def __draw(self):
from ROOT import kDashed, kRed, kGreen, kBlue, kBlack
from ROOT import TCanvas
from ROOT import TPaveText
self.__year_label = TPaveText(0.71, 0.72, 0.89, 0.85, "NDC")
self.__year_label.SetFillColor(0)
self.__year_label.AddText(self.__year)
self.__year_label.SetBorderSize(0)
obs = self.__masses.values()
self.__canvas = TCanvas('wpv_canvas', 'wpv_canvas', len(obs) * 600, 533)
for (p,o) in zip(self.__canvas.pads(len(obs)), obs):
from P2VV.Utilities.Plotting import plot
plot(p, o, pdf = self.__pdf, data = self._data
, dataOpts = dict(MarkerSize = 0.8, MarkerColor = kBlack, Binning = 50)
, pdfOpts = dict(LineWidth = 2)
, plotResidHist = 'BX'
, xTitle = 'M_{#mu^{+}#mu^{-}} [MeV/c^{2}]'
, yTitle = 'Candidates / (%2.1f MeV/c^{2})' % ((o.getMax() - o.getMin()) / float(50))
, components = { 'wpv_bkg_*' : dict( LineColor = kRed, LineStyle = kDashed )
, 'wpv_psi_*' : dict( LineColor = kGreen, LineStyle = kDashed )
, 'wpv_sig_*' : dict( LineColor = kBlue, LineStyle = kDashed )
}
)
self.__canvas.cd(1)
self.__year_label.Draw()
self.__canvas.Update()
self.__draw_time()
if self.__t_diff:
self.__draw_t_diff()
def splot( pdf, sdata ) :
# switch off all yields, except current one
from contextlib import contextmanager
@contextmanager
def __select_component( i, yields ):
orig = dict( (j,j.getVal()) for j in yields )
[ j.setVal(0) for j in orig.iterkeys() if j!=i ]
try : yield
finally : [ j.setVal(v) for (j,v) in orig.iteritems() ]
from ROOT import TCanvas, kDashed, kRed, kGreen, kBlue, kBlack
canvas = TCanvas(pdf.GetName() + '_splot')
obs = [ o for o in pdf.Observables() if hasattr(o,'frame') and o not in sdata.usedObservables() ]
for (p,o) in zip( canvas.pads(len(obs)), obs ) :
# select yields
_yields = [ y for y in pdf.Parameters() if y.getAttribute('Yield') ]
# loop over components
for (pp,i) in zip( p.pads(1,len(_yields)), _yields ) :
# switch off all yields, except current one
with __select_component( i, _yields ) :
# plot both weighed data and PDF
# TODO: add the same color coding as above...
c_name = i.GetName()[2:]
c_opts = { 'signal' : dict( LineColor = kGreen )
, 'psi_background' : dict( LineColor = kRed )
, 'cmb_background' : dict( LineColor = kBlue )
}
from P2VV.Utilities.Plotting import plot
plot( pp, o, sdata.data( c_name ), pdf, pdfOpts = c_opts[c_name] if c_name in c_opts else {})
return canvas
def __draw_time(self):
from ROOT import kDashed, kRed, kGreen, kBlue, kBlack
from ROOT import TCanvas
from itertools import product
self.__time_canvases = []
t = self.__time
from P2VV.Utilities.Plotting import plot
from ROOT import RooArgSet
for logy, (c, shape) in product((True, False), self.__shapes.items()):
cn = 'wpv_time_%s' % c.GetName()
if logy: cn += '_log'
p = TCanvas(cn, cn, 600, 400)
self.__time_canvases.append(p)
nBins = 80
frame = plot(p, t, pdf = shape, data = self.__sdatas[c]
, frameOpts = dict(Title = c.GetName())
, dataOpts = dict(MarkerSize = 0.8, Binning = nBins, MarkerColor = kBlack)
, pdfOpts = dict(LineWidth = 2)
, logy = logy, yScale = (1 if logy else 0, None)
, plotResidHist = False)[0]
frame.GetXaxis().SetTitle('t [ps]')
if logy:
frame.GetYaxis().SetRangeUser(1, 7000 if self.__year == '2012' else 5000)
frame.GetYaxis().SetTitle('Candidates / (%3.2f ps)' % ((t.getMax() - t.getMin()) / float(nBins)))
self.__year_label.Draw()
from P2VV.Utilities.Resolution import plot_dir
p.Print(os.path.join(plot_dir, 'wpv_time_%s_%s_%s.pdf' % (c.GetName()[4:], self.__year, 'log' if logy else 'linear')), EmbedFonts = True)
def Oldsplot( canv, sdata, pdf, frameOpts = dict(), dataOpts = dict() , pdfOpts = dict() ) :
obs = [ o for o in pdf.Observables() if hasattr(o,'frame') and o not in sdata.usedObservables() ]
for (p,o) in zip( canv.pads(len(obs)), obs ) :
# snapshot yeilds
_yields = dict( (p,p.getVal()) for p in pdf.Parameters() if p.getAttribute('Yield') )
# loop over components
for (pp,i) in zip( p.pads(1,len(_yields)), _yields.iterkeys() ) :
# switch off all yields, except current one
for j in filter( lambda x: x!=i, _yields.iterkeys() ) : j.setVal(0)
# and plot both weighed data and PDF
from P2VV.Utilities.Plotting import plot
c_name = i.GetName()[2:]
if 'Title' not in frameOpts : frameOpts['Title'] = '%s : %s' % ( c_name , o.GetTitle() )
plot( pp, o, sdata.data( c_name ), pdf
, pdfOpts = pdfOpts[c_name] if c_name in pdfOpts else {}
, frameOpts = frameOpts
, dataOpts = dataOpts
)
# and put back the original value!
for (i,v) in _yields.iteritems() : i.setVal(v)
def __draw_t_diff(self):
from ROOT import kDashed, kRed, kGreen, kBlue, kBlack
from ROOT import TCanvas
self.__diff_canvases = []
t_diff = self.__t_diff
from ROOT import RooArgSet
for c, shape in self.__diff_shapes.iteritems():
name = 'wpv_diff_%s' % c.GetName()
canvas = TCanvas(name, name, 600, 400)
p = canvas.cd()
self.__diff_canvases.append(canvas)
from P2VV.Utilities.Plotting import plot
plot(p, t_diff, pdf = shape, data = self.__sdatas[c]
, dataOpts = dict(MarkerSize = 0.8, Binning = 80, MarkerColor = kBlack)
, pdfOpts = dict(LineWidth = 2)
, xTitle = 't_{rec} - t_{true} [ps]'
, yTitle = 'Candidates / (12.5 fs)'
, logy = False
, plotResidHist = False)
self.__year_label.Draw()
from P2VV.Utilities.Resolution import plot_dir
canvas.Print(os.path.join(plot_dir, 'wpv_tdiff_%s_%s_linear.pdf' % (c.GetName()[4:], self.__year)), EmbedFonts = True)
def plot_mass(data, prefix = ''):
nBins = 100
from ROOT import kDashed, kRed, kGreen, kBlue, kBlack
from ROOT import TCanvas
mass_canvas = TCanvas('%smass_canvas' % prefix, '%smass_canvas' % prefix, 600, 530)
__canvases.append(mass_canvas)
from P2VV.Utilities.Plotting import plot
frames = plot(mass_canvas, m, pdf = mass_pdf, data = data
, dataOpts = dict(MarkerSize = 0.8, MarkerColor = kBlack, Binning = nBins)
, pdfOpts = dict(LineWidth = 2)
, frameOpts = dict(Title = dataSample)
, plotResidHist = True
, components = { 'bkg_*' : dict( LineColor = kRed, LineStyle = kDashed )
, 'psi_*' : dict( LineColor = kGreen, LineStyle = kDashed )
, 'sig_*' : dict( LineColor = kBlue, LineStyle = kDashed )
})
frames[1].GetXaxis().SetTitle('M_{J/#psi K^{+}K^{-}} [MeV/c^2]')
frames[0].GetYaxis().SetTitle('Candidates / (%3.2f MeV/c^2)' % ((m.getMax() - m.getMin()) / float(nBins)))
canv = TCanvas( '%sCanv' % plotVar )
canv.SetLeftMargin(0.18)
canv.SetRightMargin(0.05)
canv.SetBottomMargin(0.18)
canv.SetTopMargin(0.05)
print 'makeProjectionPlot: plotting variable "%s" for component "%s"' % ( plotVar, plotComp )
binWidth = ( xMax - xMin ) / float( numBins[plotVar] ) / ( pi if plotVar == 'phi' else 1. )
from P2VV.Utilities.Plotting import plot
#redDataSet = dataSet.reduce( ArgSet = [ ws['time'], ws['helcosthetaK'], ws['helcosthetaL'], ws['helphi'] ] )
#plots = plot( canv, obs, redDataSet, plotPdf
plots = plot( canv, obs, dataSet, plotPdf
, xTitle = obsXTitles[plotVar]
, yTitle = obsYTitles[plotVar] % binWidth, logy = True if plotVar == 'timeLog' else False
, xTitleOffset = xTitleOffset
, yTitleOffset = yTitleOffsets[plotVar]
, frameOpts = dict( Range = rangeName, Bins = numBins[plotVar], Title = '' )
, dataOpts = dict( MarkerStyle = markStyle, MarkerSize = markSize, LineWidth = markLineWidth )
, pdfOpts = dict( LineColor = lineColor, LineWidth = lineWidth, LineStyle = lineStyle )
)
from ROOT import TLatex
label = TLatex()
label.SetTextAlign(32)
label.SetTextSize(0.072)
drawLabel = label.DrawLatexNDC( LHCbCoords[plotVar][0], LHCbCoords[plotVar][1], LHCbLabel )
plotsFile.Add(drawLabel)
canv.Print(plotsFilePath)
from ROOT import TObject
plotsFile.Write( ROOTFilePath, TObject.kOverwrite )
print '\n\nP2VV - INFO: Plotting decay time and angular distributions of ' + bin
dataSlice = sigData.reduce('KKMassCat==KKMassCat::' + bin)
pdfSlice = pdfsDict[bin]['total']
binIdx = binNames.index(bin)
for ( pad, obs, nBins, xTitle, yScaleRel, logY )\
in zip( [ TCanvas(o.GetName()+bin) for o in observables ]
, observables
, numBins
, ( observables[0].GetTitle()+' [ps]', angleNames[0][1], angleNames[1][1], angleNames[2][1] )
, 2 *(( 1., 1.2 ),) + 2 *(( 1. , 1.2 ),)
, ( True, ) + 3 * ( False, )
) :
plot( pad, obs, dataSlice, pdfSlice, xTitle=xTitle, yScaleRel=yScaleRel, logy=logY
, frameOpts = dict( Bins = nBins, Name = bin + obs.GetName() + 'Histo' )
, dataOpts = dict( MarkerStyle = markStyle, MarkerSize = markSize )
, pdfOpts = PDFoptsNOBin[bin] if obs==observables[0] else PDFoptsBin[bin]
, addPDFs = [ pdfsDict[bin][c] for c in CPcomps ]
, addPDFsOpts = [addPDFotpsNOBin[binIdx][c] for c in CPcomps ] if obs==observables[0]\
else [addPDFotpsBin[binIdx][c] for c in CPcomps ]
)
lhcbName.Draw()
## print canvas to file
fName = bin + '_' + obs.GetName() + '_sFit.ps'
pad.Print(fName)
# Save all the plots in a root file as RooPlot objects.
from P2VV.Utilities.Plotting import _P2VVPlotStash as rooplots
from ROOT import TFile
plotsFile = TFile('RooPlots6x4.root','recreate')
for plot in rooplots: plot.Write()
plotsFile.Close()
from P2VV.Load import LHCbStyle
from P2VV.Utilities.Plotting import plot
from ROOT import TCanvas, kBlue, kRed, kGreen
# plot efficiency
effCanv = TCanvas( 'effCanv', 'Efficiency' )
for ( pad, obs, func, norm, xTitle )\
in zip( effCanv.pads( 2, 2 )
, obsSet[ 1 : 4 ]
, [ effFuncCtk, effFuncCtl, effFuncPhi ]
, [ 1. / 4. / pi, 1. / 4. / pi, 1. / 4. ]
, angleNames
) :
plot( pad, obs, None, func, addPDFs = [ effFunc ]
, yScale = ( 0.85, 1.15 )
, pdfOpts = dict( LineColor = kBlue, LineWidth = 2, Normalization = norm )
, addPDFsOpts = [ dict( LineColor = kRed, LineWidth = 2 ) ]
)
# plot lifetime and angles
timeAnglesCanv = TCanvas( 'timeAnglesCanv', 'Lifetime and Decay Angles' )
for ( pad, obs, nBins, plotTitle, xTitle )\
in zip( timeAnglesCanv.pads( 2, 2 )
, obsSet[ 1 : 4 ]
, numBins
, [ var.GetTitle() for var in obsSet[ 1 : 4 ] ]
, angleNames
) :
plot( pad, obs, data, pdf, xTitle = xTitle
, frameOpts = dict( Bins = nBins, Title = plotTitle )
, dataOpts = dict( MarkerStyle = markStyle, MarkerSize = markSize )
from ROOT import kDashed, kRed, kGreen, kBlue, kBlack, kOrange
from ROOT import TCanvas
if options.plot:
mass_canvas = TCanvas('mass_canvas', 'mass_canvas', 600, 530)
from P2VV.Utilities.Plotting import plot
pdfOpts = dict()
if signal_MC:
mass_obs = m
else:
mass_obs = mpsi
ps = plot(mass_canvas.cd(), mass_obs, pdf = mass_pdf, data = data,
dataOpts = dict(MarkerSize = 0.8, MarkerColor = kBlack, Binning = 50),
pdfOpts = dict(LineWidth = 2, **pdfOpts),
plotResidHist = 'BX',
xTitle = 'M_{#mu^{+}#mu^{-}} [MeV/c^{2}]',
yTitle = 'Candidates / (%3.2f MeV/c^{2})' % ((mass_obs.getMax() - mass_obs.getMin()) / 50),
yTitleOffset = 1 / 0.7)
plots[''].append(ps)
from P2VV.Utilities.Resolution import plot_dir
if signal_MC:
plot_name = 'prescaled_%s_B_mass.pdf'
else:
plot_name = 'prescaled_%s_Jpsi_mass.pdf'
mass_canvas.Print(os.path.join(plot_dir, plot_name % args[0]), EmbedFonts = True)
from P2VV.Utilities.SWeights import SData
from P2VV.Utilities.DataHandling import correctWeights
data_clone = data.Clone(data.GetName())
from P2VV.Load import LHCbStyle
from P2VV.Utilities.Plotting import plot
from ROOT import TCanvas
# plot lifetime and angles
timeAnglesCanv = TCanvas( 'timeAnglesCanv', 'Lifetime and Decay Angles' )
for ( pad, obs, nBins, plotTitle, xTitle )\
in zip( timeAnglesCanv.pads( 2, 2 )
, observables[ : -1 ]
, numBins
, [ var.GetTitle() for var in observables[ : -1 ] ]
, ( '', ) + angleNames
) :
plot( pad, obs, data, pdf, xTitle = xTitle
, frameOpts = { 'Bins' : nBins, 'Title' : plotTitle }
, dataOpts = { 'MarkerStyle' : markStyle, 'MarkerSize' : markSize, 'XErrorSize' : 0 }
, pdfOpts = { 'LineWidth' : lineWidth }
)
# plot lifetime
timePlotTitles = tuple( [ time.GetTitle() + str for str in ( ' - B (linear)'
, ' - B (logarithmic)'
, ' - #bar{B} (linear)'
, ' - #bar{B} (logarithmic)'
)
] )
timeCanv = TCanvas( 'timeCanv', 'Lifetime' )
for ( pad, nBins, plotTitle, dataCuts, pdfCuts, logY )\
in zip( timeCanv.pads( 2, 2 )
, 2 * numTimeBins
, timePlotTitles
directory = '1bin_%4.2ffs_simple/%s' % (1000 * (t.getMax() - t.getMin()), hd)
cache = Cache(input_data[years]['cache'].rsplit('/', 1), directory)
data, sdatas = cache.read_data()
if component == 'signal':
data = single_bin_sig_sdata = sdatas['sig_sdata']
else:
data = single_bin_bkg_sdata = sdatas['bkg_sdata']
## Fit options
fitOpts = dict(NumCPU = 4, Timer = 1, Save = True,
Verbose = False, Optimize = 2, Minimizer = 'Minuit2')
from P2VV.Parameterizations.SigmatPDFs import DoubleLogNormal
dln = DoubleLogNormal(st)
ln = dln.pdf()
# Fit
result = ln.fitTo(data, **fitOpts)
# Plot
from ROOT import TCanvas
canvas = TCanvas('canvas', 'canvas', 600, 400)
p = canvas.cd(1)
from P2VV.Utilities.Plotting import plot
from ROOT import kBlack, kBlue
plot(p, st, pdf = ln, data = data,
dataOpts = dict(MarkerSize = 0.8, MarkerColor = kBlack, Binning = 60),
pdfOpts = dict(LineWidth = 3),
xTitle = 'estimated decay-time error [ps]',
yTitle = 'Candidates / (0.002 ps)')
for ( pad, func, angle, xTitle, yTitle, yScale, norm, nBins )\
in zip( canvs[ : 3 ]
, effInts
, angles
, angleNames
, effLabels
, [ ( 0.88, 1.12 ), ( 0.9328, 1.1872 ), ( 0.88, 1.12 ) ]
, [ 1. / 4. / pi, 1. / 4. / pi, 1. / 4. ]
, numEffBins
) :
pad.SetLeftMargin(0.28)
plot( pad, angle, weightedData, func
, xTitle = xTitle
, yTitle = yTitle
, yScale = yScale
, yTitleOffset = 1.0
, frameOpts = dict( Title = angle.GetTitle(), Bins = nBins )
, dataOpts = dict( MarkerStyle = kFullDotLarge, MarkerSize = 0.9, LineWidth = 3
, Rescale = norm * float(nBins) / ( angle.getMax() - angle.getMin() ) )
, pdfOpts = dict( LineColor = kBlue, LineWidth = 4, Normalization = norm )
)
LHCbText.Draw()
if physPdf :
# plot lifetime and angles
canvs.append( TCanvas( 'ctkCanv', 'cos(theta_K)' ) )
canvs.append( TCanvas( 'ctlCanv', 'cos(theta_l)' ) )
canvs.append( TCanvas( 'phiCanv', 'phi' ) )
for ( pad, obs, nBins, plotTitle, xTitle )\
in zip( canvs[ -3 : ]
, obsSet[ 1 : 5 ]
, numDistrBins
##Plot and Save
for ( pad, obs, nBins, xTitle, yTitle, yScale, logY )\
in zip( [ TCanvas(o.GetName()) for o in observables ]
, observables
, numBins
, ( angleNames[0][1], angleNames[1][1], angleNames[2][1], 'B_{s}^{0} decay time [ps]' )
, yTitles
, 3 * ( ( None, 1400 ), ) + ( ( 0.1, 10e4 ), )
, 3 * ( False, ) + ( True, )
) :
print '\n\n\n Ploting Observable ' + obs.GetName() + ' {0}/{1} '.format(observables.index(obs)+1, len(observables)) + '\n\n\n'
plot( pad, obs, sigData, pdf, xTitle=xTitle, yTitle=yTitle, yScale=yScale, logy=logY
, frameOpts = dict( Bins = nBins, Name = obs.GetName() + 'Histo' )
, dataOpts = dict( MarkerStyle = markStyle, MarkerSize = markSize )
, pdfOpts = CpPlotsKit.getPdfOpts(BinData=False) if 'time' in obs.GetName()\
else CpPlotsKit.getPdfOpts(BinData=True )
, addPDFs = CpPlotsKit.getAddPdfs()
, addPDFsOpts = CpPlotsKit.getAddPdfsOpts(BinData=False) if 'time' in obs.GetName()\
else CpPlotsKit.getAddPdfsOpts(BinData=True )
)
lhcbName.Draw()
filename = obs.GetName() + '_sFit.ps'
pad.Print(filename)
#Save all the plots in a root file as RooPlot objects.
from P2VV.Utilities.Plotting import _P2VVPlotStash as rooplots
from ROOT import TFile
plotsFile = TFile('RooPlotsFinal.root','recreate')
for plot in rooplots: plot.Write()
plotsFile.Close()
, angles
, xLabels
, yLabels[0]
, [ ( 0.84, 1.08 ), ( 0.96, 1.20 ), ( 0.86, 1.10 ) ] if not transAngles\
else [ ( 1.01, 1.25 ), ( 0.96, 1.20 ), ( 0.97, 1.21 ) ]
) :
pad.SetLeftMargin(0.28)
pad.SetRightMargin(0.05)
pad.SetBottomMargin(0.18)
pad.SetTopMargin(0.05)
plot( pad, angle, None, momFunc
#, addPDFs = [ momFunc1, momFunc2 ]
, xTitle = xTitle
, yTitle = yTitle
, yScale = yScale
, xTitleOffset = 1.1
, yTitleOffset = 1.0
, frameOpts = dict( Title = angle.GetTitle() )
, pdfOpts = dict( LineColor = kBlue, LineWidth = 3 )
#, addPDFsOpts = [ dict( LineColor = kRed, LineWidth = 3 ), dict( LineColor = kGreen + 2, LineWidth = 3 ) ]
)
if LHCbLabel : LHCbText.Draw()
# plot efficiency function integrals
from ROOT import RooArgSet
canvs += [ TCanvas( 'cpsiIntCanv', 'Angular Efficiency' )
, TCanvas( 'cthetaIntCanv', 'Angular Efficiency' )
, TCanvas( 'phiIntCanv', 'Angular Efficiency' )
]
integrals = [ momFunc.createIntegral( RooArgSet( angles[1]._var, angles[2]._var ) )
, momFunc.createIntegral( RooArgSet( angles[0]._var, angles[2]._var ) )
g.GetYaxis().SetRangeUser(-0.12, 0)
from ROOT import kBlue
l.SetLineColor(kBlue)
l.Draw('same')
year_label.Draw()
plot_name = 'mean_res_st_ttrue_' + args[0][pos : -5] + '.pdf'
canvas.Print(os.path.join(plot_dir, plot_name), EmbedFonts = True)
else:
from ROOT import kGreen, kDashed
from P2VV.Utilities.Plotting import plot
from ROOT import TCanvas
for i in range(3):
result = model.fitTo(sdata, SumW2Error = False, **fitOpts)
if result.status() == 0 and abs(result.minNll()) < 5e5:
break
canvas = TCanvas("canvas", "canvas", 600, 400)
plot(canvas, t_diff_st, pdf = model, data = sdata, logy = True,
frameOpts = dict(Range = (-20, 20)),
yTitle = 'Candidates / (0.5)', dataOpts = dict(Binning = 80),
xTitle = '(t - t_{true}) / #sigma_{t}',
yScale = (1, 400000),
pdfOpts = dict(ProjWData = (RooArgSet(st), sdata, True)),
components = {'gexps' : dict(LineColor = kGreen, LineStyle = kDashed)})
year_label.Draw()
plot_name = 'tdiff_sigmat_' + args[0][pos : -5] + '.pdf'
canvas.Print(os.path.join(plot_dir, plot_name), EmbedFonts = True)
if makePlots :
# import ROOT plot style
from P2VV.Load import LHCbStyle
# create canvas
from ROOT import TCanvas
anglesCanv = TCanvas( 'anglesCanv', 'Angles' )
# make plots
from P2VV.Utilities.Plotting import plot
from ROOT import RooFit, RooCmdArg
for ( pad, obs, nBins, plotTitle, xTitle ) in zip( anglesCanv.pads(2, 2)
, angles
, numBins
, tuple( [ angle.GetTitle() for angle in angles ] )
, angleTitles
) :
plot( pad, obs, data, momPDF0, xTitle = xTitle, addPDFs = [ momPDF1, momPDF, coefPDF, pdf ]
, frameOpts = dict( Bins = nBins, Title = plotTitle )
, dataOpts = dict( MarkerStyle = markStyle, MarkerSize = markSize )
, pdfOpts = dict( LineWidth = lineWidth, LineColor = RooFit.kBlack )
, addPDFsOpts = [ dict( LineWidth = lineWidth, LineColor = RooFit.kGreen + 2 )
, dict( LineWidth = lineWidth, LineColor = RooFit.kMagenta )
, dict( LineWidth = lineWidth, LineColor = RooFit.kRed )
, dict( LineWidth = lineWidth, LineColor = RooFit.kBlue )
]
)
anglesCanv.Print(plotsFile)
from ROOT import TCanvas
canvs = [ TCanvas( 'bkgAngles1D_ctk' )
, TCanvas( 'bkgAngles1D_ctl' )
, TCanvas( 'bkgAngles1D_phi' )
, TCanvas( 'bkgAngles2D_ctk_ctl' )
, TCanvas( 'bkgAngles2D_ctk_phi' )
, TCanvas( 'bkgAngles2D_phi_ctl' )
]
# plot background angles
from P2VV.Utilities.Plotting import plot
from ROOT import kBlue
for ( name, canv ) in zip( [ 'cpsi', 'ctheta', 'phi' ], canvs[ : 3 ] ) :
plot( canv, observables[name], cbkgData, cbkgAnglePDF, xTitle = angleTitles[name], yTitleOffset = 1.5
, frameOpts = dict( Bins = nBins[name], Title = observables[name].GetTitle() )
, dataOpts = dict( MarkerStyle = 8, MarkerSize = 0.4 )
, pdfOpts = dict( LineColor = kBlue, LineWidth = 3 )
)
# plot 2-D angular distributions
from P2VV.Utilities.Plotting import _P2VVPlotStash
for angle0, angle1, canv in [ ( 'ctheta', 'cpsi', canvs[3] ), ( 'phi', 'cpsi', canvs[4] ), ( 'ctheta', 'phi', canvs[5] ) ] :
bkgAngHist = cbkgData.createHistogram( observables[angle0]._var, observables[angle1]._var, nBins[angle0], nBins[angle1] )
_P2VVPlotStash.append(bkgAngHist)
bkgAngHist.SetStats(False)
bkgAngHist.SetTitle( '%s vs. %s' % ( angleTitles[angle0], angleTitles[angle1] ) )
bkgAngHist.SetMinimum(0.)
bkgAngHist.GetXaxis().SetTitle( angleTitles[angle0] )
bkgAngHist.GetYaxis().SetTitle( angleTitles[angle1] )
bkgAngHist.GetXaxis().SetLabelOffset(0.01)
bkgAngHist.GetYaxis().SetLabelOffset(0.008)
canvsOS = [ TCanvas( 'estWTagCanvOS%d' % it ) for it in range(3) ]
for ( canv, data, nBins, norm ) in zip( canvsOS
, [ fullData, sigData, cbkgData ]
, 3 * [ numEstWTagBins ]
, [ 1. - untagFracOS, 1. - untagFracSigOS, 1. - untagFracBkgOS ]
) :
canv.SetLeftMargin(0.18)
canv.SetRightMargin(0.05)
canv.SetBottomMargin(0.18)
canv.SetTopMargin(0.05)
#plot( canv, estWTagOS, data, tagPdfOS
plot( canv, estWTagOS, data, yScale = ( 0., None ), xTitleOffset = 1.10, yTitleOffset = 1.15
, xTitle = '#eta^{OS}'
, yTitle = 'Candidates / %.2f' % ( 0.499999 / float(nBins) )
, frameOpts = dict( Bins = nBins, Range = ( 0., 0.499999 ), Name = estWTagOS.GetName() )
, dataOpts = dict( MarkerStyle = kFullDotLarge, MarkerSize = 0.7, LineWidth = 3 )
#, pdfOpts = dict( LineColor = kBlue, LineWidth = 3, Normalization = norm )
)
canvsSS = [ TCanvas( 'estWTagCanvSS%d' % it ) for it in range(3) ]
for ( canv, data, nBins, norm ) in zip( canvsSS
, [ fullData, sigData, cbkgData ]
, 3 * [ numEstWTagBins ]
, [ 1. - untagFracSS, 1. - untagFracSigSS, 1. - untagFracBkgSS ]
) :
canv.SetLeftMargin(0.18)
canv.SetRightMargin(0.05)
canv.SetBottomMargin(0.18)
canv.SetTopMargin(0.05)
break
assert(mass_result.status() == 0)
# Plot mass pdf
from ROOT import kDashed, kRed, kGreen, kBlue, kBlack
from ROOT import TCanvas
canvas = TCanvas('mass_canvas', 'mass_canvas', 600, 530)
obs = [m]
for (p,o) in zip(canvas.pads(len(obs)), obs):
from P2VV.Utilities.Plotting import plot
pdfOpts = dict()
plot(p, o, pdf = mass_pdf, data = data
, dataOpts = dict(MarkerSize = 0.8, MarkerColor = kBlack)
, pdfOpts = dict(LineWidth = 2, **pdfOpts)
, plotResidHist = True
, components = { 'bkg_*' : dict( LineColor = kRed, LineStyle = kDashed ),
## 'psi_*' : dict( LineColor = kGreen, LineStyle = kDashed ),
'sig_*' : dict( LineColor = kBlue, LineStyle = kDashed )
}
)
# Do the sWeights
# make sweighted dataset. TODO: use mumu mass as well...
from P2VV.Utilities.SWeights import SData
for p in mass_pdf.Parameters() : p.setConstant( not p.getAttribute('Yield') )
splot = SData(Pdf = mass_pdf, Data = data, Name = 'MassSplot')
data = splot.data('signal')
## psi_sdata = splot.data('psi_background')
bkg_sdata = splot.data('background')
if 'MC' in args[0]:
