h = t.GetNamedHisto(pref + var + '_' + ch)
else:
h = t.GetNamedHisto(pref + var + '_' + ch + '_' + inc)
y = h.GetBinContent(9)
else:
y = t.GetYield()
return y
from wzanalysis.wzanalysis import lev, level, ch, chan
#path = '/pool/ciencias/nanoAODv4/5TeV/5TeV_21nov2019/'
path = '/nfs/fanae/user/joanrs/xuAnalysis/tempWZ8/'
#process = ['WZTo3LNU_NNPDF30_TuneCP5_5p20TeV','DYJetsToLL_MLL_50_TuneCP5_5020GeV_amcatnloFXFX','DYJetsToLL_M_10to50_TuneCP5_5020GeV_amcatnloFXFX','ZZTo2L2Nu_5p02TeV','ZZTo4L_5p02TeV','WWTo2L2Nu_NNPDF31_TuneCP5_5p02TeV', 'tW_5f_noFullHad_TuneCP5_PSweights_5p02TeV_py, tW_5f_noFullHad_TuneCP5_5p02TeV', 'tbarW_5f_noFullHad_TuneCP5_PSweights_5p02TeV_powhe, tbarW_5f_noFullHad_TuneCP5_5p02TeV', 'TT_TuneCP5_PSweights_5p02TeV' ]
t = TopHistoReader(path)
t.SetLumi(Lumi)
PR = []
TT = []
DY = []
VV = []
WZ = []
Da = []
ZZ = []
WW = []
#process = ['WZTo3LNU']
process = [
'WZTo3LNU', 'DYJetsToLL_MLL50', 'DYJetsToLL_M_10to50', 'ZZTo2L2Nu',
'ZZTo4L', 'WWTo2L2Nu', 'tW_noFullHad', 'tbarW_noFullHad', 'TT',
'HighEGJet', 'SingleMuon'
]
name = [
class CrossSection:
### Add background, signal and data numbers
def AddBkg(self, name, val, normunc=0, systunc=0, statunc=0, samples=''):
''' Add a bkg process (must include yield, name, uncertainties...) '''
self.bkg.append(
Process(name,
Yield=val,
NormUnc=normunc,
SystUnc=systunc,
StatUnc=statunc,
samples=samples))
def SetSignal(self, name, val, statunc=0, samples=''):
''' Set the signal process (must include yield, name, uncertainties...) '''
self.signal = Process(name,
Yield=val,
StatUnc=statunc,
samples=samples)
def SetData(self, n):
''' Number of observed events '''
self.data = n
self.dataunc = sqrt(n)
### Add uncertainties... experimental and modeling
def AddExpUnc(self, name, val):
''' Add the uncertainty 'name' with value 'val' to the experimental uncertainties '''
self.effUnc[name] = val
def AddModUnc(self, name, val=0., do=''):
''' Add the uncertainty 'name' with value 'val' to the modeling uncertainties (on acceptance)
if sample names are given (up/down) the uncertainty is read from the histos in that samples
'''
if isinstance(val, float):
self.accUnc[name] = val
else:
nom = self.GetSignalYield()
up = self.t.GetYield(val)
do = self.t.GetYield(do)
var = max(abs(up - nom), abs(do - nom)) / nom
self.AddModUnc(name, var)
### Setting methods
def SetTextFormat(self, textformat):
''' Set the format of the output tables (txt, tex) '''
self.textformat = textformat
def SetChan(self, ch):
''' Set the channel '''
self.chan = ch
def SetLevel(self, lev):
''' Set level '''
self.lev = lev
def SetThXsec(self, t):
''' Set the theoretical cross section using to normalize signal events '''
self.thxsec = t
def SetDoFiducial(self, val=True):
''' Boolean to activate printing the fiducial cross section '''
self.doFiducial = val
def SetLumi(self, l):
''' Set the luminosity '''
self.lumi = l
def SetLumiUnc(self, l):
''' Set relative lumi unc '''
self.lumiunc = l
def SetFiduEvents(self, f):
''' Number of fiducual (unweighted) events '''
self.nfidu = f
def SetGenEvents(self, g):
''' Number of generated events in the sample '''
self.ngen = g
def SetBR(self, b): # Use relative unc
''' The branching ratio to what we consider signal '''
self.BR = b
def SetOutPath(self, p):
''' Set the output path '''
self.outpath = p
### Get parameters...
def GetThXsec(self):
return self.thxsec
def GetLumi(self):
return self.lumi
def GetLumiUnc(self):
return self.lumiunc
def GetFiduEvents(self, sys=''):
return self.nfidu
def GetGenEvents(self):
return self.ngen
def GetBR(self):
return self.BR
def GetLevel(self):
return self.lev
def GetChan(self):
return self.chan
def GetBkg(self, name):
for b in self.bkg:
if b.GetName() == name: return b
print 'WARNING: not found background ' + name
def GetBkgTotRelUnc(self, name):
return self.GetBkg(name).GetTotRelUnc()
def GetBkgTotAbsUnc(self, name):
return self.GetBkgYield(name) * self.GetBkgTotRelUnc(name)
def GetBkgYield(self, name, sys=''):
pr = self.GetBkg(name)
if sys == '': return pr.GetYield()
elif IsUpSyst(sys): return pr.GetYield() * (1 + pr.GetTotRelUnc())
elif IsDownSyst(sys): return pr.GetYield() * (1 - pr.GetTotRelUnc())
else: return pr.GetYield() * (1 + pr.GetTotRelUnc())
def GetData(self):
return self.data
def GetDataUnc(self):
return self.dataunc
def GetSignal(self):
return self.signal
def GetSignalYield(self, sys='', d=''):
y = self.signal.GetYield()
if sys == '': return y
u = self.GetUnc(sys)
if IsDownSyst(d): return y * (1 - u)
return y * (1 + u)
def GetExpUnc(self, name=''):
if name == '': return self.effUnc
else: return self.effUnc[name]
def GetModUnc(self, name=''):
if name == '': return self.accUnc
else: return self.accUnc[name]
def GetUnc(self, name):
if name in self.modUnc.keys(): return self.GetModUnc(name)
elif name in self.effUnc.keys(): return self.GetEffUnc(name)
else: print 'WARNING: not found uncertainty \'%d\'' % name
return 0
def GetTotBkg(self, sys='', d=''):
''' Returns the total expected bkg '''
if sys != '' and sys in [x.GetName() for x in self.bkg]:
y = self.GetTotBkg()
var = self.GetBkgTotAbsUnc(sys)
y = y - var if IsDownSyst(sys + d) else y + var
else:
y = sum([x.GetYield() for x in self.bkg])
return y
def GetTotBkgStatUnc(self):
''' Returns the total stat unc on bkg '''
b = 0
for pr in self.bkg:
b += pr.GetStatUnc() * pr.GetStatUnc()
return sqrt(b)
def GetTotBkgSystUnc(self):
''' Returns the total syst unc on bkg '''
b = 0
for pr in self.bkg:
b += pr.GetSystAbsUnc() * pr.GetSystAbsUnc()
return sqrt(b)
def GetXsec(self, sys='', d=''):
''' Returns the measured cross section '''
data = self.GetData()
bkg = self.GetTotBkg(sys, d) if sys in [x.GetName() for x in self.bkg
] else self.GetTotBkg()
y = self.GetSignalYield(sys, d)
thxsec = self.GetThXsec()
return self.ComputeXsec(data, bkg, y)
def GetFiduXsec(self):
''' Returns the fiducial cross section '''
# fidu = inclusive*(A)
return self.ComputeXsec() * self.GetAcc()
def GetAcc(self, sys=''):
''' Returns the measured acceptance '''
return self.GetFiduEvents(sys) / (self.GetGenEvents() * self.GetBR())
def GetAccUnc(self):
''' Return the syst unc on acceptance '''
err = 0
for a in self.accUnc.values():
err += a * a
return sqrt(err)
def GetEff(self, sys=''):
''' Returns the measured efficiency '''
y = self.GetSignalYield(sys)
A = self.GetAcc()
BR = self.GetBR()
lum = self.GetLumi()
xth = self.GetThXsec()
return (y) / (A * lum * xth * BR)
def GetEffUnc(self):
''' Return the syst unc on efficiency '''
err = 0
for a in self.effUnc.values():
err += a * a
return sqrt(err)
def GetXsecSystUnc(self):
''' Returns the xsec syst unc on cross section '''
effunc = self.GetEffUnc()
accunc = self.GetAccUnc()
bkgunc2 = 0
for b in [x.GetName() for x in self.bkg]:
bkgunc2 += self.GetXsecBkgRelUnc(b) * self.GetXsecBkgRelUnc(b)
return sqrt(effunc * effunc + accunc * accunc + bkgunc2)
def GetXsecLumiUnc(self):
''' Returns the xsec lumi uncertainty on cross section '''
#return self.GetXsec()*(1/self.GetLumi() - 1/(self.GetLumi() * (1+self.GetLumiUnc()) ))
r = self.GetLumiUnc()
return (abs(r / (1 - r)) + abs(r / (1 + r))) / 2
def GetXsecStatUnc(self):
''' Returns the stat unc on cross section '''
xsec = self.ComputeXsec()
varUp = self.ComputeXsec(self.GetData() + self.GetDataUnc(),
self.GetTotBkg(), self.GetSignalYield())
varDo = self.ComputeXsec(self.GetData() - self.GetDataUnc(),
self.GetTotBkg(), self.GetSignalYield())
return max([abs(xsec - varDo) / xsec, abs(xsec - varUp) / xsec])
def GetXsecBkgRelUnc(self, bkgname):
''' Returns the relative unc on the xsec due to the total unc on a bkg estimation '''
nom = self.ComputeXsec()
varUp = self.ComputeXsec(self.GetData(), self.GetTotBkg(bkgname, 'Up'),
self.GetSignalYield())
varDo = self.ComputeXsec(self.GetData(),
self.GetTotBkg(bkgname, 'Down'),
self.GetSignalYield())
return max([abs(nom - varUp) / nom, abs(nom - varDo) / nom])
### Several printing methods!
def PrintYields(self, name='yields', doStat=True, doSyst=True):
t = OutText(self.outpath, name, "new", textformat=self.textformat)
t.SetTexAlign("l c")
nsem = 16 + 3 + 8 + (5 + 8 if doStat else 0) + (5 + 8 if doSyst else 0)
t.SetSeparatorLength(nsem)
t.line('%' + 'Yields for channel \'%s\' and level \'%s\'' %
(self.GetChan(), self.GetLevel()))
t.bar()
for pr in self.bkg:
name = t.fix(" %s" % pr.GetName(), 16, 'l', 0)
y = t.fix("%1.2f" % pr.GetYield(), 8, 0)
stat = t.fix("%1.2f" % pr.GetStatUnc(), 8, 0)
syst = t.fix("%1.2f" % pr.GetSystAbsUnc(), 8, 0)
t.line(name + t.vsep() + y + ((t.pm() + stat) if doStat else '') +
((t.pm() + syst) if doSyst else ''))
t.sep()
totbkg = t.fix("%1.2f" % self.GetTotBkg(), 8, 0)
totbkgstat = t.fix("%1.2f" % self.GetTotBkgStatUnc(), 8, 0)
totbkgsyst = t.fix("%1.2f" % self.GetTotBkgSystUnc(), 8, 0)
t.line(
t.fix(" Total bkg", 16, 'l', 0) + t.vsep() + totbkg +
((t.pm() + totbkgstat) if doStat else '') +
((t.pm() + totbkgsyst) if doSyst else ''))
t.sep()
y = self.GetSignalYield()
signal = t.fix(" %s" % (self.GetSignal().GetName()), 16, 'l', 0)
ysig = t.fix("%1.2f" % y, 8, 0)
sigunc = t.fix("%1.2f" % (self.GetXsecSystUnc() * y), 8, 0)
sigsta = t.fix("%1.2f" % self.GetSignal().GetStatUnc(), 8, 0)
t.line(signal + t.vsep() + ysig +
((t.pm() + sigsta) if doStat else '') +
((t.pm() + sigunc) if doSyst else ''))
t.sep()
t.line(
t.fix(" Data", 16, 'l', 0) + t.vsep() +
t.fix("%i" % self.GetData(), 8, 0))
t.bar()
t.write()
def PrintXsec(self, name='xsec'):
t = OutText(self.outpath, name, "new", textformat=self.textformat)
t.SetTexAlign("l c")
t.SetSeparatorLength(26 + 3 + 20 + 5)
t.SetDefaultFixOption(False)
t.line('%' + 'tt cross section for channel \'%s\' and level \'%s\'' %
(self.GetChan(), self.GetLevel()))
acc = self.GetAcc()
eff = self.GetEff()
t.bar()
t.line(
t.fix(' Acceptance', 16, 'r') + t.vsep() +
t.fix("%1.4f" % acc, 6) + t.pm() +
t.fix("%1.2f" % (acc * self.GetAccUnc()), 8))
t.line(
t.fix(' Efficiency', 16, 'r') + t.vsep() +
t.fix("%1.4f" % eff, 6) + t.pm() +
t.fix("%1.2f" % (eff * self.GetEffUnc()), 8))
t.sep()
t.line(
t.fix(' Branching ratio', 16, 'r') + t.vsep() +
t.fix("%1.4f" % self.GetBR(), 6))
t.line(
t.fix(' Gen events', 16, 'r') + t.vsep() +
t.fix("%d" % self.GetGenEvents(), 9))
t.line(
t.fix(' Fiducial events', 16, 'r') + t.vsep() +
t.fix("%d" % self.GetFiduEvents(), 9))
if self.doFiducial:
t.sep()
xsec = self.GetFiduXsec()
stat = self.GetXsecStatUnc()
syst = self.GetEffUnc()
lumi = self.GetXsecLumiUnc()
#t.line(t.fix(' Fiducial cross section', 26, 'r') + t.vsep() + t.fix("%1.2f"%xsec,6))
#t.line(t.fix(' +\- ', 26, 'r') + ' ' + t.fix('%1.2f (%1.2f'%(stat*xsec,stat*100) + ' %) (stat)',20, 'l'))
#t.line(t.fix(' +\- ', 26, 'r') + ' ' + t.fix('%1.2f (%1.2f'%(syst*xsec,syst*100) + ' %) (syst)',20, 'l'))
#t.line(t.fix(' +\- ', 26, 'r') + ' ' + t.fix('%1.2f (%1.2f'%(lumi*xsec,lumi*100) + ' %) (lumi)',20, 'l'))
t.sep()
xsec = self.GetXsec()
stat = self.GetXsecStatUnc()
syst = self.GetXsecSystUnc()
lumi = self.GetXsecLumiUnc()
t.line(
t.fix(' Inclusive cross section', 26, 'r') + t.vsep() +
t.fix("%1.2f" % xsec, 6))
t.line(
t.fix(' $\pm$ ', 26, 'r') + ' ' +
t.fix('%1.2f (%1.2f' %
(stat * xsec, stat * 100) + ' \%) (stat)', 20, 'l') +
t.vsep())
t.line(
t.fix(' $\pm$ ', 26, 'r') + ' ' +
t.fix('%1.2f (%1.2f' %
(syst * xsec, syst * 100) + ' \%) (syst)', 20, 'l') +
t.vsep())
t.line(
t.fix(' $\pm$ ', 26, 'r') + ' ' +
t.fix('%1.2f (%1.2f' %
(lumi * xsec, lumi * 100) + ' \%) (lumi)', 20, 'l') +
t.vsep())
t.bar()
t.write()
def AddToTxt(self, name='xsec', lab='e#mu'):
t = OutText(self.outpath, name, "new", textformat=self.textformat)
text = t.GetTextFromOutFile(form='txt')
xsec = self.GetXsec()
stat = self.GetXsecStatUnc() * xsec
syst = self.GetXsecSystUnc() * xsec
lum = self.GetXsecLumiUnc() * xsec
isthere = False
for l in text.splitlines():
if l == '' or l.replace(' ', '') == '': continue
if l.startswith(lab):
isthere = True
t.line('%s %1.2f %1.2f %1.2f %1.2f' %
(lab, xsec, stat, syst, lum))
else:
t.line(l)
if not isthere:
t.line('%s %1.2f %1.2f %1.2f %1.2f' % (lab, xsec, stat, syst, lum))
t.write()
def PrintSystTable(self, name='uncertainties'):
t = OutText(self.outpath, name, "new", textformat=self.textformat)
t.SetTexAlign("l c")
t.SetSeparatorLength(30)
t.SetDefaultFixOption(False)
t.line('%Uncertainties on tt inclusive cross section \n% ' +
'for channel \'%s\' and level \'%s\'' %
(self.GetChan(), self.GetLevel()))
exp = self.GetExpUnc()
mod = self.GetModUnc()
stat = self.GetXsecStatUnc()
lum = self.GetXsecLumiUnc()
syst = self.GetXsecSystUnc()
xsec = self.GetXsec()
t.bar()
t.line(t.fix(' Source', 18, 'l') + t.vsep() + fix("value (\%)", 6))
t.sep()
for b in [x.GetName() for x in self.bkg]:
t.line(
fix(' ' + b, 18, 'r') + t.vsep() +
fix('%1.2f' % (self.GetXsecBkgRelUnc(b) * 100), 6))
t.sep()
for e in exp.keys():
t.line(
fix(' ' + e, 18, 'l') + t.vsep() +
fix('%1.2f' % (exp[e] * 100), 6))
t.sep()
for e in mod.keys():
t.line(
fix(' ' + e, 18, 'l') + t.vsep() +
fix('%1.2f' % (mod[e] * 100), 6))
t.sep()
t.line(
fix(' Total systematic', 18, 'l') + t.vsep() +
fix('%1.2f' % (syst * 100), 6))
t.sep()
t.line(
fix(' Statistics', 18, 'l') + t.vsep() +
fix('%1.2f' % (stat * 100), 6))
t.sep()
t.line(
fix(' Luminosity', 18, 'l') + t.vsep() +
fix('%1.2f' % (lum * 100), 6))
t.bar()
t.write()
### Other
def ComputeXsec(self, data='', bkg='', y=''):
''' Computes the xsec from data, bkg and expected yield '''
if data == '': data = self.data
if bkg == '': bkg = self.GetTotBkg()
if y == '': y = self.GetSignalYield()
return (data - bkg) / y * self.GetThXsec()
def SetPathToTrees(self, ptt):
self.pathToTrees = ptt
def SetMotherName(self, mn):
self.motherfname = mn
def GetNGenEvents(self):
self.treesow = TChain('Runs', 'Runs')
files = GetFiles(self.pathToTrees, self.motherfname)
for f in files:
self.treesow.Add(f)
def ReadHistos(self,
path,
chan='ElMu',
level='2jets',
lumi=Lumi,
lumiunc=0.04,
bkg=[],
signal=[],
data='',
expUnc=[],
modUnc=[],
histoPrefix=''):
''' Set the xsec from histos '''
if isinstance(expUnc, str): expUnc = expUnc.replace(' ', '').split(',')
if isinstance(modUnc, str): modUnc = modUnc.replace(' ', '').split(',')
self.SetChan(chan)
self.SetLevel(level)
self.t = TopHistoReader(path)
self.t.SetHistoNamePrefix(histoPrefix)
self.t.SetLumi(lumi)
self.t.SetChan(chan)
self.t.SetLevel(level)
self.ss = SampleSums(self.pathToTrees, self.motherfname, 'Runs')
signalName = signal[0]
signalSample = signal[1]
# GetFiduEvents
hfiduname = 'FiduEvents' #_%s'%chan
fiduEvents = self.t.GetNamedHisto(
hfiduname, signalSample).GetBinContent(invlevel[level])
nGenEvents = self.ss.GetCount(
'Count') #self.GetNGenEvents(signalSample)
self.SetLumiUnc(lumiunc)
self.SetFiduEvents(fiduEvents)
self.SetGenEvents(nGenEvents)
for l in bkg:
if len(l) == 3:
name, pr, unc = l
expunc = expUnc
elif len(l) == 4:
name, pr, unc, expunc = l
self.AddBkg(name, self.t.GetYield(pr), unc,
self.t.GetUnc(pr, chan, level, expUnc),
self.t.GetYieldStatUnc(pr))
self.SetSignal(signalName, self.t.GetYield(signalSample),
self.t.GetYieldStatUnc(signalSample))
self.t.SetIsData(True)
self.SetData(self.t.GetYield(data))
self.t.SetIsData(False)
for e in expUnc:
self.AddExpUnc(e, self.t.GetUnc(signal[1], chan, level, e))
# Modeling uncertainties
if 'pdf' in modUnc or 'PDF' in modUnc or 'Scale' in modUnc or 'ME' in modUnc or 'scale' in modUnc:
pathToTrees = self.pathToTrees #'/pool/ciencias/userstorage/juanr/nanoAODv4/5TeV/5TeV_5sept/'
motherfname = self.motherfname #'TT_TuneCP5_PSweights_5p02TeV'
w = WeightReader(path,
'',
chan,
level,
sampleName='TT',
pathToTrees=pathToTrees,
motherfname=motherfname,
PDFname='PDFweights',
ScaleName='ScaleWeights',
lumi=Lumi,
histoprefix=histoPrefix)
#w.SetSampleName(signalName)
if 'pdf' in modUnc or 'PDF' in modUnc:
self.AddModUnc('PDF', w.GetPDFandAlphaSunc())
if 'scale' in modUnc or 'ME' in modUnc:
self.AddModUnc('Scale ME', w.GetMaxRelUncScale())
if 'ISR' in modUnc or 'isr' in modUnc:
self.AddModUnc('ISR',
self.t.GetUnc(signalSample, chan, level, 'ISR'))
if 'FSR' in modUnc or 'fsr' in modUnc:
self.AddModUnc('FSR',
self.t.GetUnc(signalSample, chan, level, 'FSR'))
def __init__(self,
outpath='./temp/',
lev='',
chan='',
genEvents=1,
fiduEvents=1,
textformat="txt"):
self.SetTextFormat(textformat)
self.SetThXsec(68.9)
self.SetLumi(Lumi)
self.SetLumiUnc(0.035) # Relative
self.SetChan(chan)
self.SetLevel(lev)
self.SetGenEvents(genEvents)
self.SetFiduEvents(fiduEvents)
self.SetBR((0.108 * 3) * (0.108 * 3)) # By default, tt dilepton
self.bkg = [] # List of 'Process'
self.data = 0 # This is just an integer
self.signal = '' # Process
self.accUnc = {} # 'Name' : value
self.effUnc = {} # 'Name' : value
self.SetOutPath(outpath)
self.doFiducial = True
self.SetMotherName("TT_TuneCP5_5p02TeV")
self.SetPathToTrees("")