def main():
# setting for reduced DS to be used on the output of makeSubset.C
inputfile_name = "small.root"
tree_name = "upsTree"
# settings for full dataset (long processing time for unbinned lh)
#inputfile_name = "/data1/chibdata/collision/v2/2012_AllData_v2.root"
#tree_name = "rootuple/upsTree"
print "Opening file"
inputfile = TFile.Open(inputfile_name, "READ")
print "Importing tree"
tree = TTree()
inputfile.GetObject(tree_name, tree)
mass = RooRealVar("ups_mass", "ups_mass", 7, 11)
y = RooRealVar("ups_rapidity", "ups_rapidity", -3, 3)
pt = RooRealVar("ups_pt", "ups_pt", 0, 100)
print "Assigning dataset"
dataArgSet = RooArgSet(mass, y, pt)
dataSet = RooDataSet("yds", "Y data set", tree, dataArgSet)
cuts= "abs(ups_rapidity) < 1.25"+\
"&& ups_pt>9.5"\
reduced_ds = dataSet.reduce(RooFit.Cut(cuts))
print "Performing likelihood analysis"
dofit(reduced_ds, "Y3S")
def get_dataset(varargset, ftree, cut='', wt='', scale=1):
"""Return a dataset.
Return a dataset from the ntuple `ftree'. Apply a selection cut
using the `cutVar' variable and the selection `cut'.
"""
from rplot.fixes import ROOT
from rplot.tselect import Tsplice
splice = Tsplice(ftree)
splice.make_splice('sel', cut)
from ROOT import RooDataSet, RooFit, RooFormulaVar, RooArgList
tmpdst = RooDataSet('tmpdataset', '', varargset, RooFit.Import(ftree))
if wt:
wtvar = RooFormulaVar('wt', '{}*@0'.format(scale),
RooArgList(varargset[wt]))
wtvar = tmpdst.addColumn(wtvar)
varargset.remove(varargset[wt])
varargset.add(wtvar)
dst = RooDataSet('dataset', 'Dataset', varargset,
RooFit.Import(tmpdst), RooFit.WeightVar(wtvar))
varargset.remove(wtvar)
dst = dst.reduce(varargset)
return dst
def get_dataset(varargset, ftree, cut="", wt="", scale=1):
"""Return a dataset.
Return a dataset from the ntuple `ftree'. Apply a selection cut
using the `cutVar' variable and the selection `cut'.
"""
from rplot.fixes import ROOT
from rplot.tselect import Tsplice
splice = Tsplice(ftree)
splice.make_splice("sel", cut)
from ROOT import RooDataSet, RooFit, RooFormulaVar, RooArgList
tmpdst = RooDataSet("tmpdataset", "", varargset, RooFit.Import(ftree))
if wt:
wtvar = RooFormulaVar("wt", "{}*@0".format(scale), RooArgList(varargset[wt]))
wtvar = tmpdst.addColumn(wtvar)
varargset.remove(varargset[wt])
varargset.add(wtvar)
dst = RooDataSet("dataset", "Dataset", varargset, RooFit.Import(tmpdst), RooFit.WeightVar(wtvar))
varargset.remove(wtvar)
dst = dst.reduce(varargset)
return dst
def main():
inputfile_name = "/data1/chibdata/collision/v2/2012_AllData_v2.root"
chibTree_name = "rootuple/chibTree"
print "Opening file"
inputfile = TFile.Open(inputfile_name, "READ")
print "Importing tree"
tree = TTree()
inputfile.GetObject(chibTree_name, tree)
invm1S = RooRealVar("invm1S", "invm1S", 9.5, 11.5)
invm2S = RooRealVar("invm2S", "invm2S", 9.5, 20.0)
invm3S = RooRealVar("invm3S", "invm3S", 9.5, 20.0)
dimuon_mass = RooRealVar("dimuon_mass", "dimuon_mass", 8.0, 12.0)
dimuon_rapidity = RooRealVar("dimuon_rapidity", "dimuon_rapidity", -5.0,
5.0)
dimuon_pt = RooRealVar("dimuon_pt", "dimuon_pt", 0.0, 100.0)
photon_eta = RooRealVar("photon_eta", "photon_eta", -5.0, 5.0)
photon_pt = RooRealVar("photon_pt", "photon_pt", 0.0, 100.0)
ctpv = RooRealVar("ctpv", "ctpv", -5.0, 5.0)
ctpv_error = RooRealVar("ctpv_err", "ctpv_err", -5.0, 5.0)
pi0_abs_mass = RooRealVar("pi0_abs_mass", "pi0_abs_mass", 0.0, 2.0)
Y1S_nsigma = RooRealVar("Y1S_nsigma", "Y1S_nsigma", 0.0, 30.0)
Y2S_nsigma = RooRealVar("Y2S_nsigma", "Y2S_nsigma", 0.0, 30.0)
Y3S_nsigma = RooRealVar("Y3S_nsigma", "Y3S_nsigma", 0.0, 35.0)
conv_vertex = RooRealVar("conv_vertex", "conv_vertex", 0.0, 70.0)
dz = RooRealVar("dz", "dz", -50.0, 50.0)
print "Assigning argset"
dataArgSet = RooArgSet(invm1S, invm2S, invm3S, dimuon_mass,
dimuon_rapidity, dimuon_pt, photon_eta, photon_pt,
ctpv)
dataArgSet.add(ctpv_error)
dataArgSet.add(pi0_abs_mass)
dataArgSet.add(Y1S_nsigma)
dataArgSet.add(Y2S_nsigma)
dataArgSet.add(Y3S_nsigma)
dataArgSet.add(conv_vertex)
dataArgSet.add(dz)
print "Creating DataSet"
dataSet = RooDataSet("chibds", "Chib RooDataSet", tree, dataArgSet)
# Selection
cuts = "photon_pt > 0.0" + \
"&&dimuon_pt > 9.5" \
"&& abs(photon_eta) < 1.4" + \
"&& abs(dimuon_rapidity) < 1.25 " + \
"&& Y3S_nsigma < 2.5 " + \
"&& abs(dz) < 0.1"
rds_cutted = dataSet.reduce(RooFit.Cut(cuts))
dofit(rds_cutted, "Chib_fit_2012_3S")
def main() :
inputfile_name = "/data1/chibdata/collision/v2/2012_AllData_v2.root"
chibTree_name = "rootuple/chibTree"
print "Opening file"
inputfile = TFile.Open(inputfile_name,"READ")
print "Importing tree"
tree = TTree()
inputfile.GetObject(chibTree_name, tree)
invm1S = RooRealVar("invm1S", "invm1S", 9.5, 11.5)
invm2S = RooRealVar("invm2S", "invm2S", 9.5, 20.0)
invm3S = RooRealVar("invm3S", "invm3S", 9.5, 20.0)
dimuon_mass = RooRealVar("dimuon_mass","dimuon_mass", 8.0, 12.0)
dimuon_rapidity = RooRealVar("dimuon_rapidity", "dimuon_rapidity", -5.0, 5.0)
dimuon_pt = RooRealVar("dimuon_pt","dimuon_pt", 0.0, 100.0)
photon_eta = RooRealVar("photon_eta","photon_eta", -5.0, 5.0)
photon_pt = RooRealVar("photon_pt","photon_pt", 0.0, 100.0)
ctpv = RooRealVar("ctpv","ctpv", -5.0, 5.0)
ctpv_error = RooRealVar("ctpv_err","ctpv_err", -5.0, 5.0)
pi0_abs_mass = RooRealVar("pi0_abs_mass","pi0_abs_mass", 0.0, 2.0)
Y1S_nsigma = RooRealVar("Y1S_nsigma","Y1S_nsigma",0.0,30.0)
Y2S_nsigma = RooRealVar("Y2S_nsigma","Y2S_nsigma",0.0,30.0)
Y3S_nsigma = RooRealVar("Y3S_nsigma","Y3S_nsigma",0.0,35.0)
conv_vertex = RooRealVar("conv_vertex", "conv_vertex", 0.0, 70.0)
dz = RooRealVar("dz","dz", -50.0, 50.0)
print "Assigning argset"
dataArgSet = RooArgSet(invm1S, invm2S, invm3S, dimuon_mass, dimuon_rapidity, dimuon_pt, photon_eta, photon_pt, ctpv)
dataArgSet.add( ctpv_error )
dataArgSet.add( pi0_abs_mass )
dataArgSet.add( Y1S_nsigma )
dataArgSet.add( Y2S_nsigma )
dataArgSet.add( Y3S_nsigma )
dataArgSet.add( conv_vertex )
dataArgSet.add( dz )
print "Creating DataSet"
dataSet = RooDataSet("chibds","Chib RooDataSet", tree, dataArgSet)
# Selection
cuts = "photon_pt > 0.0" + \
"&&dimuon_pt > 9.5" \
"&& abs(photon_eta) < 1.4" + \
"&& abs(dimuon_rapidity) < 1.25 " + \
"&& Y3S_nsigma < 2.5 " + \
"&& abs(dz) < 0.1"
rds_cutted = dataSet.reduce( RooFit.Cut(cuts) )
dofit(rds_cutted, "Chib_fit_2012_3S")
def get_dataset(varargset, ftree, cut='', cutVars=[], *cmdArgs):
"""Return a dataset.
Return a dataset from the ntuple `ftree'. Apply a selection cut
using the `cutVar' variable and the selection `cut'.
"""
varargsetclone = varargset.clone('varargsetclone')
for cvar in cutVars:
varargsetclone.add(cvar) # Add selVar to apply cut
tmpdataset = RooDataSet('dataset', 'Dataset', varargsetclone,
RooFit.Import(ftree), RooFit.Cut(cut), *cmdArgs)
dataset = tmpdataset.reduce(varargset)
del tmpdataset
return dataset
obs=w.set("obs_1d")
uncVZ = w.var("uncVZ")
uncVZ.setBins(1000)
gauss_params = gauss_pdf.getParameters(obs)
gaussexp_params = gaussexp_pdf.getParameters(obs)
for i in range(1,n_massbins):
#for i in range(0,totalH.GetXaxis().GetNbins()-binning+2,binning):
print i
centermass=yieldhist.GetXaxis().GetBinCenter(i)
massrange=2.5*(massres_a*centermass + massres_b)
lowedge = centermass-massrange/2.0
highedge = centermass+massrange/2.0
name="Radiative vertex Z, mass [{}, {}] GeV".format(lowedge,highedge)
#dataset = RooDataSet("data","data",events,w.set("myVars"),"abs(uncM-{0})<{1}".format(centermass,massrange/2))
dataInRange = dataset.reduce(obs,"abs(uncM-{0})<{1}".format(centermass,massrange/2))
if dataInRange.sumEntries()<100:
continue
frame=uncVZ.frame()
frame.SetTitle(name)
binnedData = dataInRange.binnedClone()
binnedData.plotOn(frame)
mean = binnedData.mean(uncVZ)
sigma = binnedData.sigma(uncVZ)
print "before gaussian fit: mean={0}, sigma={1}".format(mean,sigma)
uncVZ.setRange("fitRange",mean-3*sigma,mean+3*sigma)
gauss_params.setRealValue("mean",mean)
gauss_params.setRealValue("sigma",sigma)
#gauss_params.printLatex()
pdfConfig['timeEffHistFiles'].getSettings( [ ( 'runPeriod', 'p2012' ) ] )['file'] = timeEffFile2012
pdfConfig['anglesEffType'] = 'basisSig6'
pdfConfig['angEffMomsFiles'] = dataPath + 'angEffNominalRew_5thOrder.par'
pdfConfig['signalData'] = dataSetAsymW
pdfConfig['readFromWS'] = True
from P2VV.Parameterizations.FullPDFs import Bs2Jpsiphi_PdfBuilder as PdfBuilder
pdfBuild = PdfBuilder( **pdfConfig )
pdf = pdfBuild.pdf()
pdfConfig.readParametersFromFile( filePath = parFilePath )
pdfConfig.setParametersInPdf(pdf)
# create projection data sets
projSet = [ obs for obs in pdf.ConditionalObservables() ] + [ cat for cat in pdf.indexCat().inputCatList() ]
projSet = RooArgSet( obsSet.find( var.GetName() ) for var in projSet )
projDataSets = dict( plus = dataSetAsymW.reduce( Name = 'asymDataWPlus', SelectVars = projSet, Cut = 'asymCat==+1' )
, minus = dataSetAsymW.reduce( Name = 'asymDataWMinus', SelectVars = projSet, Cut = 'asymCat==-1' )
)
print 'pdfAsymmetry: projection data sets:'
projDataSets['plus'].Print()
projDataSets['minus'].Print()
# create time ranges for time bins
rangeNames = dict( )
timePoints = dict( )
lastBin = False
if not timeBins : timeBins = range(8)
if not periods : periods = range( int( ws['time'].getMax() / oscPeriod - binOffset / float(numTimeBinsTot) ) + 1 )
for per in periods :
for bin in timeBins :
timeLo = ( float(per) + ( float(bin) + binOffset ) / float(numTimeBinsTot) ) * oscPeriod
def make_fit():
adc_bin = 12 #18 for low-m gg, 24 for jpsi
adc_min = 0. #10.
adc_max = 400.
#adc_max = 1200
ptmax = 0.18
#mmin = 1.6
#mmin = 2.1
#mmax = 2.6
#mmin = 1.5
#mmax = 5.
mmin = 2.9
mmax = 3.2
#mmin = 3.4
#mmax = 4.6
#east/west projections and 2D plot
ew = 1
p2d = 2 # 0: single projection by 'ew', 1: 2D plot, 2: both projections
#plot colors
model_col = rt.kMagenta
model_col = rt.kBlue
out = open("out.txt", "w")
lmg = 6
ut.log_results(out, "in " + infile, lmg)
strlog = "adc_bin " + str(adc_bin) + " adc_min " + str(
adc_min) + " adc_max " + str(adc_max)
strlog += " ptmax " + str(ptmax) + " mmin " + str(mmin) + " mmax " + str(
mmax)
ut.log_results(out, strlog, lmg)
#adc distributions
adc_east = RooRealVar("jZDCUnAttEast", "ZDC ADC east", adc_min, adc_max)
adc_west = RooRealVar("jZDCUnAttWest", "ZDC ADC west", adc_min, adc_max)
#kinematics variables
m = RooRealVar("jRecM", "e^{+}e^{-} mass (GeV)", 0., 10.)
y = RooRealVar("jRecY", "rapidity", -1., 1.)
pT = RooRealVar("jRecPt", "pT", 0., 10.)
#adc distributions
#adc_east = RooRealVar("zdce", "ZDC ADC east", adc_min, adc_max)
#adc_west = RooRealVar("zdcw", "ZDC ADC west", adc_min, adc_max)
#kinematics variables
#m = RooRealVar("mee", "e^{+}e^{-} mass (GeV)", 0., 10.)
#y = RooRealVar("rapee", "rapidity", -1., 1.)
#pT = RooRealVar("ptpair", "pT", 0., 10.)
strsel = "jRecPt<{0:.3f} && jRecM>{1:.3f} && jRecM<{2:.3f}".format(
ptmax, mmin, mmax)
#strsel = "ptpair<{0:.3f} && mee>{1:.3f} && mee<{2:.3f}".format(ptmax, mmin, mmax)
data_all = RooDataSet("data", "data", tree,
RooArgSet(adc_east, adc_west, m, y, pT))
print "All input:", data_all.numEntries()
data = data_all.reduce(strsel)
print "Sel input:", data.numEntries()
model = Model2D(adc_east, adc_west)
r1 = model.model.fitTo(data, rf.Save())
ut.log_results(out, ut.log_fit_result(r1), lmg)
ut.log_results(out, "Fit parameters:\n", lmg)
out.write(ut.log_fit_parameters(r1, lmg + 2) + "\n")
#out.write(ut.table_fit_parameters(r1))
#print ut.table_fit_parameters(r1)
#create the plot
if p2d != 2: can = ut.box_canvas()
nbins, adc_max = ut.get_nbins(adc_bin, adc_min, adc_max)
adc_east.setMax(adc_max)
adc_west.setMax(adc_max)
frame_east = adc_east.frame(rf.Bins(nbins), rf.Title(""))
frame_west = adc_west.frame(rf.Bins(nbins), rf.Title(""))
data.plotOn(frame_east, rf.Name("data"))
model.model.plotOn(frame_east, rf.Precision(1e-6), rf.Name("model"),
rf.LineColor(model_col))
data.plotOn(frame_west, rf.Name("data"))
model.model.plotOn(frame_west, rf.Precision(1e-6), rf.Name("model"),
rf.LineColor(model_col))
#reduced chi^2 in east and west projections
ut.log_results(out, "chi2/ndf:\n", lmg)
ut.log_results(
out,
" East chi2/ndf: " + str(frame_east.chiSquare("model", "data", 16)),
lmg)
ut.log_results(
out,
" West chi2/ndf: " + str(frame_west.chiSquare("model", "data", 16)),
lmg)
ut.log_results(out, "", 0)
ytit = "Events / ({0:.0f} ADC units)".format(adc_bin)
frame_east.SetYTitle(ytit)
frame_west.SetYTitle(ytit)
frame_east.SetTitle("")
frame_west.SetTitle("")
frame = [frame_east, frame_west]
if p2d == 0: plot_projection(frame[ew], ew)
plot_pdf = PlotPdf(model, adc_east, adc_west)
if p2d == 1: plot_2d(plot_pdf)
if p2d == 2:
frame2 = ut.prepare_TH1D("frame2", adc_bin, adc_min,
2. * adc_max + 4.1 * adc_bin)
plot_proj_both(frame2, frame_east, frame_west, adc_bin, adc_min,
adc_max, ptmax, mmin, mmax)
lhead = ["east ZDC", "west ZDC"]
if p2d == 1:
leg = ut.prepare_leg(0.003, 0.9, 0.3, 0.1, 0.035)
else:
leg = ut.prepare_leg(0.66, 0.8, 0.32, 0.13, 0.03)
if p2d == 0: leg.AddEntry(None, "#bf{Projection to " + lhead[ew] + "}", "")
leg.SetMargin(0.05)
leg.AddEntry(None,
"#bf{#it{p}_{T} < " + "{0:.2f}".format(ptmax) + " GeV/c}", "")
mmin_fmt = "{0:.1f}".format(mmin)
mmax_fmt = "{0:.1f}".format(mmax)
leg.AddEntry(
None, "#bf{" + mmin_fmt + " < #it{m}_{e^{+}e^{-}} < " + mmax_fmt +
" GeV/c^{2}}", "")
leg.Draw("same")
pleg = ut.prepare_leg(0.99, 0.87, -0.4, 0.11, 0.035)
pleg.SetFillStyle(1001)
#pleg.AddEntry(None, "STAR Preliminary", "")
pleg.AddEntry(None, "AuAu@200 GeV", "")
pleg.AddEntry(None, "UPC sample", "")
#pleg.Draw("same")
#ut.print_pad(gPad)
#b3d = TBuffer3D(0)
#b3d = None
#gPad.GetViewer3D().OpenComposite(b3d)
#print b3d
#print "All input: ", data.numEntries()
#print "All input: 858"
#all input data
nall = float(tree.Draw("", strsel))
print "All input: ", nall
n_1n1n = float(model.num_1n1n.getVal())
print "1n1n events: ", n_1n1n
ratio_1n1n = n_1n1n / nall
sigma_ratio_1n1n = ratio_1n1n * TMath.Sqrt(
(nall - n_1n1n) / (nall * n_1n1n))
print "Ratio 1n1n / all: ", ratio_1n1n, "+/-", sigma_ratio_1n1n
ut.log_results(out, "Fraction of 1n1n events:\n", lmg)
ut.log_results(out, "All input: " + str(nall), lmg)
ut.log_results(out, "1n1n events: " + str(model.num_1n1n.getVal()), lmg)
ratio_str = "Ratio 1n1n / all: " + str(ratio_1n1n) + " +/- " + str(
sigma_ratio_1n1n)
ut.log_results(out, ratio_str, lmg)
if p2d != 2:
#ut.print_pad(gPad)
ut.invert_col(gPad)
can.SaveAs("01fig.pdf")
if interactive == True: start_interactive()
#c.Print(remainder[0]+".pdf","Title:mass_{0}".format(mass))
num_pairs = gDirectory.Get("mass").GetEntries()*scale_factor
radfrac = radfracFile.Get("radfrac").GetFunction("pol3").Eval(mass)
num_rad = radfrac*num_pairs
ap_yield= 3*math.pi/(2*(1/137.0))*num_rad*(mass/deltaM)
print "{0} pairs, {1} radfrac, {2} rad, {3} A'".format(num_pairs,radfrac,num_rad,ap_yield)
breakz = tailsFile.Get("breakz").GetFunction("pol3").Eval(mass)
length = tailsFile.Get("length").GetFunction("pol3").Eval(mass)
c.cd(2)
gPad.SetLogy()
frame=uncVZ.frame()
dataInRange = dataset.reduce(obs,"abs({0}-{1})<{2}/2*({3}+{4}*uncVZ)".format(massVar,mass,masscut_nsigma,mres_p0,mres_p1))
binnedData = dataInRange.binnedClone()
binnedData.plotOn(frame)
mean = binnedData.mean(uncVZ)
sigma = binnedData.sigma(uncVZ)
uncVZ.setRange("fitRange",mean-2*sigma,mean+2*sigma)
gauss_params.setRealValue("mean",mean)
gauss_params.setRealValue("sigma",sigma)
gauss_pdf.fitTo(binnedData,RooFit.Range("fitRange"),RooFit.PrintLevel(-1))
mean= gauss_params.getRealValue("mean")
sigma= gauss_params.getRealValue("sigma")
gaussexp_params.setRealValue("gauss_mean",mean)
gaussexp_params.setRealValue("gauss_sigma",sigma)
gaussexp_params.setRealValue("exp_breakpoint",breakz)
gaussexp_params.setRealValue("exp_length",length)
w.var("gauss_mean").setConstant(True)
def buildDataAndCategories(ws,options,args):
#Get the input data
inputData = TChain(options.treeName,'The input data')
for arg in args:
print 'Adding data from: ',arg
inputData.Add(arg)
foldname = ''
phirange = [0,90]
if not options.folded:
foldname=''
phirange = [-180,180]
#variables necessary for j/psi mass,lifetime,polarization fit
jPsiMass = RooRealVar('JpsiMass','M [GeV]',2.7,3.5)
jPsiRap = RooRealVar('JpsiRap','#nu',-2.3,2.3)
jPsiPt = RooRealVar("JpsiPt","pT [GeV]",0,40);
jPsicTau = RooRealVar('Jpsict','l_{J/#psi} [mm]',-1,2.5)
jPsicTauError = RooRealVar('JpsictErr','Error on l_{J/#psi} [mm]',0,2)
jPsiVprob = RooRealVar('JpsiVprob','',.01,1)
jPsiHXcosth = None
jPsiHXphi = None
jPsicTau.setBins(10000,"cache")
if options.fitFrame is not None:
jPsiHXcosth = RooRealVar('costh_'+options.fitFrame+foldname,'cos(#theta)_{'+options.fitFrame+'}',-1,1)
jPsiHXphi = RooRealVar('phi_'+options.fitFrame+foldname,'#phi_{'+options.fitFrame+'}',phirange[0],phirange[1])
else:
jPsiHXcosth = RooRealVar('costh_CS'+foldname,'cos(#theta)_{CS}',-1,1)
jPsiHXphi = RooRealVar('phi_CS'+foldname,'#phi_{CS}',phirange[0],phirange[1])
#vars needed for on the fly calc of polarization variables
jPsimuPosPx = RooRealVar('muPosPx','+ Muon P_{x} [GeV]',0)
jPsimuPosPy = RooRealVar('muPosPy','+ Muon P_{y} [GeV]',0)
jPsimuPosPz = RooRealVar('muPosPz','+ Muon P_{z} [GeV]',0)
jPsimuNegPx = RooRealVar('muNegPx','- Muon P_{x} [GeV]',0)
jPsimuNegPy = RooRealVar('muNegPy','- Muon P_{y} [GeV]',0)
jPsimuNegPz = RooRealVar('muNegPz','- Muon P_{z} [GeV]',0)
#create RooArgSet for eventual dataset creation
dataVars = RooArgSet(jPsiMass,jPsiRap,jPsiPt,
jPsicTau,jPsicTauError,
jPsimuPosPx,jPsimuPosPy,jPsimuPosPz)
#add trigger requirement if specified
if options.triggerName:
trigger = RooRealVar(options.triggerName,'Passes Trigger',0.5,1.5)
dataVars.add(trigger)
dataVars.add(jPsiVprob)
dataVars.add(jPsimuNegPx)
dataVars.add(jPsimuNegPy)
dataVars.add(jPsimuNegPz)
dataVars.add(jPsiHXcosth)
dataVars.add(jPsiHXphi)
redVars = RooArgSet(jPsiMass,jPsiRap,jPsiPt,
jPsicTau,jPsicTauError)
redVars.add(jPsiHXcosth)
redVars.add(jPsiHXphi)
fitVars = redVars.Clone()
### HERE IS WHERE THE BIT FOR CALCULATING POLARIZATION VARS GOES
ctauStates = RooCategory('ctauRegion','Cut Region in lifetime')
ctauStates.defineType('prompt',0)
ctauStates.defineType('nonPrompt',1)
massStates = RooCategory('massRegion','Cut Region in mass')
massStates.defineType('signal',1)
massStates.defineType('separation',0)
massStates.defineType('leftMassSideBand',-2)
massStates.defineType('rightMassSideBand',-1)
states = RooCategory('mlRegion','Cut Region in mass')
states.defineType('nonPromptSignal',2)
states.defineType('promptSignal',1)
states.defineType('separation',0)
states.defineType('leftMassSideBand',-2)
states.defineType('rightMassSideBand',-1)
#define corresponding ranges in roorealvars
#mass is a little tricky since the sidebands change definitions in each rap bin
#define the names here and change as we do the fits
#jPsiMass.setRange('NormalizationRangeFormlfit_promptSignal',2.7,3.5)
#jPsiMass.setRange('NormalizationRangeFormlfit_nonPromptSignal',2.7,3.5)
#jPsiMass.setRange('NormalizationRangeFormlfit_leftMassSideBand',2.7,3.1)
#jPsiMass.setRange('NormalizationRangeFormlfit_rightMassSideBand',3.1,3.5)
#want the prompt fit only done in prompt region
#non-prompt only in non-prompt region
#background over entire cTau range
#jPsicTau.setRange('NormalizationRangeFormlfit_promptSignal',-1,.1)
#jPsicTau.setRange('NormalizationRangeFormlfit_nonPromptSignal',.1,2.5)
#jPsicTau.setRange('NormalizationRangeFormlfit_leftMassSideBand',-1,2.5)
#jPsicTau.setRange('NormalizationRangeFormlfit_rightMassSideBand',-1,2.5)
#redVars.add(ctauStates)
#redVars.add(massStates)
#redVars.add(states)
fitVars.add(ctauStates)
fitVars.add(massStates)
fitVars.add(states)
fullData = RooDataSet('fullData','The Full Data From the Input ROOT Trees',
dataVars,
ROOT.RooFit.Import(inputData))
for rap_bin in range(1,len(jpsi.pTRange)):
yMin = jpsi.rapForPTRange[rap_bin-1][0]
yMax = jpsi.rapForPTRange[rap_bin-1][-1]
for pt_bin in range(len(jpsi.pTRange[rap_bin])):
ptMin = jpsi.pTRange[rap_bin][pt_bin][0]
ptMax = jpsi.pTRange[rap_bin][pt_bin][-1]
sigMaxMass = jpsi.polMassJpsi[rap_bin] + jpsi.nSigMass*jpsi.sigmaMassJpsi[rap_bin]
sigMinMass = jpsi.polMassJpsi[rap_bin] - jpsi.nSigMass*jpsi.sigmaMassJpsi[rap_bin]
sbHighMass = jpsi.polMassJpsi[rap_bin] + jpsi.nSigBkgHigh*jpsi.sigmaMassJpsi[rap_bin]
sbLowMass = jpsi.polMassJpsi[rap_bin] - jpsi.nSigBkgLow*jpsi.sigmaMassJpsi[rap_bin]
ctauNonPrompt = .1
massFun = RooFormulaVar('massRegion','Function that returns the mass state.',
'('+jPsiMass.GetName()+' < '+str(sigMaxMass)+' && '+jPsiMass.GetName()+' > '+str(sigMinMass)+
') - ('+jPsiMass.GetName()+' > '+str(sbHighMass)+')'+
'-2*('+jPsiMass.GetName()+' < '+str(sbLowMass)+')',
RooArgList(jPsiMass,jPsicTau))
ctauFun = RooFormulaVar('ctauRegion','Function that returns the ctau state.',
'('+jPsicTau.GetName()+' > '+str(ctauNonPrompt)+')',
RooArgList(jPsiMass,jPsicTau))
mlFun = RooFormulaVar('mlRegion','Function that returns the mass and lifetime state.',
'('+jPsiMass.GetName()+' < '+str(sigMaxMass)+' && '+jPsiMass.GetName()+' > '+str(sigMinMass)+
') + ('+jPsiMass.GetName()+' < '+str(sigMaxMass)+' && '+jPsiMass.GetName()+' > '+
str(sigMinMass)+' && '+jPsicTau.GetName()+' > '+str(ctauNonPrompt)+
') - ('+jPsiMass.GetName()+' > '+str(sbHighMass)+')'+
'-2*('+jPsiMass.GetName()+' < '+str(sbLowMass)+')',
RooArgList(jPsiMass,jPsicTau))
cutStringPt = '('+jPsiPt.GetName()+' > '+str(ptMin)+' && '+jPsiPt.GetName()+' < '+str(ptMax)+')'
cutStringY = '( abs('+jPsiRap.GetName()+') > '+str(yMin)+' && abs('+jPsiRap.GetName()+') < '+str(yMax)+')'
#cutStringM1 = '('+jPsiMass.GetName()+' < '+str(sigMinMass)+' && '+jPsiMass.GetName()+' > '+str(sbLowMass)+')'
#cutStringM2 = '('+jPsiMass.GetName()+' < '+str(sbHighMass)+' && '+jPsiMass.GetName()+' > '+str(sigMaxMass)+')'
#cutStringMT = '!('+cutStringM1+' || '+cutStringM2+')'
cutString = cutStringPt+' && '+cutStringY #+' && '+cutStringMT
print cutString
#get the reduced dataset we'll do the fit on
binData = fullData.reduce(ROOT.RooFit.SelectVars(redVars),
ROOT.RooFit.Cut(cutString),
ROOT.RooFit.Name('data_rap'+str(rap_bin)+'_pt'+str(pt_bin+1)),
ROOT.RooFit.Title('Data For Fitting'))
binDataWithCategory = RooDataSet('data_rap'+str(rap_bin)+'_pt'+str(pt_bin+1),
'Data For Fitting',
fitVars)
#categorize
binData.addColumn(ctauStates)
binData.addColumn(massStates)
binData.addColumn(states)
for ev in range(binData.numEntries()):
args = binData.get(ev)
jPsiMass.setVal(args.find(jPsiMass.GetName()).getVal())
jPsiRap.setVal(args.find(jPsiRap.GetName()).getVal())
jPsiPt.setVal(args.find(jPsiPt.GetName()).getVal())
jPsicTau.setVal(args.find(jPsicTau.GetName()).getVal())
jPsicTauError.setVal(args.find(jPsicTauError.GetName()).getVal())
jPsiHXcosth.setVal(args.find(jPsiHXcosth.GetName()).getVal())
jPsiHXphi.setVal(args.find(jPsiHXphi.GetName()).getVal())
massStates.setIndex(int(massFun.getVal()))
ctauStates.setIndex(int(ctauFun.getVal()))
states.setIndex(int(mlFun.getVal()))
binDataWithCategory.add(fitVars)
getattr(ws,'import')(binDataWithCategory)
def prepare_truth_models(ws,cat,mass,channel,turnon,truth):
if channel in study_inputs:
bkg_data = RooDataSet("bkgdata_%s"%(channel),
"M_{ll#gamma} with Errors",
ws.set("observables_weight"),
"weight")
for k,file in enumerate(study_inputs[channel]):
f_in = TFile.Open(file,"READ")
gDirectory.cd(pwd)
n_events = f_in.Get("eventCount").GetBinContent(1)
tree = f_in.Get("selected_zg").CloneTree()
tree.SetName("tree_%s_%i"%(channel,k))
f_in.Close()
d_in = RooDataSet("temp",
"M_{ll#gamma} with Errors",
tree,
ws.set("observables"))
norm = RooConstVar("norm","norm",n_events)
weight = RooFormulaVar("weight",
"weight",
"1.3*@0*@1/@2", #1.3 gives 19.6/fb
RooArgList(ws.var("puWeight"),
ws.var("procWeight"),
norm)
)
d_in.addColumn(weight)
d_in_weight = RooDataSet("temp_weight",
"M_{ll#gamma} with Errors",
d_in,
ws.set("observables_weight"),
'','weight')
bkg_data.append(d_in_weight)
# split off data for each category, create the
# toy dataset truth models
data = bkg_data.reduce("Mz + Mzg > 185 && r94cat == %i"%cat)
getattr(ws,'import')(data,
RooFit.Rename('bkgdata_%s_%i'%(channel,
cat)))
nevts = data.sumEntries('Mzg > %f && Mzg < %f'%(mass-1.5,mass+1.5))
#for sigm turn on we want erf truth
if turnon == 'sigm' and truth == 'exp':
#make RooDecay 'truth' model with erf turn on
ws.factory(
'RooGaussModel::MzgResoShape_exp_erf_%s_cat%i(Mzg,'\
'bias_exp_erf_%s_cat%i[120,90,150],sigma_exp_erf_%s_cat%i[1,0.01,10])'%(
channel,cat,
channel,cat,
channel,cat)
)
ws.factory(
'RooDecay::MzgTruthModelBase_exp_erf_%s_cat%i(Mzg,'\
'tau_erf_%s_cat%i[25,0,50],MzgResoShape_exp_erf_%s_cat%i,'
'RooDecay::SingleSided)'%(channel,cat,
channel,cat,
channel,cat)
)
ws.factory(
'RooExtendPdf::MzgTruthModel_exp_erf_%s_cat%i('\
'MzgTruthModelBase_exp_erf_%s_cat%i,'\
'norm_truth_exp_%s_cat%i[%f,%f,%f],"ROI")'%(channel,cat,
channel,cat,
channel,cat,
nevts,
0.25*nevts,1.75*nevts)
)
ws.pdf('MzgTruthModel_exp_erf_%s_cat%i'%(channel,cat)).fitTo(
ws.data('bkgdata_%s_%i'%(channel,cat)),
RooFit.Minimizer('Minuit2','scan'),
RooFit.SumW2Error(False)
)
ws.pdf('MzgTruthModel_exp_erf_%s_cat%i'%(channel,cat)).fitTo(
ws.data('bkgdata_%s_%i'%(channel,cat)),
RooFit.Minimizer('Minuit','simplex'),
RooFit.SumW2Error(False)
)
ws.pdf('MzgTruthModel_exp_erf_%s_cat%i'%(channel,cat)).fitTo(
ws.data('bkgdata_%s_%i'%(channel,cat)),
RooFit.SumW2Error(True)
)
if turnon == 'sigm' and truth == 'pow':
#make power-law truth model with erf turn on
ws.factory('EXPR::MzgTruthModelShape_pow_erf_%s_cat%i('\
'"1e-20 + (@0 > @1)*((@0)^(-@2))",'\
'{Mzg,step_pow_erf_%s_cat%i[105,100,130],'\
'pow_%s_cat%i[2,0,10]})'\
%(channel,cat,
channel,cat,
channel,cat))
ws.factory(
'RooGaussModel::MzgResoShape_pow_erf_%s_cat%i(Mzg,'\
'bias_pow_erf_%s_cat%i[0],sigma_pow_erf_%s_cat%i[1,0.01,10])'%(
channel,cat,
channel,cat,
channel,cat)
)
ws.factory('FCONV::MzgTruthModelBase_pow_erf_%s_cat%i(Mzg,'\
'MzgTruthModelShape_pow_erf_%s_cat%i,'\
'MzgResoShape_pow_erf_%s_cat%i)'%(channel,cat,
channel,cat,
channel,cat))
ws.factory(
'RooExtendPdf::MzgTruthModel_pow_erf_%s_cat%i('\
'MzgTruthModelBase_pow_erf_%s_cat%i,'\
'norm_truth_pow_erf_%s_cat%i[%f,%f,%f],"ROI")'%(channel,cat,
channel,cat,
channel,cat,
nevts,
0.25*nevts,1.75*nevts)
)
ws.pdf('MzgTruthModel_pow_erf_%s_cat%i'%(channel,cat)).fitTo(
ws.data('bkgdata_%s_%i'%(channel,cat)),
RooFit.Minimizer('Minuit2','scan'),
RooFit.SumW2Error(False)
)
ws.pdf('MzgTruthModel_pow_erf_%s_cat%i'%(channel,cat)).fitTo(
ws.data('bkgdata_%s_%i'%(channel,cat)),
RooFit.Minimizer('Minuit','simplex'),
RooFit.SumW2Error(False)
)
ws.pdf('MzgTruthModel_pow_erf_%s_cat%i'%(channel,cat)).fitTo(
ws.data('bkgdata_%s_%i'%(channel,cat)),
RooFit.SumW2Error(True)
)
#for erf fitting turn on we want sigmoid truth
if turnon == 'erf' and truth == 'exp':
#build exponential convoluted with sigmoid turn-on
ws.factory('RooStepExponential::MzgTruthModelShape_exp_sigm_%s_cat%i'\
'(Mzg,tau_sigm_%s_cat%i[-0.05,-10,0],'\
'step_exp_sigm_%s_cat%i[110,100,130])'%(channel,cat,
channel,cat,
channel,cat))
ws.factory(
'RooLogistics::MzgResoShape_exp_sigm_%s_cat%i(%s)'%(
channel,cat,
','.join(['Mzg',
'bias_exp_sigm_%s_cat%i[0]'%(channel,cat),
'sigma_exp_sigm_%s_cat%i[5,0.01,20]'%(channel,cat)])
)
)
ws.factory('FCONV::MzgTruthModelBase_exp_sigm_%s_cat%i(Mzg,'\
'MzgTruthModelShape_exp_sigm_%s_cat%i,'\
'MzgResoShape_exp_sigm_%s_cat%i)'%(channel,cat,
channel,cat,
channel,cat))
ws.factory(
'RooExtendPdf::MzgTruthModel_exp_sigm_%s_cat%i('\
'MzgTruthModelBase_exp_sigm_%s_cat%i,'\
'norm_truth_exp_sigm_%s_cat%i[%f,%f,%f],"ROI")'%(channel,cat,
channel,cat,
channel,cat,
nevts,
0.25*nevts,1.75*nevts)
)
ws.pdf('MzgTruthModel_exp_sigm_%s_cat%i'%(channel,cat)).fitTo(
ws.data('bkgdata_%s_%i'%(channel,cat)),
RooFit.Minimizer('Minuit2','scan'),
RooFit.SumW2Error(False)
)
ws.pdf('MzgTruthModel_exp_sigm_%s_cat%i'%(channel,cat)).fitTo(
ws.data('bkgdata_%s_%i'%(channel,cat)),
RooFit.Minimizer('Minuit','simplex'),
RooFit.SumW2Error(False)
)
ws.pdf('MzgTruthModel_exp_sigm_%s_cat%i'%(channel,cat)).fitTo(
ws.data('bkgdata_%s_%i'%(channel,cat)),
RooFit.SumW2Error(True)
)
if turnon == 'erf' and truth == 'pow':
#build power-law convoluted with sigmoid turn-on
ws.factory('EXPR::MzgTruthModelShape_pow_sigm_%s_cat%i('\
'"1e-20 + (@0 > @1)*((@0)^(-@2))",'\
'{Mzg,step_pow_sigm_%s_cat%i[105,100,130],'\
'pow_sigm_%s_cat%i[2,0,10]})'\
%(channel,cat,
channel,cat,
channel,cat))
ws.factory(
'RooLogistics::MzgResoShape_pow_sigm_%s_cat%i(%s)'%(
channel,cat,
','.join(['Mzg',
'bias_pow_sigm_%s_cat%i[0]'%(channel,cat),
'sigma_pow_sigm_%s_cat%i[5,0.01,20]'%(channel,cat)])
)
)
ws.factory('FCONV::MzgTruthModelBase_pow_sigm_%s_cat%i(Mzg,'\
'MzgTruthModelShape_pow_sigm_%s_cat%i,'\
'MzgResoShape_pow_sigm_%s_cat%i)'%(channel,cat,
channel,cat,
channel,cat))
ws.factory(
'RooExtendPdf::MzgTruthModel_pow_sigm_%s_cat%i('\
'MzgTruthModelBase_pow_sigm_%s_cat%i,'\
'norm_truth_pow_sigm_%s_cat%i[%f,%f,%f],"ROI")'%(channel,cat,
channel,cat,
channel,cat,
nevts,
0.25*nevts,1.75*nevts)
)
ws.pdf('MzgTruthModel_pow_sigm_%s_cat%i'%(channel,cat)).fitTo(
ws.data('bkgdata_%s_%i'%(channel,cat)),
RooFit.Minimizer('Minuit2','scan'),
RooFit.SumW2Error(False)
)
ws.pdf('MzgTruthModel_pow_sigm_%s_cat%i'%(channel,cat)).fitTo(
ws.data('bkgdata_%s_%i'%(channel,cat)),
RooFit.Minimizer('Minuit','simplex'),
RooFit.SumW2Error(False)
)
ws.pdf('MzgTruthModel_pow_sigm_%s_cat%i'%(channel,cat)).fitTo(
ws.data('bkgdata_%s_%i'%(channel,cat)),
RooFit.SumW2Error(True)
)
def pdf_logPt2_prelim():
#PDF fit to log_10(pT^2) for preliminary figure
#tree_in = tree_incoh
tree_in = tree
#ptbin = 0.04
ptbin = 0.12
ptmin = -5.
ptmax = 1.
mmin = 2.8
mmax = 3.2
#fitran = [-5., 1.]
fitran = [-0.9, 0.1]
binned = False
#gamma-gamma 131 evt for pT<0.18
#input data
pT = RooRealVar("jRecPt", "pT", 0, 10)
m = RooRealVar("jRecM", "mass", 0, 10)
dataIN = RooDataSet("data", "data", tree_in, RooArgSet(pT, m))
strsel = "jRecM>{0:.3f} && jRecM<{1:.3f}".format(mmin, mmax)
data = dataIN.reduce(strsel)
#x is RooRealVar for log(Pt2)
draw = "TMath::Log10(jRecPt*jRecPt)"
draw_func = RooFormulaVar(
"x", "Dielectron log_{10}( #it{p}_{T}^{2} ) ((GeV/c)^{2})", draw,
RooArgList(pT))
x = data.addColumn(draw_func)
x.setRange("fitran", fitran[0], fitran[1])
#binned data
nbins, ptmax = ut.get_nbins(ptbin, ptmin, ptmax)
hPt = TH1D("hPt", "hPt", nbins, ptmin, ptmax)
hPtCoh = ut.prepare_TH1D("hPtCoh", ptbin, ptmin, ptmax)
hPtCoh.SetLineWidth(2)
#fill in binned data
tree_in.Draw(draw + " >> hPt", strsel)
tree_coh.Draw(draw + " >> hPtCoh", strsel)
dataH = RooDataHist("dataH", "dataH", RooArgList(x), hPt)
#range for plot
x.setMin(ptmin)
x.setMax(ptmax)
x.setRange("plotran", ptmin, ptmax)
#create the pdf
b = RooRealVar("b", "b", 5., 0., 10.)
pdf_func = "log(10.)*pow(10.,x)*exp(-b*pow(10.,x))"
pdf_logPt2 = RooGenericPdf("pdf_logPt2", pdf_func, RooArgList(x, b))
#make the fit
if binned == True:
r1 = pdf_logPt2.fitTo(dataH, rf.Range("fitran"), rf.Save())
else:
r1 = pdf_logPt2.fitTo(data, rf.Range("fitran"), rf.Save())
#calculate norm to number of events
xset = RooArgSet(x)
ipdf = pdf_logPt2.createIntegral(xset, rf.NormSet(xset),
rf.Range("fitran"))
print "PDF integral:", ipdf.getVal()
if binned == True:
nevt = tree_incoh.Draw(
"", strsel + " && " + draw + ">{0:.3f}".format(fitran[0]) +
" && " + draw + "<{1:.3f}".format(fitran[0], fitran[1]))
else:
nevt = data.sumEntries("x", "fitran")
print "nevt:", nevt
pdf_logPt2.setNormRange("fitran")
print "PDF norm:", pdf_logPt2.getNorm(RooArgSet(x))
#a = nevt/ipdf.getVal()
a = nevt / pdf_logPt2.getNorm(RooArgSet(x))
print "a =", a
#gamma-gamma contribution
hPtGG = ut.prepare_TH1D("hPtGG", ptbin, ptmin, ptmax)
tree_gg.Draw(draw + " >> hPtGG", strsel)
#ut.norm_to_data(hPtGG, hPt, rt.kGreen, -5., -2.9)
ut.norm_to_num(hPtGG, 131., rt.kGreen + 1)
print "Int GG:", hPtGG.Integral()
#sum of all contributions
hSum = ut.prepare_TH1D("hSum", ptbin, ptmin, ptmax)
hSum.SetLineWidth(3)
#add ggel to the sum
hSum.Add(hPtGG)
#add incoherent contribution
func_logPt2 = TF1("pdf_logPt2",
"[0]*log(10.)*pow(10.,x)*exp(-[1]*pow(10.,x))", -10.,
10.)
func_logPt2.SetParameters(a, b.getVal())
hInc = ut.prepare_TH1D("hInc", ptbin, ptmin, ptmax)
ut.fill_h1_tf(hInc, func_logPt2)
hSum.Add(hInc)
#add coherent contribution
ut.norm_to_data(hPtCoh, hPt, rt.kBlue, -5., -2.2) # norm for coh
hSum.Add(hPtCoh)
#set to draw as a lines
ut.line_h1(hSum, rt.kBlack)
#create canvas frame
can = ut.box_canvas()
ut.set_margin_lbtr(gPad, 0.11, 0.1, 0.01, 0.01)
frame = x.frame(rf.Bins(nbins), rf.Title(""))
frame.SetTitle("")
frame.SetYTitle("J/#psi candidates / ({0:.3f}".format(ptbin) +
" (GeV/c)^{2})")
frame.GetXaxis().SetTitleOffset(1.2)
frame.GetYaxis().SetTitleOffset(1.6)
print "Int data:", hPt.Integral()
#plot the data
if binned == True:
dataH.plotOn(frame, rf.Name("data"))
else:
data.plotOn(frame, rf.Name("data"))
pdf_logPt2.plotOn(frame, rf.Range("fitran"), rf.LineColor(rt.kRed),
rf.Name("pdf_logPt2"))
pdf_logPt2.plotOn(frame, rf.Range("plotran"), rf.LineColor(rt.kRed),
rf.Name("pdf_logPt2_full"), rf.LineStyle(rt.kDashed))
frame.Draw()
leg = ut.prepare_leg(0.61, 0.77, 0.16, 0.19, 0.03)
#ut.add_leg_mass(leg, mmin, mmax)
hx = ut.prepare_TH1D("hx", 1, 0, 1)
hx.Draw("same")
ln = ut.col_lin(rt.kRed, 2)
leg.AddEntry(hx, "Data", "p")
leg.AddEntry(hSum, "Sum", "l")
leg.AddEntry(hPtCoh, "Coherent J/#psi", "l")
leg.AddEntry(ln, "Incoherent parametrization", "l")
leg.AddEntry(hPtGG, "#gamma#gamma#rightarrow e^{+}e^{-}", "l")
#leg.AddEntry(ln, "ln(10)*#it{A}*10^{log_{10}#it{p}_{T}^{2}}exp(-#it{b}10^{log_{10}#it{p}_{T}^{2}})", "l")
leg.Draw("same")
l0 = ut.cut_line(fitran[0], 0.9, frame)
l1 = ut.cut_line(fitran[1], 0.9, frame)
#l0.Draw()
#l1.Draw()
pleg = ut.prepare_leg(0.12, 0.75, 0.14, 0.22, 0.03)
pleg.AddEntry(None, "#bf{|#kern[0.3]{#it{y}}| < 1}", "")
ut.add_leg_mass(pleg, mmin, mmax)
pleg.AddEntry(None, "STAR Preliminary", "")
pleg.AddEntry(None, "AuAu@200 GeV", "")
pleg.AddEntry(None, "UPC sample", "")
pleg.Draw("same")
desc = pdesc(frame, 0.14, 0.9, 0.057)
desc.set_text_size(0.03)
desc.itemD("#chi^{2}/ndf", frame.chiSquare("pdf_logPt2", "data", 2), -1,
rt.kRed)
desc.itemD("#it{A}", a, -1, rt.kRed)
desc.itemR("#it{b}", b, rt.kRed)
#desc.draw()
#put the sum
hSum.Draw("same")
frame.Draw("same")
#put gamma-gamma and coherent J/psi
hPtGG.Draw("same")
hPtCoh.Draw("same")
#ut.invert_col(rt.gPad)
can.SaveAs("01fig.pdf")
(x, eval(x))
for x in ["ymin", "ymax", "ptmax", "binned", "fitran[0]", "fitran[1]"]
]
strlog = ut.make_log_string(loglist1, loglist2)
ut.log_results(out, strlog + "\n")
#unbinned and binned input data
nbins, mmax = ut.get_nbins(mbin, mmin, mmax)
strsel = "jRecY>{0:.3f} && jRecY<{1:.3f} && jRecPt<{2:.3f}".format(
ymin, ymax, ptmax)
#unbinned data
m.setMin(mmin)
m.setMax(mmax)
m.setRange("fitran", fitran[0], fitran[1])
dataIN = RooDataSet("data", "data", tree, RooArgSet(m, y, pT))
data = dataIN.reduce(strsel)
#binned data
hMass = TH1D("hMass", "hMass", nbins, mmin, mmax)
tree.Draw("jRecM >> hMass", strsel)
dataH = RooDataHist("dataH", "dataH", RooArgList(m), hMass)
#make the fit
if binned == True:
r1 = cb.fitTo(dataH, rf.Range("fitran"), rf.Save())
else:
r1 = cb.fitTo(data, rf.Range("fitran"), rf.Save())
#log fit results
ut.log_results(out, ut.log_fit_result(r1))
ut.log_results(out, "Alpha and n in 3-digits:")
ut.log_results(
mmtt_pt = RooRealVar("xPt", "xPt", 0.0, ptmax)
lxysig = RooRealVar("xL", "l(xy) sign.;l(xy) sign.", 0.0, 1000.0)
massvars = RooArgSet(tt_mass, mm_mass, mmtt_mass)
ptvars = RooArgSet(tt_pt, mm_pt, mmtt_pt)
kinvars = RooArgSet(massvars, ptvars)
extravars = RooArgSet(lxysig)
theData = RooDataSet("theData", "theData", theTree,
RooArgSet(kinvars, extravars))
c = TCanvas("canvas", "canvas", 1200, 800)
if args.nonprompt:
theData = theData.reduce("xL > 3.0")
region = "_nprompt_"
if args.prompt:
theData = theData.reduce("xL < 1.5")
region = "_promt_"
if args.ptcuts is not None:
theData = theData.reduce("trigp_pT > " + str(args.ptcuts))
theData = theData.reduce("trign_pT > " + str(args.ptcuts))
cuts += "P_t_" + str(args.ptcuts) + "_"
#### #### Plotting variables
#### TrakTrak Data
if args.noplot:
print("TrakTrak data plotting . . .")
thevars.add(l2_mvaId)
thevars.add(cos2D)
thevars.add(l_xy_sig)
thevars.add(svprob)
fulldata = RooDataSet('fulldata', 'fulldata', tree, RooArgSet(thevars))
theBMassfunc = RooFormulaVar("theBMass", "theBMass", "@0", RooArgList(bMass))
theBMass = fulldata.addColumn(theBMassfunc)
theBMass.setRange(lowRange, highRange)
thevars.add(theBMass)
cut = ''
print cut
data = fulldata.reduce(thevars, cut)
## mass model
mean = RooRealVar("mass", "mean", B0Mass_, 5, 5.5, "GeV")
sigma = RooRealVar("sigma", "sigma", 9.0e-2, 1.0e-4, 1.0, "GeV")
alpha = RooRealVar("alpha", "alpha", 1.0, 0.0, 1.0e+4)
n = RooRealVar("n", "n", 5, 1, 100)
signalCB = RooCBShape("signalCB", "signal cb", theBMass, mean, sigma, alpha, n)
sigma2 = RooRealVar("sigma2", "sigma2", 9.0e-3, 1.0e-5, 1.0, "GeV")
alpha2 = RooRealVar("alpha2", "alpha2", 1.0, 0.0, 1.0e+4)
n2 = RooRealVar("n2", "n2", 5, 1, 100)
signalCB2 = RooCBShape("signalCB2", "signal cb 2", theBMass, mean, sigma2,
alpha2, n2)
f1 = RooRealVar("f1", "f1", 0.5, 0., 1.)
RooArgSet(masspLbTk, LbTkPt))
loadDatasetnLbTk = RooDataSet('loadData16nLbTk', 'loadData16', innLbTk,
RooArgSet(massnLbTk, LbTkPt))
#tktkMassCut='tktkMass>1.100&&tktkMass<1.120'
tktkMassCut = 'tktkMass>1.105&&tktkMass<1.125'
#tktkMassCut='tktkMass>1.110&&tktkMass<1.120'
for ptRange in ptRegion:
rName = ptRange[2]
pLbL0Num = 0
nLbL0Num = 0
pLbTkNum = 0
nLbTkNum = 0
if checkpLbL0:
binData = loadDatasetpLbL0.reduce(
tktkMassCut +
'&&lbl0Pt>{0}.&&lbl0Pt<{1}.'.format(ptRange[0], ptRange[1]))
pLbL0Num = binData.sumEntries()
if checknLbL0:
binData = loadDatasetnLbL0.reduce(
tktkMassCut +
'&&lbl0Pt>{0}.&&lbl0Pt<{1}.'.format(ptRange[0], ptRange[1]))
nLbL0Num = binData.sumEntries()
if checkpLbTk:
binData = loadDatasetpLbTk.reduce(
'lbtkPt>{0}.&&lbtkPt<{1}.'.format(ptRange[0], ptRange[1]))
pLbTkNum = binData.sumEntries()
if checknLbTk:
binData = loadDatasetnLbTk.reduce(
'lbtkPt>{0}.&&lbtkPt<{1}.'.format(ptRange[0], ptRange[1]))
nLbTkNum = binData.sumEntries()
dstree.Project('sPlot_B0_hist','xM','nSig_sw');
# In[ ]:
sPlot_B0_hist.Draw('e0');
cD.SaveAs('sPlot_B0_hist.eps')
# In[ ]:
sys.exit()
xdataPrompt = (alldata.reduce('xM<4.8')).reduce('xM>4.0').reduce("xL<2.0")
# In[ ]:
massmin = 1.020-0.03
massmax = 1.020+0.03
phimean = 1.020
xdataPrompt.numEntries()
# In[ ]:
a0 = RooRealVar("a0","a0",0.001,-1.,1.)
bsMass=RooRealVar('bsMass', 'bsMass', 4., 8., "GeV")
bdMass=RooRealVar('bdMass', 'bdMass', 3.5, 8., "GeV")
bdbarMass=RooRealVar('bdbarMass', 'bdbarMass', 3.5, 8., "GeV")
phiMass=RooRealVar('phiMass', 'phiMass', 0.5, 3., "GeV")
kstarMass=RooRealVar('kstarMass', 'kstarMass', 0.5, 3., "GeV")
kstarbarMass=RooRealVar('kstarbarMass', 'kstarbarMass', 0.5, 3., "GeV")
tktkPt=RooRealVar('tktkPt', 'tktkPt', 0., 160., "GeV/c")
fitMC=RooDataSet()
fitdata=RooDataSet('2016Data', 'RunB', ntuple, RooArgSet(lbtkMass,bsMass,bdMass,bdbarMass,phiMass,kstarMass,kstarbarMass,tktkPt))
subdataset=fitdata.reduce( RooFit.Cut("tktkPt>20.&&lbtkMass>5.45&&lbtkMass<5.8") )
canv=TCanvas('c1', 'c1', 1600,1000)
canv.SetFillColor(4000)
canv.SetFillStyle(4000)
lbtkmassFrame=lbtkMass.frame(RooFit.Range(5.,6.))
bsmassFrame=bsMass.frame(RooFit.Range(5.,6.))
bdmassFrame=bdMass.frame(RooFit.Range(5.,6.))
bdbarmassFrame=bdbarMass.frame(RooFit.Range(5.,6.))
fitdata.plotOn(lbtkmassFrame, RooFit.Cut("tktkPt>20."))
subdataset.plotOn(bsmassFrame)
subdataset.plotOn(bdmassFrame)
subdataset.plotOn(bdbarmassFrame)
lbtkmassFrame.Draw()
canv.SaveAs('h_checkPlot_lbtkMass_tktkPtB20.eps')
massAp = (massApmax - massApmin)/float(nApMass - 1) * i + massApmin
massApArr.append(massAp)
massVarr = []
massApres = 0.01
for j in range(0,nVMass):
#massV = (massVmax - massVmin)/float(nVMass - 1) * j + massVmin
massV = 0.6*massAp
massVarr.append(massV)
massPiarr = []
massVres = massresfile.Get("mres_l1_p0").GetFunction("pol1").Eval(massV)
#zcut = 10.
breakz = tailsfile.Get("breakz").GetFunction("pol3").Eval(massV)
length = tailsfile.Get("length").GetFunction("pol3").Eval(massV)
frame = uncVZ.frame()
dataInRange = dataset.reduce(obs,"abs({0}-{1})<{2}/2*({3}+{4}*uncVZ)".format("uncM",massV,masscut_nsigma,massVres,0))
binnedData = dataInRange.binnedClone()
binnedData.plotOn(frame)
mean = binnedData.mean(uncVZ)
sigma = binnedData.sigma(uncVZ)
uncVZ.setRange("fitRange",mean-2*sigma,mean+2*sigma)
gauss_params.setRealValue("mean",mean)
gauss_params.setRealValue("sigma",sigma)
gauss_pdf.fitTo(binnedData,RooFit.Range("fitRange"),RooFit.PrintLevel(-1))
mean = gauss_params.getRealValue("mean")
sigma = gauss_params.getRealValue("sigma")
gaussexp_params.setRealValue("gauss_mean",mean)
gaussexp_params.setRealValue("gauss_sigma",sigma)
gaussexp_params.setRealValue("exp_breakpoint",breakz)
gaussexp_params.setRealValue("exp_length",length)
w.var("gauss_mean").setConstant(True)
masskk.setBins(int(200))
massmumu = RooRealVar("mumuM", "mumuM", 2.5, 3.5)
# In[9]:
alldata = RooDataSet("alldata", "alldata", xTuple,
RooArgSet(masskk, mass, lxy, hlt,
massmumu)) #,cutFormula)
# In[10]:
alldata.numEntries()
# In[ ]:
xdataPrompt = (alldata.reduce('xM>5.15')).reduce('xM<5.55').reduce(
"xL>=3.0").reduce("kkM<1.035").reduce("kkM>1.005")
xdataPrompt.numEntries()
B_c = RooRealVar("B_c", "B_c ", 0.3, -20, 100)
B_b = RooRealVar("B_b", "B_b ", 0.3, -20, 100)
S1 = RooRealVar("S1", "Signal", 30000, 1, 900000)
S2 = RooRealVar("S2", "Signal", 30000, 1, 900000)
B = RooRealVar("B", "B", 50000, 1, 900000000)
mean = RooRealVar("mean", "mean of gaussian", 5.38, 5.31, 5.41)
sigma1 = RooRealVar("sigma1", "width of gaussian1", 0.002, 0.0005, 0.05)
sigma2 = RooRealVar("sigma2", "width of gaussian2", 0.004, 0.004, 0.01)
pdfS1 = RooGaussian("pdfS1", "gaus", mass, mean, sigma1)
def buildDataAndCategories(ws, options, args):
#Get the input data
inputData = TChain(options.treeName, 'The input data')
for arg in args:
print 'Adding data from: ', arg
inputData.Add(arg)
foldname = ''
phirange = [0, 90]
if not options.folded:
foldname = ''
phirange = [-180, 180]
#variables necessary for j/psi mass,lifetime,polarization fit
jPsiMass = RooRealVar('JpsiMass', 'M [GeV]', 2.7, 3.5)
jPsiRap = RooRealVar('JpsiRap', '#nu', -2.3, 2.3)
jPsiPt = RooRealVar("JpsiPt", "pT [GeV]", 0, 40)
jPsicTau = RooRealVar('Jpsict', 'l_{J/#psi} [mm]', -1, 2.5)
jPsicTauError = RooRealVar('JpsictErr', 'Error on l_{J/#psi} [mm]', 0, 2)
jPsiVprob = RooRealVar('JpsiVprob', '', .01, 1)
jPsiHXcosth = None
jPsiHXphi = None
jPsicTau.setBins(10000, "cache")
if options.fitFrame is not None:
jPsiHXcosth = RooRealVar('costh_' + options.fitFrame + foldname,
'cos(#theta)_{' + options.fitFrame + '}', -1,
1)
jPsiHXphi = RooRealVar('phi_' + options.fitFrame + foldname,
'#phi_{' + options.fitFrame + '}', phirange[0],
phirange[1])
else:
jPsiHXcosth = RooRealVar('costh_CS' + foldname, 'cos(#theta)_{CS}', -1,
1)
jPsiHXphi = RooRealVar('phi_CS' + foldname, '#phi_{CS}', phirange[0],
phirange[1])
#vars needed for on the fly calc of polarization variables
jPsimuPosPx = RooRealVar('muPosPx', '+ Muon P_{x} [GeV]', 0)
jPsimuPosPy = RooRealVar('muPosPy', '+ Muon P_{y} [GeV]', 0)
jPsimuPosPz = RooRealVar('muPosPz', '+ Muon P_{z} [GeV]', 0)
jPsimuNegPx = RooRealVar('muNegPx', '- Muon P_{x} [GeV]', 0)
jPsimuNegPy = RooRealVar('muNegPy', '- Muon P_{y} [GeV]', 0)
jPsimuNegPz = RooRealVar('muNegPz', '- Muon P_{z} [GeV]', 0)
#create RooArgSet for eventual dataset creation
dataVars = RooArgSet(jPsiMass, jPsiRap, jPsiPt, jPsicTau, jPsicTauError,
jPsimuPosPx, jPsimuPosPy, jPsimuPosPz)
#add trigger requirement if specified
if options.triggerName:
trigger = RooRealVar(options.triggerName, 'Passes Trigger', 0.5, 1.5)
dataVars.add(trigger)
dataVars.add(jPsiVprob)
dataVars.add(jPsimuNegPx)
dataVars.add(jPsimuNegPy)
dataVars.add(jPsimuNegPz)
dataVars.add(jPsiHXcosth)
dataVars.add(jPsiHXphi)
redVars = RooArgSet(jPsiMass, jPsiRap, jPsiPt, jPsicTau, jPsicTauError)
redVars.add(jPsiHXcosth)
redVars.add(jPsiHXphi)
fitVars = redVars.Clone()
### HERE IS WHERE THE BIT FOR CALCULATING POLARIZATION VARS GOES
ctauStates = RooCategory('ctauRegion', 'Cut Region in lifetime')
ctauStates.defineType('prompt', 0)
ctauStates.defineType('nonPrompt', 1)
massStates = RooCategory('massRegion', 'Cut Region in mass')
massStates.defineType('signal', 1)
massStates.defineType('separation', 0)
massStates.defineType('leftMassSideBand', -2)
massStates.defineType('rightMassSideBand', -1)
states = RooCategory('mlRegion', 'Cut Region in mass')
states.defineType('nonPromptSignal', 2)
states.defineType('promptSignal', 1)
states.defineType('separation', 0)
states.defineType('leftMassSideBand', -2)
states.defineType('rightMassSideBand', -1)
#define corresponding ranges in roorealvars
#mass is a little tricky since the sidebands change definitions in each rap bin
#define the names here and change as we do the fits
#jPsiMass.setRange('NormalizationRangeFormlfit_promptSignal',2.7,3.5)
#jPsiMass.setRange('NormalizationRangeFormlfit_nonPromptSignal',2.7,3.5)
#jPsiMass.setRange('NormalizationRangeFormlfit_leftMassSideBand',2.7,3.1)
#jPsiMass.setRange('NormalizationRangeFormlfit_rightMassSideBand',3.1,3.5)
#want the prompt fit only done in prompt region
#non-prompt only in non-prompt region
#background over entire cTau range
#jPsicTau.setRange('NormalizationRangeFormlfit_promptSignal',-1,.1)
#jPsicTau.setRange('NormalizationRangeFormlfit_nonPromptSignal',.1,2.5)
#jPsicTau.setRange('NormalizationRangeFormlfit_leftMassSideBand',-1,2.5)
#jPsicTau.setRange('NormalizationRangeFormlfit_rightMassSideBand',-1,2.5)
#redVars.add(ctauStates)
#redVars.add(massStates)
#redVars.add(states)
fitVars.add(ctauStates)
fitVars.add(massStates)
fitVars.add(states)
fullData = RooDataSet('fullData',
'The Full Data From the Input ROOT Trees', dataVars,
ROOT.RooFit.Import(inputData))
for rap_bin in range(1, len(jpsi.pTRange)):
yMin = jpsi.rapForPTRange[rap_bin - 1][0]
yMax = jpsi.rapForPTRange[rap_bin - 1][-1]
for pt_bin in range(len(jpsi.pTRange[rap_bin])):
ptMin = jpsi.pTRange[rap_bin][pt_bin][0]
ptMax = jpsi.pTRange[rap_bin][pt_bin][-1]
sigMaxMass = jpsi.polMassJpsi[
rap_bin] + jpsi.nSigMass * jpsi.sigmaMassJpsi[rap_bin]
sigMinMass = jpsi.polMassJpsi[
rap_bin] - jpsi.nSigMass * jpsi.sigmaMassJpsi[rap_bin]
sbHighMass = jpsi.polMassJpsi[
rap_bin] + jpsi.nSigBkgHigh * jpsi.sigmaMassJpsi[rap_bin]
sbLowMass = jpsi.polMassJpsi[
rap_bin] - jpsi.nSigBkgLow * jpsi.sigmaMassJpsi[rap_bin]
ctauNonPrompt = .1
massFun = RooFormulaVar(
'massRegion', 'Function that returns the mass state.',
'(' + jPsiMass.GetName() + ' < ' + str(sigMaxMass) + ' && ' +
jPsiMass.GetName() + ' > ' + str(sigMinMass) + ') - (' +
jPsiMass.GetName() + ' > ' + str(sbHighMass) + ')' + '-2*(' +
jPsiMass.GetName() + ' < ' + str(sbLowMass) + ')',
RooArgList(jPsiMass, jPsicTau))
ctauFun = RooFormulaVar(
'ctauRegion', 'Function that returns the ctau state.',
'(' + jPsicTau.GetName() + ' > ' + str(ctauNonPrompt) + ')',
RooArgList(jPsiMass, jPsicTau))
mlFun = RooFormulaVar(
'mlRegion',
'Function that returns the mass and lifetime state.',
'(' + jPsiMass.GetName() + ' < ' + str(sigMaxMass) + ' && ' +
jPsiMass.GetName() + ' > ' + str(sigMinMass) + ') + (' +
jPsiMass.GetName() + ' < ' + str(sigMaxMass) + ' && ' +
jPsiMass.GetName() + ' > ' + str(sigMinMass) + ' && ' +
jPsicTau.GetName() + ' > ' + str(ctauNonPrompt) + ') - (' +
jPsiMass.GetName() + ' > ' + str(sbHighMass) + ')' + '-2*(' +
jPsiMass.GetName() + ' < ' + str(sbLowMass) + ')',
RooArgList(jPsiMass, jPsicTau))
cutStringPt = '(' + jPsiPt.GetName() + ' > ' + str(
ptMin) + ' && ' + jPsiPt.GetName() + ' < ' + str(ptMax) + ')'
cutStringY = '( abs(' + jPsiRap.GetName() + ') > ' + str(
yMin) + ' && abs(' + jPsiRap.GetName() + ') < ' + str(
yMax) + ')'
#cutStringM1 = '('+jPsiMass.GetName()+' < '+str(sigMinMass)+' && '+jPsiMass.GetName()+' > '+str(sbLowMass)+')'
#cutStringM2 = '('+jPsiMass.GetName()+' < '+str(sbHighMass)+' && '+jPsiMass.GetName()+' > '+str(sigMaxMass)+')'
#cutStringMT = '!('+cutStringM1+' || '+cutStringM2+')'
cutString = cutStringPt + ' && ' + cutStringY #+' && '+cutStringMT
print cutString
#get the reduced dataset we'll do the fit on
binData = fullData.reduce(
ROOT.RooFit.SelectVars(redVars), ROOT.RooFit.Cut(cutString),
ROOT.RooFit.Name('data_rap' + str(rap_bin) + '_pt' +
str(pt_bin + 1)),
ROOT.RooFit.Title('Data For Fitting'))
binDataWithCategory = RooDataSet(
'data_rap' + str(rap_bin) + '_pt' + str(pt_bin + 1),
'Data For Fitting', fitVars)
#categorize
binData.addColumn(ctauStates)
binData.addColumn(massStates)
binData.addColumn(states)
for ev in range(binData.numEntries()):
args = binData.get(ev)
jPsiMass.setVal(args.find(jPsiMass.GetName()).getVal())
jPsiRap.setVal(args.find(jPsiRap.GetName()).getVal())
jPsiPt.setVal(args.find(jPsiPt.GetName()).getVal())
jPsicTau.setVal(args.find(jPsicTau.GetName()).getVal())
jPsicTauError.setVal(
args.find(jPsicTauError.GetName()).getVal())
jPsiHXcosth.setVal(args.find(jPsiHXcosth.GetName()).getVal())
jPsiHXphi.setVal(args.find(jPsiHXphi.GetName()).getVal())
massStates.setIndex(int(massFun.getVal()))
ctauStates.setIndex(int(ctauFun.getVal()))
states.setIndex(int(mlFun.getVal()))
binDataWithCategory.add(fitVars)
getattr(ws, 'import')(binDataWithCategory)
def prepare_truth_models(ws, cat, mass, channel, turnon, truth):
if channel in study_inputs:
bkg_data = RooDataSet("bkgdata_%s" % (channel),
"M_{ll#gamma} with Errors",
ws.set("observables_weight"), "weight")
for k, file in enumerate(study_inputs[channel]):
f_in = TFile.Open(file, "READ")
gDirectory.cd(pwd)
n_events = f_in.Get("eventCount").GetBinContent(1)
tree = f_in.Get("selected_zg").CloneTree()
tree.SetName("tree_%s_%i" % (channel, k))
f_in.Close()
d_in = RooDataSet("temp", "M_{ll#gamma} with Errors", tree,
ws.set("observables"))
norm = RooConstVar("norm", "norm", n_events)
weight = RooFormulaVar(
"weight",
"weight",
"1.3*@0*@1/@2", #1.3 gives 19.6/fb
RooArgList(ws.var("puWeight"), ws.var("procWeight"), norm))
d_in.addColumn(weight)
d_in_weight = RooDataSet("temp_weight", "M_{ll#gamma} with Errors",
d_in, ws.set("observables_weight"), '',
'weight')
bkg_data.append(d_in_weight)
# split off data for each category, create the
# toy dataset truth models
data = bkg_data.reduce("Mz + Mzg > 185 && r94cat == %i" % cat)
getattr(ws, 'import')(data,
RooFit.Rename('bkgdata_%s_%i' % (channel, cat)))
nevts = data.sumEntries('Mzg > %f && Mzg < %f' %
(mass - 1.5, mass + 1.5))
#for sigm turn on we want erf truth
if turnon == 'sigm' and truth == 'exp':
#make RooDecay 'truth' model with erf turn on
ws.factory(
'RooGaussModel::MzgResoShape_exp_erf_%s_cat%i(Mzg,'\
'bias_exp_erf_%s_cat%i[120,90,150],sigma_exp_erf_%s_cat%i[1,0.01,10])'%(
channel,cat,
channel,cat,
channel,cat)
)
ws.factory(
'RooDecay::MzgTruthModelBase_exp_erf_%s_cat%i(Mzg,'\
'tau_erf_%s_cat%i[25,0,50],MzgResoShape_exp_erf_%s_cat%i,'
'RooDecay::SingleSided)'%(channel,cat,
channel,cat,
channel,cat)
)
ws.factory(
'RooExtendPdf::MzgTruthModel_exp_erf_%s_cat%i('\
'MzgTruthModelBase_exp_erf_%s_cat%i,'\
'norm_truth_exp_%s_cat%i[%f,%f,%f],"ROI")'%(channel,cat,
channel,cat,
channel,cat,
nevts,
0.25*nevts,1.75*nevts)
)
ws.pdf('MzgTruthModel_exp_erf_%s_cat%i' % (channel, cat)).fitTo(
ws.data('bkgdata_%s_%i' % (channel, cat)),
RooFit.Minimizer('Minuit2', 'scan'), RooFit.SumW2Error(False))
ws.pdf('MzgTruthModel_exp_erf_%s_cat%i' % (channel, cat)).fitTo(
ws.data('bkgdata_%s_%i' % (channel, cat)),
RooFit.Minimizer('Minuit', 'simplex'),
RooFit.SumW2Error(False))
ws.pdf('MzgTruthModel_exp_erf_%s_cat%i' % (channel, cat)).fitTo(
ws.data('bkgdata_%s_%i' % (channel, cat)),
RooFit.SumW2Error(True))
if turnon == 'sigm' and truth == 'pow':
#make power-law truth model with erf turn on
ws.factory('EXPR::MzgTruthModelShape_pow_erf_%s_cat%i('\
'"1e-20 + (@0 > @1)*((@0)^(-@2))",'\
'{Mzg,step_pow_erf_%s_cat%i[105,100,130],'\
'pow_%s_cat%i[2,0,10]})'\
%(channel,cat,
channel,cat,
channel,cat))
ws.factory(
'RooGaussModel::MzgResoShape_pow_erf_%s_cat%i(Mzg,'\
'bias_pow_erf_%s_cat%i[0],sigma_pow_erf_%s_cat%i[1,0.01,10])'%(
channel,cat,
channel,cat,
channel,cat)
)
ws.factory('FCONV::MzgTruthModelBase_pow_erf_%s_cat%i(Mzg,'\
'MzgTruthModelShape_pow_erf_%s_cat%i,'\
'MzgResoShape_pow_erf_%s_cat%i)'%(channel,cat,
channel,cat,
channel,cat))
ws.factory(
'RooExtendPdf::MzgTruthModel_pow_erf_%s_cat%i('\
'MzgTruthModelBase_pow_erf_%s_cat%i,'\
'norm_truth_pow_erf_%s_cat%i[%f,%f,%f],"ROI")'%(channel,cat,
channel,cat,
channel,cat,
nevts,
0.25*nevts,1.75*nevts)
)
ws.pdf('MzgTruthModel_pow_erf_%s_cat%i' % (channel, cat)).fitTo(
ws.data('bkgdata_%s_%i' % (channel, cat)),
RooFit.Minimizer('Minuit2', 'scan'), RooFit.SumW2Error(False))
ws.pdf('MzgTruthModel_pow_erf_%s_cat%i' % (channel, cat)).fitTo(
ws.data('bkgdata_%s_%i' % (channel, cat)),
RooFit.Minimizer('Minuit', 'simplex'),
RooFit.SumW2Error(False))
ws.pdf('MzgTruthModel_pow_erf_%s_cat%i' % (channel, cat)).fitTo(
ws.data('bkgdata_%s_%i' % (channel, cat)),
RooFit.SumW2Error(True))
#for erf fitting turn on we want sigmoid truth
if turnon == 'erf' and truth == 'exp':
#build exponential convoluted with sigmoid turn-on
ws.factory('RooStepExponential::MzgTruthModelShape_exp_sigm_%s_cat%i'\
'(Mzg,tau_sigm_%s_cat%i[-0.05,-10,0],'\
'step_exp_sigm_%s_cat%i[110,100,130])'%(channel,cat,
channel,cat,
channel,cat))
ws.factory('RooLogistics::MzgResoShape_exp_sigm_%s_cat%i(%s)' %
(channel, cat, ','.join([
'Mzg',
'bias_exp_sigm_%s_cat%i[0]' % (channel, cat),
'sigma_exp_sigm_%s_cat%i[5,0.01,20]' %
(channel, cat)
])))
ws.factory('FCONV::MzgTruthModelBase_exp_sigm_%s_cat%i(Mzg,'\
'MzgTruthModelShape_exp_sigm_%s_cat%i,'\
'MzgResoShape_exp_sigm_%s_cat%i)'%(channel,cat,
channel,cat,
channel,cat))
ws.factory(
'RooExtendPdf::MzgTruthModel_exp_sigm_%s_cat%i('\
'MzgTruthModelBase_exp_sigm_%s_cat%i,'\
'norm_truth_exp_sigm_%s_cat%i[%f,%f,%f],"ROI")'%(channel,cat,
channel,cat,
channel,cat,
nevts,
0.25*nevts,1.75*nevts)
)
ws.pdf('MzgTruthModel_exp_sigm_%s_cat%i' % (channel, cat)).fitTo(
ws.data('bkgdata_%s_%i' % (channel, cat)),
RooFit.Minimizer('Minuit2', 'scan'), RooFit.SumW2Error(False))
ws.pdf('MzgTruthModel_exp_sigm_%s_cat%i' % (channel, cat)).fitTo(
ws.data('bkgdata_%s_%i' % (channel, cat)),
RooFit.Minimizer('Minuit', 'simplex'),
RooFit.SumW2Error(False))
ws.pdf('MzgTruthModel_exp_sigm_%s_cat%i' % (channel, cat)).fitTo(
ws.data('bkgdata_%s_%i' % (channel, cat)),
RooFit.SumW2Error(True))
if turnon == 'erf' and truth == 'pow':
#build power-law convoluted with sigmoid turn-on
ws.factory('EXPR::MzgTruthModelShape_pow_sigm_%s_cat%i('\
'"1e-20 + (@0 > @1)*((@0)^(-@2))",'\
'{Mzg,step_pow_sigm_%s_cat%i[105,100,130],'\
'pow_sigm_%s_cat%i[2,0,10]})'\
%(channel,cat,
channel,cat,
channel,cat))
ws.factory('RooLogistics::MzgResoShape_pow_sigm_%s_cat%i(%s)' %
(channel, cat, ','.join([
'Mzg',
'bias_pow_sigm_%s_cat%i[0]' % (channel, cat),
'sigma_pow_sigm_%s_cat%i[5,0.01,20]' %
(channel, cat)
])))
ws.factory('FCONV::MzgTruthModelBase_pow_sigm_%s_cat%i(Mzg,'\
'MzgTruthModelShape_pow_sigm_%s_cat%i,'\
'MzgResoShape_pow_sigm_%s_cat%i)'%(channel,cat,
channel,cat,
channel,cat))
ws.factory(
'RooExtendPdf::MzgTruthModel_pow_sigm_%s_cat%i('\
'MzgTruthModelBase_pow_sigm_%s_cat%i,'\
'norm_truth_pow_sigm_%s_cat%i[%f,%f,%f],"ROI")'%(channel,cat,
channel,cat,
channel,cat,
nevts,
0.25*nevts,1.75*nevts)
)
ws.pdf('MzgTruthModel_pow_sigm_%s_cat%i' % (channel, cat)).fitTo(
ws.data('bkgdata_%s_%i' % (channel, cat)),
RooFit.Minimizer('Minuit2', 'scan'), RooFit.SumW2Error(False))
ws.pdf('MzgTruthModel_pow_sigm_%s_cat%i' % (channel, cat)).fitTo(
ws.data('bkgdata_%s_%i' % (channel, cat)),
RooFit.Minimizer('Minuit', 'simplex'),
RooFit.SumW2Error(False))
ws.pdf('MzgTruthModel_pow_sigm_%s_cat%i' % (channel, cat)).fitTo(
ws.data('bkgdata_%s_%i' % (channel, cat)),
RooFit.SumW2Error(True))
alldata = RooDataSet("alldata", "alldata", xTuple,
RooArgSet(masskk, mass, lxy, hlt,
massmumu)) #,cutFormula)
datasetfile = TFile("xMassDataset.root", "RECREATE")
datasetfile.cd()
alldata.Write()
# In[10]:
alldata.numEntries()
# In[ ]:
#xb->setRange("alt","x_coarse_bin1,x_coarse_bin3,x_coarse_bin5,x_coarse_bin7,x_coarse_bin9") ;
b0dataNonPrompt = ((
alldata.reduce('xHlt!=8')).reduce('xM>5.2')).reduce("xL>3.0")
# In[ ]:
b0dataNonPromptMass = b0dataNonPrompt.reduce(SelectVars(RooArgSet(mass)))
b0dataNonPrompt.numEntries()
# In[ ]:
c = TCanvas("canvas", "canvas", 1200, 800)
mass.setRange("fitRange", massmin, massmax)
mass.setBins(200)
massFrame = mass.frame(Range(massmin, massmax))
b0dataNonPrompt.plotOn(massFrame)
massFrame.Draw()
c.SaveAs("testmass.png")
loadDatasetlB=RooDataSet('loadData16n','loadData16',inn16,RooArgSet(massLb,massTkTk,space.var('lbl0Pt'))).reduce(ptCut)
totNum=inN16.GetEntries()
space.factory('numLb[{0},-100.,{1}]'.format(50,totNum))
space.factory('numlB[{0},-100.,{1}]'.format(50,totNum))
#tktkMassCut='tktkMass>1.100&&tktkMass<1.120'
tktkMassCut='tktkMass>1.105&&tktkMass<1.125'
#tktkMassCut='tktkMass>1.110&&tktkMass<1.120'
# fit 2016 data in short range Lb mass window LbL0 {{{
if veryShortRangeFitLb:
massLb.setRange('sigShortRange',5.4,5.9)
massLb.setBins(50)
#binData=loadDatasetLb.binnedClone('shortBinLb')
binData=loadDatasetLb.reduce(tktkMassCut)
label='Run2016Data_pLbL0'
fitLabel='lbl0Dist_lbl0MC'
space.factory('x0[-5.498]')
space.factory('Addition::X({{ {x},x0 }})'.format(x='lbl0Mass'))
space.factory('Polynomial::pPDF_%s(X,{c1_%s[0.01,-2.,0.2],c2_%s[0.01,-3.,1.0]})' % (label,label,label) )
#space.factory('Polynomial::pPDF_%s(lbl0Mass,{c1_%s[0.01,-5.,5.]})' % (label,label) )
# set resolution issue: Convolute a gaussian.
space.factory('numCombBkg_{0}[{1},0.,{2}]'.format(label, totNum,totNum))
myPDF=RooAddPdf('totPdf_{0}'.format(label),'totPdf_{0}'.format(label),
RooArgList( space.pdf('pPDF_{0}'.format(label)),
space.pdf('gPDF_lbl0Dist_lbl0MC') ),
RooArgList( space.var('numCombBkg_{0}'.format(label)),
space.var('numLb') ),
figDir.cd()
myFrame.Write(fitLabel)
canv.SaveAs(outFig)
fitDir.cd()
fitRes.Write(fitLabel)
# fit lbtkMass in Lb MC end }}}
# fit lbtkMass in antiLb MC {{{
if fitToLbMass_AntiLbTkMC:
fitLabel='lbtkDist_antilbtkMC'
mass=space.var('lbtkMass')
inN=inFF.Get('pLbTk/AntiLbTk')
#dataset=RooDataSet('dataset','dataset',inN,RooArgSet(mass,tk1Pt,tk2Pt)).reduce('tk1Pt>3.&&tk2Pt>2.')
dataset=RooDataSet('dataset','dataset',inN,RooArgSet(mass))
fitBkg=dataset.reduce(RooFit.Name('fitData_{0}'.format(fitLabel)))
#getattr(space,'import')(fitBkg)
# create target PDF.
#space.factory('KeysPdf::kPDF_{0}(lbtkMass,fitData_{0},NoMirror,2.0)'.format(fitLabel))
#myPDF=space.pdf('kPDF_{0}'.format(fitLabel))
keyPDF=RooKeysPdf('kPDF_{0}'.format(fitLabel),'kPDF_{0}'.format(fitLabel),mass,fitBkg,RooKeysPdf.NoMirror,2.0)
getattr(space,'import')(keyPDF)
myPDF=keyPDF
myFrame=mass.frame(RooFit.Title(fitLabel),RooFit.Title(fitLabel))
if setAxis: myFrame=mass.frame(xaxisMin,xaxisMax)
myFrame.GetXaxis().SetTitle('J/#psi p K^{-} Mass(GeV)')
dataset.plotOn(myFrame)
simulComponents = []
# find systematic of Lb {{{
if sysFitLb:
label = 'LbSysFit'
numSig = spaceExt.var('numLb')
numBkg = spaceExt.var('numCombBkg_ShortRangeLbFit')
varName = 'lbtkMass'
figDir.cd()
var = space.var(varName)
model = spaceExt.pdf('totPdf_LbModel')
#dataset=model.generate(RooArgSet(space.var('lbtkMass')),10000)
dataset = loadDatasetLb.reduce(ptCut)
nll = model.createNLL(dataset)
fitres = model.fitTo(dataset, RooFit.Save(True),
RooFit.Minos(useMinos))
plot = var.frame(RooFit.Title('toyMC check fit'))
dataset.plotOn(plot)
model.plotOn(
plot,
RooFit.Normalization(dataset.sumEntries(), RooAbsReal.NumEvent))
SaveResult(origPlot=plot,
origVar=var,
data={'content': dataset},
totPDF={'content': model},
fitres=fitres,
label=label + 'resFitCheck_data',
def pdf_logPt2_incoh():
#PDF fit to log_10(pT^2)
#tree_in = tree_incoh
tree_in = tree
#ptbin = 0.04
ptbin = 0.12
ptmin = -5.
ptmax = 1.
mmin = 2.8
mmax = 3.2
#fitran = [-5., 1.]
fitran = [-0.9, 0.1]
binned = False
#gamma-gamma 131 evt for pT<0.18
#output log file
out = open("out.txt", "w")
ut.log_results(
out, "in " + infile + " in_coh " + infile_coh + " in_gg " + infile_gg)
loglist = [(x, eval(x)) for x in
["ptbin", "ptmin", "ptmax", "mmin", "mmax", "fitran", "binned"]]
strlog = ut.make_log_string(loglist)
ut.log_results(out, strlog + "\n")
#input data
pT = RooRealVar("jRecPt", "pT", 0, 10)
m = RooRealVar("jRecM", "mass", 0, 10)
dataIN = RooDataSet("data", "data", tree_in, RooArgSet(pT, m))
strsel = "jRecM>{0:.3f} && jRecM<{1:.3f}".format(mmin, mmax)
data = dataIN.reduce(strsel)
#x is RooRealVar for log(Pt2)
draw = "TMath::Log10(jRecPt*jRecPt)"
draw_func = RooFormulaVar("x", "log_{10}( #it{p}_{T}^{2} ) (GeV^{2})",
draw, RooArgList(pT))
x = data.addColumn(draw_func)
x.setRange("fitran", fitran[0], fitran[1])
#binned data
nbins, ptmax = ut.get_nbins(ptbin, ptmin, ptmax)
hPt = TH1D("hPt", "hPt", nbins, ptmin, ptmax)
tree_in.Draw(draw + " >> hPt", strsel)
dataH = RooDataHist("dataH", "dataH", RooArgList(x), hPt)
#range for plot
x.setMin(ptmin)
x.setMax(ptmax)
x.setRange("plotran", ptmin, ptmax)
#create the pdf
b = RooRealVar("b", "b", 5., 0., 10.)
pdf_func = "log(10.)*pow(10.,x)*exp(-b*pow(10.,x))"
pdf_logPt2 = RooGenericPdf("pdf_logPt2", pdf_func, RooArgList(x, b))
#make the fit
if binned == True:
r1 = pdf_logPt2.fitTo(dataH, rf.Range("fitran"), rf.Save())
else:
r1 = pdf_logPt2.fitTo(data, rf.Range("fitran"), rf.Save())
ut.log_results(out, ut.log_fit_result(r1))
#calculate norm to number of events
xset = RooArgSet(x)
ipdf = pdf_logPt2.createIntegral(xset, rf.NormSet(xset),
rf.Range("fitran"))
print "PDF integral:", ipdf.getVal()
if binned == True:
nevt = tree_incoh.Draw(
"", strsel + " && " + draw + ">{0:.3f}".format(fitran[0]) +
" && " + draw + "<{1:.3f}".format(fitran[0], fitran[1]))
else:
nevt = data.sumEntries("x", "fitran")
print "nevt:", nevt
pdf_logPt2.setNormRange("fitran")
print "PDF norm:", pdf_logPt2.getNorm(RooArgSet(x))
#a = nevt/ipdf.getVal()
a = nevt / pdf_logPt2.getNorm(RooArgSet(x))
ut.log_results(out, "log_10(pT^2) parametrization:")
ut.log_results(out, "A = {0:.2f}".format(a))
ut.log_results(out, ut.log_fit_parameters(r1, 0, 2))
print "a =", a
#Coherent contribution
hPtCoh = ut.prepare_TH1D("hPtCoh", ptbin, ptmin, ptmax)
hPtCoh.Sumw2()
#tree_coh.Draw(draw + " >> hPtCoh", strsel)
tree_coh.Draw("TMath::Log10(jGenPt*jGenPt) >> hPtCoh", strsel)
ut.norm_to_data(hPtCoh, hPt, rt.kBlue, -5., -2.2) # norm for coh
#ut.norm_to_data(hPtCoh, hPt, rt.kBlue, -5, -2.1)
#ut.norm_to_num(hPtCoh, 405, rt.kBlue)
print "Coherent integral:", hPtCoh.Integral()
#TMath::Log10(jRecPt*jRecPt)
#Sartre generated coherent shape
sartre = TFile.Open(
"/home/jaroslav/sim/sartre_tx/sartre_AuAu_200GeV_Jpsi_coh_2p7Mevt.root"
)
sartre_tree = sartre.Get("sartre_tree")
hSartre = ut.prepare_TH1D("hSartre", ptbin, ptmin, ptmax)
sartre_tree.Draw("TMath::Log10(pT*pT) >> hSartre",
"rapidity>-1 && rapidity<1")
ut.norm_to_data(hSartre, hPt, rt.kViolet, -5, -2) # norm for Sartre
#gamma-gamma contribution
hPtGG = ut.prepare_TH1D("hPtGG", ptbin, ptmin, ptmax)
tree_gg.Draw(draw + " >> hPtGG", strsel)
#ut.norm_to_data(hPtGG, hPt, rt.kGreen, -5., -2.9)
ut.norm_to_num(hPtGG, 131., rt.kGreen)
print "Int GG:", hPtGG.Integral()
#psi' contribution
psiP = TFile.Open(basedir_mc + "/ana_slight14e4x1_s6_sel5z.root")
psiP_tree = psiP.Get("jRecTree")
hPtPsiP = ut.prepare_TH1D("hPtPsiP", ptbin, ptmin, ptmax)
psiP_tree.Draw(draw + " >> hPtPsiP", strsel)
ut.norm_to_num(hPtPsiP, 12, rt.kViolet)
#sum of all contributions
hSum = ut.prepare_TH1D("hSum", ptbin, ptmin, ptmax)
hSum.SetLineWidth(3)
#add ggel to the sum
hSum.Add(hPtGG)
#add incoherent contribution
func_logPt2 = TF1("pdf_logPt2",
"[0]*log(10.)*pow(10.,x)*exp(-[1]*pow(10.,x))", -10.,
10.)
func_logPt2.SetParameters(a, b.getVal())
hInc = ut.prepare_TH1D("hInc", ptbin, ptmin, ptmax)
ut.fill_h1_tf(hInc, func_logPt2)
hSum.Add(hInc)
#add coherent contribution
hSum.Add(hPtCoh)
#add psi(2S) contribution
#hSum.Add(hPtPsiP)
#set to draw as a lines
ut.line_h1(hSum, rt.kBlack)
#create canvas frame
can = ut.box_canvas()
ut.set_margin_lbtr(gPad, 0.11, 0.09, 0.01, 0.01)
frame = x.frame(rf.Bins(nbins), rf.Title(""))
frame.SetTitle("")
frame.SetMaximum(75)
frame.SetYTitle("Events / ({0:.3f}".format(ptbin) + " GeV^{2})")
print "Int data:", hPt.Integral()
#plot the data
if binned == True:
dataH.plotOn(frame, rf.Name("data"))
else:
data.plotOn(frame, rf.Name("data"))
pdf_logPt2.plotOn(frame, rf.Range("fitran"), rf.LineColor(rt.kRed),
rf.Name("pdf_logPt2"))
pdf_logPt2.plotOn(frame, rf.Range("plotran"), rf.LineColor(rt.kRed),
rf.Name("pdf_logPt2_full"), rf.LineStyle(rt.kDashed))
frame.Draw()
amin = TMath.Power(10, ptmin)
amax = TMath.Power(10, ptmax) - 1
print amin, amax
pt2func = TF1("f1", "TMath::Power(10, x)", amin,
amax) #TMath::Power(x, 10)
aPt2 = TGaxis(-5, 75, 1, 75, "f1", 510, "-")
ut.set_axis(aPt2)
aPt2.SetTitle("pt2")
#aPt2.Draw();
leg = ut.prepare_leg(0.57, 0.78, 0.14, 0.19, 0.03)
ut.add_leg_mass(leg, mmin, mmax)
hx = ut.prepare_TH1D("hx", 1, 0, 1)
hx.Draw("same")
ln = ut.col_lin(rt.kRed)
leg.AddEntry(hx, "Data")
leg.AddEntry(hPtCoh, "Sartre MC", "l")
leg.AddEntry(hPtGG, "#gamma#gamma#rightarrow e^{+}e^{-} MC", "l")
#leg.AddEntry(ln, "ln(10)*#it{A}*10^{log_{10}#it{p}_{T}^{2}}exp(-#it{b}10^{log_{10}#it{p}_{T}^{2}})", "l")
#leg.AddEntry(ln, "Incoherent fit", "l")
leg.Draw("same")
l0 = ut.cut_line(fitran[0], 0.9, frame)
l1 = ut.cut_line(fitran[1], 0.9, frame)
#l0.Draw()
#l1.Draw()
desc = pdesc(frame, 0.14, 0.8, 0.054)
desc.set_text_size(0.03)
desc.itemD("#chi^{2}/ndf", frame.chiSquare("pdf_logPt2", "data", 2), -1,
rt.kRed)
desc.itemD("#it{A}", a, -1, rt.kRed)
desc.itemR("#it{b}", b, rt.kRed)
desc.draw()
#put the sum
#hSum.Draw("same")
#gPad.SetLogy()
frame.Draw("same")
#put gamma-gamma
hPtGG.Draw("same")
#put coherent J/psi
hPtCoh.Draw("same")
#put Sartre generated coherent shape
#hSartre.Draw("same")
#put psi(2S) contribution
#hPtPsiP.Draw("same")
leg2 = ut.prepare_leg(0.14, 0.9, 0.14, 0.08, 0.03)
leg2.AddEntry(
ln,
"ln(10)*#it{A}*10^{log_{10}#it{p}_{T}^{2}}exp(-#it{b}10^{log_{10}#it{p}_{T}^{2}})",
"l")
#leg2.AddEntry(hPtCoh, "Sartre MC reconstructed", "l")
#leg2.AddEntry(hSartre, "Sartre MC generated", "l")
leg2.Draw("same")
ut.invert_col(rt.gPad)
can.SaveAs("01fig.pdf")
fullmc = RooDataSet('fullmc', 'fullmc', tMC, RooArgSet(thevarsMC))
deltaB0M = fullmc.addColumn(deltaB0Mfunc)
deltaJpsiM = fullmc.addColumn(deltaJMfunc)
deltaPsiPM = fullmc.addColumn(deltaPMfunc)
thevars.add(deltaB0M)
thevars.add(deltaJpsiM)
thevars.add(deltaPsiPM)
thevarsMC.add(deltaB0M)
thevarsMC.add(deltaJpsiM)
thevarsMC.add(deltaPsiPM)
### define correct and wrong tag samples
rt_mc = fullmc.reduce(
RooArgSet(thevarsMC),
'((tagB0==1 && genSignal==1) || (tagB0==0 && genSignal==2))')
wt_mc = fullmc.reduce(
RooArgSet(thevarsMC),
'((tagB0==0 && genSignal==1) || (tagB0==1 && genSignal==2))')
c1 = ROOT.TCanvas()
dict_s_rt = {}
dict_s_wt = {}
out_f = TFile("results_fits_%s_newCB.root" % args.year, "RECREATE")
w = ROOT.RooWorkspace("w")
initial_n_1 = 3.
initial_n_2 = 1.
initial_a_1 = 1.
def fit_mass(data,
column,
x,
sig_pdf=None,
bkg_pdf=None,
n_sig=None,
n_bkg=None,
blind=False,
nll_profile=False,
second_storage=None,
log_plot=False,
pulls=True,
sPlot=False,
bkg_in_region=False,
importance=3,
plot_importance=3):
"""Fit a given pdf to a variable distribution
Parameter
---------
data : |hepds_type|
The data containing the variable to fit to
column : str
The name of the column to fit the pdf to
sig_pdf : RooFit pdf
The signal Probability Density Function. The variable to fit to has
to be named 'x'.
bkg_pdf : RooFit pdf
The background Probability Density Function. The variable to fit to has
to be named 'x'.
n_sig : None or numeric
The number of signals in the data. If it should be fitted, use None.
n_bkg : None or numeric
The number of background events in the data.
If it should be fitted, use None.
blind : boolean or tuple(numberic, numberic)
If False, the data is fitted. If a tuple is provided, the values are
used as the lower (the first value) and the upper (the second value)
limit of a blinding region, which will be omitted in plots.
Additionally, no true number of signal will be returned but only fake.
nll_profile : boolean
If True, a Negative Log-Likelihood Profile will be generated. Does not
work with blind fits.
second_storage : |hepds_type|
A second data-storage that will be concatenated with the first one.
importance : |importance_type|
|importance_docstring|
plot_importance : |plot_importance_type|
|plot_importance_docstring|
Return
------
tuple(numerical, numerical)
Return the number of signals and the number of backgrounds in the
signal-region. If a blind fit is performed, the signal will be a fake
number. If no number of background events is required, -999 will be
returned.
"""
if not (isinstance(column, str) or len(column) == 1):
raise ValueError("Fitting to several columns " + str(column) +
" not supported.")
if type(sig_pdf) == type(bkg_pdf) == None:
raise ValueError("sig_pdf and bkg_pdf are both None-> no fit possible")
if blind is not False:
lower_blind, upper_blind = blind
blind = True
n_bkg_below_sig = -999
# create data
data_name = data.name
data_array, _t1, _t2 = data.make_dataset(second_storage, columns=column)
del _t1, _t2
# double crystalball variables
min_x, max_x = min(data_array[column]), max(data_array[column])
# x = RooRealVar("x", "x variable", min_x, max_x)
# create data
data_array = np.array([i[0] for i in data_array.as_matrix()])
data_array.dtype = [('x', np.float64)]
tree1 = array2tree(data_array, "x")
data = RooDataSet("data", "Data", RooArgSet(x), RooFit.Import(tree1))
# # TODO: export somewhere? does not need to be defined inside...
# mean = RooRealVar("mean", "Mean of Double CB PDF", 5280, 5100, 5600)#, 5300, 5500)
# sigma = RooRealVar("sigma", "Sigma of Double CB PDF", 40, 0.001, 200)
# alpha_0 = RooRealVar("alpha_0", "alpha_0 of one side", 5.715)#, 0, 150)
# alpha_1 = RooRealVar("alpha_1", "alpha_1 of other side", -4.019)#, -200, 0.)
# lambda_0 = RooRealVar("lambda_0", "Exponent of one side", 3.42)#, 0, 150)
# lambda_1 = RooRealVar("lambda_1", "Exponent of other side", 3.7914)#, 0, 500)
#
# # TODO: export somewhere? pdf construction
# frac = RooRealVar("frac", "Fraction of crystal ball pdfs", 0.479, 0.01, 0.99)
#
# crystalball1 = RooCBShape("crystallball1", "First CrystalBall PDF", x,
# mean, sigma, alpha_0, lambda_0)
# crystalball2 = RooCBShape("crystallball2", "Second CrystalBall PDF", x,
# mean, sigma, alpha_1, lambda_1)
# doubleCB = RooAddPdf("doubleCB", "Double CrystalBall PDF",
# crystalball1, crystalball2, frac)
# n_sig = RooRealVar("n_sig", "Number of signals events", 10000, 0, 1000000)
# test input
if n_sig == n_bkg == 0:
raise ValueError("n_sig as well as n_bkg is 0...")
if n_bkg is None:
n_bkg = RooRealVar("n_bkg", "Number of background events", 10000, 0,
500000)
elif n_bkg >= 0:
n_bkg = RooRealVar("n_bkg", "Number of background events", int(n_bkg))
else:
raise ValueError("n_bkg is not >= 0 or None")
if n_sig is None:
n_sig = RooRealVar("n_sig", "Number of signal events", 1050, 0, 200000)
# START BLINDING
blind_cat = RooCategory("blind_cat", "blind state category")
blind_cat.defineType("unblind", 0)
blind_cat.defineType("blind", 1)
if blind:
blind_cat.setLabel("blind")
blind_n_sig = RooUnblindPrecision("blind_n_sig",
"blind number of signals",
"wasistdas", n_sig.getVal(),
10000, n_sig, blind_cat)
else:
# blind_cat.setLabel("unblind")
blind_n_sig = n_sig
print "n_sig value " + str(n_sig.getVal())
# raw_input("blind value " + str(blind_n_sig.getVal()))
# n_sig = blind_n_sig
# END BLINDING
elif n_sig >= 0:
n_sig = RooRealVar("n_sig", "Number of signal events", int(n_sig))
else:
raise ValueError("n_sig is not >= 0")
# if not blind:
# blind_n_sig = n_sig
# # create bkg-pdf
# lambda_exp = RooRealVar("lambda_exp", "lambda exp pdf bkg", -0.00025, -1., 1.)
# bkg_pdf = RooExponential("bkg_pdf", "Background PDF exp", x, lambda_exp)
if blind:
comb_pdf = RooAddPdf("comb_pdf", "Combined DoubleCB and bkg PDF",
RooArgList(sig_pdf, bkg_pdf),
RooArgList(blind_n_sig, n_bkg))
else:
comb_pdf = RooAddPdf("comb_pdf", "Combined DoubleCB and bkg PDF",
RooArgList(sig_pdf, bkg_pdf),
RooArgList(n_sig, n_bkg))
# create test dataset
# mean_gauss = RooRealVar("mean_gauss", "Mean of Gaussian", 5553, -10000, 10000)
# sigma_gauss = RooRealVar("sigma_gauss", "Width of Gaussian", 20, 0.0001, 300)
# gauss1 = RooGaussian("gauss1", "Gaussian test dist", x, mean_gauss, sigma_gauss)
# lambda_data = RooRealVar("lambda_data", "lambda exp data", -.002)
# exp_data = RooExponential("exp_data", "data example exp", x, lambda_data)
# frac_data = RooRealVar("frac_data", "Fraction PDF of data", 0.15)
#
# data_pdf = RooAddPdf("data_pdf", "Data PDF", gauss1, exp_data, frac_data)
# data = data_pdf.generate(RooArgSet(x), 30000)
# data.printValue()
# xframe = x.frame()
# data_pdf.plotOn(xframe)
# print "n_cpu:", meta_config.get_n_cpu()
# input("test")
# comb_pdf.fitTo(data, RooFit.Extended(ROOT.kTRUE), RooFit.NumCPU(meta_config.get_n_cpu()))
# HACK to get 8 cores in testing
c5 = TCanvas("c5", "RooFit pdf not fit vs " + data_name)
c5.cd()
x_frame1 = x.frame()
# data.plotOn(x_frame1)
# comb_pdf.pdfList()[1].plotOn(x_frame1)
if __name__ == "__main__":
n_cpu = 8
else:
n_cpu = meta_config.get_n_cpu()
print "n_cpu = ", n_cpu
# HACK
# n_cpu = 8
result_fit = comb_pdf.fitTo(data, RooFit.Minos(ROOT.kTRUE),
RooFit.Extended(ROOT.kTRUE),
RooFit.NumCPU(n_cpu))
# HACK end
if bkg_in_region:
x.setRange("signal", bkg_in_region[0], bkg_in_region[1])
bkg_pdf_fitted = comb_pdf.pdfList()[1]
int_argset = RooArgSet(x)
# int_argset = x
# int_argset.setRange("signal", bkg_in_region[0], bkg_in_region[1])
integral = bkg_pdf_fitted.createIntegral(int_argset,
RooFit.NormSet(int_argset),
RooFit.Range("signal"))
bkg_cdf = bkg_pdf_fitted.createCdf(int_argset, RooFit.Range("signal"))
bkg_cdf.plotOn(x_frame1)
# integral.plotOn(x_frame1)
n_bkg_below_sig = integral.getVal(int_argset) * n_bkg.getVal()
x_frame1.Draw()
if plot_importance >= 3:
c2 = TCanvas("c2", "RooFit pdf fit vs " + data_name)
c2.cd()
x_frame = x.frame()
# if log_plot:
# c2.SetLogy()
# x_frame.SetTitle("RooFit pdf vs " + data_name)
x_frame.SetTitle(data_name)
if pulls:
pad_data = ROOT.TPad("pad_data", "Pad with data and fit", 0, 0.33,
1, 1)
pad_pulls = ROOT.TPad("pad_pulls", "Pad with data and fit", 0, 0,
1, 0.33)
pad_data.SetBottomMargin(0.00001)
pad_data.SetBorderMode(0)
if log_plot:
pad_data.SetLogy()
pad_pulls.SetTopMargin(0.00001)
pad_pulls.SetBottomMargin(0.2)
pad_pulls.SetBorderMode(0)
pad_data.Draw()
pad_pulls.Draw()
pad_data.cd()
else:
if log_plot:
c2.SetLogy()
if blind:
# HACK
column = 'x'
# END HACK
x.setRange("lower", min_x, lower_blind)
x.setRange("upper", upper_blind, max_x)
range_str = "lower,upper"
lower_cut_str = str(
min_x) + "<=" + column + "&&" + column + "<=" + str(lower_blind)
upper_cut_str = str(
upper_blind) + "<=" + column + "&&" + column + "<=" + str(max_x)
sideband_cut_str = "(" + lower_cut_str + ")" + "||" + "(" + upper_cut_str + ")"
n_entries = data.reduce(
sideband_cut_str).numEntries() / data.numEntries()
# raw_input("n_entries: " + str(n_entries))
if plot_importance >= 3:
data.plotOn(x_frame, RooFit.CutRange(range_str),
RooFit.NormRange(range_str))
comb_pdf.plotOn(
x_frame, RooFit.Range(range_str),
RooFit.Normalization(n_entries, RooAbsReal.Relative),
RooFit.NormRange(range_str))
if pulls:
# pull_hist(pull_frame=x_frame, pad_data=pad_data, pad_pulls=pad_pulls)
x_frame_pullhist = x_frame.pullHist()
else:
if plot_importance >= 3:
data.plotOn(x_frame)
comb_pdf.plotOn(x_frame)
if pulls:
pad_pulls.cd()
x_frame_pullhist = x_frame.pullHist()
pad_data.cd()
comb_pdf.plotOn(x_frame,
RooFit.Components(sig_pdf.namePtr().GetName()),
RooFit.LineStyle(ROOT.kDashed))
comb_pdf.plotOn(x_frame,
RooFit.Components(bkg_pdf.namePtr().GetName()),
RooFit.LineStyle(ROOT.kDotted))
# comb_pdf.plotPull(n_sig)
if plot_importance >= 3:
x_frame.Draw()
if pulls:
pad_pulls.cd()
x_frame.SetTitleSize(0.05, 'Y')
x_frame.SetTitleOffset(0.7, 'Y')
x_frame.SetLabelSize(0.04, 'Y')
# c11 = TCanvas("c11", "RooFit\ pulls" + data_name)
# c11.cd()
# frame_tmp = x_frame
frame_tmp = x.frame()
# frame_tmp.SetTitle("significance")
frame_tmp.SetTitle("Roofit\ pulls\ " + data_name)
frame_tmp.addObject(x_frame_pullhist)
frame_tmp.SetMinimum(-5)
frame_tmp.SetMaximum(5)
# frame_tmp.GetYaxis().SetTitle("significance")
frame_tmp.GetYaxis().SetNdivisions(5)
frame_tmp.SetTitleSize(0.1, 'X')
frame_tmp.SetTitleOffset(1, 'X')
frame_tmp.SetLabelSize(0.1, 'X')
frame_tmp.SetTitleSize(0.1, 'Y')
frame_tmp.SetTitleOffset(0.5, 'Y')
frame_tmp.SetLabelSize(0.1, 'Y')
frame_tmp.Draw()
# raw_input("")
if not blind and nll_profile:
# nll_range = RooRealVar("nll_range", "Signal for nLL", n_sig.getVal(),
# -10, 2 * n_sig.getVal())
sframe = n_sig.frame(RooFit.Bins(20), RooFit.Range(1, 1000))
# HACK for best n_cpu
lnL = comb_pdf.createNLL(data, RooFit.NumCPU(8))
# HACK end
lnProfileL = lnL.createProfile(ROOT.RooArgSet(n_sig))
lnProfileL.plotOn(sframe, RooFit.ShiftToZero())
c4 = TCanvas("c4", "NLL Profile")
c4.cd()
# input("press ENTER to show plot")
sframe.Draw()
if plot_importance >= 3:
pass
params = comb_pdf.getVariables()
params.Print("v")
# print bkg_cdf.getVal()
if sPlot:
sPlotData = ROOT.RooStats.SPlot(
"sPlotData",
"sPlotData",
data, # variable fitted to, RooDataSet
comb_pdf, # fitted pdf
ROOT.RooArgList(
n_sig,
n_bkg,
# NSigB0s
))
sweights = np.array([
sPlotData.GetSWeight(i, 'n_sig') for i in range(data.numEntries())
])
return n_sig.getVal(), n_bkg_below_sig, sweights
if blind:
return blind_n_sig.getVal(), n_bkg_below_sig, comb_pdf
else:
return n_sig.getVal(), n_bkg_below_sig, comb_pdf
def fit():
#fit to log_10(pT^2) with components and plot of plain pT^2
#range in log_10(pT^2)
ptbin = 0.12
ptmin = -5.
ptmax = 0.99 # 1.01
#range in pT^2
ptsq_bin = 0.03
ptsq_min = 1e-5
ptsq_max = 1
mmin = 2.8
mmax = 3.2
#range for incoherent fit
fitran = [-0.9, 0.1]
#number of gamma-gamma events
ngg = 131
#number of psi' events
npsiP = 20
#input data
pT = RooRealVar("jRecPt", "pT", 0, 10)
m = RooRealVar("jRecM", "mass", 0, 10)
data_all = RooDataSet("data", "data", tree, RooArgSet(pT, m))
#select for mass range
strsel = "jRecM>{0:.3f} && jRecM<{1:.3f}".format(mmin, mmax)
data = data_all.reduce(strsel)
#create log(pT^2) from pT
ptsq_draw = "jRecPt*jRecPt" # will be used for pT^2
logPtSq_draw = "TMath::Log10(" + ptsq_draw + ")"
logPtSq_form = RooFormulaVar("logPtSq", "logPtSq", logPtSq_draw,
RooArgList(pT))
logPtSq = data.addColumn(logPtSq_form)
logPtSq.setRange("fitran", fitran[0], fitran[1])
#bins and range for the plot
nbins, ptmax = ut.get_nbins(ptbin, ptmin, ptmax)
logPtSq.setMin(ptmin)
logPtSq.setMax(ptmax)
logPtSq.setRange("plotran", ptmin, ptmax)
#range for pT^2
ptsq_nbins, ptsq_max = ut.get_nbins(ptsq_bin, ptsq_min, ptsq_max)
#incoherent parametrization
bval = RooRealVar("bval", "bval", 3.3, 0, 10)
inc_form = "log(10.)*pow(10.,logPtSq)*exp(-bval*pow(10.,logPtSq))"
incpdf = RooGenericPdf("incpdf", inc_form, RooArgList(logPtSq, bval))
#make the incoherent fit
res = incpdf.fitTo(data, rf.Range("fitran"), rf.Save())
#get incoherent norm to the number of events
lset = RooArgSet(logPtSq)
iinc = incpdf.createIntegral(lset, rf.NormSet(lset), rf.Range("fitran"))
inc_nevt = data.sumEntries("logPtSq", "fitran")
incpdf.setNormRange("fitran")
aval = RooRealVar("aval", "aval", inc_nevt / incpdf.getNorm(lset))
#print "A =", aval.getVal()
#print "b =", bval.getVal()
#incoherent distribution from log_10(pT^2) function for the sum with gamma-gamma
hIncPdf = ut.prepare_TH1D_n("hGG", nbins, ptmin, ptmax)
func_incoh_logPt2 = TF1("func_incoh_logPt2",
"[0]*log(10.)*pow(10.,x)*exp(-[1]*pow(10.,x))",
-10., 10.)
func_incoh_logPt2.SetNpx(1000)
func_incoh_logPt2.SetLineColor(rt.kMagenta)
func_incoh_logPt2.SetParameters(
aval.getVal(),
bval.getVal()) # 4.9 from incoherent mc, 3.3 from data fit
ut.fill_h1_tf(hIncPdf, func_incoh_logPt2, rt.kMagenta)
#gamma-gamma contribution
hGG = ut.prepare_TH1D_n("hGG", nbins, ptmin, ptmax)
tree_gg.Draw(logPtSq_draw + " >> hGG", strsel)
ut.norm_to_num(hGG, ngg, rt.kGreen + 1)
#sum of incoherent distribution and gamma-gamma
hSumIncGG = ut.prepare_TH1D_n("hSumIncGG", nbins, ptmin, ptmax)
hSumIncGG.Add(hIncPdf)
hSumIncGG.Add(hGG)
ut.line_h1(hSumIncGG, rt.kMagenta)
#gamma-gamma in pT^2
hGG_ptsq = ut.prepare_TH1D_n("hGG_ptsq", ptsq_nbins, ptsq_min, ptsq_max)
tree_gg.Draw(ptsq_draw + " >> hGG_ptsq", strsel)
ut.norm_to_num(hGG_ptsq, ngg, rt.kGreen + 1)
#psi' contribution
psiP_file = TFile.Open(basedir_mc + "/ana_slight14e4x1_s6_sel5z.root")
psiP_tree = psiP_file.Get("jRecTree")
hPsiP = ut.prepare_TH1D_n("hPsiP", nbins, ptmin, ptmax)
psiP_tree.Draw(logPtSq_draw + " >> hPsiP", strsel)
ut.norm_to_num(hPsiP, npsiP, rt.kViolet)
#psi' in pT^2
hPsiP_ptsq = ut.prepare_TH1D_n("hPsiP_ptsq", ptsq_nbins, ptsq_min,
ptsq_max)
psiP_tree.Draw(ptsq_draw + " >> hPsiP_ptsq", strsel)
ut.norm_to_num(hPsiP_ptsq, npsiP, rt.kViolet)
#create canvas frame
gStyle.SetPadTickY(1)
can = ut.box_canvas(1086, 543) # square area is still 768^2
can.SetMargin(0, 0, 0, 0)
can.Divide(2, 1, 0, 0)
gStyle.SetLineWidth(1)
can.cd(1)
ut.set_margin_lbtr(gPad, 0.11, 0.1, 0.01, 0)
frame = logPtSq.frame(rf.Bins(nbins))
frame.SetTitle("")
frame.SetMaximum(80)
frame.SetYTitle("Events / ({0:.3f}".format(ptbin) + " GeV^{2})")
frame.SetXTitle("log_{10}( #it{p}_{T}^{2} ) (GeV^{2})")
frame.GetXaxis().SetTitleOffset(1.2)
frame.GetYaxis().SetTitleOffset(1.6)
#plot the data
data.plotOn(frame, rf.Name("data"), rf.LineWidth(2))
#incoherent parametrization
incpdf.plotOn(frame, rf.Range("fitran"), rf.LineColor(rt.kRed),
rf.Name("incpdf"), rf.LineWidth(2))
incpdf.plotOn(frame, rf.Range("plotran"), rf.LineColor(rt.kRed),
rf.Name("incpdf_full"), rf.LineStyle(rt.kDashed),
rf.LineWidth(2))
frame.Draw()
#add gamma-gamma contribution
hGG.Draw("same")
#sum of incoherent distribution and gamma-gamma
#hSumIncGG.Draw("same")
#add psi'
#hPsiP.Draw("same")
#legend for log_10(pT^2)
leg = ut.prepare_leg(0.15, 0.77, 0.28, 0.19, 0.035)
hxl = ut.prepare_TH1D("hxl", 1, 0, 1)
hxl.Draw("same")
ilin = ut.col_lin(rt.kRed, 2)
ilin2 = ut.col_lin(rt.kRed, 2)
ilin2.SetLineStyle(rt.kDashed)
leg.AddEntry(ilin, "Incoherent parametrization, fit region", "l")
leg.AddEntry(ilin2, "Incoherent parametrization, extrapolation region",
"l")
leg.AddEntry(hGG, "#gamma#gamma#rightarrow e^{+}e^{-}", "l")
#leg.AddEntry(hxl, "Data", "lp")
leg.AddEntry(hxl, "Data, log_{10}( #it{p}_{T}^{2} )", "lp")
leg.Draw("same")
#----- plot pT^2 on the right -----
#pT^2 variable from pT
ptsq_form = RooFormulaVar("ptsq", "ptsq", ptsq_draw, RooArgList(pT))
ptsq = data.addColumn(ptsq_form)
#range for pT^2 plot
ptsq.setMin(ptsq_min)
ptsq.setMax(ptsq_max)
#make the pT^2 plot
can.cd(2)
gPad.SetLogy()
#gPad.SetLineWidth(3)
#gPad.SetFrameLineWidth(1)
ut.set_margin_lbtr(gPad, 0, 0.1, 0.01, 0.15)
ptsq_frame = ptsq.frame(rf.Bins(ptsq_nbins), rf.Title(""))
#print type(ptsq_frame), type(ptsq)
ptsq_frame.SetTitle("")
ptsq_frame.SetXTitle("#it{p}_{T}^{2} (GeV^{2})")
ptsq_frame.GetXaxis().SetTitleOffset(1.2)
data.plotOn(ptsq_frame, rf.Name("data"), rf.LineWidth(2))
ptsq_frame.SetMaximum(9e2)
ptsq_frame.SetMinimum(0.8) # 0.101
ptsq_frame.Draw()
#incoherent parametrization in pT^2 over the fit region, scaled to the plot
inc_ptsq = TF1("inc_ptsq", "[0]*exp(-[1]*x)", 10**fitran[0], 10**fitran[1])
inc_ptsq.SetParameters(aval.getVal() * ptsq_bin, bval.getVal())
#incoherent parametrization in the extrapolation region, below and above the fit region
inc_ptsq_ext1 = TF1("inc_ptsq_ext1", "[0]*exp(-[1]*x)", 0., 10**fitran[0])
inc_ptsq_ext2 = TF1("inc_ptsq_ext2", "[0]*exp(-[1]*x)", 10**fitran[1], 10)
inc_ptsq_ext1.SetParameters(aval.getVal() * ptsq_bin, bval.getVal())
inc_ptsq_ext1.SetLineStyle(rt.kDashed)
inc_ptsq_ext2.SetParameters(aval.getVal() * ptsq_bin, bval.getVal())
inc_ptsq_ext2.SetLineStyle(rt.kDashed)
inc_ptsq.Draw("same")
inc_ptsq_ext1.Draw("same")
inc_ptsq_ext2.Draw("same")
#add gamma-gamma in pT^2
hGG_ptsq.Draw("same")
#add psi' in pT^2
#hPsiP_ptsq.Draw("same")
#redraw the frame
#ptsq_frame.Draw("same")
ptsq_frame.GetXaxis().SetLimits(-9e-3, ptsq_frame.GetXaxis().GetXmax())
#vertical axis for pT^2 plot
xpos = ptsq_frame.GetXaxis().GetXmax()
ypos = ptsq_frame.GetMaximum()
ymin = ptsq_frame.GetMinimum()
ptsq_axis = TGaxis(xpos, 0, xpos, ypos, ymin, ypos, 510, "+GL")
ut.set_axis(ptsq_axis)
ptsq_axis.SetMoreLogLabels()
ptsq_axis.SetTitle("Events / ({0:.3f}".format(ptsq_bin) + " GeV^{2})")
ptsq_axis.SetTitleOffset(2.2)
ptsq_axis.Draw()
#legend for input data
#dleg = ut.prepare_leg(0.4, 0.77, 0.14, 0.18, 0.035)
dleg = ut.prepare_leg(0.4, 0.71, 0.16, 0.24, 0.035)
dleg.AddEntry(None, "#bf{|#kern[0.3]{#it{y}}| < 1}", "")
ut.add_leg_mass(dleg, mmin, mmax)
dleg.AddEntry(None, "AuAu@200 GeV", "")
dleg.AddEntry(None, "UPC sample", "")
dleg.AddEntry(hxl, "Data, #it{p}_{T}^{2}", "lp")
dleg.Draw("same")
#ut.invert_col_can(can)
can.SaveAs("01fig.pdf")
simulComponents = []
# scan Lb likelihood {{{
# jack's profile likelihood scan
if sysFitLb:
label = 'sysLbFit'
numSig = spaceExt.var('numLb')
numBkg = spaceExt.var('numCombBkg_Run2016Data_pLbL0')
varName = 'lbl0Mass'
figDir.cd()
var = space.var(varName)
model = space1st.pdf('totPdf_Run2016Data_pLbL0')
#dataset=model.generate(RooArgSet(space.var('lbtkMass')),10000)
dataset = loadDatasetLb.reduce('{x}>{minVal}&&{x}<{maxVal}'.format(
x=varName, minVal=var.getMin(), maxVal=var.getMax()))
fitres = model.fitTo(dataset, RooFit.Save(True),
RooFit.Minos(useMinos))
plot = var.frame(RooFit.Title('data fit {0}'.format(label)))
dataset.plotOn(plot)
model.plotOn(
plot,
RooFit.Normalization(dataset.sumEntries(), RooAbsReal.NumEvent))
SaveResult(origPlot=plot,
origVar=var,
data={'content': dataset},
totPDF={'content': model},
fitres=fitres,
label=label,
fitDir=fitDir,
num_pairs = gDirectory.Get("mass").GetEntries() * scale_factor
radfrac = radfracFile.Get("radfrac").GetFunction("pol3").Eval(mass)
#radfrac = radfracFile.Get("radfrac_10mrad").GetFunction("pol3").Eval(mass)
num_rad = radfrac * num_pairs
ap_yield = 3 * math.pi / (2 * (1 / 137.0)) * num_rad * (mass / deltaM)
print "{0} pairs, {1} radfrac, {2} rad, {3} A'".format(
num_pairs, radfrac, num_rad, ap_yield)
breakz = tailsFile.Get("breakz").GetFunction("pol3").Eval(mass)
length = tailsFile.Get("length").GetFunction("pol3").Eval(mass)
c.cd(2)
gPad.SetLogy()
frame = vtxZRefitUnc.frame()
dataInRange = dataset.reduce(
obs, "abs({0}-{1})<{2}/2*({3}+{4}*{5})".format(massVar, mass,
masscut_nsigma, mres_p0,
mres_p1, vtxVar))
binnedData = dataInRange.binnedClone()
binnedData.plotOn(frame)
mean = binnedData.mean(vtxZRefitUnc)
sigma = binnedData.sigma(vtxZRefitUnc)
vtxZRefitUnc.setRange("fitRange", mean - 2 * sigma, mean + 2 * sigma)
gauss_params.setRealValue("mean", mean)
gauss_params.setRealValue("sigma", sigma)
gauss_pdf.fitTo(binnedData, RooFit.Range("fitRange"),
RooFit.PrintLevel(-1))
mean = gauss_params.getRealValue("mean")
sigma = gauss_params.getRealValue("sigma")
gaussexp_params.setRealValue("gauss_mean", mean)
gaussexp_params.setRealValue("gauss_sigma", sigma)
gaussexp_params.setRealValue("exp_breakpoint", breakz)
lxysig = RooRealVar("xL", "l_{xy} sign." + region + "l_{xy} / #sigma(l_{xy})",
-1000.0, 1000.0)
massvars = RooArgSet(tt_mass, mm_mass, mmtt_mass)
ptvars = RooArgSet(tt_pt, mm_pt, mmtt_pt)
kinvars = RooArgSet(massvars, ptvars)
extravars = RooArgSet(lxysig)
theData = RooDataSet("theData", "theData", theTree,
RooArgSet(kinvars, extravars))
c = TCanvas("canvas", "canvas", 1200, 800)
if args.nonprompt:
theData = theData.reduce("xL > 3.0")
if args.prompt:
theData = theData.reduce("xL < 1.5")
if args.ptcuts is not None:
theData = theData.reduce("trigp_pT > " + str(args.ptcuts))
theData = theData.reduce("trign_pT > " + str(args.ptcuts))
cuts += "P_t_" + str(args.ptcuts) + "_"
#### #### Plotting variables
#### TrakTrak Data
if args.noplot:
print("TrakTrak data plotting . . .")
print("All : " + str(theData.numEntries()))
masskP = space.var('kpibarMass')
tk1Pt = space.var('tk1Pt')
tk2Pt = space.var('tk2Pt')
loadDatasetLb = RooDataSet(
'loadData16', 'loadData16', inN16,
RooArgSet(massLb, massBd, massbD, massBs, massKK, massKp, masskP,
tk1Pt, tk2Pt))
frame = "lbtkMass>5.3&&lbtkMass<6."
ptsel = "tk1Pt>2. && tk2Pt>2."
Bdbkg = "((bdMass>5.25&&bdMass<5.31)&&(kpiMass>0.86&&kpiMass<0.93))"
bDbkg = "(bdbarMass>5.25&&bdbarMass<5.31&&kpibarMass<0.93)"
bsbkg = "(bsMass>5.25&&bsMass<5.4&&kkMass>1.01&&kkMass<1.03)"
cutData = loadDatasetLb.reduce('&&'.join([frame, ptsel]))
bkgComb = loadDatasetLb.reduce('&&'.join([frame, ptsel]) + '&&' +
'||'.join([Bdbkg, bDbkg, bsbkg]))
space.factory('Polynomial::pPDF(lbtkMass,{c1[0.01,-5.,5.]})')
keyPDF = RooKeysPdf('kPDF', 'kPDF', massLb, bkgComb, RooKeysPdf.NoMirror,
0.1)
getattr(space, 'import')(keyPDF)
space.factory(
'SUM::totPDF(numBKG[{initNum},0.,{maxNum}]*pPDF,{bkgNum}*kPDF)'.format(
initNum=cutData.sumEntries() - bkgComb.sumEntries(),
maxNum=cutData.sumEntries() * 1.05,
bkgNum=bkgComb.sumEntries()))
fitModel = space.factory('totPDF')
massLb.setRange('leftSideband', 5.3, 5.619 - 0.03)
ApProduced = TH2F("ApProduced","ApProduced",nApMass,Medges,NepsBins,Epsedges)
VProducedRho = TH2F("VProducedRho","VProducedRho",nApMass,Medges,NepsBins,Epsedges)
detectableRho = TH2F("detectableRho","detectableRho",nApMass,Medges,NepsBins,Epsedges)
VProducedPhi = TH2F("VProducedPhi","VProducedPhi",nApMass,Medges,NepsBins,Epsedges)
detectablePhi = TH2F("detectablePhi","detectablePhi",nApMass,Medges,NepsBins,Epsedges)
for k in range(0,nApMass):
massAp = (massApmax - massApmin)/float(nApMass - 1) * k + massApmin
massV = 0.6*massAp
massPi = massAp/3.
fPi = massPi/fpiArr[i]
massVres = massresfile.Get("mres").GetFunction("pol1").Eval(massV)
breakz = tailsfile.Get("breakz").GetFunction("pol3").Eval(massV)
length = tailsfile.Get("length").GetFunction("pol3").Eval(massV)
frame = uncVZ.frame()
dataInRange = dataset.reduce(obs,"abs({0}-{1})<{2}/2*{3}".format("uncM",massV,masscut_nsigma,massVres))
binnedData = dataInRange.binnedClone()
binnedData.plotOn(frame)
mean = binnedData.mean(uncVZ)
sigma = binnedData.sigma(uncVZ)
uncVZ.setRange("fitRange",mean-2*sigma,mean+2*sigma)
gauss_params.setRealValue("mean",mean)
gauss_params.setRealValue("sigma",sigma)
gauss_pdf.fitTo(binnedData,RooFit.Range("fitRange"),RooFit.PrintLevel(-1))
mean = gauss_params.getRealValue("mean")
sigma = gauss_params.getRealValue("sigma")
gaussexp_params.setRealValue("gauss_mean",mean)
gaussexp_params.setRealValue("gauss_sigma",sigma)
gaussexp_params.setRealValue("exp_breakpoint",breakz)
gaussexp_params.setRealValue("exp_length",length)
w.var("gauss_mean").setConstant(True)
magnet_datas = {}
dp_inv = (p_inv.getMax() - p_inv.getMin()) / n_bins
dp = (p.getMax() - p.getMin()) / n_bins
bins_p = [0 + i * dp for i in range(n_bins + 1)]
graphs = {}
sigmas = defaultdict(list)
sigmas_err = defaultdict(list)
av = []
err_x = []
p_vars = {p_inv.GetName(): p_inv, p.GetName(): p}
vname = p_inv.GetName()
bins = bins_p_inv
for i in range(n_bins):
ds = magnet_data.reduce('{0} > {1} && {0} < {2}'.format(
vname, bins[i], bins[i + 1]))
magnet_datas[i] = ds
av += [ds.mean(p_vars[vname])]
err_x += [0.]
for obs, tag in ((pull_xm, 'xm'), (pull_ym, 'ym')):
cn = 'fit_canvas_' + tag
canvas_fit = TCanvas(cn, cn, 1200, 800)
canvas_fit.Divide(3, 3)
canvases['fit_' + tag] = canvas_fit
model = models[tag]
for i in range(n_bins):
ds = magnet_datas[i]
magnet_results[(tag, i)] = model.fitTo(ds, RooFit.Minimizer('Minuit2'),
RooFit.Save(), RooFit.NumCPU(2))
frame = obs.frame()
else:
print "Running without 'r' argument disabled"
sys.exit(0)
rootInFile = TFile("../BsStuff.root")
keyList = rootInFile.GetListOfKeys()
keyList.At(0).ReadObj().Print()
keyList.At(1).ReadObj().Print()
tupleDataSet = rootInFile.Get('treeData')
if not os.path.isfile(tupleDictFilename) or tupleDictFilename == "-":
print "Filename argument invalid; running for default tuple dictionary file"
tupleDictFilename = os.environ[
"B2DXFITTERSROOT"] + "/tutorial/tupleDict2.py"
tupleDict = importTupleDict(tupleDictFilename)
tupleDataSet = tupleDataSet.reduce('osDecision==ssDecision')
from B2DXFitters.utils import configDictFromFile
config = configDictFromFile('bsConfig.py')
# start with RooFit stuff
from ROOT import (RooRealVar, RooConstVar, RooCategory, RooWorkspace,
RooArgSet, RooArgList, RooLinkedList, RooAbsReal,
RooRandom, TRandom3, MistagDistribution,
MistagCalibration, RooFormulaVar)
# safe settings for numerical integration (if needed)
RooAbsReal.defaultIntegratorConfig().setEpsAbs(1e-9)
RooAbsReal.defaultIntegratorConfig().setEpsRel(1e-9)
RooAbsReal.defaultIntegratorConfig().getConfigSection(
'RooAdaptiveGaussKronrodIntegrator1D').setCatLabel(
'method', '15Points')
(( mumuMass < {JPSIM} && !( abs(deltaB0M - deltaJpsiM) < 0.16 || abs(deltaB0M - deltaPsiPM) < 0.06) ) || \
( mumuMass > {PSIM} && !( abs(deltaB0M - deltaJpsiM) < 0.06 || abs(deltaB0M - deltaPsiPM) < 0.03) ) || \
( mumuMass > {JPSIM} && mumuMass < {PSIM} && !( abs(deltaB0M - deltaJpsiM) < 0.06 || abs(deltaB0M - deltaPsiPM) < 0.06 ))))'.format(
JPSIM=JPsiMass_, PSIM=PsiPMass_, CUT=nSigma_psiRej)
elif args.dimusel == 'keepPsi':
cut = '(abs(mumuMass - {JPSIM}) < {CUT}*mumuMassE || abs(mumuMass - {PSIM}) < {CUT}*mumuMassE)'.format(
JPSIM=JPsiMass_, PSIM=PsiPMass_, CUT=nSigma_psiRej)
elif args.dimusel == 'nocut':
cut = 'mumuMass > 0'
else:
print '\nYou should define which dimuon mass to consider. Please choose between following options: \nkeepPsiP, keepJpsi, rejectPsi, keepPsi'
sys.exit(0)
print cut
data = fulldata.reduce(RooArgSet(theBMass, mumuMass, mumuMassE), cut)
mean = RooRealVar("mass", "mean", B0Mass_, 3, 7, "GeV")
sigma = RooRealVar("#sigma", "sigma", 0.028, 0, 10, "GeV")
signalGauss = RooGaussian("signalGauss", "signal gauss", theBMass, mean, sigma)
sigma2 = RooRealVar("#sigma2", "sigma2", 0.048, 0, 0.07, "GeV")
signalGauss2 = RooGaussian("signalGauss2", "signal gauss2", theBMass, mean,
sigma2)
f1 = RooRealVar("f1", "f1", 0.8, 0., 1.)
gaus = RooAddPdf("gaus", "gaus1+gaus2", RooArgList(signalGauss, signalGauss2),
RooArgList(f1))
pol_c1 = RooRealVar("p1", "coeff x^0 term", 0.5, -10, 10)
pol_c2 = RooRealVar("p2", "coeff x^1 term", 0.5, -10, 10)
pol_c3 = RooRealVar("p3", "coeff x^2 term", 0.5, -10, 10)