameter<edm::InputTag>("emtfProducer"));
ugmtEMTFShowerToken_ =
consumes<l1t::RegionalMuonShowerBxCollection>(ps.getParameter<edm::InputTag>("emtfShowerProducer"));
}
}
L1TStage2uGMT::~L1TStage2uGMT() {}
void L1TStage2uGMT::fillDescriptions(edm::ConfigurationDescriptions& descriptions) {
edm::ParameterSetDescription desc;
desc.add<edm::InputTag>("muonProducer")->setComment("uGMT output muons.");
desc.add<edm::InputTag>("bmtfProducer")->setComment("RegionalMuonCands from BMTF.");
desc.add<edm::InputTag>("omtfProducer")->setComment("RegionalMuonCands from OMTF.");
desc.add<edm::InputTag>("emtfProducer")->setComment("RegionalMuonCands from EMTF.");
desc.add<edm::InputTag>("muonShowerProducer")->setComment("uGMT output showers.");
desc.add<edm::InputTag>("emtfShowerProducer")->setComment("RegionalMuonShowers from EMTF.");
desc.addUntracked<std::string>("monitorDir", "")
->setComment("Target directory in the DQM file. Will be created if not existing.");
desc.addUntracked<bool>("emulator", false)
->setComment("Create histograms for muonProducer input only. xmtfProducer inputs are ignored.");
desc.addUntracked<bool>("verbose", false);
desc.addUntracked<bool>("displacedQuantities", false);
desc.addUntracked<bool>("hadronicShowers", false);
descriptions.add("l1tStage2uGMT", desc);
}
void L1TStage2uGMT::bookHistograms(DQMStore::IBooker& ibooker, const edm::Run&, const edm::EventSetup&) {
if (!emul_) {
// BMTF Input
ibooker.setCurrentFolder(monitorDir_ + "/BMTFInput");
ugmtBMTFnMuons = ibooker.book1D("ugmtBMTFnMuons", "uGMT BMTF Input Muon Multiplicity", 37, -0.5, 36.5);
ugmtBMTFnMuons->setAxisTitle("Muon Multiplicity (BX == 0)", 1);
ugmtBMTFhwPt = ibooker.book1D("ugmtBMTFhwPt", "uGMT BMTF Input HW p_{T}", 512, -0.5, 511.5);
ugmtBMTFhwPt->setAxisTitle("Hardware p_{T}", 1);
if (displacedQuantities_) {
ugmtBMTFhwPtUnconstrained =
ibooker.book1D("ugmtBMTFhwPtUnconstrained", "uGMT BMTF Input HW p_{T} unconstrained", 256, -0.5, 255.5);
ugmtBMTFhwPtUnconstrained->setAxisTitle("Hardware p_{T} unconstrained", 1);
ugmtBMTFhwDXY = ibooker.book1D("ugmtBMTFhwDXY", "uGMT BMTF Input HW impact parameter", 4, -0.5, 3.5);
ugmtBMTFhwDXY->setAxisTitle("Hardware dXY", 1);
}
ugmtBMTFhwEta = ibooker.book1D("ugmtBMTFhwEta", "uGMT BMTF Input HW #eta", 201, -100.5, 100.5);
ugmtBMTFhwEta->setAxisTitle("Hardware #eta", 1);
ugmtBMTFhwPhi = ibooker.book1D("ugmtBMTFhwPhi", "uGMT BMTF Input HW #phi", 71, -10.5, 60.5);
ugmtBMTFhwPhi->setAxisTitle("Hardware #phi", 1);
ugmtBMTFglbPhi = ibooker.book1D("ugmtBMTFglbhwPhi", "uGMT BMTF Input HW #phi", 577, -1.5, 575.5);
ugmtBMTFglbPhi->setAxisTitle("Global Hardware #phi", 1);
ugmtBMTFProcvshwPhi =
ibooker.book2D("ugmtBMTFProcvshwPhi", "uGMT BMTF Processor vs HW #phi", 71, -10.5, 60.5, 12, 0, 12);
ugmtBMTFProcvshwPhi->setAxisTitle("Hardware #phi", 1);
ugmtBMTFProcvshwPhi->setAxisTitle("Wedge", 2);
for (int bin = 1; bin <= 12; ++bin) {
ugmtBMTFProcvshwPhi->setBinLabel(bin, std::to_string(bin), 2);
}
ugmtBMTFhwSign = ibooker.book1D("ugmtBMTFhwSign", "uGMT BMTF Input HW Sign", 4, -1.5, 2.5);
ugmtBMTFhwSign->setAxisTitle("Hardware Sign", 1);
ugmtBMTFhwSignValid = ibooker.book1D("ugmtBMTFhwSignValid", "uGMT BMTF Input SignValid", 2, -0.5, 1.5);
ugmtBMTFhwSignValid->setAxisTitle("SignValid", 1);
ugmtBMTFhwQual = ibooker.book1D("ugmtBMTFhwQual", "uGMT BMTF Input Quality", 16, -0.5, 15.5);
ugmtBMTFhwQual->setAxisTitle("Quality", 1);
ugmtBMTFlink = ibooker.book1D("ugmtBMTFlink", "uGMT BMTF Input Link", 12, 47.5, 59.5);
ugmtBMTFlink->setAxisTitle("Link", 1);
ugmtBMTFMuMuDEta =
ibooker.book1D("ugmtBMTFMuMuDEta", "uGMT BMTF input muons #Delta#eta between wedges", 100, -0.5, 0.5);
ugmtBMTFMuMuDEta->setAxisTitle("#Delta#eta", 1);
ugmtBMTFMuMuDPhi =
ibooker.book1D("ugmtBMTFMuMuDPhi", "uGMT BMTF input muons #Delta#phi between wedges", 100, -0.5, 0.5);
ugmtBMTFMuMuDPhi->setAxisTitle("#Delta#phi", 1);
ugmtBMTFMuMuDR = ibooker.book1D("ugmtBMTFMuMuDR", "uGMT BMTF input muons #DeltaR between wedges", 50, 0., 0.5);
ugmtBMTFMuMuDR->setAxisTitle("#DeltaR", 1);
// OMTF Input
ibooker.setCurrentFolder(monitorDir_ + "/OMTFInput");
ugmtOMTFnMuons = ibooker.book1D("ugmtOMTFnMuons", "uGMT OMTF Input Muon Multiplicity", 37, -0.5, 36.5);
ugmtOMTFnMuons->setAxisTitle("Muon Multiplicity (BX == 0)", 1);
ugmtOMTFhwPt = ibooker.book1D("ugmtOMTFhwPt", "uGMT OMTF Input HW p_{T}", 512, -0.5, 511.5);
ugmtOMTFhwPt->setAxisTitle("Hardware p_{T}", 1);
ugmtOMTFhwEta = ibooker.book1D("ugmtOMTFhwEta", "uGMT OMTF Input HW #eta", 231, -115.5, 115.5);
ugmtOMTFhwEta->setAxisTitle("Hardware #eta", 1);
ugmtOMTFhwPhiPos = ibooker.book1D("ugmtOMTFhwPhiPos", "uGMT OMTF Input HW #phi, Positive Side", 122, -16.5, 105.5);
ugmtOMTFhwPhiPos->setAxisTitle("Hardware #phi", 1);
ugmtOMTFhwPhiNeg = ibooker.book1D("ugmtOMTFhwPhiNeg", "uGMT OMTF Input HW #phi, Negative Side", 122, -16.5, 105.5);
ugmtOMTFhwPhiNeg->setAxisTitle("Hardware #phi", 1);
ugmtOMTFglbPhiPos =
ibooker.book1D("ugmtOMTFglbhwPhiPos", "uGMT OMTF Input HW #phi, Positive Side", 577, -1.5, 575.5);
ugmtOMTFglbPhiPos->setAxisTitle("Global Hardware #phi", 1);
ugmtOMTFglbPhiNeg =
ibooker.book1D("ugmtOMTFglbhwPhiNeg", "uGMT OMTF Input HW #phi, Negative Side", 577, -1.5, 575.5);
ugmtOMTFglbPhiNeg->setAxisTitle("Global Hardware #phi", 1);
ugmtOMTFProcvshwPhiPos =
ibooker.book2D("ugmtOMTFProcvshwPhiPos", "uGMT OMTF Processor vs HW #phi", 122, -16.5, 105.5, 6, 0, 6);
ugmtOMTFProcvshwPhiPos->setAxisTitle("Hardware #phi", 1);
ugmtOMTFProcvshwPhiPos->setAxisTitle("Sector (Positive Side)", 2);
ugmtOMTFProcvshwPhiNeg =
ibooker.book2D("ugmtOMTFProcvshwPhiNeg", "uGMT OMTF Processor vs HW #phi", 122, -16.5, 105.5, 6, 0, 6);
ugmtOMTFProcvshwPhiNeg->setAxisTitle("Hardware #phi", 1);
ugmtOMTFProcvshwPhiNeg->setAxisTitle("Sector (Negative Side)", 2);
for (int bin = 1; bin <= 6; ++bin) {
ugmtOMTFProcvshwPhiPos->setBinLabel(bin, std::to_string(bin), 2);
ugmtOMTFProcvshwPhiNeg->setBinLabel(bin, std::to_string(bin), 2);
}
ugmtOMTFhwSign = ibooker.book1D("ugmtOMTFhwSign", "uGMT OMTF Input HW Sign", 4, -1.5, 2.5);
ugmtOMTFhwSign->setAxisTitle("Hardware Sign", 1);
ugmtOMTFhwSignValid = ibooker.book1D("ugmtOMTFhwSignValid", "uGMT OMTF Input SignValid", 2, -0.5, 1.5);
ugmtOMTFhwSignValid->setAxisTitle("SignValid", 1);
ugmtOMTFhwQual = ibooker.book1D("ugmtOMTFhwQual", "uGMT OMTF Input Quality", 16, -0.5, 15.5);
ugmtOMTFhwQual->setAxisTitle("Quality", 1);
ugmtOMTFlink = ibooker.book1D("ugmtOMTFlink", "uGMT OMTF Input Link", 24, 41.5, 65.5);
ugmtOMTFlink->setAxisTitle("Link", 1);
ugmtOMTFMuMuDEta =
ibooker.book1D("ugmtOMTFMuMuDEta", "uGMT OMTF input muons #Delta#eta between sectors", 100, -0.5, 0.5);
ugmtOMTFMuMuDEta->setAxisTitle("#Delta#eta", 1);
ugmtOMTFMuMuDPhi =
ibooker.book1D("ugmtOMTFMuMuDPhi", "uGMT OMTF input muons #Delta#phi between sectors", 100, -0.5, 0.5);
ugmtOMTFMuMuDPhi->setAxisTitle("#Delta#phi", 1);
ugmtOMTFMuMuDR = ibooker.book1D("ugmtOMTFMuMuDR", "uGMT OMTF input muons #DeltaR between sectors", 50, 0., 0.5);
ugmtOMTFMuMuDR->setAxisTitle("#DeltaR", 1);
// EMTF Input
ibooker.setCurrentFolder(monitorDir_ + "/EMTFInput");
ugmtEMTFnMuons = ibooker.book1D("ugmtEMTFnMuons", "uGMT EMTF Input Muon Multiplicity", 37, -0.5, 36.5);
ugmtEMTFnMuons->setAxisTitle("Muon Multiplicity (BX == 0)", 1);
ugmtEMTFhwPt = ibooker.book1D("ugmtEMTFhwPt", "uGMT EMTF HW p_{T}", 512, -0.5, 511.5);
ugmtEMTFhwPt->setAxisTitle("Hardware p_{T}", 1);
if (displacedQuantities_) {
ugmtEMTFhwPtUnconstrained =
ibooker.book1D("ugmtEMTFhwPtUnconstrained", "uGMT EMTF Input HW p_{T} unconstrained", 256, -0.5, 255.5);
ugmtEMTFhwPtUnconstrained->setAxisTitle("Hardware p_{T} unconstrained", 1);
ugmtEMTFhwDXY = ibooker.book1D("ugmtEMTFhwDXY", "uGMT EMTF Input HW impact parameter", 4, -0.5, 3.5);
ugmtEMTFhwDXY->setAxisTitle("Hardware dXY", 1);
}
ugmtEMTFhwEta = ibooker.book1D("ugmtEMTFhwEta", "uGMT EMTF HW #eta", 461, -230.5, 230.5);
ugmtEMTFhwEta->setAxisTitle("Hardware #eta", 1);
ugmtEMTFhwPhiPos = ibooker.book1D("ugmtEMTFhwPhiPos", "uGMT EMTF HW #phi, Positive Side", 146, -40.5, 105.5);
ugmtEMTFhwPhiPos->setAxisTitle("Hardware #phi", 1);
ugmtEMTFhwPhiNeg = ibooker.book1D("ugmtEMTFhwPhiNeg", "uGMT EMTF HW #phi, Negative Side", 146, -40.5, 105.5);
ugmtEMTFhwPhiNeg->setAxisTitle("Hardware #phi", 1);
ugmtEMTFglbPhiPos =
ibooker.book1D("ugmtEMTFglbhwPhiPos", "uGMT EMTF Input Global HW #phi, Positive Side", 577, -1.5, 575.5);
ugmtEMTFglbPhiPos->setAxisTitle("Global Hardware #phi", 1);
ugmtEMTFglbPhiNeg =
ibooker.book1D("ugmtEMTFglbhwPhiNeg", "uGMT EMTF Input Global HW #phi, Negative Side", 577, -1.5, 575.5);
ugmtEMTFglbPhiNeg->setAxisTitle("Global Hardware #phi", 1);
ugmtEMTFProcvshwPhiPos =
ibooker.book2D("ugmtEMTFProcvshwPhiPos", "uGMT EMTF Processor vs HW #phi", 146, -40.5, 105.5, 6, 0, 6);
ugmtEMTFProcvshwPhiPos->setAxisTitle("Hardware #phi", 1);
ugmtEMTFProcvshwPhiPos->setAxisTitle("Sector (Positive Side)", 2);
ugmtEMTFProcvshwPhiNeg =
ibooker.book2D("ugmtEMTFProcvshwPhiNeg", "uGMT EMTF Processor vs HW #phi", 146, -40.5, 105.5, 6, 0, 6);
ugmtEMTFProcvshwPhiNeg->setAxisTitle("Hardware #phi", 1);
ugmtEMTFProcvshwPhiNeg->setAxisTitle("Sector (Negative Side)", 2);
for (int bin = 1; bin <= 6; ++bin) {
ugmtEMTFProcvshwPhiPos->setBinLabel(bin, std::to_string(bin), 2);
ugmtEMTFProcvshwPhiNeg->setBinLabel(bin, std::to_string(bin), 2);
}
ugmtEMTFhwSign = ibooker.book1D("ugmtEMTFhwSign", "uGMT EMTF HW Sign", 4, -1.5, 2.5);
ugmtEMTFhwSign->setAxisTitle("Hardware Sign", 1);
ugmtEMTFhwSignValid = ibooker.book1D("ugmtEMTFhwSignValid", "uGMT EMTF SignValid", 2, -0.5, 1.5);
ugmtEMTFhwSignValid->setAxisTitle("SignValid", 1);
ugmtEMTFhwQual = ibooker.book1D("ugmtEMTFhwQual", "uGMT EMTF Quality", 16, -0.5, 15.5);
ugmtEMTFhwQual->setAxisTitle("Quality", 1);
ugmtEMTFlink = ibooker.book1D("ugmtEMTFlink", "uGMT EMTF Link", 36, 35.5, 71.5);
ugmtEMTFlink->setAxisTitle("Link", 1);
ugmtEMTFMuMuDEta =
ibooker.book1D("ugmtEMTFMuMuDEta", "uGMT EMTF input muons #Delta#eta between sectors", 100, -0.5, 0.5);
ugmtEMTFMuMuDEta->setAxisTitle("#Delta#eta", 1);
ugmtEMTFMuMuDPhi =
ibooker.book1D("ugmtEMTFMuMuDPhi", "uGMT EMTF input muons #Delta#phi between sectors", 100, -0.5, 0.5);
ugmtEMTFMuMuDPhi->setAxisTitle("#Delta#phi", 1);
ugmtEMTFMuMuDR = ibooker.book1D("ugmtEMTFMuMuDR", "uGMT EMTF input muons #DeltaR between sectors", 50, 0., 0.5);
ugmtEMTFMuMuDR->setAxisTitle("#DeltaR", 1);
// EMTF muon showers
if (hadronicShowers_) {
ibooker.setCurrentFolder(monitorDir_ + "/EMTFInput/Muon showers");
ugmtEMTFShowerTypeOccupancyPerSector = ibooker.book2D(
"ugmtEMTFShowerTypeOccupancyPerSector", "Shower type occupancy per sector", 12, 1, 13, 3, 1, 4);
ugmtEMTFShowerTypeOccupancyPerSector->setAxisTitle("Processor", 1);
ugmtEMTFShowerTypeOccupancyPerSector->setBinLabel(12, "+6", 1);
ugmtEMTFShowerTypeOccupancyPerSector->setBinLabel(11, "+5", 1);
ugmtEMTFShowerTypeOccupancyPerSector->setBinLabel(10, "+4", 1);
ugmtEMTFShowerTypeOccupancyPerSector->setBinLabel(9, "+3", 1);
ugmtEMTFShowerTypeOccupancyPerSector->setBinLabel(8, "+2", 1);
ugmtEMTFShowerTypeOccupancyPerSector->setBinLabel(7, "+1", 1);
ugmtEMTFShowerTypeOccupancyPerSector->setBinLabel(6, "-6", 1);
ugmtEMTFShowerTypeOccupancyPerSector->setBinLabel(5, "-5", 1);
ugmtEMTFShowerTypeOccupancyPerSector->setBinLabel(4, "-4", 1);
ugmtEMTFShowerTypeOccupancyPerSector->setBinLabel(3, "-3", 1);
ugmtEMTFShowerTypeOccupancyPerSector->setBinLabel(2, "-2", 1);
ugmtEMTFShowerTypeOccupancyPerSector->setBinLabel(1, "-1", 1);
ugmtEMTFShowerTypeOccupancyPerSector->setAxisTitle("Shower type", 2);
ugmtEMTFShowerTypeOccupancyPerSector->setBinLabel(IDX_LOOSE_SHOWER, "OneLoose", 2);
ugmtEMTFShowerTypeOccupancyPerSector->setBinLabel(IDX_TIGHT_SHOWER, "OneTight", 2);
ugmtEMTFShowerTypeOccupancyPerSector->setBinLabel(IDX_NOMINAL_SHOWER, "OneNominal", 2);
}
// inter-TF muon correlations
ibooker.setCurrentFolder(monitorDir_ + "/muon_correlations");
ugmtBOMTFposMuMuDEta =
ibooker.book1D("ugmtBOMTFposMuMuDEta", "uGMT input muons #Delta#eta between BMTF and OMTF+", 100, -0.5, 0.5);
ugmtBOMTFposMuMuDEta->setAxisTitle("#Delta#eta", 1);
ugmtBOMTFposMuMuDPhi =
ibooker.book1D("ugmtBOMTFposMuMuDPhi", "uGMT input muons #Delta#phi between BMTF and OMTF+", 100, -0.5, 0.5);
ugmtBOMTFposMuMuDPhi->setAxisTitle("#Delta#phi", 1);
ugmtBOMTFposMuMuDR =
ibooker.book1D("ugmtBOMTFposMuMuDR", "uGMT input muons #DeltaR between BMTF and OMTF+", 50, 0., 0.5);
ugmtBOMTFposMuMuDR->setAxisTitle("#DeltaR", 1);
ugmtBOMTFnegMuMuDEta =
ibooker.book1D("ugmtBOMTFnegMuMuDEta", "uGMT input muons #Delta#eta between BMTF and OMTF-", 100, -0.5, 0.5);
ugmtBOMTFnegMuMuDEta->setAxisTitle("#Delta#eta", 1);
ugmtBOMTFnegMuMuDPhi =
ibooker.book1D("ugmtBOMTFnegMuMuDPhi", "uGMT input muons #Delta#phi between BMTF and OMTF-", 100, -0.5, 0.5);
ugmtBOMTFnegMuMuDPhi->setAxisTitle("#Delta#phi", 1);
ugmtBOMTFnegMuMuDR =
ibooker.book1D("ugmtBOMTFnegMuMuDR", "uGMT input muons #DeltaR between BMTF and OMTF-", 50, 0., 0.5);
ugmtBOMTFnegMuMuDR->setAxisTitle("#DeltaR", 1);
ugmtEOMTFposMuMuDEta =
ibooker.book1D("ugmtEOMTFposMuMuDEta", "uGMT input muons #Delta#eta between EMTF+ and OMTF+", 100, -0.5, 0.5);
ugmtEOMTFposMuMuDEta->setAxisTitle("#Delta#eta", 1);
ugmtEOMTFposMuMuDPhi =
ibooker.book1D("ugmtEOMTFposMuMuDPhi", "uGMT input muons #Delta#phi between EMTF+ and OMTF+", 100, -0.5, 0.5);
ugmtEOMTFposMuMuDPhi->setAxisTitle("#Delta#phi", 1);
ugmtEOMTFposMuMuDR =
ibooker.book1D("ugmtEOMTFposMuMuDR", "uGMT input muons #DeltaR between EMTF+ and OMTF+", 50, 0., 0.5);
ugmtEOMTFposMuMuDR->setAxisTitle("#DeltaR", 1);
ugmtEOMTFnegMuMuDEta =
ibooker.book1D("ugmtEOMTFnegMuMuDEta", "uGMT input muons #Delta#eta between EMTF- and OMTF-", 100, -0.5, 0.5);
ugmtEOMTFnegMuMuDEta->setAxisTitle("#Delta#eta", 1);
ugmtEOMTFnegMuMuDPhi =
ibooker.book1D("ugmtEOMTFnegMuMuDPhi", "uGMT input muons #Delta#phi between EMTF- and OMTF-", 100, -0.5, 0.5);
ugmtEOMTFnegMuMuDPhi->setAxisTitle("#Delta#phi", 1);
ugmtEOMTFnegMuMuDR =
ibooker.book1D("ugmtEOMTFnegMuMuDR", "uGMT input muons #DeltaR between EMTF- and OMTF-", 50, 0., 0.5);
ugmtEOMTFnegMuMuDR->setAxisTitle("#DeltaR", 1);
}
// Subsystem Monitoring and Muon Output
ibooker.setCurrentFolder(monitorDir_);
ugmtMuonBX = ibooker.book1D("ugmtMuonBX", "uGMT output muon BX", 7, -3.5, 3.5);
ugmtMuonBX->setAxisTitle("BX", 1);
ugmtnMuons = ibooker.book1D("ugmtnMuons", "uGMT output muon Multiplicity", 9, -0.5, 8.5);
ugmtnMuons->setAxisTitle("Muon Multiplicity (BX == 0)", 1);
ugmtMuonIndex = ibooker.book1D("ugmtMuonIndex", "uGMT Input Muon Index", 108, -0.5, 107.5);
ugmtMuonIndex->setAxisTitle("Index", 1);
ugmtMuonhwPt = ibooker.book1D("ugmtMuonhwPt", "uGMT output muon HW p_{T}", 512, -0.5, 511.5);
ugmtMuonhwPt->setAxisTitle("Hardware p_{T}", 1);
if (displacedQuantities_) {
ugmtMuonhwPtUnconstrained =
ibooker.book1D("ugmtMuonhwPtUnconstrained", "uGMT output muon HW p_{T} unconstrained", 256, -0.5, 255.5);
ugmtMuonhwPtUnconstrained->setAxisTitle("Hardware p_{T} unconstrained", 1);
ugmtMuonhwDXY = ibooker.book1D("ugmtMuonhwDXY", "uGMT output muon HW impact parameter", 4, -0.5, 3.5);
ugmtMuonhwDXY->setAxisTitle("Hardware dXY", 1);
}
ugmtMuonhwEta = ibooker.book1D("ugmtMuonhwEta", "uGMT output muon HW #eta", 461, -230.5, 230.5);
ugmtMuonhwEta->setAxisTitle("Hardware Eta", 1);
ugmtMuonhwPhi = ibooker.book1D("ugmtMuonhwPhi", "uGMT output muon HW #phi", 577, -1.5, 575.5);
ugmtMuonhwPhi->setAxisTitle("Hardware Phi", 1);
ugmtMuonhwEtaAtVtx = ibooker.book1D("ugmtMuonhwEtaAtVtx", "uGMT output muon HW #eta at vertex", 461, -230.5, 230.5);
ugmtMuonhwEtaAtVtx->setAxisTitle("Hardware Eta at Vertex", 1);
ugmtMuonhwPhiAtVtx = ibooker.book1D("ugmtMuonhwPhiAtVtx", "uGMT output muon HW #phi at vertex", 577, -1.5, 575.5);
ugmtMuonhwPhiAtVtx->setAxisTitle("Hardware Phi at Vertex", 1);
ugmtMuonhwCharge = ibooker.book1D("ugmtMuonhwCharge", "uGMT output muon HW Charge", 4, -1.5, 2.5);
ugmtMuonhwCharge->setAxisTitle("Hardware Charge", 1);
ugmtMuonhwChargeValid = ibooker.book1D("ugmtMuonhwChargeValid", "uGMT output muon ChargeValid", 2, -0.5, 1.5);
ugmtMuonhwChargeValid->setAxisTitle("ChargeValid", 1);
ugmtMuonhwQual = ibooker.book1D("ugmtMuonhwQual", "uGMT output muon Quality", 16, -0.5, 15.5);
ugmtMuonhwQual->setAxisTitle("Quality", 1);
ugmtMuonhwIso = ibooker.book1D("ugmtMuonhwIso", "uGMT output muon Isolation", 4, -0.5, 3.5);
ugmtMuonhwIso->setAxisTitle("Isolation", 1);
ugmtMuonPt = ibooker.book1D("ugmtMuonPt", "uGMT output muon p_{T}", 128, -0.5, 255.5);
ugmtMuonPt->setAxisTitle("p_{T} [GeV]", 1);
if (displacedQuantities_) {
ugmtMuonPtUnconstrained =
ibooker.book1D("ugmtMuonPtUnconstrained", "uGMT output muon p_{T} unconstrained", 128, -0.5, 255.5);
ugmtMuonPtUnconstrained->setAxisTitle("p_{T} unconstrained [GeV]", 1);
}
ugmtMuonEta = ibooker.book1D("ugmtMuonEta", "uGMT output muon #eta", 52, -2.6, 2.6);
ugmtMuonEta->setAxisTitle("#eta", 1);
ugmtMuonPhi = ibooker.book1D("ugmtMuonPhi", "uGMT output muon #phi", 66, -3.3, 3.3);
ugmtMuonPhi->setAxisTitle("#phi", 1);
ugmtMuonEtaAtVtx = ibooker.book1D("ugmtMuonEtaAtVtx", "uGMT output muon #eta at vertex", 52, -2.6, 2.6);
ugmtMuonEtaAtVtx->setAxisTitle("#eta at vertex", 1);
ugmtMuonPhiAtVtx = ibooker.book1D("ugmtMuonPhiAtVtx", "uGMT output muon #phi at vertex", 66, -3.3, 3.3);
ugmtMuonPhiAtVtx->setAxisTitle("#phi at vertex", 1);
ugmtMuonCharge = ibooker.book1D("ugmtMuonCharge", "uGMT output muon Charge", 3, -1.5, 1.5);
ugmtMuonCharge->setAxisTitle("Charge", 1);
ugmtMuonPhiBmtf = ibooker.book1D("ugmtMuonPhiBmtf", "uGMT output muon #phi for BMTF Inputs", 66, -3.3, 3.3);
ugmtMuonPhiBmtf->setAxisTitle("#phi", 1);
ugmtMuonPhiOmtf = ibooker.book1D("ugmtMuonPhiOmtf", "uGMT output muon #phi for OMTF Inputs", 66, -3.3, 3.3);
ugmtMuonPhiOmtf->setAxisTitle("#phi", 1);
ugmtMuonPhiEmtf = ibooker.book1D("ugmtMuonPhiEmtf", "uGMT output muon #phi for EMTF Inputs", 66, -3.3, 3.3);
ugmtMuonPhiEmtf->setAxisTitle("#phi", 1);
const float dPhiScale = 4 * phiScale_;
const float dEtaScale = etaScale_;
ugmtMuonDEtavsPtBmtf = ibooker.book2D("ugmtMuonDEtavsPtBmtf",
"uGMT output muon from BMTF #eta_{at vertex} - #eta_{at muon system} vs p_{T}",
32,
0,
64,
31,
-15.5 * dEtaScale,
15.5 * dEtaScale);
ugmtMuonDEtavsPtBmtf->setAxisTitle("p_{T} [GeV]", 1);
ugmtMuonDEtavsPtBmtf->setAxisTitle("#eta_{at vertex} - #eta", 2);
ugmtMuonDPhivsPtBmtf = ibooker.book2D("ugmtMuonDPhivsPtBmtf",
"uGMT output muon from BMTF #phi_{at vertex} - #phi_{at muon system} vs p_{T}",
32,
0,
64,
31,
-15.5 * dPhiScale,
15.5 * dPhiScale);
ugmtMuonDPhivsPtBmtf->setAxisTitle("p_{T} [GeV]", 1);
ugmtMuonDPhivsPtBmtf->setAxisTitle("#phi_{at vertex} - #phi", 2);
ugmtMuonDEtavsPtOmtf = ibooker.book2D("ugmtMuonDEtavsPtOmtf",
"uGMT output muon from OMTF #eta_{at vertex} - #eta_{at muon system} vs p_{T}",
32,
0,
64,
31,
-15.5 * dEtaScale,
15.5 * dEtaScale);
ugmtMuonDEtavsPtOmtf->setAxisTitle("p_{T} [GeV]", 1);
ugmtMuonDEtavsPtOmtf->setAxisTitle("#eta_{at vertex} - #eta", 2);
ugmtMuonDPhivsPtOmtf = ibooker.book2D("ugmtMuonDPhivsPtOmtf",
"uGMT output muon from OMTF #phi_{at vertex} - #phi_{at muon system} vs p_{T}",
32,
0,
64,
31,
-15.5 * dPhiScale,
15.5 * dPhiScale);
ugmtMuonDPhivsPtOmtf->setAxisTitle("p_{T} [GeV]", 1);
ugmtMuonDPhivsPtOmtf->setAxisTitle("#phi_{at vertex} - #phi", 2);
ugmtMuonDEtavsPtEmtf = ibooker.book2D("ugmtMuonDEtavsPtEmtf",
"uGMT output muon from EMTF #eta_{at vertex} - #eta_{at muon system} vs p_{T}",
32,
0,
64,
31,
-15.5 * dEtaScale,
15.5 * dEtaScale);
ugmtMuonDEtavsPtEmtf->setAxisTitle("p_{T} [GeV]", 1);
ugmtMuonDEtavsPtEmtf->setAxisTitle("#eta_{at vertex} - #eta", 2);
ugmtMuonDPhivsPtEmtf = ibooker.book2D("ugmtMuonDPhivsPtEmtf",
"uGMT output muon from EMTF #phi_{at vertex} - #phi_{at muon system} vs p_{T}",
32,
0,
64,
31,
-15.5 * dPhiScale,
15.5 * dPhiScale);
ugmtMuonDPhivsPtEmtf->setAxisTitle("p_{T} [GeV]", 1);
ugmtMuonDPhivsPtEmtf->setAxisTitle("#phi_{at vertex} - #phi", 2);
ugmtMuonPtvsEta =
ibooker.book2D("ugmtMuonPtvsEta", "uGMT output muon p_{T} vs #eta", 100, -2.5, 2.5, 128, -0.5, 255.5);
ugmtMuonPtvsEta->setAxisTitle("#eta", 1);
ugmtMuonPtvsEta->setAxisTitle("p_{T} [GeV]", 2);
ugmtMuonPtvsPhi =
ibooker.book2D("ugmtMuonPtvsPhi", "uGMT output muon p_{T} vs #phi", 64, -3.2, 3.2, 128, -0.5, 255.5);
ugmtMuonPtvsPhi->setAxisTitle("#phi", 1);
ugmtMuonPtvsPhi->setAxisTitle("p_{T} [GeV]", 2);
ugmtMuonPhivsEta = ibooker.book2D("ugmtMuonPhivsEta", "uGMT output muon #phi vs #eta", 100, -2.5, 2.5, 64, -3.2, 3.2);
ugmtMuonPhivsEta->setAxisTitle("#eta", 1);
ugmtMuonPhivsEta->setAxisTitle("#phi", 2);
ugmtMuonPhiAtVtxvsEtaAtVtx = ibooker.book2D(
"ugmtMuonPhiAtVtxvsEtaAtVtx", "uGMT output muon #phi at vertex vs #eta at vertex", 100, -2.5, 2.5, 64, -3.2, 3.2);
ugmtMuonPhiAtVtxvsEtaAtVtx->setAxisTitle("#eta at vertex", 1);
ugmtMuonPhiAtVtxvsEtaAtVtx->setAxisTitle("#phi at vertex", 2);
ugmtMuonBXvsLink =
ibooker.book2D("ugmtMuonBXvsLink", "uGMT output muon BX vs Input Links", 36, 35.5, 71.5, 5, -2.5, 2.5);
ugmtMuonBXvsLink->setAxisTitle("Muon Input Links", 1);
for (int bin = 1; bin <= 6; ++bin) {
ugmtMuonBXvsLink->setBinLabel(bin, Form("E+%d", bin), 1);
ugmtMuonBXvsLink->setBinLabel(bin + 6, Form("O+%d", bin), 1);
ugmtMuonBXvsLink->setBinLabel(bin + 12, Form("B%d", bin), 1);
ugmtMuonBXvsLink->setBinLabel(bin + 18, Form("B%d", bin + 6), 1);
ugmtMuonBXvsLink->setBinLabel(bin + 24, Form("O-%d", bin), 1);
ugmtMuonBXvsLink->setBinLabel(bin + 30, Form("E-%d", bin), 1);
}
ugmtMuonBXvsLink->setAxisTitle("BX", 2);
ugmtMuonChargevsLink =
ibooker.book2D("ugmtMuonChargevsLink", "uGMT output muon Charge vs Input Links", 36, 35.5, 71.5, 3, -1.5, 1.5);
ugmtMuonChargevsLink->setAxisTitle("Muon Input Links", 1);
for (int bin = 1; bin <= 6; ++bin) {
ugmtMuonChargevsLink->setBinLabel(bin, Form("E+%d", bin), 1);
ugmtMuonChargevsLink->setBinLabel(bin + 6, Form("O+%d", bin), 1);
ugmtMuonChargevsLink->setBinLabel(bin + 12, Form("B%d", bin), 1);
ugmtMuonChargevsLink->setBinLabel(bin + 18, Form("B%d", bin + 6), 1);
ugmtMuonChargevsLink->setBinLabel(bin + 24, Form("O-%d", bin), 1);
ugmtMuonChargevsLink->setBinLabel(bin + 30, Form("E-%d", bin), 1);
}
ugmtMuonChargevsLink->setAxisTitle("Charge", 2);
if (hadronicShowers_) {
ugmtMuonShowerTypeOccupancyPerBx =
ibooker.book2D("ugmtMuonShowerTypeOccupancyPerBx", "Shower type occupancy per BX", 7, -3.5, 3.5, 3, 1, 4);
ugmtMuonShowerTypeOccupancyPerBx->setAxisTitle("BX", 1);
ugmtMuonShowerTypeOccupancyPerBx->setAxisTitle("Shower type", 2);
ugmtMuonShowerTypeOccupancyPerBx->setBinLabel(IDX_LOOSE_SHOWER, "TwoLoose", 2);
ugmtMuonShowerTypeOccupancyPerBx->setBinLabel(IDX_TIGHT_SHOWER, "OneTight", 2);
ugmtMuonShowerTypeOccupancyPerBx->setBinLabel(IDX_NOMINAL_SHOWER, "OneNominal", 2);
}
ugmtMuonBXvshwPt =
ibooker.book2D("ugmtMuonBXvshwPt", "uGMT output muon BX vs HW p_{T}", 128, -0.5, 511.5, 5, -2.5, 2.5);
ugmtMuonBXvshwPt->setAxisTitle("Hardware p_{T}", 1);
ugmtMuonBXvshwPt->setAxisTitle("BX", 2);
ugmtMuonBXvshwEta =
ibooker.book2D("ugmtMuonBXvshwEta", "uGMT output muon BX vs HW #eta", 93, -232.5, 232.5, 5, -2.5, 2.5);
ugmtMuonBXvshwEta->setAxisTitle("Hardware #eta", 1);
ugmtMuonBXvshwEta->setAxisTitle("BX", 2);
ugmtMuonBXvshwPhi =
ibooker.book2D("ugmtMuonBXvshwPhi", "uGMT output muon BX vs HW #phi", 116, -2.5, 577.5, 5, -2.5, 2.5);
ugmtMuonBXvshwPhi->setAxisTitle("Hardware #phi", 1);
ugmtMuonBXvshwPhi->setAxisTitle("BX", 2);
ugmtMuonBXvshwCharge =
ibooker.book2D("ugmtMuonBXvshwCharge", "uGMT output muon BX vs HW Charge", 2, -0.5, 1.5, 5, -2.5, 2.5);
ugmtMuonBXvshwCharge->setAxisTitle("Hardware Charge", 1);
ugmtMuonBXvshwCharge->setAxisTitle("BX", 2);
ugmtMuonBXvshwChargeValid =
ibooker.book2D("ugmtMuonBXvshwChargeValid", "uGMT output muon BX vs ChargeValid", 2, -0.5, 1.5, 5, -2.5, 2.5);
ugmtMuonBXvshwChargeValid->setAxisTitle("ChargeValid", 1);
ugmtMuonBXvshwChargeValid->setAxisTitle("BX", 2);
ugmtMuonBXvshwQual =
ibooker.book2D("ugmtMuonBXvshwQual", "uGMT output muon BX vs Quality", 16, -0.5, 15.5, 5, -2.5, 2.5);
ugmtMuonBXvshwQual->setAxisTitle("Quality", 1);
ugmtMuonBXvshwQual->setAxisTitle("BX", 2);
ugmtMuonBXvshwIso =
ibooker.book2D("ugmtMuonBXvshwIso", "uGMT output muon BX vs Isolation", 4, -0.5, 3.5, 5, -2.5, 2.5);
ugmtMuonBXvshwIso->setAxisTitle("Isolation", 1);
ugmtMuonBXvshwIso->setAxisTitle("BX", 2);
// muon correlations
ibooker.setCurrentFolder(monitorDir_ + "/muon_correlations");
ugmtMuMuInvMass = ibooker.book1D("ugmtMuMuInvMass", "uGMT dimuon invariant mass", 200, 0., 200.);
ugmtMuMuInvMass->setAxisTitle("m(#mu#mu) [GeV]", 1);
ugmtMuMuInvMassAtVtx =
ibooker.book1D("ugmtMuMuInvMassAtVtx", "uGMT dimuon invariant mass with coordinates at vertex", 200, 0., 200.);
ugmtMuMuInvMassAtVtx->setAxisTitle("m(#mu#mu) [GeV]", 1);
ugmtMuMuDEta = ibooker.book1D("ugmtMuMuDEta", "uGMT output muons #Delta#eta", 100, -1., 1.);
ugmtMuMuDEta->setAxisTitle("#Delta#eta", 1);
ugmtMuMuDPhi = ibooker.book1D("ugmtMuMuDPhi", "uGMT output muons #Delta#phi", 100, -1., 1.);
ugmtMuMuDPhi->setAxisTitle("#Delta#phi", 1);
ugmtMuMuDR = ibooker.book1D("ugmtMuMuDR", "uGMT output muons #DeltaR", 50, 0., 1.);
ugmtMuMuDR->setAxisTitle("#DeltaR", 1);
// barrel - overlap
ugmtMuMuDEtaBOpos =
ibooker.book1D("ugmtMuMuDEtaBOpos", "uGMT output muons #Delta#eta barrel-overlap positive side", 100, -1., 1.);
ugmtMuMuDEtaBOpos->setAxisTitle("#Delta#eta", 1);
ugmtMuMuDPhiBOpos =
ibooker.book1D("ugmtMuMuDPhiBOpos", "uGMT output muons #Delta#phi barrel-overlap positive side", 100, -1., 1.);
ugmtMuMuDPhiBOpos->setAxisTitle("#Delta#phi", 1);
ugmtMuMuDRBOpos =
ibooker.book1D("ugmtMuMuDRBOpos", "uGMT output muons #DeltaR barrel-overlap positive side", 50, 0., 1.);
ugmtMuMuDRBOpos->setAxisTitle("#DeltaR", 1);
ugmtMuMuDEtaBOneg =
ibooker.book1D("ugmtMuMuDEtaBOneg", "uGMT output muons #Delta#eta barrel-overlap negative side", 100, -1., 1.);
ugmtMuMuDEtaBOneg->setAxisTitle("#Delta#eta", 1);
ugmtMuMuDPhiBOneg =
ibooker.book1D("ugmtMuMuDPhiBOneg", "uGMT output muons #Delta#phi barrel-overlap negative side", 100, -1., 1.);
ugmtMuMuDPhiBOneg->setAxisTitle("#Delta#phi", 1);
ugmtMuMuDRBOneg =
ibooker.book1D("ugmtMuMuDRBOneg", "uGMT output muons #DeltaR barrel-overlap negative side", 50, 0., 1.);
ugmtMuMuDRBOneg->setAxisTitle("#DeltaR", 1);
// endcap - overlap
ugmtMuMuDEtaEOpos =
ibooker.book1D("ugmtMuMuDEtaEOpos", "uGMT output muons #Delta#eta endcap-overlap positive side", 100, -1., 1.);
ugmtMuMuDEtaEOpos->setAxisTitle("#Delta#eta", 1);
ugmtMuMuDPhiEOpos =
ibooker.book1D("ugmtMuMuDPhiEOpos", "uGMT output muons #Delta#phi endcap-overlap positive side", 100, -1., 1.);
ugmtMuMuDPhiEOpos->setAxisTitle("#Delta#phi", 1);
ugmtMuMuDREOpos =
ibooker.book1D("ugmtMuMuDREOpos", "uGMT output muons #DeltaR endcap-overlap positive side", 50, 0., 1.);
ugmtMuMuDREOpos->setAxisTitle("#DeltaR", 1);
ugmtMuMuDEtaEOneg =
ibooker.book1D("ugmtMuMuDEtaEOneg", "uGMT output muons #Delta#eta endcap-overlap negative side", 100, -1., 1.);
ugmtMuMuDEtaEOneg->setAxisTitle("#Delta#eta", 1);
ugmtMuMuDPhiEOneg =
ibooker.book1D("ugmtMuMuDPhiEOneg", "uGMT output muons #Delta#phi endcap-overlap negative side", 100, -1., 1.);
ugmtMuMuDPhiEOneg->setAxisTitle("#Delta#phi", 1);
ugmtMuMuDREOneg =
ibooker.book1D("ugmtMuMuDREOneg", "uGMT output muons #DeltaR endcap-overlap negative side", 50, 0., 1.);
ugmtMuMuDREOneg->setAxisTitle("#DeltaR", 1);
// barrel wedges
ugmtMuMuDEtaB = ibooker.book1D("ugmtMuMuDEtaB", "uGMT output muons #Delta#eta between barrel wedges", 100, -1., 1.);
ugmtMuMuDEtaB->setAxisTitle("#Delta#eta", 1);
ugmtMuMuDPhiB = ibooker.book1D("ugmtMuMuDPhiB", "uGMT output muons #Delta#phi between barrel wedges", 100, -1., 1.);
ugmtMuMuDPhiB->setAxisTitle("#Delta#phi", 1);
ugmtMuMuDRB = ibooker.book1D("ugmtMuMuDRB", "uGMT output muons #DeltaR between barrel wedges", 50, 0., 1.);
ugmtMuMuDRB->setAxisTitle("#DeltaR", 1);
// overlap sectors
ugmtMuMuDEtaOpos = ibooker.book1D(
"ugmtMuMuDEtaOpos", "uGMT output muons #Delta#eta between overlap positive side sectors", 100, -1., 1.);
ugmtMuMuDEtaOpos->setAxisTitle("#Delta#eta", 1);
ugmtMuMuDPhiOpos = ibooker.book1D(
"ugmtMuMuDPhiOpos", "uGMT output muons #Delta#phi between overlap positive side sectors", 100, -1., 1.);
ugmtMuMuDPhiOpos->setAxisTitle("#Delta#phi", 1);
ugmtMuMuDROpos =
ibooker.book1D("ugmtMuMuDROpos", "uGMT output muons #DeltaR between overlap positive side sectors", 50, 0., 1.);
ugmtMuMuDROpos->setAxisTitle("#DeltaR", 1);
ugmtMuMuDEtaOneg = ibooker.book1D(
"ugmtMuMuDEtaOneg", "uGMT output muons #Delta#eta between overlap negative side sectors", 100, -1., 1.);
ugmtMuMuDEtaOneg->setAxisTitle("#Delta#eta", 1);
ugmtMuMuDPhiOneg = ibooker.book1D(
"ugmtMuMuDPhiOneg", "uGMT output muons #Delta#phi between overlap negative side sectors", 100, -1., 1.);
ugmtMuMuDPhiOneg->setAxisTitle("#Delta#phi", 1);
ugmtMuMuDROneg =
ibooker.book1D("ugmtMuMuDROneg", "uGMT output muons #DeltaR between overlap negative side sectors", 50, 0., 1.);
ugmtMuMuDROneg->setAxisTitle("#DeltaR", 1);
// endcap sectors
ugmtMuMuDEtaEpos = ibooker.book1D(
"ugmtMuMuDEtaEpos", "uGMT output muons #Delta#eta between endcap positive side sectors", 100, -1., 1.);
ugmtMuMuDEtaEpos->setAxisTitle("#Delta#eta", 1);
ugmtMuMuDPhiEpos = ibooker.book1D(
"ugmtMuMuDPhiEpos", "uGMT output muons #Delta#phi between endcap positive side sectors", 100, -1., 1.);
ugmtMuMuDPhiEpos->setAxisTitle("#Delta#phi", 1);
ugmtMuMuDREpos =
ibooker.book1D("ugmtMuMuDREpos", "uGMT output muons #DeltaR between endcap positive side sectors", 50, 0., 1.);
ugmtMuMuDREpos->setAxisTitle("#DeltaR", 1);
ugmtMuMuDEtaEneg = ibooker.book1D(
"ugmtMuMuDEtaEneg", "uGMT output muons #Delta#eta between endcap negative side sectors", 100, -1., 1.);
ugmtMuMuDEtaEneg->setAxisTitle("#Delta#eta", 1);
ugmtMuMuDPhiEneg = ibooker.book1D(
"ugmtMuMuDPhiEneg", "uGMT output muons #Delta#phi between endcap negative side sectors", 100, -1., 1.);
ugmtMuMuDPhiEneg->setAxisTitle("#Delta#phi", 1);
ugmtMuMuDREneg =
ibooker.book1D("ugmtMuMuDREneg", "uGMT output muons #DeltaR between endcap negative side sectors", 50, 0., 1.);
ugmtMuMuDREneg->setAxisTitle("#DeltaR", 1);
}
void L1TStage2uGMT::analyze(const edm::Event& e, const edm::EventSetup& c) {
if (verbose_)
edm::LogInfo("L1TStage2uGMT") << "L1TStage2uGMT: analyze..." << std::endl;
if (!emul_) {
edm::Handle<l1t::RegionalMuonCandBxCollection> BMTFBxCollection;
e.getByToken(ugmtBMTFToken_, BMTFBxCollection);
ugmtBMTFnMuons->Fill(BMTFBxCollection->size(0));
for (int itBX = BMTFBxCollection->getFirstBX(); itBX <= BMTFBxCollection->getLastBX(); ++itBX) {
for (l1t::RegionalMuonCandBxCollection::const_iterator BMTF = BMTFBxCollection->begin(itBX);
BMTF != BMTFBxCollection->end(itBX);
++BMTF) {
ugmtBMTFhwPt->Fill(BMTF->hwPt());
if (displacedQuantities_) {
ugmtBMTFhwPtUnconstrained->Fill(BMTF->hwPtUnconstrained());
ugmtBMTFhwDXY->Fill(BMTF->hwDXY());
}
ugmtBMTFhwEta->Fill(BMTF->hwEta());
ugmtBMTFhwPhi->Fill(BMTF->hwPhi());
ugmtBMTFhwSign->Fill(BMTF->hwSign());
ugmtBMTFhwSignValid->Fill(BMTF->hwSignValid());
ugmtBMTFhwQual->Fill(BMTF->hwQual());
ugmtBMTFlink->Fill(BMTF->link());
int global_hw_phi =
l1t::MicroGMTConfiguration::calcGlobalPhi(BMTF->hwPhi(), BMTF->trackFinderType(), BMTF->processor());
ugmtBMTFglbPhi->Fill(global_hw_phi);
ugmtBMTFProcvshwPhi->Fill(BMTF->hwPhi(), BMTF->processor());
// Analyse muon correlations
for (l1t::RegionalMuonCandBxCollection::const_iterator BMTF2 = BMTF + 1; BMTF2 != BMTFBxCollection->end(itBX);
++BMTF2) {
int global_hw_phi2 =
l1t::MicroGMTConfiguration::calcGlobalPhi(BMTF2->hwPhi(), BMTF2->trackFinderType(), BMTF2->processor());
float dEta = (BMTF->hwEta() - BMTF2->hwEta()) * etaScale_;
float dPhi = (global_hw_phi - global_hw_phi2) * phiScale_;
float dR = sqrt(dEta * dEta + dPhi * dPhi);
int dLink = std::abs(BMTF->link() - BMTF2->link());
if (dLink == 1 || dLink == 11) { // two adjacent wedges and wrap around
ugmtBMTFMuMuDEta->Fill(dEta);
ugmtBMTFMuMuDPhi->Fill(dPhi);
ugmtBMTFMuMuDR->Fill(dR);
}
}
}
}
edm::Handle<l1t::RegionalMuonCandBxCollection> OMTFBxCollection;
e.getByToken(ugmtOMTFToken_, OMTFBxCollection);
ugmtOMTFnMuons->Fill(OMTFBxCollection->size(0));
for (int itBX = OMTFBxCollection->getFirstBX(); itBX <= OMTFBxCollection->getLastBX(); ++itBX) {
for (l1t::RegionalMuonCandBxCollection::const_iterator OMTF = OMTFBxCollection->begin(itBX);
OMTF != OMTFBxCollection->end(itBX);
++OMTF) {
ugmtOMTFhwPt->Fill(OMTF->hwPt());
ugmtOMTFhwEta->Fill(OMTF->hwEta());
ugmtOMTFhwSign->Fill(OMTF->hwSign());
ugmtOMTFhwSignValid->Fill(OMTF->hwSignValid());
ugmtOMTFhwQual->Fill(OMTF->hwQual());
ugmtOMTFlink->Fill(OMTF->link());
int global_hw_phi =
l1t::MicroGMTConfiguration::calcGlobalPhi(OMTF->hwPhi(), OMTF->trackFinderType(), OMTF->processor());
l1t::tftype trackFinderType = OMTF->trackFinderType();
if (trackFinderType == l1t::omtf_neg) {
ugmtOMTFhwPhiNeg->Fill(OMTF->hwPhi());
ugmtOMTFglbPhiNeg->Fill(global_hw_phi);
ugmtOMTFProcvshwPhiNeg->Fill(OMTF->hwPhi(), OMTF->processor());
} else {
ugmtOMTFhwPhiPos->Fill(OMTF->hwPhi());
ugmtOMTFglbPhiPos->Fill(global_hw_phi);
ugmtOMTFProcvshwPhiPos->Fill(OMTF->hwPhi(), OMTF->processor());
}
// Analyse muon correlations
for (l1t::RegionalMuonCandBxCollection::const_iterator OMTF2 = OMTF + 1; OMTF2 != OMTFBxCollection->end(itBX);
++OMTF2) {
int global_hw_phi2 =
l1t::MicroGMTConfiguration::calcGlobalPhi(OMTF2->hwPhi(), OMTF2->trackFinderType(), OMTF2->processor());
float dEta = (OMTF->hwEta() - OMTF2->hwEta()) * etaScale_;
float dPhi = (global_hw_phi - global_hw_phi2) * phiScale_;
float dR = sqrt(dEta * dEta + dPhi * dPhi);
int dLink = std::abs(OMTF->link() - OMTF2->link());
if (dLink == 1 || dLink == 5) { // two adjacent sectors and wrap around
ugmtOMTFMuMuDEta->Fill(dEta);
ugmtOMTFMuMuDPhi->Fill(dPhi);
ugmtOMTFMuMuDR->Fill(dR);
}
}
}
}
edm::Handle<l1t::RegionalMuonCandBxCollection> EMTFBxCollection;
e.getByToken(ugmtEMTFToken_, EMTFBxCollection);
ugmtEMTFnMuons->Fill(EMTFBxCollection->size(0));
for (int itBX = EMTFBxCollection->getFirstBX(); itBX <= EMTFBxCollection->getLastBX(); ++itBX) {
for (l1t::RegionalMuonCandBxCollection::const_iterator EMTF = EMTFBxCollection->begin(itBX);
EMTF != EMTFBxCollection->end(itBX);
++EMTF) {
ugmtEMTFhwPt->Fill(EMTF->hwPt());
if (displacedQuantities_) {
ugmtEMTFhwPtUnconstrained->Fill(EMTF->hwPtUnconstrained());
ugmtEMTFhwDXY->Fill(EMTF->hwDXY());
}
ugmtEMTFhwEta->Fill(EMTF->hwEta());
ugmtEMTFhwSign->Fill(EMTF->hwSign());
ugmtEMTFhwSignValid->Fill(EMTF->hwSignValid());
ugmtEMTFhwQual->Fill(EMTF->hwQual());
ugmtEMTFlink->Fill(EMTF->link());
int global_hw_phi =
l1t::MicroGMTConfiguration::calcGlobalPhi(EMTF->hwPhi(), EMTF->trackFinderType(), EMTF->processor());
l1t::tftype trackFinderType = EMTF->trackFinderType();
if (trackFinderType == l1t::emtf_neg) {
ugmtEMTFhwPhiNeg->Fill(EMTF->hwPhi());
ugmtEMTFglbPhiNeg->Fill(global_hw_phi);
ugmtEMTFProcvshwPhiNeg->Fill(EMTF->hwPhi(), EMTF->processor());
} else {
ugmtEMTFhwPhiPos->Fill(EMTF->hwPhi());
ugmtEMTFglbPhiPos->Fill(global_hw_phi);
ugmtEMTFProcvshwPhiPos->Fill(EMTF->hwPhi(), EMTF->processor());
}
// Analyse muon correlations
for (l1t::RegionalMuonCandBxCollection::const_iterator EMTF2 = EMTF + 1; EMTF2 != EMTFBxCollection->end(itBX);
++EMTF2) {
int global_hw_phi2 =
l1t::MicroGMTConfiguration::calcGlobalPhi(EMTF2->hwPhi(), EMTF2->trackFinderType(), EMTF2->processor());
float dEta = (EMTF->hwEta() - EMTF2->hwEta()) * etaScale_;
float dPhi = (global_hw_phi - global_hw_phi2) * phiScale_;
float dR = sqrt(dEta * dEta + dPhi * dPhi);
int dLink = std::abs(EMTF->link() - EMTF2->link());
if (dLink == 1 || dLink == 5) { // two adjacent sectors and wrap around
ugmtEMTFMuMuDEta->Fill(dEta);
ugmtEMTFMuMuDPhi->Fill(dPhi);
ugmtEMTFMuMuDR->Fill(dR);
}
}
}
}
// Fill shower plots
if (hadronicShowers_) {
edm::Handle<l1t::RegionalMuonShowerBxCollection> EMTFShowersBxCollection;
e.getByToken(ugmtEMTFShowerToken_, EMTFShowersBxCollection);
for (int itBX = EMTFShowersBxCollection->getFirstBX(); itBX <= EMTFShowersBxCollection->getLastBX(); ++itBX) {
for (l1t::RegionalMuonShowerBxCollection::const_iterator shower = EMTFShowersBxCollection->begin(itBX);
shower != EMTFShowersBxCollection->end(itBX);
++shower) {
if (not shower->isValid()) {
continue;
}
if (shower->isOneNominalInTime()) {
ugmtEMTFShowerTypeOccupancyPerSector->Fill(
shower->processor() + 1 + (shower->trackFinderType() == l1t::tftype::emtf_pos ? 6 : 0),
IDX_NOMINAL_SHOWER);
}
if (shower->isOneTightInTime()) {
ugmtEMTFShowerTypeOccupancyPerSector->Fill(
shower->processor() + 1 + (shower->trackFinderType() == l1t::tftype::emtf_pos ? 6 : 0),
IDX_TIGHT_SHOWER);
}
if (shower->isOneLooseInTime()) {
ugmtEMTFShowerTypeOccupancyPerSector->Fill(
shower->processor() + 1 + (shower->trackFinderType() == l1t::tftype::emtf_pos ? 6 : 0),
IDX_LOOSE_SHOWER);
}
}
}
}
// barrel-overlap muon correlations
int firstBxBO = (BMTFBxCollection->getFirstBX() < OMTFBxCollection->getFirstBX()) ? OMTFBxCollection->getFirstBX()
: BMTFBxCollection->getFirstBX();
int lastBxBO = (BMTFBxCollection->getLastBX() > OMTFBxCollection->getLastBX()) ? OMTFBxCollection->getLastBX()
: BMTFBxCollection->getLastBX();
for (int itBX = firstBxBO; itBX <= lastBxBO; ++itBX) {
if (BMTFBxCollection->size(itBX) < 1 || OMTFBxCollection->size(itBX) < 1) {
continue;
}
for (l1t::RegionalMuonCandBxCollection::const_iterator BMTF = BMTFBxCollection->begin(itBX);
BMTF != BMTFBxCollection->end(itBX);
++BMTF) {
int global_hw_phi_bmtf =
l1t::MicroGMTConfiguration::calcGlobalPhi(BMTF->hwPhi(), BMTF->trackFinderType(), BMTF->processor());
for (l1t::RegionalMuonCandBxCollection::const_iterator OMTF = OMTFBxCollection->begin(itBX);
OMTF != OMTFBxCollection->end(itBX);
++OMTF) {
int global_hw_phi_omtf =
l1t::MicroGMTConfiguration::calcGlobalPhi(OMTF->hwPhi(), OMTF->trackFinderType(), OMTF->processor());
float dEta = (BMTF->hwEta() - OMTF->hwEta()) * etaScale_;
float dPhi = (global_hw_phi_bmtf - global_hw_phi_omtf) * phiScale_;
float dR = sqrt(dEta * dEta + dPhi * dPhi);
if (OMTF->trackFinderType() == l1t::omtf_neg) {
ugmtBOMTFnegMuMuDEta->Fill(dEta);
ugmtBOMTFnegMuMuDPhi->Fill(dPhi);
ugmtBOMTFnegMuMuDR->Fill(dR);
} else {
ugmtBOMTFposMuMuDEta->Fill(dEta);
ugmtBOMTFposMuMuDPhi->Fill(dPhi);
ugmtBOMTFposMuMuDR->Fill(dR);
}
}
}
}
// endcap-overlap muon correlations
int firstBxEO = (EMTFBxCollection->getFirstBX() < OMTFBxCollection->getFirstBX()) ? OMTFBxCollection->getFirstBX()
: EMTFBxCollection->getFirstBX();
int lastBxEO = (EMTFBxCollection->getLastBX() > OMTFBxCollection->getLastBX()) ? OMTFBxCollection->getLastBX()
: EMTFBxCollection->getLastBX();
for (int itBX = firstBxEO; itBX <= lastBxEO; ++itBX) {
if (EMTFBxCollection->size(itBX) < 1 || OMTFBxCollection->size(itBX) < 1) {
continue;
}
for (l1t::RegionalMuonCandBxCollection::const_iterator EMTF = EMTFBxCollection->begin(itBX);
EMTF != EMTFBxCollection->end(itBX);
++EMTF) {
int global_hw_phi_emtf =
l1t::MicroGMTConfiguration::calcGlobalPhi(EMTF->hwPhi(), EMTF->trackFinderType(), EMTF->processor());
for (l1t::RegionalMuonCandBxCollection::const_iterator OMTF = OMTFBxCollection->begin(itBX);
OMTF != OMTFBxCollection->end(itBX);
++OMTF) {
int global_hw_phi_omtf =
l1t::MicroGMTConfiguration::calcGlobalPhi(OMTF->hwPhi(), OMTF->trackFinderType(), OMTF->processor());
float dEta = (EMTF->hwEta() - OMTF->hwEta()) * etaScale_;
float dPhi = (global_hw_phi_emtf - global_hw_phi_omtf) * phiScale_;
float dR = sqrt(dEta * dEta + dPhi * dPhi);
if (EMTF->trackFinderType() == l1t::emtf_neg && OMTF->trackFinderType() == l1t::omtf_neg) {
ugmtEOMTFnegMuMuDEta->Fill(dEta);
ugmtEOMTFnegMuMuDPhi->Fill(dPhi);
ugmtEOMTFnegMuMuDR->Fill(dR);
} else if (EMTF->trackFinderType() == l1t::emtf_pos && OMTF->trackFinderType() == l1t::omtf_pos) {
ugmtEOMTFposMuMuDEta->Fill(dEta);
ugmtEOMTFposMuMuDPhi->Fill(dPhi);
ugmtEOMTFposMuMuDR->Fill(dR);
}
}
}
}
}
edm::Handle<l1t::MuonBxCollection> MuonBxCollection;
e.getByToken(ugmtMuonToken_, MuonBxCollection);
ugmtnMuons->Fill(MuonBxCollection->size(0));
for (int itBX = MuonBxCollection->getFirstBX(); itBX <= MuonBxCollection->getLastBX(); ++itBX) {
for (l1t::MuonBxCollection::const_iterator Muon = MuonBxCollection->begin(itBX);
Muon != MuonBxCollection->end(itBX);
++Muon) {
int tfMuonIndex = Muon->tfMuonIndex();
ugmtMuonBX->Fill(itBX);
ugmtMuonIndex->Fill(tfMuonIndex);
ugmtMuonhwPt->Fill(Muon->hwPt());
if (displacedQuantities_) {
ugmtMuonhwPtUnconstrained->Fill(Muon->hwPtUnconstrained());
ugmtMuonhwDXY->Fill(Muon->hwDXY());
}
ugmtMuonhwEta->Fill(Muon->hwEta());
ugmtMuonhwPhi->Fill(Muon->hwPhi());
ugmtMuonhwEtaAtVtx->Fill(Muon->hwEtaAtVtx());
ugmtMuonhwPhiAtVtx->Fill(Muon->hwPhiAtVtx());
ugmtMuonhwCharge->Fill(Muon->hwCharge());
ugmtMuonhwChargeValid->Fill(Muon->hwChargeValid());
ugmtMuonhwQual->Fill(Muon->hwQual());
ugmtMuonhwIso->Fill(Muon->hwIso());
ugmtMuonPt->Fill(Muon->pt());
if (displacedQuantities_) {
ugmtMuonPtUnconstrained->Fill(Muon->ptUnconstrained());
}
ugmtMuonEta->Fill(Muon->eta());
ugmtMuonPhi->Fill(Muon->phi());
ugmtMuonEtaAtVtx->Fill(Muon->etaAtVtx());
ugmtMuonPhiAtVtx->Fill(Muon->phiAtVtx());
ugmtMuonCharge->Fill(Muon->charge());
l1t::tftype tfType{getTfOrigin(tfMuonIndex)};
if (tfType == l1t::emtf_pos || tfType == l1t::emtf_neg) {
ugmtMuonPhiEmtf->Fill(Muon->phi());
ugmtMuonDEtavsPtEmtf->Fill(Muon->pt(), Muon->hwDEtaExtra() * etaScale_);
ugmtMuonDPhivsPtEmtf->Fill(Muon->pt(), Muon->hwDPhiExtra() * phiScale_);
} else if (tfType == l1t::omtf_pos || tfType == l1t::omtf_neg) {
ugmtMuonPhiOmtf->Fill(Muon->phi());
ugmtMuonDEtavsPtOmtf->Fill(Muon->pt(), Muon->hwDEtaExtra() * etaScale_);
ugmtMuonDPhivsPtOmtf->Fill(Muon->pt(), Muon->hwDPhiExtra() * phiScale_);
} else if (tfType == l1t::bmtf) {
ugmtMuonPhiBmtf->Fill(Muon->phi());
ugmtMuonDEtavsPtBmtf->Fill(Muon->pt(), Muon->hwDEtaExtra() * etaScale_);
ugmtMuonDPhivsPtBmtf->Fill(Muon->pt(), Muon->hwDPhiExtra() * phiScale_);
}
ugmtMuonPtvsEta->Fill(Muon->eta(), Muon->pt());
ugmtMuonPtvsPhi->Fill(Muon->phi(), Muon->pt());
ugmtMuonPhivsEta->Fill(Muon->eta(), Muon->phi());
ugmtMuonPhiAtVtxvsEtaAtVtx->Fill(Muon->etaAtVtx(), Muon->phiAtVtx());
ugmtMuonBXvsLink->Fill(int(Muon->tfMuonIndex() / 3.) + 36, itBX);
ugmtMuonBXvshwPt->Fill(Muon->hwPt(), itBX);
ugmtMuonBXvshwEta->Fill(Muon->hwEta(), itBX);
ugmtMuonBXvshwPhi->Fill(Muon->hwPhi(), itBX);
ugmtMuonBXvshwCharge->Fill(Muon->hwCharge(), itBX);
ugmtMuonBXvshwChargeValid->Fill(Muon->hwChargeValid(), itBX);
ugmtMuonBXvshwQual->Fill(Muon->hwQual(), itBX);
ugmtMuonBXvshwIso->Fill(Muon->hwIso(), itBX);
ugmtMuonChargevsLink->Fill(int(Muon->tfMuonIndex() / 3.) + 36, Muon->charge());
int link = (int)std::floor(tfMuonIndex / 3.);
reco::Candidate::PolarLorentzVector mu1{Muon->pt(), Muon->eta(), Muon->phi(), 0.106};
reco::Candidate::PolarLorentzVector muAtVtx1{Muon->pt(), Muon->etaAtVtx(), Muon->phiAtVtx(), 0.106};
// Analyse multi muon events
for (l1t::MuonBxCollection::const_iterator Muon2 = Muon + 1; Muon2 != MuonBxCollection->end(itBX); ++Muon2) {
reco::Candidate::PolarLorentzVector mu2{Muon2->pt(), Muon2->eta(), Muon2->phi(), 0.106};
reco::Candidate::PolarLorentzVector muAtVtx2{Muon2->pt(), Muon2->etaAtVtx(), Muon2->phiAtVtx(), 0.106};
ugmtMuMuInvMass->Fill((mu1 + mu2).M());
ugmtMuMuInvMassAtVtx->Fill((muAtVtx1 + muAtVtx2).M());
float dEta = Muon->eta() - Muon2->eta();
float dPhi = Muon->phi() - Muon2->phi();
float dR = sqrt(dEta * dEta + dPhi * dPhi);
ugmtMuMuDEta->Fill(dEta);
ugmtMuMuDPhi->Fill(dPhi);
ugmtMuMuDR->Fill(dR);
// muon distances between muons from different TFs and from different wedges/sectors of one TF
int link2 = (int)std::floor(Muon2->tfMuonIndex() / 3.);
l1t::tftype tfType2{getTfOrigin(Muon2->tfMuonIndex())};
if ((tfType == l1t::bmtf && tfType2 == l1t::omtf_pos) || (tfType == l1t::omtf_pos && tfType2 == l1t::bmtf)) {
ugmtMuMuDEtaBOpos->Fill(dEta);
ugmtMuMuDPhiBOpos->Fill(dPhi);
ugmtMuMuDRBOpos->Fill(dR);
} else if ((tfType == l1t::bmtf && tfType2 == l1t::omtf_neg) ||
(tfType == l1t::omtf_neg && tfType2 == l1t::bmtf)) {
ugmtMuMuDEtaBOneg->Fill(dEta);
ugmtMuMuDPhiBOneg->Fill(dPhi);
ugmtMuMuDRBOneg->Fill(dR);
} else if ((tfType == l1t::emtf_pos && tfType2 == l1t::omtf_pos) ||
(tfType == l1t::omtf_pos && tfType2 == l1t::emtf_pos)) {
ugmtMuMuDEtaEOpos->Fill(dEta);
ugmtMuMuDPhiEOpos->Fill(dPhi);
ugmtMuMuDREOpos->Fill(dR);
} else if ((tfType == l1t::emtf_neg && tfType2 == l1t::omtf_neg) ||
(tfType == l1t::omtf_neg && tfType2 == l1t::emtf_neg)) {
ugmtMuMuDEtaEOneg->Fill(dEta);
ugmtMuMuDPhiEOneg->Fill(dPhi);
ugmtMuMuDREOneg->Fill(dR);
} else if (tfType == l1t::bmtf && tfType2 == l1t::bmtf) {
if (std::abs(link - link2) == 1 || (std::abs(link - link2) == 11)) { // two adjacent wedges and wrap around
ugmtMuMuDEtaB->Fill(dEta);
ugmtMuMuDPhiB->Fill(dPhi);
ugmtMuMuDRB->Fill(dR);
}
} else if (tfType == l1t::omtf_pos && tfType2 == l1t::omtf_pos) {
if (std::abs(link - link2) == 1 || (std::abs(link - link2) == 5)) { // two adjacent sectors and wrap around
ugmtMuMuDEtaOpos->Fill(dEta);
ugmtMuMuDPhiOpos->Fill(dPhi);
ugmtMuMuDROpos->Fill(dR);
}
} else if (tfType == l1t::omtf_neg && tfType2 == l1t::omtf_neg) {
if (std::abs(link - link2) == 1 || (std::abs(link - link2) == 5)) { // two adjacent sectors and wrap around
ugmtMuMuDEtaOneg->Fill(dEta);
ugmtMuMuDPhiOneg->Fill(dPhi);
ugmtMuMuDROneg->Fill(dR);
}
} else if (tfType == l1t::emtf_pos && tfType2 == l1t::emtf_pos) {
if (std::abs(link - link2) == 1 || (std::abs(link - link2) == 5)) { // two adjacent sectors and wrap around
ugmtMuMuDEtaEpos->Fill(dEta);
ugmtMuMuDPhiEpos->Fill(dPhi);
ugmtMuMuDREpos->Fill(dR);
}
} else if (tfType == l1t::emtf_neg && tfType2 == l1t::emtf_neg) {
if (std::abs(link - link2) == 1 || (std::abs(link - link2) == 5)) { // two adjacent sectors and wrap around
ugmtMuMuDEtaEneg->Fill(dEta);
ugmtMuMuDPhiEneg->Fill(dPhi);
ugmtMuMuDREneg->Fill(dR);
}
}
}
}
}
// Fill shower plots
if (hadronicShowers_) {
edm::Handle<l1t::MuonShowerBxCollection> showersBxCollection;
e.getByToken(ugmtMuonShowerToken_, showersBxCollection);
for (int itBX = showersBxCollection->getFirstBX(); itBX <= showersBxCollection->getLastBX(); ++itBX) {
for (l1t::MuonShowerBxCollection::const_iterator shower = showersBxCollection->begin(itBX);
shower != showersBxCollection->end(itBX);
++shower) {
if (not shower->isValid()) {
continue;
}
if (shower->isOneNominalInTime()) {
ugmtMuonShowerTypeOccupancyPerBx->Fill(itBX, IDX_NOMINAL_SHOWER);
}
if (shower->isOneTightInTime()) {
ugmtMuonShowerTypeOccupancyPerBx->Fill(itBX, IDX_TIGHT_SHOWER);
}
if (shower->isTwoLooseDiffSectorsInTime()) {
ugmtMuonShowerTypeOccupancyPerBx->Fill(itBX, IDX_LOOSE_SHOWER);
}
}
}
}
}
l1t::tftype L1TStage2uGMT::getTfOrigin(const int tfMuonIndex) {
if (tfMuonIndex >= 0 && tfMuonIndex <= 17) {
return l1t::emtf_pos;
} else if (tfMuonIndex >= 90 && tfMuonIndex <= 107) {
return l1t::emtf_neg;
} else if (tfMuonIndex >= 18 && tfMuonIndex <= 35) {
return l1t::omtf_pos;
} else if (tfMuonIndex >= 72 && tfMuonIndex <= 89) {
return l1t::omtf_neg;
} else {
return l1t::bmtf;
}
}
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