muonME0DigisPreReco_cfi Namespace Reference

Variables
tuple	simMuonME0Digis

Variable Documentation

tuple muonME0DigisPreReco_cfi.simMuonME0Digis

Initial value:

= cms.EDProducer("ME0DigiPreRecoProducer",
    inputCollection = cms.string('g4SimHitsMuonME0Hits'),
    digiPreRecoModelString = cms.string('PreRecoGaussian'),
    timeResolution = cms.double(0.0), # in ns
    phiResolution = cms.double(0.0), # in cm average resolution along local x in case of no correlation
    etaResolution = cms.double(0.0), # in cm average resolution along local y in case of no correlation
    phiError = cms.double(0.001), # normally error should be the resolution, but for the case resolution = 0
    etaError = cms.double(0.001), # normally error should be the resolution, but for the case resolution = 0
    constantPhiSpatialResolution = cms.bool(True),
    useCorrelation = cms.bool(False),
    useEtaProjectiveGEO = cms.bool(False),
    averageEfficiency = cms.double(0.98),
    gaussianSmearing = cms.bool(True),          # False --> Uniform smearing
    digitizeOnlyMuons = cms.bool(False),
    # simulateIntrinsicNoise = cms.bool(False), # intrinsic noise --> not implemented
    # averageNoiseRate = cms.double(0.001),     # intrinsic noise --> not implemented
    simulateElectronBkg = cms.bool(True),       # True - will simulate electron background
    simulateNeutralBkg  = cms.bool(True),       # True - will simulate neutral (n+g)  background
    minBunch = cms.int32(-5),                   # [x 25 ns], forms the readout window together with maxBunch,
    maxBunch = cms.int32(3),                    # we should think of shrinking this window ...
    instLumi = cms.double(5.0),       # in units of 1E34 cm^-2 s^-1
    mixLabel = cms.string('mix'),
)

Definition at line 4 of file muonME0DigisPreReco_cfi.py.