def injectDataLikeSignal(args):

    print '\n******************************************'
    print 'inject data-like signal'

    #******************************************
    #set ATLAS style
    #Yvonne hacking this
    #using the python version
#just import the python one later
    if os.path.isfile(os.path.expanduser("/lustre/SCRATCH/atlas/ywng/WorkSpace/signalInjection/20171122_SensitivityScan/PlotSensitivity/RootStyle/AtlasStyle.C")):
        ROOT.gROOT.LoadMacro('/lustre/SCRATCH/atlas/ywng/WorkSpace/signalInjection/20171122_SensitivityScan/PlotSensitivity/RootStyle/AtlasStyle.C')
        #ROOT.set_color_env()

    #if os.path.isfile(os.path.expanduser('~/RootUtils/AtlasStyle.C')):
    #    ROOT.gROOT.LoadMacro('~/RootUtils/AtlasStyle.C')
    #    ROOT.SetAtlasStyle()
    #    #ROOT.set_color_env()
    else:
        print '\n***WARNING*** couldn\'t find ATLAS Style'
        #import AtlasStyle
        #AtlasStyle.SetAtlasStyle()

    #------------------------------------------
    #set error sum and overflow
    ROOT.TH1.SetDefaultSumw2()
    ROOT.TH1.StatOverflows()
    ROOT.TH2.SetDefaultSumw2()
    ROOT.TH2.StatOverflows()

    #------------------------------------------
    #input parameters
    print '\ninput parameters:'
    argsdict = vars(args)
    for ii in xrange(len(argsdict)):
        print '  %s = %s'%(argsdict.keys()[ii], argsdict.values()[ii],)

    slumi = ('%.1f'% float( str(args.lumi).replace('p','.'))).replace('.','p')

    #------------------------------------------
    #get directory of this script
    localdir = os.path.dirname(os.path.realpath(__file__))

    #------------------------------------------
    #get settings
    print '\nconfig settings:'
    settings = ROOT.TEnv()
    if settings.ReadFile(args.configFileName,ROOT.EEnvLevel(0)) != 0:
        raise IOError('could not find sensitivity scan config file: %s'%args.configFileName)

    model = settings.GetValue('signalModel','')
    print '  signal model = %s'%model

    modelLabel = settings.GetValue('signalModelLabel','').replace('"','')
    print '  signal model label = %s'%modelLabel

    massValuesConfig = settings.GetValue('signalMasses','2000,3000,4000').split(',')
    massValuesConfig = [float(m) for m in massValuesConfig]
    print '  signal masses [GeV] = %s'%massValuesConfig

    histBaseNameBkg = settings.GetValue('histBaseNameBkg','mjj')
    print '  hist base name = %s'%histBaseNameBkg

    histBaseNameSig = settings.GetValue('histBaseNameSig','mjj')
    print '  hist base name = %s'%histBaseNameSig

    bTaggingWP = settings.GetValue('bTaggingWP','') #fix_8585
    print '  b-tagging WP = %s'%bTaggingWP

    axisLabel = settings.GetValue('axisLabel','m [GeV]')
    print '  hist x-axis label = %s'%axisLabel

    nPar = int(settings.GetValue('nFitParameters','3'))
    print '  n fit parameters = %s'%nPar

    thresholdMass = float(settings.GetValue('thresholdMass','1100.'))
    print '  threshold mass = %s'%thresholdMass

    seed = float(settings.GetValue('randomSeed','0'))
    print '  random seed = %s'%seed

    configNotes = settings.GetValue('notes','').split(',')
    print '  notes = %s'%configNotes

	#------------------------------------------
    #set variables
    slumi = ('%.1f'% float( str(args.lumi).replace('p','.'))).replace('.','p')

    histNameSig = histBaseNameSig

    histNameBkg = histBaseNameBkg
    print("Step2 histNameBkg: ", histNameBkg)

    if bTaggingWP != '':
        histNameBkg+='_'+bTaggingWP
    if args.debug:
        print '\nhist name = %s'%histNameBkg

    textSize=20

	#------------------------------------------
    #get directory of this script
    localdir = os.path.dirname(os.path.realpath(__file__))

    #------------------------------------------
    #check data-like QCD file
    if not os.path.isfile(args.dataLikeQCDFileName):
        raise SystemExit('\n***ERROR*** couldn\'t find data-like QCD file: %s'%args.dataLikeQCDFileName)

    #------------------------------------------
    #check luminosity
    #if not slumi+'.ifb.' in args.dataLikeQCDFileName: #HANNO: commented out
    #    raise SystemExit('\n***ERROR*** is the lumi value right?')

    #------------------------------------------
    #check output file
    #outFileName = localdir+'/../results/signalplusbackground/signalplusbackground.'+model+'.'+slumi+'.ifb.'+histNameSig+'.%i'%nPar+'.par.%i'%seed+'.seed.'+args.tag+'.root'
    histNameFromInput=histNameSig.format("")
    outFileName = localdir+'/../results2/signalplusbackground/signalplusbackground.'+model+"."+slumi+'.ifb.'+histNameFromInput+'.%i'%nPar+'.par.%i'%seed+'.seed.'+args.tag+'.root'
    #if os.path.isfile(outFileName):
    #    raise SystemExit('\n***WARNING*** output file exists already: %s'%outFileName)
    outFile = ROOT.TFile(outFileName, 'RECREATE')

    #------------------------------------------
    #TEST
    #raise SystemExit('\n***TEST*** exit')
    #------------------------------------------

    #------------------------------------------
    #data-like QCD hist
    dataLikeQCDFile = ROOT.TFile(args.dataLikeQCDFileName, 'READ')
    if not dataLikeQCDFile:
        raise SystemExit('\n***ERROR*** couldn\'t open data-like QCD input file: %s'%args.dataLikeQCDFileName)

    #QCDHist = dataLikeQCDFile.Get(histName+'_DL')
    QCDHist = dataLikeQCDFile.Get(histNameBkg)
    if not QCDHist:
        raise SystemExit('\n***ERROR*** couldn\'t find data-like QCD input histogram: %s'%histNameBkg)

    QCDHist.SetName(histNameBkg+'_QCD')
    print ("histNameBkg: ",histNameBkg)
    QCDHist.SetTitle(histNameBkg+'_QCD')
    outFile.cd()
    QCDHist.Write()

    #------------------------------------------
    #define canvas before entering loop over input signals
    if args.plot:
        c1 = ROOT.TCanvas('c1', 'c1', 100, 50, 800, 600)
        c1.SetLogx(1)
        c1.SetLogy(1)

    #------------------------------------------
    #get signal samples
    #fileList = os.listdir(localdir+'/../inputs/'+model+'/')
    fileList = os.listdir(localdir+'/../inputs/'+'Gauss_width3'+'/')
    print("sigFiles: ", fileList)
    for sigFileName in sorted(fileList):

        #------------------------------------------
        #check that it is a valid signal file
        if not '.root' in sigFileName:
            continue

        #------------------------------------------
        #get signal mass value from file name
        mass = sensitivityTools.getSignalMass(sigFileName)
        print '\n%s: %s GeV'%(model,mass)

        #check that the signal mass value is contained in the input list of signal masses (config file)
        #if float(mass) not in massValuesConfig:
        #    print '  skip'
        #    continue

        #------------------------------------------
        #TEST
        #if float(mass) != 3000.:
        #    continue

        #------------------------------------------
        #get signal hist
        sigFile = ROOT.TFile(localdir+'/../inputs/'+model+'/'+sigFileName)
        print("path: ", localdir+'/../inputs/'+model+'/'+sigFileName)
        print("histNameSig: ", histNameSig)

        histNameSigUpdated=histNameSig.format(str(mass))

        print("histNameSigUpdated: ", histNameSigUpdated)

        sigHist = sigFile.Get(histNameSigUpdated)

        print("sigHistIntegral: ", sigHist.Integral())

        print(sigHist, sigHist)

        print("histNameSig: ", histNameSigUpdated)

        sigHist.SetName(histNameSigUpdated+'_sig')

        sigHist.SetTitle(histNameSigUpdated+'_sig')

        if sigHist is not None and args.debug:
            print '\n  signal events:           ', sigHist.GetEntries()
            print '  effective signal events: ', sigHist.GetEffectiveEntries()
            print '  sum of signal weights:   ', sigHist.GetSumOfWeights()

        #------------------------------------------
        #scaled signal hist
        scaleFactor = float(args.lumi)*1000
        #NOTE cross sections are included already
        '''
        if args.fixCS:
            ZprimebbCrossSection = sensitivityTools.getZprimebbCrossSection(mass)
            print '\n  Z\'->bb cross section applied: %s fb'%ZprimebbCrossSection
            scaleFactor*=ZprimebbCrossSection
        '''
        if args.debug:
            print '\n  scale factor: %s'%scaleFactor

        #scale histogram by factor
        scaledSigHist = sigHist.Clone()
        scaledSigHist.Scale(scaleFactor)
        scaledSigHist.SetName(histNameSig+'_scaledSig')

        if scaledSigHist is not None and args.debug:
            print '\n  events after scaling:            ', scaledSigHist.GetEntries()
            print '  effective entries after scaling: ', scaledSigHist.GetEffectiveEntries()
            print '  sum of weights after scaling:    ', scaledSigHist.GetSumOfWeights()
            print '  first bin above 0 after scaline: ', scaledSigHist.FindFirstBinAbove(0,1)

        #------------------------------------------
        #effective entries signal hist
        effEntSigHist = plotTools.getEffectiveEntriesHistogram(sigHist, histNameSig+'_eff')
        if args.debug:
            print '\n  entries in effective entries:           ', effEntSigHist.GetEntries()
            print '  effective entries in effective entries: ', effEntSigHist.GetEffectiveEntries()
            print '  sum of weights in effective entries:    ', effEntSigHist.GetSumOfWeights()

        #------------------------------------------
        #data-like signal hist
        histNameSig2=histNameSig.format(str(int(mass)))
        dataLikeSigHist = plotTools.getDataLikeHist(effEntSigHist, scaledSigHist, histNameSig2+'_sig', seed, thresholdMass)
        firstBin = -1
        for ii in xrange(dataLikeSigHist.GetNbinsX()):
            if dataLikeSigHist.GetBinContent(ii)>0.:
                firstBin=ii
                break

        if firstBin > 0.:
            print '  data-like signal histogram starts at %s GeV'%dataLikeSigHist.GetBinLowEdge(firstBin)
        else:
            print '  data-like signal histogram is empty: n. entries = %s'%dataLikeSigHist.GetEntries()

        #------------------------------------------
        #smooth signal hist
        histNameSigSmooth=histNameSig.format(str(int(mass)))
        smoothSigHist = plotTools.getSmoothHistogram(scaledSigHist, histNameSigSmooth+'_sig_smooth')

        #------------------------------------------
        #remove any signal entry if there are no QCD entries (low mass region)
        if dataLikeSigHist is not None:
            for ii in xrange(QCDHist.GetNbinsX()):
                if QCDHist.GetBinContent(ii) == 0:
                    dataLikeSigHist.SetBinContent(ii,0)
                    dataLikeSigHist.SetBinError(ii,0)
                    smoothSigHist.SetBinContent(ii,0)
                    smoothSigHist.SetBinError(ii,0)
                else:
                    break

        #------------------------------------------
        #signal+QCD hist
        if QCDHist is not None and args.debug:
            print '\n  QCD events:           ', QCDHist.GetEntries()
            print '  QCD effective events: ', QCDHist.GetEffectiveEntries()
            print '  QCD sum of weights:   ', QCDHist.GetSumOfWeights()

        totHist = QCDHist.Clone()

        #..........................................
        #ORIGINAL
        #if dataLikeSigHist is not None:
        #    totHist.Add(dataLikeSigHist)

        #..........................................
        #NEW
        if dataLikeSigHist.GetBinContent(ii)>0.:
            print '  injecting data-like signal'
            totHist.Add(dataLikeSigHist)
        else:
            print '  not enough effective entries: injecting smoooth signal'
            totHist.Add(smoothSigHist)
        #END NEW
        #..........................................
        histNameToHist=histNameSig.format(str( int(mass)))

        histNameToHist=histNameToHist+"injectedToBkg"
        totHist.SetName(histNameToHist)
        totHist.SetTitle(histNameToHist)

        if totHist is not None and args.debug:
            print '\n  tot events:           ', totHist.GetEntries()
            print '  tot effective events: ', totHist.GetEffectiveEntries()
            print '  tot sum of weights:   ', totHist.GetSumOfWeights()

        #------------------------------------------
        #write to output file
        outFile.cd()
        dataLikeSigHist.Write()
        totHist.Write()

        #------------------------------------------
        #plot
        if args.plot:

            QCDHist.SetMarkerStyle(24)

            totHist.SetMarkerStyle(20)

            effEntSigHist.SetMarkerStyle(20)
            effEntSigHist.SetMarkerColor(ROOT.kGreen+1)
            effEntSigHist.SetLineColor(ROOT.kGreen+1)

            sigHist.SetMarkerStyle(25)
            sigHist.SetMarkerColor(ROOT.kAzure+1)
            sigHist.SetLineColor(ROOT.kAzure+1)

            scaledSigHist.SetMarkerStyle(26)
            scaledSigHist.SetMarkerColor(ROOT.kOrange+1)
            scaledSigHist.SetLineColor(ROOT.kOrange+1)

            dataLikeSigHist.SetMarkerStyle(24)
            dataLikeSigHist.SetMarkerColor(ROOT.kRed+1)
            dataLikeSigHist.SetLineColor(ROOT.kRed+1)

            smoothSigHist.SetMarkerStyle(32)
            smoothSigHist.SetMarkerColor(ROOT.kMagenta+1)
            smoothSigHist.SetLineColor(ROOT.kMagenta+1)

            hs = ROOT.THStack('hs','hs')
            hs.Add(QCDHist)
            hs.Add(totHist)
            hs.Add(effEntSigHist)
            hs.Add(sigHist)
            hs.Add(scaledSigHist)
            hs.Add(dataLikeSigHist)
            hs.Add(smoothSigHist)
            hs.Draw('nostack')

            hs.GetXaxis().SetTitle(axisLabel)
            hs.GetXaxis().SetTitleFont(43)
            hs.GetXaxis().SetTitleSize(textSize)
            #hs.GetXaxis().SetTitleOffset(1.5)
            hs.GetXaxis().SetLabelFont(43)
            hs.GetXaxis().SetLabelSize(textSize)

            hs.GetYaxis().SetTitle('entries')
            hs.GetYaxis().SetTitleFont(43)
            hs.GetYaxis().SetTitleSize(textSize)
            #hs.GetYaxis().SetTitleOffset(1.5)
            hs.GetYaxis().SetLabelFont(43)
            hs.GetYaxis().SetLabelSize(textSize)

            #------------------------------------------
            #labels and legends
            ax = 0.65
            ay = 0.88 #0.85
            a = plotTools.getATLAS()
            p = plotTools.getInternal()
            n = plotTools.getNote(textSize)
            l = plotTools.getLegend(ax,ay,textSize)

            #ATLAS internal
            a.DrawLatex(ax,ay,'ATLAS')
            p.DrawLatex(ax+0.13,ay,'internal')

            #notes
            notes=[]
            notes.append('#sqrt{s} = 13 TeV')
            if float(args.lumi) < -0.1:
                notes.append('L_{int} = %.0f pb^{-1}'%float(args.lumi)*1e3)
            else:
                notes.append('L_{int} = %.1f fb^{-1}'%float(args.lumi))
            if modelLabel != '':
                notes.append('m_{%s} = %0.f GeV'%(modelLabel,float(mass)))
            else:
                notes.append('m_{%s} = %0.f GeV'%(model,float(mass)))
            #notes.append('%s par. fit func.'%nPar)
            notes+=configNotes

            for ii, note in enumerate(notes):
                n.DrawLatex(ax,ay-0.04*(ii+1),note)

            #legend
            l.Clear()
            l.SetTextSize(textSize)
            l.AddEntry(QCDHist,"QCD background","pl")
            l.AddEntry(totHist,"signal plus backgournd","pl")
            l.AddEntry(sigHist,"non-scaled signal","pl")
            l.AddEntry(scaledSigHist,"scaled signal","pl")
            l.AddEntry(effEntSigHist,"effective signal","pl")
            l.AddEntry(dataLikeSigHist,"data-like signal","pl")
            l.AddEntry(smoothSigHist,"smooth signal","pl")
            l.SetX1(ax)
            l.SetY1(ay - 0.04*(len(notes)+1) - 0.04*l.GetNRows())
            l.SetX2(ax+0.15)
            l.SetY2(ay - 0.04*(len(notes)+1))
            l.Draw()

            c1.Update()
            if args.wait:
                c1.WaitPrimitive()
            c1.SaveAs('../figures/signalplusbackground.'+model+'.'+mass+'.GeV.'+slumi+'.ifb.'+histNameSig+'.%i'%nPar+'.par.%i'%seed+'.seed.'+args.tag+'.pdf')

    outFile.Write()
    outFile.Close()
Ejemplo n.º 2
0
def injectDataLikeSignal(args):
    #---Get dir of the script
    localdir = os.path.dirname(os.path.realpath(__file__))

    #---setting the correct error for MC
    ROOT.TH1.SetDefaultSumw2()
    ROOT.TH1.StatOverflows()
    ROOT.TH2.SetDefaultSumw2()
    ROOT.TH2.StatOverflows()
    #---Opening json file
    try:
        json_data = open(args.config)
        config = json.load(json_data)
    except:
        print "Cannot open json config file: ", args.config

        print "---Aborting---"
        raise RuntimeError

    #---debug
    if args.debug:
        printConfig(config)
#--Test if RootFiles exist
#bkg
    doesRootFileExist(localdir + "/" + config["QCDFileDir"] +
                      config["QCDFile"])
    #signal
    signalFileList = makeSignalFileList(config)
    if args.debug:
        print("the signal file list being injected is ", signalFileList)
    for signalFile in signalFileList:
        doesRootFileExist(signalFile)
    #TODO test if signal inputfile exist
#create outputFile
    outFileName = makeOutputFileName(config, args)
    outFile = r.TFile(outFileName, "RECREATE")

    #---debug
    if args.debug:
        print("output file name : ", outFile)


#---Get bkg histogram and writing it
# skip if bkg histogram already exist

    bkgFile = ROOT.TFile(
        "/lustre/SCRATCH/atlas/ywng/WorkSpace/r21/r21SwiftNew/SensitivityStudies/source/scripts//../input_dijetISR2018/bkg//Fluctuated_SwiftFittrijet_HLT_j380_inclusiveAprRewdo.root",
        'READ')
    bkgHist = bkgFile.Get("basicBkgFrom4ParamFit_fluctuated").Clone()
    #bkgFile = ROOT.TFile(localdir+"/"+config["QCDFileDir"]+"/"+config["QCDFile"], 'READ')
    #print(bkgFile)
    #print(localdir+"/"+config["QCDFileDir"]+"/"+config["QCDFile"])
    #print(config["histBaseNameBkg"])
    #bkgHist = bkgFile.Get(config["histBaseNameBkg"]).Clone()

    bkgHist.SetTitle(config["histBaseNameBkg"] + "_QCD")

    outFile.cd()
    bkgHist.Write()

    histNameFromInput = config["histBasedNameSig"].format("")

    sigHist = {}
    for signalFile in signalFileList:
        mass = sensitivityTools.getSignalMass(signalFile)
        sigFile = ROOT.TFile(signalFile)
        print(sigFile)
        # getting the original size histogram
        print("chekc5 in loop")
        histNameSigUpdated = config["histBasedNameSig"].format(str(mass))
        histNameSigUpdated = histNameSigUpdated.encode("ascii")
        sigHist["ori"] = sigFile.Get(histNameSigUpdated)
        print(sigHist)
        sigHist["ori"].SetName(histNameSigUpdated + "_sig")
        sigHist["ori"].SetTitle(histNameSigUpdated + "_sig")
        # Scaling the signal histograms up
        sigHist["scaled"] = sigHist["ori"].Clone()
        # the scaling is actually a bit off....
        sigHist["scaled"].Scale(args.sigScale / sigHist["scaled"].Integral())
        sigHist["eff"] = plotTools.getEffectiveEntriesHistogram(
            sigHist["ori"], config["histBasedNameSig"].format("") + '_eff')
        #fluctuating the scaled histogram
        sigHist["dataLike"] = plotTools.getDataLikeHistYvonneVersion(
            sigHist["eff"], sigHist["scaled"], histNameSigUpdated + "_sig", 1,
            config["thresholdMass"])
        # I am skippig the smoothing part
        totHist = bkgHist.Clone()
        totHist.Add(sigHist["dataLike"])
        histNameToHist = histNameSigUpdated + "injectedToBkg"
        totHist.SetName(histNameToHist)
        totHist.SetTitle(histNameToHist)
        if args.debug:
            print("background hist entries: ", bkgHist.Integral())
            print("scale: ", args.sigScale)
            print("signalHistEntries: ", sigHist["dataLike"].Integral())
            print("total his entries: ", totHist.Integral())
        outFile.cd()
        totHist.Write()
        if args.plot:
            totHist.SetLineColor(r.kGreen)
            scaledSigHist = sigHist["dataLike"].Clone()
            scaledSigHist.Scale(totHist.Integral() /
                                sigHist["dataLike"].Integral())
            scaledSigHist.SetLineColor(r.kRed)
            c1 = r.TCanvas(1)
            c1.SetLogy()
            bkgHist.Draw()
            scaledSigHist.Draw("same")
            totHist.Draw("same")

            l = plotTools.getLegend(0.65, 0.85, 2)
            l.AddEntry(bkgHist, "QCDBkgnd", "l")
            l.AddEntry(scaledSigHist, "signal scaled up", "l")
            l.AddEntry(totHist, "total", "l")
            l.Draw()
            c1.SaveAs("../figures/step02Result." + model + "." + mass + "." +
                      args.sigScale + ".pdf")

    outFile.Write()
    outFile.Close()
Ejemplo n.º 3
0
def doSensitivityScan(args):
    spFileDir = "/lustre/SCRATCH/atlas/ywng/WorkSpace/r21/r21SwiftNew/SensitivityStudies/source/scripts/../results2/searchphase/"
    print("# of justabove files afte before eveyrhing : ",
          countFilesInDirWithKeyword(spFileDir, "JUSTABOVE"))

    print '\n******************************************'
    print '\n******************************************'
    print '\n******************************************'
    print '\n******************************************'
    print 'sensitivity scan starting'

    #------------------------------------------
    #input parameters
    print '\ninput parameters:'
    argsdict = vars(args)
    for ii in xrange(len(argsdict)):
        print '  %s = %s' % (
            argsdict.keys()[ii],
            argsdict.values()[ii],
        )

    #------------------------------------------
    #get directory of this script
    localdir = os.path.dirname(os.path.realpath(__file__))

    #------------------------------------------
    #get settings
    print '\nconfig settings:'
    settings = ROOT.TEnv()
    if settings.ReadFile(args.configFileName, ROOT.EEnvLevel(0)) != 0:
        raise SystemExit(
            '***ERROR*** could not find sensitivity scan config file: %s' %
            args.configFileName)

    model = settings.GetValue('signalModel', '')
    print '  signal model = %s' % model

    modelLabel = settings.GetValue('signalModelLabel', '').replace('"', '')
    print '  signal model label = %s' % modelLabel

    massValuesConfig = settings.GetValue('signalMasses',
                                         '2000,3000,4000').split(',')
    massValuesConfig = [float(m) for m in massValuesConfig]
    print '  signal masses [GeV] = %s' % massValuesConfig

    lumiMin = float(settings.GetValue('luminosityMin', '0.1'))
    #if lumiMin < 0.1: #fb^-1
    #    lumiMin = 0.1 #fb^-1
    print '  minimum luminosity = %s' % lumiMin

    lumiMax = float(settings.GetValue('luminosityMax', '10.'))
    print '  maximum luminosity = %s' % lumiMax
    if lumiMax > 10000.:  #fb^-1
        lumiMax = 10000.  #fb^-1

    #QCDFileName = settings.GetValue('QCDFile','../inputs/QCD/histograms.mc.dijet.1p0.ifb.root')
    #Yvonne edit for dijetISR
    QCDFileName = settings.GetValue(
        'QCDFile', '../inputs/QCD/histograms.mc.QCD.1p0.ifb.root')
    print '  QCD input file = %s' % QCDFileName

    histBaseName = settings.GetValue('histBaseName', 'mjj')
    print '  hist base name = %s' % histBaseName

    bTaggingWP = settings.GetValue('bTaggingWP', '')  #fix_8585
    print '  b-tagging WP = %s' % bTaggingWP

    axisLabel = settings.GetValue('axisLabel', 'm [GeV]')
    print '  hist x-axis label = %s' % axisLabel

    nPar = int(settings.GetValue('nFitParameters', '3'))
    print '  n fit parameters = %s' % nPar

    nPseudoExps_withSig = settings.GetValue('nPseudoExperimentsWithSig', '1')
    print '  number of pseudo-experiments = %s' % nPseudoExps_withSig

    nPseudoExps_bkg = settings.GetValue('nPseudoExperiments_bkg', '1000')
    print '  number of pseudo-experiments = %s' % nPseudoExps_bkg

    thresholdMass = float(settings.GetValue('thresholdMass', '1100.'))
    print '  threshold mass = %s' % thresholdMass

    seed = float(settings.GetValue('randomSeed', '0'))
    print '  random seed = %s' % seed

    notes = settings.GetValue('notes', '').split(',')
    print '  notes = %s' % notes

    #------------------------------------------
    #TEST
    #raise SystemExit('\n***TEST*** exit')
    #------------------------------------------

    #------------------------------------------
    #set variables
    histName = histBaseName
    if bTaggingWP != '':
        histName += '_' + bTaggingWP
    if args.debug:
        print '\nhist name = %s' % histName

    #------------------------------------------
    #get directory of this script
    localdir = os.path.dirname(os.path.realpath(__file__))

    #------------------------------------------
    #check input file
    if not os.path.isfile(QCDFileName):
        raise SystemExit('\n***ERROR*** couldn\'t find QCD file: %s' %
                         QCDFileName)

    #------------------------------------------

    #for windowWidth in [13, 12, 10, 9, 8]:#add 9 later
    #for windowWidth in [12, 10, 8, 7, 6]:#add 9 later
    for windowWidth in [12]:  #add 9 later

        print '\n******************************************'
        print "***************** Window Width " + str(
            windowWidth) + " ********************"

        #get list of available mass points
        massValuesAvailable = []

        fileList = os.listdir(localdir + '/../inputs/' + model + '/')
        print "mass directory: ", localdir + '/../inputs/' + model + '/'
        for sigFileName in sorted(fileList):
            if not '.root' in sigFileName:
                continue
            massValuesAvailable.append(
                float(sensitivityTools.getSignalMass(sigFileName)))
        massValuesAvailable.sort(key=float)
        #massValues = [m for m in massValues if m >= 10000.0] #DEBUG
        #massValues = [3000.0] #DEBUG
        #print '\navailable mass values [GeV]: %s'%massValuesAvailable

        massValues = list(set(massValuesConfig) & set(massValuesAvailable))
        massValues.sort(key=float)
        massValues.reverse()
        print 'using mass values [GeV]: %s' % massValues

        #------------------------------------------
        #TEST
        #raise SystemExit('\n***TEST*** exit')
        #------------------------------------------

        #------------------------------------------
        #initial luminosity value
        #lumi = lumiMin

        #------------------------------------------
        #arrays for sensitivity scan graphs
        gmass = np.array(massValues)
        glumi = np.zeros_like(gmass)

        lumiSteps = [0.0, 0.1, 0.2, 0.3, 0.5, 0.7] + range(1, 10) + range(
            10, 20, 1) + range(20, 30, 2) + range(30, 50, 3) + range(
                50, 100, 5) + range(100, 200, 10) + range(200, 1000, 50)
        #lumiSteps = [0.1]
        print "lumiSteps", lumiSteps

        #reset lumi to lowest value
        lumiStep = 1
        lumiIncrement = 1.
        #------------------------------------------
        #loop over mass values
        for mass in massValues:  #and lumi <= lumiMax:

            print '\n******************************************'
            print '\n******************************************'

            setInitialLumi = False
            #doing 1000/fb doesn't make much sense, may as well give up?
            #Yvonne:^^ HUHHH??
            #while lumi<(lumiSteps[-1]) :
            for lumi in lumiSteps:

                ##add algorithm here...

                #check it makes sense to run this mass/lumi combination
                #####TLA2016 thresholds: don't test if above a given lumi as too high

                #ww9
                #mass = [ 1850.  1750.  1050.   750.   650.]
                #lumi = [  6.2942564   6.2942564  14.95725    45.          0.       ]
                #ww11
                #mass = [ 1850.  1750.  1050.   750.   650.]
                #lumi = [ 5.46587075  5.46587075  0.          0.          0.        ]

                #just hardwire because i'm so tired
                #Yvonne: ^^LOL

                #  if mass == 650 and windowWidth == 9 and setInitialLumi==False:
                #    lumi = 74 #136 for 7*
                #    setInitialLumi = True
                #  elif mass == 650 and windowWidth == 10 and setInitialLumi==False:
                #    lumi = 72
                #    setInitialLumi = True
                #  elif mass == 650 and windowWidth == 11 and setInitialLumi==False:
                #    lumi = 70
                #    setInitialLumi = True
                #  elif mass == 650 and windowWidth == 12 and setInitialLumi==False:
                #    lumi = 55
                #    setInitialLumi = True
                #  if mass == 750 and windowWidth == 9 and setInitialLumi==False:
                #    lumi = 35
                #    setInitialLumi = True
                #  elif mass == 750 and windowWidth == 10 and setInitialLumi==False:
                #    lumi = 30
                #    setInitialLumi = True
                #  elif mass == 750 and windowWidth == 11 and setInitialLumi==False:
                #    lumi = 26
                #    setInitialLumi = True
                #  elif mass == 750 and windowWidth == 12 and setInitialLumi==False:
                #    lumi = 15
                #    setInitialLumi = True
                #  if mass == 1050 and windowWidth == 9 and setInitialLumi==False:
                #    lumi = 13
                #    setInitialLumi = True
                #  elif mass == 1050 and windowWidth == 10 and setInitialLumi==False:
                #    lumi = 12
                #    setInitialLumi = True
                #  elif mass == 1050 and windowWidth == 11 and setInitialLumi==False:
                #    lumi = 11
                #    setInitialLumi = True
                #  elif mass == 1050 and windowWidth == 12 and setInitialLumi==False:
                #    lumi = 10
                #    setInitialLumi = True
                #  if mass == 1450 and windowWidth == 9 and setInitialLumi==False:
                #    lumi = 5
                #    setInitialLumi = True
                #  elif mass == 1450 and windowWidth == 10 and setInitialLumi==False:
                #    lumi = 4
                #    setInitialLumi = True
                #  elif mass == 1450 and windowWidth == 11 and setInitialLumi==False:
                #    lumi = 3
                #    setInitialLumi = True
                #  elif mass == 1450 and windowWidth == 12 and setInitialLumi==False:
                #    lumi = 2
                #    setInitialLumi = True
                #  if mass == 1850 and windowWidth == 9 and setInitialLumi==False:
                #    lumi = 5
                #    lumiIncrement = 1
                #    setInitialLumi = True
                #  elif mass == 1850 and windowWidth == 10 and setInitialLumi==False:
                #    lumi = 4
                #    lumiIncrement = 1
                #    setInitialLumi = True
                #  elif mass == 1850 and windowWidth == 11 and setInitialLumi==False:
                #    lumi = 3
                #    lumiIncrement = 1
                #    setInitialLumi = True
                #  elif mass == 1850 and windowWidth == 12 and setInitialLumi==False:
                #    lumi = 2
                #    lumiIncrement = 1
                #    setInitialLumi = True

                #------------------------------------------
                #print '\n\n******************************************'
                #print '******************************************'
                #print 'testing:'
                #print 'luminosity = %s ^fb-1'%lumi
                #print 'mass values [GeV]: %s'%massValues
                #print '\Testing mass:', mass
                #print '******************************************'
                #print '******************************************\n'

                #luminosity string
                slumi = ('%.1f' % float(str(lumi).replace('p', '.'))).replace(
                    '.', 'p')

                print "what's the lumi", lumi

                #------------------------------------------
                #STEP 01 - get data-like QCD for the given luminosity
                #os.system('python -u step01.getDataLikeQCD.py --config %s --lumi %.1f --tag %s --patch --plot --batch --debug -b'%(args.configFileName, lumi, args.tag)) #HANNO: Commented out to skip

                #------------------------------------------
                #TEST
                #raise SystemExit('\n***TEST*** exit')
                #------------------------------------------

                #------------------------------------------
                #STEP 02 - inject signal (fast, do it anyway)

                #dataLikeQCDFileName = localdir+'/../results/datalikeQCD/datalikeQCD.'+slumi+'.ifb.'+histName+'.%i'%nPar+'.par.%i'%seed+'.seed.'+args.tag+'.root' #HANNO: Fixed Lumi in line below!!!
                debugString = ""
                if args.debug:
                    debugString = "--debug"
                #dataLikeQCDFileName = localdir+'/../results/datalikeQCD/NLO_yStar_06_29p7ifb_forSig.root' #HANNO: FIXED NAME
                #yvonne hack
                dataLikeQCDFileName = localdir + '/Fluctuated_SwiftFittrijet_HLT_j380_inclusive.root'  #HANNO: FIXED NAME
                os.system(
                    'python -u step02.injectDataLikeSignal.py --config %s --QCDFile %s --lumi %.1f --tag %s --plot --batch -b %s'
                    % (args.configFileName, dataLikeQCDFileName, lumi,
                       args.tag, debugString))

                print(
                    'python -u step02.injectDataLikeSignal.py --config %s --QCDFile %s --lumi %.1f --tag %s --plot --batch -b --debug'
                    %
                    (args.configFileName, dataLikeQCDFileName, lumi, args.tag))

                #------------------------------------------
                #TEST
                #raise SystemExit('\n***TEST*** exit')
                #------------------------------------------

                #signal mass
                print '\n******************************************'
                print 'Running SearchPhase'
                print '\n%s mass = %s GeV' % (model, mass)
                print 'lumi = %s fb^-1' % lumi
                print 'WindowWidth for SWiFt = %s' % windowWidth
                print '******************************************'
                #print("# of justabove files afte before eveyrhing : ", countFilesInDirWithKeyword(spFileDir, "JUSTABOVE"))

                #------------------------------------------
                #step 03 - search fordijet mass resonances (slow, only do it if needed)
                #signalPlusBackgroundFileName = localdir+'/../results2/signalplusbackground/signalplusbackground.'+model+'.'+slumi+'.ifb.'+"mjj_Gauss_sig__smooth"+'.%i'%nPar+'.par.%i'%seed+'.seed.'+args.tag+'.root'
                signalPlusBackgroundFileName = signalPlusBkgFileName(
                    localdir,
                    model,
                    slumi,
                    nPar,
                    seed,
                    tag=args.tag,
                    signalName="mjj_Gauss_sig__smooth")
                print("YvonnesignalPlusBkgFileName: ",
                      signalPlusBackgroundFileName)
                #signalPlusBackgroundFileName = localdir+'/../results/signalplusbackground/signalplusbackground.'+model+'.'+slumi+'.ifb.'+histName+'.%i'%nPar+'.par.%i'%seed+'.seed.'+args.tag+'.root'

                if lumi == 0.0:
                    nPseudoExps = nPseudoExps_bkg
                else:
                    nPseudoExps = nPseudoExps_withSig

                os.system(
                    'python -u step03.searchPhase.py --config %s --file %s --mass %s --lumi %s --window %s --functionParam %s --nPseudoExps %s --tag %s --batch -b --debug'
                    % (args.configFileName, signalPlusBackgroundFileName,
                       int(mass), lumi, windowWidth, nPar, nPseudoExps,
                       args.tag))  #Hanno: Removed --plot for now
                print(
                    'python -u step03.searchPhase.py --config %s --file %s --mass %s --lumi %s --window %s --functionParam %s --nPseudoExps %s --tag %s --batch -b --debug'
                    %
                    (args.configFileName, signalPlusBackgroundFileName,
                     int(mass), lumi, windowWidth, nPar, nPseudoExps, args.tag)
                )  #Hanno: Removed --plot for now

                #------------------------------------------
                #TEST
                #raise SystemExit('\n***TEST*** exit')
                #------------------------------------------

                #------------------------------------------
                #check SearchPhase results

                #this needs to be the same name as the file we made in the search phase - leave the 4param junk in for now
                #searchphase.Gauss_width15.620.GeV.500p0.ifb.mjj_Gauss.4.par.102.seed.NLO2015_29p7_sensitivityScan_ww13_case5Param
                ## these are commented out by yvonne
                #spfilename = localdir+'/../results/searchphase/searchphase.'+model+'.%i'%int(mass)+'.gev.'+slumi+'.ifb.'+histname+'.%i'%npar+'.par.%i'%seed+'.seed.'+args.tag+'_ww'+str(windowwidth)+'.root'
                #I believe this doesn't depend on mass
                spFileName = searchPhaseResultName(localdir, model, mass,
                                                   slumi, histName, nPar, seed,
                                                   args.tag, windowWidth)

                if not os.path.isfile(spFileName):
                    raise SystemExit(
                        '\n***ERROR*** couldn\'t find SearchPhase output file for %s mass %s GeV: %s'
                        % (model, int(mass), spFileName))

                spFile = ROOT.TFile(spFileName, 'READ')
                spSignificance = spFile.Get(
                    'residualHist'
                )  #this is not quite the significance graph but it works the same for bin edges
                spSignificance.SetAxisRange(
                    spSignificance.GetBinLowEdge(
                        spSignificance.FindBin(2000.)), 2e4, "X")

                #------------------------------------------
                #fill sensitivity scan graph and remove discovered signal mass values from the list
                bumpHunterStatOfFitToData = None
                try:
                    bumpHunterStatOfFitToData = spFile.Get(
                        "bumpHunterStatOfFitToData")
                except:
                    print "FIT FAILED!!! Try previous lumi with more pseudoexperiments"
                    nPseudoExps = nPseudoExps + 100
                    lumi = lumi - 1
                    continue

                bumpHunterStatValue = bumpHunterStatOfFitToData[0]
                bumpHunterPValue = bumpHunterStatOfFitToData[1]
                bumpHunterPValueErr = bumpHunterStatOfFitToData[2]

                bumpHunterPLowHigh = spFile.Get('bumpHunterPLowHigh')
                #bumpHunterStatValue = bumpHunterPLowHigh[0]
                bumpLowEdge = bumpHunterPLowHigh[1]
                bumpHighEdge = bumpHunterPLowHigh[2]

                excludeWindowVector = spFile.Get('excludeWindowNums')
                excludedWindow = excludeWindowVector[0]
                excludedWindowLow = excludeWindowVector[1]
                excludedWindowHigh = excludeWindowVector[2]

                print '\n******************************************'
                print 'SearchPhase results summary'
                print '\n%s mass = %s GeV' % (model, mass)
                print 'lumi = %s fb^-1' % lumi
                print "bump range: %s GeV - %s GeV" % (bumpLowEdge,
                                                       bumpHighEdge)
                print "BumpHunter stat = %s" % bumpHunterStatValue
                print "BumpHunter p-value = %s +/- %s" % (bumpHunterPValue,
                                                          bumpHunterPValueErr)
                print "excluded window (1=yes, 0=no): ", excludedWindow
                print "window low edge = %s" % excludedWindowLow
                print "window high edge = %s" % excludedWindowHigh

                bumpHunterSigmas = ROOT.Math.normal_quantile(
                    1. - bumpHunterPValue, 1.)
                print "BumpHunter sigmas = %s" % bumpHunterSigmas
                #--------removing old labelled files
                spFileDir = findDirFromFilePath(spFileName)
                print("spFileDir in code: ", spFileDir)
                #spFileDir="/lustre/SCRATCH/atlas/ywng/WorkSpace/r21/r21SwiftNew/SensitivityStudies/source/scripts/../results2/searchphase/"
                #print("spFileDir hardCoded: ", spFileDir)
                print("mass", mass)
                print("windowWidth", windowWidth)
                removeOldLabelledFile(spFileDir, "JUSTABOVE", mass,
                                      windowWidth)
                removeOldLabelledFile(spFileDir, "JUSTBELOW", mass,
                                      windowWidth)
                removeOldLabelledFile(spFileDir, "NOSIGNAL", mass, windowWidth)

                print("# of justabove files afte remove: ",
                      countFilesInDirWithKeyword(spFileDir, "JUSTABOVE"))
                if bumpHunterPValue < 0.01 and int(excludedWindow) > 0:
                    massIndex = np.where(gmass == mass)
                    glumi[massIndex] = lumi
                    print '******************************************'
                    #removeMassValues.append(mass)
                    print "Discovery, with window removal"
                    print "just above"
                    print "SPFile: ", spFileName
                    print "does GPFile exist: ", os.path.isfile(spFileName)
                    #---finding the justabove file
                    justAboveFN = justAboveFileName(spFileName)
                    print("justAboveFileName: ", justAboveFN)
                    os.rename(spFileName, justAboveFN)

                    #setting the SP fileName previous to be one lumi step below exclusion window kicks in
                    #---finding the justbelow file
                    justBelowFN = justBelowFileName(spFileNamePrevious)
                    os.rename(spFileNamePrevious, justBelowFN)
                    print("justBelowFileName: ", justBelowFN)
                    #---finding the nosignal file
                    zeroLumiFN = zeroLumiFileName(spFileName)
                    noSignalFN = noSignalFileName(zeroLumiFN)
                    print("no signal file name: ", noSignalFN)
                    os.rename(zeroLumiFN, noSignalFN)

                    print("# of justabove files:(after setting names) ",
                          countFilesInDirWithKeyword(spFileDir, "JUSTABOVE"))

                    break  # get out of the lumi loop, go to next mass point
                #else :#increment lumi
                elif bumpHunterPValue < 0.01 and int(excludedWindow) == 0:
                    print '******************************************'
                    print "Discovery, without window removal - increment lumi"
                    lumi = lumi + lumiIncrement
                else:
                    if lumi * bumpHunterPValue > 1:
                        lumi = (
                            lumi + 2 * lumi * bumpHunterPValue
                        )  #not even close, take five lumi steps, was 0.5 before
                        print "Not too close. try next time with lumi: ", lumi
                    else:
                        lumi = lumi + lumiIncrement
                        print "Close enough. try next time with lumi: ", lumi

                    #setting a lumi file that is one step lower
                spFileNamePrevious = spFileName

                #------------------------------------------

                #------------------------------------------
                #TEST
                #raise SystemExit('\n***TEST*** exit')
                #------------------------------------------

                #------------------------------------------
                #print sensitivity scan results
                print '\n******************************************'
                print 'sensitivity scan results'
                print '******************************************\n'
                print 'mass = %s' % gmass
                print 'lumi = %s' % glumi

                print("# of justabove files close to end: ",
                      countFilesInDirWithKeyword(spFileDir, "JUSTABOVE"))
Ejemplo n.º 4
0
def doSensitivityScan(args):

    print '\n******************************************'
    print 'sensitivity scan'

    #------------------------------------------
    #input parameters
    print '\ninput parameters:'
    argsdict = vars(args)
    for ii in xrange(len(argsdict)):
        print '  %s = %s' % (
            argsdict.keys()[ii],
            argsdict.values()[ii],
        )

    #------------------------------------------
    #get directory of this script
    localdir = os.path.dirname(os.path.realpath(__file__))

    #------------------------------------------
    #get settings
    print '\nconfig settings:'
    settings = ROOT.TEnv()
    if settings.ReadFile(args.configFileName, ROOT.EEnvLevel(0)) != 0:
        raise SystemExit(
            '***ERROR*** could not find sensitivity scan config file: %s' %
            args.configFileName)

    model = settings.GetValue('signalModel', '')
    print '  signal model = %s' % model

    modelLabel = settings.GetValue('signalModelLabel', '').replace('"', '')
    print '  signal model label = %s' % modelLabel

    massValuesConfig = settings.GetValue('signalMasses',
                                         '2000,3000,4000').split(',')
    massValuesConfig = [float(m) for m in massValuesConfig]
    print '  signal masses [GeV] = %s' % massValuesConfig

    lumiMin = float(settings.GetValue('luminosityMin', '0.1'))
    if lumiMin < 0.1:  #fb^-1
        lumiMin = 0.1  #fb^-1
    print '  minimum luminosity = %s' % lumiMin

    lumiMax = float(settings.GetValue('luminosityMax', '10.'))
    print '  maximum luminosity = %s' % lumiMax
    if lumiMax > 1000.:  #fb^-1
        lumiMax = 1000.  #fb^-1

    QCDFileName = settings.GetValue(
        'QCDFile', '../inputs/QCD/histograms.mc.dijet.1p0.ifb.root')
    print '  QCD input file = %s' % QCDFileName

    histBaseName = settings.GetValue('histBaseName', 'mjj')
    print '  hist base name = %s' % histBaseName

    bTaggingWP = settings.GetValue('bTaggingWP', '')  #fix_8585
    print '  b-tagging WP = %s' % bTaggingWP

    axisLabel = settings.GetValue('axisLabel', 'm [GeV]')
    print '  hist x-axis label = %s' % axisLabel

    nPar = int(settings.GetValue('nFitParameters', '3'))
    print '  n fit parameters = %s' % nPar

    nPseudoExps = settings.GetValue('nPseudoExperiments', '1000')
    print '  number of pseudo-experiments = %s' % nPseudoExps

    thresholdMass = float(settings.GetValue('thresholdMass', '1100.'))
    print '  threshold mass = %s' % thresholdMass

    seed = float(settings.GetValue('randomSeed', '0'))
    print '  random seed = %s' % seed

    notes = settings.GetValue('notes', '').split(',')
    print '  notes = %s' % notes

    #------------------------------------------
    #TEST
    #raise SystemExit('\n***TEST*** exit')
    #------------------------------------------

    #------------------------------------------
    #set variables
    histName = histBaseName
    if bTaggingWP != '':
        histName += '_' + bTaggingWP
    if args.debug:
        print '\nhist name = %s' % histName

    #------------------------------------------
    #get directory of this script
    localdir = os.path.dirname(os.path.realpath(__file__))

    #------------------------------------------
    #check input file
    if not os.path.isfile(QCDFileName):
        raise SystemExit('\n***ERROR*** couldn\'t find QCD file: %s' %
                         QCDFileName)

    #------------------------------------------
    #get list of available mass points
    massValuesAvailable = []
    fileList = os.listdir(localdir + '/../inputs/' + model + '/')
    for sigFileName in sorted(fileList):
        if not '.root' in sigFileName:
            continue
        massValuesAvailable.append(
            float(sensitivityTools.getSignalMass(sigFileName)))
    massValuesAvailable.sort(key=float)
    #massValues = [m for m in massValues if m >= 10000.0] #DEBUG
    #massValues = [3000.0] #DEBUG
    print '\navailable mass values [GeV]: %s' % massValuesAvailable

    massValues = list(set(massValuesConfig) & set(massValuesAvailable))
    massValues.sort(key=float)
    print 'using mass values [GeV]: %s' % massValues

    #------------------------------------------
    #TEST
    #raise SystemExit('\n***TEST*** exit')
    #------------------------------------------

    #------------------------------------------
    #initial luminosity value
    lumi = lumiMin

    #------------------------------------------
    #arrays for sensitivity scan graphs
    gmass = np.array(massValues)
    glumi = np.zeros_like(gmass)

    #------------------------------------------
    #loop over mass values and luminosity
    while len(massValues) > 0 and lumi <= lumiMax:

        #------------------------------------------
        print '\n\n******************************************'
        print '******************************************'
        print 'luminosity = %s ^fb-1' % lumi
        print 'mass values [GeV]: %s' % massValues
        print '******************************************'
        print '******************************************\n'

        #luminosity string
        slumi = ('%.1f' % float(str(lumi).replace('p', '.'))).replace('.', 'p')

        #------------------------------------------
        #STEP 01 - get data-like QCD for the given luminosity
        #os.system('python -u step01.getDataLikeQCD.py --config %s --lumi %.1f --patch --tag %s --plot'%(args.configFileName, lumi, args.tag))

        #------------------------------------------
        #TEST
        #raise SystemExit('\n***TEST*** exit')
        #------------------------------------------

        #------------------------------------------
        #STEP 02 - inject signal
        #dataLikeQCDFileName = localdir+'/../results/datalikeQCD/datalikeQCD.'+slumi+'.ifb.'+histName+'.%i'%nPar+'.par.%i'%seed+'.seed.'+args.tag+'.root'
        dataLikeQCDFileName = localdir + '/../results/datalikeQCD/NLO_yStar_06_29p7ifb_forSig.root'

        os.system(
            'python -u step02.injectDataLikeSignal.py --config %s --QCDFile %s --lumi %.1f --tag %s --plot'
            % (args.configFileName, dataLikeQCDFileName, lumi, args.tag))

        #------------------------------------------
        #TEST
        #raise SystemExit('\n***TEST*** exit')
        #------------------------------------------

        #------------------------------------------
        #loop over signal mass values
        removeMassValues = []
        for mass in massValues:

            #------------------------------------------
            #signal mass
            print '\n******************************************'
            print 'SearchPhase'
            print '\n%s mass = %s GeV' % (model, mass)
            print 'lumi = %s fb^-1' % lumi
            print '******************************************'

            #------------------------------------------
            #step 03 - search for dijet mass resonances
            signalPlusBackgroundFileName = localdir + '/../results/signalplusbackground/signalplusbackground.' + model + '.' + slumi + '.ifb.' + histName + '.%i' % nPar + '.par.%i' % seed + '.seed.' + args.tag + '.root'
            os.system(
                'python -u step03.searchPhase.py --config %s --file %s --mass %s --lumi %s --tag %s --plot'
                % (args.configFileName, signalPlusBackgroundFileName,
                   int(mass), lumi, args.tag))

            #------------------------------------------
            #TEST
            #raise SystemExit('\n***TEST*** exit')
            #------------------------------------------

            #------------------------------------------
            #check SearchPhase results
            print '\n******************************************'
            print 'SearchPhase results summary'
            print '\n%s mass = %s GeV' % (model, mass)
            print 'lumi = %s fb^-1' % lumi

            spFileName = localdir + '/../results/searchphase/searchphase.' + model + '.%i' % int(
                mass
            ) + '.GeV.' + slumi + '.ifb.' + histName + '.%i' % nPar + '.par.%i' % seed + '.seed.' + args.tag + '.root'

            if not os.path.isfile(spFileName):
                raise SystemExit(
                    '\n***ERROR*** couldn\'t find SearchPhase output file for %s mass %s GeV: %s'
                    % (model, int(mass), spFileName))

            spFile = ROOT.TFile(spFileName, 'READ')
            spSignificance = spFile.Get('residualHist')
            spSignificance.SetAxisRange(
                spSignificance.GetBinLowEdge(spSignificance.FindBin(2000.)),
                2e4, "X")

            #------------------------------------------
            #fill sensitivity scan graph and remove discovered signal mass values from the list
            bumpHunterStatOfFitToData = spFile.Get("bumpHunterStatOfFitToData")
            bumpHunterStatValue = bumpHunterStatOfFitToData[0]
            bumpHunterPValue = bumpHunterStatOfFitToData[1]
            bumpHunterPValueErr = bumpHunterStatOfFitToData[2]

            bumpHunterPLowHigh = spFile.Get('bumpHunterPLowHigh')
            #bumpHunterStatValue = bumpHunterPLowHigh[0]
            bumpLowEdge = bumpHunterPLowHigh[1]
            bumpHighEdge = bumpHunterPLowHigh[2]

            print "bump range: %s GeV - %s GeV" % (bumpLowEdge, bumpHighEdge)
            print "BumpHunter stat = %s" % bumpHunterStatValue
            print "BumpHunter p-value = %s +/- %s" % (bumpHunterPValue,
                                                      bumpHunterPValueErr)

            bumpHunterSigmas = ROOT.Math.normal_quantile(
                1. - bumpHunterPValue, 1.)
            print "BumpHunter sigmas = %s" % bumpHunterSigmas

            if bumpHunterSigmas > 5.:
                massIndex = np.where(gmass == mass)
                glumi[massIndex] = lumi
                removeMassValues.append(mass)

            print '******************************************'
            #------------------------------------------

            #------------------------------------------
            #TEST
            #raise SystemExit('\n***TEST*** exit')
            #------------------------------------------

        #------------------------------------------
        #remove mass points discovered
        for removeMass in removeMassValues:
            massValues.remove(removeMass)
        print '\n******************************************'
        print 'available mass values [GeV]: %s' % massValues
        print '******************************************'

        #------------------------------------------
        #increase luminosity
        lumiSteps = [
            0.1, 0.2, 0.3, 0.5, 1.0, 2.0, 3.0, 5.0, 10.0, 20.0, 30.0, 50.0,
            100.0, 200.0, 300.0, 500.0, 1000.0
        ]
        #lumiSteps = [0.1, 0.2, 0.5, 1.0, 2.0, 5.0] #SHORT
        if lumi < lumiSteps[0]:
            lumi = lumiSteps[0]
        elif lumi >= lumiSteps[-1]:
            lumi *= 2.
        else:
            for ii in xrange(len(lumiSteps) - 1):
                if lumi >= lumiSteps[ii] and lumi < lumiSteps[ii + 1]:
                    lumi = lumiSteps[ii + 1]
                    break

    #------------------------------------------
    #print sensitivity scan results
    print '\n******************************************'
    print 'sensitivity scan results'
    print '******************************************\n'
    print 'mass = %s' % gmass
    print 'lumi = %s' % glumi
def doSensitivityScan(args):

    print '\n******************************************'
    print 'sensitivity scan'
    
    #------------------------------------------
    #input parameters
    print '\ninput parameters:'
    argsdict = vars(args)
    for ii in xrange(len(argsdict)):
        print '  %s = %s'%(argsdict.keys()[ii], argsdict.values()[ii],)
    
    #------------------------------------------
    #get directory of this script
    localdir = os.path.dirname(os.path.realpath(__file__))
	    
    #------------------------------------------
    #get settings
    print '\nconfig settings:'
    settings = ROOT.TEnv()
    if settings.ReadFile(args.configFileName,ROOT.EEnvLevel(0)) != 0:
        raise SystemExit('***ERROR*** could not find sensitivity scan config file: %s'%args.configFileName)

    model = settings.GetValue('signalModel','')
    print '  signal model = %s'%model

    modelLabel = settings.GetValue('signalModelLabel','').replace('"','')
    print '  signal model label = %s'%modelLabel

    massValuesConfig = settings.GetValue('signalMasses','2000,3000,4000').split(',')
    massValuesConfig = [float(m) for m in massValuesConfig]
    print '  signal masses [GeV] = %s'%massValuesConfig
    
    lumiMin = float(settings.GetValue('luminosityMin','0.1'))
    #if lumiMin < 0.1: #fb^-1
    #    lumiMin = 0.1 #fb^-1
    print '  minimum luminosity = %s'%lumiMin

    lumiMax = float(settings.GetValue('luminosityMax','10.'))
    print '  maximum luminosity = %s'%lumiMax
    if lumiMax > 10000.: #fb^-1
        lumiMax = 10000. #fb^-1

    QCDFileName = settings.GetValue('QCDFile','../inputs/QCD/histograms.mc.dijet.1p0.ifb.root')
    print '  QCD input file = %s'%QCDFileName
    
    histBaseName = settings.GetValue('histBaseName','mjj')
    print '  hist base name = %s'%histBaseName

    bTaggingWP = settings.GetValue('bTaggingWP','') #fix_8585
    print '  b-tagging WP = %s'%bTaggingWP

    axisLabel = settings.GetValue('axisLabel','m [GeV]')
    print '  hist x-axis label = %s'%axisLabel

    nPar = int(settings.GetValue('nFitParameters','3'))
    print '  n fit parameters = %s'%nPar

    nPseudoExps = settings.GetValue('nPseudoExperiments','1000')
    print '  number of pseudo-experiments = %s'%nPseudoExps

    thresholdMass = float(settings.GetValue('thresholdMass','1100.'))
    print '  threshold mass = %s'%thresholdMass

    seed = float(settings.GetValue('randomSeed','0'))
    print '  random seed = %s'%seed

    notes = settings.GetValue('notes','').split(',')
    print '  notes = %s'%notes

    #------------------------------------------
    #TEST
    #raise SystemExit('\n***TEST*** exit')
    #------------------------------------------

    #------------------------------------------
    #set variables
    histName = histBaseName
    if bTaggingWP != '':
        histName+='_'+bTaggingWP
    if args.debug:
        print '\nhist name = %s'%histName

    #------------------------------------------
    #get directory of this script
    localdir = os.path.dirname(os.path.realpath(__file__))

    #------------------------------------------
    #check input file
    if not os.path.isfile(QCDFileName):
        raise SystemExit('\n***ERROR*** couldn\'t find QCD file: %s'%QCDFileName)

    #------------------------------------------

    for windowWidth in [9]:
        
      print "***************** Window Width "+str(windowWidth)+" ********************"

      #get list of available mass points
      massValuesAvailable = []
      fileList = os.listdir(localdir+'/../inputs/'+model+'/')
      for sigFileName in sorted(fileList):
          if not '.root' in sigFileName:
              continue
          massValuesAvailable.append( float( sensitivityTools.getSignalMass(sigFileName)))
      massValuesAvailable.sort(key=float)
      #massValues = [m for m in massValues if m >= 10000.0] #DEBUG
      #massValues = [3000.0] #DEBUG
      print '\navailable mass values [GeV]: %s'%massValuesAvailable

      massValues = list( set(massValuesConfig) & set(massValuesAvailable) )
      massValues.sort(key=float)
      print 'using mass values [GeV]: %s'%massValues
    
      #------------------------------------------
      #TEST
      #raise SystemExit('\n***TEST*** exit')
      #------------------------------------------

      #------------------------------------------
      #initial luminosity value
      lumi = lumiMin

      #------------------------------------------
      #arrays for sensitivity scan graphs
      gmass = np.array(massValues)
      glumi = np.zeros_like(gmass)

      lumiSteps = [0.1,0.2,0.3,0.5,0.7]+range(1,10)+range(10,20,1)+range(20,30,2)+range(30,50,3)+range(50,100,5)+range(100,200,10)+range(200,1000,50)
      #reset lumi to lowest value

      #------------------------------------------
      #loop over mass values
      for mass in massValues : #and lumi <= lumiMax:
        lumiStep = 0
        previousMassDiscoveryLumi = 0
        #doing 1000/fb doesn't make much sense, may as well give up?
        while lumi<(lumiSteps[-1]) :
          ##add algorithm here...
            
          #check it makes sense to run this mass/lumi combination
          #####TLA2016 thresholds: don't test if below a given lumi as too low
          if mass == 550 and lumi < 30 and not lumi == 0.0:
             continue
          if mass == 650 and lumi <1 and not lumi == 0.0:
            continue
          if mass == 750 and lumi <1 and not lumi == 0.0:
            continue
          if mass == 850 and lumi<1 and not lumi == 0.0:
            continue
          if mass == 950 and lumi<1 and not lumi == 0.0:
            continue
          if mass == 1050 and lumi<1 and not lumi == 0.0:
            continue
          if mass == 1250 and lumi<0.7 and not lumi == 0.0:
            continue
          if mass == 1450 and lumi<2 and not lumi == 0.0:
            continue
          if mass == 1650 and lumi<1 and not lumi == 0.0:
            continue
          if mass == 1850 and lumi<1 and not lumi == 0.0:
            continue
        
          #------------------------------------------
          print '\n\n******************************************'
          print '******************************************'
          print 'testing:'
          print 'luminosity = %s ^fb-1'%lumi
          print 'mass values [GeV]: %s'%massValues
          print '******************************************'
          print '******************************************\n'

          #luminosity string
          slumi = ('%.1f'% float( str(lumi).replace('p','.'))).replace('.','p')
          
          #------------------------------------------
          #STEP 01 - get data-like QCD for the given luminosity
          #os.system('python -u step01.getDataLikeQCD.py --config %s --lumi %.1f --tag %s --patch --plot --batch --debug -b'%(args.configFileName, lumi, args.tag)) #HANNO: Commented out to skip

          #------------------------------------------
          #TEST
          #raise SystemExit('\n***TEST*** exit')
          #------------------------------------------
          
          #------------------------------------------
          #STEP 02 - inject signal (fast, do it anyway)
          #dataLikeQCDFileName = localdir+'/../results/datalikeQCD/datalikeQCD.'+slumi+'.ifb.'+histName+'.%i'%nPar+'.par.%i'%seed+'.seed.'+args.tag+'.root' #HANNO: Fixed Lumi in line below!!!
          dataLikeQCDFileName = localdir+'/../results/datalikeQCD/NLO_yStar_06_29p7ifb_forSig.root' #HANNO: FIXED NAME
          os.system('python -u step02.injectDataLikeSignal.py --config %s --QCDFile %s --lumi %.1f --tag %s --plot --batch -b --debug'%(args.configFileName, dataLikeQCDFileName, lumi, args.tag))
          print('python -u step02.injectDataLikeSignal.py --config %s --QCDFile %s --lumi %.1f --tag %s --plot --batch -b --debug'%(args.configFileName, dataLikeQCDFileName, lumi, args.tag))

          #------------------------------------------
          #TEST
          #raise SystemExit('\n***TEST*** exit')
          #------------------------------------------

          #signal mass
          print '\n******************************************'
          print 'Running SearchPhase'
          print '\n%s mass = %s GeV'%(model, mass)
          print 'lumi = %s fb^-1'%lumi
          print 'WindowWidth for SWiFt = %s'%windowWidth
          print '******************************************'

          #------------------------------------------
          #step 03 - search for dijet mass resonances (slow, only do it if needed)
          signalPlusBackgroundFileName = localdir+'/../results/signalplusbackground/signalplusbackground.'+model+'.'+slumi+'.ifb.'+histName+'.%i'%nPar+'.par.%i'%seed+'.seed.'+args.tag+'.root'
          os.system('python -u step03.searchPhase.py --config %s --file %s --mass %s --lumi %s --window %s --tag %s --batch -b --debug'%(args.configFileName, signalPlusBackgroundFileName, int(mass), lumi, windowWidth, args.tag)) #Hanno: Removed --plot for now
          print('python -u step03.searchPhase.py --config %s --file %s --mass %s --lumi %s --window %s --tag %s --batch -b --debug'%(args.configFileName, signalPlusBackgroundFileName, int(mass), lumi, windowWidth, args.tag)) #Hanno: Removed --plot for now

          #------------------------------------------
          #TEST
          #raise SystemExit('\n***TEST*** exit')
          #------------------------------------------

          #------------------------------------------
          #check SearchPhase results
          print '\n******************************************'
          print 'SearchPhase results summary'
          print '\n%s mass = %s GeV'%(model, mass)
          print 'lumi = %s fb^-1'%lumi

          spFileName = localdir+'/../results/searchphase/searchphase.'+model+'.%i'%int(mass)+'.GeV.'+slumi+'.ifb.'+histName+'.%i'%nPar+'.par.%i'%seed+'.seed.'+args.tag+'.window'+str(windowWidth)+'.root'
              
          if not os.path.isfile(spFileName):
              raise SystemExit('\n***ERROR*** couldn\'t find SearchPhase output file for %s mass %s GeV: %s'%(model, int(mass), spFileName))

          spFile = ROOT.TFile(spFileName,'READ')
          spSignificance = spFile.Get('residualHist')
          spSignificance.SetAxisRange( spSignificance.GetBinLowEdge( spSignificance.FindBin(2000.) ), 2e4, "X")

          #------------------------------------------
          #fill sensitivity scan graph and remove discovered signal mass values from the list
          bumpHunterStatOfFitToData = spFile.Get("bumpHunterStatOfFitToData")
          bumpHunterStatValue = bumpHunterStatOfFitToData[0]
          bumpHunterPValue    = bumpHunterStatOfFitToData[1]
          bumpHunterPValueErr = bumpHunterStatOfFitToData[2]

          bumpHunterPLowHigh = spFile.Get('bumpHunterPLowHigh')
          #bumpHunterStatValue = bumpHunterPLowHigh[0]
          bumpLowEdge         = bumpHunterPLowHigh[1]
          bumpHighEdge        = bumpHunterPLowHigh[2]

          print "bump range: %s GeV - %s GeV"%(bumpLowEdge,bumpHighEdge)
          print "BumpHunter stat = %s"%bumpHunterStatValue
          print "BumpHunter p-value = %s +/- %s"%(bumpHunterPValue, bumpHunterPValueErr)

          bumpHunterSigmas = ROOT.Math.normal_quantile(1.-bumpHunterPValue, 1.)
          print "BumpHunter sigmas = %s"%bumpHunterSigmas
          
          #if bumpHunterSigmas > 5.:
          if bumpHunterPValue < 0.01:
              massIndex = np.where(gmass == mass)
              glumi[massIndex] = lumi
              print '******************************************'
              #removeMassValues.append(mass)
              break # get out of the lumi loop, go to next mass point
          else :#increment lumi
          #elif bumpHunterPValue < 0.05: lumiStep = lumiStep+1 #close enough, take one step in the lumi
          #elif bumpHunterPValue < 0.1: lumiStep = (lumiStep+1)*2 #sort of close enough, take two step in the lumi
          #else : lumiStep = (lumiStep+1)*5 #not even close, take five lumi steps

            #------------------------------------------

            #------------------------------------------
            #TEST
            #raise SystemExit('\n***TEST*** exit')
            #------------------------------------------


      #------------------------------------------
      #print sensitivity scan results
      print '\n******************************************'
      print 'sensitivity scan results'
      print '******************************************\n'
      print 'mass = %s'%gmass
      print 'lumi = %s'%glumi
Ejemplo n.º 6
0
def doSensitivityScan(args):

    fout.write('\n******************************************')
    fout.write('\n******************************************')

    #------------------------------------------
    #input parameters
    fout.write('\nSetting input parameters:')
    argsdict = vars(args)
    for ii in xrange(len(argsdict)):
        print '  %s = %s' % (
            argsdict.keys()[ii],
            argsdict.values()[ii],
        )

    #------------------------------------------
    #get directory of this script
    localdir = os.path.dirname(os.path.realpath(__file__))
    #------------------------------------------
    #get settings
    fout.write('\n config settings:')
    settings = ROOT.TEnv()
    if settings.ReadFile(args.configFileName, ROOT.EEnvLevel(0)) != 0:
        raise SystemExit(
            '***ERROR*** could not find sensitivity scan config file: %s' %
            args.configFileName)

    model = settings.GetValue('signalModel', '')
    fout.write('\n  signal model = %s' % model)

    modelLabel = settings.GetValue('signalModelLabel', '').replace('"', '')
    fout.write('\n  signal model label = %s' % modelLabel)

    massValuesConfig = settings.GetValue('signalMasses',
                                         '2000,3000,4000').split(',')
    massValuesConfig = [float(m) for m in massValuesConfig]
    fout.write('\n  signal masses [GeV] = %s' % massValuesConfig)

    lumiMin = float(settings.GetValue('luminosityMin', '0.1'))
    #if lumiMin < 0.1: #fb^-1
    #    lumiMin = 0.1 #fb^-1
    fout.write('\n  minimum luminosity = %s' % lumiMin)

    lumiMax = float(settings.GetValue('luminosityMax', '10.'))
    fout.write('\n  maximum luminosity = %s' % lumiMax)
    if lumiMax > 10000.:  #fb^-1
        lumiMax = 10000.  #fb^-1

    QCDFileName = settings.GetValue(
        'QCDFile', '../inputs/QCD/histograms.mc.dijet.1p0.ifb.root')
    fout.write('\n  QCD input file = %s' % QCDFileName)

    histBaseName = settings.GetValue('histBaseName', 'mjj')
    fout.write('\n  hist base name = %s' % histBaseName)

    bTaggingWP = settings.GetValue('bTaggingWP', '')  #fix_8585
    fout.write('\n  b-tagging WP = %s' % bTaggingWP)

    axisLabel = settings.GetValue('axisLabel', 'm [GeV]')
    fout.write('\n  hist x-axis label = %s' % axisLabel)

    nPar = int(settings.GetValue('nFitParameters', '3'))
    fout.write('\n  n fit parameters = %s' % nPar)

    nPseudoExps = settings.GetValue('nPseudoExperiments', '1000')
    fout.write('\n  number of pseudo-experiments = %s' % nPseudoExps)

    thresholdMass = float(settings.GetValue('thresholdMass', '1100.'))
    fout.write('\n  threshold mass = %s' % thresholdMass)

    seed = float(settings.GetValue('randomSeed', '0'))
    fout.write('\n  random seed = %s' % seed)

    notes = settings.GetValue('notes', '').split(',')
    fout.write('\n  notes = %s' % notes + "\n")

    #------------------------------------------
    #set variables
    histName = histBaseName
    if bTaggingWP != '':
        histName += '_' + bTaggingWP
    if args.debug:
        print '\nhist name = %s' % histName

    #------------------------------------------
    #get directory of this script
    localdir = os.path.dirname(os.path.realpath(__file__))

    #------------------------------------------
    #check input file
    if not os.path.isfile(QCDFileName):
        raise SystemExit('\n***ERROR*** couldn\'t find QCD file: %s' %
                         QCDFileName)

    fout.write('\nDone setting initial parameters and checking inputs\n')
    fout.write('******************************************\n')
    fout.write('******************************************\n')

    #------------------------------------------
    #TEST
    #raise SystemExit('\n***TEST*** exit')
    #------------------------------------------

    for windowWidth in [9]:  #add 9 later

        fout.write("******* Testing Window Width " + str(windowWidth) +
                   " ******\n")

        #get list of available mass points
        massValuesAvailable = []
        fileList = os.listdir(localdir + '/../inputs/' + model + '/')
        for sigFileName in sorted(fileList):
            if not '.root' in sigFileName:
                continue
            massValuesAvailable.append(
                float(sensitivityTools.getSignalMass(sigFileName)))

        massValuesAvailable.sort(key=float)
        #massValues = [m for m in massValues if m >= 10000.0] #DEBUG
        #massValues = [3000.0] #DEBUG
        #print '\navailable mass values [GeV]: %s'%massValuesAvailable

        massValues = list(set(massValuesConfig) & set(massValuesAvailable))
        massValues.sort(key=float)
        massValues.reverse()
        fout.write('******* Using list of mass values [GeV]: %s' % massValues +
                   "\n")
        #------------------------------------------
        #TEST
        #raise SystemExit('\n***TEST*** exit')
        #------------------------------------------

        #initial luminosity value, coming from config file
        lumi = lumiMin

        #------------------------------------------
        #arrays for sensitivity scan graphs
        gmass = np.array(massValues)
        glumi = np.zeros_like(gmass)

        #not used now, just upper bound
        lumiSteps = [0.1, 0.2, 0.3, 0.5, 0.7] + range(1, 10) + range(
            10, 20, 1) + range(20, 30, 2) + range(30, 50, 3) + range(
                50, 100, 5) + range(100, 200, 10) + range(200, 1000, 50)
        #reset lumi to lowest value
        lumiStep = 0

        lumiIncrement = 1  #this gets decided mass point by mass point
        #loop over mass values
        for mass in massValues:  #and lumi <= lumiMax:

            setInitialLumi = False
            #print "******* Testing Mass "+str(mass)+" ******"

            while lumi < (lumiSteps[-1]):

                if mass == 650 and windowWidth == 9 and setInitialLumi == False:
                    lumi = 60
                    setInitialLumi = True
                if mass == 675 and windowWidth == 9 and setInitialLumi == False:
                    lumi = 40
                    setInitialLumi = True
                if mass == 700 and windowWidth == 9 and setInitialLumi == False:
                    lumi = 26
                    setInitialLumi = True
                if mass == 725 and windowWidth == 9 and setInitialLumi == False:
                    lumi = 20
                    setInitialLumi = True
                if mass == 750 and windowWidth == 9 and setInitialLumi == False:
                    lumi = 10
                    setInitialLumi = True
                if mass == 1050 and windowWidth == 9 and setInitialLumi == False:
                    lumi = 12
                    setInitialLumi = True
                if mass == 1450 and windowWidth == 9 and setInitialLumi == False:
                    lumi = 10
                    setInitialLumi = True
                if mass == 1750 and windowWidth == 9 and setInitialLumi == False:
                    lumi = 5
                    setInitialLumi = True
                if mass == 1850 and windowWidth == 9 and setInitialLumi == False:
                    lumi = 3
                    setInitialLumi = True

                #luminosity string
                slumi = ('%.1f' % float(str(lumi).replace('p', '.'))).replace(
                    '.', 'p')
                fout.write("******* Testing Mass, Lumi " + str(mass) +
                           " GeV, " + str(lumi) + "/fb ******\n")

                #------------------------------------------
                #STEP 01 - get data-like QCD for the given luminosity
                #os.system('python -u step01.getDataLikeQCD.py --config %s --lumi %.1f --tag %s --patch --plot --batch --debug -b'%(args.configFileName, lumi, args.tag)) #HANNO: Commented out to skip

                #------------------------------------------
                #TEST
                #raise SystemExit('\n***TEST*** exit')
                #------------------------------------------

                #------------------------------------------
                fout.write('******************************************\n')
                fout.write('******************************************\n')
                fout.write('Injecting signal\n')

                #STEP 02 - inject signal (fast, do it anyway)
                #dataLikeQCDFileName = localdir+'/../results/datalikeQCD/datalikeQCD.'+slumi+'.ifb.'+histName+'.%i'%nPar+'.par.%i'%seed+'.seed.'+args.tag+'.root' #HANNO: Fixed Lumi in line below!!!
                debugString = ""
                if args.debug:
                    debugString = "--debug"
                #dataLikeQCDFileName = localdir+'/../results/datalikeQCD/NLO_yStar_06_29p7ifb_forSig.root' #HANNO: FIXED NAME
                dataLikeQCDFileName = localdir + '/../results/datalikeQCD/Pseudodata_from_DSJ100yStar06_TriggerJets_J100_yStar06_mjj_2016binning_TLArange_data_4param_G_upTo4000.29p7.ifb.root'  #CD: FIXED NAME
                #why calling python within python....but not doing so as it would require major rewrite
                print(
                    'python -u step02.injectDataLikeSignal.py --config %s --QCDFile %s --lumi %.1f --tag %s --plot --batch -b --debug'
                    %
                    (args.configFileName, dataLikeQCDFileName, lumi, args.tag))
                os.system(
                    'python -u step02.injectDataLikeSignal.py --config %s --QCDFile %s --lumi %.1f --tag %s --plot --batch -b %s'
                    % (args.configFileName, dataLikeQCDFileName, lumi,
                       args.tag, debugString))
                #processOutput = ""
                #try :
                #  processOutput = subprocess.check_output('python -u step02.injectDataLikeSignal.py --config %s --QCDFile %s --lumi %.1f --tag %s --plot --batch -b %s'%(args.configFileName, dataLikeQCDFileName, lumi, args.tag,debugString), shell=True)
                #except :
                #  print "Signal-injected files existed already!"
                #print processOutput

                fout.write('\nDone injecting signal\n')
                fout.write('******************************************\n')
                fout.write('******************************************\n')

                #lumi = lumiSteps[-1]
                #------------------------------------------
                #TEST
                #raise SystemExit('\n***TEST*** exit')
                #------------------------------------------

                #run search phase for this signal mass
                fout.write('******************************************\n')
                fout.write('******************************************\n')
                fout.write('Running SearchPhase\n')
                fout.write('\n%s mass = %s GeV' % (model, mass) + '\n')
                fout.write('lumi = %s fb^-1' % lumi + '\n')
                fout.write('WindowWidth for SWiFt = %s' % windowWidth + '\n')
                fout.write('******************************************\n')
                fout.write('******************************************\n')

                #------------------------------------------
                #step 03 - search for dijet mass resonances (slow, only do it if needed)
                signalPlusBackgroundFileName = localdir + '/../results/signalplusbackground/signalplusbackground.' + model + '.' + slumi + '.ifb.' + histName + '.%i' % nPar + '.par.%i' % seed + '.seed.' + args.tag + '.root'
                print(
                    'python -u step03.searchPhase.py --config %s --file %s --mass %s --lumi %s --window %s --functionParam %s --nPseudoExps %s --tag %s --batch -b --debug'
                    %
                    (args.configFileName, signalPlusBackgroundFileName,
                     int(mass), lumi, windowWidth, nPar, nPseudoExps, args.tag)
                )  #Hanno: Removed --plot for now
                #try :
                #  process = subprocess.check_output('python -u step03.searchPhase.py --config %s --file %s --mass %s --lumi %s --window %s --functionParam %s --nPseudoExps %s --tag %s --batch -b --debug'%(args.configFileName, signalPlusBackgroundFileName, int(mass), lumi, windowWidth, nPar, nPseudoExps, args.tag), shell=True)
                #except :
                #  raise SystemExit('\n***Something went wrong with the search phase***')

                os.system(
                    'python -u step03.searchPhase.py --config %s --file %s --mass %s --lumi %s --window %s --functionParam %s --nPseudoExps %s --tag %s --batch -b --debug'
                    % (args.configFileName, signalPlusBackgroundFileName,
                       int(mass), lumi, windowWidth, nPar, nPseudoExps,
                       args.tag))  #Hanno: Removed --plot for now
                #------------------------------------------
                #check SearchPhase results

                #this needs to be the same name as the file we made in the search phase - leave the 4param junk in for now
                #searchphase.Gauss_width15.620.GeV.500p0.ifb.mjj_Gauss.4.par.102.seed.NLO2015_29p7_sensitivityScan_ww13_case5Param
                spFileName = localdir + '/../results/searchphase/searchphase.' + model + '.%i' % int(
                    mass
                ) + '.GeV.' + slumi + '.ifb.' + histName + '.%i' % nPar + '.par.%i' % seed + '.seed.' + args.tag + '_ww' + str(
                    windowWidth) + '.root'

                if not os.path.isfile(spFileName):
                    raise SystemExit(
                        '\n***ERROR*** couldn\'t find SearchPhase output file for %s mass %s GeV: %s'
                        % (model, int(mass), spFileName))

                spFile = ROOT.TFile(spFileName, 'READ')
                spSignificance = spFile.Get(
                    'residualHist'
                )  #this is not quite the significance graph but it works the same for bin edges
                spSignificance.SetAxisRange(
                    spSignificance.GetBinLowEdge(
                        spSignificance.FindBin(2000.)), 2e4, "X")

                #------------------------------------------
                #fill sensitivity scan graph and remove discovered signal mass values from the list
                bumpHunterStatOfFitToData = None
                try:
                    bumpHunterStatOfFitToData = spFile.Get(
                        "bumpHunterStatOfFitToData")
                except:
                    print "FIT FAILED!!! Try previous lumi with more pseudoexperiments"
                    nPseudoExps = nPseudoExps + 100
                    lumi = lumi - 1
                    continue

                bumpHunterStatValue = bumpHunterStatOfFitToData[0]
                bumpHunterPValue = bumpHunterStatOfFitToData[1]
                bumpHunterPValueErr = bumpHunterStatOfFitToData[2]

                bumpHunterPLowHigh = spFile.Get('bumpHunterPLowHigh')
                #bumpHunterStatValue = bumpHunterPLowHigh[0]
                bumpLowEdge = bumpHunterPLowHigh[1]
                bumpHighEdge = bumpHunterPLowHigh[2]

                excludeWindowVector = spFile.Get('excludeWindowNums')
                excludedWindow = excludeWindowVector[0]
                excludedWindowLow = excludeWindowVector[1]
                excludedWindowHigh = excludeWindowVector[2]

                fout.write('\n******************************************')
                fout.write('SearchPhase results summary\n')
                fout.write('\n%s mass = %s GeV' % (model, mass) + '\n')
                fout.write('lumi = %s fb^-1' % lumi + '\n')
                fout.write("bump range: %s GeV - %s GeV" %
                           (bumpLowEdge, bumpHighEdge) + '\n')
                fout.write("BumpHunter stat = %s" % bumpHunterStatValue + '\n')
                fout.write("BumpHunter p-value = %s +/- %s" %
                           (bumpHunterPValue, bumpHunterPValueErr) + '\n')
                fout.write("excluded window (1=yes, 0=no): " +
                           str(excludedWindow) + '\n')
                fout.write("window low edge = %s" % excludedWindowLow + '\n')
                fout.write("window high edge = %s" % excludedWindowHigh + '\n')

                bumpHunterSigmas = ROOT.Math.normal_quantile(
                    1. - bumpHunterPValue, 1.)
                fout.write("BumpHunter sigmas = %s" % bumpHunterSigmas + '\n')

                #if bumpHunterSigmas > 5.:
                if bumpHunterPValue < 0.01 and int(excludedWindow) > 0:
                    massIndex = np.where(gmass == mass)
                    glumi[massIndex] = lumi
                    fout.write("******************************************" +
                               '\n')
                    #removeMassValues.append(mass)
                    fout.write("Discovery, with window removal" + '\n')
                    break  # get out of the lumi loop, go to next mass point
                #else :#increment lumi
                elif bumpHunterPValue < 0.01 and int(excludedWindow) == 0:
                    #massIndex = np.where(gmass == mass)
                    #glumi[massIndex] = lumi
                    fout.write("******************************************" +
                               '\n')
                    #removeMassValues.append(mass)
                    fout.write(
                        "Discovery, without window removal - increment lumi" +
                        '\n')
                    lumi = lumi + lumiIncrement
                else:
                    if lumi * bumpHunterPValue > 1:
                        lumi = (
                            lumi + 1 * lumi * bumpHunterPValue
                        )  #not even close, take five lumi steps, was 0.5 before
                        fout.write("Not too close. try next time with lumi: " +
                                   str(lumi) + '\n')
                    else:
                        lumi = lumi + lumiIncrement
                        fout.write("Close enough. try next time with lumi: " +
                                   str(lumi) + '\n')

            #------------------------------------------
            #print sensitivity scan results
                fout.write('\n******************************************\n')
                fout.write(
                    'sensitivity scan results for all points so far, discovery happened at:\n'
                )
                fout.write('******************************************\n')
                fout.write('mass = %s' % gmass)
                fout.write('lumi = %s' % glumi)