def w_mass_hadronic(tree,
ecm,
m_w,
histdict,
reconstruction,
reco_level,
reco_type=''):
'''Run over the hadronic events and save the histograms'''
from_tree = TreeInfo()
sign = {}
#eeqq
bkg1 = {}
#ZZqqll
bkg2 = {}
#ZZqqqq
bkg3 = {}
#WWqqll
bkg4 = {}
purete = []
efficacite = []
x = []
#cut y34
# for i in range(0,101):
# j=i*0.001
# x.append(j)
# print x
# for index, value in enumerate(x):
# print value
#cut ejetcut
# for i in range(0,2):
# j=i*0.001
# x.append(j)
# print x
# print len(x)
#boucle sur les valeurs de cut
for iev, evt in enumerate(tree):
if iev % 5000 == 0:
print("Processing events {} on {} ".format(iev, tree.GetEntries()))
# Object from_tree to access the rootfile information
from_tree.set_evt(evt, reco_level, reco_type)
# Discard event where one jet is containing only photons and/or no clustered particles
if from_tree.get_dim("jet") != 4:
continue
if not check_content(from_tree):
continue
#cut masses "similaires" des 2 W
#if abs(m_large-m_small)<13:
# continue
# cut y34
if from_tree.get_y34() <= 0.001:
continue
#cut energy part chargees < 0.96 * energy jet
energyjet1 = from_tree.get_reco_jet1_e()
energyjet2 = from_tree.get_reco_jet2_e()
energyjet3 = from_tree.get_reco_jet3_e()
energyjet4 = from_tree.get_reco_jet4_e()
# partchargees=['11','13','211']
energypartchargeesjet1 = from_tree.get_reco_jet1_11_e(
) + from_tree.get_reco_jet1_13_e() + from_tree.get_reco_jet1_211_e()
energypartchargeesjet2 = from_tree.get_reco_jet2_11_e(
) + from_tree.get_reco_jet2_13_e() + from_tree.get_reco_jet2_211_e()
energypartchargeesjet3 = from_tree.get_reco_jet3_11_e(
) + from_tree.get_reco_jet3_13_e() + from_tree.get_reco_jet3_211_e()
energypartchargeesjet4 = from_tree.get_reco_jet4_11_e(
) + from_tree.get_reco_jet4_13_e() + from_tree.get_reco_jet4_211_e()
if energypartchargeesjet1 > 0.996 * energyjet1 or energypartchargeesjet2 > 0.996 * energyjet2 or energypartchargeesjet3 > 0.996 * energyjet3 or energypartchargeesjet4 > 0.996 * energyjet4:
continue
# Jets
pvec = []
for part in range(4):
njet = str("jet" + str(part + 1))
pvec.append(from_tree.get_p4(njet))
jets = [Jet() for i in range(from_tree.get_dim("jet"))]
# Direct reconstruction
if reconstruction == "direct":
for jid, jet in enumerate(jets):
jet.set_id(str("jet" + str(jid + 1)))
jet.set_mref(m_w)
jet.set_p4(pvec[jid])
# Energy Rescaling
else:
beta = get_beta_matrix(pvec)
energy = energy_from_direction(ecm, beta, from_tree.get_dim("jet"))
# discarded events with energy < 0 solutions (no physics)
if any(energy < 0):
continue
# Need to rescale the p4 matrix
p4_resc = rescaling_factors.rescale(
pvec, rescaling_factors.factor(energy, pvec))
for jid, jet in enumerate(jets):
jet.set_id(str("jet" + str(jid + 1)))
jet.set_mref(m_w)
jet.set_p4(p4_resc[jid])
dijet = get_dijets_pairs(jets)
# If the pairing conditions are not full
if not dijet:
continue
#cut energie dijets similaires
diffedjets = return_edijets(dijet)
if diffedjets >= 30:
continue
openingangledj1, openingangledj2 = return_opening_angle(dijet)
#if openingangledj1 <= 80 or openingangledj2 <= 80:
# continue
m_small, m_large = return_mass(dijet)
#cut sur la masse de mW2
#if m_large<=65 or m_small<40:
# continue
#fonction qui rempli les histos
fill_histograms(dijet, histdict)
def w_mass_hadronic(tree,
ecm,
m_w,
histdict,
reconstruction,
reco_level,
reco_type=''):
'''Run over the hadronic events and save the histograms'''
from_tree = TreeInfo()
for iev, evt in enumerate(tree):
if iev % 5000 == 0:
print("Processing events {} on {} ".format(iev, tree.GetEntries()))
# Object from_tree to access the rootfile information
from_tree.set_evt(evt, reco_level, reco_type)
# Discard event where one jet is containing only photons and/or no clustered particles
if from_tree.get_dim("jet") != 4:
continue
if not check_content(from_tree):
continue
# cut y34
# if from_tree.get_y34()<0.0015:
# continue
# L = ['1','2','3','4']
# for jetnumber in range(0,4):
energyjet1 = from_tree.get_reco_jet1_e()
energyjet2 = from_tree.get_reco_jet2_e()
energyjet3 = from_tree.get_reco_jet3_e()
energyjet4 = from_tree.get_reco_jet4_e()
# print energyjet1
# print energyjet2
# print energyjet3
# print energyjet4
# partchargees=['11','13','130','211']
energypartchargeesjet1 = from_tree.get_reco_jet1_11_e(
) + from_tree.get_reco_jet1_13_e() + from_tree.get_reco_jet1_211_e()
energypartchargeesjet2 = from_tree.get_reco_jet2_11_e(
) + from_tree.get_reco_jet2_13_e() + from_tree.get_reco_jet2_211_e()
energypartchargeesjet3 = from_tree.get_reco_jet3_11_e(
) + from_tree.get_reco_jet3_13_e() + from_tree.get_reco_jet3_211_e()
energypartchargeesjet4 = from_tree.get_reco_jet4_11_e(
) + from_tree.get_reco_jet4_13_e() + from_tree.get_reco_jet4_211_e()
#cut energy part chargees < 0.9 * energy jet
# if energypartchargeesjet1 > 0.9 * energyjet1 or energypartchargeesjet2 > 0.9 * energyjet2 or energypartchargeesjet3 > 0.9 * energyjet3 or energypartchargeesjet4 > 0.9 * energyjet4:
# continue
# print energypartchargeesjet1
# print energypartchargeesjet2
# print energypartchargeesjet3
# print energypartchargeesjet4
#for ptcharged in partchargees
#get_reco_jet + L[jetnumber]+"_e"
## partchargees=['11','13','130','211']
## for ptcharged in partchargees:
## energy_part_chargees_jet_number+=from_tree.get_reco_jet+L[jetnumber]+_+partchargees[ptcharged]+_e
## if energy_part_chargees_jet_number < 0.9*energyjet+L[jetnumber]:
#continue
#print y34 value for each event
#print from_tree.get_y34()
#for jet in range (4):
#energypartjet = fromtree.getenergyjet
#if pdgif = 211 or 11 or 13
# energypartchargeesjet+=energypartchargeesjet
#if from_tree_get_jet1_e()<0.9.*energypartchargeesjet
#continue
#cut particules chargees,
#for jet_"number" in range (0,4):
#energyjet"number" = fromtree.get_reco_jet_"number"_e
# for part in (list particules chargees):
# energy_part_chargees_jet_"number"+=from_tree?get_reco_jet_"number"_"part"_e
#if energy_part_chargees_jet_"number"<0.9.*energy_part_chargees_jet_"number"
# continue
# Jets
pvec = []
for part in range(4):
njet = str("jet" + str(part + 1))
pvec.append(from_tree.get_p4(njet))
jets = [Jet() for i in range(from_tree.get_dim("jet"))]
# Direct reconstruction
if reconstruction == "direct":
for jid, jet in enumerate(jets):
jet.set_id(str("jet" + str(jid + 1)))
jet.set_mref(m_w)
jet.set_p4(pvec[jid])
# Energy Rescaling
else:
beta = get_beta_matrix(pvec)
energy = energy_from_direction(ecm, beta, from_tree.get_dim("jet"))
# discarded events with energy < 0 solutions (no physics)
if any(energy < 0):
continue
# Need to rescale the p4 matrix
p4_resc = rescaling_factors.rescale(
pvec, rescaling_factors.factor(energy, pvec))
for jid, jet in enumerate(jets):
jet.set_id(str("jet" + str(jid + 1)))
jet.set_mref(m_w)
jet.set_p4(p4_resc[jid])
dijet = get_dijets_pairs(jets)
# If the pairing conditions are not full
if not dijet:
continue
fill_histograms(dijet, histdict)
def coefficients(tree, histdict):
'''Computation of the rescaling coefficient, beta, theta and phi uncertainties'''
from_tree = TreeInfo()
# Run on events
for iev, evt in enumerate(tree):
if iev % 5000 == 0:
print("Processing events {} over {}".format(
iev, tree.GetEntries()))
# Object from_tree to access the rootfile information
from_tree.set_evt(evt)
if from_tree.get_dim("reco_jet") != 2:
continue
if from_tree.get_dim("quark") != 2:
continue
if from_tree.get_pdgid("reco_lepton") < -90:
continue
# if evt.gen_jet2_theta < -1. or evt.gen_jet2_theta > 1.:
# continue
######### Leptonic part
g_lepton = Particle(from_tree.get_p4("gen_lepton"))
r_lepton = Particle(from_tree.get_p4("reco_lepton"))
if not r_lepton:
continue
histdict["h_uncert_energy"].Fill(r_lepton.get_E() - g_lepton.get_E())
######## Hadronic part
partons = [Particle() for i in range(from_tree.get_dim("quark"))]
for iparton, parton in enumerate(partons):
nparton = str("quark" + str(iparton + 1))
parton.set_p4(from_tree.get_p4(nparton))
gen_jets = [Jet() for i in range(from_tree.get_dim("gen_jet"))]
for ijet, jet in enumerate(gen_jets):
njet = str("gen_jet" + str(ijet + 1))
jet.set_p4(from_tree.get_p4(njet))
rec_jets = [Jet() for i in range(from_tree.get_dim("reco_jet"))]
for ijet, jet in enumerate(rec_jets):
njet = str("reco_jet" + str(ijet + 1))
jet.set_p4(from_tree.get_p4(njet))
if not rec_jets:
continue
association(partons, rec_jets, gen_jets, histdict)
def coefficients(tree, histdict, reco_type=''):
'''Computation of the rescaling coefficient, theta and phi uncertainty'''
from_tree = TreeInfo()
# Run on events
for iev, evt in enumerate(tree):
if iev % 5000 == 0:
print("Processing events {} over {}".format(
iev, tree.GetEntries()))
# Object from_tree to access the rootfile information
from_tree.set_evt(evt)
#value for normalisation
histweight = from_tree.get_file_type()
if (histweight == 1 or histweight == 2 or histweight == 3):
print histweight
#value distinguish ZZllll from ZZqqll from ZZqqqq in ZZall
ZZqqll = 0
ZZqqqq = 0
if (histweight == 3 & from_tree.get_dim("quark") == 2):
ZZqqll = 1
if (histweight == 3 & from_tree.get_dim("quark") == 4):
ZZqqqq = 1
#ecarte les evenements purement leptoniques du background ZZAll
#if (histweight == 3 & from_tree.get_dim("quark") == 0):
# continue
#if (histweight==0 or histweight ==3):
#if from_tree.get_dim("reco_jet{}".format(reco_type)) != 4:
# continue
#if(histweight==1 or histweight ==2):
# if from_tree.get_dim("reco_jet{}".format(reco_type)) != 2:
# continue
#if from_tree.get_dim("quark") != 4:
# continue
partons = [Particle() for i in range(from_tree.get_dim("quark"))]
#print "range partons "+str(from_tree.get_dim("quark"))
for iparton, parton in enumerate(partons):
nparton = str("quark" + str(iparton + 1))
#print "nparton "+str(nparton)
parton.set_p4(from_tree.get_p4(nparton))
gen_jets = [
Jet()
for i in range(from_tree.get_dim("gen_jet{}".format(reco_type)))
]
#print "gen_jets"+str(from_tree.get_dim("gen_jet{}".format(reco_type)))
for ijet, jet in enumerate(gen_jets):
#print "range ijet "+str(gen_jets)
njet = str("gen_jet" + str(ijet + 1) + reco_type)
#print njet
if from_tree.get_p4(njet).E() < 0:
continue
jet.set_p4(from_tree.get_p4(njet))
rec_jets = [
Jet()
for i in range(from_tree.get_dim("reco_jet{}".format(reco_type)))
]
for ijet, jet in enumerate(rec_jets):
njet = str("reco_jet" + str(ijet + 1) + reco_type)
if from_tree.get_p4(njet).E() < 0:
continue
jet.set_p4(from_tree.get_p4(njet))
if not rec_jets:
print "No rec_jets"
continue
#print iev
association(partons, rec_jets, gen_jets, histdict, histweight, ZZqqll,
ZZqqqq)
def coefficients(tree, histdict, reco_type=''):
'''Computation of the rescaling coefficient, theta and phi uncertainty'''
from_tree = TreeInfo()
# Run on events
for iev, evt in enumerate(tree):
if iev < 50000:
if iev%5000 == 0:
print("Processing events {} over {}".format(iev, tree.GetEntries()))
# Object from_tree to access the rootfile information
from_tree.set_evt(evt)
if from_tree.get_dim("reco_jet{}".format(reco_type)) != 4:
continue
if from_tree.get_dim("quark") != 4:
continue
partons = [Particle() for i in range(from_tree.get_dim("quark"))]
for iparton, parton in enumerate(partons):
nparton = str("quark" + str(iparton + 1))
parton.set_p4(from_tree.get_p4(nparton))
gen_jets = [Jet()for i in range(from_tree.get_dim("gen_jet{}".format(reco_type)))]
for ijet, jet in enumerate(gen_jets):
njet = str("gen_jet" + str(ijet + 1) + reco_type)
if from_tree.get_p4(njet).E() < 0:
continue
jet.set_p4(from_tree.get_p4(njet))
rec_jets = [Jet()for i in range(from_tree.get_dim("reco_jet{}".format(reco_type)))]
for ijet, jet in enumerate(rec_jets):
njet = str("reco_jet" + str(ijet + 1) + reco_type)
if from_tree.get_p4(njet).E() < 0:
continue
jet.set_p4(from_tree.get_p4(njet))
if not rec_jets:
continue
association(partons, rec_jets, gen_jets, histdict)
else:
break
def w_mass_semi_leptonic(ecm, tree, histdict, reco_level):
'''Run over the events and fill the histograms'''
from_tree = TreeInfo()
nDiscarded = 0
for iev, evt in enumerate(tree):
if iev % 5000 == 0:
print("Processing event {} on {} ".format(iev, tree.GetEntries()))
# Object from_tree to access the rootfile information
from_tree.set_evt(evt, reco_level)
if from_tree.get_dim("lepton") != 1 or from_tree.get_dim("jet") != 2:
nDiscarded += 1
continue
if not check_jet_compo(from_tree):
nDiscarded += 1
continue
#### Leptonic decay part
lepton = Particle(from_tree.get_p4("lepton"))
misenergy = Particle(from_tree.get_p4("misenergy"))
# Compute W mass from the lepton and the missing energy
lep_decay = LeptonicDecay(lepton, misenergy)
lep_decay.set_true_mass(from_tree.get_w_mass("leptonic_W"))
lep_decay.compute()
#### hadronic decay part
jets = [Jet() for i in range(from_tree.get_dim("jet"))]
for jid, jet in enumerate(jets):
njet = str("jet" + str(jid + 1))
jet.set_p4(from_tree.get_p4(njet))
# Compute W mass from the jet and their angle
dijet = Dijet(jets[0], jets[1])
dijet.set_true_mass(from_tree.get_w_mass("hadronic_W"))
dijet.compute()
fill_histograms(ecm, histdict, dijet, lep_decay)
print nDiscarded
def w_mass_hadronic(tree,
ecm,
m_w,
histdict,
reconstruction,
reco_level,
reco_type=''):
'''Run over the hadronic events and save the histograms'''
f1 = TFile('signal_and_bkg_cut_240GeV.root', "update")
treecut = TTree(treename, "tree title")
y34 = array('f', [0])
reco_jet1_e = array('f', [0])
reco_jet2_e = array('f', [0])
reco_jet3_e = array('f', [0])
reco_jet4_e = array('f', [0])
reco_jet1_px = array('f', [0])
reco_jet2_px = array('f', [0])
reco_jet3_px = array('f', [0])
reco_jet4_px = array('f', [0])
reco_jet1_py = array('f', [0])
reco_jet2_py = array('f', [0])
reco_jet3_py = array('f', [0])
reco_jet4_py = array('f', [0])
reco_jet1_pz = array('f', [0])
reco_jet2_pz = array('f', [0])
reco_jet3_pz = array('f', [0])
reco_jet4_pz = array('f', [0])
reco_jet_size = array('f', [0])
file_type = array('f', [0])
quark_size = array('f', [0])
quark1_e = array('f', [0])
quark2_e = array('f', [0])
quark3_e = array('f', [0])
quark4_e = array('f', [0])
quark1_px = array('f', [0])
quark2_px = array('f', [0])
quark3_px = array('f', [0])
quark4_px = array('f', [0])
quark1_py = array('f', [0])
quark2_py = array('f', [0])
quark3_py = array('f', [0])
quark4_py = array('f', [0])
quark1_pz = array('f', [0])
quark2_pz = array('f', [0])
quark3_pz = array('f', [0])
quark4_pz = array('f', [0])
gen_jet_size = array('f', [0])
gen_jet1_e = array('f', [0])
gen_jet2_e = array('f', [0])
gen_jet3_e = array('f', [0])
gen_jet4_e = array('f', [0])
gen_jet1_px = array('f', [0])
gen_jet2_px = array('f', [0])
gen_jet3_px = array('f', [0])
gen_jet4_px = array('f', [0])
gen_jet1_py = array('f', [0])
gen_jet2_py = array('f', [0])
gen_jet3_py = array('f', [0])
gen_jet4_py = array('f', [0])
gen_jet1_pz = array('f', [0])
gen_jet2_pz = array('f', [0])
gen_jet3_pz = array('f', [0])
gen_jet4_pz = array('f', [0])
treecut.Branch("y34", y34, 'y34/F')
treecut.Branch("reco_jet1_e", reco_jet1_e, 'reco_jet1_e/F')
treecut.Branch("reco_jet2_e", reco_jet2_e, 'reco_jet2_e/F')
treecut.Branch("reco_jet3_e", reco_jet3_e, 'reco_jet3_e/F')
treecut.Branch("reco_jet4_e", reco_jet4_e, 'reco_jet4_e/F')
treecut.Branch("reco_jet1_px", reco_jet1_px, 'reco_jet1_px/F')
treecut.Branch("reco_jet2_px", reco_jet2_px, 'reco_jet2_px/F')
treecut.Branch("reco_jet3_px", reco_jet3_px, 'reco_jet3_px/F')
treecut.Branch("reco_jet4_px", reco_jet4_px, 'reco_jet4_px/F')
treecut.Branch("reco_jet1_py", reco_jet1_py, 'reco_jet1_py/F')
treecut.Branch("reco_jet2_py", reco_jet2_py, 'reco_jet2_py/F')
treecut.Branch("reco_jet3_py", reco_jet3_py, 'reco_jet3_py/F')
treecut.Branch("reco_jet4_py", reco_jet4_py, 'reco_jet4_py/F')
treecut.Branch("reco_jet1_pz", reco_jet1_pz, 'reco_jet1_pz/F')
treecut.Branch("reco_jet2_pz", reco_jet2_pz, 'reco_jet2_pz/F')
treecut.Branch("reco_jet3_pz", reco_jet3_pz, 'reco_jet3_pz/F')
treecut.Branch("reco_jet4_pz", reco_jet4_pz, 'reco_jet4_pz/F')
treecut.Branch("reco_jet_size", reco_jet_size, 'reco_jet_size/F')
treecut.Branch("file_type", file_type, 'file_type/F')
treecut.Branch("quark_size", quark_size, 'quark_size/F')
treecut.Branch("quark1_e", quark1_e, 'quark1_e/F')
treecut.Branch("quark2_e", quark2_e, 'quark2_e/F')
treecut.Branch("quark3_e", quark3_e, 'quark3_e/F')
treecut.Branch("quark4_e", quark4_e, 'quark4_e/F')
treecut.Branch("quark1_px", quark1_px, 'quark1_px/F')
treecut.Branch("quark2_px", quark2_px, 'quark2_px/F')
treecut.Branch("quark3_px", quark3_px, 'quark3_px/F')
treecut.Branch("quark4_px", quark4_px, 'quark4_px/F')
treecut.Branch("quark1_py", quark1_py, 'quark1_py/F')
treecut.Branch("quark2_py", quark2_py, 'quark2_py/F')
treecut.Branch("quark3_py", quark3_py, 'quark3_py/F')
treecut.Branch("quark4_py", quark4_py, 'quark4_py/F')
treecut.Branch("quark1_pz", quark1_pz, 'quark1_pz/F')
treecut.Branch("quark2_pz", quark2_pz, 'quark2_pz/F')
treecut.Branch("quark3_pz", quark3_pz, 'quark3_pz/F')
treecut.Branch("quark4_pz", quark4_pz, 'quark4_pz/F')
treecut.Branch("gen_jet_size", gen_jet_size, 'gen_jet_size/F')
treecut.Branch("gen_jet1_e", gen_jet1_e, 'gen_jet1_e/F')
treecut.Branch("gen_jet2_e", gen_jet2_e, 'gen_jet2_e/F')
treecut.Branch("gen_jet3_e", gen_jet3_e, 'gen_jet3_e/F')
treecut.Branch("gen_jet4_e", gen_jet4_e, 'gen_jet4_e/F')
treecut.Branch("gen_jet1_px", gen_jet1_px, 'gen_jet1_px/F')
treecut.Branch("gen_jet2_px", gen_jet2_px, 'gen_jet2_px/F')
treecut.Branch("gen_jet3_px", gen_jet3_px, 'gen_jet3_px/F')
treecut.Branch("gen_jet4_px", gen_jet4_px, 'gen_jet4_px/F')
treecut.Branch("gen_jet1_py", gen_jet1_py, 'gen_jet1_py/F')
treecut.Branch("gen_jet2_py", gen_jet2_py, 'gen_jet2_py/F')
treecut.Branch("gen_jet3_py", gen_jet3_py, 'gen_jet3_py/F')
treecut.Branch("gen_jet4_py", gen_jet4_py, 'gen_jet4_py/F')
treecut.Branch("gen_jet1_pz", gen_jet1_pz, 'gen_jet1_pz/F')
treecut.Branch("gen_jet2_pz", gen_jet2_pz, 'gen_jet2_pz/F')
treecut.Branch("gen_jet3_pz", gen_jet3_pz, 'gen_jet3_pz/F')
treecut.Branch("gen_jet4_pz", gen_jet4_pz, 'gen_jet4_pz/F')
from_tree = TreeInfo()
sign = {}
#eeqq
bkg1 = {}
#ZZqqll
bkg2 = {}
#ZZqqqq
bkg3 = {}
#WWqqll
bkg4 = {}
purete = []
efficacite = []
x = []
#cut y34
# for i in range(0,101):
# j=i*0.001
# x.append(j)
# print x
# for index, value in enumerate(x):
# print value
#cut ejetcut
# for i in range(0,2):
# j=i*0.001
# x.append(j)
# print x
# print len(x)
#boucle sur les valeurs de cut
for iev, evt in enumerate(tree):
if iev % 5000 == 0:
print("Processing events {} on {} ".format(iev, tree.GetEntries()))
# Object from_tree to access the rootfile information
from_tree.set_evt(evt, reco_level, reco_type)
# Discard event where one jet is containing only photons and/or no clustered particles
if from_tree.get_dim("jet") != 4:
continue
if not check_content(from_tree):
continue
#cut masses "similaires" des 2 W
#if abs(m_large-m_small)<13:
# continue
# cut y34
if from_tree.get_y34() <= 0.001:
continue
#cut energy part chargees < 0.96 * energy jet
energyjet1 = from_tree.get_reco_jet1_e()
energyjet2 = from_tree.get_reco_jet2_e()
energyjet3 = from_tree.get_reco_jet3_e()
energyjet4 = from_tree.get_reco_jet4_e()
# partchargees=['11','13','211']
energypartchargeesjet1 = from_tree.get_reco_jet1_11_e(
) + from_tree.get_reco_jet1_13_e() + from_tree.get_reco_jet1_211_e()
energypartchargeesjet2 = from_tree.get_reco_jet2_11_e(
) + from_tree.get_reco_jet2_13_e() + from_tree.get_reco_jet2_211_e()
energypartchargeesjet3 = from_tree.get_reco_jet3_11_e(
) + from_tree.get_reco_jet3_13_e() + from_tree.get_reco_jet3_211_e()
energypartchargeesjet4 = from_tree.get_reco_jet4_11_e(
) + from_tree.get_reco_jet4_13_e() + from_tree.get_reco_jet4_211_e()
if energypartchargeesjet1 > 0.996 * energyjet1 or energypartchargeesjet2 > 0.996 * energyjet2 or energypartchargeesjet3 > 0.996 * energyjet3 or energypartchargeesjet4 > 0.996 * energyjet4:
continue
# Jets
pvec = []
for part in range(4):
njet = str("jet" + str(part + 1))
pvec.append(from_tree.get_p4(njet))
jets = [Jet() for i in range(from_tree.get_dim("jet"))]
# Direct reconstruction
if reconstruction == "direct":
for jid, jet in enumerate(jets):
jet.set_id(str("jet" + str(jid + 1)))
jet.set_mref(m_w)
jet.set_p4(pvec[jid])
# Energy Rescaling
else:
beta = get_beta_matrix(pvec)
energy = energy_from_direction(ecm, beta, from_tree.get_dim("jet"))
# discarded events with energy < 0 solutions (no physics)
if any(energy < 0):
continue
# Need to rescale the p4 matrix
p4_resc = rescaling_factors.rescale(
pvec, rescaling_factors.factor(energy, pvec))
for jid, jet in enumerate(jets):
jet.set_id(str("jet" + str(jid + 1)))
jet.set_mref(m_w)
jet.set_p4(p4_resc[jid])
dijet = get_dijets_pairs(jets)
# If the pairing conditions are not full
if not dijet:
continue
#cut energie dijets similaires
#diffedjets = return_edijets(dijet)
#if diffedjets>=30:
continue
openingangledj1, openingangledj2 = return_opening_angle(dijet)
if openingangledj1 <= 60 or openingangledj2 <= 60 or openingangledj1 >= 145 or openingangledj2 >= 145:
continue
m_small, m_large = return_mass(dijet)
#cut sur la masse de mW1 small mW2 large
if m_large <= 70:
#or m_small<40:
continue
#fonction qui rempli les histos
fill_histograms(dijet, histdict)
#y34=from_tree.get_y34()
#treecuts.Fill()
y34[0] = from_tree.get_y34()
reco_jet1_e[0] = from_tree.get_reco_jet1_e()
reco_jet2_e[0] = from_tree.get_reco_jet2_e()
reco_jet3_e[0] = from_tree.get_reco_jet3_e()
reco_jet4_e[0] = from_tree.get_reco_jet4_e()
reco_jet1_px[0] = from_tree.get_reco_jet1_px()
reco_jet2_px[0] = from_tree.get_reco_jet2_px()
reco_jet3_px[0] = from_tree.get_reco_jet3_px()
reco_jet4_px[0] = from_tree.get_reco_jet4_px()
reco_jet1_py[0] = from_tree.get_reco_jet1_py()
reco_jet2_py[0] = from_tree.get_reco_jet2_py()
reco_jet3_py[0] = from_tree.get_reco_jet3_py()
reco_jet4_py[0] = from_tree.get_reco_jet4_py()
reco_jet1_pz[0] = from_tree.get_reco_jet1_pz()
reco_jet2_pz[0] = from_tree.get_reco_jet2_pz()
reco_jet3_pz[0] = from_tree.get_reco_jet3_pz()
reco_jet4_pz[0] = from_tree.get_reco_jet4_pz()
reco_jet_size[0] = from_tree.get_reco_jet_size()
quark_size[0] = from_tree.get_quark_size()
file_type[0] = float(fileoutput1)
quark1_e[0] = from_tree.get_quark1_e()
quark2_e[0] = from_tree.get_quark2_e()
quark3_e[0] = from_tree.get_quark3_e()
quark4_e[0] = from_tree.get_quark4_e()
quark1_px[0] = from_tree.get_quark1_px()
quark2_px[0] = from_tree.get_quark2_px()
quark3_px[0] = from_tree.get_quark3_px()
quark4_px[0] = from_tree.get_quark4_px()
quark1_py[0] = from_tree.get_quark1_py()
quark2_py[0] = from_tree.get_quark2_py()
quark3_py[0] = from_tree.get_quark3_py()
quark4_py[0] = from_tree.get_quark4_py()
quark1_pz[0] = from_tree.get_quark1_pz()
quark2_pz[0] = from_tree.get_quark2_pz()
quark3_pz[0] = from_tree.get_quark3_pz()
quark4_pz[0] = from_tree.get_quark4_pz()
gen_jet_size[0] = from_tree.get_gen_jet_size()
gen_jet1_e[0] = from_tree.get_gen_jet1_e()
gen_jet2_e[0] = from_tree.get_gen_jet2_e()
gen_jet3_e[0] = from_tree.get_gen_jet3_e()
gen_jet4_e[0] = from_tree.get_gen_jet4_e()
gen_jet1_px[0] = from_tree.get_gen_jet1_px()
gen_jet2_px[0] = from_tree.get_gen_jet2_px()
gen_jet3_px[0] = from_tree.get_gen_jet3_px()
gen_jet4_px[0] = from_tree.get_gen_jet4_px()
gen_jet1_py[0] = from_tree.get_gen_jet1_py()
gen_jet2_py[0] = from_tree.get_gen_jet2_py()
gen_jet3_py[0] = from_tree.get_gen_jet3_py()
gen_jet4_py[0] = from_tree.get_gen_jet4_py()
gen_jet1_pz[0] = from_tree.get_gen_jet1_pz()
gen_jet2_pz[0] = from_tree.get_gen_jet2_pz()
gen_jet3_pz[0] = from_tree.get_gen_jet3_pz()
gen_jet4_pz[0] = from_tree.get_gen_jet4_pz()
#print str(quark4_pz[0])
treecut.Fill()
f1.cd()
f1.Write()
f1.Close()