configureRecoForPFlow Namespace Reference

Functions
def	configureMetaDataForPFlowCfg (cfgFlags)
def	configureRecoForPFlowCfg (cfgFlags)

Function Documentation

configureMetaDataForPFlowCfg()

def configureRecoForPFlow.configureMetaDataForPFlowCfg

(

cfgFlags

)

Definition at line 3 of file configureRecoForPFlow.py.

def configureMetaDataForPFlowCfg(cfgFlags):
 
    from AthenaConfiguration.ComponentAccumulator import ComponentAccumulator
    cfg = ComponentAccumulator()
 
    from AthenaConfiguration.Enums import MetadataCategory
    from xAODMetaDataCnv.InfileMetaDataConfig import SetupMetaDataForStreamCfg
 
    cfg.merge(
        SetupMetaDataForStreamCfg(
            cfgFlags,
            "AOD",
            createMetadata=[
                MetadataCategory.ByteStreamMetaData,
                MetadataCategory.LumiBlockMetaData,
                MetadataCategory.TruthMetaData,
                MetadataCategory.IOVMetaData,
            ],
        )
    )
 
    return cfg
 

configureRecoForPFlowCfg()

def configureRecoForPFlow.configureRecoForPFlowCfg

(

cfgFlags

)

Definition at line 26 of file configureRecoForPFlow.py.

def configureRecoForPFlowCfg(cfgFlags):
 
    #Given we rebuild topoclusters from the ESD, we should also redo the matching between topoclusters and muon clusters.
    #The resulting links are used to create the global GPF muon-FE links.
    from AthenaConfiguration.ComponentFactory import CompFactory
    from AthenaConfiguration.ComponentAccumulator import ComponentAccumulator
    cfg = ComponentAccumulator()    
    cfg.addEventAlgo(CompFactory.ClusterMatching.CaloClusterMatchLinkAlg("MuonTCLinks", ClustersToDecorate="MuonClusterCollection"))
 
    from JetRecConfig.JetRecConfig import JetRecCfg
    from JetRecConfig.StandardSmallRJets import AntiKt4EMPFlow, AntiKt4LCTopo
    cfg.merge( JetRecCfg(cfgFlags,AntiKt4EMPFlow) )     
    cfg.merge( JetRecCfg(cfgFlags,AntiKt4LCTopo) )
    
    #Now do MET config
 
    #The MET soft term needs the EM and LC origin topoclusters.
    #Since we rebuilt the topoclusters, we must also rebuild these.
    from JetRecConfig.JetRecConfig import JetInputCfg
    from JetRecConfig.StandardJetConstits import stdConstitDic as cst
    cfg.merge(JetInputCfg(cfgFlags,cst.EMTopoOrigin))
    cfg.merge(JetInputCfg(cfgFlags,cst.LCTopoOrigin))
 
    from eflowRec.PFCfg import PFGlobalFlowElementLinkingCfg
    cfg.merge(PFGlobalFlowElementLinkingCfg(cfgFlags))
 
    from tauRec.TauConfig import TauReconstructionCfg
    cfg.merge(TauReconstructionCfg(cfgFlags))
 
    from eflowRec.PFTauRemaps import PFTauRemaps
    tauRemaps = PFTauRemaps()
    for mapping in tauRemaps:
        cfg.merge(mapping)
 
    #Now build the pflow MET association map and then add the METMaker algorithm
    from METReconstruction.METAssociatorCfg import METAssociatorCfg
    cfg.merge(METAssociatorCfg(cfgFlags, 'AntiKt4EMPFlow'))
 
    from METUtilities.METMakerConfig import getMETMakerAlg
    metCA=ComponentAccumulator()    
    metCA.addEventAlgo(getMETMakerAlg('AntiKt4EMPFlow'))
    cfg.merge(metCA)
 
    #This is needed to ensure the convertor is correctly configured for each LHC period
    #Otherwise a default convertor is provided that is not correctly configured for e.g Run4
    from TrkEventCnvTools.TrkEventCnvToolsConfig import TrkEventCnvSuperToolCfg
    cfg.merge(TrkEventCnvSuperToolCfg(cfgFlags))
 
    #Add metadata data to xAOD such that we can run workflows such as creating physval.root 
    # from the output AOD or making ntuples from the output AOD
    cfg.merge( configureMetaDataForPFlowCfg(cfgFlags) )
 
    return cfg