def plotJetReco(contName, cont, sel, partName):
plots = []
plots.append(
Plot.make1D(contName + "_deltaR",
op.map(cont, lambda m: op.deltaR(m.p4, m.genJet.p4)),
sel,
EquidistantBinning(100, 0., 0.2),
xTitle="#Delta R(%s_{gen},%s_{reco})" %
(partName, partName)))
plots.append(
Plot.make1D(
contName + "_deltaR2",
op.map(cont, lambda m: op.pow(op.deltaR(m.p4, m.genJet.p4), 2)),
sel,
EquidistantBinning(100, 0., 0.04),
xTitle="#Delta R^{2}(%s_{gen},%s_{reco})" % (partName, partName)))
plots.append(
Plot.make1D(
contName + "_deltaPtRel",
op.map(cont, lambda m: (m.pt - m.genJet.pt) / m.pt),
sel,
EquidistantBinning(100, -2., 2.),
xTitle="P_{T}(%s_{reco})-P_{T}(%s_{gen})/P_{T}(%s_{reco})" %
(partName, partName, partName)))
return plots
def makeBoostedJetPLots(self, sel, jets, uname):
maxJet = 1
binScaling = 1
plots = []
for i in range(maxJet):
plots.append(
Plot.make1D(f"{uname}_boostedjet{i+1}_pt",
jets[i].pt,
sel,
EqB(60, 170., 800.),
title=f"{utils.getCounter(i+1)} jet p_{{T}} [GeV]",
plotopts=utils.getOpts(uname)))
plots.append(
Plot.make1D(f"{uname}_boostedjet{i+1}_eta",
jets[i].eta,
sel,
EqB(50 // binScaling, -2.4, 2.4),
title=f"{utils.getCounter(i+1)} jet eta",
plotopts=utils.getOpts(uname)))
plots.append(
Plot.make1D(f"{uname}_boostedjet{i+1}_phi",
jets[i].phi,
sel,
EqB(50 // binScaling, -3.1416, 3.1416),
title=f"{utils.getCounter(i+1)} jet phi",
plotopts=utils.getOpts(uname)))
plots.append(
Plot.make1D(f"{uname}_boostedjet{i+1}_mass",
jets[i].phi,
sel,
EqB(50 // binScaling, -3.1416, 3.1416),
title=f"{utils.getCounter(i+1)} jet mass [GeV]",
plotopts=utils.getOpts(uname)))
return plots
def definePlots(self, tree, noSel, sample=None, sampleCfg=None):
from bamboo.plots import Plot
from bamboo.plots import EquidistantBinning as EqBin
from bamboo import treefunctions as op
plots = []
verbose = False
trijets = op.combine(tree.Jet, N=3)
hadTop = op.rng_min_element_by(trijets,
fun=lambda comb: op.abs((comb[0].p4+comb[1].p4+comb[2].p4).M()-172.5))
hasTriJet = noSel.refine("hasTriJet", cut=(op.rng_len(trijets) > 0))
hadTop_p4 = op.defineOnFirstUse(hadTop[0].p4 + hadTop[1].p4 + hadTop[2].p4)
plots.append(Plot.make1D("trijet_topPt",
hadTop_p4.Pt(), hasTriJet,
EqBin(100, 15., 40.), title="Trijet p_{T} (GeV/c)"))
plots.append(Plot.make1D("trijet_maxbtag",
op.max(op.max(hadTop[0].btag, hadTop[1].btag), hadTop[2].btag), hasTriJet,
EqBin(100, 0., 1.), title="Trijet maximum b-tag"))
if verbose:
plots.append(Plot.make1D("njets",
op.rng_len(tree.Jet), noSel,
EqBin(20, 0., 20.), title="Number of jets"))
plots.append(Plot.make1D("ntrijets",
op.rng_len(trijets), noSel,
EqBin(100, 0., 1000.), title="Number of 3-jet combinations"))
plots.append(Plot.make1D("trijet_mass",
hadTop_p4.M(), hasTriJet,
EqBin(100, 0., 250.), title="Trijet mass (GeV/c^{2})"))
return plots
def MakeEllipsesPLots(self, sel, bjets, lepton, wp, uname, suffix):
plots = []
binScaling = 1
for key in sel.keys():
tagger = key.replace(wp, "")
bjets_ = safeget(bjets, tagger, wp)
plots.append(
Plot.make1D(
"jj_M_{0}_{1}_hZA_lljj_{2}_mll_and_met_cut".format(
suffix, uname, key),
op.invariant_mass(bjets_[0].p4, bjets_[1].p4),
sel.get(key),
EqB(60 // binScaling, 0., 1000.),
title="invariant mass of two b-tagged jets wrt {0} Discriminator"
.format(suffix, key),
xTitle="mjj {0} {1} [GeV]".format(suffix, key),
plotopts=utils.getOpts(uname, **{"log-y": False})))
plots.append(
Plot.make1D(
"lljj_M_{0}_{1}_hZA_lljj_{2}_mll_and_met_cut".format(
suffix, uname, key), (lepton[0].p4 + lepton[1].p4 +
bjets_[0].p4 + bjets_[1].p4).M(),
sel.get(key),
EqB(60 // binScaling, 0., 1000.),
title=
"invariant mass of 2 leptons two b-tagged jets wrt {0} Discriminator"
.format(suffix, key),
xTitle="mlljj {0} {1} [GeV]".format(suffix, key),
plotopts=utils.getOpts(uname, **{"log-y": False})))
plots.append(
Plot.make2D(
"Mjj_vs_Mlljj_{0}_{1}_hZA_lljj_{2}_mll_and_met_cut".format(
suffix, uname,
key), (op.invariant_mass(bjets_[0].p4, bjets_[1].p4),
(lepton[0].p4 + lepton[1].p4 + bjets_[0].p4 +
bjets_[1].p4).M()),
sel.get(key), (EqB(60 // binScaling, 0.,
1000.), EqB(60 // binScaling, 0., 1000.)),
title="mlljj vs mjj invariant mass {0} wrt {1} Discriminator".
format(suffix, key),
plotopts=utils.getOpts(uname, **{"log-y": False})))
plots.append(
Plot.make1D(
"ll_M_{0}_{1}_hZA_lljj_{2}_mll_and_met_cut".format(
suffix, uname, key),
op.invariant_mass(lepton[0].p4, lepton[1].p4),
sel.get(key),
EqB(60 // binScaling, 70., 110.),
title=" dilepton invariant mass {0} wrt {1} Discriminator".
format(suffix, key),
xTitle="mll {0} {1} [GeV]".format(suffix, key),
plotopts=utils.getOpts(uname)))
return plots
def controlPlots_4l(self, sel4l, bestZ, otherZ):
prefix = sel4l.name[3:]
plots = [
Plot.make1D(f"{prefix}_Z1_l1PT", bestZ[0].pt, sel4l, EqBin(50, 0., 100.)),
Plot.make1D(f"{prefix}_Z1_l2PT", bestZ[1].pt, sel4l, EqBin(50, 0., 100.)),
Plot.make1D(f"{prefix}_Z2_l1PT", otherZ[0].pt, sel4l, EqBin(50, 0., 100.)),
Plot.make1D(f"{prefix}_Z2_l2PT", otherZ[1].pt, sel4l, EqBin(50, 0., 100.)),
]
return plots
def makeControlPlotsForZpic(self, sel, lepton, uname):
plots = []
for i in range(2):
if "mu" in uname:
flav = "Muon"
if "el" in uname:
flav = "Electron"
plots.append(
Plot.make1D(f"{uname}_lep{i+1}_pt",
lepton[i].pt,
sel,
EqB(60 // binScaling, 30., 530.),
title="%s p_{T} [GeV]" % flav,
plotopts=utils.getOpts(uname)))
plots.append(
Plot.make1D(f"{uname}_lep{i+1}_eta",
lepton[i].eta,
sel,
EqB(50 // binScaling, -2.4, 2.4),
title="%s eta" % flav,
plotopts=utils.getOpts(uname, **{"log-y": False})))
plots.append(
Plot.make1D(f"{uname}_lep{i+1}_phi",
lepton[i].phi,
sel,
EqB(50 // binScaling, -3.1416, 3.1416),
title="%s phi" % flav,
plotopts=utils.getOpts(uname, **{"log-y": False})))
plots.append(
Plot.make1D("{0}_mll".format(uname),
op.invariant_mass(lepton[0].p4, lepton[1].p4),
sel,
EqB(60, 70., 110.),
title="mll [GeV]",
plotopts=utils.getOpts(uname)))
plots.append(
Plot.make1D("{0}_llpT".format(uname),
(dilepton[0].p4 + dilepton[1].p4).Pt(),
sel,
EqB(60, 0., 450.),
title="dilepton P_{T} [GeV]",
plotopts=utils.getOpts(uname)))
# FIXME
#plots.append(Plot.make1D("{0}_nVX".format(uname),
# t.PV.npvs, sel,
# EqB(10, 0., 60.),
# title="Distrubtion of the number of the reconstructed vertices",
# xTitle="number of reconstructed vertices "))
#plots.append(Plot.make2D("{0}_Electron_dzdxy".format(uname),
# (lepton[0].dz ,lepton[0].dxy), sel,
# (EqB(10, 0., 2.),
# EqB(10, 0., 2.)) ,
# title="Electron in Barrel/EndCAP region" ))
return plots
def plotFatjetMatching(cont, sel, sub1, sub2):
plots = []
plots.append(
Plot.make1D(f"fatjet{sub1}{sub2}_sub1_dE",
op.map(cont, lambda m: m[2].subJet1.p4.E() - m[0].p4.E()),
sel,
EquidistantBinning(1000, -1000., 1000.),
xTitle=f"subJet1 {sub1} E - gen {sub1} E"))
plots.append(
Plot.make2D(
f"fatjet{sub1}{sub2}_sub1_TF", [
op.map(cont, lambda m: m[0].p4.E()),
op.map(cont, lambda m: m[2].subJet1.p4.E() - m[0].p4.E())
],
sel, [
EquidistantBinning(3000, 0., 3000.),
EquidistantBinning(8000, -1000., 1000.)
],
xTitle="E^{{parton}}({sub1})",
yTitle=f"#Delta E = E^{{reco}}({sub1})-E^{{parton}}({sub1})"))
plots.append(
Plot.make1D(f"fatjet{sub1}{sub2}_sub2_dE",
op.map(cont, lambda m: m[2].subJet2.p4.E() - m[1].p4.E()),
sel,
EquidistantBinning(1000, -1000., 1000.),
xTitle=f"subJet2 {sub2} E - gen {sub2} E"))
plots.append(
Plot.make2D(
f"fatjet{sub1}{sub2}_sub2_TF", [
op.map(cont, lambda m: m[1].p4.E()),
op.map(cont, lambda m: m[2].subJet1.p4.E() - m[1].p4.E())
],
sel, [
EquidistantBinning(3000, 0., 3000.),
EquidistantBinning(8000, -1000., 1000.)
],
xTitle="E^{{parton}}({sub2})",
yTitle=f"#Delta E = E^{{reco}}({sub2})-E^{{parton}}({sub2})"))
plots.append(
Plot.make2D(f"fatjet{sub1}{sub2}_dE2D", [
op.map(cont, lambda m: m[2].subJet1.p4.E() - m[0].p4.E()),
op.map(cont, lambda m: m[2].subJet2.p4.E() - m[1].p4.E())
],
sel, [
EquidistantBinning(1000, -1000., 1000.),
EquidistantBinning(1000, -1000., 1000.)
],
xTitle=f"subJet1 {sub1} E - gen {sub1} E",
yTitle=f"subJet2 {sub2} E - gen {sub2} E"))
return plots
def MakeExtraMETPlots(self, sel, lepton, met, uname, suffix):
binScaling = 1
plots = []
for key in sel.keys():
plots.append(
Plot.make1D("{0}_{1}_{2}_MET_pt".format(uname, key, suffix),
met.pt,
sel.get(key),
EqB(60 // binScaling, 0., 600.),
title="MET p_{T} [GeV]",
plotopts=utils.getOpts(uname, **{"log-y": False})))
plots.append(
Plot.make1D("{0}_{1}_{2}_MET_phi".format(uname, key, suffix),
met.phi,
sel.get(key),
EqB(60 // binScaling, -3.1416, 3.1416),
title="MET #phi",
plotopts=utils.getOpts(uname, **{"log-y": False})))
plots.append(
Plot.make1D("{0}_{1}_{2}_MET_eta".format(uname, key, suffix),
met.phi,
sel.get(key),
EqB(60 // binScaling, -2.4, 2.4),
title="MET #eta",
plotopts=utils.getOpts(uname, **{"log-y": False})))
for i in range(2):
plots.append(
Plot.make1D(
f"{uname}_{key}_{suffix}_MET_lep{i+1}_deltaPhi".format(
uname=uname, key=key, suffix=suffix),
op.Phi_mpi_pi(lepton[i].phi - met.phi),
sel.get(key),
EqB(60 // binScaling, -3.1416, 3.1416),
title="#Delta #phi (lepton, MET)",
plotopts=utils.getOpts(uname, **{"log-y": False})))
MT = op.sqrt(
2. * met.pt * lepton[i].p4.Pt() *
(1. - op.cos(op.Phi_mpi_pi(met.phi - lepton[i].p4.Phi()))))
plots.append(
Plot.make1D(f"{uname}_{key}_{suffix}_MET_MT_lep{i+1}".format(
uname=uname, key=key, suffix=suffix),
MT,
sel.get(key),
EqB(60 // binScaling, 0., 600.),
title="Lepton M_{T} [GeV]",
plotopts=utils.getOpts(uname, **{"log-y": False})))
return plots
def definePlots(self, t, noSel, sample=None, sampleCfg=None):
from bamboo.plots import Plot, CutFlowReport, SummedPlot
from bamboo.plots import EquidistantBinning as EqB
from bamboo import treefunctions as op
isMC = self.isMC(sample)
if isMC:
noSel = noSel.refine("mcWeight", weight=[t.genWeight])
noSel = noSel.refine(
"trig",
cut=op.OR(t.HLT.HIL3DoubleMu0,
t.HLT.HIEle20_Ele12_CaloIdL_TrackIdL_IsoVL_DZ))
plots = []
muons = op.select(t.Muon, lambda mu: mu.pt > 20.)
twoMuSel = noSel.refine("twoMuons", cut=[op.rng_len(muons) > 1])
plots.append(
Plot.make1D("dimu_M",
op.invariant_mass(muons[0].p4, muons[1].p4),
twoMuSel,
EqB(100, 20., 120.),
title="Dimuon invariant mass",
plotopts={
"show-overflow": False,
"legend-position": [0.2, 0.6, 0.5, 0.9]
}))
return plots
def plotMatching(contName, cont, sel, partName):
plots = []
# plots.append(Plot.make1D(contName+"_deltaR",
# op.map(cont,lambda m : op.deltaR(m[0].p4,m[1].p4)),
# sel,
# EquidistantBinning(1000,0.,0.2),
# xTitle="#Delta R(%s_{gen},%s_{reco})"%(partName,partName)))
# plots.append(Plot.make1D(contName+"_deltaPtRel",
# op.map(cont,lambda m : (m[1].pt-m[0].pt)/(m[0].pt+m[1].pt)),
# sel,
# EquidistantBinning(1000,-1.,1.),
# xTitle="P_{T}(%s_{reco})-P_{T}(%s_{gen})/P_{T}(%s_{reco})+P_{T}(%s_{gen})"%(partName,partName,partName,partName)))
# plots.append(Plot.make2D(contName+"_Pt2D",
# [op.map(cont,lambda m : m[0].pt),op.map(cont,lambda m : m[1].pt)],
# sel,
# [EquidistantBinning(1000,0,1000),EquidistantBinning(1000,0,1000)],
# xTitle="P_{T}(gen)",
# yTitle="P_{T}(reco)"))
plots.append(
Plot.make2D(contName + "_TF",
(op.map(cont, lambda m: m[0].p4.E()),
op.map(cont, lambda m: m[1].p4.E() - m[0].p4.E())),
sel, [
EquidistantBinning(3000, 0., 3000.),
EquidistantBinning(8000, -1000., 1000.)
],
xTitle="E^{parton}(e^{-})",
yTitle="#Delta E = E^{reco}(%s)-E^{parton}(%s)" %
(partName, partName)))
return plots
def definePlots(self, tree, noSel, sample=None, sampleCfg=None):
from bamboo.plots import Plot
from bamboo.plots import EquidistantBinning as EqBin
from bamboo import treefunctions as op
plots = []
el10 = op.select(tree.Electron, lambda el: el.pt > 10.)
mu10 = op.select(tree.Muon, lambda mu: mu.pt > 10.)
cleanedJets30 = op.select(
tree.Jet, lambda j: op.AND(
j.pt > 30.,
op.NOT(
op.rng_any(el10, lambda el: op.deltaR(j.p4, el.p4) < 0.4)),
op.NOT(
op.rng_any(mu10, lambda mu: op.deltaR(j.p4, mu.p4) < 0.4)))
)
plots.append(
Plot.make1D("sumCleanedJetPt",
op.rng_sum(cleanedJets30, lambda j: j.pt),
noSel,
EqBin(100, 15., 200.),
title="Sum p_{T} (GeV/c)"))
return plots
def plotNumber(contName, cont, sel, Nmax, xTitle):
return [
Plot.make1D(contName,
op.rng_len(cont),
sel,
EquidistantBinning(Nmax, 0., Nmax),
xTitle=xTitle)
]
def makeResolvedBJetPlots(self, sel, bjets, wp, uname):
plots = []
binScaling = 1
for key in sel.keys():
tagger = key.replace(wp, "")
bjets_ = safeget(bjets, tagger, wp)
plots.append(
Plot.make1D("{0}_nBJets_{1}".format(uname, key),
op.rng_len(bjets_),
sel.get(key),
EqB(5, 2., 6.),
xTitle="Jets multiplicty {0}".format(key),
plotopts=utils.getOpts(uname)))
for i in range(1):
plots.append(
Plot.make1D(
f"{uname}_bjet{i+1}_pT_{key}",
bjets_[i].pt,
sel.get(key),
EqB(60, 0., 800.),
title=
f"{utils.getCounter(i+1)}-highest bjet pT {key} [GeV]",
plotopts=utils.getOpts(uname)))
plots.append(
Plot.make1D(
f"{uname}_bjet{i+1}_eta_{key}",
bjets_[i].eta,
sel.get(key),
EqB(50 // binScaling, -2.4, 2.4),
title=f"{utils.getCounter(i+1)}-highest bjet eta {key}",
plotopts=utils.getOpts(uname)))
plots.append(
Plot.make1D(
f"{uname}_bjet{i+1}_eta_{key}",
bjets_[i].phi,
sel.get(key),
EqB(50 // binScaling, -3.1416, 3.1416),
title=f"{utils.getCounter(i+1)}-highest bjet phi {key}",
plotopts=utils.getOpts(uname)))
return plots
def makeControlPlotsForFinalSel(self, sel, bjets, dilepton, uname):
plots = []
binScaling = 1
for key in sel.keys():
tagger = key.replace(wp, "")
bjets_ = safeget(bjets, tagger, wp)
plots.append(
Plot.make1D("{0}_TwoBtaggedJets_pT_{1}".format(uname, key),
(bjets_[0].p4 + bjets_[1].p4).Pt(),
sel.get(key),
EqB(60, 170., 800.),
title="di-bjet P_{T} [GeV]",
plotopts=utils.getOpts(uname)))
plots.append(
Plot.make1D("{0}_mlljj_btagged_{1}".format(uname, key),
(lepton[0].p4 + lepton[1].p4 + bjets_[0].p4 +
bjets_[1].p4).M(),
sel.get(key),
EqB(60, 170., 1000.),
title="mlljj [GeV]",
plotopts=utils.getOpts(uname)))
plots.append(
Plot.make1D("{0}_mjj_btagged_{1}".format(uname, key),
op.invariant_mass(bjets_[0].p4 + bjets_[1].p4),
sel.get(key),
EqB(60, 170., 800.),
title="mjj [GeV]",
plotopts=utils.getOpts(uname)))
plots.append(
Plot.make2D("{0}_mlljjvsmjj_btagged_{1}".format(uname, key),
(op.invariant_mass(bjets_[0].p4 + bjets_[1].p4),
(lepton[0].p4 + lepton[1].p4 + bjets_[0].p4 +
bjets_[1].p4).M()),
sel.get(key),
(EqB(60, 170., 1000.), EqB(60, 170., 1000.)),
title="mlljj vs mjj invariant mass [GeV]",
plotopts=utils.getOpts(uname)))
return plots
def fatjetPlots(sel, fatjets, name):
plots = []
# plots.append(Plot.make2D(name+'_Pt2D',
# [op.map(fatjets, lambda fatjet : fatjet.subJet1.pt),op.map(fatjets, lambda fatjet : fatjet.subJet2.pt)],
# sel,
# [EquidistantBinning(1000,0.,1000.),EquidistantBinning(1000,0.,1000.)],
# xTitle = "subjet 1 P_{T}",
# yTitle = "subjet 2 P_{T}"))
plots.append(
Plot.make2D(name + '_E2D', [
op.map(fatjets, lambda fatjet: fatjet.subJet1.p4.E()),
op.map(fatjets, lambda fatjet: fatjet.subJet2.p4.E())
],
sel, [
EquidistantBinning(1000, 0., 1000.),
EquidistantBinning(1000, 0., 1000.)
],
xTitle="subjet 1 E",
yTitle="subjet 2 E"))
# plots.append(Plot.make2D(name+'_partonflavour2D',
# [op.map(fatjets, lambda fatjet : fatjet.subJet1.partonFlavour),op.map(fatjets, lambda fatjet : fatjet.subJet2.partonFlavour)],
# sel,
# [EquidistantBinning(7,0.,6.),EquidistantBinning(7,0.,6.)],
# xTitle = "subjet 1 P_{T}",
# yTitle = "subjet 2 P_{T}"))
# plots.append(Plot.make2D(name+'_subjet1VSFatjet_E2D',
# [op.map(fatjets, lambda fatjet : fatjet.subJet1.p4.E()),op.map(fatjets, lambda fatjet : fatjet.p4.E())],
# sel,
# [EquidistantBinning(1000,0.,1000.),EquidistantBinning(1000,0.,1000.)],
# xTitle = "subjet 1 E",
# yTitle = "fatjet E"))
# plots.append(Plot.make2D(name+'_subjet2VSFatjet_E2D',
# [op.map(fatjets, lambda fatjet : fatjet.subJet2.p4.E()),op.map(fatjets, lambda fatjet : fatjet.p4.E())],
# sel,
# [EquidistantBinning(1000,0.,1000.),EquidistantBinning(1000,0.,1000.)],
# xTitle = "subjet 2 E",
# yTitle = "fatjet E"))
#
# plots.append(Plot.make2D(name+'_Eta2D',
# [op.map(fatjets, lambda fatjet : fatjet.subJet1.p4.eta()),op.map(fatjets, lambda fatjet : fatjet.subJet2.p4.eta())],
# sel,
# [EquidistantBinning(500,-2.5,2.5),EquidistantBinning(500,-2.5,2.5)],
# xTitle = "subjet 1 #eta",
# yTitle = "subjet 2 #eta"))
# plots.append(Plot.make2D(name+'_Phi2D',
# [op.map(fatjets, lambda fatjet : fatjet.subJet1.p4.phi()),op.map(fatjets, lambda fatjet : fatjet.subJet2.p4.phi())],
# sel,
# [EquidistantBinning(320,-3.2,3.2),EquidistantBinning(320,-3.2,3.2)],
# xTitle = "subjet 1 #phi",
# yTitle = "subjet 2 #phi"))
return plots
def makeBoostedJetPLots(self, sel, bjets, wp, uname):
maxJet = 1
binScaling = 1
plots = []
for key in sel.keys():
tagger = key.replace(wp, "")
bjets_ = safeget(bjets, tagger, wp)
for i in range(maxJet):
plots.append(
Plot.make1D(f"{uname}_boostedjet{i+1}_pt",
bjets_[i].pt,
sel,
EqB(60, 170., 800.),
title=f"{utils.getCounter(i+1)} jet p_{{T}} [GeV]",
plotopts=utils.getOpts(uname)))
plots.append(
Plot.make1D(f"{uname}_boostedjet{i+1}_eta",
bjets_[i].eta,
sel,
EqB(50 // binScaling, -2.4, 2.4),
title=f"{utils.getCounter(i+1)} jet eta",
plotopts=utils.getOpts(uname)))
plots.append(
Plot.make1D(f"{uname}_boostedjet{i+1}_phi",
bjets_[i].phi,
sel,
EqB(50 // binScaling, -3.1416, 3.1416),
title=f"{utils.getCounter(i+1)} jet phi",
plotopts=utils.getOpts(uname)))
plots.append(
Plot.make1D(f"{uname}_boostedjet{i+1}_mass",
bjets_[i].phi,
sel,
EqB(50 // binScaling, -3.1416, 3.1416),
title=f"{utils.getCounter(i+1)} jet mass [GeV]",
plotopts=utils.getOpts(uname)))
return plots
def MakeMETPlots(self, sel, corrmet, met, uname, suffix):
plots = []
binScaling = 1
for key in sel.keys():
plots.append(
Plot.make1D("met_pt_{0}_{1}_hZA_lljj_{2}".format(
suffix, uname, key),
met.pt,
sel.get(key),
EqB(60 // binScaling, 0., 600.),
title="MET p_{T} [GeV]",
plotopts=utils.getOpts(uname, **{"log-y": False})))
plots.append(
Plot.make1D("xycorrmet_pt_{0}_{1}_hZA_lljj_{2}".format(
suffix, uname, key),
corrmet.pt,
sel.get(key),
EqB(60 // binScaling, 0., 600.),
title="corrMET p_{T} [GeV]",
plotopts=utils.getOpts(uname, **{"log-y": False})))
return plots
def definePlots(self, tree, noSel, sample=None, sampleCfg=None):
from bamboo.plots import Plot
from bamboo.plots import EquidistantBinning as EqBin
plots = []
plots.append(
Plot.make1D("MET",
tree.MET.pt,
noSel,
EqBin(100, 0., 2000.),
title="MET (GeV)"))
return plots
def definePlots(self, tree, noSel, sample=None, sampleCfg=None):
from bamboo.plots import Plot
from bamboo.plots import EquidistantBinning as EqBin
from bamboo import treefunctions as op
plots = []
plots.append(
Plot.make1D("jetPt",
op.map(tree.Jet, lambda j: j.pt),
noSel,
EqBin(100, 15., 60.),
title="Jet p_{T} (GeV/c)"))
return plots
def definePlots(self, tree, noSel, sample=None, sampleCfg=None):
from bamboo.plots import Plot, SummedPlot
from bamboo.plots import EquidistantBinning as EqBin
from bamboo import treefunctions as op
plots = []
# The plot is made for each of the different flavour categories (l+/- l-/+ l') and then summed,
# because concatenation of containers is not (yet) supported.
lepColl = {"El": tree.Electron, "Mu": tree.Muon}
mt3lPlots = []
for dlNm, dlCol in lepColl.items():
dilep = op.combine(
dlCol,
N=2,
pred=(lambda l1, l2: op.AND(l1.charge != l2.charge)))
hasDiLep = noSel.refine("hasDilep{0}{0}".format(dlNm),
cut=(op.rng_len(dilep) > 0))
dilepZ = op.rng_min_element_by(
dilep,
fun=lambda ll: op.abs(
op.invariant_mass(ll[0].p4, ll[1].p4) - 91.2))
for tlNm, tlCol in lepColl.items():
if tlCol == dlCol:
hasTriLep = hasDiLep.refine("hasTrilep{0}{0}{1}".format(
dlNm, tlNm),
cut=(op.rng_len(tlCol) > 2))
residLep = op.select(
tlCol, lambda l: op.AND(l.idx != dilepZ[0].idx, l.idx
!= dilepZ[1].idx))
l3 = op.rng_max_element_by(residLep, lambda l: l.pt)
else:
hasTriLep = hasDiLep.refine("hasTriLep{0}{0}{1}".format(
dlNm, tlNm),
cut=(op.rng_len(tlCol) > 0))
l3 = op.rng_max_element_by(tlCol, lambda l: l.pt)
mtPlot = Plot.make1D(
"3lMT_{0}{0}{1}".format(dlNm, tlNm),
op.sqrt(2 * l3.pt * tree.MET.pt *
(1 - op.cos(l3.phi - tree.MET.phi))),
hasTriLep,
EqBin(100, 15., 250.),
title="M_{T} (GeV/c^2)")
mt3lPlots.append(mtPlot)
plots.append(mtPlot)
plots.append(SummedPlot("3lMT", mt3lPlots))
return plots
def definePlots(self, tree, noSel, sample=None, sampleCfg=None):
from bamboo.plots import Plot
from bamboo.plots import EquidistantBinning as EqBin
from bamboo import treefunctions as op
plots = []
jets40 = op.select(tree.Jet, lambda j: j.pt > 40)
hasTwoJets40 = noSel.refine("twoJets40", cut=(op.rng_len(jets40) >= 2))
plots.append(
Plot.make1D("twoJets40_MET",
tree.MET.pt,
hasTwoJets40,
EqBin(100, 0., 2000.),
title="MET (GeV)"))
return plots
def plotRecoForGen(sel, gen, reco, lambda_match, name):
n_reco = [
op.select(
reco, lambda r: op.switch(
op.rng_len(gen) > i, lambda_match(gen[i], r), op.c_bool(False))
) for i in range(10)
]
plots = SummedPlot("n_reco_{}_per_gen".format(name), [
Plot.make1D("n_reco_{}_per_gen_{}".format(name, i),
op.rng_len(nre),
sel,
EquidistantBinning(10, 0, 10),
xTitle="N reco {} for gen {}".format(name, i))
for i, nre in enumerate(n_reco)
],
xTitle="N reco {} for each gen".format(name))
return plots
def makeResolvedJetPlots(self, sel, jets, uname):
maxJet = 2
binScaling = 1
plots = []
for i in range(maxJet):
plots.append(
Plot.make1D(f"{uname}_jet{i+1}_pt",
jets[i].pt,
sel,
EqB(60 // binScaling, 30., 730. - max(4, i) * 100),
title=f"{utils.getCounter(i+1)} jet p_{{T}} [GeV]",
plotopts=utils.getOpts(uname)))
plots.append(
Plot.make1D(f"{uname}_jet{i+1}_eta",
jets[i].eta,
sel,
EqB(50 // binScaling, -2.4, 2.4),
title=f"{utils.getCounter(i+1)} jet eta",
plotopts=utils.getOpts(uname, **{"log-y": False})))
plots.append(
Plot.make1D(f"{uname}_jet{i+1}_phi",
jets[i].phi,
sel,
EqB(50 // binScaling, -3.1416, 3.1416),
title=f"{utils.getCounter(i+1)} jet phi",
plotopts=utils.getOpts(uname, **{"log-y": False})))
plots.append(
Plot.make1D(f"{uname}_jet_DR",
op.deltaR(jets[0].p4, jets[1].p4),
sel,
EqB(50, 0.3, 3.),
title="Jets DR",
plotopts=utils.getOpts(uname, **{"log-y": False})))
plots.append(
Plot.make1D(f"{uname}_jet_M",
op.invariant_mass(jets[0].p4, jets[1].p4),
sel,
EqB(60, 0., 400.),
title="dijets invariant mass [GeV]",
plotopts=utils.getOpts(uname)))
plots.append(
Plot.make1D(f"{uname}_jet_pT", (jets[0].p4 + jets[1].p4).Pt(),
sel,
EqB(60, 0., 600.),
title=" dijets p_{T} [GeV]",
plotopts=utils.getOpts(uname)))
return plots
def definePlots(self, tree, noSel, sample=None, sampleCfg=None):
from bamboo.plots import Plot, SummedPlot
from bamboo.plots import EquidistantBinning as EqBin
from bamboo import treefunctions as op
plots = []
metSel = noSel.refine("MET", cut=(tree.met.et > 30000))
trigSel = metSel.refine("trig", cut=op.OR(tree.trigE, tree.trigM))
goodLeptons = op.select(
tree.lep, lambda l: op.AND(l.isTightID, l.pt > 35000., l.ptcone30 /
l.pt < 0.1, l.etcone20 / l.pt < 0.1))
oneLepSel = trigSel.refine("1goodlep",
cut=(op.rng_len(goodLeptons) == 1))
lep = goodLeptons[0]
signalSel = oneLepSel.refine(
"signalRegion",
cut=op.AND(
op.abs(lep.z0 * op.sin(lep.p4.theta())) < 0.5,
op.multiSwitch(
(lep.type == 11,
op.AND(
op.abs(lep.eta) < 2.46,
op.NOT(op.in_range(1.37, op.abs(lep.eta), 1.52)),
op.abs(lep.trackd0pvunbiased /
lep.tracksigd0pvunbiased) < 5)),
(lep.type == 13,
op.AND(
op.abs(lep.eta) < 2.5,
op.abs(lep.trackd0pvunbiased /
lep.tracksigd0pvunbiased) < 3)),
op.c_bool(False))))
metp4 = makePtEtaPhiEP4(tree.met.et, op.c_float(0.), tree.met.phi,
tree.met.et)
plots.append(
Plot.make1D("mt_w", (lep.p4 + metp4).Mt() / 1000.,
signalSel,
EqBin(40, 60., 180.),
title="m_{T}^{W#rightarrow l#nu} (GeV)",
plotopts={"log-y-axis-range": [25., 2.5e8]}))
return plots
def definePlots(self, tree, noSel, sample=None, sampleCfg=None):
from bamboo.plots import Plot
from bamboo.plots import EquidistantBinning as EqBin
from bamboo import treefunctions as op
plots = []
dimu_Z = op.combine(
tree.Muon,
N=2,
pred=(lambda mu1, mu2: op.AND(
mu1.charge != mu2.charge,
op.in_range(60., op.invariant_mass(mu1.p4, mu2.p4), 120.))))
hasDiMuZ = noSel.refine("hasDiMuZ", cut=(op.rng_len(dimu_Z) > 0))
plots.append(
Plot.make1D("dimuZ_MET",
tree.MET.pt,
hasDiMuZ,
EqBin(100, 0., 2000.),
title="MET (GeV)"))
return plots
def controlPlots_2l(self, noSel, muons, electrons):
plots = [
Plot.make1D("nEl", op.rng_len(electrons), noSel, EqBin(10, 0., 10.), xTitle="Number of tight electrons"),
Plot.make1D("nMu", op.rng_len(muons), noSel, EqBin(10, 0., 10.), xTitle="Number of tight muons"),
]
hasOSElEl = noSel.refine("hasOSElEl", cut=[ op.rng_len(electrons) >= 2,
electrons[0].charge != electrons[1].charge, electrons[0].pt > 20., electrons[1].pt > 10. ])
plots.append(Plot.make1D("massZto2e", op.invariant_mass(electrons[0].p4, electrons[1].p4),
hasOSElEl, EqBin(120, 40., 120.), title="mass of Z to 2e",
xTitle="Invariant Mass of Nelectrons=2 (in GeV/c^2)"))
plots += [
Plot.make1D("OSElEl_PTl1", electrons[0].pt, hasOSElEl, EqBin(50, 0., 100.)),
Plot.make1D("OSElEl_PTl2", electrons[1].pt, hasOSElEl, EqBin(50, 0., 100.)),
]
hasOSMuMu = noSel.refine("hasOSMuMu", cut=[ op.rng_len(muons) >= 2,
muons[0].charge != muons[1].charge, muons[0].pt > 20., muons[1].pt > 10. ])
plots.append(Plot.make1D("massZto2mu", op.invariant_mass(muons[0].p4, muons[1].p4),
hasOSMuMu, EqBin(120, 40., 120.), title="mass of Z to 2mu",
xTitle="Invariant Mass of Nmuons=2 (in GeV/c^2)"))
plots += [
Plot.make1D("OSMuMu_PTl1", muons[0].pt, hasOSMuMu, EqBin(50, 0., 100.)),
Plot.make1D("OSMuMu_PTl2", muons[1].pt, hasOSMuMu, EqBin(50, 0., 100.)),
]
return plots
def definePlots(self, t, noSel, sample=None, sampleCfg=None):
noSel = super(TransferFunction,
self).prepareObjects(t, noSel, sample, sampleCfg, 'DL')
noSel = self.beforeJetselection(noSel)
era = sampleCfg['era']
plots = []
if not self.is_MC:
return plots
lambda_is_matched = lambda lep: op.OR(
lep.genPartFlav == 1, # Prompt muon or electron
lep.genPartFlav == 15) # From tau decay
#lep.genPartFlav==22) # From photon conversion (only available for electrons)
plots.append(
Plot.make1D("totalWeight",
noSel.weight,
noSel,
EquidistantBinning(100, -int(10**5), int(10**5)),
xTitle="total weight"))
plots.append(
Plot.make1D("genWeight",
t.genWeight,
noSel,
EquidistantBinning(100, -int(10**5), int(10**5)),
xTitle="gen weight"))
##########################################################
# Leptons #
##########################################################
#----- Gen particles -----#
gen_e = op.select(
t.GenPart, lambda g: op.AND(
op.abs(g.pdgId) == 11, g.statusFlags & (0x1 << 13), g.pt >= 10,
op.abs(g.eta) < 2.5))
gen_m = op.select(
t.GenPart, lambda g: op.AND(
op.abs(g.pdgId) == 13, g.statusFlags & (0x1 << 13), g.pt >= 10,
op.abs(g.eta) < 2.4))
#----- Reco particles -----#
lambda_reco_e = lambda el: op.AND(
op.abs(el.pdgId) == 11, el.pt >= 10,
op.abs(el.eta) < 2.5, lambda_is_matched(el))
lambda_reco_m = lambda mu: op.AND(
op.abs(mu.pdgId) == 13, mu.pt >= 10,
op.abs(mu.eta) < 2.4, lambda_is_matched(mu))
reco_e = op.select(self.electronsFakeSel, lambda_reco_e)
reco_m = op.select(self.muonsFakeSel, lambda_reco_m)
#---- Matching -----#
lambda_lepton_match = lambda gen, reco: op.AND(
op.deltaR(gen.p4, reco.p4) < 0.1, (op.abs(gen.pt - reco.pt) /
(gen.pt + reco.pt)) < 0.2)
# reco_e_matched = op.select(reco_e, lambda re : op.rng_any(gen_e, lambda ge: lambda_lepton_match(ge,re)))
# reco_m_matched = op.select(reco_m, lambda rm : op.rng_any(gen_m, lambda gm: lambda_lepton_match(gm,rm)))
#match_e = op.combine((gen_e,reco_e), pred = lambda ge,re : re.idx == op.rng_min_element_by(reco_e_matched,lambda re_matched : op.deltaR(ge.p4,re_matched.p4)).idx)
#match_m = op.combine((gen_m,reco_m), pred = lambda gm,rm : rm.idx == op.rng_min_element_by(reco_m_matched,lambda rm_matched : op.deltaR(gm.p4,rm_matched.p4)).idx)
match_e = op.combine((gen_e, reco_e), pred=lambda_lepton_match)
match_m = op.combine((gen_m, reco_m), pred=lambda_lepton_match)
plots.extend(plotMatching("e", match_e, noSel, "e^{#pm}"))
plots.extend(plotMatching("m", match_m, noSel, "#mu^{#pm}"))
# plots.append(plotRecoForGen(noSel,gen_e,tight_e,lambda_lepton_match,"e_tight"))
# plots.append(plotRecoForGen(noSel,gen_e,tight_m,lambda_lepton_match,"m_tight"))
##########################################################
# Ak4 B jets #
##########################################################
#----- RecoJets -----#
recoJet_b = op.select(
t.Jet, lambda j: op.AND(
op.abs(j.partonFlavour) == 5, j.pt >= 20,
op.abs(j.eta) < 2.4, j.genJet.isValid))
#----- Parton -----#
gen_b = op.select(
t.GenPart, lambda g: op.AND(
op.abs(g.pdgId) == 5, g.statusFlags & (0x1 << 13), g.pt >= 20,
op.abs(g.eta) < 2.4))
#----- Matching -----#
lambda_jet_match = lambda gen, reco: op.AND(
op.deltaR(gen.p4, reco.p4) < 0.2)
reco_b_matched = op.select(
recoJet_b, lambda jetb: op.rng_any(
gen_b, lambda gb: lambda_jet_match(gb, jetb)))
match_b = op.combine(
(gen_b, recoJet_b),
pred=lambda gb, jetb: jetb.idx == op.rng_min_element_by(
reco_b_matched, lambda rb_matched: op.deltaR(
gb.p4, rb_matched.p4)).idx)
plots.extend(plotMatching("ak4b", match_b, noSel, "b"))
##########################################################
# Ak4 C jets #
##########################################################
#----- RecoJets -----#
recoJet_c = op.select(
t.Jet, lambda j: op.AND(
op.abs(j.partonFlavour) == 4, j.pt >= 20,
op.abs(j.eta) < 2.4, j.genJet.isValid))
#----- Parton -----#
gen_c = op.select(
t.GenPart, lambda g: op.AND(
op.abs(g.pdgId) == 4, g.statusFlags & (0x1 << 13), g.pt >= 20,
op.abs(g.eta) < 2.4))
#----- Matching -----#
reco_c_matched = op.select(
recoJet_c, lambda jetc: op.rng_any(
gen_c, lambda gc: lambda_jet_match(gc, jetc)))
match_c = op.combine(
(gen_c, recoJet_c),
pred=lambda gc, jetc: jetc.idx == op.rng_min_element_by(
reco_c_matched, lambda rc_matched: op.deltaR(
gc.p4, rc_matched.p4)).idx)
plots.extend(plotMatching("ak4c", match_c, noSel, "c"))
##########################################################
# Ak4 lightjets #
##########################################################
#----- RecoJets -----#
recoJet_l = op.select(
t.Jet, lambda j: op.AND(
op.OR(
op.abs(j.partonFlavour) == 1,
op.abs(j.partonFlavour) == 2,
op.abs(j.partonFlavour) == 3), j.pt >= 20,
op.abs(j.eta) < 2.4, j.genJet.isValid))
#----- Parton -----#
gen_l = op.select(
t.GenPart, lambda g: op.AND(
op.OR(
op.abs(g.pdgId) == 1,
op.abs(g.pdgId) == 2,
op.abs(g.pdgId) == 3), g.statusFlags &
(0x1 << 13), g.pt >= 20,
op.abs(g.eta) < 2.4))
#----- Matching -----#
reco_l_matched = op.select(
recoJet_l, lambda jetl: op.rng_any(
gen_l, lambda gl: lambda_jet_match(gl, jetl)))
match_l = op.combine(
(gen_l, recoJet_l),
pred=lambda gl, jetl: jetl.idx == op.rng_min_element_by(
reco_l_matched, lambda rl_matched: op.deltaR(
gl.p4, rl_matched.p4)).idx)
plots.extend(plotMatching("ak4l", match_l, noSel, "l"))
##########################################################
# Ak8 jets #
##########################################################
#----- RecoJets -----#
recoFatJet = op.select(
t.FatJet, lambda j: op.AND(
j.pt >= 100,
op.abs(j.eta) < 2.4,
op.AND(j.subJet1.isValid, j.subJet1.pt >= 20.,
op.abs(j.subJet1.eta) <= 2.4, j.subJet2.isValid, j.
subJet2.pt >= 20.,
op.abs(j.subJet2.eta) <= 2.4),
op.AND(j.msoftdrop >= 30, j.msoftdrop <= 210), j.tau2 / j.tau1
<= 0.75))
#plots.extend(fatjetPlots(noSel,recoFatJet,"fatjet"))
reco_subJet1_b_matched = op.select(
recoFatJet, lambda fat: op.rng_any(
gen_b, lambda gb: lambda_jet_match(gb, fat.subJet1)))
reco_subJet2_b_matched = op.select(
recoFatJet, lambda fat: op.rng_any(
gen_b, lambda gb: lambda_jet_match(gb, fat.subJet2)))
reco_subJet1_c_matched = op.select(
recoFatJet, lambda fat: op.rng_any(
gen_c, lambda gc: lambda_jet_match(gc, fat.subJet1)))
reco_subJet2_c_matched = op.select(
recoFatJet, lambda fat: op.rng_any(
gen_c, lambda gc: lambda_jet_match(gc, fat.subJet2)))
reco_subJet1_l_matched = op.select(
recoFatJet, lambda fat: op.rng_any(
gen_l, lambda gl: lambda_jet_match(gl, fat.subJet1)))
reco_subJet2_l_matched = op.select(
recoFatJet, lambda fat: op.rng_any(
gen_l, lambda gl: lambda_jet_match(gl, fat.subJet2)))
def makeFatjetMatch(gen1, gen2, recoFatJet):
return op.combine(
(gen1, gen2, recoFatJet),
pred=lambda g1, g2, fat: op.AND(
fat.subJet1.idx == op.rng_min_element_by(
reco_subJet1_b_matched, lambda sub1_matched: op.deltaR(
g1.p4, sub1_matched.p4)).idx, fat.subJet2.idx == op
.rng_min_element_by(
reco_subJet2_b_matched, lambda sub2_matched: op.deltaR(
g2.p4, sub2_matched.p4)).idx))
match_fat_bb = makeFatjetMatch(gen_b, gen_b, recoFatJet)
match_fat_bc = makeFatjetMatch(gen_b, gen_c, recoFatJet)
match_fat_bl = makeFatjetMatch(gen_b, gen_l, recoFatJet)
match_fat_cb = makeFatjetMatch(gen_c, gen_b, recoFatJet)
match_fat_cc = makeFatjetMatch(gen_c, gen_c, recoFatJet)
match_fat_cl = makeFatjetMatch(gen_c, gen_l, recoFatJet)
match_fat_lb = makeFatjetMatch(gen_l, gen_b, recoFatJet)
match_fat_lc = makeFatjetMatch(gen_l, gen_c, recoFatJet)
match_fat_ll = makeFatjetMatch(gen_l, gen_l, recoFatJet)
# match_fat_bb = op.combine((gen_b,gen_b,recoFatJet), pred = lambda g1,g2,fat : op.AND(
# fat.subJet1.idx == op.rng_min_element_by(reco_subJet1_b_matched,
# lambda sub1_matched : op.deltaR(gb1.p4,sub1_matched.p4)).idx,
# fat.subJet2.idx == op.rng_min_element_by(reco_subJet2_b_matched,
# lambda sub2_matched : op.deltaR(gb2.p4,sub2_matched.p4)).idx))
# match_fat_bc = op.combine((gen_b,gen_b,recoFatJet), pred = lambda gb1,gb2,fat : op.AND(
# fat.subJet1.idx == op.rng_min_element_by(reco_subJet1_b_matched,
# lambda sub1_matched : op.deltaR(gb1.p4,sub1_matched.p4)).idx,
# fat.subJet2.idx == op.rng_min_element_by(reco_subJet2_b_matched,
# lambda sub2_matched : op.deltaR(gb2.p4,sub2_matched.p4)).idx))
plots.extend(plotFatjetMatching(match_fat_bb, noSel, 'b', 'b'))
plots.extend(plotFatjetMatching(match_fat_bc, noSel, 'b', 'c'))
plots.extend(plotFatjetMatching(match_fat_bl, noSel, 'b', 'l'))
plots.extend(plotFatjetMatching(match_fat_cb, noSel, 'c', 'b'))
plots.extend(plotFatjetMatching(match_fat_cc, noSel, 'c', 'c'))
plots.extend(plotFatjetMatching(match_fat_cl, noSel, 'c', 'l'))
plots.extend(plotFatjetMatching(match_fat_bb, noSel, 'l', 'b'))
plots.extend(plotFatjetMatching(match_fat_bc, noSel, 'l', 'c'))
plots.extend(plotFatjetMatching(match_fat_bl, noSel, 'l', 'l'))
return plots
def definePlots(self, t, noSel, sample=None, sampleCfg=None):
from bamboo.plots import Plot, CutFlowReport, EquidistantBinning, VariableBinning
from bamboo import treefunctions as op
plots = []
# definitions
electrons = op.select(
t.elec, lambda el: op.AND(el.pt > 20.,
op.abs(el.eta) < 2.5))
muons = op.select(t.muon, lambda mu: op.AND(mu.pt > 20.,
op.abs(mu.eta) < 2.5))
cleanedElectrons = op.select(
electrons, lambda el: op.NOT(
op.rng_any(muons, lambda mu: op.deltaR(el.p4, mu.p4) < 0.3)))
# we are taking the second isopass to be on which is equal to the medium working point
isolatedElectrons = op.select(cleanedElectrons,
lambda el: el.isopass & (1 << 2))
identifiedElectrons = op.select(isolatedElectrons,
lambda el: el.idpass & (1 << 2))
cleanedMuons = op.select(
muons, lambda mu: op.NOT(
op.rng_any(electrons, lambda el: op.deltaR(mu.p4, el.p4) < 0.3)
))
isolatedMuons = op.select(cleanedMuons,
lambda mu: mu.isopass & (1 << 2))
identifiedMuons = op.select(isolatedMuons,
lambda mu: mu.idpass & (1 << 2))
cleanedJets = op.select(
t.jetpuppi, lambda j: op.AND(
op.NOT(
op.rng_any(identifiedElectrons, lambda el: op.deltaR(
el.p4, j.p4) < 0.3)),
op.NOT(
op.rng_any(identifiedMuons, lambda mu: op.deltaR(
mu.p4, j.p4) < 0.3))))
cleanedGoodJets30_0to1_5 = op.select(
cleanedJets, lambda j: op.AND(j.pt > 30,
op.abs(j.eta) < 1.5))
cleanedGoodJets30_1_5to3 = op.select(
cleanedJets, lambda j: op.AND(
j.pt > 30,
op.NOT(op.AND(op.abs(j.eta) < 1.5,
op.abs(j.eta) > 3))))
cleanedGoodJets30_3toInf = op.select(
cleanedJets, lambda j: op.AND(j.pt > 30,
op.abs(j.eta) > 3))
cleanedGoodJets50_0to1_5 = op.select(
cleanedJets, lambda j: op.AND(j.pt > 50,
op.abs(j.eta) < 1.5))
cleanedGoodJets50_1_5to3 = op.select(
cleanedJets, lambda j: op.AND(
j.pt > 50,
op.NOT(op.AND(op.abs(j.eta) < 1.5,
op.abs(j.eta) > 3))))
cleanedGoodJets50_3toInf = op.select(
cleanedJets, lambda j: op.AND(j.pt > 50,
op.abs(j.eta) > 3))
cleanedGoodJets100_0to1_5 = op.select(
cleanedJets, lambda j: op.AND(j.pt > 100,
op.abs(j.eta) < 1.5))
cleanedGoodJets100_1_5to3 = op.select(
cleanedJets, lambda j: op.AND(
j.pt > 100,
op.NOT(op.AND(op.abs(j.eta) < 1.5,
op.abs(j.eta) > 3))))
cleanedGoodJets100_3toInf = op.select(
cleanedJets, lambda j: op.AND(j.pt > 100,
op.abs(j.eta) > 3))
cleanedGoodJets30 = op.select(cleanedJets, lambda j: j.pt > 30)
cleanedGoodJets50 = op.select(cleanedJets, lambda j: j.pt > 50)
cleanedGoodJets100 = op.select(cleanedJets, lambda j: j.pt > 100)
met = op.select(t.metpuppi)
sel1 = noSel.refine("nJet30", cut=[op.rng_len(cleanedGoodJets30) > 0])
sel2 = noSel.refine("nJet50", cut=[op.rng_len(cleanedGoodJets50) > 0])
sel3 = noSel.refine("nJet100",
cut=[op.rng_len(cleanedGoodJets100) > 0])
sel1_1 = noSel.refine("nJet30_1",
cut=[op.rng_len(cleanedGoodJets30) > 0])
sel1_1_1 = noSel.refine("nJet30_1_1",
cut=[op.rng_len(cleanedGoodJets30_0to1_5) > 0])
sel1_1_2 = noSel.refine("nJet30_1_2",
cut=[op.rng_len(cleanedGoodJets30_1_5to3) > 0])
sel1_1_3 = noSel.refine("nJet30_1_3",
cut=[op.rng_len(cleanedGoodJets30_3toInf) > 0])
sel2_1 = noSel.refine("nJet50_1",
cut=[op.rng_len(cleanedGoodJets50) > 0])
sel1_2_1 = noSel.refine("nJet50_1_1",
cut=[op.rng_len(cleanedGoodJets50_0to1_5) > 0])
sel1_2_2 = noSel.refine("nJet50_1_2",
cut=[op.rng_len(cleanedGoodJets50_1_5to3) > 0])
sel1_2_3 = noSel.refine("nJet50_1_3",
cut=[op.rng_len(cleanedGoodJets50_3toInf) > 0])
sel3_1 = noSel.refine("nJet100_1",
cut=[op.rng_len(cleanedGoodJets100) > 0])
sel1_3_1 = noSel.refine(
"nJet100_1_1", cut=[op.rng_len(cleanedGoodJets100_0to1_5) > 0])
sel1_3_2 = noSel.refine(
"nJet100_1_2", cut=[op.rng_len(cleanedGoodJets100_1_5to3) > 0])
sel1_3_3 = noSel.refine(
"nJet100_1_3", cut=[op.rng_len(cleanedGoodJets100_3toInf) > 0])
sel1_2 = noSel.refine("nJet30_2",
cut=[op.rng_len(cleanedGoodJets30) > 1])
sel2_1_1 = noSel.refine("nJet30_2_1",
cut=[op.rng_len(cleanedGoodJets30_0to1_5) > 1])
sel2_1_2 = noSel.refine("nJet30_2_2",
cut=[op.rng_len(cleanedGoodJets30_1_5to3) > 1])
sel2_1_3 = noSel.refine("nJet30_2_3",
cut=[op.rng_len(cleanedGoodJets30_3toInf) > 1])
sel2_2 = noSel.refine("nJet50_2",
cut=[op.rng_len(cleanedGoodJets50) > 1])
sel2_2_1 = noSel.refine("nJet50_2_1",
cut=[op.rng_len(cleanedGoodJets50_0to1_5) > 1])
sel2_2_2 = noSel.refine("nJet50_2_2",
cut=[op.rng_len(cleanedGoodJets50_1_5to3) > 1])
sel2_2_3 = noSel.refine("nJet50_2_3",
cut=[op.rng_len(cleanedGoodJets50_3toInf) > 1])
sel3_2 = noSel.refine("nJet100_2",
cut=[op.rng_len(cleanedGoodJets100) > 1])
sel2_3_1 = noSel.refine(
"nJet100_2_1", cut=[op.rng_len(cleanedGoodJets100_0to1_5) > 1])
sel2_3_2 = noSel.refine(
"nJet100_2_2", cut=[op.rng_len(cleanedGoodJets100_1_5to3) > 1])
sel2_3_3 = noSel.refine(
"nJet100_2_3", cut=[op.rng_len(cleanedGoodJets100_3toInf) > 1])
sel1_3 = noSel.refine("nJet30_3",
cut=[op.rng_len(cleanedGoodJets30) > 2])
sel3_1_1 = noSel.refine("nJet30_3_1",
cut=[op.rng_len(cleanedGoodJets30_0to1_5) > 2])
sel3_1_2 = noSel.refine("nJet30_3_2",
cut=[op.rng_len(cleanedGoodJets30_1_5to3) > 2])
sel3_1_3 = noSel.refine("nJet30_3_3",
cut=[op.rng_len(cleanedGoodJets30_3toInf) > 2])
sel2_3 = noSel.refine("nJet50_3",
cut=[op.rng_len(cleanedGoodJets50) > 2])
sel3_2_1 = noSel.refine("nJet50_3_1",
cut=[op.rng_len(cleanedGoodJets50_0to1_5) > 2])
sel3_2_2 = noSel.refine("nJet50_3_2",
cut=[op.rng_len(cleanedGoodJets50_1_5to3) > 2])
sel3_2_3 = noSel.refine("nJet50_3_3",
cut=[op.rng_len(cleanedGoodJets50_3toInf) > 2])
sel3_3 = noSel.refine("nJet100_3",
cut=[op.rng_len(cleanedGoodJets100) > 2])
sel3_3_1 = noSel.refine(
"nJet100_3_1", cut=[op.rng_len(cleanedGoodJets100_0to1_5) > 2])
sel3_3_2 = noSel.refine(
"nJet100_3_2", cut=[op.rng_len(cleanedGoodJets100_1_5to3) > 2])
sel3_3_3 = noSel.refine(
"nJet100_3_3", cut=[op.rng_len(cleanedGoodJets100_3toInf) > 2])
sel1_4 = noSel.refine("nJet30_4",
cut=[op.rng_len(cleanedGoodJets30) > 3])
sel4_1_1 = noSel.refine("nJet30_4_1",
cut=[op.rng_len(cleanedGoodJets30_0to1_5) > 3])
sel4_1_2 = noSel.refine("nJet30_4_2",
cut=[op.rng_len(cleanedGoodJets30_1_5to3) > 3])
sel4_1_3 = noSel.refine("nJet30_4_3",
cut=[op.rng_len(cleanedGoodJets30_3toInf) > 3])
sel2_4 = noSel.refine("nJet50_4",
cut=[op.rng_len(cleanedGoodJets50) > 3])
sel4_2_1 = noSel.refine("nJet50_4_1",
cut=[op.rng_len(cleanedGoodJets50_0to1_5) > 3])
sel4_2_2 = noSel.refine("nJet50_4_2",
cut=[op.rng_len(cleanedGoodJets50_1_5to3) > 3])
sel4_2_3 = noSel.refine("nJet50_4_3",
cut=[op.rng_len(cleanedGoodJets50_3toInf) > 3])
sel3_4 = noSel.refine("nJet100_4",
cut=[op.rng_len(cleanedGoodJets100) > 3])
sel4_3_1 = noSel.refine(
"nJet100_4_1", cut=[op.rng_len(cleanedGoodJets100_0to1_5) > 3])
sel4_3_2 = noSel.refine(
"nJet100_4_2", cut=[op.rng_len(cleanedGoodJets100_1_5to3) > 3])
sel4_3_3 = noSel.refine(
"nJet100_4_3", cut=[op.rng_len(cleanedGoodJets100_3toInf) > 3])
# plots
# # ### 30 GeV
plots.append(
Plot.make1D("nJets_jetPT_30GeV",
op.rng_len(cleanedGoodJets30),
noSel,
EquidistantBinning(15, 0., 15.),
title="nJets (jet p_{T} > 30GeV)"))
plots.append(
Plot.make1D("Jet1_pT_jetPT_30GeV",
cleanedGoodJets30[0].pt,
sel1_1,
EquidistantBinning(50, 0., 4000.),
title="Jet1_pT (jet p_{T} > 30GeV)"))
plots.append(
Plot.make1D("Jet1_eta_jetPT_30GeV",
cleanedGoodJets30[0].eta,
sel1_1,
EquidistantBinning(30, -3, 3),
title="Jet1_eta (jet p_{T} > 30GeV)"))
plots.append(
Plot.make1D("Jet1_pT_0to1_5_jetPT_30GeV",
cleanedGoodJets30_0to1_5[0].pt,
sel1_1_1,
EquidistantBinning(50, 0, 4000),
title="Jet1_pT 0 < eta < 1.5, (jet p_{T} > 30GeV)"))
plots.append(
Plot.make1D("Jet1_pT_1_5to3_jetPT_30GeV",
cleanedGoodJets30_1_5to3[0].pt,
sel1_1_2,
EquidistantBinning(50, 0, 4000),
title="Jet1_pT 1.5 < eta < 3, (jet p_{T} > 30GeV)"))
plots.append(
Plot.make1D("Jet1_pT_3toInf_jetPT_30GeV",
cleanedGoodJets30_3toInf[0].pt,
sel1_1_3,
EquidistantBinning(50, 0, 1000),
title="Jet1_pT eta > 3, (jet p_{T} > 30GeV)"))
plots.append(
Plot.make1D("Jet2_pT_jetPT_30GeV",
cleanedGoodJets30[1].pt,
sel1_2,
EquidistantBinning(50, 0., 4000.),
title="Jet2_pT (jet p_{T} > 30GeV)"))
plots.append(
Plot.make1D("Jet2_eta_jetPT_30GeV",
cleanedGoodJets30[1].eta,
sel1_2,
EquidistantBinning(30, -3, 3),
title="Jet2_eta (jet p_{T} > 30GeV)"))
plots.append(
Plot.make1D("Jet2_pT_0to1_5_jetPT_30GeV",
cleanedGoodJets30_0to1_5[1].pt,
sel2_1_1,
EquidistantBinning(50, 0, 4000),
title="Jet2_pT 0 < eta < 1.5, (jet p_{T} > 30GeV)"))
plots.append(
Plot.make1D("Jet2_pT_1_5to3_jetPT_30GeV",
cleanedGoodJets30_1_5to3[1].pt,
sel2_1_2,
EquidistantBinning(50, 0, 4000),
title="Jet2_pT 1.5 < eta < 3, (jet p_{T} > 30GeV)"))
plots.append(
Plot.make1D("Jet2_pT_3toInf_jetPT_30GeV",
cleanedGoodJets30_3toInf[1].pt,
sel2_1_3,
EquidistantBinning(50, 0, 500),
title="Jet2_pT eta > 3, (jet p_{T} > 30GeV)"))
plots.append(
Plot.make1D("Jet3_pT_jetPT_30GeV",
cleanedGoodJets30[2].pt,
sel1_3,
EquidistantBinning(50, 0., 2000.),
title="Jet3_pT (jet p_{T} > 30GeV)"))
plots.append(
Plot.make1D("Jet3_eta_jetPT_30GeV",
cleanedGoodJets30[2].eta,
sel1_3,
EquidistantBinning(30, -3, 3),
title="Jet3_eta (jet p_{T} > 30GeV)"))
plots.append(
Plot.make1D("Jet3_pT_0to1_5_jetPT_30GeV",
cleanedGoodJets30_0to1_5[2].pt,
sel3_1_1,
EquidistantBinning(50, 0, 2000),
title="Jet3_pT 0 < eta < 1.5, (jet p_{T} > 30GeV)"))
plots.append(
Plot.make1D("Jet3_pT_1_5to3_jetPT_30GeV",
cleanedGoodJets30_1_5to3[2].pt,
sel3_1_2,
EquidistantBinning(50, 0, 2000),
title="Jet3_pT 1.5 < eta < 3, (jet p_{T} > 30GeV)"))
plots.append(
Plot.make1D("Jet3_pT_3toInf_jetPT_30GeV",
cleanedGoodJets30_3toInf[2].pt,
sel3_1_3,
EquidistantBinning(50, 0, 200),
title="Jet3_pT eta > 3, (jet p_{T} > 30GeV)"))
plots.append(
Plot.make1D("Jet4_pT_jetPT_30GeV",
cleanedGoodJets30[3].pt,
sel1_4,
EquidistantBinning(50, 0., 2000.),
title="Jet4_pT (jet p_{T} > 30GeV)"))
plots.append(
Plot.make1D("Jet4_eta_jetPT_30GeV",
cleanedGoodJets30[3].eta,
sel1_4,
EquidistantBinning(30, -3, 3),
title="Jet4_eta (jet p_{T} > 30GeV)"))
plots.append(
Plot.make1D("Jet4_pT_0to1_5_jetPT_30GeV",
cleanedGoodJets30_0to1_5[3].pt,
sel4_1_1,
EquidistantBinning(50, 0, 2000),
title="Jet4_pT 0 < eta < 1.5, (jet p_{T} > 30GeV)"))
plots.append(
Plot.make1D("Jet4_pT_1_5to3_jetPT_30GeV",
cleanedGoodJets30_1_5to3[3].pt,
sel4_1_2,
EquidistantBinning(50, 0, 2000),
title="Jet4_pT 1.5 < eta < 3, (jet p_{T} > 30GeV)"))
plots.append(
Plot.make1D("Jet4_pT_3toInf_jetPT_30GeV",
cleanedGoodJets30_3toInf[3].pt,
sel4_1_3,
EquidistantBinning(50, 0, 200),
title="Jet4_pT eta > 3, (jet p_{T} > 30GeV)"))
plots.append(
Plot.make1D("MET_jetPT_30GeV",
met[0].pt,
sel1,
EquidistantBinning(50, 0, 1000),
title="MET (jet p_{T} > 30GeV)"))
# # ### 50 GeV
plots.append(
Plot.make1D("nJets_jetPT_50GeV",
op.rng_len(cleanedGoodJets50),
noSel,
EquidistantBinning(15, 0., 15.),
title="nJets (jet p_{T} > 50GeV)"))
plots.append(
Plot.make1D("Jet1_pT_jetPT_50GeV",
cleanedGoodJets50[0].pt,
sel2_1,
EquidistantBinning(50, 0., 4000.),
title="Jet1_pT (jet p_{T} > 50GeV)"))
plots.append(
Plot.make1D("Jet1_eta_jetPT_50GeV",
cleanedGoodJets50[0].eta,
sel2_1,
EquidistantBinning(30, -3, 3),
title="Jet1_eta (jet p_{T} > 50GeV)"))
plots.append(
Plot.make1D("Jet1_pT_0to1_5_jetPT_50GeV",
cleanedGoodJets50_0to1_5[0].pt,
sel1_2_1,
EquidistantBinning(50, 0, 4000),
title="Jet1_pT 0 < eta < 1.5, (jet p_{T} > 50GeV)"))
plots.append(
Plot.make1D("Jet1_pT_1_5to3_jetPT_50GeV",
cleanedGoodJets50_1_5to3[0].pt,
sel1_2_2,
EquidistantBinning(50, 0, 4000),
title="Jet1_pT 1.5 < eta < 3, (jet p_{T} > 50GeV)"))
plots.append(
Plot.make1D("Jet1_pT_3toInf_jetPT_50GeV",
cleanedGoodJets50_3toInf[0].pt,
sel1_2_3,
EquidistantBinning(50, 0, 1000),
title="Jet1_pT eta > 3, (jet p_{T} > 50GeV)"))
plots.append(
Plot.make1D("Jet2_pT_jetPT_50GeV",
cleanedGoodJets50[1].pt,
sel2_2,
EquidistantBinning(50, 0., 4000.),
title="Jet2_pT (jet p_{T} > 50GeV)"))
plots.append(
Plot.make1D("Jet2_eta_jetPT_50GeV",
cleanedGoodJets50[1].eta,
sel2_2,
EquidistantBinning(30, -3, 3),
title="Jet2_eta (jet p_{T} > 50GeV)"))
plots.append(
Plot.make1D("Jet2_pT_0to1_5_jetPT_50GeV",
cleanedGoodJets50_0to1_5[1].pt,
sel2_2_1,
EquidistantBinning(50, 0, 4000),
title="Jet2_pT 0 < eta < 1.5, (jet p_{T} > 50GeV)"))
plots.append(
Plot.make1D("Jet2_pT_1_5to3_jetPT_50GeV",
cleanedGoodJets50_1_5to3[1].pt,
sel2_2_2,
EquidistantBinning(50, 0, 4000),
title="Jet2_pT 1.5 < eta < 3, (jet p_{T} > 50GeV)"))
plots.append(
Plot.make1D("Jet2_pT_3toInf_jetPT_50GeV",
cleanedGoodJets50_3toInf[1].pt,
sel2_2_3,
EquidistantBinning(50, 0, 500),
title="Jet2_pT eta > 3, (jet p_{T} > 50GeV)"))
plots.append(
Plot.make1D("Jet3_pT_jetPT_50GeV",
cleanedGoodJets50[2].pt,
sel2_3,
EquidistantBinning(50, 0., 2000.),
title="Jet3_pT (jet p_{T} > 50GeV)"))
plots.append(
Plot.make1D("Jet3_eta_jetPT_50GeV",
cleanedGoodJets50[2].eta,
sel2_3,
EquidistantBinning(30, -3, 3),
title="Jet3_eta (jet p_{T} > 50GeV)"))
plots.append(
Plot.make1D("Jet3_pT_0to1_5_jetPT_50GeV",
cleanedGoodJets50_0to1_5[2].pt,
sel3_2_1,
EquidistantBinning(50, 0, 2000),
title="Jet3_pT 0 < eta < 1.5, (jet p_{T} > 50GeV)"))
plots.append(
Plot.make1D("Jet3_pT_1_5to3_jetPT_50GeV",
cleanedGoodJets50_1_5to3[2].pt,
sel3_2_2,
EquidistantBinning(50, 0, 2000),
title="Jet3_pT 1.5 < eta < 3, (jet p_{T} > 50GeV)"))
plots.append(
Plot.make1D("Jet3_pT_3toInf_jetPT_50GeV",
cleanedGoodJets50_3toInf[2].pt,
sel3_2_3,
EquidistantBinning(50, 0, 200),
title="Jet3_pT eta > 3, (jet p_{T} > 50GeV)"))
plots.append(
Plot.make1D("Jet4_pT_jetPT_50GeV",
cleanedGoodJets50[3].pt,
sel2_4,
EquidistantBinning(50, 0., 2000.),
title="Jet4_pT (jet p_{T} > 50GeV)"))
plots.append(
Plot.make1D("Jet4_eta_jetPT_50GeV",
cleanedGoodJets50[3].eta,
sel2_4,
EquidistantBinning(30, -3, 3),
title="Jet4_eta (jet p_{T} > 50GeV)"))
plots.append(
Plot.make1D("Jet4_pT_0to1_5_jetPT_50GeV",
cleanedGoodJets50_0to1_5[3].pt,
sel4_2_1,
EquidistantBinning(50, 0, 2000),
title="Jet4_pT 0 < eta < 1.5, (jet p_{T} > 30GeV)"))
plots.append(
Plot.make1D("Jet4_pT_1_5to3_jetPT_50GeV",
cleanedGoodJets50_1_5to3[3].pt,
sel4_2_2,
EquidistantBinning(50, 0, 2000),
title="Jet4_pT 1.5 < eta < 3, (jet p_{T} > 50GeV)"))
plots.append(
Plot.make1D("Jet4_pT_3toInf_jetPT_50GeV",
cleanedGoodJets50_3toInf[3].pt,
sel4_2_3,
EquidistantBinning(50, 0, 200),
title="Jet4_pT eta > 3, (jet p_{T} > 50GeV)"))
plots.append(
Plot.make1D("MET_jetPT_50GeV",
met[0].pt,
sel2,
EquidistantBinning(50, 0, 1000),
title="MET (jet p_{T} > 50GeV)"))
# ### 100 GeV
plots.append(
Plot.make1D("nJets_jetPT_100GeV",
op.rng_len(cleanedGoodJets100),
noSel,
EquidistantBinning(15, 0., 15.),
title="nJets (jet p_{T} > 100GeV)"))
plots.append(
Plot.make1D("Jet1_pT_jetPT_100GeV",
cleanedGoodJets100[0].pt,
sel3_1,
EquidistantBinning(50, 0., 4000.),
title="Jet1_pT (jet p_{T} > 100GeV)"))
plots.append(
Plot.make1D("Jet1_eta_jetPT_100GeV",
cleanedGoodJets100[0].eta,
sel3_1,
EquidistantBinning(30, -3, 3),
title="Jet1_eta (jet p_{T} > 100GeV)"))
plots.append(
Plot.make1D("Jet1_pT_0to1_5_jetPT_100GeV",
cleanedGoodJets100_0to1_5[0].pt,
sel1_3_1,
EquidistantBinning(50, 0, 4000),
title="Jet1_pT 0 < eta < 1.5, (jet p_{T} > 100GeV)"))
plots.append(
Plot.make1D("Jet1_pT_1_5to3_jetPT_100GeV",
cleanedGoodJets100_1_5to3[0].pt,
sel1_3_2,
EquidistantBinning(50, 0, 4000),
title="Jet1_pT 1.5 < eta < 3, (jet p_{T} > 100GeV)"))
plots.append(
Plot.make1D("Jet1_pT_3toInf_jetPT_100GeV",
cleanedGoodJets100_3toInf[0].pt,
sel1_3_3,
EquidistantBinning(50, 0, 1000),
title="Jet1_pT eta > 3, (jet p_{T} > 100GeV)"))
plots.append(
Plot.make1D("Jet2_pT_jetPT_100GeV",
cleanedGoodJets100[1].pt,
sel3_2,
EquidistantBinning(50, 0., 4000.),
title="Jet2_pT (jet p_{T} > 100GeV)"))
plots.append(
Plot.make1D("Jet2_eta_jetPT_100GeV",
cleanedGoodJets100[1].eta,
sel3_2,
EquidistantBinning(30, -3, 3),
title="Jet2_eta (jet p_{T} > 100GeV)"))
plots.append(
Plot.make1D("Jet2_pT_0to1_5_jetPT_100GeV",
cleanedGoodJets100_0to1_5[1].pt,
sel2_3_1,
EquidistantBinning(50, 0, 4000),
title="Jet2_pT 0 < eta < 1.5, (jet p_{T} > 100GeV)"))
plots.append(
Plot.make1D("Jet2_pT_1_5to3_jetPT_100GeV",
cleanedGoodJets100_1_5to3[1].pt,
sel2_3_2,
EquidistantBinning(50, 0, 4000),
title="Jet2_pT 1.5 < eta < 3, (jet p_{T} > 100GeV)"))
plots.append(
Plot.make1D("Jet2_pT_3toInf_jetPT_100GeV",
cleanedGoodJets100_3toInf[1].pt,
sel2_3_3,
EquidistantBinning(50, 0, 500),
title="Jet2_pT eta > 3, (jet p_{T} > 100GeV)"))
plots.append(
Plot.make1D("Jet3_pT_jetPT_100GeV",
cleanedGoodJets100[2].pt,
sel3_3,
EquidistantBinning(50, 0., 2000.),
title="Jet3_pT (jet p_{T} > 100GeV)"))
plots.append(
Plot.make1D("Jet3_eta_jetPT_100GeV",
cleanedGoodJets100[2].eta,
sel3_3,
EquidistantBinning(30, -3, 3),
title="Jet3_eta (jet p_{T} > 100GeV)"))
plots.append(
Plot.make1D("Jet3_pT_0to1_5_jetPT_100GeV",
cleanedGoodJets100_0to1_5[2].pt,
sel3_3_1,
EquidistantBinning(50, 0, 2000),
title="Jet3_pT 0 < eta < 1.5, (jet p_{T} > 100GeV)"))
plots.append(
Plot.make1D("Jet3_pT_1_5to3_jetPT_100GeV",
cleanedGoodJets100_1_5to3[2].pt,
sel3_3_2,
EquidistantBinning(50, 0, 2000),
title="Jet3_pT 1.5 < eta < 3, (jet p_{T} > 100GeV)"))
plots.append(
Plot.make1D("Jet3_pT_3toInf_jetPT_100GeV",
cleanedGoodJets100_3toInf[2].pt,
sel3_3_3,
EquidistantBinning(50, 0, 200),
title="Jet3_pT eta > 3, (jet p_{T} > 100GeV)"))
plots.append(
Plot.make1D("Jet4_pT_jetPT_100GeV",
cleanedGoodJets100[3].pt,
sel3_4,
EquidistantBinning(50, 0., 2000.),
title="Jet4_pT (jet p_{T} > 100GeV)"))
plots.append(
Plot.make1D("Jet4_eta_jetPT_100GeV",
cleanedGoodJets100[3].eta,
sel3_4,
EquidistantBinning(30, -3, 3),
title="Jet4_eta (jet p_{T} > 100GeV)"))
plots.append(
Plot.make1D("Jet4_pT_0to1_5_jetPT_100GeV",
cleanedGoodJets100_0to1_5[3].pt,
sel4_3_1,
EquidistantBinning(50, 0, 2000),
title="Jet4_pT 0 < eta < 1.5, (jet p_{T} > 100GeV)"))
plots.append(
Plot.make1D("Jet4_pT_1_5to3_jetPT_100GeV",
cleanedGoodJets100_1_5to3[3].pt,
sel4_3_2,
EquidistantBinning(50, 0, 2000),
title="Jet4_pT 1.5 < eta < 3, (jet p_{T} > 100GeV)"))
plots.append(
Plot.make1D("Jet4_pT_3toInf_jetPT_100GeV",
cleanedGoodJets100_3toInf[3].pt,
sel4_3_3,
EquidistantBinning(50, 0, 200),
title="Jet4_pT eta > 3, (jet p_{T} > 100GeV)"))
plots.append(
Plot.make1D("MET_jetPT_100GeV",
met[0].pt,
sel3,
EquidistantBinning(50, 0, 1000),
title="MET (jet p_{T} > 100GeV)"))
# Efficiency Report on terminal and the .tex output
cfr = CutFlowReport("yields")
cfr.add(noSel, "None")
cfr.add(sel1, "30GeV")
cfr.add(sel2, "50GeV")
cfr.add(sel3, "100GeV")
plots.append(cfr)
return plots
def makeJetsPlots(self, sel, jets, suffix, channel):
"""
Make basic plots
sel = refine selection
jets = bjet container with len(jets)>=1 (we require at least one bjet)
suffix = string identifying the selecton
channel = string identifying the channel of the dilepton (can be "NoChannel")
"""
plots = []
# bjet 1 plots (always present by selection) #
plots.append(
Plot.make1D("%s_leadjetPT_%s" % (channel, suffix),
jets[0].p4.Pt(),
sel,
EquidistantBinning(100, 0, 300.),
title='Transverse momentum of the leading jet',
xTitle="P_{T}(leading jet) [GeV]"))
plots.append(
Plot.make1D("%s_leadjetEta_%s" % (channel, suffix),
jets[0].p4.Eta(),
sel,
EquidistantBinning(20, -3., 3.),
title='Transverse momentum of the leading jet',
xTitle="#eta(leading jet) [GeV]"))
plots.append(
Plot.make1D("%s_leadjetPhi_%s" % (channel, suffix),
jets[0].p4.Phi(),
sel,
EquidistantBinning(20, -3.2, 3.2),
title='Azimutal angle of the leading jet',
xTitle="#phi(leading jet) [GeV]"))
# bjet 2 plots (not necessarily present) #
hasAtLeastTwoBJets = sel.refine("hasAtLeastTwoBJets_%s_%s" %
(channel, suffix),
cut=[op.rng_len(jets) >= 2])
hasOnlyOneBJet = sel.refine("hasAtLeast2BJets_%s_%s" % (channel, suffix),
cut=[op.rng_len(jets) == 1])
# Fill a specific bin apart so that the information is not lost
# PT plot #
plot_hasTwoBJets_PT = Plot.make1D(
"%s_hasSubleadjetPT_%s" % (channel, suffix),
jets[1].p4.Pt(),
hasAtLeastTwoBJets,
EquidistantBinning(100, -10., 300.),
title='Transverse momentum of the subleading jet',
xTitle="P_{T}(subleading jet) [GeV]")
plot_notTwoBJets_PT = Plot.make1D(
"%s_notSubleadjetPT_%s" % (channel, suffix),
op.c_float(-10.),
hasOnlyOneBJet,
EquidistantBinning(100, -10., 300.),
title='Transverse momentum of the subleading jet',
xTitle="P_{T}(subleading jet) [GeV]")
plots.append(
SummedPlot("%s_subleadjetPT_%s" % (channel, suffix),
[plot_hasTwoBJets_PT, plot_notTwoBJets_PT],
xTitle="P_{T}(subleading jet) [GeV]"))
# Eta plot #
plot_hasTwoBJets_Eta = Plot.make1D(
"%s_hasSubleadjetEta_%s" % (channel, suffix),
jets[1].p4.Eta(),
hasAtLeastTwoBJets,
EquidistantBinning(20, -3., 3.),
title='Pseudorapidity of the subleading jet',
xTitle="#eta(subleading jet) [GeV]")
plot_notTwoBJets_Eta = Plot.make1D(
"%s_notSubleadjetEta_%s" % (channel, suffix),
op.c_float(-3.),
hasOnlyOneBJet,
EquidistantBinning(20, -3., 3.),
title='Pseudorapidity of the subleading jet',
xTitle="#eta(subleading jet) [GeV]")
plots.append(
SummedPlot("%s_subleadjetEta_%s" % (channel, suffix),
[plot_hasTwoBJets_Eta, plot_notTwoBJets_Eta],
xTitle="#eta(subleading jet) [GeV]"))
# Phi plot #
plot_hasTwoBJets_Phi = Plot.make1D(
"%s_hasSubleadjetPhi_%s" % (channel, suffix),
jets[1].p4.Phi(),
hasAtLeastTwoBJets,
EquidistantBinning(20, -3.2, 3.2),
title='Azimutal angle of the subleading jet',
xTitle="#phi(subleading jet) [GeV]")
plot_notTwoBJets_Phi = Plot.make1D(
"%s_notSubleadjetPhi_%s" % (channel, suffix),
op.c_float(-3.2),
hasOnlyOneBJet,
EquidistantBinning(20, -3.2, 3.2),
title='Azimutal angle of the subleading jet',
xTitle="#phi(subleading jet) [GeV]")
plots.append(
SummedPlot("%s_subleadjetPhi_%s" % (channel, suffix),
[plot_hasTwoBJets_Phi, plot_notTwoBJets_Phi],
xTitle="#phi(subleading jet) [GeV]"))
# InvMass plot #
plot_hasTwoBJets_invMass = Plot.make1D(
"%s_hasTwoBJets_invMass_%s" % (channel, suffix),
op.invariant_mass(jets[0].p4, jets[1].p4),
hasAtLeastTwoBJets,
EquidistantBinning(100, -10, 500.),
title="Dijet invariant mass (channel %s)" % channel,
xTitle="Invariant mass [GeV]")
plot_notTwoBJets_invMass = Plot.make1D(
"%s_notTwoBJets_invMass_%s" % (channel, suffix),
op.c_float(-10.),
hasAtLeastTwoBJets,
EquidistantBinning(100, -10, 500.),
title="Dijet invariant mass (channel %s)" % channel,
xTitle="Invariant mass [GeV]")
plots.append(
SummedPlot("%s_dijetInvariantMass_%s" % (channel, suffix),
[plot_hasTwoBJets_invMass, plot_notTwoBJets_invMass],
xTitle="Invariant mass [GeV]"))
return plots
def makeDileptonPlots(self, sel, dilepton, suffix, channel):
"""
Make dilepton basic plots
sel = refine selection
dilepton = dilepton object (ElEl, MuEl, ElMu, MuMu)
suffix = string identifying the selecton
channel = string identifying the channel of the dilepton (can be "NoChannel")
"""
plots = []
# PT plot #
plots.append(
Plot.make1D(
"%s_leadleptonPT_%s" % (channel, suffix),
dilepton[0].p4.Pt(),
sel,
EquidistantBinning(100, 0., 150.),
title="Transverse momentum of the leading lepton (channel %s)" %
channel,
xTitle="P_{T}(leading lepton) [GeV]"))
plots.append(
Plot.make1D(
"%s_subleadleptonPT_%s" % (channel, suffix),
dilepton[1].p4.Pt(),
sel,
EquidistantBinning(100, 0., 150.),
title="Transverse momentum of the subleading lepton (channel %s)" %
channel,
xTitle="P_{T}(leading lepton) [GeV]"))
# Eta plot #
plots.append(
Plot.make1D("%s_leadleptonEta_%s" % (channel, suffix),
dilepton[0].p4.Eta(),
sel,
EquidistantBinning(20, -3., 3.),
title="Pseudorapidity of the leading lepton (channel %s)" %
channel,
xTitle="#eta (leading lepton) [GeV]"))
plots.append(
Plot.make1D(
"%s_subleadleptonEta_%s" % (channel, suffix),
dilepton[1].p4.Eta(),
sel,
EquidistantBinning(20, -3., 3.),
title="Pseudorapidity of the subleading lepton (channel %s)" %
channel,
xTitle="#eta (subleading sublepton) [GeV]"))
# Phi plot #
plots.append(
Plot.make1D("%s_leadleptonPhi_%s" % (channel, suffix),
dilepton[0].p4.Phi(),
sel,
EquidistantBinning(20, -3.2, 3.2),
title="Azimutal angle of the leading lepton (channel %s)" %
channel,
xTitle="#phi (leading lepton) [GeV]"))
plots.append(
Plot.make1D(
"%s_subleadleptonPhi_%s" % (channel, suffix),
dilepton[1].p4.Phi(),
sel,
EquidistantBinning(20, -3.2, 3.2),
title="Azimutal angle of the subleading lepton (channel %s)" %
channel,
xTitle="#phi (subleading lepton) [GeV]"))
# InvMass plot #
plots.append(
Plot.make1D("%s_leptonInvariantMass_%s" % (channel, suffix),
op.invariant_mass(dilepton[0].p4, dilepton[1].p4),
sel,
EquidistantBinning(100, 0., 500.),
title="Dilepton invariant mass (channel %s)" % channel,
xTitle="Invariant mass [GeV]"))
return plots