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L1TCaloUpgradeToGCTConverter.cc
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L1TCaloUpgradeToGCTConverter.cc
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// L1TCaloUpgradeToGCTConverter.cc
// Authors: Ivan Cali
// R. Alex Barbieri
// Stage 1 upgrade to old GT format converter
// Assumes input collections are sorted, but not truncated.
// In the 'gct' eta coordinates the HF is 0-3 and 18-21. Jets which
// include any energy at all from the HF should be considered
// 'forward' jets, however, so jets with centers in 0-4 and 17-21 are
// considered 'forward'.
#include "L1Trigger/L1TCalorimeter/plugins/L1TCaloUpgradeToGCTConverter.h"
#include <memory>
#include "CondFormats/L1TObjects/interface/L1CaloEtScale.h"
#include "CondFormats/DataRecord/interface/L1JetEtScaleRcd.h"
#include "CondFormats/DataRecord/interface/L1EmEtScaleRcd.h"
using namespace std;
using namespace edm;
using namespace l1t;
L1TCaloUpgradeToGCTConverter::L1TCaloUpgradeToGCTConverter(const ParameterSet& iConfig)
: // register what you consume and keep token for later access:
EGammaToken_(consumes<EGammaBxCollection>(iConfig.getParameter<InputTag>("InputCollection"))),
RlxTauToken_(consumes<TauBxCollection>(iConfig.getParameter<InputTag>("InputRlxTauCollection"))),
IsoTauToken_(consumes<TauBxCollection>(iConfig.getParameter<InputTag>("InputIsoTauCollection"))),
JetToken_(consumes<JetBxCollection>(iConfig.getParameter<InputTag>("InputCollection"))),
EtSumToken_(consumes<EtSumBxCollection>(iConfig.getParameter<InputTag>("InputCollection"))),
HfSumsToken_(consumes<CaloSpareBxCollection>(iConfig.getParameter<edm::InputTag>("InputHFSumsCollection"))),
HfCountsToken_(consumes<CaloSpareBxCollection>(iConfig.getParameter<edm::InputTag>("InputHFCountsCollection"))),
bxMin_(iConfig.getParameter<int>("bxMin")),
bxMax_(iConfig.getParameter<int>("bxMax")) {
produces<L1GctEmCandCollection>("isoEm");
produces<L1GctEmCandCollection>("nonIsoEm");
produces<L1GctJetCandCollection>("cenJets");
produces<L1GctJetCandCollection>("forJets");
produces<L1GctJetCandCollection>("tauJets");
produces<L1GctJetCandCollection>("isoTauJets");
produces<L1GctInternJetDataCollection>();
produces<L1GctEtTotalCollection>();
produces<L1GctEtHadCollection>();
produces<L1GctEtMissCollection>();
produces<L1GctHtMissCollection>();
produces<L1GctInternEtSumCollection>();
produces<L1GctInternHtMissCollection>();
produces<L1GctHFBitCountsCollection>();
produces<L1GctHFRingEtSumsCollection>();
}
// ------------ method called to produce the data ------------
void L1TCaloUpgradeToGCTConverter::produce(StreamID, Event& e, const EventSetup& es) const {
LogDebug("l1t|stage 1 Converter") << "L1TCaloUpgradeToGCTConverter::produce function called...\n";
//inputs
Handle<EGammaBxCollection> EGamma;
e.getByToken(EGammaToken_, EGamma);
Handle<TauBxCollection> RlxTau;
e.getByToken(RlxTauToken_, RlxTau);
Handle<TauBxCollection> IsoTau;
e.getByToken(IsoTauToken_, IsoTau);
Handle<JetBxCollection> Jet;
e.getByToken(JetToken_, Jet);
Handle<EtSumBxCollection> EtSum;
e.getByToken(EtSumToken_, EtSum);
Handle<CaloSpareBxCollection> HfSums;
e.getByToken(HfSumsToken_, HfSums);
Handle<CaloSpareBxCollection> HfCounts;
e.getByToken(HfCountsToken_, HfCounts);
// create the em and jet collections
std::unique_ptr<L1GctEmCandCollection> isoEmResult(new L1GctEmCandCollection());
std::unique_ptr<L1GctEmCandCollection> nonIsoEmResult(new L1GctEmCandCollection());
std::unique_ptr<L1GctJetCandCollection> cenJetResult(new L1GctJetCandCollection());
std::unique_ptr<L1GctJetCandCollection> forJetResult(new L1GctJetCandCollection());
std::unique_ptr<L1GctJetCandCollection> tauJetResult(new L1GctJetCandCollection());
std::unique_ptr<L1GctJetCandCollection> isoTauJetResult(new L1GctJetCandCollection());
// create the energy sum digis
std::unique_ptr<L1GctEtTotalCollection> etTotResult(new L1GctEtTotalCollection());
std::unique_ptr<L1GctEtHadCollection> etHadResult(new L1GctEtHadCollection());
std::unique_ptr<L1GctEtMissCollection> etMissResult(new L1GctEtMissCollection());
std::unique_ptr<L1GctHtMissCollection> htMissResult(new L1GctHtMissCollection());
// create the Hf sums digis
std::unique_ptr<L1GctHFBitCountsCollection> hfBitCountResult(new L1GctHFBitCountsCollection());
std::unique_ptr<L1GctHFRingEtSumsCollection> hfRingEtSumResult(new L1GctHFRingEtSumsCollection());
// create internal data collections
std::unique_ptr<L1GctInternJetDataCollection> internalJetResult(new L1GctInternJetDataCollection());
std::unique_ptr<L1GctInternEtSumCollection> internalEtSumResult(new L1GctInternEtSumCollection());
std::unique_ptr<L1GctInternHtMissCollection> internalHtMissResult(new L1GctInternHtMissCollection());
int bxCounter = 0;
for (int itBX = EGamma->getFirstBX(); itBX <= EGamma->getLastBX(); ++itBX) {
if (itBX < bxMin_)
continue;
if (itBX > bxMax_)
continue;
bxCounter++;
//looping over EGamma elments with a specific BX
int nonIsoCount = 0;
int isoCount = 0;
for (EGammaBxCollection::const_iterator itEGamma = EGamma->begin(itBX); itEGamma != EGamma->end(itBX); ++itEGamma) {
bool iso = itEGamma->hwIso();
L1GctEmCand EmCand(itEGamma->hwPt(), itEGamma->hwPhi(), itEGamma->hwEta(), iso, 0, 0, itBX);
//L1GctEmCand(unsigned rank, unsigned phi, unsigned eta,
// bool iso, uint16_t block, uint16_t index, int16_t bx);
if (iso) {
if (isoCount != 4) {
isoEmResult->push_back(EmCand);
isoCount++;
}
} else {
if (nonIsoCount != 4) {
nonIsoEmResult->push_back(EmCand);
nonIsoCount++;
}
}
}
isoEmResult->resize(4 * bxCounter);
nonIsoEmResult->resize(4 * bxCounter);
}
bxCounter = 0;
for (int itBX = RlxTau->getFirstBX(); itBX <= RlxTau->getLastBX(); ++itBX) {
if (itBX < bxMin_)
continue;
if (itBX > bxMax_)
continue;
bxCounter++;
//looping over Tau elments with a specific BX
int tauCount = 0; //max 4
for (TauBxCollection::const_iterator itTau = RlxTau->begin(itBX); itTau != RlxTau->end(itBX); ++itTau) {
// taus are not allowed to be forward
const bool forward = false;
L1GctJetCand TauCand(itTau->hwPt(), itTau->hwPhi(), itTau->hwEta(), true, forward, 0, 0, itBX);
//L1GctJetCand(unsigned rank, unsigned phi, unsigned eta,
// bool isTau, bool isFor, uint16_t block, uint16_t index, int16_t bx);
if (tauCount != 4) {
tauJetResult->push_back(TauCand);
tauCount++;
}
}
tauJetResult->resize(4 * bxCounter);
}
bxCounter = 0;
for (int itBX = IsoTau->getFirstBX(); itBX <= IsoTau->getLastBX(); ++itBX) {
if (itBX < bxMin_)
continue;
if (itBX > bxMax_)
continue;
bxCounter++;
//looping over Iso Tau elments with a specific BX
int isoTauCount = 0; //max 4
for (TauBxCollection::const_iterator itTau = IsoTau->begin(itBX); itTau != IsoTau->end(itBX); ++itTau) {
// taus are not allowed to be forward
const bool forward = false;
L1GctJetCand TauCand(itTau->hwPt(), itTau->hwPhi(), itTau->hwEta(), true, forward, 0, 0, itBX);
//L1GctJetCand(unsigned rank, unsigned phi, unsigned eta,
// bool isTau, bool isFor, uint16_t block, uint16_t index, int16_t bx);
if (isoTauCount != 4) {
isoTauJetResult->push_back(TauCand);
isoTauCount++;
}
}
isoTauJetResult->resize(4 * bxCounter);
}
bxCounter = 0;
for (int itBX = Jet->getFirstBX(); itBX <= Jet->getLastBX(); ++itBX) {
if (itBX < bxMin_)
continue;
if (itBX > bxMax_)
continue;
bxCounter++;
//looping over Jet elments with a specific BX
int forCount = 0; //max 4
int cenCount = 0; //max 4
for (JetBxCollection::const_iterator itJet = Jet->begin(itBX); itJet != Jet->end(itBX); ++itJet) {
// use 2nd quality bit to define forward
const bool forward = ((itJet->hwQual() & 0x2) != 0);
L1GctJetCand JetCand(itJet->hwPt(), itJet->hwPhi(), itJet->hwEta(), false, forward, 0, 0, itBX);
//L1GctJetCand(unsigned rank, unsigned phi, unsigned eta,
// bool isTau, bool isFor, uint16_t block, uint16_t index, int16_t bx);
if (forward) {
if (forCount != 4) {
forJetResult->push_back(JetCand);
forCount++;
}
} else {
if (cenCount != 4) {
cenJetResult->push_back(JetCand);
cenCount++;
}
}
}
forJetResult->resize(4 * bxCounter);
cenJetResult->resize(4 * bxCounter);
}
bxCounter = 0;
for (int itBX = EtSum->getFirstBX(); itBX <= EtSum->getLastBX(); ++itBX) {
if (itBX < bxMin_)
continue;
if (itBX > bxMax_)
continue;
bxCounter++;
//looping over EtSum elments with a specific BX
for (EtSumBxCollection::const_iterator itEtSum = EtSum->begin(itBX); itEtSum != EtSum->end(itBX); ++itEtSum) {
if (EtSum::EtSumType::kMissingEt == itEtSum->getType()) {
L1GctEtMiss Cand(itEtSum->hwPt(), itEtSum->hwPhi(), itEtSum->hwQual() & 0x1, itBX);
etMissResult->push_back(Cand);
} else if (EtSum::EtSumType::kMissingHt == itEtSum->getType()) {
L1GctHtMiss Cand(itEtSum->hwPt(), itEtSum->hwPhi(), itEtSum->hwQual() & 0x1, itBX);
htMissResult->push_back(Cand);
} else if (EtSum::EtSumType::kTotalEt == itEtSum->getType()) {
L1GctEtTotal Cand(itEtSum->hwPt(), itEtSum->hwQual() & 0x1, itBX);
etTotResult->push_back(Cand);
} else if (EtSum::EtSumType::kTotalHt == itEtSum->getType()) {
L1GctEtHad Cand(itEtSum->hwPt(), itEtSum->hwQual() & 0x1, itBX);
etHadResult->push_back(Cand);
} else {
LogError("l1t|stage 1 Converter") << " Unknown EtSumType --- EtSum collection will not be saved...\n ";
}
}
etMissResult->resize(1 * bxCounter);
htMissResult->resize(1 * bxCounter);
etTotResult->resize(1 * bxCounter);
etHadResult->resize(1 * bxCounter);
}
bxCounter = 0;
for (int itBX = HfSums->getFirstBX(); itBX <= HfSums->getLastBX(); ++itBX) {
if (itBX < bxMin_)
continue;
if (itBX > bxMax_)
continue;
bxCounter++;
L1GctHFRingEtSums sum = L1GctHFRingEtSums::fromGctEmulator(itBX, 0, 0, 0, 0);
for (CaloSpareBxCollection::const_iterator itCaloSpare = HfSums->begin(itBX); itCaloSpare != HfSums->end(itBX);
++itCaloSpare) {
// if (CaloSpare::CaloSpareType::V2 == itCaloSpare->getType())
// {
// sum.setEtSum(3, itCaloSpare->hwPt());
// } else if (CaloSpare::CaloSpareType::Centrality == itCaloSpare->getType())
// {
// sum.setEtSum(0, itCaloSpare->hwPt());
// } else if (CaloSpare::CaloSpareType::Tau == itCaloSpare->getType())
// {
// sum.setEtSum(0, itCaloSpare->hwPt() & 0x7);
// sum.setEtSum(1, (itCaloSpare->hwPt() >> 3) & 0x7);
// sum.setEtSum(2, (itCaloSpare->hwPt() >> 6) & 0x7);
// sum.setEtSum(3, (itCaloSpare->hwPt() >> 9) & 0x7);
// }
for (int i = 0; i < 4; i++) {
sum.setEtSum(i, itCaloSpare->GetRing(i));
}
}
hfRingEtSumResult->push_back(sum);
hfRingEtSumResult->resize(1 * bxCounter);
}
bxCounter = 0;
for (int itBX = HfCounts->getFirstBX(); itBX <= HfCounts->getLastBX(); ++itBX) {
if (itBX < bxMin_)
continue;
if (itBX > bxMax_)
continue;
bxCounter++;
L1GctHFBitCounts count = L1GctHFBitCounts::fromGctEmulator(itBX, 0, 0, 0, 0);
for (CaloSpareBxCollection::const_iterator itCaloSpare = HfCounts->begin(itBX); itCaloSpare != HfCounts->end(itBX);
++itCaloSpare) {
for (int i = 0; i < 4; i++) {
count.setBitCount(i, itCaloSpare->GetRing(i));
}
}
hfBitCountResult->push_back(count);
hfBitCountResult->resize(1 * bxCounter);
}
e.put(std::move(isoEmResult), "isoEm");
e.put(std::move(nonIsoEmResult), "nonIsoEm");
e.put(std::move(cenJetResult), "cenJets");
e.put(std::move(forJetResult), "forJets");
e.put(std::move(tauJetResult), "tauJets");
e.put(std::move(isoTauJetResult), "isoTauJets");
e.put(std::move(etTotResult));
e.put(std::move(etHadResult));
e.put(std::move(etMissResult));
e.put(std::move(htMissResult));
e.put(std::move(hfBitCountResult));
e.put(std::move(hfRingEtSumResult));
e.put(std::move(internalJetResult));
e.put(std::move(internalEtSumResult));
e.put(std::move(internalHtMissResult));
}
// ------------ method fills 'descriptions' with the allowed parameters for the module ------------
void L1TCaloUpgradeToGCTConverter::fillDescriptions(ConfigurationDescriptions& descriptions) {
ParameterSetDescription desc;
desc.add<int>("bxMin", 0);
desc.add<int>("bxMax", 0);
desc.add<edm::InputTag>("InputCollection", edm::InputTag("caloStage1Digis"));
desc.add<edm::InputTag>("InputRlxTauCollection", edm::InputTag("caloStage1Digis:rlxTaus"));
desc.add<edm::InputTag>("InputIsoTauCollection", edm::InputTag("caloStage1Digis:isoTaus"));
desc.add<edm::InputTag>("InputHFSumsCollection", edm::InputTag("caloStage1Digis:HFRingSums"));
desc.add<edm::InputTag>("InputHFCountsCollection", edm::InputTag("caloStage1Digis:HFBitCounts"));
descriptions.add("L1TCaloUpgradeToGCTConverter", desc);
}
//define this as a plug-in
DEFINE_FWK_MODULE(L1TCaloUpgradeToGCTConverter);