def test_acoplanarity(self):
'''test acoplanarity w/r to Patricks implementation
'''
ptc1 = Particle(11, -1, TLorentzVector(1, 2, 3, 7))
ptc2 = Particle(-11, 1, TLorentzVector(2, 3, 4, 10))
reso = Resonance(ptc1, ptc2, 23)
self.assertEqual(reso.cross(), acop_patrick(reso.leg1(), reso.leg2()))
def test_deltaR2(self):
"""Test that the deltaR2 method properly uses either eta or
theta depending on the collider configuration
"""
Collider.BEAMS = 'pp'
tlv1 = TLorentzVector()
tlv1.SetPtEtaPhiM(10, 1.1, 0, 0)
tlv2 = TLorentzVector()
tlv2.SetPtEtaPhiM(10, 1.2, 0, 0)
ptc1 = Particle(1, 1, tlv1)
ptc2 = Particle(1, 1, tlv2)
dR = math.sqrt( deltaR2(ptc1, ptc2))
self.assertAlmostEqual(dR, 0.1)
Collider.BEAMS = 'ee'
tlv1 = TLorentzVector()
tlv1.SetPtEtaPhiM(10, 1.1, 0, 0)
tlv1.SetTheta(1.1)
tlv2 = TLorentzVector()
tlv2.SetPtEtaPhiM(10, 1.2, 0, 0)
tlv2.SetTheta(1.2)
ptc1 = Particle(1, 1, tlv1)
ptc2 = Particle(1, 1, tlv2)
dR = math.sqrt( deltaR2(ptc1, ptc2))
self.assertAlmostEqual(dR, 0.1)
def test_printout(self):
'''Test that the particle printout is adapted to the collider
beams.'''
ptc = TlvParticle(1, 1, TLorentzVector())
Collider.BEAMS = 'pp'
self.assertIn('pt', ptc.__repr__())
Collider.BEAMS = 'ee'
self.assertIn('theta', ptc.__repr__())
Collider.BEAMS = 'pp'
def test_printout(self):
'''Test that the particle printout is adapted to the collider
beams.'''
ptc = TlvParticle(1, 1, TLorentzVector())
Collider.BEAMS = 'pp'
self.assertIn('pt', ptc.__repr__())
Collider.BEAMS = 'ee'
self.assertIn('theta', ptc.__repr__())
Collider.BEAMS = 'pp'
def test_resonance(self):
ptc1 = Particle(11, -1, TLorentzVector(1, 0, 0, 1))
ptc2 = Particle(-11, 1, TLorentzVector(2, 0, 0, 2))
reso = Resonance(ptc1, ptc2, 23)
self.assertEqual(reso._pid, 23)
self.assertEqual(reso.e(), 3)
self.assertEqual(reso.leg1(), ptc1)
self.assertEqual(reso.leg2(), ptc2)
self.assertEqual(reso.q(), 0)
self.assertEqual(reso.p4(), TLorentzVector(3, 0, 0, 3))
def process(self, event):
#sqrts = self.cfg_ana.sqrts
sqrts = 240.
#sqrts = random.gauss(240.,240.*0.0012)
#sqrts = random.gauss(240.,10.)
jets = getattr(event, self.cfg_ana.input_jets)
misenergy = getattr(event, self.cfg_ana.misenergy)
# solving the equation
vis_p4 = TLorentzVector(0, 0, 0, 0)
for jet in jets:
vis_p4 += jet.p4()
vis = Recoil(0, 0, vis_p4, 1)
# m=m_Z constrain
a = vis.e() * sqrts / (vis.m()**2)
b = a**2 - (sqrts**2 - 91.**2) / (vis.m()**2)
# sf stands for scaling factor
if b < 0:
sf = 1
setattr(event, self.cfg_ana.det, 1)
else:
#sf2 corresponds to the solution where the missing energy is negative therefore sf is the scaling factor that makes sense from a physics pov.
sf = a - math.sqrt(b)
sf2 = a + math.sqrt(b)
setattr(event, self.cfg_ana.det, 2)
######test
#visscaled1=TLorentzVector(0,0,0,0)
#visscaled2=TLorentzVector(0,0,0,0)
#for jet in jets:
# visscaled1+=jet.p4()*sf
# visscaled2+=jet.p4()*sf2
#cms=TLorentzVector(0,0,0,240)
#v1=cms-visscaled1
#v2=cms-visscaled2
#print v1.E(),v2.E()
setattr(event, self.cfg_ana.scalingfac, sf)
setattr(event, self.cfg_ana.scalingfac2, sf2)
scale_factors = [sf] * 2
output = []
for jet, factor in zip(jets, scale_factors):
# the jets should not be deepcopied
# as they are heavy objects containing
# in particular a list of consistuent particles
scaled_jet = copy.copy(jet)
scaled_jet._tlv = copy.deepcopy(jet._tlv)
scaled_jet._tlv *= factor
output.append(scaled_jet)
setattr(event, self.cfg_ana.output_jets, output)
def particle(pdgid, thetamin, thetamax, ptmin, ptmax, flat_pt=False):
'''Create and return a particle in a given phase space
@param pdgid: the pdg ID code
@param thetamin: min theta
@param thetamax: max theta
@param ptmin: min pt
@param ptmax: max pt
@param flat_pt: False by default, indicating that the pt of the
particle should be chosen from a uniform distribution between
ptmin and ptmax. if set to true,
the energy of the particle is drawn from a uniform distribution
between ptmin and ptmax (then considered as Emin and Emax).
'''
mass, charge = particle_data[pdgid]
theta = random.uniform(thetamin, thetamax)
phi = random.uniform(-math.pi, math.pi)
energy = random.uniform(ptmin, ptmax)
costheta = math.cos(math.pi / 2. - theta)
sintheta = math.sin(math.pi / 2. - theta)
tantheta = sintheta / costheta
cosphi = math.cos(phi)
sinphi = math.sin(phi)
if flat_pt:
pt = energy
momentum = pt / sintheta
energy = math.sqrt(momentum**2 + mass**2)
else:
energy = max([energy, mass])
momentum = math.sqrt(energy**2 - mass**2)
tlv = TLorentzVector(momentum * sintheta * cosphi,
momentum * sintheta * sinphi, momentum * costheta,
energy)
return Particle(pdgid, charge, tlv)
def process(self, event):
initial = TLorentzVector()
initial.SetXYZM(0, 0, 0, self.cfg_ana.sqrts)
particles = getattr(event, self.cfg_ana.particles)
visible_p4 = TLorentzVector()
for ptc in particles:
if ptc.status() > 1: #PF cand status=0 in CMS
raise ValueError('are you sure? status=' + str(ptc.status()))
visible_p4 += ptc.p4()
recoil_p4 = initial - visible_p4
recoil = Particle(0, 0, recoil_p4)
visible = Particle(0, 0, visible_p4)
setattr(event, '_'.join(['recoil', self.cfg_ana.instance_label]),
recoil)
setattr(event,
'_'.join(['recoil_visible',
self.cfg_ana.instance_label]), visible)
def test_iso1(self):
p4 = TLorentzVector()
p4.SetPtEtaPhiM(10, 0, 0, 0.105)
lepton = Particle(13, 1, p4)
p4 = TLorentzVector()
p4.SetPtEtaPhiM(1, 0, 0, 0.105)
ptc = Particle(211, 1, p4)
# test iso calc
computer = IsolationComputer([EtaPhiCircle(0.4)])
iso = computer.compute(lepton, [ptc,ptc])
self.assertEqual(iso.sumpt, 2*ptc.pt())
self.assertEqual(iso.sume, 2*ptc.e())
self.assertEqual(iso.num, 2)
# test IsolationInfo addition
iso2 = copy.copy(iso)
iso2 += iso
self.assertEqual(iso2.sumpt, 4*ptc.pt())
self.assertEqual(iso2.sume, 4*ptc.e())
self.assertEqual(iso2.num, 4)
# test veto
computer = IsolationComputer([EtaPhiCircle(0.4)], [EtaPhiCircle(0.1)])
iso = computer.compute(lepton, [ptc])
self.assertEqual(iso.sumpt, 0.)
def setUp(self):
"""maps the space with particles"""
self.ptcs = {}
for eta in range(-30, 30, 2):
eta /= 10.
for phi in range(-30, 30, 2):
phi /= 10.
tlv = TLorentzVector()
tlv.SetPtEtaPhiM(10, eta, phi, 0)
self.ptcs[(eta, phi)] = Particle(1, 0, tlv)
def corrMET2(self, jet1, jet2, met):
metp4 = ROOT.TLorentzVector()
px = met.p4().Px()
py = met.p4().Py()
if (jet1.p4().Pt() < jet2.p4().Pt()):
pz = jet1.p4().Pz() / 2.
e = math.sqrt(px**2 + py**2 + pz**2)
metp4.SetPxPyPzE(px, py, pz, e)
jetcorr1 = Particle(15, 0, jet1.p4() + metp4, 1)
jetcorr2 = Particle(15, 0, jet2.p4(), 1)
else:
pz = jet2.p4().Pz() / 2.
e = math.sqrt(px**2 + py**2 + pz**2)
metp4.SetPxPyPzE(px, py, pz, e)
jetcorr1 = Particle(15, 0, jet1.p4(), 1)
jetcorr2 = Particle(15, 0, jet2.p4() + metp4, 1)
return jetcorr1, jetcorr2
def corrMET(self, jet1, jet2, met):
dphi1 = abs(jet1.p4().DeltaPhi(met.p4()))
dphi2 = abs(jet2.p4().DeltaPhi(met.p4()))
metp4 = ROOT.TLorentzVector()
px = met.p4().Px()
py = met.p4().Py()
if (dphi1 < dphi2):
pz = jet1.p4().Pz() / 2.
e = math.sqrt(px**2 + py**2 + pz**2)
metp4.SetPxPyPzE(px, py, pz, e)
jetcorr1 = Particle(15, 0, jet1.p4() + metp4, 1)
jetcorr2 = Particle(15, 0, jet2.p4(), 1)
else:
pz = jet2.p4().Pz() / 2.
e = math.sqrt(px**2 + py**2 + pz**2)
metp4.SetPxPyPzE(px, py, pz, e)
jetcorr1 = Particle(15, 0, jet1.p4(), 1)
jetcorr2 = Particle(15, 0, jet2.p4() + metp4, 1)
return jetcorr1, jetcorr2
def process(self, event):
ptcs = getattr(event, self.cfg_ana.particles)
sump3 = TVector3()
charge = 0
sume = 0
for ptc in ptcs:
sump3 += ptc.p3()
charge += ptc.q()
p4 = TLorentzVector()
p4.SetVectM(-sump3, 0)
missing = Particle(0, charge, p4)
setattr(event, self.instance_label, missing)
def test_many(self):
nzeds = 100
masses = np.linspace(80, 100, nzeds)
boosts = np.linspace(1, 50, nzeds)
thetas = np.linspace(1, math.pi, nzeds)
for mass, boost, theta in zip(masses, boosts, thetas):
energy = mass / 2.
ptc1 = Particle(11, -1, TLorentzVector(0, energy, 0, energy))
ptc2 = Particle(11, 1, TLorentzVector(0, -energy, 0, energy))
resonance = Resonance(ptc1, ptc2, 23)
p3_lab = TVector3()
p3_lab.SetMagThetaPhi(boost, theta, 0.1)
p4_lab = TLorentzVector()
p4_lab.SetVectM(p3_lab, mass)
bp4 = copy.deepcopy(resonance.p4())
boost_vector = p4_lab.BoostVector()
bp4.Boost(boost_vector)
places = 8
self.assertAlmostEqual(bp4.Vect().Mag(), boost, places)
self.assertAlmostEqual(bp4.M(), mass, places)
resonance.boost(boost_vector)
self.assertAlmostEqual(bp4.E(), resonance.e(), places)
def process(self, event):
'''Process event.
The event must contain:
- self.cfg_ana.particles: the input collection of particles.
'''
p4 = TLorentzVector()
charge = 0
pdgid = 0
ptcs = getattr(event, self.cfg_ana.particles)
for ptc in ptcs:
p4 += ptc.p4()
charge += ptc.q()
sumptc = Particle(pdgid, charge, p4)
setattr(event, self.cfg_ana.output, sumptc)
def process(self, event):
p4 = TLorentzVector()
charge = 0
pdgid = 0
ptcs = getattr(event, self.cfg_ana.particles)
jet = Jet(p4)
constituents = JetConstituents()
for ptc in ptcs:
p4 += ptc.p4()
charge += ptc.q()
constituents.append(ptc)
sumptc = Particle(pdgid, charge, p4)
jet = Jet(p4)
jet.constituents = constituents
jet.constituents.sort()
setattr(event, self.cfg_ana.output, jet)
def process(self, event):
pivot = getattr(event, self.cfg_ana.pivot)[0]
ptcs = getattr(event, self.cfg_ana.particles)
dR = self.cfg_ana.dR
cone_ptcs = inConeCollection(pivot, ptcs, dR, 0.)
for ptc in cone_ptcs:
setattr(ptc, 'dR', deltaR(pivot, ptc))
tlv = TLorentzVector(pivot.p4())
tlv.SetPhi(pivot.p4().Phi() + math.pi)
tlv_theta = math.pi - pivot.p4().Theta()
if tlv_theta >= math.pi:
tlv_theta -= math.pi
tlv.SetTheta(tlv_theta)
control_pivot = Particle(pivot.pdgid(), pivot.charge(), tlv)
control_cone_ptcs = inConeCollection(control_pivot, ptcs, dR, 0.)
setattr(event, self.cfg_ana.output, cone_ptcs)
setattr(event, self.cfg_ana.control_output, control_cone_ptcs)
def process(self, event):
particles = getattr(event, self.cfg_ana.particles)
leptons = getattr(event, self.cfg_ana.leptons)
dressed = []
for lepton in leptons:
sump4 = TLorentzVector()
for particle in particles:
if self.cfg_ana.area.is_inside(lepton.eta(), lepton.phi(),
particle.eta(), particle.phi()):
sump4 += particle.p4()
sump4 += lepton.p4()
dressed.append(Particle(lepton.pdgid(), lepton.q(), sump4))
setattr(event, self.cfg_ana.output, dressed)
def process(self, event):
'''Process event.
The event must contain:
- self.cfg_ana.particles: the input collection of particles.
'''
p4 = TLorentzVector()
charge = 0
pdgid = 0
ptcs = getattr(event, self.cfg_ana.particles)
jet = Jet(p4)
constituents = JetConstituents()
for ptc in ptcs:
p4 += ptc.p4()
charge += ptc.q()
constituents.append(ptc)
sumptc = Particle(pdgid, charge, p4)
jet = Jet(p4)
jet.constituents = constituents
jet.constituents.sort()
setattr(event, self.cfg_ana.output, jet)
def particle(pdgid, thetamin, thetamax, ptmin, ptmax, flat_pt=False):
mass, charge = particle_data[pdgid]
theta = random.uniform(thetamin, thetamax)
phi = random.uniform(-math.pi, math.pi)
energy = random.uniform(ptmin, ptmax)
costheta = math.cos(math.pi / 2. - theta)
sintheta = math.sin(math.pi / 2. - theta)
tantheta = sintheta / costheta
cosphi = math.cos(phi)
sinphi = math.sin(phi)
if flat_pt:
pt = energy
momentum = pt / sintheta
energy = math.sqrt(momentum**2 + mass**2)
else:
energy = max([energy, mass])
momentum = math.sqrt(energy**2 - mass**2)
tlv = TLorentzVector(momentum * sintheta * cosphi,
momentum * sintheta * sinphi, momentum * costheta,
energy)
return Particle(pdgid, charge, tlv)
def process(self, event):
self.tree.reset()
jets_trk08 = getattr(event, self.cfg_ana.jets_trk08_20)
jets_pf04 = getattr(event, self.cfg_ana.jets_pf04)
jets_pf04_pdg = event.jets_pf04_pdg
jets_pf08 = getattr(event, self.cfg_ana.jets_pf08_30)
electrons = getattr(event, self.cfg_ana.electrons)
muons = getattr(event, self.cfg_ana.muons)
Ht = 0
SSee = 0
SSem = 0
SSmm = 0
SSeee = 0
SSeem = 0
SSemm = 0
SSmmm = 0
SS4l = 0
# pt cut on lepton collections in analysis.py
#####################################################################################
##### selection for the SSML channel
#####################################################################################
# flag if this is a same-sign lepton or a multilepton events
nlep = len(electrons) + len(muons)
if (nlep >= 2):
if (len(electrons) > 2):
SSeee = 1
if (len(electrons) == 2 and len(muons) > 0):
SSeem = 1
if (len(electrons) == 2 and len(muons) == 0):
if (electrons[0].pdgid() * electrons[1].pdgid() > 0):
SSee = 1
if (len(electrons) == 1 and len(muons) == 1):
if (electrons[0].pdgid() * muons[0].pdgid() > 0):
SSem = 1
if (len(muons) == 2 and len(electrons) == 0):
if (muons[0].pdgid() * muons[1].pdgid() > 0):
SSmm = 1
if (len(electrons) == 1 and len(muons) > 1):
SSemm = 1
if (len(muons) > 2 and SSeee == 0 and SSeem == 0 and SSemm == 0):
SSmmm = 1
# sum = SSeee+SSeem+SSemm+SSmmm+SSee+SSem+SSmm
# if (sum>1):
# print 'SSeee:',SSeee,' SSeem:',SSeem,' SSemm:',SSemm,' SSmmm:',SSmmm, ' SSee:',SSee,' SSem:', SSem, ' SSmm:',SSmm
if (nlep >= 4):
SS4l = 1
for el in electrons:
Ht += el.pt()
for mu in muons:
Ht += mu.pt()
# number of jets and b-jets (pt cut on jet collection in analysis.py)
njets = len(jets_pf04)
nbjets = 0
for jet in jets_pf04:
Ht += jet.pt()
if (jet.tags['bf'] > 0):
nbjets += 1
# minimum number of jets and b-jets
if (njets >= 5 and nbjets >= 2):
self.tree.fill('numberOfLeptons', nlep)
self.tree.fill('SSee', SSee)
self.tree.fill('SSem', SSem)
self.tree.fill('SSmm', SSmm)
self.tree.fill('SSeee', SSeee)
self.tree.fill('SSeem', SSeem)
self.tree.fill('SSemm', SSemm)
self.tree.fill('SSmmm', SSmmm)
self.tree.fill('SS4l', SS4l)
if (len(electrons) >= 2):
fillParticle(self.tree, 'Electron2', electrons[1])
if (len(electrons) >= 3):
fillParticle(self.tree, 'Electron3', electrons[2])
if (len(muons) >= 1):
fillParticle(self.tree, 'Muon1', muons[0])
if (len(muons) >= 2):
fillParticle(self.tree, 'Muon2', muons[1])
if (len(muons) >= 3):
fillParticle(self.tree, 'Muon3', muons[2])
for jet in jets_pf04:
self.tree.fill('Jet_pt', jet.pt())
for el in electrons:
self.tree.fill('Lep_pt', el.pt())
for mu in muons:
self.tree.fill('Lep_pt', mu.pt())
self.tree.fill('Ht', Ht)
self.tree.fill('numberOfJets', njets)
self.tree.fill('numberOfBJets', nbjets)
self.tree.fill('weight', event.weight)
self.tree.fill('missingET', event.met.pt())
self.tree.fill('numberOfElectrons', len(electrons))
self.tree.fill('numberOfMuons', len(muons))
Jet_dR = []
for i_jet in range(5):
the_Jet_dR = 999
j = ROOT.TLorentzVector()
j.SetPtEtaPhiE(jets_pf04[i_jet].pt(),
jets_pf04[i_jet].eta(),
jets_pf04[i_jet].phi(),
jets_pf04[i_jet].e())
for i_e in range(len(electrons)):
e = ROOT.TLorentzVector()
e.SetPtEtaPhiE(electrons[i_e].pt(),
electrons[i_e].eta(),
electrons[i_e].phi(),
electrons[i_e].e())
if j.DeltaR(e) < the_Jet_dR: the_Jet_dR = j.DeltaR(e)
for i_m in range(len(muons)):
m = ROOT.TLorentzVector()
m.SetPtEtaPhiE(muons[i_m].pt(), muons[i_m].eta(),
muons[i_m].phi(), muons[i_m].e())
if j.DeltaR(m) < the_Jet_dR: the_Jet_dR = j.DeltaR(m)
Jet_dR.append(the_Jet_dR)
self.tree.fill('Jet1_dR_lep', Jet_dR[0])
self.tree.fill('Jet2_dR_lep', Jet_dR[1])
self.tree.fill('Jet3_dR_lep', Jet_dR[2])
self.tree.fill('Jet4_dR_lep', Jet_dR[3])
self.tree.fill('Jet5_dR_lep', Jet_dR[4])
pdg1 = 0
pdg2 = 0
pdg3 = 0
pdg4 = 0
pdg5 = 0
if (jets_pf04[0].tags['bf'] > 0):
pdg1 = 5
if (jets_pf04[1].tags['bf'] > 0):
pdg2 = 5
if (jets_pf04[2].tags['bf'] > 0):
pdg3 = 5
if (jets_pf04[3].tags['bf'] > 0):
pdg4 = 5
if (jets_pf04[4].tags['bf'] > 0):
pdg5 = 5
myjet1 = Particle(pdg1, 0, jets_pf04[0].p4(), 1)
myjet2 = Particle(pdg2, 0, jets_pf04[1].p4(), 1)
myjet3 = Particle(pdg3, 0, jets_pf04[2].p4(), 1)
myjet4 = Particle(pdg4, 0, jets_pf04[3].p4(), 1)
myjet5 = Particle(pdg5, 0, jets_pf04[4].p4(), 1)
fillParticle(self.tree, 'Jet1', myjet1)
fillParticle(self.tree, 'Jet2', myjet2)
fillParticle(self.tree, 'Jet3', myjet3)
fillParticle(self.tree, 'Jet4', myjet4)
fillParticle(self.tree, 'Jet5', myjet5)
# TRF / truth b-tagging -> need at least 2 jets_pf04
use_DELPHES = False
weight_0tagex = 0.
weight_1tagex = 0.
weight_2tagex = 0.
weight_3tagex = 0.
weight_4tagex = 0.
jet = []
ipdg = 0
for i in range(len(jets_pf04)):
if use_DELPHES == True:
ipdg = jets_pf04[i].tags['flav']
if ipdg != 4 and ipdg != 5: ipdg = 0
else:
ipdg = jets_pf04_pdg[i].flavour
jet.append([jets_pf04[i], ipdg])
weight_0tagex = getNbTagEx(0, jet, 4)
weight_1tagex = getNbTagEx(1, jet, 4)
weight_2tagex = getNbTagEx(2, jet, 4)
weight_3tagex = getNbTagEx(3, jet, 4)
weight_4tagex = getNbTagEx(4, jet, 4)
self.tree.fill('weight_0tagex', weight_0tagex)
self.tree.fill('weight_1tagex', weight_1tagex)
self.tree.fill('weight_2tagex', weight_2tagex)
self.tree.fill('weight_3tagex', weight_3tagex)
self.tree.fill('weight_4tagex', weight_4tagex)
#####################################################################################
##### selection for the lepton+jets channel
#####################################################################################
if (len(jets_trk08) >= 4 and len(jets_pf08) >= 4):
if jets_trk08[0].pt() > 200.:
#print len(jets_trk08), len(jets_pf08), len(electrons), len(muons)
j1 = ROOT.TLorentzVector()
j2 = ROOT.TLorentzVector()
j3 = ROOT.TLorentzVector()
j4 = ROOT.TLorentzVector()
j1.SetPtEtaPhiE(jets_trk08[0].pt(), jets_trk08[0].eta(),
jets_trk08[0].phi(), jets_trk08[0].e())
j2.SetPtEtaPhiE(jets_trk08[1].pt(), jets_trk08[1].eta(),
jets_trk08[1].phi(), jets_trk08[1].e())
j3.SetPtEtaPhiE(jets_trk08[2].pt(), jets_trk08[2].eta(),
jets_trk08[2].phi(), jets_trk08[2].e())
j4.SetPtEtaPhiE(jets_trk08[3].pt(), jets_trk08[3].eta(),
jets_trk08[3].phi(), jets_trk08[3].e())
# compute the closest lepton/jet dR
Jet_dR = []
for i_jet in range(4):
the_Jet_dR = 999
j = ROOT.TLorentzVector()
j.SetPtEtaPhiE(jets_trk08[i_jet].pt(),
jets_trk08[i_jet].eta(),
jets_trk08[i_jet].phi(),
jets_trk08[i_jet].e())
for i_e in range(len(electrons)):
e = ROOT.TLorentzVector()
e.SetPtEtaPhiE(electrons[i_e].pt(),
electrons[i_e].eta(),
electrons[i_e].phi(),
electrons[i_e].e())
if j.DeltaR(e) < the_Jet_dR: the_Jet_dR = j.DeltaR(e)
for i_m in range(len(muons)):
m = ROOT.TLorentzVector()
m.SetPtEtaPhiE(muons[i_m].pt(), muons[i_m].eta(),
muons[i_m].phi(), muons[i_m].e())
if j.DeltaR(m) < the_Jet_dR: the_Jet_dR = j.DeltaR(m)
Jet_dR.append(the_Jet_dR)
self.tree.fill('Jet1_trk08_dR_lep', Jet_dR[0])
self.tree.fill('Jet2_trk08_dR_lep', Jet_dR[1])
self.tree.fill('Jet3_trk08_dR_lep', Jet_dR[2])
self.tree.fill('Jet4_trk08_dR_lep', Jet_dR[3])
self.tree.fill('weight', event.weight)
self.tree.fill('missingET', event.met.pt())
self.tree.fill('numberOfElectrons', len(electrons))
self.tree.fill('numberOfMuons', len(muons))
self.tree.fill('rapiditySeparation_trk08_j1j2',
abs(jets_trk08[0].eta() - jets_trk08[1].eta()))
self.tree.fill('rapiditySeparation_trk08_j1j3',
abs(jets_trk08[0].eta() - jets_trk08[2].eta()))
self.tree.fill('rapiditySeparation_trk08_j1j4',
abs(jets_trk08[0].eta() - jets_trk08[3].eta()))
self.tree.fill('transverseMomentumAsymmetry_trk08_j1j2',
(jets_trk08[0].pt() - jets_trk08[1].pt()) /
(jets_trk08[0].pt() + jets_trk08[1].pt()))
self.tree.fill('transverseMomentumAsymmetry_trk08_j1j3',
(jets_trk08[0].pt() - jets_trk08[2].pt()) /
(jets_trk08[0].pt() + jets_trk08[2].pt()))
self.tree.fill('transverseMomentumAsymmetry_trk08_j1j4',
(jets_trk08[0].pt() - jets_trk08[3].pt()) /
(jets_trk08[0].pt() + jets_trk08[3].pt()))
self.tree.fill('Jet1_trk08_tau1', jets_trk08[0].tau1)
self.tree.fill('Jet1_trk08_tau2', jets_trk08[0].tau2)
self.tree.fill('Jet1_trk08_tau3', jets_trk08[0].tau3)
self.tree.fill('Jet2_trk08_tau1', jets_trk08[1].tau1)
self.tree.fill('Jet2_trk08_tau2', jets_trk08[1].tau2)
self.tree.fill('Jet2_trk08_tau3', jets_trk08[1].tau3)
self.tree.fill('Jet3_trk08_tau1', jets_trk08[2].tau1)
self.tree.fill('Jet3_trk08_tau2', jets_trk08[2].tau2)
self.tree.fill('Jet3_trk08_tau3', jets_trk08[2].tau3)
self.tree.fill('Jet4_trk08_tau1', jets_trk08[3].tau1)
self.tree.fill('Jet4_trk08_tau2', jets_trk08[3].tau2)
self.tree.fill('Jet4_trk08_tau3', jets_trk08[3].tau3)
Jet1_trk08_tau31 = -999.0
Jet1_trk08_tau21 = -999.0
Jet1_trk08_tau32 = -999.0
Jet2_trk08_tau31 = -999.0
Jet2_trk08_tau21 = -999.0
Jet2_trk08_tau32 = -999.0
Jet3_trk08_tau31 = -999.0
Jet3_trk08_tau21 = -999.0
Jet3_trk08_tau32 = -999.0
Jet4_trk08_tau31 = -999.0
Jet4_trk08_tau21 = -999.0
Jet4_trk08_tau32 = -999.0
if (jets_trk08[0].tau1 != 0.0):
Jet1_trk08_tau31 = jets_trk08[0].tau3 / jets_trk08[0].tau1
Jet1_trk08_tau21 = jets_trk08[0].tau2 / jets_trk08[0].tau1
if (jets_trk08[0].tau2 != 0.0):
Jet1_trk08_tau32 = jets_trk08[0].tau3 / jets_trk08[0].tau2
if (jets_trk08[1].tau1 != 0.0):
Jet2_trk08_tau31 = jets_trk08[1].tau3 / jets_trk08[1].tau1
Jet2_trk08_tau21 = jets_trk08[1].tau2 / jets_trk08[1].tau1
if (jets_trk08[1].tau2 != 0.0):
Jet2_trk08_tau32 = jets_trk08[1].tau3 / jets_trk08[1].tau2
if (jets_trk08[2].tau1 != 0.0):
Jet3_trk08_tau31 = jets_trk08[2].tau3 / jets_trk08[2].tau1
Jet3_trk08_tau21 = jets_trk08[2].tau2 / jets_trk08[2].tau1
if (jets_trk08[2].tau2 != 0.0):
Jet3_trk08_tau32 = jets_trk08[2].tau3 / jets_trk08[2].tau2
if (jets_trk08[3].tau1 != 0.0):
Jet4_trk08_tau31 = jets_trk08[3].tau3 / jets_trk08[3].tau1
Jet4_trk08_tau21 = jets_trk08[3].tau2 / jets_trk08[3].tau1
if (jets_trk08[3].tau2 != 0.0):
Jet4_trk08_tau32 = jets_trk08[3].tau3 / jets_trk08[3].tau2
self.tree.fill('Jet1_trk08_tau31', Jet1_trk08_tau31)
self.tree.fill('Jet1_trk08_tau21', Jet1_trk08_tau21)
self.tree.fill('Jet1_trk08_tau32', Jet1_trk08_tau32)
self.tree.fill('Jet2_trk08_tau31', Jet2_trk08_tau31)
self.tree.fill('Jet2_trk08_tau21', Jet2_trk08_tau21)
self.tree.fill('Jet2_trk08_tau32', Jet2_trk08_tau32)
self.tree.fill('Jet3_trk08_tau31', Jet3_trk08_tau31)
self.tree.fill('Jet3_trk08_tau21', Jet3_trk08_tau21)
self.tree.fill('Jet3_trk08_tau32', Jet3_trk08_tau32)
self.tree.fill('Jet4_trk08_tau31', Jet4_trk08_tau31)
self.tree.fill('Jet4_trk08_tau21', Jet4_trk08_tau21)
self.tree.fill('Jet4_trk08_tau32', Jet4_trk08_tau32)
# here is btag, need matching in DR
Jet1_trk08_dR_pf04 = 999
Jet2_trk08_dR_pf04 = 999
Jet3_trk08_dR_pf04 = 999
Jet4_trk08_dR_pf04 = 999
for j in jets_pf04:
pf04 = ROOT.TLorentzVector()
pf04.SetPtEtaPhiE(j.pt(), j.eta(), j.phi(), j.e())
if j.tags['bf'] > 0:
if pf04.DeltaR(j1) < Jet1_trk08_dR_pf04:
Jet1_trk08_dR_pf04 = pf04.DeltaR(j1)
if pf04.DeltaR(j2) < Jet2_trk08_dR_pf04:
Jet2_trk08_dR_pf04 = pf04.DeltaR(j2)
if pf04.DeltaR(j3) < Jet3_trk08_dR_pf04:
Jet3_trk08_dR_pf04 = pf04.DeltaR(j3)
if pf04.DeltaR(j4) < Jet4_trk08_dR_pf04:
Jet4_trk08_dR_pf04 = pf04.DeltaR(j4)
pdg1 = 0
pdg2 = 0
pdg3 = 0
pdg4 = 0
if Jet1_trk08_dR_pf04 < 0.3:
pdg1 = 5
if Jet2_trk08_dR_pf04 < 0.3:
pdg2 = 5
if Jet3_trk08_dR_pf04 < 0.3:
pdg3 = 5
if Jet4_trk08_dR_pf04 < 0.3:
pdg4 = 5
# TRF / truth b-tagging -> need at least 2 jets_pf04
use_DELPHES = False
weight_0tagex = 0.
weight_1tagex = 0.
weight_2tagex = 0.
weight_3tagex = 0.
weight_4tagex = 0.
jet = []
ipdg = 0
for i in range(len(jets_pf04)):
if use_DELPHES == True:
ipdg = jets_pf04[i].tags['flav']
if ipdg != 4 and ipdg != 5: ipdg = 0
else:
ipdg = jets_pf04_pdg[i].flavour
jet.append([jets_pf04[i], ipdg])
weight_0tagex = getNbTagEx(0, jet, 4)
weight_1tagex = getNbTagEx(1, jet, 4)
weight_2tagex = getNbTagEx(2, jet, 4)
weight_3tagex = getNbTagEx(3, jet, 4)
weight_4tagex = getNbTagEx(4, jet, 4)
self.tree.fill('weight_0tagex', weight_0tagex)
self.tree.fill('weight_1tagex', weight_1tagex)
self.tree.fill('weight_2tagex', weight_2tagex)
self.tree.fill('weight_3tagex', weight_3tagex)
self.tree.fill('weight_4tagex', weight_4tagex)
######################
# trkjet08 mass info #
######################
#MATCHING PF08 and trk08 for CORRECTION
Jet1_trk08_dR_pf08 = 999
Jet2_trk08_dR_pf08 = 999
Jet3_trk08_dR_pf08 = 999
Jet4_trk08_dR_pf08 = 999
Jet1_pf08 = None
Jet2_pf08 = None
Jet3_pf08 = None
Jet4_pf08 = None
for j in jets_pf08:
pf08 = ROOT.TLorentzVector()
pf08.SetPtEtaPhiE(j.pt(), j.eta(), j.phi(), j.e())
if pf08.DeltaR(j1) < Jet1_trk08_dR_pf08:
Jet1_trk08_dR_pf08 = pf08.DeltaR(j1)
Jet1_pf08 = j
if pf08.DeltaR(j2) < Jet2_trk08_dR_pf08:
Jet2_trk08_dR_pf08 = pf08.DeltaR(j2)
Jet2_pf08 = j
if pf08.DeltaR(j3) < Jet3_trk08_dR_pf08:
Jet3_trk08_dR_pf08 = pf08.DeltaR(j3)
Jet3_pf08 = j
if pf08.DeltaR(j4) < Jet4_trk08_dR_pf08:
Jet4_trk08_dR_pf08 = pf08.DeltaR(j4)
Jet4_pf08 = j
#print 'jet1 dr ',Jet1_trk08_dR_pf08,' pf08 ',Jet1_pf08,' trk08 ',jets_trk08[0]
#print 'jet2 dr ',Jet2_trk08_dR_pf08,' pf08 ',Jet2_pf08,' trk08 ',jets_trk08[1]
corr1 = Jet1_pf08.p4().Pt() / j1.Pt()
corr2 = Jet2_pf08.p4().Pt() / j2.Pt()
corr3 = Jet3_pf08.p4().Pt() / j3.Pt()
corr4 = Jet4_pf08.p4().Pt() / j4.Pt()
#print 'corr 1 ',corr1,' corr2 ',corr2
#NORMAL TRK08 SD corrected jet
p4sd1 = ROOT.TLorentzVector()
p4sd2 = ROOT.TLorentzVector()
p4sd3 = ROOT.TLorentzVector()
p4sd4 = ROOT.TLorentzVector()
p4sd1.SetPtEtaPhiM(
jets_trk08[0].subjetsSoftDrop[0].p4().Pt() * corr1,
jets_trk08[0].eta(), jets_trk08[0].phi(),
jets_trk08[0].subjetsSoftDrop[0].p4().M() * corr1)
p4sd2.SetPtEtaPhiM(
jets_trk08[1].subjetsSoftDrop[0].p4().Pt() * corr2,
jets_trk08[1].eta(), jets_trk08[1].phi(),
jets_trk08[1].subjetsSoftDrop[0].p4().M() * corr2)
p4sd3.SetPtEtaPhiM(
jets_trk08[2].subjetsSoftDrop[0].p4().Pt() * corr3,
jets_trk08[2].eta(), jets_trk08[2].phi(),
jets_trk08[2].subjetsSoftDrop[0].p4().M() * corr3)
p4sd4.SetPtEtaPhiM(
jets_trk08[3].subjetsSoftDrop[0].p4().Pt() * corr4,
jets_trk08[3].eta(), jets_trk08[3].phi(),
jets_trk08[3].subjetsSoftDrop[0].p4().M() * corr4)
sdjet1_corr = Particle(pdg1, 0, p4sd1, 1)
sdjet2_corr = Particle(pdg2, 0, p4sd2, 1)
sdjet3_corr = Particle(pdg3, 0, p4sd3, 1)
sdjet4_corr = Particle(pdg4, 0, p4sd4, 1)
fillParticle(self.tree, 'Jet1_trk08_SD_Corr', sdjet1_corr)
fillParticle(self.tree, 'Jet2_trk08_SD_Corr', sdjet2_corr)
fillParticle(self.tree, 'Jet3_trk08_SD_Corr', sdjet3_corr)
fillParticle(self.tree, 'Jet4_trk08_SD_Corr', sdjet4_corr)
#NORMAL TRK08 SD jet
#sdjet1 = Particle(pdg1, 0, jets_trk08[0].subjetsSoftDrop[0].p4(), 1)
#sdjet2 = Particle(pdg2, 0, jets_trk08[1].subjetsSoftDrop[0].p4(), 1)
#fillParticle(self.tree, 'Jet1_trk08_SD', sdjet1)
#fillParticle(self.tree, 'Jet2_trk08_SD', sdjet2)
#CORRECTED TRK08 jet
p4jet1_corr = ROOT.TLorentzVector()
p4jet2_corr = ROOT.TLorentzVector()
p4jet3_corr = ROOT.TLorentzVector()
p4jet4_corr = ROOT.TLorentzVector()
p4jet1_corr.SetPtEtaPhiM(jets_trk08[0].pt() * corr1,
jets_trk08[0].eta(),
jets_trk08[0].phi(),
jets_trk08[0].m() * corr1)
p4jet2_corr.SetPtEtaPhiM(jets_trk08[1].pt() * corr2,
jets_trk08[1].eta(),
jets_trk08[1].phi(),
jets_trk08[1].m() * corr2)
p4jet3_corr.SetPtEtaPhiM(jets_trk08[2].pt() * corr3,
jets_trk08[2].eta(),
jets_trk08[2].phi(),
jets_trk08[2].m() * corr3)
p4jet4_corr.SetPtEtaPhiM(jets_trk08[3].pt() * corr4,
jets_trk08[3].eta(),
jets_trk08[3].phi(),
jets_trk08[3].m() * corr4)
jet1_corr = Particle(pdg1, 0, p4jet1_corr, 1)
jet2_corr = Particle(pdg2, 0, p4jet2_corr, 1)
jet3_corr = Particle(pdg3, 0, p4jet3_corr, 1)
jet4_corr = Particle(pdg4, 0, p4jet4_corr, 1)
#fillParticle(self.tree, 'Jet1_trk08_Corr', jet1_corr)
#fillParticle(self.tree, 'Jet2_trk08_Corr', jet2_corr)
# associate MET to one jet or another based on softdrop
sdjetmet1, sdjetmet2, sdjetmet3, sdjetmet4 = self.corrMET(
jets_trk08[0].subjetsSoftDrop[0], pdg1,
jets_trk08[1].subjetsSoftDrop[0], pdg2,
jets_trk08[2].subjetsSoftDrop[0], pdg3,
jets_trk08[3].subjetsSoftDrop[0], pdg4, event.met)
fillParticle(self.tree, 'Jet1_trk08_SD_MetCorr', sdjetmet1)
fillParticle(self.tree, 'Jet2_trk08_SD_MetCorr', sdjetmet2)
fillParticle(self.tree, 'Jet3_trk08_SD_MetCorr', sdjetmet3)
fillParticle(self.tree, 'Jet4_trk08_SD_MetCorr', sdjetmet4)
sdjetmet1, sdjetmet2, sdjetmet3, sdjetmet4 = self.corrMET(
sdjet1_corr, pdg1, sdjet2_corr, pdg2, sdjet3_corr, pdg3,
sdjet4_corr, pdg4, event.met)
fillParticle(self.tree, 'Jet1_trk08_SD_Corr_MetCorr',
sdjetmet1)
fillParticle(self.tree, 'Jet2_trk08_SD_Corr_MetCorr',
sdjetmet2)
fillParticle(self.tree, 'Jet3_trk08_SD_Corr_MetCorr',
sdjetmet3)
fillParticle(self.tree, 'Jet4_trk08_SD_Corr_MetCorr',
sdjetmet4)
# form masses
self.tree.fill(
'Mj1j2j3j4_trk08',
self.fillMass(jets_trk08[0], jets_trk08[1], jets_trk08[2],
jets_trk08[3]))
self.tree.fill(
'Mj1j2j3j4_trk08_Corr',
self.fillMass(jet1_corr, jet2_corr, jet3_corr, jet4_corr))
jetmet1, jetmet2, jetmet3, jetmet4 = self.corrMET(
jets_trk08[0], pdg1, jets_trk08[1], pdg2, jets_trk08[2],
pdg3, jets_trk08[3], pdg4, event.met)
self.tree.fill(
'Mj1j2j3j4_trk08_MetCorr',
self.fillMass(jetmet1, jetmet2, jetmet3, jetmet4))
#fillParticle(self.tree, 'Jet1_trk08_MetCorr', jetmet1)
jetmet1, jetmet2, jetmet3, jetmet4 = self.corrMET(
jet1_corr, pdg1, jet2_corr, pdg2, jet3_corr, pdg3,
jet4_corr, pdg4, event.met)
self.tree.fill(
'Mj1j2j3j4_trk08_Corr_MetCorr',
self.fillMass(jetmet1, jetmet2, jetmet3, jetmet4))
fillParticle(self.tree, 'Jet1_trk08_Corr_MetCorr', jetmet1)
fillParticle(self.tree, 'Jet2_trk08_Corr_MetCorr', jetmet2)
fillParticle(self.tree, 'Jet3_trk08_Corr_MetCorr', jetmet3)
fillParticle(self.tree, 'Jet4_trk08_Corr_MetCorr', jetmet4)
self.tree.fill(
'Mj1j2j3j4_pf08',
self.fillMass(jets_pf08[0], jets_pf08[1], jets_pf08[2],
jets_pf08[3]))
jetmet1, jetmet2, jetmet3, jetmet4 = self.corrMET(
jets_pf08[0], pdg1, jets_pf08[1], pdg2, jets_pf08[2], pdg3,
jets_pf08[3], pdg4, event.met)
self.tree.fill(
'Mj1j2j3j4_pf08_MetCorr',
self.fillMass(jetmet1, jetmet2, jetmet3, jetmet4))
if (len(electrons) >= 1):
fillParticle(self.tree, 'Electron1', electrons[0])
if (len(electrons) >= 2):
fillParticle(self.tree, 'Electron2', electrons[1])
if (len(electrons) >= 3):
fillParticle(self.tree, 'Electron3', electrons[2])
if (len(muons) >= 1):
fillParticle(self.tree, 'Muon1', muons[0])
if (len(muons) >= 2):
fillParticle(self.tree, 'Muon2', muons[1])
if (len(muons) >= 3):
fillParticle(self.tree, 'Muon3', muons[2])
self.tree.tree.Fill()
def corrMET(self, jet1, pdg1, jet2, pdg2, jet3, pdg3, jet4, pdg4, met):
dphi1 = abs(jet1.p4().DeltaPhi(met.p4()))
dphi2 = abs(jet2.p4().DeltaPhi(met.p4()))
dphi3 = abs(jet3.p4().DeltaPhi(met.p4()))
dphi4 = abs(jet4.p4().DeltaPhi(met.p4()))
metp4 = ROOT.TLorentzVector()
px = met.p4().Px()
py = met.p4().Py()
dphi_min = min(dphi1, dphi2, dphi3, dphi4)
if (dphi_min == dphi1):
pz = jet1.p4().Pz() / 2.
e = math.sqrt(px**2 + py**2 + pz**2)
metp4.SetPxPyPzE(px, py, pz, e)
jetcorr1 = Particle(pdg1, 0, jet1.p4() + metp4, 1)
jetcorr2 = Particle(pdg2, 0, jet2.p4(), 1)
jetcorr3 = Particle(pdg3, 0, jet3.p4(), 1)
jetcorr4 = Particle(pdg4, 0, jet4.p4(), 1)
elif (dphi_min == dphi2):
pz = jet2.p4().Pz() / 2.
e = math.sqrt(px**2 + py**2 + pz**2)
metp4.SetPxPyPzE(px, py, pz, e)
jetcorr1 = Particle(pdg1, 0, jet1.p4(), 1)
jetcorr2 = Particle(pdg2, 0, jet2.p4() + metp4, 1)
jetcorr3 = Particle(pdg3, 0, jet3.p4(), 1)
jetcorr4 = Particle(pdg4, 0, jet4.p4(), 1)
elif (dphi_min == dphi3):
pz = jet3.p4().Pz() / 2.
e = math.sqrt(px**2 + py**2 + pz**2)
metp4.SetPxPyPzE(px, py, pz, e)
jetcorr1 = Particle(pdg1, 0, jet1.p4(), 1)
jetcorr2 = Particle(pdg2, 0, jet2.p4(), 1)
jetcorr3 = Particle(pdg3, 0, jet3.p4() + metp4, 1)
jetcorr4 = Particle(pdg4, 0, jet4.p4(), 1)
else:
pz = jet4.p4().Pz() / 2.
e = math.sqrt(px**2 + py**2 + pz**2)
metp4.SetPxPyPzE(px, py, pz, e)
jetcorr1 = Particle(pdg1, 0, jet1.p4(), 1)
jetcorr2 = Particle(pdg2, 0, jet2.p4(), 1)
jetcorr3 = Particle(pdg3, 0, jet3.p4(), 1)
jetcorr4 = Particle(pdg4, 0, jet4.p4() + metp4, 1)
return jetcorr1, jetcorr2, jetcorr3, jetcorr4
def process(self, event):
self.tree.reset()
jets_trk08 = getattr(event, self.cfg_ana.jets_trk08_20)
jets_pf04 = getattr(event, self.cfg_ana.jets_pf04_20)
jets_pf04_pdg = event.jets_pf04_20_pdg
jets_pf08 = getattr(event, self.cfg_ana.jets_pf08_30)
electrons = getattr(event, self.cfg_ana.electrons)
muons = getattr(event, self.cfg_ana.muons)
if (len(jets_trk08) >= 4 and len(jets_pf08) >= 4):
if jets_trk08[0].pt() > 200.:
#print len(jets_trk08), len(jets_pf08), len(electrons), len(muons)
j1 = ROOT.TLorentzVector()
j2 = ROOT.TLorentzVector()
j3 = ROOT.TLorentzVector()
j4 = ROOT.TLorentzVector()
j1.SetPtEtaPhiE(jets_trk08[0].pt(), jets_trk08[0].eta(),
jets_trk08[0].phi(), jets_trk08[0].e())
j2.SetPtEtaPhiE(jets_trk08[1].pt(), jets_trk08[1].eta(),
jets_trk08[1].phi(), jets_trk08[1].e())
j3.SetPtEtaPhiE(jets_trk08[2].pt(), jets_trk08[2].eta(),
jets_trk08[2].phi(), jets_trk08[2].e())
j4.SetPtEtaPhiE(jets_trk08[3].pt(), jets_trk08[3].eta(),
jets_trk08[3].phi(), jets_trk08[3].e())
# compute the closest lepton/jet dR
Jet_dR = []
for i_jet in range(4):
the_Jet_dR = 999
j = ROOT.TLorentzVector()
j.SetPtEtaPhiE(jets_trk08[i_jet].pt(),
jets_trk08[i_jet].eta(),
jets_trk08[i_jet].phi(),
jets_trk08[i_jet].e())
for i_e in range(len(electrons)):
e = ROOT.TLorentzVector()
e.SetPtEtaPhiE(electrons[i_e].pt(),
electrons[i_e].eta(),
electrons[i_e].phi(),
electrons[i_e].e())
if j.DeltaR(e) < the_Jet_dR: the_Jet_dR = j.DeltaR(e)
for i_m in range(len(muons)):
m = ROOT.TLorentzVector()
m.SetPtEtaPhiE(muons[i_m].pt(), muons[i_m].eta(),
muons[i_m].phi(), muons[i_m].e())
if j.DeltaR(m) < the_Jet_dR: the_Jet_dR = j.DeltaR(m)
Jet_dR.append(the_Jet_dR)
self.tree.fill('Jet1_trk08_dR_lep', Jet_dR[0])
self.tree.fill('Jet2_trk08_dR_lep', Jet_dR[1])
self.tree.fill('Jet3_trk08_dR_lep', Jet_dR[2])
self.tree.fill('Jet4_trk08_dR_lep', Jet_dR[3])
self.tree.fill('weight', event.weight)
self.tree.fill('missingET', event.met.pt())
self.tree.fill('numberOfElectrons', len(electrons))
self.tree.fill('numberOfMuons', len(muons))
self.tree.fill('rapiditySeparation_trk08_j1j2',
abs(jets_trk08[0].eta() - jets_trk08[1].eta()))
self.tree.fill('rapiditySeparation_trk08_j1j3',
abs(jets_trk08[0].eta() - jets_trk08[2].eta()))
self.tree.fill('rapiditySeparation_trk08_j1j4',
abs(jets_trk08[0].eta() - jets_trk08[3].eta()))
self.tree.fill('transverseMomentumAsymmetry_trk08_j1j2',
(jets_trk08[0].pt() - jets_trk08[1].pt()) /
(jets_trk08[0].pt() + jets_trk08[1].pt()))
self.tree.fill('transverseMomentumAsymmetry_trk08_j1j3',
(jets_trk08[0].pt() - jets_trk08[2].pt()) /
(jets_trk08[0].pt() + jets_trk08[2].pt()))
self.tree.fill('transverseMomentumAsymmetry_trk08_j1j4',
(jets_trk08[0].pt() - jets_trk08[3].pt()) /
(jets_trk08[0].pt() + jets_trk08[3].pt()))
self.tree.fill('Jet1_trk08_tau1', jets_trk08[0].tau1)
self.tree.fill('Jet1_trk08_tau2', jets_trk08[0].tau2)
self.tree.fill('Jet1_trk08_tau3', jets_trk08[0].tau3)
self.tree.fill('Jet2_trk08_tau1', jets_trk08[1].tau1)
self.tree.fill('Jet2_trk08_tau2', jets_trk08[1].tau2)
self.tree.fill('Jet2_trk08_tau3', jets_trk08[1].tau3)
self.tree.fill('Jet3_trk08_tau1', jets_trk08[2].tau1)
self.tree.fill('Jet3_trk08_tau2', jets_trk08[2].tau2)
self.tree.fill('Jet3_trk08_tau3', jets_trk08[2].tau3)
self.tree.fill('Jet4_trk08_tau1', jets_trk08[3].tau1)
self.tree.fill('Jet4_trk08_tau2', jets_trk08[3].tau2)
self.tree.fill('Jet4_trk08_tau3', jets_trk08[3].tau3)
Jet1_trk08_tau31 = -999.0
Jet1_trk08_tau21 = -999.0
Jet1_trk08_tau32 = -999.0
Jet2_trk08_tau31 = -999.0
Jet2_trk08_tau21 = -999.0
Jet2_trk08_tau32 = -999.0
Jet3_trk08_tau31 = -999.0
Jet3_trk08_tau21 = -999.0
Jet3_trk08_tau32 = -999.0
Jet4_trk08_tau31 = -999.0
Jet4_trk08_tau21 = -999.0
Jet4_trk08_tau32 = -999.0
if (jets_trk08[0].tau1 != 0.0):
Jet1_trk08_tau31 = jets_trk08[0].tau3 / jets_trk08[0].tau1
Jet1_trk08_tau21 = jets_trk08[0].tau2 / jets_trk08[0].tau1
if (jets_trk08[0].tau2 != 0.0):
Jet1_trk08_tau32 = jets_trk08[0].tau3 / jets_trk08[0].tau2
if (jets_trk08[1].tau1 != 0.0):
Jet2_trk08_tau31 = jets_trk08[1].tau3 / jets_trk08[1].tau1
Jet2_trk08_tau21 = jets_trk08[1].tau2 / jets_trk08[1].tau1
if (jets_trk08[1].tau2 != 0.0):
Jet2_trk08_tau32 = jets_trk08[1].tau3 / jets_trk08[1].tau2
if (jets_trk08[2].tau1 != 0.0):
Jet3_trk08_tau31 = jets_trk08[2].tau3 / jets_trk08[2].tau1
Jet3_trk08_tau21 = jets_trk08[2].tau2 / jets_trk08[2].tau1
if (jets_trk08[2].tau2 != 0.0):
Jet3_trk08_tau32 = jets_trk08[2].tau3 / jets_trk08[2].tau2
if (jets_trk08[3].tau1 != 0.0):
Jet4_trk08_tau31 = jets_trk08[3].tau3 / jets_trk08[3].tau1
Jet4_trk08_tau21 = jets_trk08[3].tau2 / jets_trk08[3].tau1
if (jets_trk08[3].tau2 != 0.0):
Jet4_trk08_tau32 = jets_trk08[3].tau3 / jets_trk08[3].tau2
self.tree.fill('Jet1_trk08_tau31', Jet1_trk08_tau31)
self.tree.fill('Jet1_trk08_tau21', Jet1_trk08_tau21)
self.tree.fill('Jet1_trk08_tau32', Jet1_trk08_tau32)
self.tree.fill('Jet2_trk08_tau31', Jet2_trk08_tau31)
self.tree.fill('Jet2_trk08_tau21', Jet2_trk08_tau21)
self.tree.fill('Jet2_trk08_tau32', Jet2_trk08_tau32)
self.tree.fill('Jet3_trk08_tau31', Jet3_trk08_tau31)
self.tree.fill('Jet3_trk08_tau21', Jet3_trk08_tau21)
self.tree.fill('Jet3_trk08_tau32', Jet3_trk08_tau32)
self.tree.fill('Jet4_trk08_tau31', Jet4_trk08_tau31)
self.tree.fill('Jet4_trk08_tau21', Jet4_trk08_tau21)
self.tree.fill('Jet4_trk08_tau32', Jet4_trk08_tau32)
# here is btag, need matching in DR
Jet1_trk08_dR_pf04 = 999
Jet2_trk08_dR_pf04 = 999
Jet3_trk08_dR_pf04 = 999
Jet4_trk08_dR_pf04 = 999
for j in jets_pf04:
pf04 = ROOT.TLorentzVector()
pf04.SetPtEtaPhiE(j.pt(), j.eta(), j.phi(), j.e())
if j.tags['bf'] > 0:
if pf04.DeltaR(j1) < Jet1_trk08_dR_pf04:
Jet1_trk08_dR_pf04 = pf04.DeltaR(j1)
if pf04.DeltaR(j2) < Jet2_trk08_dR_pf04:
Jet2_trk08_dR_pf04 = pf04.DeltaR(j2)
if pf04.DeltaR(j3) < Jet3_trk08_dR_pf04:
Jet3_trk08_dR_pf04 = pf04.DeltaR(j3)
if pf04.DeltaR(j4) < Jet4_trk08_dR_pf04:
Jet4_trk08_dR_pf04 = pf04.DeltaR(j4)
pdg1 = 0
pdg2 = 0
pdg3 = 0
pdg4 = 0
if Jet1_trk08_dR_pf04 < 0.3:
pdg1 = 5
if Jet2_trk08_dR_pf04 < 0.3:
pdg2 = 5
if Jet3_trk08_dR_pf04 < 0.3:
pdg3 = 5
if Jet4_trk08_dR_pf04 < 0.3:
pdg4 = 5
# TRF / truth b-tagging -> need at least 2 jets_pf04
use_DELPHES = False
weight_0tagex = 0.
weight_1tagex = 0.
weight_2tagex = 0.
weight_3tagex = 0.
weight_4tagex = 0.
jet = []
ipdg = 0
for i in range(len(jets_pf04)):
if use_DELPHES == True:
ipdg = jets_pf04[i].tags['flav']
if ipdg != 4 and ipdg != 5: ipdg = 0
else:
ipdg = jets_pf04_pdg[i].flavour
jet.append([jets_pf04[i], ipdg])
weight_0tagex = getNbTagEx(0, jet, 4)
weight_1tagex = getNbTagEx(1, jet, 4)
weight_2tagex = getNbTagEx(2, jet, 4)
weight_3tagex = getNbTagEx(3, jet, 4)
weight_4tagex = getNbTagEx(4, jet, 4)
self.tree.fill('weight_0tagex', weight_0tagex)
self.tree.fill('weight_1tagex', weight_1tagex)
self.tree.fill('weight_2tagex', weight_2tagex)
self.tree.fill('weight_3tagex', weight_3tagex)
self.tree.fill('weight_4tagex', weight_4tagex)
######################
# trkjet08 mass info #
######################
#MATCHING PF08 and trk08 for CORRECTION
Jet1_trk08_dR_pf08 = 999
Jet2_trk08_dR_pf08 = 999
Jet3_trk08_dR_pf08 = 999
Jet4_trk08_dR_pf08 = 999
Jet1_pf08 = None
Jet2_pf08 = None
Jet3_pf08 = None
Jet4_pf08 = None
for j in jets_pf08:
pf08 = ROOT.TLorentzVector()
pf08.SetPtEtaPhiE(j.pt(), j.eta(), j.phi(), j.e())
if pf08.DeltaR(j1) < Jet1_trk08_dR_pf08:
Jet1_trk08_dR_pf08 = pf08.DeltaR(j1)
Jet1_pf08 = j
if pf08.DeltaR(j2) < Jet2_trk08_dR_pf08:
Jet2_trk08_dR_pf08 = pf08.DeltaR(j2)
Jet2_pf08 = j
if pf08.DeltaR(j3) < Jet3_trk08_dR_pf08:
Jet3_trk08_dR_pf08 = pf08.DeltaR(j3)
Jet3_pf08 = j
if pf08.DeltaR(j4) < Jet4_trk08_dR_pf08:
Jet4_trk08_dR_pf08 = pf08.DeltaR(j4)
Jet4_pf08 = j
#print 'jet1 dr ',Jet1_trk08_dR_pf08,' pf08 ',Jet1_pf08,' trk08 ',jets_trk08[0]
#print 'jet2 dr ',Jet2_trk08_dR_pf08,' pf08 ',Jet2_pf08,' trk08 ',jets_trk08[1]
corr1 = Jet1_pf08.p4().Pt() / j1.Pt()
corr2 = Jet2_pf08.p4().Pt() / j2.Pt()
corr3 = Jet3_pf08.p4().Pt() / j3.Pt()
corr4 = Jet4_pf08.p4().Pt() / j4.Pt()
#print 'corr 1 ',corr1,' corr2 ',corr2
#NORMAL TRK08 SD corrected jet
p4sd1 = ROOT.TLorentzVector()
p4sd2 = ROOT.TLorentzVector()
p4sd3 = ROOT.TLorentzVector()
p4sd4 = ROOT.TLorentzVector()
p4sd1.SetPtEtaPhiM(
jets_trk08[0].subjetsSoftDrop[0].p4().Pt() * corr1,
jets_trk08[0].eta(), jets_trk08[0].phi(),
jets_trk08[0].subjetsSoftDrop[0].p4().M() * corr1)
p4sd2.SetPtEtaPhiM(
jets_trk08[1].subjetsSoftDrop[0].p4().Pt() * corr2,
jets_trk08[1].eta(), jets_trk08[1].phi(),
jets_trk08[1].subjetsSoftDrop[0].p4().M() * corr2)
p4sd3.SetPtEtaPhiM(
jets_trk08[2].subjetsSoftDrop[0].p4().Pt() * corr3,
jets_trk08[2].eta(), jets_trk08[2].phi(),
jets_trk08[2].subjetsSoftDrop[0].p4().M() * corr3)
p4sd4.SetPtEtaPhiM(
jets_trk08[3].subjetsSoftDrop[0].p4().Pt() * corr4,
jets_trk08[3].eta(), jets_trk08[3].phi(),
jets_trk08[3].subjetsSoftDrop[0].p4().M() * corr4)
sdjet1_corr = Particle(pdg1, 0, p4sd1, 1)
sdjet2_corr = Particle(pdg2, 0, p4sd2, 1)
sdjet3_corr = Particle(pdg3, 0, p4sd3, 1)
sdjet4_corr = Particle(pdg4, 0, p4sd4, 1)
fillParticle(self.tree, 'Jet1_trk08_SD_Corr', sdjet1_corr)
fillParticle(self.tree, 'Jet2_trk08_SD_Corr', sdjet2_corr)
fillParticle(self.tree, 'Jet3_trk08_SD_Corr', sdjet3_corr)
fillParticle(self.tree, 'Jet4_trk08_SD_Corr', sdjet4_corr)
#NORMAL TRK08 SD jet
#sdjet1 = Particle(pdg1, 0, jets_trk08[0].subjetsSoftDrop[0].p4(), 1)
#sdjet2 = Particle(pdg2, 0, jets_trk08[1].subjetsSoftDrop[0].p4(), 1)
#fillParticle(self.tree, 'Jet1_trk08_SD', sdjet1)
#fillParticle(self.tree, 'Jet2_trk08_SD', sdjet2)
#CORRECTED TRK08 jet
p4jet1_corr = ROOT.TLorentzVector()
p4jet2_corr = ROOT.TLorentzVector()
p4jet3_corr = ROOT.TLorentzVector()
p4jet4_corr = ROOT.TLorentzVector()
p4jet1_corr.SetPtEtaPhiM(jets_trk08[0].pt() * corr1,
jets_trk08[0].eta(),
jets_trk08[0].phi(),
jets_trk08[0].m() * corr1)
p4jet2_corr.SetPtEtaPhiM(jets_trk08[1].pt() * corr2,
jets_trk08[1].eta(),
jets_trk08[1].phi(),
jets_trk08[1].m() * corr2)
p4jet3_corr.SetPtEtaPhiM(jets_trk08[2].pt() * corr3,
jets_trk08[2].eta(),
jets_trk08[2].phi(),
jets_trk08[2].m() * corr3)
p4jet4_corr.SetPtEtaPhiM(jets_trk08[3].pt() * corr4,
jets_trk08[3].eta(),
jets_trk08[3].phi(),
jets_trk08[3].m() * corr4)
jet1_corr = Particle(pdg1, 0, p4jet1_corr, 1)
jet2_corr = Particle(pdg2, 0, p4jet2_corr, 1)
jet3_corr = Particle(pdg3, 0, p4jet3_corr, 1)
jet4_corr = Particle(pdg4, 0, p4jet4_corr, 1)
#fillParticle(self.tree, 'Jet1_trk08_Corr', jet1_corr)
#fillParticle(self.tree, 'Jet2_trk08_Corr', jet2_corr)
# associate MET to one jet or another based on softdrop
sdjetmet1, sdjetmet2, sdjetmet3, sdjetmet4 = self.corrMET(
jets_trk08[0].subjetsSoftDrop[0], pdg1,
jets_trk08[1].subjetsSoftDrop[0], pdg2,
jets_trk08[2].subjetsSoftDrop[0], pdg3,
jets_trk08[3].subjetsSoftDrop[0], pdg4, event.met)
fillParticle(self.tree, 'Jet1_trk08_SD_MetCorr', sdjetmet1)
fillParticle(self.tree, 'Jet2_trk08_SD_MetCorr', sdjetmet2)
fillParticle(self.tree, 'Jet3_trk08_SD_MetCorr', sdjetmet3)
fillParticle(self.tree, 'Jet4_trk08_SD_MetCorr', sdjetmet4)
sdjetmet1, sdjetmet2, sdjetmet3, sdjetmet4 = self.corrMET(
sdjet1_corr, pdg1, sdjet2_corr, pdg2, sdjet3_corr, pdg3,
sdjet4_corr, pdg4, event.met)
fillParticle(self.tree, 'Jet1_trk08_SD_Corr_MetCorr',
sdjetmet1)
fillParticle(self.tree, 'Jet2_trk08_SD_Corr_MetCorr',
sdjetmet2)
fillParticle(self.tree, 'Jet3_trk08_SD_Corr_MetCorr',
sdjetmet3)
fillParticle(self.tree, 'Jet4_trk08_SD_Corr_MetCorr',
sdjetmet4)
# form masses
self.tree.fill(
'Mj1j2j3j4_trk08',
self.fillMass(jets_trk08[0], jets_trk08[1], jets_trk08[2],
jets_trk08[3]))
self.tree.fill(
'Mj1j2j3j4_trk08_Corr',
self.fillMass(jet1_corr, jet2_corr, jet3_corr, jet4_corr))
jetmet1, jetmet2, jetmet3, jetmet4 = self.corrMET(
jets_trk08[0], pdg1, jets_trk08[1], pdg2, jets_trk08[2],
pdg3, jets_trk08[3], pdg4, event.met)
self.tree.fill(
'Mj1j2j3j4_trk08_MetCorr',
self.fillMass(jetmet1, jetmet2, jetmet3, jetmet4))
#fillParticle(self.tree, 'Jet1_trk08_MetCorr', jetmet1)
jetmet1, jetmet2, jetmet3, jetmet4 = self.corrMET(
jet1_corr, pdg1, jet2_corr, pdg2, jet3_corr, pdg3,
jet4_corr, pdg4, event.met)
self.tree.fill(
'Mj1j2j3j4_trk08_Corr_MetCorr',
self.fillMass(jetmet1, jetmet2, jetmet3, jetmet4))
fillParticle(self.tree, 'Jet1_trk08_Corr_MetCorr', jetmet1)
fillParticle(self.tree, 'Jet2_trk08_Corr_MetCorr', jetmet2)
fillParticle(self.tree, 'Jet3_trk08_Corr_MetCorr', jetmet3)
fillParticle(self.tree, 'Jet4_trk08_Corr_MetCorr', jetmet4)
self.tree.fill(
'Mj1j2j3j4_pf08',
self.fillMass(jets_pf08[0], jets_pf08[1], jets_pf08[2],
jets_pf08[3]))
jetmet1, jetmet2, jetmet3, jetmet4 = self.corrMET(
jets_pf08[0], pdg1, jets_pf08[1], pdg2, jets_pf08[2], pdg3,
jets_pf08[3], pdg4, event.met)
self.tree.fill(
'Mj1j2j3j4_pf08_MetCorr',
self.fillMass(jetmet1, jetmet2, jetmet3, jetmet4))
if (len(electrons) >= 1):
fillParticle(self.tree, 'Electron1', electrons[0])
if (len(electrons) >= 2):
fillParticle(self.tree, 'Electron2', electrons[1])
if (len(electrons) >= 3):
fillParticle(self.tree, 'Electron3', electrons[2])
if (len(muons) >= 1):
fillParticle(self.tree, 'Muon1', muons[0])
if (len(muons) >= 2):
fillParticle(self.tree, 'Muon2', muons[1])
if (len(muons) >= 3):
fillParticle(self.tree, 'Muon3', muons[2])
self.tree.tree.Fill()
def process(self, event):
self.tree.reset()
jets_trk02 = getattr(event, self.cfg_ana.jets_trk02_1000)
jets_pf02 = getattr(event, self.cfg_ana.jets_pf02_1500)
jets_pf04 = getattr(event, self.cfg_ana.jets_pf04_1000)
jets_pf08 = getattr(event, self.cfg_ana.jets_pf08_1500)
jets_pf04_1500 = getattr(event, self.cfg_ana.jets_pf04_1500)
jets_trk04 = getattr(event, self.cfg_ana.jets_trk04_1000)
jets_trk08 = getattr(event, self.cfg_ana.jets_trk08_1000)
electrons = getattr(event, self.cfg_ana.electrons)
muons = getattr(event, self.cfg_ana.muons)
if (len(jets_trk02) >= 2 and len(jets_pf02) >= 2):
self.tree.fill('weight', event.weight)
self.tree.fill('rapiditySeparation_trk02',
abs(jets_trk02[0].eta() - jets_trk02[1].eta()))
self.tree.fill('transverseMomentumAsymmetry_trk02',
(jets_trk02[0].pt() - jets_trk02[1].pt()) /
(jets_trk02[0].pt() + jets_trk02[1].pt()))
self.tree.fill('Jet1_trk02_tau1', jets_trk02[0].tau1)
self.tree.fill('Jet1_trk02_tau2', jets_trk02[0].tau2)
self.tree.fill('Jet1_trk02_tau3', jets_trk02[0].tau3)
self.tree.fill('Jet2_trk02_tau1', jets_trk02[1].tau1)
self.tree.fill('Jet2_trk02_tau2', jets_trk02[1].tau2)
self.tree.fill('Jet2_trk02_tau3', jets_trk02[1].tau3)
self.tree.fill('numberOfElectrons', len(electrons))
self.tree.fill('numberOfMuons', len(muons))
if (len(muons) >= 1): fillParticle(self.tree, 'Muon1', muons[0])
if (len(muons) >= 2): fillParticle(self.tree, 'Muon2', muons[1])
Jet1_trk02_tau31 = -9.0
Jet1_trk02_tau21 = -9.0
Jet1_trk02_tau32 = -9.0
Jet2_trk02_tau31 = -9.0
Jet2_trk02_tau21 = -9.0
Jet2_trk02_tau32 = -9.0
if (jets_trk02[0].tau1 != 0.0):
Jet1_trk02_tau31 = jets_trk02[0].tau3 / jets_trk02[0].tau1
Jet1_trk02_tau21 = jets_trk02[0].tau2 / jets_trk02[0].tau1
if (jets_trk02[0].tau2 != 0.0):
Jet1_trk02_tau32 = jets_trk02[0].tau3 / jets_trk02[0].tau2
if (jets_trk02[1].tau1 != 0.0):
Jet2_trk02_tau31 = jets_trk02[1].tau3 / jets_trk02[1].tau1
Jet2_trk02_tau21 = jets_trk02[1].tau2 / jets_trk02[1].tau1
if (jets_trk02[1].tau2 != 0.0):
Jet2_trk02_tau32 = jets_trk02[1].tau3 / jets_trk02[1].tau2
self.tree.fill('Jet1_trk02_tau31', Jet1_trk02_tau31)
self.tree.fill('Jet1_trk02_tau21', Jet1_trk02_tau21)
self.tree.fill('Jet1_trk02_tau32', Jet1_trk02_tau32)
self.tree.fill('Jet2_trk02_tau31', Jet2_trk02_tau31)
self.tree.fill('Jet2_trk02_tau21', Jet2_trk02_tau21)
self.tree.fill('Jet2_trk02_tau32', Jet2_trk02_tau32)
j1 = ROOT.TLorentzVector()
j2 = ROOT.TLorentzVector()
j1.SetPtEtaPhiE(jets_trk02[0].pt(), jets_trk02[0].eta(),
jets_trk02[0].phi(), jets_trk02[0].e())
j2.SetPtEtaPhiE(jets_trk02[1].pt(), jets_trk02[1].eta(),
jets_trk02[1].phi(), jets_trk02[1].e())
#MATCHING PF02 and trk02 for CORRECTION
Jet1_trk02_dR_pf02 = 999
Jet2_trk02_dR_pf02 = 999
Jet1_pf02 = None
Jet2_pf02 = None
for j in jets_pf02:
pf02 = ROOT.TLorentzVector()
pf02.SetPtEtaPhiE(j.pt(), j.eta(), j.phi(), j.e())
if pf02.DeltaR(j1) < Jet1_trk02_dR_pf02:
Jet1_trk02_dR_pf02 = pf02.DeltaR(j1)
Jet1_pf02 = j
if pf02.DeltaR(j2) < Jet2_trk02_dR_pf02:
Jet2_trk02_dR_pf02 = pf02.DeltaR(j2)
Jet2_pf02 = j
#print 'jet1 dr ',Jet1_trk02_dR_pf02,' pf02 ',Jet1_pf02,' trk02 ',jets_trk02[0]
#print 'jet2 dr ',Jet2_trk02_dR_pf02,' pf02 ',Jet2_pf02,' trk02 ',jets_trk02[1]
corr1 = Jet1_pf02.p4().Pt() / j1.Pt()
corr2 = Jet2_pf02.p4().Pt() / j2.Pt()
#print 'corr 1 ',corr1,' corr2 ',corr2
#NORMAL TRK02 SD corrected jet
p4sd1 = ROOT.TLorentzVector()
p4sd2 = ROOT.TLorentzVector()
p4sd1.SetPtEtaPhiM(
jets_trk02[0].subjetsSoftDrop[0].p4().Pt() * corr1,
jets_trk02[0].eta(), jets_trk02[0].phi(),
jets_trk02[0].subjetsSoftDrop[0].p4().M() * corr1)
p4sd2.SetPtEtaPhiM(
jets_trk02[1].subjetsSoftDrop[0].p4().Pt() * corr2,
jets_trk02[1].eta(), jets_trk02[1].phi(),
jets_trk02[1].subjetsSoftDrop[0].p4().M() * corr2)
pdg1 = 0
pdg2 = 0
sdjet1_corr = Particle(pdg1, 0, p4sd1, 1)
sdjet2_corr = Particle(pdg2, 0, p4sd2, 1)
fillParticle(self.tree, 'Jet1_trk02_SD_Corr', sdjet1_corr)
fillParticle(self.tree, 'Jet2_trk02_SD_Corr', sdjet2_corr)
######################
# trkjet04 mass info #
######################
#MATCHING PF04 and trk04 for CORRECTION
Jet1_trk04_dR_pf04 = 999
Jet2_trk04_dR_pf04 = 999
Jet1_pf04 = None
Jet2_pf04 = None
for j in jets_pf04_1500:
pf04 = ROOT.TLorentzVector()
pf04.SetPtEtaPhiE(j.pt(), j.eta(), j.phi(), j.e())
if pf04.DeltaR(j1) < Jet1_trk04_dR_pf04:
Jet1_trk04_dR_pf04 = pf04.DeltaR(j1)
Jet1_pf04 = j
if pf04.DeltaR(j2) < Jet2_trk04_dR_pf04:
Jet2_trk04_dR_pf04 = pf04.DeltaR(j2)
Jet2_pf04 = j
corr1_04 = Jet1_pf04.p4().Pt() / j1.Pt()
corr2_04 = Jet2_pf04.p4().Pt() / j2.Pt()
#NORMAL TRK04 SD corrected jet
p4sd1_04 = ROOT.TLorentzVector()
p4sd2_04 = ROOT.TLorentzVector()
Jet1_trk04_SD_Corr_m = -1000.
Jet2_trk04_SD_Corr_m = -1000.
if len(jets_trk04) >= 1:
p4sd1_04.SetPtEtaPhiM(
jets_trk04[0].subjetsSoftDrop[0].p4().Pt() * corr1_04,
jets_trk04[0].eta(), jets_trk04[0].phi(),
jets_trk04[0].subjetsSoftDrop[0].p4().M() * corr1_04)
pdg1 = 0
sdjet1_corr_04 = Particle(pdg1, 0, p4sd1_04, 1)
Jet1_trk04_SD_Corr_m = sdjet1_corr_04.p4().M()
if len(jets_trk04) >= 2:
p4sd2_04.SetPtEtaPhiM(
jets_trk04[1].subjetsSoftDrop[0].p4().Pt() * corr2_04,
jets_trk04[1].eta(), jets_trk04[1].phi(),
jets_trk04[1].subjetsSoftDrop[0].p4().M() * corr2_04)
pdg2 = 0
sdjet2_corr_04 = Particle(pdg2, 0, p4sd2_04, 1)
Jet2_trk04_SD_Corr_m = sdjet2_corr_04.p4().M()
self.tree.fill('Jet1_trk04_SD_Corr_m', Jet1_trk04_SD_Corr_m)
self.tree.fill('Jet2_trk04_SD_Corr_m', Jet2_trk04_SD_Corr_m)
######################
# trkjet08 mass info #
######################
#MATCHING PF08 and trk08 for CORRECTION
Jet1_trk08_dR_pf08 = 999
Jet2_trk08_dR_pf08 = 999
Jet1_pf08 = None
Jet2_pf08 = None
for j in jets_pf08:
pf08 = ROOT.TLorentzVector()
pf08.SetPtEtaPhiE(j.pt(), j.eta(), j.phi(), j.e())
if pf08.DeltaR(j1) < Jet1_trk08_dR_pf08:
Jet1_trk08_dR_pf08 = pf08.DeltaR(j1)
Jet1_pf08 = j
if pf08.DeltaR(j2) < Jet2_trk08_dR_pf08:
Jet2_trk08_dR_pf08 = pf08.DeltaR(j2)
Jet2_pf08 = j
corr1_08 = Jet1_pf08.p4().Pt() / j1.Pt()
corr2_08 = Jet2_pf08.p4().Pt() / j2.Pt()
#NORMAL TRK08 SD corrected jet
p4sd1_08 = ROOT.TLorentzVector()
p4sd2_08 = ROOT.TLorentzVector()
Jet1_trk08_SD_Corr_m = -1000.
Jet2_trk08_SD_Corr_m = -1000.
if len(jets_trk08) >= 1:
p4sd1_08.SetPtEtaPhiM(
jets_trk08[0].subjetsSoftDrop[0].p4().Pt() * corr1_08,
jets_trk08[0].eta(), jets_trk08[0].phi(),
jets_trk08[0].subjetsSoftDrop[0].p4().M() * corr1_08)
pdg1 = 0
sdjet1_corr_08 = Particle(pdg1, 0, p4sd1_08, 1)
Jet1_trk08_SD_Corr_m = sdjet1_corr_08.p4().M()
if len(jets_trk08) >= 2:
p4sd2_08.SetPtEtaPhiM(
jets_trk08[1].subjetsSoftDrop[0].p4().Pt() * corr2_08,
jets_trk08[1].eta(), jets_trk08[1].phi(),
jets_trk08[1].subjetsSoftDrop[0].p4().M() * corr2_08)
pdg2 = 0
sdjet2_corr_08 = Particle(pdg2, 0, p4sd2_08, 1)
Jet2_trk08_SD_Corr_m = sdjet2_corr_08.p4().M()
self.tree.fill('Jet1_trk08_SD_Corr_m', Jet1_trk08_SD_Corr_m)
self.tree.fill('Jet2_trk08_SD_Corr_m', Jet2_trk08_SD_Corr_m)
#CORRECTED TRK02 jet
p4jet1_corr = ROOT.TLorentzVector()
p4jet2_corr = ROOT.TLorentzVector()
p4jet1_corr.SetPtEtaPhiM(jets_trk02[0].pt() * corr1,
jets_trk02[0].eta(), jets_trk02[0].phi(),
jets_trk02[0].m() * corr1)
p4jet2_corr.SetPtEtaPhiM(jets_trk02[1].pt() * corr2,
jets_trk02[1].eta(), jets_trk02[1].phi(),
jets_trk02[1].m() * corr2)
jet1_corr = Particle(pdg1, 0, p4jet1_corr, 1)
jet2_corr = Particle(pdg2, 0, p4jet2_corr, 1)
if (len(jets_trk02) > 1):
self.tree.fill('Mj1j2_trk02',
self.fillMass(jets_trk02[0], jets_trk02[1]))
self.tree.fill('Mj1j2_trk02_Corr',
self.fillMass(jet1_corr, jet2_corr))
if (len(jets_pf02) > 1):
self.tree.fill('Mj1j2_pf02',
self.fillMass(jets_pf02[0], jets_pf02[1]))
if (len(jets_pf04) > 1):
self.tree.fill('Mj1j2_pf04',
self.fillMass(jets_pf04[0], jets_pf04[1]))
if (len(jets_pf08) > 1):
self.tree.fill('Mj1j2_pf08',
self.fillMass(jets_pf08[0], jets_pf08[1]))
#Flow n,5
#############################################################################
#REQUIRES THE FOLLOWING IN heppy/analyzers/fcc/Reader.py AFTER LINE 151:
# particle_relations = defaultdict(list)
# for tjet in store.get(self.cfg_ana.fatjets):
# for i in range(tjet.particles_size()):
# particle_relations[Jet(tjet)].append(Particle(tjet.particles(i)))
# for fatjet, particles in particle_relations.items():
# fatjets[fatjet].jetConstituents = particles
#############################################################################
#R = 0.8 # init
R = 0.05
flow_Jet1 = [0] * 5
flow_Jet2 = [0] * 5
if len(jets_pf08) < 2: return
jet1_ungroomed = ROOT.TLorentzVector()
jet2_ungroomed = ROOT.TLorentzVector()
jet1_ungroomed.SetPtEtaPhiE(jets_pf08[0].pt(), jets_pf08[0].eta(),
jets_pf08[0].phi(), jets_pf08[0].e())
jet2_ungroomed.SetPtEtaPhiE(jets_pf08[1].pt(), jets_pf08[1].eta(),
jets_pf08[1].phi(), jets_pf08[1].e())
constituent_vector = ROOT.TLorentzVector()
for n in range(1, 5 + 1):
for constituent in jets_pf08[0].jetConstituents[1:]:
constituent_vector.SetPtEtaPhiE(constituent.pt(),
constituent.eta(),
constituent.phi(),
constituent.e())
dR = jet1_ungroomed.DeltaR(constituent_vector)
if ((dR >= (n - 1) / 5 * R) and (dR < n / 5 * R)):
flow_Jet1[n - 1] += abs(constituent.pt()) / abs(
jets_pf08[0].pt())
for constituent in jets_pf08[1].jetConstituents[1:]:
constituent_vector.SetPtEtaPhiE(constituent.pt(),
constituent.eta(),
constituent.phi(),
constituent.e())
dR = jet2_ungroomed.DeltaR(constituent_vector)
if ((dR >= (n - 1) / 5 * R) and (dR < n / 5 * R)):
flow_Jet2[n - 1] += abs(constituent.pt()) / abs(
jets_pf08[1].pt())
self.tree.fill('Jet1_Flow15', flow_Jet1[0])
self.tree.fill('Jet2_Flow15', flow_Jet2[0])
self.tree.fill('Jet1_Flow25', flow_Jet1[1])
self.tree.fill('Jet2_Flow25', flow_Jet2[1])
self.tree.fill('Jet1_Flow35', flow_Jet1[2])
self.tree.fill('Jet2_Flow35', flow_Jet2[2])
self.tree.fill('Jet1_Flow45', flow_Jet1[3])
self.tree.fill('Jet2_Flow45', flow_Jet2[3])
self.tree.fill('Jet1_Flow55', flow_Jet1[4])
self.tree.fill('Jet2_Flow55', flow_Jet2[4])
###################################
#TMVA Stuff Starts!
###################################
self.bdt_Jet_trk02_tau1[0] = jets_trk02[0].tau1
self.bdt_Jet_trk02_tau2[0] = jets_trk02[0].tau2
self.bdt_Jet_trk02_tau3[0] = jets_trk02[0].tau3
self.bdt_Jet_trk02_tau21[0] = Jet1_trk02_tau21
self.bdt_Jet_trk02_tau31[0] = Jet1_trk02_tau31
self.bdt_Jet_trk02_tau32[0] = Jet1_trk02_tau32
self.bdt_Jet_trk02_SD_Corr_m[0] = sdjet1_corr.p4().M()
if len(jets_trk04) >= 1:
self.bdt_Jet_trk04_SD_Corr_m[0] = sdjet1_corr_04.p4().M()
else:
self.bdt_Jet_trk04_SD_Corr_m[0] = -1000.
if len(jets_trk08) >= 1:
self.bdt_Jet_trk08_SD_Corr_m[0] = sdjet1_corr_08.p4().M()
else:
self.bdt_Jet_trk08_SD_Corr_m[0] = -1000.
self.bdt_Jet_Flow15[0] = flow_Jet1[0]
self.bdt_Jet_Flow25[0] = flow_Jet1[1]
self.bdt_Jet_Flow35[0] = flow_Jet1[2]
self.bdt_Jet_Flow45[0] = flow_Jet1[3]
self.bdt_Jet_Flow55[0] = flow_Jet1[4]
mva_value = self.reader.EvaluateMVA("BDT")
self.tree.fill('Jet1_Whad_vs_QCD_tagger', mva_value)
#
self.bdt_Jet_trk02_tau1[0] = jets_trk02[1].tau1
self.bdt_Jet_trk02_tau2[0] = jets_trk02[1].tau2
self.bdt_Jet_trk02_tau3[0] = jets_trk02[1].tau3
self.bdt_Jet_trk02_tau21[0] = Jet2_trk02_tau21
self.bdt_Jet_trk02_tau31[0] = Jet2_trk02_tau31
self.bdt_Jet_trk02_tau32[0] = Jet2_trk02_tau32
self.bdt_Jet_trk02_SD_Corr_m[0] = sdjet2_corr.p4().M()
if len(jets_trk04) >= 2:
self.bdt_Jet_trk04_SD_Corr_m[0] = sdjet2_corr_04.p4().M()
else:
self.bdt_Jet_trk04_SD_Corr_m[0] = -1000.
if len(jets_trk08) >= 2:
self.bdt_Jet_trk08_SD_Corr_m[0] = sdjet2_corr_08.p4().M()
else:
self.bdt_Jet_trk08_SD_Corr_m[0] = -1000.
self.bdt_Jet_Flow15[0] = flow_Jet2[0]
self.bdt_Jet_Flow25[0] = flow_Jet2[1]
self.bdt_Jet_Flow35[0] = flow_Jet2[2]
self.bdt_Jet_Flow45[0] = flow_Jet2[3]
self.bdt_Jet_Flow55[0] = flow_Jet2[4]
mva_value = self.reader.EvaluateMVA("BDT")
self.tree.fill('Jet2_Whad_vs_QCD_tagger', mva_value)
self.tree.tree.Fill()
def process(self, event):
self.tree.reset()
jets_trk02 = getattr(event, self.cfg_ana.jets_trk02_1000)
jets_pf02 = getattr(event, self.cfg_ana.jets_pf02_1500)
jets_pf04 = getattr(event, self.cfg_ana.jets_pf04_1000)
jets_pf04_pdg = event.jets_pf04_1000_pdg
jets_pf08 = getattr(event, self.cfg_ana.jets_pf08_1500)
#gen_particles = event.all_particles
jets_pf04_1500 = getattr(event, self.cfg_ana.jets_pf04_1500)
jets_trk04 = getattr(event, self.cfg_ana.jets_trk04_1000)
jets_trk08 = getattr(event, self.cfg_ana.jets_trk08_1000)
electrons = getattr(event, self.cfg_ana.electrons)
muons = getattr(event, self.cfg_ana.muons)
#self.tree2.reset()
##
#label = -1
#part1 = -10000
#part2 = -10000
#index = 0
#part_index = -1
#count = 0
#for j in gen_particles :
# # 1st part
# if (j.status()==22 or j.status()==23) and count==0:
# part1 = j.pdgid()
# count += 1
# part_index = index
# # 2nd part
# if (j.status()==22 or j.status()==23) and count==1 and j.q()+gen_particles[part_index].q()==0:
# part2 = j.pdgid()
# count += 1
# index += 1
#if abs(part1)==6 and abs(part2)==6 : label = 6
#if abs(part1)==5 and abs(part2)==5 : label = 5
#if abs(part1)==4 and abs(part2)==4 : label = 4
#if abs(part1)==3 and abs(part2)==3 : label = 0
#if abs(part1)==2 and abs(part2)==2 : label = 0
#if abs(part1)==1 and abs(part2)==1 : label = 0
## missed cases
#if label == -1 :
# count = 0
# for j in gen_particles :
# if count<10 and abs(j.pdgid())==6 :
# label = 6
# count += 1
#if label==-1 : print "issue label==-1"
##
#self.tree2.fill('label' , label )
#self.tree2.tree.Fill()
Jet1_trk02_dR_lep = 999
Jet2_trk02_dR_lep = 999
if ( len(jets_trk02)>=2 and len(jets_pf02)>=2):
#self.tree.fill('label' , label )
j1 = ROOT.TLorentzVector(); j2 = ROOT.TLorentzVector()
j1.SetPtEtaPhiE(jets_trk02[0].pt(), jets_trk02[0].eta(), jets_trk02[0].phi(), jets_trk02[0].e())
j2.SetPtEtaPhiE(jets_trk02[1].pt(), jets_trk02[1].eta(), jets_trk02[1].phi(), jets_trk02[1].e())
if ( len(electrons)!=0 and len(muons)==0 ):
e = ROOT.TLorentzVector()
e.SetPtEtaPhiE(electrons[0].pt(), electrons[0].eta(), electrons[0].phi(), electrons[0].e())
Jet1_dR = j1.DeltaR(e)
Jet2_dR = j2.DeltaR(e)
if ( len(electrons)==0 and len(muons)!=0 ):
m = ROOT.TLorentzVector()
m.SetPtEtaPhiE(muons[0].pt(), muons[0].eta(), muons[0].phi(), muons[0].e())
Jet1_dR = j1.DeltaR(m)
Jet2_dR = j2.DeltaR(m)
if ( len(electrons)!=0 and len(muons)!=0 ):
isElectron = False; isMuon = False
if ( electrons[0].pt() > muons[0].pt() ): isElectron = True
else: isMuon = True
l = ROOT.TLorentzVector()
if isElectron: l.SetPtEtaPhiE(electrons[0].pt(), electrons[0].eta(), electrons[0].phi(), electrons[0].e())
if isMuon: l.SetPtEtaPhiE(muons[0].pt(), muons[0].eta(), muons[0].phi(), muons[0].e())
Jet1_trk02_dR_lep = j1.DeltaR(l)
Jet2_trk02_dR_lep = j2.DeltaR(l)
self.tree.fill('Jet1_trk02_dR_lep' , Jet1_trk02_dR_lep )
self.tree.fill('Jet2_trk02_dR_lep' , Jet2_trk02_dR_lep )
#had_hadsemilep_lep_decays
self.tree.fill('weight' , event.weight )
self.tree.fill('missingET', event.met.pt())
self.tree.fill('numberOfElectrons', len(electrons))
self.tree.fill('numberOfMuons', len(muons))
self.tree.fill('rapiditySeparation_trk02', abs(jets_trk02[0].eta() - jets_trk02[1].eta()))
self.tree.fill('transverseMomentumAsymmetry_trk02', (jets_trk02[0].pt() - jets_trk02[1].pt())/(jets_trk02[0].pt() + jets_trk02[1].pt()))
self.tree.fill('Jet1_trk02_tau1' , jets_trk02[0].tau1 )
self.tree.fill('Jet1_trk02_tau2' , jets_trk02[0].tau2 )
self.tree.fill('Jet1_trk02_tau3' , jets_trk02[0].tau3 )
self.tree.fill('Jet2_trk02_tau1' , jets_trk02[1].tau1 )
self.tree.fill('Jet2_trk02_tau2' , jets_trk02[1].tau2 )
self.tree.fill('Jet2_trk02_tau3' , jets_trk02[1].tau3 )
Jet1_trk02_tau31 = -999.0
Jet1_trk02_tau21 = -999.0
Jet1_trk02_tau32 = -999.0
Jet2_trk02_tau31 = -999.0
Jet2_trk02_tau21 = -999.0
Jet2_trk02_tau32 = -999.0
if (jets_trk02[0].tau1 != 0.0):
Jet1_trk02_tau31 = jets_trk02[0].tau3/jets_trk02[0].tau1
Jet1_trk02_tau21 = jets_trk02[0].tau2/jets_trk02[0].tau1
if (jets_trk02[0].tau2 != 0.0):
Jet1_trk02_tau32 = jets_trk02[0].tau3/jets_trk02[0].tau2
if (jets_trk02[1].tau1 != 0.0):
Jet2_trk02_tau31 = jets_trk02[1].tau3/jets_trk02[1].tau1
Jet2_trk02_tau21 = jets_trk02[1].tau2/jets_trk02[1].tau1
if (jets_trk02[1].tau2 != 0.0):
Jet2_trk02_tau32 = jets_trk02[1].tau3/jets_trk02[1].tau2
self.tree.fill('Jet1_trk02_tau31', Jet1_trk02_tau31)
self.tree.fill('Jet1_trk02_tau21', Jet1_trk02_tau21)
self.tree.fill('Jet1_trk02_tau32', Jet1_trk02_tau32)
self.tree.fill('Jet2_trk02_tau31', Jet2_trk02_tau31)
self.tree.fill('Jet2_trk02_tau21', Jet2_trk02_tau21)
self.tree.fill('Jet2_trk02_tau32', Jet2_trk02_tau32)
# here is btag, need matching in DR
Jet1_trk02_dR_pf04 = 999
Jet2_trk02_dR_pf04 = 999
for j in jets_pf04:
pf04= ROOT.TLorentzVector()
pf04.SetPtEtaPhiE(j.pt(), j.eta(), j.phi(), j.e())
if j.tags['bf'] > 0:
if pf04.DeltaR(j1)<Jet1_trk02_dR_pf04:
Jet1_trk02_dR_pf04=pf04.DeltaR(j1)
if pf04.DeltaR(j2)<Jet2_trk02_dR_pf04:
Jet2_trk02_dR_pf04=pf04.DeltaR(j2)
#print 'dr j1 ',Jet1_trk02_dR_pf04
#print 'dr j2 ',Jet2_trk02_dR_pf04
pdg1 = 0
pdg2 = 0
if Jet1_trk02_dR_pf04 < 0.3:
pdg1 = 5
if Jet2_trk02_dR_pf04 < 0.3:
pdg2 = 5
# TRF / truth b-tagging -> need at least 2 jets_pf04
use_DELPHES=False
weight_1tagex=0.
weight_2tagex=0.
jet=[]
ipdg=0
for i in range(len(jets_pf04)):
if use_DELPHES==True:
ipdg = jets_pf04[i].tags['flav']
if ipdg!=4 and ipdg!=5 : ipdg=0
else:
ipdg = jets_pf04_pdg[i].flavour
jet.append([jets_pf04[i],ipdg])
if (len(jet)>0): weight_1tagex=getNbTagEx(1,jet,2)
if (len(jet)>1): weight_2tagex=getNbTagEx(2,jet,2)
weight_1tagin=weight_1tagex+weight_2tagex
self.tree.fill('weight_1tagex', weight_1tagex)
self.tree.fill('weight_2tagex', weight_2tagex)
self.tree.fill('weight_1tagin', weight_1tagin)
#MATCHING PF02 and trk02 for CORRECTION
Jet1_trk02_dR_pf02 = 999
Jet2_trk02_dR_pf02 = 999
Jet1_pf02 = None
Jet2_pf02 = None
for j in jets_pf02:
pf02= ROOT.TLorentzVector()
pf02.SetPtEtaPhiE(j.pt(), j.eta(), j.phi(), j.e())
if pf02.DeltaR(j1)<Jet1_trk02_dR_pf02:
Jet1_trk02_dR_pf02=pf02.DeltaR(j1)
Jet1_pf02=j
if pf02.DeltaR(j2)<Jet2_trk02_dR_pf02:
Jet2_trk02_dR_pf02=pf02.DeltaR(j2)
Jet2_pf02=j
#print 'jet1 dr ',Jet1_trk02_dR_pf02,' pf02 ',Jet1_pf02,' trk02 ',jets_trk02[0]
#print 'jet2 dr ',Jet2_trk02_dR_pf02,' pf02 ',Jet2_pf02,' trk02 ',jets_trk02[1]
corr1 = Jet1_pf02.p4().Pt()/j1.Pt()
corr2 = Jet2_pf02.p4().Pt()/j2.Pt()
#print 'corr 1 ',corr1,' corr2 ',corr2
#NORMAL TRK02 SD corrected jet
p4sd1 = ROOT.TLorentzVector(); p4sd2 = ROOT.TLorentzVector()
p4sd1.SetPtEtaPhiM(jets_trk02[0].subjetsSoftDrop[0].p4().Pt()*corr1,
jets_trk02[0].eta(),
jets_trk02[0].phi(),
jets_trk02[0].subjetsSoftDrop[0].p4().M()*corr1)
p4sd2.SetPtEtaPhiM(jets_trk02[1].subjetsSoftDrop[0].p4().Pt()*corr2,
jets_trk02[1].eta(),
jets_trk02[1].phi(),
jets_trk02[1].subjetsSoftDrop[0].p4().M()*corr2)
sdjet1_corr = Particle(pdg1, 0, p4sd1, 1)
sdjet2_corr = Particle(pdg2, 0, p4sd2, 1)
fillParticle(self.tree, 'Jet1_trk02_SD_Corr', sdjet1_corr)
fillParticle(self.tree, 'Jet2_trk02_SD_Corr', sdjet2_corr)
#NORMAL TRK02 SD jet
#sdjet1 = Particle(pdg1, 0, jets_trk02[0].subjetsSoftDrop[0].p4(), 1)
#sdjet2 = Particle(pdg2, 0, jets_trk02[1].subjetsSoftDrop[0].p4(), 1)
#fillParticle(self.tree, 'Jet1_trk02_SD', sdjet1)
#fillParticle(self.tree, 'Jet2_trk02_SD', sdjet2)
#CORRECTED TRK02 jet
p4jet1_corr = ROOT.TLorentzVector(); p4jet2_corr = ROOT.TLorentzVector()
p4jet1_corr.SetPtEtaPhiM(jets_trk02[0].pt()*corr1, jets_trk02[0].eta(), jets_trk02[0].phi(), jets_trk02[0].m()*corr1)
p4jet2_corr.SetPtEtaPhiM(jets_trk02[1].pt()*corr2, jets_trk02[1].eta(), jets_trk02[1].phi(), jets_trk02[1].m()*corr2)
jet1_corr = Particle(pdg1, 0, p4jet1_corr, 1)
jet2_corr = Particle(pdg2, 0, p4jet2_corr, 1)
#fillParticle(self.tree, 'Jet1_trk02_Corr', jet1_corr)
#fillParticle(self.tree, 'Jet2_trk02_Corr', jet2_corr)
# associate MET to one jet or another based on softdrop
sdjetmet1, sdjetmet2 = self.corrMET(jets_trk02[0].subjetsSoftDrop[0], pdg1, jets_trk02[1].subjetsSoftDrop[0], pdg2, event.met)
fillParticle(self.tree, 'Jet1_trk02_SD_MetCorr', sdjetmet1)
fillParticle(self.tree, 'Jet2_trk02_SD_MetCorr', sdjetmet2)
sdjetmet1, sdjetmet2 = self.corrMET(sdjet1_corr, pdg1, sdjet2_corr, pdg2, event.met)
fillParticle(self.tree, 'Jet1_trk02_SD_Corr_MetCorr', sdjetmet1)
fillParticle(self.tree, 'Jet2_trk02_SD_Corr_MetCorr', sdjetmet2)
######################
# trkjet04 mass info #
######################
#MATCHING PF04 and trk04 for CORRECTION
Jet1_trk04_dR_pf04 = 999
Jet2_trk04_dR_pf04 = 999
Jet1_pf04 = None
Jet2_pf04 = None
for j in jets_pf04_1500:
pf04= ROOT.TLorentzVector()
pf04.SetPtEtaPhiE(j.pt(), j.eta(), j.phi(), j.e())
if pf04.DeltaR(j1)<Jet1_trk04_dR_pf04:
Jet1_trk04_dR_pf04=pf04.DeltaR(j1)
Jet1_pf04=j
if pf04.DeltaR(j2)<Jet2_trk04_dR_pf04:
Jet2_trk04_dR_pf04=pf04.DeltaR(j2)
Jet2_pf04=j
corr1_04 = Jet1_pf04.p4().Pt()/j1.Pt()
corr2_04 = Jet2_pf04.p4().Pt()/j2.Pt()
#NORMAL TRK04 SD corrected jet
p4sd1_04 = ROOT.TLorentzVector(); p4sd2_04 = ROOT.TLorentzVector()
Jet1_trk04_SD_Corr_m = -1000. ; Jet2_trk04_SD_Corr_m = -1000.
if len(jets_trk04)>=1 :
p4sd1_04.SetPtEtaPhiM(jets_trk04[0].subjetsSoftDrop[0].p4().Pt()*corr1_04,
jets_trk04[0].eta(),
jets_trk04[0].phi(),
jets_trk04[0].subjetsSoftDrop[0].p4().M()*corr1_04)
pdg1 = 0
sdjet1_corr_04 = Particle(pdg1, 0, p4sd1_04, 1)
Jet1_trk04_SD_Corr_m = sdjet1_corr_04.p4().M()
if len(jets_trk04)>=2 :
p4sd2_04.SetPtEtaPhiM(jets_trk04[1].subjetsSoftDrop[0].p4().Pt()*corr2_04,
jets_trk04[1].eta(),
jets_trk04[1].phi(),
jets_trk04[1].subjetsSoftDrop[0].p4().M()*corr2_04)
pdg2 = 0
sdjet2_corr_04 = Particle(pdg2, 0, p4sd2_04, 1)
Jet2_trk04_SD_Corr_m = sdjet2_corr_04.p4().M()
self.tree.fill('Jet1_trk04_SD_Corr_m', Jet1_trk04_SD_Corr_m)
self.tree.fill('Jet2_trk04_SD_Corr_m', Jet2_trk04_SD_Corr_m)
######################
# trkjet08 mass info #
######################
#MATCHING PF08 and trk08 for CORRECTION
Jet1_trk08_dR_pf08 = 999
Jet2_trk08_dR_pf08 = 999
Jet1_pf08 = None
Jet2_pf08 = None
for j in jets_pf08:
pf08= ROOT.TLorentzVector()
pf08.SetPtEtaPhiE(j.pt(), j.eta(), j.phi(), j.e())
if pf08.DeltaR(j1)<Jet1_trk08_dR_pf08:
Jet1_trk08_dR_pf08=pf08.DeltaR(j1)
Jet1_pf08=j
if pf08.DeltaR(j2)<Jet2_trk08_dR_pf08:
Jet2_trk08_dR_pf08=pf08.DeltaR(j2)
Jet2_pf08=j
corr1_08 = Jet1_pf08.p4().Pt()/j1.Pt()
corr2_08 = Jet2_pf08.p4().Pt()/j2.Pt()
#NORMAL TRK08 SD corrected jet
p4sd1_08 = ROOT.TLorentzVector(); p4sd2_08 = ROOT.TLorentzVector()
Jet1_trk08_SD_Corr_m = -1000. ; Jet2_trk08_SD_Corr_m = -1000.
if len(jets_trk08)>=1 :
p4sd1_08.SetPtEtaPhiM(jets_trk08[0].subjetsSoftDrop[0].p4().Pt()*corr1_08,
jets_trk08[0].eta(),
jets_trk08[0].phi(),
jets_trk08[0].subjetsSoftDrop[0].p4().M()*corr1_08)
pdg1 = 0
sdjet1_corr_08 = Particle(pdg1, 0, p4sd1_08, 1)
Jet1_trk08_SD_Corr_m = sdjet1_corr_08.p4().M()
if len(jets_trk08)>=2 :
p4sd2_08.SetPtEtaPhiM(jets_trk08[1].subjetsSoftDrop[0].p4().Pt()*corr2_08,
jets_trk08[1].eta(),
jets_trk08[1].phi(),
jets_trk08[1].subjetsSoftDrop[0].p4().M()*corr2_08)
pdg2 = 0
sdjet2_corr_08 = Particle(pdg2, 0, p4sd2_08, 1)
Jet2_trk08_SD_Corr_m = sdjet2_corr_08.p4().M()
self.tree.fill('Jet1_trk08_SD_Corr_m', Jet1_trk08_SD_Corr_m)
self.tree.fill('Jet2_trk08_SD_Corr_m', Jet2_trk08_SD_Corr_m)
if (len(jets_trk02)>1):
self.tree.fill( 'Mj1j2_trk02',self.fillMass(jets_trk02[0],jets_trk02[1]))
self.tree.fill( 'Mj1j2_trk02_Corr',self.fillMass(jet1_corr,jet2_corr))
jetmet1, jetmet2 = self.corrMET(jets_trk02[0], pdg1, jets_trk02[1], pdg2, event.met)
self.tree.fill( 'Mj1j2_trk02_MetCorr',self.fillMass(jetmet1,jetmet2))
#fillParticle(self.tree, 'Jet1_trk02_MetCorr', jetmet1)
#fillParticle(self.tree, 'Jet2_trk02_MetCorr', jetmet2)
jetmet1, jetmet2 = self.corrMET(jet1_corr, pdg1, jet2_corr, pdg2, event.met)
self.tree.fill( 'Mj1j2_trk02_Corr_MetCorr',self.fillMass(jetmet1,jetmet2))
fillParticle(self.tree, 'Jet1_trk02_Corr_MetCorr', jetmet1)
fillParticle(self.tree, 'Jet2_trk02_Corr_MetCorr', jetmet2)
if (len(jets_pf02)>1):
self.tree.fill( 'Mj1j2_pf02', self.fillMass(jets_pf02[0],jets_pf02[1]))
jetmet1, jetmet2 = self.corrMET(jets_pf02[0], pdg1, jets_pf02[1], pdg2, event.met)
self.tree.fill( 'Mj1j2_pf02_MetCorr', self.fillMass(jetmet1,jetmet2))
if (len(jets_pf04)>1):
self.tree.fill( 'Mj1j2_pf04', self.fillMass(jets_pf04[0],jets_pf04[1]))
jetmet1, jetmet2 = self.corrMET(jets_pf04[0], pdg1, jets_pf04[1], pdg2, event.met)
self.tree.fill( 'Mj1j2_pf04_MetCorr', self.fillMass(jetmet1,jetmet2))
if (len(jets_pf08)>1):
self.tree.fill( 'Mj1j2_pf08', self.fillMass(jets_pf08[0],jets_pf08[1]))
jetmet1, jetmet2 = self.corrMET(jets_pf08[0], pdg1, jets_pf08[1], pdg2, event.met)
self.tree.fill( 'Mj1j2_pf08_MetCorr', self.fillMass(jetmet1,jetmet2))
if ( len(electrons) >=1 ): fillParticle(self.tree, 'Electron1', electrons[0])
if ( len(electrons) >=2 ): fillParticle(self.tree, 'Electron2', electrons[1])
if ( len(muons) >=1 ): fillParticle(self.tree, 'Muon1', muons[0])
if ( len(muons) >=2 ): fillParticle(self.tree, 'Muon2', muons[1])
###################################
#TMVA Stuff Starts!
###################################
self.bdt_Jet_trk02_tau1[0] = jets_trk02[0].tau1
self.bdt_Jet_trk02_tau2[0] = jets_trk02[0].tau2
self.bdt_Jet_trk02_tau3[0] = jets_trk02[0].tau3
self.bdt_Jet_trk02_tau21[0] = Jet1_trk02_tau21
self.bdt_Jet_trk02_tau31[0] = Jet1_trk02_tau31
self.bdt_Jet_trk02_tau32[0] = Jet1_trk02_tau32
self.bdt_Jet_trk02_SD_Corr_m[0] = sdjet1_corr.p4().M()
if len(jets_trk04)>=1 : self.bdt_Jet_trk04_SD_Corr_m[0] = sdjet1_corr_04.p4().M()
else : self.bdt_Jet_trk04_SD_Corr_m[0] = -1000.
if len(jets_trk08)>=1 : self.bdt_Jet_trk08_SD_Corr_m[0] = sdjet1_corr_08.p4().M()
else : self.bdt_Jet_trk08_SD_Corr_m[0] = -1000.
mva_value = self.reader.EvaluateMVA("BDT")
self.tree.fill( 'Jet1_thad_vs_QCD_tagger', mva_value)
#
self.bdt_Jet_trk02_tau1[0] = jets_trk02[1].tau1
self.bdt_Jet_trk02_tau2[0] = jets_trk02[1].tau2
self.bdt_Jet_trk02_tau3[0] = jets_trk02[1].tau3
self.bdt_Jet_trk02_tau21[0] = Jet2_trk02_tau21
self.bdt_Jet_trk02_tau31[0] = Jet2_trk02_tau31
self.bdt_Jet_trk02_tau32[0] = Jet2_trk02_tau32
self.bdt_Jet_trk02_SD_Corr_m[0] = sdjet2_corr.p4().M()
if len(jets_trk04)>=2 : self.bdt_Jet_trk04_SD_Corr_m[0] = sdjet2_corr_04.p4().M()
else : self.bdt_Jet_trk04_SD_Corr_m[0] = -1000.
if len(jets_trk08)>=2 : self.bdt_Jet_trk08_SD_Corr_m[0] = sdjet2_corr_08.p4().M()
else : self.bdt_Jet_trk08_SD_Corr_m[0] = -1000.
mva_value = self.reader.EvaluateMVA("BDT")
self.tree.fill( 'Jet2_thad_vs_QCD_tagger', mva_value)
self.tree.tree.Fill()
def process(self, event):
self.tree.reset()
jets_trk02 = getattr(event, self.cfg_ana.jets_trk02_1000)
jets_pf02 = getattr(event, self.cfg_ana.jets_pf02_1500)
jets_pf04 = getattr(event, self.cfg_ana.jets_pf04_1000)
jets_pf04_pdg = event.jets_pf04_1000_pdg
jets_pf08 = getattr(event, self.cfg_ana.jets_pf08_1500)
#gen_particles = event.all_particles
jets_pf04_1500 = getattr(event, self.cfg_ana.jets_pf04_1500)
jets_trk04 = getattr(event, self.cfg_ana.jets_trk04_1000)
jets_trk08 = getattr(event, self.cfg_ana.jets_trk08_1000)
electrons = getattr(event, self.cfg_ana.electrons)
muons = getattr(event, self.cfg_ana.muons)
Jet1_trk02_dR_lep = 999
Jet2_trk02_dR_lep = 999
Jet1_trk02_dR_Jet2_trk02 = 999
if (len(jets_trk02) >= 2 and len(jets_pf02) >= 2):
j1 = ROOT.TLorentzVector()
j2 = ROOT.TLorentzVector()
j1.SetPtEtaPhiE(jets_trk02[0].pt(), jets_trk02[0].eta(),
jets_trk02[0].phi(), jets_trk02[0].e())
j2.SetPtEtaPhiE(jets_trk02[1].pt(), jets_trk02[1].eta(),
jets_trk02[1].phi(), jets_trk02[1].e())
if (len(electrons) != 0 and len(muons) == 0):
e = ROOT.TLorentzVector()
e.SetPtEtaPhiE(electrons[0].pt(), electrons[0].eta(),
electrons[0].phi(), electrons[0].e())
Jet1_dR = j1.DeltaR(e)
Jet2_dR = j2.DeltaR(e)
if (len(electrons) == 0 and len(muons) != 0):
m = ROOT.TLorentzVector()
m.SetPtEtaPhiE(muons[0].pt(), muons[0].eta(), muons[0].phi(),
muons[0].e())
Jet1_dR = j1.DeltaR(m)
Jet2_dR = j2.DeltaR(m)
if (len(electrons) != 0 and len(muons) != 0):
isElectron = False
isMuon = False
if (electrons[0].pt() > muons[0].pt()): isElectron = True
else: isMuon = True
l = ROOT.TLorentzVector()
if isElectron:
l.SetPtEtaPhiE(electrons[0].pt(), electrons[0].eta(),
electrons[0].phi(), electrons[0].e())
if isMuon:
l.SetPtEtaPhiE(muons[0].pt(), muons[0].eta(),
muons[0].phi(), muons[0].e())
Jet1_trk02_dR_lep = j1.DeltaR(l)
Jet2_trk02_dR_lep = j2.DeltaR(l)
self.tree.fill('Jet1_trk02_dR_lep', Jet1_trk02_dR_lep)
self.tree.fill('Jet2_trk02_dR_lep', Jet2_trk02_dR_lep)
Jet1_trk02_dR_Jet2_trk02 = j1.DeltaR(j2)
self.tree.fill('Jet1_trk02_dR_Jet2_trk02',
Jet1_trk02_dR_Jet2_trk02)
# jets and leptons
Jet1_lepclose = False
Jet2_lepclose = False
dR_close = 0.7
for i in xrange(len(electrons)):
l = ROOT.TLorentzVector()
l.SetPtEtaPhiE(electrons[i].pt(), electrons[i].eta(),
electrons[i].phi(), electrons[i].e())
# do not use leptons with pTl/pTj<0.15 (our definiton of a semi-lep decay)
if j1.DeltaR(l) < dR_close and l.Pt() / j1.Pt() > 0.15:
Jet1_lepclose = True
if j2.DeltaR(l) < dR_close and l.Pt() / j2.Pt() > 0.15:
Jet2_lepclose = True
for i in xrange(len(muons)):
l = ROOT.TLorentzVector()
l.SetPtEtaPhiE(muons[i].pt(), muons[i].eta(), muons[i].phi(),
muons[i].e())
# do not use leptons with pTl/pTj<0.15 (our definiton of a semi-lep decay)
if j1.DeltaR(l) < dR_close and l.Pt() / j1.Pt() > 0.15:
Jet1_lepclose = True
if j2.DeltaR(l) < dR_close and l.Pt() / j2.Pt() > 0.15:
Jet2_lepclose = True
#
lepton_iso = False
dR_match = 0.2
for i in xrange(len(electrons)):
l = ROOT.TLorentzVector()
l.SetPtEtaPhiE(electrons[i].pt(), electrons[i].eta(),
electrons[i].phi(), electrons[i].e())
if lepton_iso == False:
n_match = 0
for j in xrange(len(jets_trk02)):
j1 = ROOT.TLorentzVector()
j1.SetPtEtaPhiE(jets_trk02[j].pt(),
jets_trk02[j].eta(),
jets_trk02[j].phi(), jets_trk02[j].e())
if j1.DeltaR(l) < dR_match: n_match += 1
if n_match == 0: lepton_iso = True
for i in xrange(len(muons)):
l = ROOT.TLorentzVector()
l.SetPtEtaPhiE(muons[i].pt(), muons[i].eta(), muons[i].phi(),
muons[i].e())
if lepton_iso == False:
n_match = 0
for j in xrange(len(jets_trk02)):
j1 = ROOT.TLorentzVector()
j1.SetPtEtaPhiE(jets_trk02[j].pt(),
jets_trk02[j].eta(),
jets_trk02[j].phi(), jets_trk02[j].e())
if j1.DeltaR(l) < dR_match: n_match += 1
if n_match == 0: lepton_iso = True
#
self.tree.fill('Jet1_lepclose', Jet1_lepclose)
self.tree.fill('Jet2_lepclose', Jet2_lepclose)
self.tree.fill('lepton_iso', lepton_iso)
self.tree.fill('weight', event.weight)
self.tree.fill('missingET', event.met.pt())
self.tree.fill('numberOfElectrons', len(electrons))
self.tree.fill('numberOfMuons', len(muons))
self.tree.fill('rapiditySeparation_trk02',
abs(jets_trk02[0].eta() - jets_trk02[1].eta()))
self.tree.fill('transverseMomentumAsymmetry_trk02',
(jets_trk02[0].pt() - jets_trk02[1].pt()) /
(jets_trk02[0].pt() + jets_trk02[1].pt()))
self.tree.fill('Jet1_trk02_tau1', jets_trk02[0].tau1)
self.tree.fill('Jet1_trk02_tau2', jets_trk02[0].tau2)
self.tree.fill('Jet1_trk02_tau3', jets_trk02[0].tau3)
self.tree.fill('Jet2_trk02_tau1', jets_trk02[1].tau1)
self.tree.fill('Jet2_trk02_tau2', jets_trk02[1].tau2)
self.tree.fill('Jet2_trk02_tau3', jets_trk02[1].tau3)
Jet1_trk02_tau31 = -999.0
Jet1_trk02_tau21 = -999.0
Jet1_trk02_tau32 = -999.0
Jet2_trk02_tau31 = -999.0
Jet2_trk02_tau21 = -999.0
Jet2_trk02_tau32 = -999.0
if (jets_trk02[0].tau1 != 0.0):
Jet1_trk02_tau31 = jets_trk02[0].tau3 / jets_trk02[0].tau1
Jet1_trk02_tau21 = jets_trk02[0].tau2 / jets_trk02[0].tau1
if (jets_trk02[0].tau2 != 0.0):
Jet1_trk02_tau32 = jets_trk02[0].tau3 / jets_trk02[0].tau2
if (jets_trk02[1].tau1 != 0.0):
Jet2_trk02_tau31 = jets_trk02[1].tau3 / jets_trk02[1].tau1
Jet2_trk02_tau21 = jets_trk02[1].tau2 / jets_trk02[1].tau1
if (jets_trk02[1].tau2 != 0.0):
Jet2_trk02_tau32 = jets_trk02[1].tau3 / jets_trk02[1].tau2
self.tree.fill('Jet1_trk02_tau31', Jet1_trk02_tau31)
self.tree.fill('Jet1_trk02_tau21', Jet1_trk02_tau21)
self.tree.fill('Jet1_trk02_tau32', Jet1_trk02_tau32)
self.tree.fill('Jet2_trk02_tau31', Jet2_trk02_tau31)
self.tree.fill('Jet2_trk02_tau21', Jet2_trk02_tau21)
self.tree.fill('Jet2_trk02_tau32', Jet2_trk02_tau32)
# here is btag, need matching in DR
Jet1_trk02_dR_pf04 = 999
Jet2_trk02_dR_pf04 = 999
for j in jets_pf04:
pf04 = ROOT.TLorentzVector()
pf04.SetPtEtaPhiE(j.pt(), j.eta(), j.phi(), j.e())
if j.tags['bf'] > 0:
if pf04.DeltaR(j1) < Jet1_trk02_dR_pf04:
Jet1_trk02_dR_pf04 = pf04.DeltaR(j1)
if pf04.DeltaR(j2) < Jet2_trk02_dR_pf04:
Jet2_trk02_dR_pf04 = pf04.DeltaR(j2)
#print 'dr j1 ',Jet1_trk02_dR_pf04
#print 'dr j2 ',Jet2_trk02_dR_pf04
pdg1 = 0
pdg2 = 0
if Jet1_trk02_dR_pf04 < 0.3:
pdg1 = 5
if Jet2_trk02_dR_pf04 < 0.3:
pdg2 = 5
# TRF / truth b-tagging -> need at least 2 jets_pf04
use_DELPHES = False
jet = []
ipdg = 0
for i in range(len(jets_pf04)):
if use_DELPHES == True:
ipdg = jets_pf04[i].tags['flav']
if ipdg != 4 and ipdg != 5: ipdg = 0
else:
ipdg = jets_pf04_pdg[i].flavour
jet.append([jets_pf04[i], ipdg])
weight_1tagex = getNbTagEx(1, jet, 2)
weight_1tagexJet1 = getNbTagEx(1, jet, 2, 0)
weight_1tagexJet2 = getNbTagEx(1, jet, 2, 1)
weight_2tagex = getNbTagEx(2, jet, 2)
self.tree.fill('weight_1tagex', weight_1tagex)
self.tree.fill('weight_2tagex', weight_2tagex)
self.tree.fill('weight_1tagexJet1', weight_1tagexJet1)
self.tree.fill('weight_1tagexJet2', weight_1tagexJet2)
#MATCHING PF02 and trk02 for CORRECTION
Jet1_trk02_dR_pf02 = 999
Jet2_trk02_dR_pf02 = 999
Jet1_pf02 = None
Jet2_pf02 = None
for j in jets_pf02:
pf02 = ROOT.TLorentzVector()
pf02.SetPtEtaPhiE(j.pt(), j.eta(), j.phi(), j.e())
if pf02.DeltaR(j1) < Jet1_trk02_dR_pf02:
Jet1_trk02_dR_pf02 = pf02.DeltaR(j1)
Jet1_pf02 = j
if pf02.DeltaR(j2) < Jet2_trk02_dR_pf02:
Jet2_trk02_dR_pf02 = pf02.DeltaR(j2)
Jet2_pf02 = j
#print 'jet1 dr ',Jet1_trk02_dR_pf02,' pf02 ',Jet1_pf02,' trk02 ',jets_trk02[0]
#print 'jet2 dr ',Jet2_trk02_dR_pf02,' pf02 ',Jet2_pf02,' trk02 ',jets_trk02[1]
corr1 = Jet1_pf02.p4().Pt() / j1.Pt()
corr2 = Jet2_pf02.p4().Pt() / j2.Pt()
#print 'corr 1 ',corr1,' corr2 ',corr2
#NORMAL TRK02 SD corrected jet
p4sd1 = ROOT.TLorentzVector()
p4sd2 = ROOT.TLorentzVector()
p4sd1.SetPtEtaPhiM(
jets_trk02[0].subjetsSoftDrop[0].p4().Pt() * corr1,
jets_trk02[0].eta(), jets_trk02[0].phi(),
jets_trk02[0].subjetsSoftDrop[0].p4().M() * corr1)
p4sd2.SetPtEtaPhiM(
jets_trk02[1].subjetsSoftDrop[0].p4().Pt() * corr2,
jets_trk02[1].eta(), jets_trk02[1].phi(),
jets_trk02[1].subjetsSoftDrop[0].p4().M() * corr2)
sdjet1_corr = Particle(pdg1, 0, p4sd1, 1)
sdjet2_corr = Particle(pdg2, 0, p4sd2, 1)
fillParticle(self.tree, 'Jet1_trk02_SD_Corr', sdjet1_corr)
fillParticle(self.tree, 'Jet2_trk02_SD_Corr', sdjet2_corr)
#NORMAL TRK02 SD jet
#sdjet1 = Particle(pdg1, 0, jets_trk02[0].subjetsSoftDrop[0].p4(), 1)
#sdjet2 = Particle(pdg2, 0, jets_trk02[1].subjetsSoftDrop[0].p4(), 1)
#fillParticle(self.tree, 'Jet1_trk02_SD', sdjet1)
#fillParticle(self.tree, 'Jet2_trk02_SD', sdjet2)
#CORRECTED TRK02 jet
p4jet1_corr = ROOT.TLorentzVector()
p4jet2_corr = ROOT.TLorentzVector()
p4jet1_corr.SetPtEtaPhiM(jets_trk02[0].pt() * corr1,
jets_trk02[0].eta(), jets_trk02[0].phi(),
jets_trk02[0].m() * corr1)
p4jet2_corr.SetPtEtaPhiM(jets_trk02[1].pt() * corr2,
jets_trk02[1].eta(), jets_trk02[1].phi(),
jets_trk02[1].m() * corr2)
jet1_corr = Particle(pdg1, 0, p4jet1_corr, 1)
jet2_corr = Particle(pdg2, 0, p4jet2_corr, 1)
#fillParticle(self.tree, 'Jet1_trk02_Corr', jet1_corr)
#fillParticle(self.tree, 'Jet2_trk02_Corr', jet2_corr)
# associate MET to one jet or another based on softdrop
sdjetmet1, sdjetmet2 = self.corrMET(
jets_trk02[0].subjetsSoftDrop[0], pdg1,
jets_trk02[1].subjetsSoftDrop[0], pdg2, event.met)
fillParticle(self.tree, 'Jet1_trk02_SD_MetCorr', sdjetmet1)
fillParticle(self.tree, 'Jet2_trk02_SD_MetCorr', sdjetmet2)
sdjetmet1, sdjetmet2 = self.corrMET(sdjet1_corr, pdg1, sdjet2_corr,
pdg2, event.met)
fillParticle(self.tree, 'Jet1_trk02_SD_Corr_MetCorr', sdjetmet1)
fillParticle(self.tree, 'Jet2_trk02_SD_Corr_MetCorr', sdjetmet2)
######################
# trkjet04 mass info #
######################
#MATCHING PF04 and trk04 for CORRECTION
Jet1_trk04_dR_pf04 = 999
Jet2_trk04_dR_pf04 = 999
Jet1_pf04 = None
Jet2_pf04 = None
for j in jets_pf04_1500:
pf04 = ROOT.TLorentzVector()
pf04.SetPtEtaPhiE(j.pt(), j.eta(), j.phi(), j.e())
if pf04.DeltaR(j1) < Jet1_trk04_dR_pf04:
Jet1_trk04_dR_pf04 = pf04.DeltaR(j1)
Jet1_pf04 = j
if pf04.DeltaR(j2) < Jet2_trk04_dR_pf04:
Jet2_trk04_dR_pf04 = pf04.DeltaR(j2)
Jet2_pf04 = j
corr1_04 = Jet1_pf04.p4().Pt() / j1.Pt()
corr2_04 = Jet2_pf04.p4().Pt() / j2.Pt()
#NORMAL TRK04 SD corrected jet
p4sd1_04 = ROOT.TLorentzVector()
p4sd2_04 = ROOT.TLorentzVector()
Jet1_trk04_SD_Corr_m = -1000.
Jet2_trk04_SD_Corr_m = -1000.
if len(jets_trk04) >= 1:
p4sd1_04.SetPtEtaPhiM(
jets_trk04[0].subjetsSoftDrop[0].p4().Pt() * corr1_04,
jets_trk04[0].eta(), jets_trk04[0].phi(),
jets_trk04[0].subjetsSoftDrop[0].p4().M() * corr1_04)
pdg1 = 0
sdjet1_corr_04 = Particle(pdg1, 0, p4sd1_04, 1)
Jet1_trk04_SD_Corr_m = sdjet1_corr_04.p4().M()
if len(jets_trk04) >= 2:
p4sd2_04.SetPtEtaPhiM(
jets_trk04[1].subjetsSoftDrop[0].p4().Pt() * corr2_04,
jets_trk04[1].eta(), jets_trk04[1].phi(),
jets_trk04[1].subjetsSoftDrop[0].p4().M() * corr2_04)
pdg2 = 0
sdjet2_corr_04 = Particle(pdg2, 0, p4sd2_04, 1)
Jet2_trk04_SD_Corr_m = sdjet2_corr_04.p4().M()
self.tree.fill('Jet1_trk04_SD_Corr_m', Jet1_trk04_SD_Corr_m)
self.tree.fill('Jet2_trk04_SD_Corr_m', Jet2_trk04_SD_Corr_m)
######################
# trkjet08 mass info #
######################
#MATCHING PF08 and trk08 for CORRECTION
Jet1_trk08_dR_pf08 = 999
Jet2_trk08_dR_pf08 = 999
Jet1_pf08 = None
Jet2_pf08 = None
for j in jets_pf08:
pf08 = ROOT.TLorentzVector()
pf08.SetPtEtaPhiE(j.pt(), j.eta(), j.phi(), j.e())
if pf08.DeltaR(j1) < Jet1_trk08_dR_pf08:
Jet1_trk08_dR_pf08 = pf08.DeltaR(j1)
Jet1_pf08 = j
if pf08.DeltaR(j2) < Jet2_trk08_dR_pf08:
Jet2_trk08_dR_pf08 = pf08.DeltaR(j2)
Jet2_pf08 = j
corr1_08 = Jet1_pf08.p4().Pt() / j1.Pt()
corr2_08 = Jet2_pf08.p4().Pt() / j2.Pt()
#NORMAL TRK08 SD corrected jet
p4sd1_08 = ROOT.TLorentzVector()
p4sd2_08 = ROOT.TLorentzVector()
Jet1_trk08_SD_Corr_m = -1000.
Jet2_trk08_SD_Corr_m = -1000.
if len(jets_trk08) >= 1:
p4sd1_08.SetPtEtaPhiM(
jets_trk08[0].subjetsSoftDrop[0].p4().Pt() * corr1_08,
jets_trk08[0].eta(), jets_trk08[0].phi(),
jets_trk08[0].subjetsSoftDrop[0].p4().M() * corr1_08)
pdg1 = 0
sdjet1_corr_08 = Particle(pdg1, 0, p4sd1_08, 1)
Jet1_trk08_SD_Corr_m = sdjet1_corr_08.p4().M()
if len(jets_trk08) >= 2:
p4sd2_08.SetPtEtaPhiM(
jets_trk08[1].subjetsSoftDrop[0].p4().Pt() * corr2_08,
jets_trk08[1].eta(), jets_trk08[1].phi(),
jets_trk08[1].subjetsSoftDrop[0].p4().M() * corr2_08)
pdg2 = 0
sdjet2_corr_08 = Particle(pdg2, 0, p4sd2_08, 1)
Jet2_trk08_SD_Corr_m = sdjet2_corr_08.p4().M()
self.tree.fill('Jet1_trk08_SD_Corr_m', Jet1_trk08_SD_Corr_m)
self.tree.fill('Jet2_trk08_SD_Corr_m', Jet2_trk08_SD_Corr_m)
if (len(jets_trk02) > 1):
self.tree.fill('Mj1j2_trk02',
self.fillMass(jets_trk02[0], jets_trk02[1]))
self.tree.fill('Mj1j2_trk02_Corr',
self.fillMass(jet1_corr, jet2_corr))
jetmet1, jetmet2 = self.corrMET(jets_trk02[0], pdg1,
jets_trk02[1], pdg2, event.met)
self.tree.fill('Mj1j2_trk02_MetCorr',
self.fillMass(jetmet1, jetmet2))
#fillParticle(self.tree, 'Jet1_trk02_MetCorr', jetmet1)
#fillParticle(self.tree, 'Jet2_trk02_MetCorr', jetmet2)
jetmet1, jetmet2 = self.corrMET(jet1_corr, pdg1, jet2_corr,
pdg2, event.met)
self.tree.fill('Mj1j2_trk02_Corr_MetCorr',
self.fillMass(jetmet1, jetmet2))
fillParticle(self.tree, 'Jet1_trk02_Corr_MetCorr', jetmet1)
fillParticle(self.tree, 'Jet2_trk02_Corr_MetCorr', jetmet2)
if (len(jets_pf02) > 1):
self.tree.fill('Mj1j2_pf02',
self.fillMass(jets_pf02[0], jets_pf02[1]))
jetmet1, jetmet2 = self.corrMET(jets_pf02[0], pdg1,
jets_pf02[1], pdg2, event.met)
self.tree.fill('Mj1j2_pf02_MetCorr',
self.fillMass(jetmet1, jetmet2))
if (len(jets_pf04) > 1):
self.tree.fill('Mj1j2_pf04',
self.fillMass(jets_pf04[0], jets_pf04[1]))
jetmet1, jetmet2 = self.corrMET(jets_pf04[0], pdg1,
jets_pf04[1], pdg2, event.met)
self.tree.fill('Mj1j2_pf04_MetCorr',
self.fillMass(jetmet1, jetmet2))
if (len(jets_pf08) > 1):
self.tree.fill('Mj1j2_pf08',
self.fillMass(jets_pf08[0], jets_pf08[1]))
jetmet1, jetmet2 = self.corrMET(jets_pf08[0], pdg1,
jets_pf08[1], pdg2, event.met)
self.tree.fill('Mj1j2_pf08_MetCorr',
self.fillMass(jetmet1, jetmet2))
if (len(electrons) >= 1):
fillParticle(self.tree, 'Electron1', electrons[0])
if (len(electrons) >= 2):
fillParticle(self.tree, 'Electron2', electrons[1])
if (len(muons) >= 1): fillParticle(self.tree, 'Muon1', muons[0])
if (len(muons) >= 2): fillParticle(self.tree, 'Muon2', muons[1])
###################################
#TMVA Stuff Starts!
###################################
self.bdt_Jet_trk02_tau1[0] = jets_trk02[0].tau1
self.bdt_Jet_trk02_tau2[0] = jets_trk02[0].tau2
self.bdt_Jet_trk02_tau3[0] = jets_trk02[0].tau3
self.bdt_Jet_trk02_tau21[0] = Jet1_trk02_tau21
self.bdt_Jet_trk02_tau31[0] = Jet1_trk02_tau31
self.bdt_Jet_trk02_tau32[0] = Jet1_trk02_tau32
self.bdt_Jet_trk02_SD_Corr_m[0] = sdjet1_corr.p4().M()
if len(jets_trk04) >= 1:
self.bdt_Jet_trk04_SD_Corr_m[0] = sdjet1_corr_04.p4().M()
else:
self.bdt_Jet_trk04_SD_Corr_m[0] = -1000.
if len(jets_trk08) >= 1:
self.bdt_Jet_trk08_SD_Corr_m[0] = sdjet1_corr_08.p4().M()
else:
self.bdt_Jet_trk08_SD_Corr_m[0] = -1000.
mva_value = self.reader.EvaluateMVA("BDT")
self.tree.fill('Jet1_thad_vs_QCD_tagger', mva_value)
#
self.bdt_Jet_trk02_tau1[0] = jets_trk02[1].tau1
self.bdt_Jet_trk02_tau2[0] = jets_trk02[1].tau2
self.bdt_Jet_trk02_tau3[0] = jets_trk02[1].tau3
self.bdt_Jet_trk02_tau21[0] = Jet2_trk02_tau21
self.bdt_Jet_trk02_tau31[0] = Jet2_trk02_tau31
self.bdt_Jet_trk02_tau32[0] = Jet2_trk02_tau32
self.bdt_Jet_trk02_SD_Corr_m[0] = sdjet2_corr.p4().M()
if len(jets_trk04) >= 2:
self.bdt_Jet_trk04_SD_Corr_m[0] = sdjet2_corr_04.p4().M()
else:
self.bdt_Jet_trk04_SD_Corr_m[0] = -1000.
if len(jets_trk08) >= 2:
self.bdt_Jet_trk08_SD_Corr_m[0] = sdjet2_corr_08.p4().M()
else:
self.bdt_Jet_trk08_SD_Corr_m[0] = -1000.
mva_value = self.reader.EvaluateMVA("BDT")
self.tree.fill('Jet2_thad_vs_QCD_tagger', mva_value)
self.tree.tree.Fill()
def process(self, event):
self.tree.reset()
jets_trk02 = getattr(event, self.cfg_ana.jets_trk02_1000)
jets_pf02 = getattr(event, self.cfg_ana.jets_pf02_1500)
jets_pf04 = getattr(event, self.cfg_ana.jets_pf04_1000)
jets_pf08 = getattr(event, self.cfg_ana.jets_pf08_1500)
electrons = getattr(event, self.cfg_ana.electrons)
muons = getattr(event, self.cfg_ana.muons)
Jet1_trk02_dR_lep = 999
Jet2_trk02_dR_lep = 999
if (len(jets_trk02) >= 2 and len(jets_pf02) >= 2):
j1 = ROOT.TLorentzVector()
j2 = ROOT.TLorentzVector()
j1.SetPtEtaPhiE(jets_trk02[0].pt(), jets_trk02[0].eta(),
jets_trk02[0].phi(), jets_trk02[0].e())
j2.SetPtEtaPhiE(jets_trk02[1].pt(), jets_trk02[1].eta(),
jets_trk02[1].phi(), jets_trk02[1].e())
if (len(electrons) != 0 and len(muons) == 0):
e = ROOT.TLorentzVector()
e.SetPtEtaPhiE(electrons[0].pt(), electrons[0].eta(),
electrons[0].phi(), electrons[0].e())
Jet1_dR = j1.DeltaR(e)
Jet2_dR = j2.DeltaR(e)
if (len(electrons) == 0 and len(muons) != 0):
m = ROOT.TLorentzVector()
m.SetPtEtaPhiE(muons[0].pt(), muons[0].eta(), muons[0].phi(),
muons[0].e())
Jet1_dR = j1.DeltaR(m)
Jet2_dR = j2.DeltaR(m)
if (len(electrons) != 0 and len(muons) != 0):
isElectron = False
isMuon = False
if (electrons[0].pt() > muons[0].pt()): isElectron = True
else: isMuon = True
l = ROOT.TLorentzVector()
if isElectron:
l.SetPtEtaPhiE(electrons[0].pt(), electrons[0].eta(),
electrons[0].phi(), electrons[0].e())
if isMuon:
l.SetPtEtaPhiE(muons[0].pt(), muons[0].eta(),
muons[0].phi(), muons[0].e())
Jet1_trk02_dR_lep = j1.DeltaR(l)
Jet2_trk02_dR_lep = j2.DeltaR(l)
self.tree.fill('Jet1_trk02_dR_lep', Jet1_trk02_dR_lep)
self.tree.fill('Jet2_trk02_dR_lep', Jet2_trk02_dR_lep)
self.tree.fill('weight', event.weight)
self.tree.fill('missingET', event.met.pt())
self.tree.fill('numberOfElectrons', len(electrons))
self.tree.fill('numberOfMuons', len(muons))
self.tree.fill('rapiditySeparation_trk02',
abs(jets_trk02[0].eta() - jets_trk02[1].eta()))
self.tree.fill('transverseMomentumAsymmetry_trk02',
(jets_trk02[0].pt() - jets_trk02[1].pt()) /
(jets_trk02[0].pt() + jets_trk02[1].pt()))
self.tree.fill('Jet1_trk02_tau1', jets_trk02[0].tau1)
self.tree.fill('Jet1_trk02_tau2', jets_trk02[0].tau2)
self.tree.fill('Jet1_trk02_tau3', jets_trk02[0].tau3)
self.tree.fill('Jet2_trk02_tau1', jets_trk02[1].tau1)
self.tree.fill('Jet2_trk02_tau2', jets_trk02[1].tau2)
self.tree.fill('Jet2_trk02_tau3', jets_trk02[1].tau3)
Jet1_trk02_tau31 = -999.0
Jet1_trk02_tau21 = -999.0
Jet1_trk02_tau32 = -999.0
Jet2_trk02_tau31 = -999.0
Jet2_trk02_tau21 = -999.0
Jet2_trk02_tau32 = -999.0
if (jets_trk02[0].tau1 != 0.0):
Jet1_trk02_tau31 = jets_trk02[0].tau3 / jets_trk02[0].tau1
Jet1_trk02_tau21 = jets_trk02[0].tau2 / jets_trk02[0].tau1
if (jets_trk02[0].tau2 != 0.0):
Jet1_trk02_tau32 = jets_trk02[0].tau3 / jets_trk02[0].tau2
if (jets_trk02[1].tau1 != 0.0):
Jet2_trk02_tau31 = jets_trk02[1].tau3 / jets_trk02[1].tau1
Jet2_trk02_tau21 = jets_trk02[1].tau2 / jets_trk02[1].tau1
if (jets_trk02[1].tau2 != 0.0):
Jet2_trk02_tau32 = jets_trk02[1].tau3 / jets_trk02[1].tau2
self.tree.fill('Jet1_trk02_tau31', Jet1_trk02_tau31)
self.tree.fill('Jet1_trk02_tau21', Jet1_trk02_tau21)
self.tree.fill('Jet1_trk02_tau32', Jet1_trk02_tau32)
self.tree.fill('Jet2_trk02_tau31', Jet2_trk02_tau31)
self.tree.fill('Jet2_trk02_tau21', Jet2_trk02_tau21)
self.tree.fill('Jet2_trk02_tau32', Jet2_trk02_tau32)
# here is btag, need matching in DR
Jet1_trk02_dR_pf04 = 999
Jet2_trk02_dR_pf04 = 999
for j in jets_pf04:
pf04 = ROOT.TLorentzVector()
pf04.SetPtEtaPhiE(j.pt(), j.eta(), j.phi(), j.e())
if j.tags['bf'] > 0:
if pf04.DeltaR(j1) < Jet1_trk02_dR_pf04:
Jet1_trk02_dR_pf04 = pf04.DeltaR(j1)
if pf04.DeltaR(j2) < Jet2_trk02_dR_pf04:
Jet2_trk02_dR_pf04 = pf04.DeltaR(j2)
#print 'dr j1 ',Jet1_trk02_dR_pf04
#print 'dr j2 ',Jet2_trk02_dR_pf04
pdg1 = 0
pdg2 = 0
if Jet1_trk02_dR_pf04 < 0.3:
pdg1 = 5
if Jet2_trk02_dR_pf04 < 0.3:
pdg2 = 5
#MATCHING PF02 and trk02 for CORRECTION
Jet1_trk02_dR_pf02 = 999
Jet2_trk02_dR_pf02 = 999
Jet1_pf02 = None
Jet2_pf02 = None
for j in jets_pf02:
pf02 = ROOT.TLorentzVector()
pf02.SetPtEtaPhiE(j.pt(), j.eta(), j.phi(), j.e())
if pf02.DeltaR(j1) < Jet1_trk02_dR_pf02:
Jet1_trk02_dR_pf02 = pf02.DeltaR(j1)
Jet1_pf02 = j
if pf02.DeltaR(j2) < Jet2_trk02_dR_pf02:
Jet2_trk02_dR_pf02 = pf02.DeltaR(j2)
Jet2_pf02 = j
#print 'jet1 dr ',Jet1_trk02_dR_pf02,' pf02 ',Jet1_pf02,' trk02 ',jets_trk02[0]
#print 'jet2 dr ',Jet2_trk02_dR_pf02,' pf02 ',Jet2_pf02,' trk02 ',jets_trk02[1]
corr1 = Jet1_pf02.p4().Pt() / j1.Pt()
corr2 = Jet2_pf02.p4().Pt() / j2.Pt()
#print 'corr 1 ',corr1,' corr2 ',corr2
#NORMAL TRK02 SD corrected jet
p4sd1 = ROOT.TLorentzVector()
p4sd2 = ROOT.TLorentzVector()
p4sd1.SetPtEtaPhiM(
jets_trk02[0].subjetsSoftDrop[0].p4().Pt() * corr1,
jets_trk02[0].eta(), jets_trk02[0].phi(),
jets_trk02[0].subjetsSoftDrop[0].p4().M() * corr1)
p4sd2.SetPtEtaPhiM(
jets_trk02[1].subjetsSoftDrop[0].p4().Pt() * corr2,
jets_trk02[1].eta(), jets_trk02[1].phi(),
jets_trk02[1].subjetsSoftDrop[0].p4().M() * corr2)
sdjet1_corr = Particle(pdg1, 0, p4sd1, 1)
sdjet2_corr = Particle(pdg2, 0, p4sd2, 1)
fillParticle(self.tree, 'Jet1_trk02_SD_Corr', sdjet1_corr)
fillParticle(self.tree, 'Jet2_trk02_SD_Corr', sdjet2_corr)
#NORMAL TRK02 SD jet
#sdjet1 = Particle(pdg1, 0, jets_trk02[0].subjetsSoftDrop[0].p4(), 1)
#sdjet2 = Particle(pdg2, 0, jets_trk02[1].subjetsSoftDrop[0].p4(), 1)
#fillParticle(self.tree, 'Jet1_trk02_SD', sdjet1)
#fillParticle(self.tree, 'Jet2_trk02_SD', sdjet2)
#CORRECTED TRK02 jet
p4jet1_corr = ROOT.TLorentzVector()
p4jet2_corr = ROOT.TLorentzVector()
p4jet1_corr.SetPtEtaPhiM(jets_trk02[0].pt() * corr1,
jets_trk02[0].eta(), jets_trk02[0].phi(),
jets_trk02[0].m() * corr1)
p4jet2_corr.SetPtEtaPhiM(jets_trk02[1].pt() * corr2,
jets_trk02[1].eta(), jets_trk02[1].phi(),
jets_trk02[1].m() * corr2)
jet1_corr = Particle(pdg1, 0, p4jet1_corr, 1)
jet2_corr = Particle(pdg2, 0, p4jet2_corr, 1)
#fillParticle(self.tree, 'Jet1_trk02_Corr', jet1_corr)
#fillParticle(self.tree, 'Jet2_trk02_Corr', jet2_corr)
# associate MET to one jet or another based on softdrop
sdjetmet1, sdjetmet2 = self.corrMET(
jets_trk02[0].subjetsSoftDrop[0], pdg1,
jets_trk02[1].subjetsSoftDrop[0], pdg2, event.met)
fillParticle(self.tree, 'Jet1_trk02_SD_MetCorr', sdjetmet1)
fillParticle(self.tree, 'Jet2_trk02_SD_MetCorr', sdjetmet2)
sdjetmet1, sdjetmet2 = self.corrMET(sdjet1_corr, pdg1, sdjet2_corr,
pdg2, event.met)
fillParticle(self.tree, 'Jet1_trk02_SD_Corr_MetCorr', sdjetmet1)
fillParticle(self.tree, 'Jet2_trk02_SD_Corr_MetCorr', sdjetmet2)
if (len(jets_trk02) > 1):
self.tree.fill('Mj1j2_trk02',
self.fillMass(jets_trk02[0], jets_trk02[1]))
self.tree.fill('Mj1j2_trk02_Corr',
self.fillMass(jet1_corr, jet2_corr))
jetmet1, jetmet2 = self.corrMET(jets_trk02[0], pdg1,
jets_trk02[1], pdg2, event.met)
self.tree.fill('Mj1j2_trk02_MetCorr',
self.fillMass(jetmet1, jetmet2))
#fillParticle(self.tree, 'Jet1_trk02_MetCorr', jetmet1)
#fillParticle(self.tree, 'Jet2_trk02_MetCorr', jetmet2)
jetmet1, jetmet2 = self.corrMET(jet1_corr, pdg1, jet2_corr,
pdg2, event.met)
self.tree.fill('Mj1j2_trk02_Corr_MetCorr',
self.fillMass(jetmet1, jetmet2))
fillParticle(self.tree, 'Jet1_trk02_Corr_MetCorr', jetmet1)
fillParticle(self.tree, 'Jet2_trk02_Corr_MetCorr', jetmet2)
if (len(jets_pf02) > 1):
self.tree.fill('Mj1j2_pf02',
self.fillMass(jets_pf02[0], jets_pf02[1]))
jetmet1, jetmet2 = self.corrMET(jets_pf02[0], pdg1,
jets_pf02[1], pdg2, event.met)
self.tree.fill('Mj1j2_pf02_MetCorr',
self.fillMass(jetmet1, jetmet2))
if (len(jets_pf04) > 1):
self.tree.fill('Mj1j2_pf04',
self.fillMass(jets_pf04[0], jets_pf04[1]))
jetmet1, jetmet2 = self.corrMET(jets_pf04[0], pdg1,
jets_pf04[1], pdg2, event.met)
self.tree.fill('Mj1j2_pf04_MetCorr',
self.fillMass(jetmet1, jetmet2))
if (len(jets_pf08) > 1):
self.tree.fill('Mj1j2_pf08',
self.fillMass(jets_pf08[0], jets_pf08[1]))
jetmet1, jetmet2 = self.corrMET(jets_pf08[0], pdg1,
jets_pf08[1], pdg2, event.met)
self.tree.fill('Mj1j2_pf08_MetCorr',
self.fillMass(jetmet1, jetmet2))
if (len(electrons) >= 1):
fillParticle(self.tree, 'Electron1', electrons[0])
if (len(electrons) >= 2):
fillParticle(self.tree, 'Electron2', electrons[1])
if (len(muons) >= 1): fillParticle(self.tree, 'Muon1', muons[0])
if (len(muons) >= 2): fillParticle(self.tree, 'Muon2', muons[1])
###################################
#TMVA Stuff Starts!
###################################
###################################
#qcd Background >>>>>>>>>>>>>>>>>
###################################
# varlist = [
# "Jet1_tau32",
# "Jet2_tau32",
# "Jet1_tau21",
# "Jet2_tau21",
# "softDroppedJet1_m",
# "softDroppedJet2_m",
# "Jet1_trimmedProngMaxPtRatio",
# "Jet1_trimmedProngMinPtRatio",
# "Jet2_trimmedProngMaxPtRatio",
# "Jet2_trimmedProngMinPtRatio",
# ]
#
# inputs = ROOT.vector('string')()
# for v in varlist:
# inputs.push_back(v)
#
# mva = ROOT.ReadQCD(inputs)
# values = ROOT.vector('double')()
#
# values.push_back(Jet1_tau32)
# values.push_back(Jet2_tau32)
# values.push_back(Jet1_tau21)
# values.push_back(Jet2_tau21)
# values.push_back(jets[0].subjetsSoftDrop[0].m())
# values.push_back(jets[1].subjetsSoftDrop[0].m())
# values.push_back(Jet1_trimmedProngMaxPtRatio)
# values.push_back(Jet1_trimmedProngMinPtRatio)
# values.push_back(Jet2_trimmedProngMaxPtRatio)
# values.push_back(Jet2_trimmedProngMinPtRatio)
#
# mva_value=mva.GetMvaValue(values)
# self.tree.fill('BDTvariable_qcd', mva_value)
###################################
#TMVA Stuff Ends!
###################################
self.tree.tree.Fill()
def process(self, event):
leptons = getattr(event, self.cfg_ana.leptons)
jets = getattr(event, self.cfg_ana.jets)
sqrts = self.cfg_ana.sqrts
w_mass = self.cfg_ana.w_mass
top_mass = self.cfg_ana.top_mass
jets_p4 = []
btags = []
for jet in jets:
jets_p4.append(jet.p4())
btags.append(jet.logbtag)
if len(leptons) == 0:
event.success = -1
else:
myTopConstrainer = topConstrainer(jets_p4, btags, leptons[0].p4(), sqrts, w_mass, top_mass)
succeded, chi2 = myTopConstrainer.rescale(1E-4)
if succeded:
pRec = myTopConstrainer.p_ini
tophadRec = Particle(top_pdgid, top_charge, (pRec[0]+pRec[1]+pRec[2]) )
whadRec = Particle(w_pdgid, w_charge, (pRec[0]+pRec[1]) )
toplepRec = Particle(top_pdgid, top_charge, (pRec[3]+pRec[4]+pRec[5]) )
wlepRec = Particle(w_pdgid, w_charge, (pRec[4]+pRec[5]) )
missingMassRec = Particle( 0, 0, pRec[5] )
pFit = myTopConstrainer.p_out
tophadFit = Particle(top_pdgid, top_charge, (pFit[0]+pFit[1]+pFit[2]) )
whadFit = Particle(w_pdgid, w_charge, (pFit[0]+pFit[1]) )
toplepFit = Particle(top_pdgid, top_charge, (pFit[3]+pFit[4]+pFit[5]) )
wlepFit = Particle(w_pdgid, w_charge, (pFit[4]+pFit[5]) )
missingMassFit = Particle( 0, 0, pFit[5] )
chi2_tophadRec = ( (tophadRec.m() - self.cfg_ana.tophadRec_m) / self.cfg_ana.tophadRec_w )**2
chi2_whadRec = ( (whadRec.m() - self.cfg_ana.whadRec_m) / self.cfg_ana.whadRec_w )**2
chi2_toplepRec = ( (toplepRec.m() - self.cfg_ana.toplepRec_m) / self.cfg_ana.toplepRec_w )**2
chi2_wlepRec = ( (wlepRec.m() - self.cfg_ana.wlepRec_m) / self.cfg_ana.wlepRec_w )**2
chi2_top_constrainer = chi2_tophadRec + chi2_whadRec + chi2_toplepRec + chi2_wlepRec
setattr(event, 'success', 1)
setattr(event, 'chi2_algorithm', chi2)
setattr(event, 'tophadRec', tophadRec)
setattr(event, 'whadRec', whadRec)
setattr(event, 'toplepRec', toplepRec)
setattr(event, 'wlepRec', wlepRec)
setattr(event, 'missingMassRec', missingMassRec)
setattr(event, 'tophadFit', tophadFit)
setattr(event, 'whadFit', whadFit)
setattr(event, 'toplepFit', toplepFit)
setattr(event, 'wlepFit', wlepFit)
setattr(event, 'missingMassFit', missingMassFit)
setattr(event, 'chi2_tophadRec', chi2_tophadRec)
setattr(event, 'chi2_whadRec', chi2_whadRec)
setattr(event, 'chi2_toplepRec', chi2_toplepRec)
setattr(event, 'chi2_wlepRec', chi2_wlepRec)
setattr(event, 'chi2_top_constrainer', chi2_top_constrainer)
else:
event.success = 0
def process(self, event):
self.tree.reset()
htatas = getattr(event, self.cfg_ana.htatas)
hbbs = getattr(event, self.cfg_ana.hbbs)
met = event.met
htatas.sort(key=lambda x: abs(x.m() - 125.))
hbbs.sort(key=lambda x: abs(x.m() - 125.))
bs = event.selected_bs
taus = event.selected_taus
lights = event.selected_lights
leptons = event.selected_leptons
#print '-------------------'
#print len(htatas), len(hbbs)
#print len(taus), len(bs)
#for tau in taus:
# print tau.charge
#print ROOT.return2()
#f = Foo()
#f.bar() #and you will see "Hello" on the screen
'''
mVisA = 10.; # mass of visible object on side A. Must be >=0.
pxA = 20.; # x momentum of visible object on side A.
pyA = 30.; # y momentum of visible object on side A.
mVisB = 10.; # mass of visible object on side B. Must be >=0.
pxB = -20.; # x momentum of visible object on side B.
pyB = -30.; # y momentum of visible object on side B.
pxMiss = -5.; # x component of missing transverse momentum.
pyMiss = -5.; # y component of missing transverse momentum.
chiA = 4.; # hypothesised mass of invisible on side A. Must be >=0.
chiB = 7.; # hypothesised mass of invisible on side B. Must be >=0.
desiredPrecisionOnMt2 = 0.; # Must be >=0. If 0 alg aims for machine precision. if >0, MT2 computed to supplied absolute precision.
useDeciSectionsInitially=True
asymm_mt2 = asymm_mt2_lester_bisect()
print '-----------------------------------------'
MT2 = asymm_mt2.get_mT2(
mVisA, pxA, pyA,
mVisB, pxB, pyB,
pxMiss, pyMiss,
chiA, chiB,
desiredPrecisionOnMt2,
useDeciSectionsInitially)
print 'MT2', MT2
'''
# fully hadronic selection
if len(taus) > 1 and len(bs) > 1 and len(leptons) == 0:
self.tree.fill('weight', event.weight)
#print event.weight
fillParticle(self.tree, 'ta1', taus[0])
fillParticle(self.tree, 'ta2', taus[1])
fillParticle(self.tree, 'b1', bs[0])
fillParticle(self.tree, 'b2', bs[1])
'''
def mTsq(bT, cT, mB, mC):
eB = math.sqrt(mB*mB+ bT*bT)
eC = math.sqrt(mC*mC+ cT*cT)
return mB*mB+mC*mC+2*(eB*eC - bT*cT)
def smT2(bt1, bt2):
return max(math.sqrt(bt1),math.sqrt(bt2))
mTsq1 = mTsq(taus[0].p4().Vect().XYvector(), bs[0].p4().Vect().XYvector(), taus[0].p4().M(), bs[0].p4().M())
mTsq2 = mTsq(taus[1].p4().Vect().XYvector(), bs[1].p4().Vect().XYvector(), taus[1].p4().M(), bs[1].p4().M())
smTsq = smT2(mTsq1, mTsq2)
#print mTsq1, mTsq2, smTsq
'''
mVisA = bs[0].p4().M()
# mass of visible object on side A. Must be >=0.
pxA = bs[0].p4().Px()
# x momentum of visible object on side A.
pyA = bs[0].p4().Py()
# y momentum of visible object on side A.
mVisB = bs[1].p4().M()
# mass of visible object on side A. Must be >=0.
pxB = bs[1].p4().Px()
# x momentum of visible object on side A.
pyB = bs[1].p4().Py()
# y momentum of visible object on side A.
pxMiss = taus[0].p4().Px() + taus[1].p4().Px() + met.p4().Px(
) # x component of missing transverse momentum.
pyMiss = taus[0].p4().Py() + taus[1].p4().Py() + met.p4().Py(
) # x component of missing transverse momentum.
chiA = taus[0].p4().M()
# hypothesised mass of invisible on side A. Must be >=0.
chiB = taus[1].p4().M()
# hypothesised mass of invisible on side B. Must be >=0.
desiredPrecisionOnMt2 = 0.
# Must be >=0. If 0 alg aims for machine precision. if >0, MT2 computed to supplied absolute precision.
useDeciSectionsInitially = True
asymm_mt2 = asymm_mt2_lester_bisect()
MT2 = asymm_mt2.get_mT2(mVisA, pxA, pyA, mVisB, pxB, pyB, pxMiss,
pyMiss, chiA, chiB, desiredPrecisionOnMt2,
useDeciSectionsInitially)
#print 'MT2', MT2
self.tree.fill('mT2', MT2)
if len(lights) > 0:
fillParticle(self.tree, 'j1', lights[0])
if len(lights) > 1:
fillParticle(self.tree, 'j2', lights[1])
def computeMT(taup4, metp4):
scalar_prod = taup4.Px() * metp4.Px() + taup4.Py() * metp4.Py()
return math.sqrt(2 * (taup4.Pt() * metp4.Pt() - scalar_prod))
mt1 = computeMT(taus[0].p4(), met.p4())
mt2 = computeMT(taus[1].p4(), met.p4())
self.tree.fill('ta1_mt', mt1)
self.tree.fill('ta2_mt', mt2)
st = taus[0].p4().Pt() + taus[1].p4().Pt() + bs[0].p4().Pt(
) + bs[0].p4().Pt() + met.p4().Pt()
self.tree.fill('sT', st)
fillMet(self.tree, 'met', met)
fillParticle(self.tree, 'htata', htatas[0])
fillParticle(self.tree, 'hbb', hbbs[0])
htata_metcorr_p4 = taus[0].p4() + taus[1].p4() + met.p4()
htata_metcorr = Particle(25, 0, htata_metcorr_p4, 1)
fillParticle(self.tree, 'htata_metcorr', htata_metcorr)
hh = Resonance(htatas[0], hbbs[0], 25)
hh_metcorr = Resonance(htata_metcorr, hbbs[0], 25)
fillParticle(self.tree, 'hh', hh)
fillParticle(self.tree, 'hh_metcorr', hh_metcorr)
self.tree.fill('nbjets', len(event.selected_bs))
self.tree.fill('nljets', len(event.selected_lights))
self.tree.fill(
'njets',
len(event.selected_lights) + len(event.selected_bs) +
len(event.selected_taus))
self.tree.fill('nlep', len(event.selected_leptons))
self.tree.fill('ntajets', len(event.selected_taus))
drbb = deltaR(bs[0], bs[1])
drtata = deltaR(taus[0], taus[1])
self.tree.fill('drtata', drtata)
self.tree.fill('drbb', drbb)
# here fill all variables for BDT
self.bdt_ta1_pt[0] = taus[0].p4().Pt()
self.bdt_ta1_eta[0] = taus[0].p4().Eta()
self.bdt_ta1_phi[0] = taus[0].p4().Phi()
self.bdt_ta2_pt[0] = taus[1].p4().Pt()
self.bdt_ta2_eta[0] = taus[1].p4().Eta()
self.bdt_ta2_phi[0] = taus[1].p4().Phi()
self.bdt_b1_pt[0] = bs[0].p4().Pt()
self.bdt_b1_eta[0] = bs[0].p4().Eta()
self.bdt_b1_phi[0] = bs[0].p4().Phi()
self.bdt_b2_pt[0] = bs[1].p4().Pt()
self.bdt_b2_eta[0] = bs[1].p4().Eta()
self.bdt_b2_phi[0] = bs[1].p4().Phi()
self.bdt_met_pt[0] = met.p4().Pt()
self.bdt_met_phi[0] = met.p4().Phi()
self.bdt_met_px[0] = met.p4().Px()
self.bdt_met_py[0] = met.p4().Py()
self.bdt_htata_pt[0] = htatas[0].p4().Pt()
self.bdt_htata_eta[0] = htatas[0].p4().Eta()
self.bdt_htata_phi[0] = htatas[0].p4().Phi()
self.bdt_htata_m[0] = htatas[0].p4().M()
self.bdt_hbb_pt[0] = hbbs[0].p4().Pt()
self.bdt_hbb_eta[0] = hbbs[0].p4().Eta()
self.bdt_hbb_phi[0] = hbbs[0].p4().Phi()
self.bdt_hbb_m[0] = hbbs[0].p4().M()
self.bdt_hh_pt[0] = hh.p4().Pt()
self.bdt_hh_eta[0] = hh.p4().Eta()
self.bdt_hh_phi[0] = hh.p4().Phi()
self.bdt_hh_m[0] = hh.p4().M()
self.bdt_ta1_mt[0] = mt1
self.bdt_ta2_mt[0] = mt2
self.bdt_mT2[0] = MT2
self.bdt_sT[0] = st
self.bdt_njets[0] = len(event.selected_lights) + len(
event.selected_bs) + len(event.selected_taus)
self.bdt_nbjets[0] = len(event.selected_bs)
self.bdt_ntajets[0] = len(event.selected_taus)
#self.bdt_nlep [0] = len(event.selected_leptons)
#print MT2, ",", s ,",", len(event.selected_lights) + len(event.selected_bs) + len(event.selected_taus), ",", len(event.selected_bs) ,",", len(event.selected_taus) ,",", len(event.selected_leptons)t
mva_value = self.reader.EvaluateMVA("BDT")
#print mva_value
self.tree.fill('tmva_bdt', mva_value)
self.tree.tree.Fill()
