process.QCDfromSmearing.HTcut_extremehigh = cms.double(1400.)
###############################################################################
VarsInt = cms.vstring()
VarsDouble = cms.vstring()
RecoCandVector = cms.vstring()
# baseline producers
process.Baseline = cms.Sequence(
)
## --- NVertex producer -----------------------------------------------
print "*** NVertex producer **************************************************"
from AllHadronicSUSY.Utils.primaryverticies_cfi import primaryverticies
process.NVtx = primaryverticies.clone(
VertexCollection = cms.InputTag('offlineSlimmedPrimaryVertices'),
)
process.Baseline += process.NVtx
VarsInt.extend(['NVtx'])
## --- isotrack producer -----------------------------------------------
from AllHadronicSUSY.Utils.trackIsolationMaker_cfi import trackIsolationFilter
process.IsolatedElectronTracksVeto = trackIsolationFilter.clone(
doTrkIsoVeto= True,
vertexInputTag = cms.InputTag("offlineSlimmedPrimaryVertices"),
pfCandidatesTag = cms.InputTag("packedPFCandidates"),
dR_ConeSize = cms.double(0.3),
dz_CutValue = cms.double(0.05),
minPt_PFCandidate = cms.double(5.0),
isoCut = cms.double(0.2),
pdgId = cms.int32(11),
def makeTreeFromMiniAOD(
process,
outFileName,
reportEveryEvt=10,
testFileName="",
Global_Tag="",
numProcessedEvt=1000,
lostlepton=False,
gammajets=False,
tagandprobe=False,
applybaseline=False,
doZinv=False,
):
process.load("Configuration.StandardSequences.FrontierConditions_GlobalTag_cff")
process.GlobalTag.globaltag = Global_Tag
# define if mt cut should be applied and the value (less than 0 means no cut)
mtcut = cms.double(100)
if tagandprobe:
mtcut=-100
print "Doing tagandprobe"
print "Calulation with mtcut: "+ str(mtcut)
## --- Log output ------------------------------------------------------
process.load("FWCore.MessageService.MessageLogger_cfi")
process.MessageLogger.cerr = cms.untracked.PSet(
placeholder = cms.untracked.bool(True)
)
process.MessageLogger.cout = cms.untracked.PSet(
INFO = cms.untracked.PSet(reportEvery = cms.untracked.int32(reportEveryEvt))
)
process.options = cms.untracked.PSet(
wantSummary = cms.untracked.bool(True)
)
## --- Files to process ------------------------------------------------
process.maxEvents = cms.untracked.PSet(
input = cms.untracked.int32(numProcessedEvt)
)
process.source = cms.Source("PoolSource",
fileNames = cms.untracked.vstring(testFileName)
# fileNames = cms.untracked.vstring(
# 'file:/nfs/dust/cms/user/csander/LHE/workdir/simulation_test/T1qqqqHV/output_66.root'
# )
)
## --- Output file -----------------------------------------------------
process.TFileService = cms.Service(
"TFileService",
fileName = cms.string(outFileName+".root")
)
# config of producers
RecoCandVector = cms.vstring()
VarsDouble = cms.vstring()
VarsInt = cms.vstring()
VarsBool = cms.vstring()
# baseline producers
process.Baseline = cms.Sequence(
)
#special sequences
#lost-lepton variables
process.LostLepton = cms.Sequence(
)
#gamma+jet variables
process.GammaJet = cms.Sequence(
)
# basic producers
## --- Setup WeightProducer -------------------------------------------
from AllHadronicSUSY.WeightProducer.getWeightProducer_cff import getWeightProducer
process.WeightProducer = getWeightProducer(testFileName)
process.WeightProducer.Lumi = cms.double(4000)
process.WeightProducer.PU = cms.int32(0) # PU S10 3 for S10 2 for S7
process.WeightProducer.FileNamePUDataDistribution = cms.string("NONE")
print process.WeightProducer.PU
process.Baseline += process.WeightProducer
VarsDouble.extend(['WeightProducer:weight(Weight)'])
from AllHadronicSUSY.Utils.primaryverticies_cfi import primaryverticies
process.NVtx = primaryverticies.clone(
VertexCollection = cms.InputTag('offlineSlimmedPrimaryVertices'),
)
process.Baseline += process.NVtx
VarsInt.extend(['NVtx'])
## isotrack producer
from AllHadronicSUSY.Utils.trackIsolationMaker_cfi import trackIsolationFilter
from AllHadronicSUSY.Utils.trackIsolationMaker_cfi import trackIsolationCounter
process.IsolatedElectronTracksVeto = trackIsolationFilter.clone(
doTrkIsoVeto= False,
vertexInputTag = cms.InputTag("offlineSlimmedPrimaryVertices"),
pfCandidatesTag = cms.InputTag("packedPFCandidates"),
dR_ConeSize = cms.double(0.3),
dz_CutValue = cms.double(0.1),
minPt_PFCandidate = cms.double(5.0),
isoCut = cms.double(0.2),
pdgId = cms.int32(11),
etaCut=cms.double(2.5),
mTCut=mtcut,
)
process.IsolatedMuonTracksVeto = trackIsolationFilter.clone(
doTrkIsoVeto= False,
vertexInputTag = cms.InputTag("offlineSlimmedPrimaryVertices"),
pfCandidatesTag = cms.InputTag("packedPFCandidates"),
dR_ConeSize = cms.double(0.3),
dz_CutValue = cms.double(0.1),
minPt_PFCandidate = cms.double(5.0),
isoCut = cms.double(0.2),
pdgId = cms.int32(13),
etaCut=cms.double(2.5),
mTCut=mtcut,
)
process.IsolatedPionTracksVeto = trackIsolationFilter.clone(
doTrkIsoVeto= False,
vertexInputTag = cms.InputTag("offlineSlimmedPrimaryVertices"),
pfCandidatesTag = cms.InputTag("packedPFCandidates"),
dR_ConeSize = cms.double(0.3),
dz_CutValue = cms.double(0.1),
minPt_PFCandidate = cms.double(10.0),
isoCut = cms.double(0.1),
pdgId = cms.int32(211),
etaCut=cms.double(2.5),
mTCut=mtcut,
)
process.Baseline += process.IsolatedElectronTracksVeto
process.Baseline += process.IsolatedMuonTracksVeto
process.Baseline += process.IsolatedPionTracksVeto
VarsInt.extend(['IsolatedElectronTracksVeto:isoTracks(isoElectronTracks)'])
VarsInt.extend(['IsolatedMuonTracksVeto:isoTracks(isoMuonTracks)'])
VarsInt.extend(['IsolatedPionTracksVeto:isoTracks(isoPionTracks)'])
#done with isolated track vetos stuff
########################################################
from AllHadronicSUSY.Utils.leptonproducer_cfi import leptonproducer
process.LeptonsNew = leptonproducer.clone(
MuonTag = cms.InputTag('slimmedMuons'),
ElectronTag = cms.InputTag('slimmedElectrons'),
PrimaryVertex = cms.InputTag('offlineSlimmedPrimaryVertices'),
minElecPt = cms.double(10),
maxElecEta = cms.double(2.5),
minMuPt = cms.double(10),
maxMuEta = cms.double(2.4),
UseMiniIsolation = cms.bool(True),
muIsoValue = cms.double(0.2),
elecIsoValue = cms.double(0.1), # only has an effect when used with miniIsolation
METTag = cms.InputTag('slimmedMETs'),
)
process.Baseline += process.LeptonsNew
VarsInt.extend(['LeptonsNew(Leptons)'])
process.LeptonsNewTag = leptonproducer.clone(
MuonTag = cms.InputTag('slimmedMuons'),
ElectronTag = cms.InputTag('slimmedElectrons'),
PrimaryVertex = cms.InputTag('offlineSlimmedPrimaryVertices'),
minElecPt = cms.double(20),
maxElecEta = cms.double(2.5),
minMuPt = cms.double(20),
maxMuEta = cms.double(2.4),
muIsoValue = cms.double(0.2),
elecIsoValue = cms.double(0.1), # only has an effect when used with miniIsolation
UseMiniIsolation = cms.bool(True),
METTag = cms.InputTag('slimmedMETs'),
)
process.Baseline += process.LeptonsNewTag
VarsInt.extend(['LeptonsNewTag(TagLeptonHighPT)'])
####### good photons
process.goodPhotons = cms.EDProducer("PhotonIDisoProducer",
photonCollection = cms.untracked.InputTag("slimmedPhotons"),
rhoCollection = cms.untracked.InputTag("fixedGridRhoFastjetAll"),
debug = cms.untracked.bool(False)
)
process.Baseline += process.goodPhotons
###### done with photons -- good photon tag is InputTag('goodPhotons','bestPhoton')
#################################
####### good jets -- the start of everything
JECPatch = cms.string('sqlite_file:PHYS14_V4_MC.db')
#if gridcontrol:
if os.getenv('GC_CONF'):
JECPatch = cms.string('sqlite_file:../src/PHYS14_V4_MC.db')
####### JECs
# get the JECs
# this requires the user to download the .db file from this twiki
# https://twiki.cern.ch/twiki/bin/viewauth/CMS/JECDataMC
######
#from CondCore.DBCommon.CondDBSetup_cfi import *
#process.jec = cms.ESSource("PoolDBESSource",CondDBSetup,
##connect = cms.string('sqlite_file:../src/PHYS14_V4_MC.db'),
#connect = JECPatch,
##connect = cms.string('AllHadronicSUSY/TreeMaker/test/PHYS14_V4_MC.db'),
#toGet = cms.VPSet(
#cms.PSet(record = cms.string("JetCorrectionsRecord"),
#tag = cms.string("JetCorrectorParametersCollection_PHYS14_V4_MC_AK4PFchs"),
#label= cms.untracked.string("AK4PFchs")
#)
#)
#)
#process.es_prefer_jec = cms.ESPrefer("PoolDBESSource","jec")
#from PhysicsTools.PatAlgos.producersLayer1.jetUpdater_cff import patJetCorrFactorsUpdated
#process.patJetCorrFactorsReapplyJEC = patJetCorrFactorsUpdated.clone(
#src = cms.InputTag("slimmedJets"),
#levels = ['L1FastJet',
#'L2Relative',
#'L3Absolute'],
#payload = 'AK4PFchs' ) # Make sure to choose the appropriate levels and payload here!
#from PhysicsTools.PatAlgos.producersLayer1.jetUpdater_cff import patJetsUpdated
#process.patJetsReapplyJEC = patJetsUpdated.clone(
#jetSource = cms.InputTag("slimmedJets"),
#jetCorrFactorsSource = cms.VInputTag(cms.InputTag("patJetCorrFactorsReapplyJEC"))
#)
########
###### THIS IS JUST TEMPORARY, THESE SHOULD BE INCLUDED!!!!
#process.Baseline += process.patJetCorrFactorsReapplyJEC
#process.Baseline += process.patJetsReapplyJEC
############
from AllHadronicSUSY.Utils.goodjetsproducer_cfi import GoodJetsProducer
process.GoodJets = GoodJetsProducer.clone(
TagMode = cms.bool(True),
JetTag= cms.InputTag('slimmedJets'),
#JetTag= cms.InputTag('patJetsReapplyJEC'),
maxJetEta = cms.double(5.0),
maxMuFraction = cms.double(2),
minNConstituents = cms.double(2),
maxNeutralFraction = cms.double(0.90),
maxPhotonFraction = cms.double(0.95),
minChargedMultiplicity = cms.double(0),
minChargedFraction = cms.double(0),
maxChargedEMFraction = cms.double(0.99),
jetPtFilter = cms.double(30),
ExcludeLepIsoTrackPhotons = cms.bool(True),
JetConeSize = cms.double(0.04),
MuonTag = cms.InputTag('LeptonsNew:IdIsoMuon'),
ElecTag = cms.InputTag('LeptonsNew:IdIsoElectron'),
IsoElectronTrackTag = cms.InputTag('IsolatedElectronTracksVeto'),
IsoMuonTrackTag = cms.InputTag('IsolatedMuonTracksVeto'),
IsoPionTrackTag = cms.InputTag('IsolatedPionTracksVeto'),
PhotonTag = cms.InputTag('goodPhotons','bestPhoton'),
)
process.Baseline += process.GoodJets
VarsBool.extend(['GoodJets(JetID)'])
#### done with good jets
###########################################
####### Tag And Probe
from AllHadronicSUSY.Utils.selectpfcandidates_cfi import SelectPFCandidates
process.SelectedPFCandidatesProbeCands5 = SelectPFCandidates.clone(
PackedPFCandidatesTag = cms.InputTag('packedPFCandidates'),
MinPt = cms.double(5),
MaxEta = cms.double(2.5),
)
process.SelectedPFCandidatesProbeCands10 = SelectPFCandidates.clone(
PackedPFCandidatesTag = cms.InputTag('packedPFCandidates'),
MinPt = cms.double(10),
MaxEta = cms.double(2.5),
)
process.SelectedPFElecCandidates = SelectPFCandidates.clone(
PackedPFCandidatesTag = cms.InputTag('packedPFCandidates'),
MinPt = cms.double(5),
MaxEta = cms.double(2.5),
SelectpdgIDTyp = cms.int32(11),
)
process.SelectedPFMuCandidates = SelectPFCandidates.clone(
PackedPFCandidatesTag = cms.InputTag('packedPFCandidates'),
MinPt = cms.double(5),
MaxEta = cms.double(2.4),
SelectpdgIDTyp = cms.int32(13),
)
process.SelectedPFPionCandidates = SelectPFCandidates.clone(
PackedPFCandidatesTag = cms.InputTag('packedPFCandidates'),
MinPt = cms.double(10),
MaxEta = cms.double(2.4),
SelectpdgIDTyp = cms.int32(211),
)
###########################################################################################
# mu iso
from AllHadronicSUSY.Utils.activityProducer_cfi import activityProducer
process.MuonIsoTag = activityProducer.clone(
objectSource = cms.InputTag('LeptonsNew:IdMuon'), # probe source
objectMatchSource = cms.InputTag('LeptonsNew:IdIsoMuon'), # to be matched to collection (IDIsoMuons)
objectTyp = cms.int32(1),
activityTyp = cms.int32(0),
maxDeltaR = cms.double(1.0),
jetSrc = cms.InputTag('HTJets'),
TagObjectForMTWComputation = cms.InputTag('LeptonsNew:IdIsoMuon'),
)
process.tpPairs = cms.EDProducer("CandViewShallowCloneCombiner",
decay = cms.string("LeptonsNewTag:IdIsoMuon@+ LeptonsNew:IdMuon@-"), # charge coniugate states are implied
cut = cms.string("0.0 < mass < 13000.0"),
)
process.muonIsoEffs = cms.EDAnalyzer("TagProbeFitTreeProducer",
# pairs
tagProbePairs = cms.InputTag("tpPairs"),
#arbitration = cms.string("OneProbe"),
arbitration = cms.string("None"),
massForArbitration = cms.double(91),
# variables to use
variables = cms.PSet(
## methods of reco::Candidate
eta = cms.string("eta"),
pt = cms.string("pt"),
#muonsMiniIso = cms.string("muonsMiniIso"),
#miniIso = cms.string("miniIso"),
## a method of the reco::Muon object (thanks to the 3.4.X StringParser)
#nsegm = cms.string("numberOfMatches"),
## this one is an external variable
#drj = cms.InputTag("drToNearestJet"),
#nGV = cms.InputTag("goodVertices.size()"),
#miniIso = cms.InputTag("probeMuons","muonsMiniIso"),
#miniIso = cms.InputTag("probeMuons","miniIso"),
activity = cms.InputTag("MuonIsoTag","Activity"),
Passing = cms.InputTag("MuonIsoTag","Passing"),
Pt = cms.InputTag("MuonIsoTag","Pt"),
Eta = cms.InputTag("MuonIsoTag","Eta"),
MTW = cms.InputTag("MuonIsoTag","MTW"),
MTWClean = cms.InputTag("MuonIsoTag","MTWClean"),
RecomputedMET = cms.InputTag("MuonIsoTag","RecomputedMET"),
TagObjectsNum = cms.InputTag("MuonIsoTag","TagObjectsNum"),
Weight = cms.InputTag("MuonIsoTag","Weight"),
HT = cms.InputTag("MuonIsoTag","HT"),
MHT = cms.InputTag("MuonIsoTag","MHT"),
NJets = cms.InputTag("MuonIsoTag","NJets"),
),
# choice of what defines a 'passing' probe
flags = cms.PSet(
## one defined by an external collection of passing probes
#passingCal = cms.InputTag("probesPassingCal"),
## two defined by simple string cuts
# passingGlb = cms.string("isGlobalMuon"),
passingIso = cms.InputTag("LeptonsNew:IdMuon"),
#passingIso2 = cms.InputTag("MuonIsoTag:PassingProbes"),
#passingGlb = cms.string("Passing<0.5"),
#passingIso = cms.InputTag("MuonIsoTag","Passing"),
#passingIso = cms.InputTag("probePassingIso"),
),
# mc-truth info
isMC = cms.bool(False),
motherPdgId = cms.vint32(22,23),
#makeMCUnbiasTree = cms.bool(True),
#checkMotherInUnbiasEff = cms.bool(True),
#tagMatches = cms.InputTag("muMcMatch"),
#probeMatches = cms.InputTag("muMcMatch"),
#allProbes = cms.InputTag("probeMuons"),
)
###########################################################################################
# mu reco
process.MuonRecoTag = activityProducer.clone(
#objectSource = cms.InputTag('SelectedPFCandidatesProbeCands10'), # probe source
objectSource = cms.InputTag('SelectedPFMuCandidates'), # probe source
objectMatchSource = cms.InputTag('LeptonsNew:IdMuon'), # to be matched to collection (IDIsoMuons)
objectTyp = cms.int32(11),
activityTyp = cms.int32(0),
maxDeltaR = cms.double(1.0),
jetSrc = cms.InputTag('HTJets'),
TagObjectForMTWComputation = cms.InputTag('LeptonsNew:IdIsoMuon'),
)
process.tpPairsMuReco = cms.EDProducer("CandViewShallowCloneCombiner",
#decay = cms.string("LeptonsNewTag:IdIsoMuon@+ SelectedPFCandidatesProbeCands10@-"), # charge coniugate states are implied
decay = cms.string("LeptonsNewTag:IdIsoMuon@+ SelectedPFMuCandidates@-"), # charge coniugate states are implied
cut = cms.string("0.0 < mass < 13000.0"),
)
process.muonRecoEffs = cms.EDAnalyzer("TagProbeFitTreeProducer",
# pairs
tagProbePairs = cms.InputTag("tpPairsMuReco"),
#arbitration = cms.string("OneProbe"),
arbitration = cms.string("None"),
massForArbitration = cms.double(91),
# variables to use
variables = cms.PSet(
## methods of reco::Candidate
eta = cms.string("eta"),
pt = cms.string("pt"),
#muonsMiniIso = cms.string("muonsMiniIso"),
#miniIso = cms.string("miniIso"),
## a method of the reco::Muon object (thanks to the 3.4.X StringParser)
#nsegm = cms.string("numberOfMatches"),
## this one is an external variable
#drj = cms.InputTag("drToNearestJet"),
#nGV = cms.InputTag("goodVertices.size()"),
#miniIso = cms.InputTag("probeMuons","muonsMiniIso"),
#miniIso = cms.InputTag("probeMuons","miniIso"),
activity = cms.InputTag("MuonRecoTag","Activity"),
Passing = cms.InputTag("MuonRecoTag","Passing"),
Pt = cms.InputTag("MuonRecoTag","Pt"),
Eta = cms.InputTag("MuonRecoTag","Eta"),
MTW = cms.InputTag("MuonRecoTag","MTW"),
MTWClean = cms.InputTag("MuonRecoTag","MTWClean"),
RecomputedMET = cms.InputTag("MuonRecoTag","RecomputedMET"),
TagObjectsNum = cms.InputTag("MuonRecoTag","TagObjectsNum"),
Weight = cms.InputTag("MuonRecoTag","Weight"),
HT = cms.InputTag("MuonRecoTag","HT"),
MHT = cms.InputTag("MuonRecoTag","MHT"),
NJets = cms.InputTag("MuonRecoTag","NJets"),
),
# choice of what defines a 'passing' probe
flags = cms.PSet(
## one defined by an external collection of passing probes
#passingCal = cms.InputTag("probesPassingCal"),
## two defined by simple string cuts
# passingGlb = cms.string("isGlobalMuon"),
passingIso = cms.InputTag("LeptonsNew:IdMuon"),
#passingGlb = cms.string("Passing<0.5"),
#passingIso = cms.InputTag("MuonIsoTag","Passing"),
#passingIso = cms.InputTag("probePassingIso"),
),
# mc-truth info
isMC = cms.bool(False),
motherPdgId = cms.vint32(22,23),
#makeMCUnbiasTree = cms.bool(True),
#checkMotherInUnbiasEff = cms.bool(True),
#tagMatches = cms.InputTag("muMcMatch"),
#probeMatches = cms.InputTag("muMcMatch"),
#allProbes = cms.InputTag("probeMuons"),
)
###########################################################################################
# elec iso
from AllHadronicSUSY.Utils.activityProducer_cfi import activityProducer
process.ElectronIsoTag = activityProducer.clone(
objectSource = cms.InputTag('LeptonsNew:IdElectron'), # probe source
objectMatchSource = cms.InputTag('LeptonsNew:IdIsoElectron'), # to be matched to collection (IDIsoMuons)
objectTyp = cms.int32(2), ## change here for differnt lepton isotrack typ
activityTyp = cms.int32(0),
maxDeltaR = cms.double(1.0),
jetSrc = cms.InputTag('HTJets'),
TagObjectForMTWComputation = cms.InputTag('LeptonsNew:IdIsoElectron'),
)
process.tpPairsElecIso = cms.EDProducer("CandViewShallowCloneCombiner",
decay = cms.string("LeptonsNewTag:IdIsoElectron@+ LeptonsNew:IdElectron@-"), # charge coniugate states are implied
cut = cms.string("0.0 < mass < 13000.0"),
)
process.elecIsoEffs = cms.EDAnalyzer("TagProbeFitTreeProducer",
# pairs
tagProbePairs = cms.InputTag("tpPairsElecIso"),
#arbitration = cms.string("OneProbe"),
arbitration = cms.string("None"),
massForArbitration = cms.double(91),
# variables to use
variables = cms.PSet(
## methods of reco::Candidate
eta = cms.string("eta"),
pt = cms.string("pt"),
#muonsMiniIso = cms.string("muonsMiniIso"),
#miniIso = cms.string("miniIso"),
## a method of the reco::Muon object (thanks to the 3.4.X StringParser)
#nsegm = cms.string("numberOfMatches"),
## this one is an external variable
#drj = cms.InputTag("drToNearestJet"),
#nGV = cms.InputTag("goodVertices.size()"),
#miniIso = cms.InputTag("probeMuons","muonsMiniIso"),
#miniIso = cms.InputTag("probeMuons","miniIso"),
activity = cms.InputTag("ElectronIsoTag","Activity"),
Passing = cms.InputTag("ElectronIsoTag","Passing"),
Pt = cms.InputTag("ElectronIsoTag","Pt"),
Eta = cms.InputTag("ElectronIsoTag","Eta"),
MTW = cms.InputTag("ElectronIsoTag","MTW"),
MTWClean = cms.InputTag("ElectronIsoTag","MTWClean"),
RecomputedMET = cms.InputTag("ElectronIsoTag","RecomputedMET"),
TagObjectsNum = cms.InputTag("ElectronIsoTag","TagObjectsNum"),
Weight = cms.InputTag("ElectronIsoTag","Weight"),
HT = cms.InputTag("ElectronIsoTag","HT"),
MHT = cms.InputTag("ElectronIsoTag","MHT"),
NJets = cms.InputTag("ElectronIsoTag","NJets"),
),
# choice of what defines a 'passing' probe
flags = cms.PSet(
## one defined by an external collection of passing probes
#passingCal = cms.InputTag("probesPassingCal"),
## two defined by simple string cuts
# passingGlb = cms.string("isGlobalMuon"),
passingIso = cms.InputTag("LeptonsNew:IdElectron"),
#passingGlb = cms.string("Passing<0.5"),
#passingIso = cms.InputTag("MuonIsoTag","Passing"),
#passingIso = cms.InputTag("probePassingIso"),
),
# mc-truth info
isMC = cms.bool(False),
motherPdgId = cms.vint32(22,23),
#makeMCUnbiasTree = cms.bool(True),
#checkMotherInUnbiasEff = cms.bool(True),
#tagMatches = cms.InputTag("muMcMatch"),
#probeMatches = cms.InputTag("muMcMatch"),
#allProbes = cms.InputTag("probeMuons"),
)
###########################################################################################
# elec reco
process.ElectronRecoTag = activityProducer.clone(
objectSource = cms.InputTag('slimmedPhotons'), # probe source
objectMatchSource = cms.InputTag('LeptonsNew:IdElectron'), # to be matched to collection (IDIsoMuons)
objectTyp = cms.int32(22),
activityTyp = cms.int32(0),
maxDeltaR = cms.double(1.0),
jetSrc = cms.InputTag('HTJets'),
TagObjectForMTWComputation = cms.InputTag('LeptonsNew:IdIsoElectron'),
)
process.tpPairsElecReco = cms.EDProducer("CandViewShallowCloneCombiner",
decay = cms.string("LeptonsNewTag:IdIsoElectron@+ slimmedPhotons"), # charge coniugate states are implied
cut = cms.string("0.0 < mass < 13000.0"),
)
process.elecRecoEffs = cms.EDAnalyzer("TagProbeFitTreeProducer",
# pairs
tagProbePairs = cms.InputTag("tpPairsElecReco"),
#arbitration = cms.string("OneProbe"),
arbitration = cms.string("None"),
massForArbitration = cms.double(91),
# variables to use
variables = cms.PSet(
## methods of reco::Candidate
eta = cms.string("eta"),
pt = cms.string("pt"),
#muonsMiniIso = cms.string("muonsMiniIso"),
#miniIso = cms.string("miniIso"),
## a method of the reco::Muon object (thanks to the 3.4.X StringParser)
#nsegm = cms.string("numberOfMatches"),
## this one is an external variable
#drj = cms.InputTag("drToNearestJet"),
#nGV = cms.InputTag("goodVertices.size()"),
#miniIso = cms.InputTag("probeMuons","muonsMiniIso"),
#miniIso = cms.InputTag("probeMuons","miniIso"),
activity = cms.InputTag("ElectronRecoTag","Activity"),
Passing = cms.InputTag("ElectronRecoTag","Passing"),
Pt = cms.InputTag("ElectronRecoTag","Pt"),
Eta = cms.InputTag("ElectronRecoTag","Eta"),
MTW = cms.InputTag("ElectronRecoTag","MTW"),
MTWClean = cms.InputTag("ElectronRecoTag","MTWClean"),
RecomputedMET = cms.InputTag("ElectronRecoTag","RecomputedMET"),
TagObjectsNum = cms.InputTag("ElectronRecoTag","TagObjectsNum"),
Weight = cms.InputTag("ElectronRecoTag","Weight"),
HT = cms.InputTag("ElectronRecoTag","HT"),
MHT = cms.InputTag("ElectronRecoTag","MHT"),
NJets = cms.InputTag("ElectronRecoTag","NJets"),
),
# choice of what defines a 'passing' probe
flags = cms.PSet(
## one defined by an external collection of passing probes
#passingCal = cms.InputTag("probesPassingCal"),
## two defined by simple string cuts
# passingGlb = cms.string("isGlobalMuon"),
passingIso = cms.InputTag("LeptonsNew:IdMuon"),
#passingGlb = cms.string("Passing<0.5"),
#passingIso = cms.InputTag("MuonIsoTag","Passing"),
#passingIso = cms.InputTag("probePassingIso"),
),
# mc-truth info
isMC = cms.bool(False),
motherPdgId = cms.vint32(22,23),
#makeMCUnbiasTree = cms.bool(True),
#checkMotherInUnbiasEff = cms.bool(True),
#tagMatches = cms.InputTag("muMcMatch"),
#probeMatches = cms.InputTag("muMcMatch"),
#allProbes = cms.InputTag("probeMuons"),
)
###########################################################################################
# isolated track muons
process.IsoTrackMuonTag = activityProducer.clone(
#objectSource = cms.InputTag('SelectedPFCandidatesProbeCands5'), # probe source
objectSource = cms.InputTag('SelectedPFMuCandidates'), # probe source
objectMatchSource = cms.InputTag('IsolatedMuonTracksVeto'), # to be matched to collection (IDIsoMuons)
objectTyp = cms.int32(3),
activityTyp = cms.int32(0),
maxDeltaR = cms.double(1.0),
jetSrc = cms.InputTag('HTJets'),
TagObjectForMTWComputation = cms.InputTag('LeptonsNew:IdIsoMuon'),
METTag = cms.InputTag('slimmedMETs'),
)
process.tpPairsIsoTrackMu = cms.EDProducer("CandViewShallowCloneCombiner",
decay = cms.string("LeptonsNew:IdIsoMuon@+ SelectedPFMuCandidates@-"), # charge coniugate states are implied
#decay = cms.string("LeptonsNewTag:IdIsoMuon@+ SelectedPFCandidatesProbeCands5@-"), # charge coniugate states are implied
cut = cms.string("0.0 < mass < 13000.0"),
)
process.IsoTrackMuonIsoEffs = cms.EDAnalyzer("TagProbeFitTreeProducer",
# pairs
tagProbePairs = cms.InputTag("tpPairsIsoTrackMu"),
#arbitration = cms.string("OneProbe"),
arbitration = cms.string("None"),
massForArbitration = cms.double(91),
# variables to use
variables = cms.PSet(
## methods of reco::Candidate
eta = cms.string("eta"),
pt = cms.string("pt"),
#muonsMiniIso = cms.string("muonsMiniIso"),
#miniIso = cms.string("miniIso"),
## a method of the reco::Muon object (thanks to the 3.4.X StringParser)
#nsegm = cms.string("numberOfMatches"),
## this one is an external variable
#drj = cms.InputTag("drToNearestJet"),
#nGV = cms.InputTag("goodVertices.size()"),
#miniIso = cms.InputTag("probeMuons","muonsMiniIso"),
#miniIso = cms.InputTag("probeMuons","miniIso"),
activity = cms.InputTag("IsoTrackMuonTag","Activity"),
Passing = cms.InputTag("IsoTrackMuonTag","Passing"),
Pt = cms.InputTag("IsoTrackMuonTag","Pt"),
Eta = cms.InputTag("IsoTrackMuonTag","Eta"),
MTW = cms.InputTag("IsoTrackMuonTag","MTW"),
MTWClean = cms.InputTag("IsoTrackMuonTag","MTWClean"),
RecomputedMET = cms.InputTag("IsoTrackMuonTag","RecomputedMET"),
TagObjectsNum = cms.InputTag("IsoTrackMuonTag","TagObjectsNum"),
Weight = cms.InputTag("IsoTrackMuonTag","Weight"),
HT = cms.InputTag("IsoTrackMuonTag","HT"),
MHT = cms.InputTag("IsoTrackMuonTag","MHT"),
NJets = cms.InputTag("IsoTrackMuonTag","NJets"),
),
# choice of what defines a 'passing' probe
flags = cms.PSet(
## one defined by an external collection of passing probes
#passingCal = cms.InputTag("probesPassingCal"),
## two defined by simple string cuts
# passingGlb = cms.string("isGlobalMuon"),
passingIso = cms.InputTag("LeptonsNew:IdMuon"),
#passingIso2 = cms.InputTag("MuonIsoTag:PassingProbes"),
#passingGlb = cms.string("Passing<0.5"),
#passingIso = cms.InputTag("MuonIsoTag","Passing"),
#passingIso = cms.InputTag("probePassingIso"),
),
# mc-truth info
isMC = cms.bool(False),
motherPdgId = cms.vint32(22,23),
#makeMCUnbiasTree = cms.bool(True),
#checkMotherInUnbiasEff = cms.bool(True),
#tagMatches = cms.InputTag("muMcMatch"),
#probeMatches = cms.InputTag("muMcMatch"),
#allProbes = cms.InputTag("probeMuons"),
)
###########################################################################################
# isolated track electrons
process.IsoTrackElecTag = activityProducer.clone(
objectSource = cms.InputTag('SelectedPFElecCandidates'), # probe source
#objectSource = cms.InputTag('SelectedPFCandidatesProbeCands5'), # probe source
objectMatchSource = cms.InputTag('IsolatedElectronTracksVeto'), # to be matched to collection (IDIsoMuons)
objectTyp = cms.int32(4),
activityTyp = cms.int32(0),
maxDeltaR = cms.double(1.0),
jetSrc = cms.InputTag('HTJets'),
TagObjectForMTWComputation = cms.InputTag('LeptonsNew:IdIsoElectron'),
METTag = cms.InputTag('slimmedMETs'),
)
process.tpPairsIsoTrackElec = cms.EDProducer("CandViewShallowCloneCombiner",
decay = cms.string("LeptonsNew:IdIsoElectron@+ SelectedPFElecCandidates@-"), # charge coniugate states are implied
#decay = cms.string("LeptonsNewTag:IdIsoElectron@+ SelectedPFCandidatesProbeCands5@-"), # charge coniugate states are implied
cut = cms.string("0.0 < mass < 13000.0"),
)
process.IsoTrackElecIsoEffs = cms.EDAnalyzer("TagProbeFitTreeProducer",
# pairs
tagProbePairs = cms.InputTag("tpPairsIsoTrackElec"),
#arbitration = cms.string("OneProbe"),
arbitration = cms.string("None"),
massForArbitration = cms.double(91),
# variables to use
variables = cms.PSet(
## methods of reco::Candidate
eta = cms.string("eta"),
pt = cms.string("pt"),
#muonsMiniIso = cms.string("muonsMiniIso"),
#miniIso = cms.string("miniIso"),
## a method of the reco::Muon object (thanks to the 3.4.X StringParser)
#nsegm = cms.string("numberOfMatches"),
## this one is an external variable
#drj = cms.InputTag("drToNearestJet"),
#nGV = cms.InputTag("goodVertices.size()"),
#miniIso = cms.InputTag("probeMuons","muonsMiniIso"),
#miniIso = cms.InputTag("probeMuons","miniIso"),
activity = cms.InputTag("IsoTrackElecTag","Activity"),
Passing = cms.InputTag("IsoTrackElecTag","Passing"),
Pt = cms.InputTag("IsoTrackElecTag","Pt"),
Eta = cms.InputTag("IsoTrackElecTag","Eta"),
MTW = cms.InputTag("IsoTrackElecTag","MTW"),
MTWClean = cms.InputTag("IsoTrackElecTag","MTWClean"),
RecomputedMET = cms.InputTag("IsoTrackElecTag","RecomputedMET"),
TagObjectsNum = cms.InputTag("IsoTrackElecTag","TagObjectsNum"),
Weight = cms.InputTag("IsoTrackElecTag","Weight"),
HT = cms.InputTag("IsoTrackElecTag","HT"),
MHT = cms.InputTag("IsoTrackElecTag","MHT"),
NJets = cms.InputTag("IsoTrackElecTag","NJets"),
),
# choice of what defines a 'passing' probe
flags = cms.PSet(
## one defined by an external collection of passing probes
#passingCal = cms.InputTag("probesPassingCal"),
## two defined by simple string cuts
# passingGlb = cms.string("isGlobalMuon"),
passingIso = cms.InputTag("LeptonsNew:IdMuon"),
#passingIso2 = cms.InputTag("MuonIsoTag:PassingProbes"),
#passingGlb = cms.string("Passing<0.5"),
#passingIso = cms.InputTag("MuonIsoTag","Passing"),
#passingIso = cms.InputTag("probePassingIso"),
),
# mc-truth info
isMC = cms.bool(False),
motherPdgId = cms.vint32(22,23),
#makeMCUnbiasTree = cms.bool(True),
#checkMotherInUnbiasEff = cms.bool(True),
#tagMatches = cms.InputTag("muMcMatch"),
#probeMatches = cms.InputTag("muMcMatch"),
#allProbes = cms.InputTag("probeMuons"),
)
# isolated track pion
process.IsoTrackPionTag = activityProducer.clone(
objectSource = cms.InputTag('SelectedPFPionCandidates'), # probe source
#objectSource = cms.InputTag('SelectedPFCandidatesProbeCands5'), # probe source
objectMatchSource = cms.InputTag('IsolatedPionTracksVeto'), # to be matched to collection (IDIsoMuons)
objectTyp = cms.int32(5),
activityTyp = cms.int32(0),
maxDeltaR = cms.double(1.0),
jetSrc = cms.InputTag('HTJets'),
TagObjectForMTWComputation = cms.InputTag('IsolatedPionTracksVeto'),
METTag = cms.InputTag('slimmedMETs'),
)
process.tpPairsIsoTrackPion = cms.EDProducer("CandViewShallowCloneCombiner",
decay = cms.string("IsolatedPionTracksVeto@+ SelectedPFPionCandidates@-"), # charge coniugate states are implied
#decay = cms.string("LeptonsNewTag:IdIsoElectron@+ SelectedPFCandidatesProbeCands5@-"), # charge coniugate states are implied
cut = cms.string("0.0 < mass < 13000.0"),
)
process.IsoTrackPionIsoEffs = cms.EDAnalyzer("TagProbeFitTreeProducer",
# pairs
tagProbePairs = cms.InputTag("tpPairsIsoTrackPion"),
#arbitration = cms.string("OneProbe"),
arbitration = cms.string("None"),
massForArbitration = cms.double(91),
# variables to use
variables = cms.PSet(
## methods of reco::Candidate
eta = cms.string("eta"),
pt = cms.string("pt"),
#muonsMiniIso = cms.string("muonsMiniIso"),
#miniIso = cms.string("miniIso"),
## a method of the reco::Muon object (thanks to the 3.4.X StringParser)
#nsegm = cms.string("numberOfMatches"),
## this one is an external variable
#drj = cms.InputTag("drToNearestJet"),
#nGV = cms.InputTag("goodVertices.size()"),
#miniIso = cms.InputTag("probeMuons","muonsMiniIso"),
#miniIso = cms.InputTag("probeMuons","miniIso"),
activity = cms.InputTag("IsoTrackPionTag","Activity"),
Passing = cms.InputTag("IsoTrackPionTag","Passing"),
Pt = cms.InputTag("IsoTrackPionTag","Pt"),
Eta = cms.InputTag("IsoTrackPionTag","Eta"),
MTW = cms.InputTag("IsoTrackPionTag","MTW"),
RecomputedMET = cms.InputTag("IsoTrackPionTag","RecomputedMET"),
TagObjectsNum = cms.InputTag("IsoTrackPionTag","TagObjectsNum"),
Weight = cms.InputTag("IsoTrackPionTag","Weight"),
HT = cms.InputTag("IsoTrackPionTag","HT"),
MHT = cms.InputTag("IsoTrackPionTag","MHT"),
NJets = cms.InputTag("IsoTrackPionTag","NJets"),
),
# choice of what defines a 'passing' probe
flags = cms.PSet(
## one defined by an external collection of passing probes
#passingCal = cms.InputTag("probesPassingCal"),
## two defined by simple string cuts
# passingGlb = cms.string("isGlobalMuon"),
passingIso = cms.InputTag("LeptonsNew:IdMuon"),
#passingIso2 = cms.InputTag("MuonIsoTag:PassingProbes"),
#passingGlb = cms.string("Passing<0.5"),
#passingIso = cms.InputTag("MuonIsoTag","Passing"),
#passingIso = cms.InputTag("probePassingIso"),
),
# mc-truth info
isMC = cms.bool(False),
motherPdgId = cms.vint32(22,23),
#makeMCUnbiasTree = cms.bool(True),
#checkMotherInUnbiasEff = cms.bool(True),
#tagMatches = cms.InputTag("muMcMatch"),
#probeMatches = cms.InputTag("muMcMatch"),
#allProbes = cms.InputTag("probeMuons"),
)
from AllHadronicSUSY.Utils.subJetSelection_cfi import SubJetSelection
process.HTJets = SubJetSelection.clone(
JetTag = cms.InputTag('GoodJets'),
MinPt = cms.double(30),
MaxEta = cms.double(2.4),
)
process.Baseline += process.HTJets
from AllHadronicSUSY.Utils.htdouble_cfi import htdouble
process.HT = htdouble.clone(
JetTag = cms.InputTag('HTJets'),
)
process.Baseline += process.HT
VarsDouble.extend(['HT'])
from AllHadronicSUSY.Utils.doublefilter_cfi import DoubleFilter
process.HTFilter = DoubleFilter.clone(
DoubleTag = cms.InputTag('HT'),
CutValue = cms.double('500'),
)
from AllHadronicSUSY.Utils.njetint_cfi import njetint
process.NJets = njetint.clone(
JetTag = cms.InputTag('HTJets'),
)
process.Baseline += process.NJets
VarsInt.extend(['NJets'])
from AllHadronicSUSY.Utils.btagint_cfi import btagint
process.BTags = btagint.clone(
JetTag = cms.InputTag('HTJets'),
BTagInputTag = cms.string('combinedInclusiveSecondaryVertexV2BJetTags'),
BTagCutValue = cms.double(0.814)
)
process.Baseline += process.BTags
VarsInt.extend(['BTags'])
from AllHadronicSUSY.Utils.subJetSelection_cfi import SubJetSelection
process.MHTJets = SubJetSelection.clone(
JetTag = cms.InputTag('GoodJets'),
MinPt = cms.double(30),
MaxEta = cms.double(5.0),
)
process.Baseline += process.MHTJets
from AllHadronicSUSY.Utils.mhtdouble_cfi import mhtdouble
process.MHT = mhtdouble.clone(
JetTag = cms.InputTag('MHTJets'),
)
process.Baseline += process.MHT
VarsDouble.extend(['MHT:Pt(MHT)','MHT:Phi(MHT_Phi)'])
process.MHTFilter = DoubleFilter.clone(
DoubleTag = cms.InputTag('MHT:Pt'),
CutValue = cms.double('100'),
)
if applybaseline:
process.Baseline += process.HTFilter
process.Baseline += process.MHTFilter
from AllHadronicSUSY.Utils.deltaphidouble_cfi import deltaphidouble
process.DeltaPhi = deltaphidouble.clone(
DeltaPhiJets = cms.InputTag('HTJets'),
MHTJets = cms.InputTag("MHTJets"),
)
process.Baseline += process.DeltaPhi
VarsDouble.extend(['DeltaPhi:DeltaPhi1','DeltaPhi:DeltaPhi2','DeltaPhi:DeltaPhi3'])
from AllHadronicSUSY.Utils.metdouble_cfi import metdouble
process.MET = metdouble.clone(
METTag = cms.InputTag("slimmedMETs"),
JetTag = cms.InputTag('HTJets'),
)
process.Baseline += process.MET
VarsDouble.extend(['MET:minDeltaPhiN','MET:DeltaPhiN1','MET:DeltaPhiN2','MET:DeltaPhiN3','MET:Pt(METPt)','MET:Phi(METPhi)'])
#lost-lepton producers
from AllHadronicSUSY.Utils.jetproperties_cfi import jetproperties
process.JetsProperties = jetproperties.clone(
JetTag = cms.InputTag('HTJets'),
BTagInputTag = cms.string('combinedInclusiveSecondaryVertexV2BJetTags'),
METTag = cms.InputTag("slimmedMETs"),
)
process.Baseline += process.JetsProperties
from AllHadronicSUSY.Utils.genLeptonRecoCand_cfi import genLeptonRecoCand
process.GenLeptons = genLeptonRecoCand.clone(
PrunedGenParticleTag = cms.InputTag("prunedGenParticles"),
)
process.LostLepton += process.GenLeptons
process.SelectedPFCandidates = SelectPFCandidates.clone(
PackedPFCandidatesTag = cms.InputTag('packedPFCandidates'),
MinPt = cms.double(4),
MaxEta = cms.double(5.0),
)
process.LostLepton += process.SelectedPFCandidates
#gamma+jet producers
#define sequences
#baseline RA2/b variables default shared variables
RecoCandVector.extend(['LeptonsNew:IdIsoMuon(Muons)','LeptonsNew:IdIsoElectron(Electrons)'])
## --- Final paths ----------------------------------------------------
# put together final sequence with optional producers
process.AdditionalSequence = cms.Sequence()
if lostlepton:
print "Adding LostLepton calculations to final path and tree"
process.AdditionalSequence += process.LostLepton
process.AdditionalSequence += process.SelectedPFElecCandidates
process.AdditionalSequence += process.SelectedPFMuCandidates
process.AdditionalSequence += process.SelectedPFPionCandidates
# VarsRecoCand = cms.vstring('selectedIDIsoMuons','selectedIDMuons','selectedIDIsoElectrons','selectedIDMuons','IsolatedTracks','HTJets'),
# RecoCandVector.extend(['selectedIDIsoMuons','selectedIDMuons','selectedIDIsoElectrons','selectedIDElectrons','IsolatedTracks']),
RecoCandVector.extend(['IsolatedElectronTracksVeto|IsolatedElectronTracksVeto:MT(F_MT)','IsolatedMuonTracksVeto|IsolatedMuonTracksVeto:MT(F_MT)','IsolatedPionTracksVeto|IsolatedPionTracksVeto:MT(F_MT)','LeptonsNew:IdIsoMuon(selectedIDIsoMuons)|LeptonsNew:MuIDIsoMTW(F_MTW)','LeptonsNew:IdMuon(selectedIDMuons)|LeptonsNew:MuIDMTW(F_MTW)','LeptonsNew:IdIsoElectron(selectedIDIsoElectrons)|LeptonsNew:ElecIDIsoMTW(F_MTW)','LeptonsNew:IdElectron(selectedIDElectrons)|LeptonsNew:ElecIDMTW(F_MTW)','SelectedPFCandidates|SelectedPFCandidates:Charge(I_Charge)|SelectedPFCandidates:Typ(I_Typ)']),
RecoCandVector.extend(['GenLeptons:Boson(GenBoson)|GenLeptons:BosonPDGId(I_GenBosonPDGId)','GenLeptons:Neutrino(Neutrino)','GenLeptons:Muon(GenMu)|GenLeptons:MuonTauDecay(I_GenMuFromTau)' ,'GenLeptons:Electron(GenElec)|GenLeptons:ElectronTauDecay(I_GenElecFromTau)','GenLeptons:Tau(GenTau)|GenLeptons:TauHadronic(I_GenTauHad)'] ) # gen information on leptons
RecoCandVector.extend(['GenLeptons:TauDecayCands(TauDecayCands)|GenLeptons:TauDecayCandspdgID(I_pdgID)|GenLeptons:TauDecayCandsCharge(I_Charge)'])
RecoCandVector.extend(['LeptonsNewTag:IdIsoMuon(selectedIDIsoMuonsNoMiniIso)','LeptonsNewTag:IdIsoElectron(selectedIDIsoElectronsNoMiniIso)'] ) # gen information on leptons
RecoCandVector.extend(['JetsProperties(Jets)|JetsProperties:bDiscriminatorUser(F_bDiscriminator)|JetsProperties:chargedEmEnergyFraction(F_chargedEmEnergyFraction)|JetsProperties:chargedHadronEnergyFraction(F_chargedHadronEnergyFraction)|JetsProperties:chargedHadronMultiplicity(I_chargedHadronMultiplicity)|JetsProperties:electronMultiplicity(I_electronMultiplicity)|JetsProperties:jetArea(F_jetArea)|JetsProperties:muonEnergyFraction(F_muonEnergyFraction)|JetsProperties:muonMultiplicity(I_muonMultiplicity)|JetsProperties:neutralEmEnergyFraction(F_neutralEmEnergyFraction)|JetsProperties:neutralHadronMultiplicity(I_neutralHadronMultiplicity)|JetsProperties:photonEnergyFraction(F_photonEnergyFraction)|JetsProperties:photonMultiplicity(I)'] ) # jet information on various variables
RecoCandVector.extend(['slimmedElectrons','slimmedMuons'])
RecoCandVector.extend(['SelectedPFElecCandidates','SelectedPFMuCandidates','SelectedPFPionCandidates'])
if gammajets:
print "Adding Gamma+Jet calculations to final path and tree"
process.AdditionalSequence += process.GammaJet
# configure treemaker
from AllHadronicSUSY.TreeMaker.treeMaker import TreeMaker
process.TreeMaker2 = TreeMaker.clone(
TreeName = cms.string("PreSelection"),
VarsRecoCand = RecoCandVector,
VarsDouble = VarsDouble,
VarsInt = VarsInt,
VarsBool = VarsBool,
)
process.dump = cms.EDAnalyzer("EventContentAnalyzer")
#tag and probe
if tagandprobe:
# process.Baseline += process.dump
process.Baseline += process.SelectedPFCandidatesProbeCands5
process.Baseline += process.SelectedPFCandidatesProbeCands10
process.Baseline += process.SelectedPFElecCandidates
process.Baseline += process.SelectedPFMuCandidates
process.Baseline += process.SelectedPFPionCandidates
process.Baseline += process.GenLeptons
process.Baseline += process.JetsProperties
process.Baseline += process.SelectedPFCandidates
process.Baseline += process.MuonIsoTag
process.Baseline += process.tpPairs
process.Baseline += process.muonIsoEffs
process.Baseline += process.MuonRecoTag
process.Baseline += process.tpPairsMuReco
process.Baseline += process.muonRecoEffs
process.Baseline += process.ElectronIsoTag
process.Baseline += process.tpPairsElecIso
process.Baseline += process.elecIsoEffs
process.Baseline += process.ElectronRecoTag
process.Baseline += process.tpPairsElecReco
process.Baseline += process.elecRecoEffs
process.Baseline += process.IsoTrackMuonTag
process.Baseline += process.tpPairsIsoTrackMu
process.Baseline += process.IsoTrackMuonIsoEffs
process.Baseline += process.IsoTrackElecTag
process.Baseline += process.tpPairsIsoTrackElec
process.Baseline += process.IsoTrackElecIsoEffs
process.Baseline += process.IsoTrackPionTag
process.Baseline += process.tpPairsIsoTrackPion
process.Baseline += process.IsoTrackPionIsoEffs
RecoCandVector.extend(['slimmedPhotons'])
### begin Zinv stuff ###
if doZinv:
process.ZinvClean = cms.Sequence()
from AllHadronicSUSY.Utils.zproducer_cfi import ZProducer
process.maketheZs = ZProducer.clone(
ElectronTag = cms.InputTag('LeptonsNew:IdIsoElectron'),
MuonTag = cms.InputTag('LeptonsNew:IdIsoMuon')
)
process.ZinvClean += process.maketheZs
VarsInt.extend(['maketheZs:ZNum'])
process.TreeMaker2.VectorTLorentzVector.append("maketheZs:Zp4")
from AllHadronicSUSY.Utils.jetcleaner_cfi import JetCleaner
process.cleanTheJets = JetCleaner.clone(
JetTag = cms.InputTag('GoodJets'),
ElectronTag = cms.InputTag('LeptonsNew:IdIsoElectron'),
ElectronR = cms.double(0.4),
MuonTag = cms.InputTag('LeptonsNew:IdIsoMuon'),
MuonR = cms.double(0.4),
PhotonTag = cms.InputTag('goodPhotons', 'bestPhoton'),
PhotonR = cms.double(0.4)
)
process.ZinvClean += process.cleanTheJets
from AllHadronicSUSY.Utils.subJetSelection_cfi import SubJetSelection
process.HTJetsclean = SubJetSelection.clone(
JetTag = cms.InputTag('cleanTheJets', 'GoodJetsclean'),
MinPt = cms.double(30),
MaxEta = cms.double(2.4),
)
process.ZinvClean += process.HTJetsclean
from AllHadronicSUSY.Utils.htdouble_cfi import htdouble
process.HTclean = htdouble.clone(
JetTag = cms.InputTag('HTJetsclean'),
)
process.ZinvClean += process.HTclean
VarsDouble.extend(['HTclean'])
from AllHadronicSUSY.Utils.njetint_cfi import njetint
process.NJetsclean = njetint.clone(
JetTag = cms.InputTag('HTJetsclean'),
)
process.ZinvClean += process.NJetsclean
VarsInt.extend(['NJetsclean'])
from AllHadronicSUSY.Utils.btagint_cfi import btagint
process.BTagsclean = btagint.clone(
JetTag = cms.InputTag('HTJetsclean'),
BTagInputTag = cms.string('combinedInclusiveSecondaryVertexV2BJetTags'),
BTagCutValue = cms.double(0.814)
)
process.ZinvClean += process.BTagsclean
VarsInt.extend(['BTagsclean'])
from AllHadronicSUSY.Utils.subJetSelection_cfi import SubJetSelection
process.MHTJetsclean = SubJetSelection.clone(
JetTag = cms.InputTag('cleanTheJets', 'GoodJetsclean'),
MinPt = cms.double(30),
MaxEta = cms.double(5.0),
)
process.ZinvClean += process.MHTJetsclean
from AllHadronicSUSY.Utils.mhtdouble_cfi import mhtdouble
process.MHTclean = mhtdouble.clone(
JetTag = cms.InputTag('MHTJetsclean'),
)
process.ZinvClean += process.MHTclean
VarsDouble.extend(['MHTclean'])
from AllHadronicSUSY.Utils.metdouble_cfi import metdouble
process.METclean = metdouble.clone(
METTag = cms.InputTag("slimmedMETs"),
JetTag = cms.InputTag('HTJetsclean'),
cleanTag = cms.untracked.VInputTag(cms.InputTag('LeptonsNew:IdIsoElectron'), cms.InputTag('LeptonsNew:IdIsoMuon'), cms.InputTag('goodPhotons', 'bestPhoton'))
)
process.ZinvClean += process.METclean
VarsDouble.extend(['METclean:minDeltaPhiN(minDeltaPhiNclean)', 'METclean:Pt(METPtclean)'])
process.AdditionalSequence += process.ZinvClean
### end Zinv stuff ###
process.WriteTree = cms.Path(
process.Baseline *
process.AdditionalSequence *
# process.dump *
process.TreeMaker2
)
process.QCDfromSmearing.HTcut_high = cms.double(1000.)
process.QCDfromSmearing.HTcut_veryhigh = cms.double(1200.)
process.QCDfromSmearing.HTcut_extremehigh = cms.double(1400.)
###############################################################################
VarsInt = cms.vstring()
VarsDouble = cms.vstring()
RecoCandVector = cms.vstring()
# baseline producers
process.Baseline = cms.Sequence()
## --- NVertex producer -----------------------------------------------
print "*** NVertex producer **************************************************"
from AllHadronicSUSY.Utils.primaryverticies_cfi import primaryverticies
process.NVtx = primaryverticies.clone(
VertexCollection=cms.InputTag('offlineSlimmedPrimaryVertices'), )
process.Baseline += process.NVtx
VarsInt.extend(['NVtx'])
## --- isotrack producer -----------------------------------------------
print "*** isotrack producer **************************************************"
from AllHadronicSUSY.Utils.trackIsolationMaker_cfi import trackIsolationFilter
process.IsolatedTracksVeto = trackIsolationFilter.clone(
doTrkIsoVeto=True,
vertexInputTag=cms.InputTag("offlineSlimmedPrimaryVertices"),
pfCandidatesTag=cms.InputTag("packedPFCandidates"),
dR_ConeSize=cms.double(0.3),
dz_CutValue=cms.double(0.05),
minPt_PFCandidate=cms.double(15.0),
isoCut=cms.double(0.1),
mTCut=cms.double(100.),