hltExoticaPostProcessors_cff Namespace Reference

Functions
def	make_efficiency_string (objtype, plot_type, triggerpath)
def	make_exo_postprocessor (analysis_name, plot_types=["TurnOn1", TurnOn2, TurnOn3, TurnOn4, EffEta, EffPhi, EffDxy, object_types=["Mu", refittedStandAloneMuons, Track, Ele, Photon, PFTau, PFJet, MET, PFMET, PFMHT, GenMET, CaloJet, CaloMET, CaloMHT, l1MET, extra_str_templates=[])

Variables
	hltExoticaDSTJets
	hltExoticaDSTMuons
	hltExoticaEleMu
	hltExoticaHTDisplacedJets
	hltExoticaPhotonMET
	hltExoticaPostCaloHT
	hltExoticaPostDiPhoton
	hltExoticaPostDisplacedDimuon
	hltExoticaPostDisplacedMuEG
	hltExoticaPostHighPtDielectron
	hltExoticaPostHighPtDimuon
	hltExoticaPostHighPtElectron
	hltExoticaPostHighPtPhoton
	hltExoticaPostJetNoBptx
	hltExoticaPostLowPtDielectron
	hltExoticaPostLowPtDimuon
	hltExoticaPostLowPtElectron
	hltExoticaPostLowPtTrimuon
	hltExoticaPostMETplusTrack
	hltExoticaPostMonojet
	hltExoticaPostMonojetBackup
	hltExoticaPostMuonNoBptx
	hltExoticaPostPFHT
	hltExoticaPostProcessors
	hltExoticaPostPureMET
	hltExoticaPostSingleMuon
	hltExoticaTracklessJets

Function Documentation

def hltExoticaPostProcessors_cff.make_efficiency_string	(		objtype,
			plot_type,
			triggerpath
	)

Definition at line 6 of file hltExoticaPostProcessors_cff.py.

Referenced by make_exo_postprocessor().

def make_efficiency_string(objtype, plot_type, triggerpath):
    # --- IMPORTANT: Add here a elif if you are introduce a new collection
    #                (see EVTColContainer::getTypeString) 
    if objtype == "Mu" :
        objtypeLatex="#mu"
    elif objtype == "refittedStandAloneMuons": 
        objtypeLatex="refittedStandAlone #mu"
    elif objtype == "Ele": 
        objtypeLatex="e"
    elif objtype == "Photon": 
        objtypeLatex="#gamma"
    elif objtype == "PFTau": 
        objtypeLatex="#tau"
    else:
        objtypeLatex=objtype
    numer_description = "# gen %s passed the %s" % (objtypeLatex,triggerpath)
    denom_description = "# gen %s " % (objtypeLatex)

    if plot_type == "TurnOn1":
        title = "pT Turn-On"
        xAxis = "p_{T} of Leading Generated %s (GeV/c)" % (objtype)
        input_type = "gen%sMaxPt1" % (objtype)
    if plot_type == "TurnOn2":
        title = "Next-to-Leading pT Turn-On"
        xAxis = "p_{T} of Next-to-Leading Generated %s (GeV/c)" % (objtype)
        input_type = "gen%sMaxPt2" % (objtype)
    if plot_type == "TurnOn3":
        title = "Next-to-next-to-Leading pT Turn-On"
        xAxis = "p_{T} of Next-to-next-to-Leading Generated %s (GeV/c)" % (objtype)
        input_type = "gen%sMaxPt3" % (objtype)
    if plot_type == "TurnOn4":
        title = "SumEt Turn-On"
        xAxis = "SumEt of Leading Generated %s (GeV/c)" % (objtype)
        input_type = "gen%sSumEt" % (objtype)
    if plot_type == "EffEta":
        title = "#eta Efficiency"
        xAxis = "#eta of Generated %s " % (objtype)
        input_type = "gen%sEta" % (objtype)
    if plot_type == "EffPhi":
        title = "#phi Efficiency"
        xAxis = "#phi of Generated %s " % (objtype)
        input_type = "gen%sPhi" % (objtype)
    if plot_type == "EffDxy":
        title = "Dxy Efficiency"
        xAxis = "Dxy of Generated %s " % (objtype)
        input_type = "gen%sDxy" % (objtype)

    yAxis = "%s / %s" % (numer_description, denom_description)
    all_titles = "%s for trigger %s; %s; %s" % (title, triggerpath,
                                        xAxis, yAxis)
    return "Eff_%s_%s '%s' %s_%s %s" % (input_type,triggerpath,
                    all_titles,input_type,triggerpath,input_type)


#--- IMPORTANT: Trigger are extracted from the hltExoticaValidator_cfi.py module

def hltExoticaPostProcessors_cff.make_exo_postprocessor	(		analysis_name,
			plot_types = ["TurnOn1",
			TurnOn2,
			TurnOn3,
			TurnOn4,
			EffEta,
			EffPhi,
			EffDxy,
			object_types = ["Mu",
			refittedStandAloneMuons,
			Track,
			Ele,
			Photon,
			PFTau,
			PFJet,
			MET,
			PFMET,
			PFMHT,
			GenMET,
			CaloJet,
			CaloMET,
			CaloMHT,
			l1MET,
			extra_str_templates = []
	)

Definition at line 65 of file hltExoticaPostProcessors_cff.py.

References make_efficiency_string(), and python.rootplot.root2matplotlib.replace().

def make_exo_postprocessor(analysis_name, plot_types=["TurnOn1", "TurnOn2", "TurnOn3", "TurnOn4", "EffEta", "EffPhi", "EffDxy"], object_types=["Mu","refittedStandAloneMuons","Track","Ele","Photon","PFTau","PFJet","MET","PFMET","PFMHT","GenMET","CaloJet","CaloMET","CaloMHT","l1MET"], extra_str_templates=[]):
    postprocessor = hltExoticaPostProcessor.clone()
    postprocessor.subDirs = ["HLT/Exotica/" + analysis_name]
    efficiency_strings = [] # List of plots to look for. This is quite a bit larger than the number of plots that will be made.

    # Higgs and SMP postprocessors use this string, but exo does not, for now.
    #efficiency_summary_string = "EffSummaryPaths_" + analysis_name + "_gen ' Efficiency of paths used in " + analysis_name + " ; trigger path ' SummaryPaths_" + analysis_name + "_gen_passingHLT SummaryPaths_" + analysis_name + "_gen"
    #efficiency_strings.append(efficiency_summary_string)
    #efficiency_strings.append(efficiency_summary_string.replace("Generated", "Reconstructed").replace("Gen", "Reco").replace("gen", "rec"))

    for plot_type in plot_types:
        for object_type in object_types:
            for trigger in [x.replace("_v", "") for x in _config.__getattribute__(analysis_name).hltPathsToCheck]:
                this_efficiency_string = make_efficiency_string(object_type, plot_type, trigger)
                efficiency_strings.append(this_efficiency_string)
                efficiency_strings.append(this_efficiency_string.replace("Generated", "Reconstructed").replace("Gen", "Reco").replace("gen", "rec"))

                for str_template in extra_str_templates:
                    this_extra_string = str_template.replace("@ANALYSIS@", analysis_name).replace("@TRIGGER@", trigger)
                    efficiency_strings.append(this_extra_string)
                    efficiency_strings.append(this_extra_stringreplace("Generated", "Reconstructed").replace("Gen", "Reco").replace("gen", "rec"))
    postprocessor.efficiencyProfile = efficiency_strings
    return postprocessor

Variable Documentation

hltExoticaPostProcessors_cff.hltExoticaDSTJets

Definition at line 112 of file hltExoticaPostProcessors_cff.py.

hltExoticaPostProcessors_cff.hltExoticaDSTMuons

Definition at line 113 of file hltExoticaPostProcessors_cff.py.

hltExoticaPostProcessors_cff.hltExoticaEleMu

Definition at line 109 of file hltExoticaPostProcessors_cff.py.

hltExoticaPostProcessors_cff.hltExoticaHTDisplacedJets

Definition at line 111 of file hltExoticaPostProcessors_cff.py.

hltExoticaPostProcessors_cff.hltExoticaPhotonMET

Definition at line 110 of file hltExoticaPostProcessors_cff.py.

hltExoticaPostProcessors_cff.hltExoticaPostCaloHT

Definition at line 100 of file hltExoticaPostProcessors_cff.py.

hltExoticaPostProcessors_cff.hltExoticaPostDiPhoton

Definition at line 97 of file hltExoticaPostProcessors_cff.py.

hltExoticaPostProcessors_cff.hltExoticaPostDisplacedDimuon

Definition at line 104 of file hltExoticaPostProcessors_cff.py.

hltExoticaPostProcessors_cff.hltExoticaPostDisplacedMuEG

Definition at line 103 of file hltExoticaPostProcessors_cff.py.

hltExoticaPostProcessors_cff.hltExoticaPostHighPtDielectron

Definition at line 91 of file hltExoticaPostProcessors_cff.py.

hltExoticaPostProcessors_cff.hltExoticaPostHighPtDimuon

Definition at line 90 of file hltExoticaPostProcessors_cff.py.

hltExoticaPostProcessors_cff.hltExoticaPostHighPtElectron

Definition at line 92 of file hltExoticaPostProcessors_cff.py.

hltExoticaPostProcessors_cff.hltExoticaPostHighPtPhoton

Definition at line 96 of file hltExoticaPostProcessors_cff.py.

hltExoticaPostProcessors_cff.hltExoticaPostJetNoBptx

Definition at line 101 of file hltExoticaPostProcessors_cff.py.

hltExoticaPostProcessors_cff.hltExoticaPostLowPtDielectron

Definition at line 95 of file hltExoticaPostProcessors_cff.py.

hltExoticaPostProcessors_cff.hltExoticaPostLowPtDimuon

Definition at line 94 of file hltExoticaPostProcessors_cff.py.

hltExoticaPostProcessors_cff.hltExoticaPostLowPtElectron

Definition at line 93 of file hltExoticaPostProcessors_cff.py.

hltExoticaPostProcessors_cff.hltExoticaPostLowPtTrimuon

Definition at line 89 of file hltExoticaPostProcessors_cff.py.

hltExoticaPostProcessors_cff.hltExoticaPostMETplusTrack

Definition at line 108 of file hltExoticaPostProcessors_cff.py.

hltExoticaPostProcessors_cff.hltExoticaPostMonojet

Definition at line 105 of file hltExoticaPostProcessors_cff.py.

hltExoticaPostProcessors_cff.hltExoticaPostMonojetBackup

Definition at line 106 of file hltExoticaPostProcessors_cff.py.

hltExoticaPostProcessors_cff.hltExoticaPostMuonNoBptx

Definition at line 102 of file hltExoticaPostProcessors_cff.py.

hltExoticaPostProcessors_cff.hltExoticaPostPFHT

Definition at line 99 of file hltExoticaPostProcessors_cff.py.

hltExoticaPostProcessors_cff.hltExoticaPostProcessors

Definition at line 116 of file hltExoticaPostProcessors_cff.py.

hltExoticaPostProcessors_cff.hltExoticaPostPureMET

Definition at line 107 of file hltExoticaPostProcessors_cff.py.

hltExoticaPostProcessors_cff.hltExoticaPostSingleMuon

Definition at line 98 of file hltExoticaPostProcessors_cff.py.

hltExoticaPostProcessors_cff.hltExoticaTracklessJets

Definition at line 114 of file hltExoticaPostProcessors_cff.py.