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/*
* See header file for a description of this class.
*
* \author Suchandra Dutta , Giorgia Mila
*/
#include "DQM/TrackingMonitor/interface/TrackSplittingMonitor.h"
#include "DQMServices/Core/interface/DQMStore.h"
#include "DataFormats/BeamSpot/interface/BeamSpot.h"
#include "DataFormats/TrackCandidate/interface/TrackCandidateCollection.h"
#include "DataFormats/TrackReco/interface/Track.h"
#include "DataFormats/TrackReco/interface/TrackFwd.h"
#include "DataFormats/TrajectorySeed/interface/TrajectorySeedCollection.h"
#include "FWCore/MessageLogger/interface/MessageLogger.h"
#include "FWCore/Utilities/interface/InputTag.h"
#include "TrackingTools/PatternTools/interface/TSCBLBuilderNoMaterial.h"
#include "TrackingTools/PatternTools/interface/TSCPBuilderNoMaterial.h"
#include "TrackingTools/Records/interface/TransientRecHitRecord.h"
#include "TrackingTools/Records/interface/TransientTrackRecord.h"
#include "TrackingTools/TrajectoryState/interface/TrajectoryStateTransform.h"
#include "TrackingTools/TransientTrack/interface/TransientTrack.h"
#include "TrackingTools/TransientTrack/interface/TransientTrackBuilder.h"
#include <string>
TrackSplittingMonitor::TrackSplittingMonitor(const edm::ParameterSet& iConfig)
: conf_(iConfig),
mfToken_(esConsumes()),
tkGeomToken_(esConsumes()),
dtGeomToken_(esConsumes()),
cscGeomToken_(esConsumes()),
rpcGeomToken_(esConsumes()),
splitTracksToken_(consumes<std::vector<reco::Track> >(conf_.getParameter<edm::InputTag>("splitTrackCollection"))),
splitMuonsToken_(mayConsume<std::vector<reco::Muon> >(conf_.getParameter<edm::InputTag>("splitMuonCollection"))),
plotMuons_(conf_.getParameter<bool>("ifPlotMuons")),
pixelHitsPerLeg_(conf_.getParameter<int>("pixelHitsPerLeg")),
totalHitsPerLeg_(conf_.getParameter<int>("totalHitsPerLeg")),
d0Cut_(conf_.getParameter<double>("d0Cut")),
dzCut_(conf_.getParameter<double>("dzCut")),
ptCut_(conf_.getParameter<double>("ptCut")),
norchiCut_(conf_.getParameter<double>("norchiCut")) {}
void TrackSplittingMonitor::bookHistograms(DQMStore::IBooker& ibooker,
edm::Run const& /* iRun */,
edm::EventSetup const& /* iSetup */) {
std::string MEFolderName = conf_.getParameter<std::string>("FolderName");
ibooker.setCurrentFolder(MEFolderName);
// bin declarations
int ddxyBin = conf_.getParameter<int>("ddxyBin");
double ddxyMin = conf_.getParameter<double>("ddxyMin");
double ddxyMax = conf_.getParameter<double>("ddxyMax");
int ddzBin = conf_.getParameter<int>("ddzBin");
double ddzMin = conf_.getParameter<double>("ddzMin");
double ddzMax = conf_.getParameter<double>("ddzMax");
int dphiBin = conf_.getParameter<int>("dphiBin");
double dphiMin = conf_.getParameter<double>("dphiMin");
double dphiMax = conf_.getParameter<double>("dphiMax");
int dthetaBin = conf_.getParameter<int>("dthetaBin");
double dthetaMin = conf_.getParameter<double>("dthetaMin");
double dthetaMax = conf_.getParameter<double>("dthetaMax");
int dptBin = conf_.getParameter<int>("dptBin");
double dptMin = conf_.getParameter<double>("dptMin");
double dptMax = conf_.getParameter<double>("dptMax");
int dcurvBin = conf_.getParameter<int>("dcurvBin");
double dcurvMin = conf_.getParameter<double>("dcurvMin");
double dcurvMax = conf_.getParameter<double>("dcurvMax");
int normBin = conf_.getParameter<int>("normBin");
double normMin = conf_.getParameter<double>("normMin");
double normMax = conf_.getParameter<double>("normMax");
// declare histogram
ddxyAbsoluteResiduals_tracker_ =
ibooker.book1D("ddxyAbsoluteResiduals_tracker", "ddxyAbsoluteResiduals_tracker", ddxyBin, ddxyMin, ddxyMax);
ddzAbsoluteResiduals_tracker_ =
ibooker.book1D("ddzAbsoluteResiduals_tracker", "ddzAbsoluteResiduals_tracker", ddzBin, ddzMin, ddzMax);
dphiAbsoluteResiduals_tracker_ =
ibooker.book1D("dphiAbsoluteResiduals_tracker", "dphiAbsoluteResiduals_tracker", dphiBin, dphiMin, dphiMax);
dthetaAbsoluteResiduals_tracker_ = ibooker.book1D(
"dthetaAbsoluteResiduals_tracker", "dthetaAbsoluteResiduals_tracker", dthetaBin, dthetaMin, dthetaMax);
dptAbsoluteResiduals_tracker_ =
ibooker.book1D("dptAbsoluteResiduals_tracker", "dptAbsoluteResiduals_tracker", dptBin, dptMin, dptMax);
dcurvAbsoluteResiduals_tracker_ =
ibooker.book1D("dcurvAbsoluteResiduals_tracker", "dcurvAbsoluteResiduals_tracker", dcurvBin, dcurvMin, dcurvMax);
ddxyNormalizedResiduals_tracker_ =
ibooker.book1D("ddxyNormalizedResiduals_tracker", "ddxyNormalizedResiduals_tracker", normBin, normMin, normMax);
ddzNormalizedResiduals_tracker_ =
ibooker.book1D("ddzNormalizedResiduals_tracker", "ddzNormalizedResiduals_tracker", normBin, normMin, normMax);
dphiNormalizedResiduals_tracker_ =
ibooker.book1D("dphiNormalizedResiduals_tracker", "dphiNormalizedResiduals_tracker", normBin, normMin, normMax);
dthetaNormalizedResiduals_tracker_ = ibooker.book1D(
"dthetaNormalizedResiduals_tracker", "dthetaNormalizedResiduals_tracker", normBin, normMin, normMax);
dptNormalizedResiduals_tracker_ =
ibooker.book1D("dptNormalizedResiduals_tracker", "dptNormalizedResiduals_tracker", normBin, normMin, normMax);
dcurvNormalizedResiduals_tracker_ =
ibooker.book1D("dcurvNormalizedResiduals_tracker", "dcurvNormalizedResiduals_tracker", normBin, normMin, normMax);
if (plotMuons_) {
ddxyAbsoluteResiduals_global_ =
ibooker.book1D("ddxyAbsoluteResiduals_global", "ddxyAbsoluteResiduals_global", ddxyBin, ddxyMin, ddxyMax);
ddzAbsoluteResiduals_global_ =
ibooker.book1D("ddzAbsoluteResiduals_global", "ddzAbsoluteResiduals_global", ddzBin, ddzMin, ddzMax);
dphiAbsoluteResiduals_global_ =
ibooker.book1D("dphiAbsoluteResiduals_global", "dphiAbsoluteResiduals_global", dphiBin, dphiMin, dphiMax);
dthetaAbsoluteResiduals_global_ = ibooker.book1D(
"dthetaAbsoluteResiduals_global", "dthetaAbsoluteResiduals_global", dthetaBin, dthetaMin, dthetaMax);
dptAbsoluteResiduals_global_ =
ibooker.book1D("dptAbsoluteResiduals_global", "dptAbsoluteResiduals_global", dptBin, dptMin, dptMax);
dcurvAbsoluteResiduals_global_ =
ibooker.book1D("dcurvAbsoluteResiduals_global", "dcurvAbsoluteResiduals_global", dcurvBin, dcurvMin, dcurvMax);
ddxyNormalizedResiduals_global_ =
ibooker.book1D("ddxyNormalizedResiduals_global", "ddxyNormalizedResiduals_global", normBin, normMin, normMax);
ddzNormalizedResiduals_global_ =
ibooker.book1D("ddzNormalizedResiduals_global", "ddzNormalizedResiduals_global", normBin, normMin, normMax);
dphiNormalizedResiduals_global_ =
ibooker.book1D("dphiNormalizedResiduals_global", "dphiNormalizedResiduals_global", normBin, normMin, normMax);
dthetaNormalizedResiduals_global_ = ibooker.book1D(
"dthetaNormalizedResiduals_global", "dthetaNormalizedResiduals_global", normBin, normMin, normMax);
dptNormalizedResiduals_global_ =
ibooker.book1D("dptNormalizedResiduals_global", "dptNormalizedResiduals_global", normBin, normMin, normMax);
dcurvNormalizedResiduals_global_ =
ibooker.book1D("dcurvNormalizedResiduals_global", "dcurvNormalizedResiduals_global", normBin, normMin, normMax);
}
ddxyAbsoluteResiduals_tracker_->setAxisTitle("(#delta d_{xy})/#sqrt{2} [#mum]");
ddzAbsoluteResiduals_tracker_->setAxisTitle("(#delta d_{z})/#sqrt{2} [#mum]");
dphiAbsoluteResiduals_tracker_->setAxisTitle("(#delta #phi)/#sqrt{2} [mrad]");
dthetaAbsoluteResiduals_tracker_->setAxisTitle("(#delta #theta)/#sqrt{2} [mrad]");
dptAbsoluteResiduals_tracker_->setAxisTitle("(#delta p_{T})/#sqrt{2} [GeV]");
dcurvAbsoluteResiduals_tracker_->setAxisTitle("(#delta (1/p_{T}))/#sqrt{2} [GeV^{-1}]");
ddxyNormalizedResiduals_tracker_->setAxisTitle("#delta d_{xy}/#sigma(d_{xy})");
ddzNormalizedResiduals_tracker_->setAxisTitle("#delta d_{z}/#sigma(d_{z})");
dphiNormalizedResiduals_tracker_->setAxisTitle("#delta #phi/#sigma(d_{#phi})");
dthetaNormalizedResiduals_tracker_->setAxisTitle("#delta #theta/#sigma(d_{#theta})");
dptNormalizedResiduals_tracker_->setAxisTitle("#delta p_{T}/#sigma(p_{T})");
dcurvNormalizedResiduals_tracker_->setAxisTitle("#delta 1/p_{T}/#sigma(1/p_{T})");
if (plotMuons_) {
ddxyAbsoluteResiduals_global_->setAxisTitle("(#delta d_{xy})/#sqrt{2} [#mum]");
ddzAbsoluteResiduals_global_->setAxisTitle("(#delta d_{z})/#sqrt{2} [#mum]");
dphiAbsoluteResiduals_global_->setAxisTitle("(#delta #phi)/#sqrt{2} [mrad]");
dthetaAbsoluteResiduals_global_->setAxisTitle("(#delta #theta)/#sqrt{2} [mrad]");
dptAbsoluteResiduals_global_->setAxisTitle("(#delta p_{T})/#sqrt{2} [GeV]");
dcurvAbsoluteResiduals_global_->setAxisTitle("(#delta (1/p_{T}))/#sqrt{2} [GeV^{-1}]");
ddxyNormalizedResiduals_global_->setAxisTitle("#delta d_{xy}/#sigma(d_{xy})");
ddzNormalizedResiduals_global_->setAxisTitle("#delta d_{z}/#sigma(d_{z})");
dphiNormalizedResiduals_global_->setAxisTitle("#delta #phi/#sigma(d_{#phi})");
dthetaNormalizedResiduals_global_->setAxisTitle("#delta #theta/#sigma(d_{#theta})");
dptNormalizedResiduals_global_->setAxisTitle("#delta p_{T}/#sigma(p_{T})");
dcurvNormalizedResiduals_global_->setAxisTitle("#delta 1/p_{T}/#sigma(1/p_{T})");
}
}
//
// -- Analyse
//
void TrackSplittingMonitor::analyze(const edm::Event& iEvent, const edm::EventSetup& iSetup) {
theMagField = &iSetup.getData(mfToken_);
theGeometry = &iSetup.getData(tkGeomToken_);
dtGeometry = &iSetup.getData(dtGeomToken_);
cscGeometry = &iSetup.getData(cscGeomToken_);
rpcGeometry = &iSetup.getData(rpcGeomToken_);
edm::Handle<std::vector<reco::Track> > splitTracks = iEvent.getHandle(splitTracksToken_);
if (!splitTracks.isValid())
return;
edm::Handle<std::vector<reco::Muon> > splitMuons;
if (plotMuons_) {
splitMuons = iEvent.getHandle(splitMuonsToken_);
}
if (splitTracks->size() == 2) {
// check that there are 2 tracks in split track collection
edm::LogInfo("TrackSplittingMonitor") << "Split Track size: " << splitTracks->size();
// split tracks calculations
reco::Track track1 = splitTracks->at(0);
reco::Track track2 = splitTracks->at(1);
// -------------------------- basic selection ---------------------------
// hit counting
// looping through the hits for track 1
double nRechits1 = 0;
double nRechitinBPIX1 = 0;
for (auto const& iHit : track1.recHits()) {
if (iHit->isValid()) {
nRechits1++;
int type = iHit->geographicalId().subdetId();
if (type == int(PixelSubdetector::PixelBarrel)) {
++nRechitinBPIX1;
}
}
}
// looping through the hits for track 2
double nRechits2 = 0;
double nRechitinBPIX2 = 0;
for (auto const& iHit : track2.recHits()) {
if (iHit->isValid()) {
nRechits2++;
int type = iHit->geographicalId().subdetId();
if (type == int(PixelSubdetector::PixelBarrel)) {
++nRechitinBPIX2;
}
}
}
// DCA of each track
double d01 = track1.d0();
double dz1 = track1.dz();
double d02 = track2.d0();
double dz2 = track2.dz();
// pT of each track
double pt1 = track1.pt();
double pt2 = track2.pt();
// chi2 of each track
double norchi1 = track1.normalizedChi2();
double norchi2 = track2.normalizedChi2();
// basic selection
// pixel hits and total hits
if ((nRechitinBPIX1 >= pixelHitsPerLeg_) && (nRechitinBPIX2 >= pixelHitsPerLeg_) &&
(nRechits1 >= totalHitsPerLeg_) && (nRechits2 >= totalHitsPerLeg_)) {
// dca cut
if (((std::abs(d01) < d0Cut_)) && (std::abs(d02) < d0Cut_) && (std::abs(dz1) < dzCut_) &&
(std::abs(dz2) < dzCut_)) {
// pt cut
if ((pt1 + pt2) / 2 < ptCut_) {
// chi2 cut
if ((norchi1 < norchiCut_) && (norchi2 < norchiCut_)) {
// passed all cuts...
edm::LogInfo("TrackSplittingMonitor") << " Setected after all cuts ?";
double ddxyVal = d01 - d02;
double ddzVal = dz1 - dz2;
double dphiVal = track1.phi() - track2.phi();
double dthetaVal = track1.theta() - track2.theta();
double dptVal = pt1 - pt2;
double dcurvVal = (1 / pt1) - (1 / pt2);
double d01ErrVal = track1.d0Error();
double d02ErrVal = track2.d0Error();
double dz1ErrVal = track1.dzError();
double dz2ErrVal = track2.dzError();
double phi1ErrVal = track1.phiError();
double phi2ErrVal = track2.phiError();
double theta1ErrVal = track1.thetaError();
double theta2ErrVal = track2.thetaError();
double pt1ErrVal = track1.ptError();
double pt2ErrVal = track2.ptError();
ddxyAbsoluteResiduals_tracker_->Fill(cmToUm * ddxyVal / sqrt2);
ddzAbsoluteResiduals_tracker_->Fill(cmToUm * ddzVal / sqrt2);
dphiAbsoluteResiduals_tracker_->Fill(radToUrad * dphiVal / sqrt2);
dthetaAbsoluteResiduals_tracker_->Fill(radToUrad * dthetaVal / sqrt2);
dptAbsoluteResiduals_tracker_->Fill(dptVal / sqrt2);
dcurvAbsoluteResiduals_tracker_->Fill(dcurvVal / sqrt2);
ddxyNormalizedResiduals_tracker_->Fill(ddxyVal / sqrt(d01ErrVal * d01ErrVal + d02ErrVal * d02ErrVal));
ddzNormalizedResiduals_tracker_->Fill(ddzVal / sqrt(dz1ErrVal * dz1ErrVal + dz2ErrVal * dz2ErrVal));
dphiNormalizedResiduals_tracker_->Fill(dphiVal / sqrt(phi1ErrVal * phi1ErrVal + phi2ErrVal * phi2ErrVal));
dthetaNormalizedResiduals_tracker_->Fill(dthetaVal /
sqrt(theta1ErrVal * theta1ErrVal + theta2ErrVal * theta2ErrVal));
dptNormalizedResiduals_tracker_->Fill(dptVal / sqrt(pt1ErrVal * pt1ErrVal + pt2ErrVal * pt2ErrVal));
dcurvNormalizedResiduals_tracker_->Fill(
dcurvVal / sqrt(pow(pt1ErrVal, 2) / pow(pt1, 4) + pow(pt2ErrVal, 2) / pow(pt2, 4)));
// if do the same for split muons
if (plotMuons_ && splitMuons.isValid()) {
int gmCtr = 0;
bool topGlobalMuonFlag = false;
bool bottomGlobalMuonFlag = false;
int topGlobalMuon = -1;
int bottomGlobalMuon = -1;
double topGlobalMuonNorchi2 = 1e10;
double bottomGlobalMuonNorchi2 = 1e10;
// check if usable split global muons
for (std::vector<reco::Muon>::const_iterator gmI = splitMuons->begin(); gmI != splitMuons->end(); gmI++) {
if (gmI->isTrackerMuon() && gmI->isStandAloneMuon() && gmI->isGlobalMuon()) {
reco::TrackRef trackerTrackRef1(splitTracks, 0);
reco::TrackRef trackerTrackRef2(splitTracks, 1);
if (gmI->innerTrack() == trackerTrackRef1) {
if (gmI->globalTrack()->normalizedChi2() < topGlobalMuonNorchi2) {
topGlobalMuonFlag = true;
topGlobalMuonNorchi2 = gmI->globalTrack()->normalizedChi2();
topGlobalMuon = gmCtr;
}
}
if (gmI->innerTrack() == trackerTrackRef2) {
if (gmI->globalTrack()->normalizedChi2() < bottomGlobalMuonNorchi2) {
bottomGlobalMuonFlag = true;
bottomGlobalMuonNorchi2 = gmI->globalTrack()->normalizedChi2();
bottomGlobalMuon = gmCtr;
}
}
}
gmCtr++;
}
if (bottomGlobalMuonFlag && topGlobalMuonFlag) {
reco::Muon muonTop = splitMuons->at(topGlobalMuon);
reco::Muon muonBottom = splitMuons->at(bottomGlobalMuon);
reco::TrackRef glb1 = muonTop.globalTrack();
reco::TrackRef glb2 = muonBottom.globalTrack();
double ddxyValGlb = glb1->d0() - glb2->d0();
double ddzValGlb = glb1->dz() - glb2->dz();
double dphiValGlb = glb1->phi() - glb2->phi();
double dthetaValGlb = glb1->theta() - glb2->theta();
double dptValGlb = glb1->pt() - glb2->pt();
double dcurvValGlb = (1 / glb1->pt()) - (1 / glb2->pt());
double d01ErrValGlb = glb1->d0Error();
double d02ErrValGlb = glb2->d0Error();
double dz1ErrValGlb = glb1->dzError();
double dz2ErrValGlb = glb2->dzError();
double phi1ErrValGlb = glb1->phiError();
double phi2ErrValGlb = glb2->phiError();
double theta1ErrValGlb = glb1->thetaError();
double theta2ErrValGlb = glb2->thetaError();
double pt1ErrValGlb = glb1->ptError();
double pt2ErrValGlb = glb2->ptError();
ddxyAbsoluteResiduals_global_->Fill(cmToUm * ddxyValGlb / sqrt2);
ddzAbsoluteResiduals_global_->Fill(cmToUm * ddzValGlb / sqrt2);
dphiAbsoluteResiduals_global_->Fill(radToUrad * dphiValGlb / sqrt2);
dthetaAbsoluteResiduals_global_->Fill(radToUrad * dthetaValGlb / sqrt2);
dptAbsoluteResiduals_global_->Fill(dptValGlb / sqrt2);
dcurvAbsoluteResiduals_global_->Fill(dcurvValGlb / sqrt2);
ddxyNormalizedResiduals_global_->Fill(ddxyValGlb /
sqrt(d01ErrValGlb * d01ErrValGlb + d02ErrValGlb * d02ErrValGlb));
ddxyNormalizedResiduals_global_->Fill(ddzValGlb /
sqrt(dz1ErrValGlb * dz1ErrValGlb + dz2ErrValGlb * dz2ErrValGlb));
ddxyNormalizedResiduals_global_->Fill(
dphiValGlb / sqrt(phi1ErrValGlb * phi1ErrValGlb + phi2ErrValGlb * phi2ErrValGlb));
ddxyNormalizedResiduals_global_->Fill(
dthetaValGlb / sqrt(theta1ErrValGlb * theta1ErrValGlb + theta2ErrValGlb * theta2ErrValGlb));
ddxyNormalizedResiduals_global_->Fill(dptValGlb /
sqrt(pt1ErrValGlb * pt1ErrValGlb + pt2ErrValGlb * pt2ErrValGlb));
ddxyNormalizedResiduals_global_->Fill(
dcurvValGlb / sqrt(pow(pt1ErrValGlb, 2) / pow(pt1, 4) + pow(pt2ErrValGlb, 2) / pow(pt2, 4)));
}
} // end of split muons loop
}
}
}
}
}
}
void TrackSplittingMonitor::fillDescriptions(edm::ConfigurationDescriptions& descriptions) {
edm::ParameterSetDescription desc;
desc.setComment(
"Validates track parameters resolution by splitting cosmics tracks at the PCA and comparing the parameters of "
"the two halves");
desc.add<std::string>("FolderName", "TrackSplitMonitoring");
desc.add<edm::InputTag>("splitTrackCollection", edm::InputTag("splittedTracksP5"));
desc.add<edm::InputTag>("splitMuonCollection", edm::InputTag("splitMuons"));
desc.add<bool>("ifPlotMuons", true);
desc.add<int>("pixelHitsPerLeg", 1);
desc.add<int>("totalHitsPerLeg", 6);
desc.add<double>("d0Cut", 12.0);
desc.add<double>("dzCut", 25.0);
desc.add<double>("ptCut", 4.0);
desc.add<double>("norchiCut", 100.0);
desc.add<int>("ddxyBin", 100);
desc.add<double>("ddxyMin", -200.0);
desc.add<double>("ddxyMax", 200.0);
desc.add<int>("ddzBin", 100);
desc.add<double>("ddzMin", -400.0);
desc.add<double>("ddzMax", 400.0);
desc.add<int>("dphiBin", 100);
desc.add<double>("dphiMin", -0.01);
desc.add<double>("dphiMax", 0.01);
desc.add<int>("dthetaBin", 100);
desc.add<double>("dthetaMin", -0.01);
desc.add<double>("dthetaMax", 0.01);
desc.add<int>("dptBin", 100);
desc.add<double>("dptMin", -5.0);
desc.add<double>("dptMax", 5.0);
desc.add<int>("dcurvBin", 100);
desc.add<double>("dcurvMin", -0.005);
desc.add<double>("dcurvMax", 0.005);
desc.add<int>("normBin", 100);
desc.add<double>("normMin", -5.);
desc.add<double>("normMax", 5.);
descriptions.addWithDefaultLabel(desc);
}
DEFINE_FWK_MODULE(TrackSplittingMonitor);
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