DecayTreeTuple,
)
from DecayTreeTuple.Configuration import *
# Stream and stripping line we want to use
stream = 'AllStreams'
line = 'D2hhPromptDst2D2KKLine'
# Create an ntuple to capture D*+ decays from the StrippingLine line
dtt = DecayTreeTuple('TupleDstToD0pi_D0ToKK')
dtt.Inputs = ['/Event/{0}/Phys/{1}/Particles'.format(stream, line)]
dtt.Decay = '[D*(2010)+ -> ^(D0 -> ^K- ^K+) ^pi+]CC'
# add a kinematic fitter
dtt.addBranches({
'Dstar': '[D*(2010)+ -> (D0 -> K- K+) pi+]CC',
})
dtt.Dstar.addTupleTool('TupleToolDecayTreeFitter/ConsD')
dtt.Dstar.ConsD.constrainToOriginVertex = True
dtt.Dstar.ConsD.Verbose = True
dtt.Dstar.ConsD.daughtersToConstrain = ['D0']
# add another fitter, this time we will change a mass hypothesis
dtt.Dstar.addTupleTool('TupleToolDecayTreeFitter/ConsDKpi')
dtt.Dstar.ConsDKpi.constrainToOriginVertex = True
dtt.Dstar.ConsDKpi.Verbose = True
dtt.Dstar.ConsDKpi.daughtersToConstrain = ['D0']
# make the hypothesis that actually we had the decay D0->pi+pi-
# note that you have to explicitely give both charges
# CC does not work here!
tuple.addTool(TupleToolPid, name="TupleToolPid")
tuple.TupleToolPid.Verbose = True
#tuple.UseLabXSyntax = True
#tuple.Decay = " [B0 -> ^[ D0 -> ^K- ^pi+ ]CC ^[ K*(892)0 -> ^K+ ^pi- ]CC]CC "
#tuple.Decay = " [B0 -> ^(D0 -> ^K- ^pi+) ^(K*(892)0 -> ^K+ ^pi-) ]CC "
tuple.Decay = "[B0 -> ^( D0 -> ^K+ ^K- ) ^( rho(770)0 -> ^pi+ ^pi- ) ]CC "
tuple.addBranches({
"B":
" [B0 -> ( D0 -> K+ K- ) ( rho(770)0 -> pi+ pi- ) ]CC ",
"D":
" [B0 -> ^( D0 -> K+ K- ) ( rho(770)0 -> pi+ pi- ) ]CC ",
"D0p":
" [B0 -> ( D0 -> ^K+ K- ) ( rho(770)0 -> pi+ pi- ) ]CC ",
"D0m":
" [B0 -> ( D0 -> K+ ^K- ) ( rho(770)0 -> pi+ pi- ) ]CC ",
"pip":
" [B0 -> ( D0 -> K+ K- ) ( rho(770)0 -> ^pi+ pi- ) ]CC ",
"pim":
" [B0 -> ( D0 -> K+ K- ) ( rho(770)0 -> pi+ ^pi- ) ]CC ",
"rho":
" [B0 -> ( D0 -> K+ K- ) ^( rho(770)0 -> pi+ pi- ) ]CC "
})
tuple.addTupleTool("TupleToolTISTOS/TupleToolTISTOS")
tuple.TupleToolTISTOS.VerboseL0 = True
tuple.TupleToolTISTOS.VerboseHlt1 = True
tuple.TupleToolTISTOS.VerboseHlt2 = True
tuple.TupleToolTISTOS.TriggerList = myTriggerList
#Add Loki variables
def makeTuple(self):
"""
Make tuple
"""
from Configurables import FitDecayTrees, DecayTreeTuple, TupleToolDecayTreeFitter, TupleToolDecay, TupleToolTrigger, TupleToolTISTOS, TupleToolPropertime, PropertimeFitter, TupleToolKinematic, TupleToolGeometry, TupleToolEventInfo, TupleToolPrimaries, TupleToolPid, TupleToolTrackInfo, TupleToolRecoStats, TupleToolMCTruth, LoKi__Hybrid__TupleTool, LoKi__Hybrid__EvtTupleTool
tuple = DecayTreeTuple('Tuple'+self.name) # I can put as an argument a name if I use more than a DecayTreeTuple
tuple.Inputs = [ self.sequence.outputLocation() ]
tuple.Decay = self.dec
tuple.ToolList = ['TupleToolKinematic',
'TupleToolEventInfo',
'TupleToolTrackInfo',
'TupleToolPid',
'TupleToolGeometry',
'TupleToolAngles', # Helicity angle
# 'TupleToolPropertime', #proper time TAU of reco particles
]
tuple.InputPrimaryVertices = '/Event/Charm/Rec/Vertex/Primary'
# Other event infos
tuple.addTupleTool('LoKi::Hybrid::EvtTupleTool/LoKi_Evt')
tuple.LoKi_Evt.VOID_Variables = {
#"nSPDHits" : " CONTAINS('Raw/Spd/Digits') " ,
'nTracks' : " CONTAINS ('Charm/Rec/Track/Best') " ,
}
# # Other variables
# tuple.addTupleTool('LoKi::Hybrid::TupleTool/LoKi_All')
# tuple.LoKi_All.Variables = {
# 'BPVIPCHI2' : 'BPVIPCHI2()',
# 'BPVDIRA' : 'BPVDIRA',
# 'BPVLTFITCHI2' : 'BPVLTFITCHI2()',
# }
tuple.addBranches(self.branches)
tuple.phi.addTupleTool("LoKi::Hybrid::TupleTool/LoKi_phi")
tuple.phi.LoKi_phi.Variables = {
'DOCAMAX' : 'DOCAMAX',
"MassDiff_Phi" : "DMASS('phi(1020)')",
"BPVDIRA" : "BPVDIRA",
"IPS_Phi" : "MIPCHI2DV(PRIMARY)",
"VFASPF_CHI2DOF" : "VFASPF(VCHI2/VDOF)",
"VFASPF_CHI2" : "VFASPF(VCHI2)",
"BPVIPCHI2" : "BPVIPCHI2()",
"ADOCA" : "DOCA(1,2)",
"ADOCACHI2" : "DOCACHI2(1,2)",
"DTF_CHI2_PV" : "DTF_CHI2( True, 'phi(1020)' )",
"DTF_NDOF_PV" : "DTF_NDOF( True, 'phi(1020)' )",
"DTF_M_PV" : "DTF_FUN ( M, True, 'phi(1020)' )",
"DTF_M_Ks1_PV" : "DTF_FUN ( CHILD(M,1), True, 'phi(1020)' )",
"DTF_M_Ks2_PV" : "DTF_FUN ( CHILD(M,2), True, 'phi(1020)' )",
# "DTF_CTAU_Ks1" : "DTF_CTAU(1, False, 'phi(1020)' )",
# "DTF_CTAU_Ks2" : "DTF_CTAU(2, False, 'phi(1020)' )",
}
def mySharedConf_Ks(branch):
atool=branch.addTupleTool('LoKi::Hybrid::TupleTool/LoKi_Ks')
atool.Variables = {
"BPVDIRA" : "BPVDIRA",
"VFASPF_CHI2DOF" : "VFASPF(VCHI2/VDOF)",
"VFASPF_CHI2" : "VFASPF(VCHI2)",
"BPVIPCHI2" : "BPVIPCHI2()",
"BPVVD" : "BPVVD",
"BPVVDCHI2" : "BPVVDCHI2",
"ADOCA" : "DOCA(1,2)",
"ADOCACHI2" : "DOCACHI2(1,2)",
'BPVLTIME' : 'BPVLTIME()',
}
PropertimeTool = branch.addTupleTool("TupleToolPropertime/Propertime_Ks")
mySharedConf_Ks(tuple.Ks1)
mySharedConf_Ks(tuple.Ks2)
def mySharedConf_pi(branch):
atool=branch.addTupleTool('LoKi::Hybrid::TupleTool/LoKi_pi')
atool.Variables = {
'TRCHI2DOF' : 'TRCHI2DOF',
'TRGHOSTPROB' : 'TRGHOSTPROB',
}
mySharedConf_pi(tuple.pi1)
mySharedConf_pi(tuple.pi2)
mySharedConf_pi(tuple.pi3)
mySharedConf_pi(tuple.pi4)
# Triggers:
tuple.phi.addTupleTool('TupleToolTISTOS/TISTOS')
tuple.phi.TISTOS.TriggerList = trigger_list
tuple.phi.TISTOS.VerboseL0 = True
tuple.phi.TISTOS.VerboseHlt1 = True
tuple.phi.TISTOS.VerboseHlt2 = True
if dataSample.isMC:
from Configurables import MCDecayTreeTuple, MCTupleToolKinematic, TupleToolMCTruth, MCTupleToolHierarchy, MCTupleToolReconstructed, MCTupleToolAngles, TupleToolMCBackgroundInfo
tuple.addTupleTool('TupleToolMCTruth/MCTruth')
tuple.MCTruth.ToolList = ['MCTupleToolKinematic',
'MCTupleToolHierarchy',
'MCTupleToolReconstructed',
'MCTupleToolAngles',
]
tuple.phi.addTupleTool( "TupleToolMCBackgroundInfo")
self.sequence.sequence().Members += [tuple]
# Tell DecayTreeTuple the structure of your decay, you must put ^ in front
# of particles that you want to write out (apart from head). J/psi->mu+mu-
# is a CP eigenstate so we don't need []CC here.
tuple.Decay = "[J/psi(1S) -> ^(KS0 -> ^pi+ ^pi-) ^(KS0 -> ^pi+ ^pi-)]CC"
tuple.Branches = {
"JPsi": "[J/psi(1S) -> (KS0 -> pi+ pi-) (KS0 -> pi+ pi-)]CC",
"Ks1": "[J/psi(1S) -> ^(KS0 -> pi+ pi-) (KS0 -> pi+ pi-)CC",
"Ks2": "[J/psi(1S) -> (KS0 -> pi+ pi-) ^(KS0 -> pi+ pi-)]CC",
"pi1": "[J/psi(1S) -> (KS0 -> ^pi+ pi-) (KS0 -> pi+ pi-)]CC",
"pi2": "[J/psi(1S) -> (KS0 -> pi+ ^pi-) (KS0 -> pi+ pi-)]CC",
"pi3": "[J/psi(1S) -> (KS0 -> pi+ pi-) (KS0 -> ^pi+ pi-)]CC",
"pi4": "[J/psi(1S) -> (KS0 -> pi+ pi-) (KS0 -> pi+ ^pi-)]CC",
}
tuple.addBranches(tuple.Branches)
tuple.JPsi.addTupleTool("LoKi::Hybrid::TupleTool/LoKi_JPsi")
tuple.JPsi.LoKi_JPsi.Variables = {
"DOCAMAX": "DOCAMAX",
"MassDiff_JPsi": "DMASS('J/psi(1S)')",
"BPVDIRA": "BPVDIRA",
"IPS_JPsi": "MIPCHI2DV(PRIMARY)",
"VFASPF_CHI2DOF": "VFASPF(VCHI2/VDOF)",
"VFASPF_CHI2": "VFASPF(VCHI2)",
"BPVIPCHI2": "BPVIPCHI2()",
"ADOCA": "DOCA(1,2)",
"ADOCACHI2": "DOCACHI2(1,2)",
"DTF_CHI2_PV": "DTF_CHI2( True, 'KS0' )",
"DTF_NDOF_PV": "DTF_NDOF( True, 'KS0' )",
tuple = DecayTreeTuple("Jpsi_Tuple")
tuple.Inputs = ["/Event/Dimuon/Phys/B2XMuMu_Line/Particles"]
tuple.ToolList = [
"TupleToolKinematic"
, "TupleToolEventInfo"
, "TupleToolRecoStats"
, "TupleBuKmmFit"
]
tuple.addBranches ({
"Bplus" : "[B+ -> K+ ( J/psi(1S) -> mu+ mu-)]CC",
"Kplus" : "[B+ -> ^K+ ( J/psi(1S) -> mu+ mu-)]CC",
"Jpsi" : "[B+ -> K+ ^( J/psi(1S) -> mu+ mu-)]CC",
"muplus" : "[B+ -> K+ ( J/psi(1S) -> ^mu+ mu-)]CC",
"muminus" : "[B+ -> K+ ( J/psi(1S) -> mu+ ^mu-)]CC",
})
LoKi_All = tuple.addTupleTool("LoKi::Hybrid::TupleTool/LoKi_All")
LoKi_All.Variables = {
'MINIPCHI2' : "MIPCHI2DV(PRIMARY)",
'MINIP' : "MIPDV(PRIMARY)",
'IPCHI2_OWNPV' : "BPVIPCHI2()",
'IP_OWNPV' : "BPVIP()"
}
LoKi_muplus = tuple.muplus.addTupleTool("LoKi::Hybrid::TupleTool/LoKi_muplus")
LoKi_muplus.Variables = {
'PIDmu' : "PIDmu",
tuple = DecayTreeTuple("Jpsi_Tuple")
tuple.Inputs = ["/Event/Leptonic/Phys/Bu2LLK_eeLine/Particles"]
tuple.ToolList = [
"TupleToolKinematic"
, "TupleToolEventInfo"
, "TupleToolRecoStats"
, "TupleBuKmmFit"
]
tuple.addBranches ({
"Bplus" : "[B+ -> K+ ( J/psi(1S) -> e+ e-)]CC",
"Kplus" : "[B+ -> ^K+ ( J/psi(1S) -> e+ e-)]CC",
"Jpsi" : "[B+ -> K+ (^J/psi(1S) -> e+ e-)]CC",
"muplus" : "[B+ -> K+ ( J/psi(1S) -> ^e+ e-)]CC",
"muminus" : "[B+ -> K+ ( J/psi(1S) -> e+ ^e-)]CC",
})
LoKi_All = tuple.addTupleTool("LoKi::Hybrid::TupleTool/LoKi_All")
LoKi_All.Variables = {
'MINIPCHI2' : "MIPCHI2DV(PRIMARY)",
'MINIP' : "MIPDV(PRIMARY)",
'IPCHI2_OWNPV' : "BPVIPCHI2()",
'IP_OWNPV' : "BPVIP()"
}
LoKi_Jpsi = tuple.Jpsi.addTupleTool("LoKi::Hybrid::TupleTool/LoKi_Jpsi")
LoKi_Jpsi.Variables = {
"q_PV_constr_B_constr" : "DTF_FUN ( M , True , 'B+' )" ,
"TupleToolKinematic",
"TupleToolEventInfo",
"TupleToolRecoStats",
"TupleToolGeometry",
"TupleToolMCBackgroundInfo" #comment out for data
,
"TupleToolMCTruth" #comment out for data
,
"TupleToolSLTruth",
"TupleToolL0Calo" #for Calorimeter info
] # Probably need to add many more Tools.
tupleB.addBranches({
"Lb": "[B- -> (Lambda_c+ -> p+ K- pi+) mu-]CC",
"Lc": "[B- -> ^Lambda_c+ mu-]CC",
"p": "[B- -> (Lambda_c+ -> ^p+ K- pi+) mu-]CC",
"pi": "[B- -> (Lambda_c+ -> p+ K- ^pi+) mu-]CC",
"K": "[B- -> (Lambda_c+ -> p+ ^K- pi+) mu-]CC",
"mu": "[B- -> (Lambda_c+ -> p+ K- pi+) ^mu-]CC"
})
l0_lines = ['L0HadronDecision', 'L0MuonDecision', 'L0ElectronDecision']
hlt1_lines = ['Hlt1TrackMVADecision', 'Hlt1TwoTrackMVADecision']
hlt2_lines = [
"Hlt2XcMuXForTauB2XcMuDecision", "Hlt2XcMuXForTauB2XcFakeMuDecision"
]
LoKi_All = tupleB.addTupleTool("LoKi::Hybrid::TupleTool/LoKi_All")
LoKi_All.Variables = {
'MINIPCHI2': "MIPCHI2DV(PRIMARY)",
def decay_tree_tuple(name, decay, mothers, intermediate, daughters, inputs,
mc):
"""Return a configured DecayTreeTuple instance.
A DecayTreeTuple is configured with the given decay descriptor.
The mothers dictionary is used to give exclusive tools to vertices, and it
should be, as daughters, a dictionary of tuple branch names to branch
descriptors.
A typical method call might look like
decay_tree_tuple(
'TupleDstToD0pi_D0ToKpi',
'[D*(2010)+ -> K- pi+]CC',
{
'Dst': '[D*(2010) -> (D0 -> K- pi+) pi+]CC',
'D0': '[D*(2010) -> ^(D0 -> K- pi+) pi+]CC'
},
{
'D0_K': '[D*(2010) -> (D0 -> ^K- pi+) pi+]CC',
'D0_pi': '[D*(2010) -> (D0 -> K- ^pi+) pi+]CC',
'Dst_pi': '[D*(2010) -> (D0 -> K- pi+) ^pi+]CC'
},
'Phys/StrippingLineName/Particles'
)
Keyword arguments:
name -- TDirectory the DecayTreeTuple TTree will be saved in
decay -- Decay descriptor
mothers -- Branch descriptors to be added to the tuple as mothers;
decaying particles
daughters -- Branch descriptors to be added to the tuple as daughters;
final state particles
inputs -- str of list of str, as the value of DecayTreeTuple.Inputs
mc -- Extra MC information is included if True
"""
# Define tuple tools to add
tools = [
"TupleToolPropertime",
'TupleToolEventInfo',
]
# Extra variables, added using LoKi hybrid tuple tools
basic_loki_vars = {
'ETA': 'ETA',
'PHI': 'PHI',
'PT': 'PT',
'ID': 'ID',
'P': 'P',
'Loki_BPVIPCHI2': 'BPVIPCHI2()',
'Loki_MIPCHI2DV': 'MIPCHI2DV(PRIMARY)',
}
intermediate_loki_vars = {
'Loki_AM34': 'LoKi.Particles.PFunA(AM34)',
'Loki_AM4': 'LoKi.Particles.PFunA(AM4)',
'Loki_BPVDIRA': "BPVDIRA",
'Loki_acosBPVDIRA': "acos(BPVDIRA)",
}
daughter_loki_vars = {
'PIDK': 'PIDK',
'PIDe': 'PIDe',
'PIDmu': 'PIDmu',
'PIDp': 'PIDp',
'Loki_TRACKCHI2NDOF': 'TRCHI2DOF',
'Loki_TRACKGHOSTPROB': 'TRGHOSTPROB',
}
mother_loki_vars = {
'M': 'M',
'Loki_BPVVDCHI2': 'BPVVDCHI2',
'Loki_BPVIPCHI2': 'BPVIPCHI2()',
'Loki_DOCAMAX': 'DOCAMAX',
'Loki_AMAXDOCA': "LoKi.Particles.PFunA(AMAXDOCA(''))",
'Loki_AMINDOCA': "LoKi.Particles.PFunA(AMINDOCA(''))",
'Loki_DOCACHI2MAX': 'DOCACHI2MAX',
'Loki_VCHI2NDOF': 'VFASPF(VCHI2/VDOF)',
'Loki_VX': 'VFASPF(VX)',
'Loki_VY': 'VFASPF(VY)',
'Loki_VZ': 'VFASPF(VZ)',
'Loki_SUMPT': 'SUMTREE(PT, ISBASIC)',
'Loki_BPVLTIME': "BPVLTIME()",
}
# Template DecayTreeTuple
t = DecayTreeTuple(name)
# Providing str will throw an exception, so wrap it in a list
try:
t.Inputs = inputs
except ValueError:
t.Inputs = [inputs]
t.Decay = decay
# Merge the mother and daughter dictionaries
t.addBranches(
dict(mothers.items() + intermediate.items() + daughters.items()))
# Tools for all branches
t.ToolList = tools
# Verbose reconstruction information
t.addTupleTool('TupleToolANNPID').ANNPIDTunes = ["MC15TuneV1"]
# t.addTupleTool('TupleToolRecoStats')
# MC truth information
if mc:
if has_turbo_inputs(t):
print 'Adding MC truth information for Turbo'
from TeslaTools import TeslaTruthUtils
relations = TeslaTruthUtils.getRelLoc("")
print 'relations = {}'.format(relations)
toollist = ['MCTupleToolPrompt']
rels = [relations]
MCTruth = TupleToolMCTruth()
#MCTruth.OutputLevel = 1
MCTruth = t.addTupleTool('TupleToolMCTruth')
MCTruth.ToolList = toollist
MCTruth.addTool(DaVinciSmartAssociator)
MCTruth.DaVinciSmartAssociator.RedoNeutral = False
MCTruth.DaVinciSmartAssociator.addTool(P2MCPFromProtoP)
MCTruth.DaVinciSmartAssociator.P2MCPFromProtoP.Locations = rels
MCTruth.addTool(MCMatchObjP2MCRelator)
MCTruth.MCMatchObjP2MCRelator.RelTableLocations = rels
MCTruth.DaVinciSmartAssociator.addTool(BackgroundCategory)
MCTruth.DaVinciSmartAssociator.BackgroundCategory.addTool(
P2MCPFromProtoP)
MCTruth.DaVinciSmartAssociator.BackgroundCategory.vetoNeutralRedo = True
MCTruth.DaVinciSmartAssociator.BackgroundCategory.P2MCPFromProtoP.Locations = rels
bkgcat = t.addTupleTool('TupleToolMCBackgroundInfo')
bkgcat.addTool(BackgroundCategory)
bkgcat.OutputLevel = 10
bkgcat.BackgroundCategory.vetoNeutralRedo = True
bkgcat.BackgroundCategory.addTool(P2MCPFromProtoP)
bkgcat.BackgroundCategory.P2MCPFromProtoP.Locations = rels
t.OutputLevel = 10
else:
print 'Adding MC truth information'
t.addTupleTool('TupleToolMCTruth')
t.addTupleTool('TupleToolMCBackgroundInfo')
# Extra information from LoKi
hybrid_tt = t.addTupleTool('LoKi::Hybrid::TupleTool/basicLoKiTT')
hybrid_tt.Variables = basic_loki_vars
hybrid_tt.Preambulo = ['from LoKiTracks.decorators import TrIDC']
# Add mother-specific varaibles to each mother branch
for mother in mothers:
branch = getattr(t, mother)
branch.addTupleTool('LoKi::Hybrid::TupleTool/{0}LoKiTT'.format(
mother)).Variables = mother_loki_vars
# For some unknown reason this doesn't work with Turbo candidates, so
# the information for them has to be added to every branch
DictTuple = branch.addTupleTool(LoKi__Hybrid__Dict2Tuple,
name="DTFTuple")
DictTuple.addTool(DTFDict, name="DTF")
DictTuple.Source = "LoKi::Hybrid::DTFDict/DTF"
DictTuple.NumVar = 6 * (len(mothers) + len(intermediate) +
len(daughters))
# configure the DecayTreeFitter in the usual way
DictTuple.DTF.constrainToOriginVertex = True
DictTuple.DTF.daughtersToConstrain = ['D0']
DictTuple.DTF.addTool(LoKi__Hybrid__DictOfFunctors, name="dict")
DictTuple.DTF.Source = "LoKi::Hybrid::DictOfFunctors/dict"
DictTuple.DTF.dict.Variables = {
"DTFDict_{}_PT".format(mother): "PT",
"DTFDict_{}_ETA".format(mother): "ETA",
"DTFDict_{}_PHI".format(mother): "PHI",
"DTFDict_{}_P".format(mother): "P",
"DTFDict_{}_M".format(mother): "M",
}
for part, decay in intermediate.items() + daughters.items():
DictTuple.DTF.dict.Variables["DTFDict_{}_PT".format(
part)] = "CHILD(PT,'{}')".format(decay)
DictTuple.DTF.dict.Variables["DTFDict_{}_ETA".format(
part)] = "CHILD(ETA,'{}')".format(decay)
DictTuple.DTF.dict.Variables["DTFDict_{}_PHI".format(
part)] = "CHILD(PHI,'{}')".format(decay)
DictTuple.DTF.dict.Variables["DTFDict_{}_P".format(
part)] = "CHILD(P,'{}')".format(decay)
DictTuple.DTF.dict.Variables["DTFDict_{}_M".format(
part)] = "CHILD(M,'{}')".format(decay)
# Add intermediate-specific varaibles to each mother branch
mom_int = mother_loki_vars.copy()
mom_int.update(intermediate_loki_vars)
for mother in intermediate:
branch = getattr(t, mother)
branch.addTupleTool('LoKi::Hybrid::TupleTool/{0}LoKiTT'.format(
mother)).Variables = mom_int
# For some unknown reason this doesn't work with Turbo candidates, so
# the information for them has to be added to every branch
for daughter in daughters:
branch = getattr(t, daughter)
branch.addTupleTool('LoKi::Hybrid::TupleTool/{0}LoKiTT'.format(
daughter)).Variables = daughter_loki_vars
return t
def execute_option_file(path):
# ================= BEGIN EDIT AREA =======================
tuplename = "Bu2LLK_meLine"
simulation_inputstring = "/Event/AllStreams/Phys/Bu2LLK_meLine/Particles"
data_inputstring = "/Event/Leptonic/Phys/Bu2LLK_meLine/Particles"
decaydescriptor = "[B+ -> ^[J/psi(1S) -> ^mu+ ^e-]CC ^K+]CC"
branches = { # Dictionary for the branches to write in the tuple
"B" : "[B+ -> [J/psi(1S) -> mu+ e-]CC K+]CC",
"Psi" : "[B+ -> ^[J/psi(1S) -> mu+ e-]CC K+]CC",
"muplus" : "[B+ -> [J/psi(1S) -> ^mu+ e-]CC K+]CC",
"eminus" : "[B+ -> [J/psi(1S) -> mu+ ^e-]CC K+]CC",
"Kplus" : "[B+ -> [J/psi(1S) -> mu+ mu-]CC ^K+]CC"
}
#Tools added to the ToolList can not be modified i.e. no other options than the defaults can be used
#use data.addTupleTool('<tool>') in the corresponding section below if you also want to modify the specific tool
toollist = [
"TupleToolGeometry" #geometry of vertex locations (ENDVERTEX, OWNPV, IP_OWNPV, FD_OWNPV, DIRA_OWNPV)
, "TupleToolKinematic" #kinematic variables (inv. mass MM, kin. mass M/sqrt(E^2-p^2), P, PX/Y/Z/E, PT)
, "TupleToolEventInfo" #Event information such as run number, polarity, GPS time etc.
#, "TupleToolPropertime" #proper lifetime of reconstructed particles
, "TupleToolAngles" #decay angles of charged tracks (i.e. angle in mothers frame, name: CosTheta)
#, "TupleToolTrigger" #Saves trigger decision (I prefer to use TupleToolTISTOS)
, "TupleToolTISTOS" #Trigger on/independent of signal
, "TupleToolTrackInfo" #GhostProb of track and track type (TYPE) - 0 = unknown, 1 = velo track...
, "TupleToolPrimaries" #Number and coordinates of all primary vertices
, "TupleToolDira" #Angle between secondary minus primary vertex and the mother momentum
#, "TupleToolTrackPosition" #Extrapolate track to given z-position (option .Z, default=2500. which is TT)
, "TupleToolRecoStats" #Fills reconstruction information like nTracks, nSPDHits, nMuonTracks from RecSummary
, "TupleToolBremInfo" #Bremsstrahlung information
]
# ================= END EDIT AREA =======================
# ================= BEGIN DO NOT EDIT HERE =======================
from Configurables import GaudiSequencer
MySequencer = GaudiSequencer('Sequence')
#Check whether it is a DST or MDST file
import os.path
extension = os.path.splitext(path)[1]
print extension
if extension.lower() == ".dst":
DaVinci().InputType = 'DST'
elif extension.lower() == ".mdst":
DaVinci().InputType = 'MDST'
else:
raise Exception("Extension {extension} of {path} does not match .mdst or .dst".format(extension, path))
#Kill some nodes if micro dst-file
if DaVinci().InputType == 'MDST':
from Configurables import EventNodeKiller
eventNodeKiller = EventNodeKiller('DAQkiller')
eventNodeKiller.Nodes = ['/Event/DAQ','/Event/pRec']
MySequencer.Members+=[eventNodeKiller]
#DecayTreeTuple -> Fills information about particles, vertices and daughters
ntuple = DecayTreeTuple(tuplename)
ntuple.ToolList = toollist
if DaVinci().InputType != 'MDST':
ntuple.ToolList += ["TupleToolTrackIsolation"]
if DaVinci().Simulation is True:
ntuple.ToolList +=["TupleToolMCBackgroundInfo"] #Sets the background category
MCTruth=ntuple.addTupleTool("TupleToolMCTruth") #Saves information of MC particle associated to the current particle (you can add tools to it itself!)
MCTruth.addTupleTool("MCTupleToolHierarchy") #True IDs of mother and grandmother particles
if DaVinci().Simulation is True: # for MC
ntuple.Inputs = [simulation_inputstring]
elif DaVinci().Simulation is False: # for Tuple
ntuple.Inputs = [data_inputstring]
else:
raise Exception(" `DaVinci().Simulation` not set.")
ntuple.Decay = decaydescriptor
ntuple.addBranches(branches)
ntuple.TupleName = "DecayTree"
MySequencer.Members.append(ntuple)
# ================= END DO NOT EDIT HERE =======================
# ================= BEGIN EDIT TUPLETOOLS WITH OPTIONS ==================
# LOKI TupleTool
LoKi = ntuple.addTupleTool("LoKi::Hybrid::TupleTool")
LoKi.Variables = {
"ETA" : "ETA", #Pseudorapidity
"PHI" : "PHI" #Azimuthal angle
}
# PID TupleTool
if(True):
pid = ntuple.addTupleTool("TupleToolPid") #PID information for charged particles
pid.Verbose = True #More information like isMuonLoose etc.
#TISTOS TupleTool
if(True):
from Configurables import TupleToolTISTOS
L0Triggers = ["L0MuonDecision", "L0DiMuonDecision", "L0HadronDecision", "L0ElectronDecision", "L0PhotonDecision" ]
## ['Muon', 'DiMuon', ' Hadron', 'Electron', 'Photon','PhotonHi','ElectronHi']
Hlt1Triggers = [ "Hlt1TrackAllL0Decision", "Hlt1TrackMuonDecision" ,"Hlt1TrackPhotonDecision" ,"Hlt1DiMuonLowMassDecision" ,"Hlt1DiMuonHighMassDecision"]
Hlt2Triggers = [
## muon lines
"Hlt2SingleMuonDecision", "Hlt2SingleMuonLowPTDecision", "Hlt2SingleMuonHighPTDecision",
"Hlt2DiMuonDecision", "Hlt2DiMuonLowMassDecision",
"Hlt2DiMuonJPsiDecision", "Hlt2DiMuonJPsiHighPTDecision", "Hlt2DiMuonPsi2SDecision",
"Hlt2DiMuonDetachedDecision", "Hlt2DiMuonDetachedJPsiDecision", "Hlt2DiMuonDetachedHeavyDecision", "Hlt2TriMuonTauDecision",
## hadron/Topo lines
"Hlt2B2HHDecision",
"Hlt2DiMuonBDecision", "Hlt2DiMuonZDecision",
"Hlt2TopoMu2BodyBBDTDecision", "Hlt2TopoMu3BodyBBDTDecision", "Hlt2TopoMu4BodyBBDTDecision",
"Hlt2TopoE2BodyBBDTDecision", "Hlt2TopoE3BodyBBDTDecision", "Hlt2TopoE4BodyBBDTDecision",
"Hlt2Topo2BodyBBDTDecision", "Hlt2Topo3BodyBBDTDecision", "Hlt2Topo4BodyBBDTDecision",
##others
"Hlt2PassThroughDecision",
"Hlt2TransparentDecision",
## inclusive decisions
"Hlt2DiMuonDY.*Decision","Hlt2TopoE.*Decision", "Hlt2Topo.*Decision", "Hlt2Charm.*Decision", "Hlt2DiElectron.*Decision"
]
triggerList = L0Triggers + Hlt1Triggers + Hlt2Triggers
ntuple.addTool(TupleToolTISTOS)
ntuple.TupleToolTISTOS.VerboseL0 = True
ntuple.TupleToolTISTOS.VerboseHlt1 = True
ntuple.TupleToolTISTOS.VerboseHlt2 = True
ntuple.TupleToolTISTOS.FillL0 = True
ntuple.TupleToolTISTOS.FillHlt1 = True
ntuple.TupleToolTISTOS.FillHlt2 = True
ntuple.TupleToolTISTOS.OutputLevel = INFO
ntuple.TupleToolTISTOS.TriggerList = triggerList
#DecayTreeFitter
if(False):
fitter = ntuple.B.addTupleTool("TupleToolDecayTreeFitter/FIX_JPSI")
fitter.constrainToOriginVertex = False
fitter.daughtersToConstrain = [ "J/psi(1S)" ]
fitter.Verbose = True
#Isolation
if(True):
from Configurables import TupleToolApplyIsolation
ntuple.B.addTupleTool(TupleToolApplyIsolation, name="TupleToolApplyIsolationHard")
ntuple.B.TupleToolApplyIsolationHard.OutputSuffix="_Hard"
ntuple.B.TupleToolApplyIsolationHard.WeightsFile="weightsHard.xml"
#ntuple.B.ToolList+=["TupleToolApplyIsolation/TupleToolApplyIsolationHard"]
ntuple.B.addTupleTool(TupleToolApplyIsolation, name="TupleToolApplyIsolationSoft")
ntuple.B.TupleToolApplyIsolationSoft.OutputSuffix="_Soft"
ntuple.B.TupleToolApplyIsolationSoft.WeightsFile="weightsSoft.xml"
#ntuple.B.ToolList+=["TupleToolApplyIsolation/TupleToolApplyIsolationSoft"]
ntuple.B.addTupleTool("TupleToolVtxIsoln")
#ntuple.B.TupleToolApplyIsolationHard.OutputLevel = 3
#ntuple.B.TupleToolApplyIsolationSoft.OutputLevel = 3
#Settings for TupleToolTrackHits (some only are necessary for MDST-files because of other locations of the clusters)
if(True): #Change this value if you don't want to use this tool
from Configurables import TupleToolTrackHits, STOfflinePosition
trackhits = ntuple.addTupleTool("TupleToolTrackHits")
trackhits.Verbose = True
if DaVinci().InputType == 'MDST':
from Configurables import MeasurementProvider
ntuple.addTool(MeasurementProvider('MeasProvider'))
ntuple.MeasProvider.RootInTES = "/Event/Leptonic/" #Change Leptonic for your stream-name in case of MDST
trackhits.MeasurementProvider = ntuple.MeasProvider
itClusterPosition = STOfflinePosition('ToolSvc.ITClusterPosition') #avoid crashes from missing IT channels
itClusterPosition.DetType = 'IT'
# ================= END EDIT TUPLETOOLS WITH OPTIONS ==================
#DDDB and CondDB-Tags for DATA (needs to be set for Simulation in runfile.py according to generation->see bookkeeping!)
#Always use the latest tags for the given datatype from (the newest are currently not in the database yet, therefore take the default ones!)
"""
if DaVinci().Simulation is False:
if DaVinci().DataType == '2012':
DaVinci().CondDBtag = "dddb-20150522-2"
DaVinci().DDDBtag = "cond-20150409-1"
elif DaVinci().DataType == '2011':
DaVinci().CondDBtag = "dddb-20150522-1"
DaVinci().DDDBtag = "cond-20150409"
"""
################################
### DaVinci configuration ####
################################
DaVinci().UserAlgorithms = [MySequencer]
DaVinci().MoniSequence += [ntuple]
DaVinci().EvtMax = -1
DaVinci().Lumi = True
tuple.Inputs = ["Phys/B2XMuMu_InclDiMuHighQ2Line/Particles/"]
tuple.ToolList = [
"TupleToolKinematic"
, "TupleToolEventInfo"
, "TupleToolRecoStats"
, "TupleToolMCTruth"
, "TupleToolMCBackgroundInfo"
# , "TupleBuKmmFit"
]
tuple.addBranches ({
"muplus" : "B0 -> ^mu+ mu-",
"muminus" : "B0 -> mu+ ^mu-",
"Dimuon" : "B0 : B0 -> mu+ mu-",
})
LoKi_All=tuple.addTupleTool("LoKi::Hybrid::TupleTool/LoKi_All")
LoKi_All.Variables = {
'MINIPCHI2' : "MIPCHI2DV(PRIMARY)",
'MINIP' : "MIPDV(PRIMARY)",
'IPCHI2_OWNPV' : "BPVIPCHI2()",
'IP_OWNPV' : "BPVIP()"
}
LoKi_muplus=tuple.muplus.addTupleTool("LoKi::Hybrid::TupleTool/LoKi_muplus")
LoKi_muplus.Variables = {
'PIDmu' : "PIDmu",
'ghost' : "TRGHP",
'TRACK_CHI2' : "TRCHI2DOF",
def execute_option_file():
Tuple = DecayTreeTuple('Bu2LLK_eeLine2')
Tuple.ToolList = [
"TupleToolGeometry"
, "TupleToolKinematic"
, "TupleToolEventInfo"
, "TupleToolPropertime"
, "TupleToolTrigger"
, "TupleToolTISTOS"
, "TupleToolPid"
, "TupleToolTrackInfo"
, "TupleToolPrimaries"
, "TupleToolDira"
, "TupleToolTrackIsolation"
, "TupleToolTrackPosition"
, "TupleToolRecoStats"
]
if DaVinci().Simulation is True:
Tuple.ToolList +=[
"TupleToolMCBackgroundInfo"
, "TupleToolMCTruth"
]
L0Triggers = ["L0MuonDecision", "L0DiMuonDecision", "L0HadronDecision", "L0ElectronDecision", "L0PhotonDecision" ]
## ['Muon', 'DiMuon', ' Hadron', 'Electron', 'Photon','PhotonHi','ElectronHi']
Hlt1Triggers = [ "Hlt1TrackAllL0Decision", "Hlt1TrackMuonDecision" ,"Hlt1TrackPhotonDecision" ,"Hlt1DiMuonLowMassDecision" ,"Hlt1DiMuonHighMassDecision"]
Hlt2Triggers = [
## muon lines
"Hlt2SingleMuonDecision", "Hlt2SingleMuonLowPTDecision", "Hlt2SingleMuonHighPTDecision",
"Hlt2DiMuonDecision", "Hlt2DiMuonLowMassDecision",
"Hlt2DiMuonJPsiDecision", "Hlt2DiMuonJPsiHighPTDecision", "Hlt2DiMuonPsi2SDecision",
"Hlt2DiMuonDetachedDecision", "Hlt2DiMuonDetachedJPsiDecision", "Hlt2DiMuonDetachedHeavyDecision", "Hlt2TriMuonTauDecision",
## hadron/Topo lines
"Hlt2B2HHDecision",
"Hlt2DiMuonBDecision", "Hlt2DiMuonZDecision",
"Hlt2TopoMu2BodyBBDTDecision", "Hlt2TopoMu3BodyBBDTDecision", "Hlt2TopoMu4BodyBBDTDecision",
"Hlt2Topo2BodyBBDTDecision", "Hlt2Topo3BodyBBDTDecision", "Hlt2Topo4BodyBBDTDecision",
##others
"Hlt2PassThroughDecision",
"Hlt2TransparentDecision",
## inclusive decisions
"Hlt2DiMuonDY.*Decision","Hlt2TopoE.*Decision", "Hlt2Topo.*Decision", "Hlt2Charm.*Decision", "Hlt2DiElectron.*Decision"
]
triggerList = L0Triggers + Hlt1Triggers + Hlt2Triggers
Tuple.addTool(TupleToolTISTOS)
Tuple.TupleToolTISTOS.VerboseL0 = True
Tuple.TupleToolTISTOS.VerboseHlt1 = True
Tuple.TupleToolTISTOS.VerboseHlt2 = True
Tuple.TupleToolTISTOS.FillL0 = True
Tuple.TupleToolTISTOS.FillHlt1 = True
Tuple.TupleToolTISTOS.FillHlt2 = True
Tuple.TupleToolTISTOS.OutputLevel = INFO
Tuple.TupleToolTISTOS.TriggerList = triggerList
if DaVinci().Simulation is True: # for MC
Tuple.Inputs = ["/Event/Leptonic/Phys/Bu2LLK_eeLine2/Particles"]
elif DaVinci().Simulation is False: # for Tuple
Tuple.Inputs = ["/Event/Leptonic/Phys/Bu2LLK_eeLine2/Particles"]
else:
raise Exception(" `DaVinci().Simulation` not set.")
Tuple.Decay = "[B+ -> ^(J/psi(1S) -> ^e+ ^e-) ^K+]CC"
Tuple.addBranches({
"B" : "[B+ -> (J/psi(1S) -> e+ e-) K+]CC",
"Psi" : "[B+ -> ^(J/psi(1S) -> e+ e-) K+]CC",
"eplus" : "[B+ -> (J/psi(1S) -> ^e+ e-) K+]CC",
"eminus" : "[B+ -> (J/psi(1S) -> e+ ^e-) K+]CC",
"Kplus" : "[B+ -> (J/psi(1S) -> e+ e-) ^K+]CC"
})
Tuple.TupleName = "DecayTree"
#DecayTreeFitter
fitter = Tuple.B.addTupleTool("TupleToolDecayTreeFitter/FIX_JPSI")
fitter.constrainToOriginVertex = False
fitter.daughtersToConstrain = [ "J/psi(1S)" ]
fitter.Verbose = True
#Isolation
Tuple.B.addTool(TupleToolApplyIsolation, name="TupleToolApplyIsolationHard")
Tuple.B.TupleToolApplyIsolationHard.OutputSuffix="_Hard"
Tuple.B.TupleToolApplyIsolationHard.WeightsFile="weightsHard.xml"
Tuple.B.ToolList+=["TupleToolApplyIsolation/TupleToolApplyIsolationHard"]
Tuple.B.addTool(TupleToolApplyIsolation, name="TupleToolApplyIsolationSoft")
Tuple.B.TupleToolApplyIsolationSoft.OutputSuffix="_Soft"
Tuple.B.TupleToolApplyIsolationSoft.WeightsFile="weightsSoft.xml"
Tuple.B.ToolList+=["TupleToolApplyIsolation/TupleToolApplyIsolationSoft"]
vtxiso = Tuple.B.addTupleTool("TupleToolVtxIsoln")
#Tuple.B.TupleToolApplyIsolationHard.OutputLevel = 3
#Tuple.B.TupleToolApplyIsolationSoft.OutputLevel = 3
################################
### DaVinci configuration ####
################################
DaVinci().InputType = 'DST'
DaVinci().UserAlgorithms = [Tuple]
DaVinci().MoniSequence += [Tuple]
DaVinci().EvtMax = -1
DaVinci().Lumi = True
def execute(stripRun, stripConf, stripLine, dataType, hltReport, tupleDecay, evtMax, mag, outputType="ntuple", strippingStream = "Charm"):
#0 "pi" "pi"
#1 "mu" "mu"
#2 "K" "pi"
#3 "e" "mu"
#4 "K" "mu"
stripLines = {
"kkpi":0,
"kpipi":1,
"pipipi":2,
"kpipios":3,
"kkk":4,
"kkpios":5,
"hhh":6,
}
lineNumber = stripLines[stripLine]
# Now build the stream
from StrippingConf.StrippingStream import StrippingStream
ss = StrippingStream("ByTom")
from StrippingSelections import StrippingD2hhh_conf
line = False
if stripConf == "default" or stripConf == "def":
from StrippingArchive import Utils
D2HHHConf, default_config = Utils.lineBuilderAndConf("stripping20","D2hhh")
def_str_no_pre = default_config
for key, val in def_str_no_pre.iteritems():
if "Prescale" in key:
def_str_no_pre[key] = 1.0
D2HHHConf = StrippingD2hhh_conf.D2hhhConf('D2hhh',def_str_no_pre)
D2hhhLines = D2HHHConf.lines()
for line in D2hhhLines :
print line.name(), line.outputLocation()
ss.appendLines( [D2hhhLines[lineNumber]] )
stripOutputLoc = D2hhhLines[lineNumber].outputLocation()
else:
raise ValueError("Unknown value of stripConf: %s"%stripConf)
from StrippingConf.Configuration import StrippingConf
conf = StrippingConf( Streams = [ ss ] )
from Configurables import StrippingReport
sr = StrippingReport(Selections = conf.selections())
MessageSvc().Format = "% F%60W%S%7W%R%T %0W%M"
from Configurables import DaVinci
from Configurables import LoKi__HDRFilter as StripFilter
strfilter = StripFilter( 'StripPassFilter', Code="HLT_PASS('"+D2hhhLines[lineNumber].name()+"Decision')", Location="/Event/Strip/Phys/DecReports" )
#strfilter = StripFilter( 'StripPassFilter', Code="HLT_PASS('StrippingD2hhh_PPPLineDecision')", Location="/Event/Strip/Phys/DecReports" )
DaVinci().EventPreFilters += [strfilter]
DaVinci().PrintFreq = 500
DaVinci().HistogramFile = 'DV_histos.root'
DaVinci().TupleFile = "DPiPiPi_NTuple.root"
DaVinci().EvtMax = evtMax
storeExp = StoreExplorerAlg()
storeExp.Load = 1
storeExp.PrintFreq = 10.0
#DaVinci().appendToMainSequence( [ storeExp ] )
if stripRun:
#from Configurables import bankKiller
#bk = bankKiller( "KillHltBanks", BankTypes = [ "Evt/Strip/Phys/DecReports", "Evt/AllStreams" ] )
#DaVinci().appendToMainSequence( [ bk ] )
from Configurables import EventNodeKiller
enk = EventNodeKiller()
enk.Nodes=[
"Event/Strip/Phys/DecReports",
"Event/AllStreams"]
DaVinci().appendToMainSequence( [ enk ] )
#DaVinci().appendToMainSequence( [ storeExp ] )
DaVinci().appendToMainSequence( [ conf.sequence() ] )
DaVinci().appendToMainSequence( [ sr ] )
if hltReport:
from Configurables import ReadHltReport
DaVinci().appendToMainSequence( [ ReadHltReport() ] )
DaVinci().InputType = 'MDST'
DaVinci().RootInTES = "/Event/Charm"
a = "->"
if dataType == "MC10":
DaVinci().DataType = "2010"
DaVinci().Simulation = True
DaVinci().DDDBtag = "head-20101206"
if mag == "up":
DaVinci().CondDBtag = "sim-20101210-vc-mu100"
elif mag == "down":
DaVinci().CondDBtag = "sim-20101210-vc-md100"
DaVinci().Lumi = False
elif dataType == "MC11":
DaVinci().DataType = "2011"
DaVinci().Simulation = True
DaVinci().DDDBtag = "MC11-20111102"
if mag == "up":
DaVinci().CondDBtag = "sim-20111111-vc-mu100"
elif mag == "down":
DaVinci().CondDBtag = "sim-20111111-vc-md100"
DaVinci().Lumi = False
elif dataType == "MC11a":
DaVinci().DataType = "2011"
DaVinci().Simulation = True
DaVinci().DDDBtag = "MC11-20111102"
if mag == "up":
DaVinci().CondDBtag = "sim-20111111-vc-mu100"
elif mag == "down":
DaVinci().CondDBtag = "sim-20111111-vc-md100"
DaVinci().Lumi = False
elif dataType == "MC2012":
DaVinci().DataType = "2012"
DaVinci().Simulation = True
DaVinci().DDDBtag = "Sim08-20130503-1"
if mag == "up":
DaVinci().CondDBtag = "Sim08-20130503-1-vc-mu100"
elif mag == "down":
DaVinci().CondDBtag = "Sim08-20130503-1-vc-md100"
DaVinci().Lumi = False
elif dataType == "MC2011":
DaVinci().DataType = "2011"
DaVinci().Simulation = True
DaVinci().DDDBtag = "Sim08-20130503"
if mag == "up":
DaVinci().CondDBtag = "Sim08-20130503-vc-mu100"
elif mag == "down":
DaVinci().CondDBtag = "Sim08-20130503-vc-md100"
DaVinci().Lumi = False
elif dataType == "data2012":
a = "->"
DaVinci().DataType = "2012"
DaVinci().Simulation = False
#DaVinci().DDDBtag = "dddb-20130111"
#if mag == "up":
#DaVinci().CondDBtag = "cond-20130114"
#elif mag == "down":
#DaVinci().CondDBtag = "cond-20130114"
DaVinci().Lumi = True
elif dataType == "data2011":
a = "->"
DaVinci().DataType = "2011"
DaVinci().Simulation = False
#DaVinci().DDDBtag = "dddb-20130111"
#if mag == "up":
#DaVinci().CondDBtag = "cond-20130114"
#elif mag == "down":
#DaVinci().CondDBtag = "cond-20130114"
DaVinci().Lumi = True
elif dataType == "data":
sys.exit("correct the dataType to include the year")
from Configurables import DecayTreeTuple
from Configurables import TupleToolTISTOS
from Configurables import TupleToolMassHypo, TupleToolSubMass
if outputType in ["ntuple", "nt", "tuple", "root"]:
print "stripOutputLoc:",stripOutputLoc
dttuple = DecayTreeTuple( "DPiPiPi_NTuple" )
dttuple.ToolList = ["TupleToolGeometry",
"TupleToolEventInfo",
"TupleToolKinematic",
#"TupleToolPrimaries",
"TupleToolPropertime",
"TupleToolAngles",
"TupleToolPid",
#"TupleToolRICHPid",
"TupleToolDecay",
#"TupleToolTrigger",
#"TupleToolTrackPosition",
#"TupleToolTrackInfo",
#"TupleToolRecoStats",
"TupleToolDira",
"TupleToolDalitz",
"TupleToolSubMass",
]
dttuple.Inputs = [ stripOutputLoc ]
print "tuple input :",dttuple.Inputs
print "number of events:", DaVinci().EvtMax
#[D+ -> pi- pi+ pi+]CC
if tupleDecay == "pipipi":
dttuple.Decay = "[D+ "+a+" ^pi- ^pi+ ^pi+]CC"
dttuple.addBranches ({
"D": "[D+ "+a+" pi- pi+ pi+]CC",
"x1": "[D+ "+a+" ^pi- pi+ pi+]CC",
"x2": "[D+ "+a+" pi- ^pi+ pi+]CC",
"x3": "[D+ "+a+" pi- pi+ ^pi+]CC",
})
elif tupleDecay == "kpipios":
dttuple.Decay = "[D+ "+a+" ^pi- ^pi+ ^K+]CC"
dttuple.addBranches ({
"D": "[D+ "+a+" pi- pi+ K+]CC",
"x1": "[D+ "+a+" ^pi- pi+ K+]CC",
"x2": "[D+ "+a+" pi- ^pi+ K+]CC",
"x3": "[D+ "+a+" pi- pi+ ^K+]CC",
})
elif tupleDecay == "ds2phipi":
dttuple.Decay = "[D+ "+a+" ^mu+ ^mu- ^pi+]CC"
dttuple.addBranches ({
"D": "[D+ "+a+" mu+ mu- pi+]CC",
"x1": "[D+ "+a+" ^mu+ mu- pi+]CC",
"x2": "[D+ "+a+" mu+ ^mu- pi+]CC",
"x3": "[D+ "+a+" mu+ mu- ^pi+]CC",
})
#if tupleDecay == "eta":
#dttuple.Decay = "[(D+ "+a+" ^(eta "+a+" ^pi+ ^pi-) ^pi+),(D- "+a+" ^(eta "+a+" ^pi+ ^pi-) ^pi-)]"
#dttuple.addBranches ({
#"D": "[(D+ "+a+" (eta "+a+" pi+ pi-) pi+),(D- "+a+" (eta "+a+" pi+ pi-) pi-)]",
#"eta": "[(D+ "+a+" ^(eta "+a+" ^pi+ ^pi-) ^pi+),(D- "+a+" ^(eta "+a+" ^pi+ ^pi-) ^pi-)]",
#"pip": "[(D+ "+a+" (eta "+a+" ^pi+ pi-) pi+),(D- "+a+" (eta "+a+" ^pi+ pi-) pi-)]",
#"pim": "[(D+ "+a+" (eta "+a+" pi+ ^pi-) pi+),(D- "+a+" (eta "+a+" pi+ ^pi-) pi-)]",
#"pi": "[(D+ "+a+" (eta "+a+" pi+ pi-) ^pi+),(D- "+a+" (eta "+a+" pi+ pi-) ^pi-)]",
#})
dttuple.TupleName = "DPiPiPi_NTuple"
ttmhk = TupleToolMassHypo("KaonHypo")
ttmhk.PIDReplacements = { "pi+" : "K+"}
#ttmhk.CC = True
dttuple.D.addTool(ttmhk)
dttuple.D.ToolList += ["TupleToolMassHypo/KaonHypo"]
ttmhm = TupleToolMassHypo("MuonHypo")
ttmhm.PIDReplacements = { "pi+" : "mu+"}
#ttmhm.CC = True
dttuple.D.addTool(ttmhm)
dttuple.D.ToolList += ["TupleToolMassHypo/MuonHypo"]
dttuple.addTool(TupleToolTISTOS())
dttuple.TupleToolTISTOS.VerboseL0 = True
dttuple.TupleToolTISTOS.VerboseHlt1 = True
dttuple.TupleToolTISTOS.VerboseHlt2 = True
dttuple.TupleToolTISTOS.Verbose = True
dttuple.ToolList += ["TupleToolTISTOS"]
dttuple.TupleToolTISTOS.TriggerList = [
"L0CALODecision",
"L0ElectronDecision",
"L0PhotonDecision",
"L0HadronDecision",
"L0MuonDecision",
"Hlt1TrackMuonDecision",
"Hlt1TrackAllL0Decision",
"Hlt2Topo2BodyBBDTDecision",
"Hlt2Topo3BodyBBDTDecision",
"Hlt2Topo4BodyBBDTDecision",
'Hlt2CharmHadD2HHHDecision',
] #+ [ trigger_name+"Decision" for trigger_name in
# ["L0CALO","L0ElectronNoSPD","L0PhotonNoSPD","L0HadronNoSPD","L0MuonNoSPD","L0DiMuonNoSPD","L0Electron","L0ElectronHi","L0Photon","L0PhotonHi","L0Hadron","L0Muon","L0DiMuon","L0HighSumETJet","L0B1gas","L0B2gas",]\
# + ["Hlt1MBMicroBiasVelo","Hlt1Global","Hlt1DiMuonHighMass","Hlt1DiMuonLowMass","Hlt1SingleMuonNoIP","Hlt1SingleMuonHighPT","Hlt1TrackAllL0","Hlt1TrackMuon","Hlt1TrackPhoton","Hlt1Lumi","Hlt1LumiMidBeamCrossing","Hlt1MBNoBias","Hlt1MBMicroBiasVeloRateLimited","Hlt1MBMicroBiasTStation","Hlt1MBMicroBiasTStationRateLimited","Hlt1L0Any","Hlt1L0AnyRateLimited","Hlt1L0AnyNoSPD","Hlt1L0AnyNoSPDRateLimited","Hlt1NoPVPassThrough","Hlt1DiProton","Hlt1DiProtonLowMult","Hlt1BeamGasNoBeamBeam1","Hlt1BeamGasNoBeamBeam2","Hlt1BeamGasBeam1","Hlt1BeamGasBeam2","Hlt1BeamGasCrossingEnhancedBeam1","Hlt1BeamGasCrossingEnhancedBeam2","Hlt1BeamGasCrossingForcedReco","Hlt1ODINTechnical","Hlt1Tell1Error","Hlt1VeloClosingMicroBias","Hlt1BeamGasCrossingParasitic","Hlt1ErrorEvent","Hlt1SingleElectronNoIP","Hlt1TrackForwardPassThrough","Hlt1TrackForwardPassThroughLoose","Hlt1CharmCalibrationNoBias","Hlt1L0HighSumETJet","Hlt1BeamGasCrossingForcedRecoFullZ","Hlt1BeamGasHighRhoVertices","Hlt1VertexDisplVertex","Hlt1TrackAllL0Tight","Hlt1HighPtJetsSinglePV","Hlt1L0PU","Hlt1L0CALO",]\
# + ["Hlt2SingleElectronTFLowPt","Hlt2SingleElectronTFHighPt","Hlt2DiElectronHighMass","Hlt2DiElectronB","Hlt2B2HHLTUnbiased","Hlt2Topo2BodySimple","Hlt2Topo3BodySimple","Hlt2Topo4BodySimple","Hlt2Topo2BodyBBDT","Hlt2Topo3BodyBBDT","Hlt2Topo4BodyBBDT","Hlt2TopoMu2BodyBBDT","Hlt2TopoMu3BodyBBDT","Hlt2TopoMu4BodyBBDT","Hlt2TopoE2BodyBBDT","Hlt2TopoE3BodyBBDT","Hlt2TopoE4BodyBBDT","Hlt2IncPhi","Hlt2IncPhiSidebands","Hlt2CharmHadD02HHKsLL","Hlt2Dst2PiD02PiPi","Hlt2Dst2PiD02MuMu","Hlt2Dst2PiD02KMu","Hlt2Dst2PiD02KPi","Hlt2PassThrough","Hlt2Transparent","Hlt2Forward","Hlt2DebugEvent","Hlt2CharmHadD02HH_D02PiPi","Hlt2CharmHadD02HH_D02PiPiWideMass","Hlt2CharmHadD02HH_D02KK","Hlt2CharmHadD02HH_D02KKWideMass","Hlt2CharmHadD02HH_D02KPi","Hlt2CharmHadD02HH_D02KPiWideMass","Hlt2ExpressJPsi","Hlt2ExpressJPsiTagProbe","Hlt2ExpressLambda","Hlt2ExpressKS","Hlt2ExpressDs2PhiPi","Hlt2ExpressBeamHalo","Hlt2ExpressDStar2D0Pi","Hlt2ExpressHLT1Physics","Hlt2Bs2PhiGamma","Hlt2Bs2PhiGammaWideBMass","Hlt2Bd2KstGamma","Hlt2Bd2KstGammaWideKMass","Hlt2Bd2KstGammaWideBMass","Hlt2CharmHadD2KS0H_D2KS0Pi","Hlt2CharmHadD2KS0H_D2KS0K","Hlt2CharmRareDecayD02MuMu","Hlt2B2HH","Hlt2MuonFromHLT1","Hlt2SingleMuon","Hlt2SingleMuonHighPT","Hlt2SingleMuonLowPT","Hlt2DiProton","Hlt2DiProtonTF","Hlt2DiProtonLowMult","Hlt2DiProtonLowMultTF","Hlt2CharmSemilepD02HMuNu_D02KMuNuWS","Hlt2CharmSemilepD02HMuNu_D02PiMuNuWS","Hlt2CharmSemilepD02HMuNu_D02KMuNu","Hlt2CharmSemilepD02HMuNu_D02PiMuNu","Hlt2TFBc2JpsiMuX","Hlt2TFBc2JpsiMuXSignal","Hlt2DisplVerticesLowMassSingle","Hlt2DisplVerticesHighMassSingle","Hlt2DisplVerticesDouble","Hlt2DisplVerticesSinglePostScaled","Hlt2DisplVerticesHighFDSingle","Hlt2DisplVerticesSingleDown","Hlt2CharmSemilepD2HMuMu","Hlt2CharmSemilepD2HMuMuWideMass","Hlt2B2HHPi0_Merged","Hlt2CharmHadD2HHH","Hlt2CharmHadD2HHHWideMass","Hlt2DiMuon","Hlt2DiMuonLowMass","Hlt2DiMuonJPsi","Hlt2DiMuonJPsiHighPT","Hlt2DiMuonPsi2S","Hlt2DiMuonB","Hlt2DiMuonZ","Hlt2DiMuonDY1","Hlt2DiMuonDY2","Hlt2DiMuonDY3","Hlt2DiMuonDY4","Hlt2DiMuonDetached","Hlt2DiMuonDetachedHeavy","Hlt2DiMuonDetachedJPsi","Hlt2DiMuonNoPV","Hlt2TriMuonDetached","Hlt2TriMuonTau","Hlt2CharmSemilepD02HHMuMu","Hlt2CharmSemilepD02HHMuMuWideMass","Hlt2CharmHadD02HHHH","Hlt2CharmHadD02HHHHWideMass","Hlt2ErrorEvent","Hlt2Global","Hlt2diPhotonDiMuon","Hlt2LowMultMuon","Hlt2LowMultHadron","Hlt2LowMultPhoton","Hlt2LowMultElectron","Hlt2SingleTFElectron","Hlt2SingleTFVHighPtElectron","Hlt2B2HHLTUnbiasedDetached","Hlt2CharmHadLambdaC2KPPi","Hlt2SingleMuonVHighPT","Hlt2CharmSemilepD02HMuNu_D02KMuNuTight","Hlt2CharmHadMinBiasLambdaC2KPPi","Hlt2CharmHadMinBiasD02KPi","Hlt2CharmHadMinBiasD02KK","Hlt2CharmHadMinBiasDplus2hhh","Hlt2CharmHadMinBiasLambdaC2LambdaPi","Hlt2DisplVerticesSingle","Hlt2DisplVerticesDoublePostScaled","Hlt2DisplVerticesSingleHighMassPostScaled","Hlt2DisplVerticesSingleHighFDPostScaled","Hlt2DisplVerticesSingleMVPostScaled","Hlt2RadiativeTopoTrackTOS","Hlt2RadiativeTopoPhotonL0","Hlt2DiMuonPsi2SHighPT","Hlt2DoubleDiMuon","Hlt2DiMuonAndMuon","Hlt2DiMuonAndGamma","Hlt2DiMuonAndD0","Hlt2DiMuonAndDp","Hlt2DiMuonAndDs","Hlt2DiMuonAndLc","Hlt2CharmSemilepD02HHMuMuHardHadronsSoftMuons","Hlt2CharmSemilepD02HHMuMuHardHadronsSoftMuonsWideMass","Hlt2CharmSemilepD02HHMuMuHardHadronsAndMuons","Hlt2CharmSemilepD02HHMuMuHardHadronsAndMuonsWideMass","Hlt2TopoRad2BodyBBDT","Hlt2TopoRad2plus1BodyBBDT","Hlt2Lumi","Hlt2LowMultHadron_nofilter","Hlt2LowMultElectron_nofilter","Hlt2CharmHadD02HHKsDD","Hlt2CharmHadD2KS0KS0","Hlt2CharmHadD2KS0KS0WideMass","Hlt2ExpressD02KPi","Hlt2CharmHadLambdaC2KPPiWideMass","Hlt2CharmHadLambdaC2KPK","Hlt2CharmHadLambdaC2KPKWideMass","Hlt2CharmHadLambdaC2PiPPi","Hlt2CharmHadLambdaC2PiPPiWideMass","Hlt2CharmHadLambdaC2PiPK","Hlt2CharmHadLambdaC2PiPKWideMass","Hlt2CharmHadD2KS0H_D2KS0DDPi","Hlt2CharmHadD2KS0H_D2KS0DDK","Hlt2DiPhi","Hlt2CharmHadD02HHHHDstNoHltOne_4pi","Hlt2CharmHadD02HHHHDstNoHltOne_4piWideMass","Hlt2CharmHadD02HHHHDstNoHltOne_K3pi","Hlt2CharmHadD02HHHHDstNoHltOne_K3piWideMass","Hlt2CharmHadD02HHHHDstNoHltOne_KKpipi","Hlt2CharmHadD02HHHHDstNoHltOne_KKpipiWideMass","Hlt2CharmHadD02HHHHDstNoHltOne_2K2pi","Hlt2CharmHadD02HHHHDstNoHltOne_2K2piWideMass","Hlt2CharmHadD02HHHHDstNoHltOne_3Kpi","Hlt2CharmHadD02HHHHDstNoHltOne_3KpiWideMass","Hlt2CharmHadD02HHHHDstNoHltOne_Ch2","Hlt2CharmHadD02HHHHDstNoHltOne_Ch2WideMass","Hlt2CharmSemilep3bodyD2PiMuMu","Hlt2CharmSemilep3bodyD2PiMuMuSS","Hlt2CharmSemilep3bodyD2KMuMu","Hlt2CharmSemilep3bodyD2KMuMuSS","Hlt2CharmSemilep3bodyLambdac2PMuMu","Hlt2CharmSemilep3bodyLambdac2PMuMuSS","Hlt2LambdaC_LambdaC2Lambda0LLPi","Hlt2LambdaC_LambdaC2Lambda0LLK","Hlt2LambdaC_LambdaC2Lambda0DDPi","Hlt2LambdaC_LambdaC2Lambda0DDK","Hlt2RadiativeTopoTrack","Hlt2RadiativeTopoPhoton","Hlt2CharmHadD02HHHHDst_4pi","Hlt2CharmHadD02HHHHDst_4piWideMass","Hlt2CharmHadD02HHHHDst_K3pi","Hlt2CharmHadD02HHHHDst_K3piWideMass","Hlt2CharmHadD02HHHHDst_KKpipi","Hlt2CharmHadD02HHHHDst_KKpipiWideMass","Hlt2CharmHadD02HHHHDst_2K2pi","Hlt2CharmHadD02HHHHDst_2K2piWideMass","Hlt2CharmHadD02HHHHDst_3Kpi","Hlt2CharmHadD02HHHHDst_3KpiWideMass","Hlt2CharmHadD02HHHHDst_Ch2","Hlt2CharmHadD02HHHHDst_Ch2WideMass","Hlt2CharmSemilepD02PiPiMuMu","Hlt2CharmSemilepD02KKMuMu","Hlt2CharmSemilepD02KPiMuMu","Hlt2CharmHadD02HHHH_4pi","Hlt2CharmHadD02HHHH_4piWideMass","Hlt2CharmHadD02HHHH_K3pi","Hlt2CharmHadD02HHHH_K3piWideMass","Hlt2CharmHadD02HHHH_KKpipi","Hlt2CharmHadD02HHHH_KKpipiWideMass","Hlt2CharmHadD02HHHH_2K2pi","Hlt2CharmHadD02HHHH_2K2piWideMass","Hlt2CharmHadD02HHHH_3Kpi","Hlt2CharmHadD02HHHH_3KpiWideMass","Hlt2CharmHadD02HHHH_Ch2","Hlt2CharmHadD02HHHH_Ch2WideMass","Hlt2DiMuonDetachedPsi2S","Hlt2CharmHadD02HHXDst_hhX","Hlt2CharmHadD02HHXDst_hhXWideMass","Hlt2LowMultD2KPi","Hlt2LowMultD2KPiPi","Hlt2LowMultD2K3Pi","Hlt2LowMultChiC2HH","Hlt2LowMultChiC2HHHH","Hlt2LowMultD2KPiWS","Hlt2LowMultD2KPiPiWS","Hlt2LowMultD2K3PiWS","Hlt2LowMultChiC2HHWS","Hlt2LowMultChiC2HHHHWS","Hlt2LowMultDDInc","Hlt2DisplVerticesSingleLoosePS","Hlt2DisplVerticesSingleHighFD","Hlt2DisplVerticesSingleVeryHighFD","Hlt2DisplVerticesSingleHighMass","Hlt2DisplVerticesSinglePS","Hlt2DisplVerticesDoublePS","Hlt2CharmHadD2HHHKsLL","Hlt2CharmHadD2HHHKsDD","Hlt2KshortToMuMuPiPi","Hlt2LowMultChiC2PP","Hlt2LowMultDDIncCP","Hlt2LowMultDDIncVF","Hlt2LowMultLMR2HH","Hlt2HighPtJets","Hlt2ChargedHyperon_Xi2Lambda0LLPi","Hlt2ChargedHyperon_Xi2Lambda0LLMu","Hlt2ChargedHyperon_Omega2Lambda0LLK","Hlt2ChargedHyperon_Xi2Lambda0DDPi","Hlt2ChargedHyperon_Xi2Lambda0DDMu","Hlt2ChargedHyperon_Omega2Lambda0DDK","Hlt2CharmHadD02HHXDst_BaryonhhX","Hlt2CharmHadD02HHXDst_BaryonhhXWideMass","Hlt2CharmHadD02HHXDst_BaryonhhXWithKSLL","Hlt2CharmHadD02HHXDst_BaryonhhXWithKSLLWideMass","Hlt2CharmHadD02HHXDst_BaryonhhXWithLambda0LL","Hlt2CharmHadD02HHXDst_BaryonhhXWithLambda0LLWideMass","Hlt2CharmHadD02HHXDst_BaryonhhXWithKSDD","Hlt2CharmHadD02HHXDst_BaryonhhXWithKSDDWideMass","Hlt2CharmHadD02HHXDst_BaryonhhXWithLambda0DD","Hlt2CharmHadD02HHXDst_BaryonhhXWithLambda0DDWideMass","Hlt2CharmHadD02HHXDst_LeptonhhX","Hlt2CharmHadD02HHXDst_LeptonhhXWideMass","Hlt2CharmHadD02HHXDst_LeptonhhXWithKSLL","Hlt2CharmHadD02HHXDst_LeptonhhXWithKSLLWideMass","Hlt2CharmHadD02HHXDst_LeptonhhXWithLambda0LL","Hlt2CharmHadD02HHXDst_LeptonhhXWithLambda0LLWideMass","Hlt2CharmHadD02HHXDst_LeptonhhXWithKSDD","Hlt2CharmHadD02HHXDst_LeptonhhXWithKSDDWideMass","Hlt2CharmHadD02HHXDst_LeptonhhXWithLambda0DD","Hlt2CharmHadD02HHXDst_LeptonhhXWithLambda0DDWideMass"]
# ]
from Configurables import LoKi__Hybrid__TupleTool
LoKi_DTFMASS = LoKi__Hybrid__TupleTool("LoKi_DTFMASS")
LoKi_DTFMASS.Variables = {
"DTF_CHI2" : "DTF_CHI2( True )",
"DTF_NDOF" : "DTF_NDOF( True )",
"DTF_D_M" : "DTF_FUN ( M , True )",
"DTF_D_MM" : "DTF_FUN ( MM , True )",
"DTF_D_P" : "DTF_FUN ( P , True )",
"DTF_D_PT" : "DTF_FUN ( PT , True )",
"DTF_D_PE" : "DTF_FUN ( E , True )",
"DTF_D_PX" : "DTF_FUN ( PX , True )",
"DTF_D_PY" : "DTF_FUN ( PY , True )",
"DTF_D_PZ" : "DTF_FUN ( PZ , True )",
"DTF_x1_M" : "DTF_FUN ( CHILD(M,1) , True )",
"DTF_x1_MM" : "DTF_FUN ( CHILD(MM,1) , True )",
"DTF_x1_P" : "DTF_FUN ( CHILD(P,1) , True )",
"DTF_x1_PT" : "DTF_FUN ( CHILD(PT,1) , True )",
"DTF_x1_PE" : "DTF_FUN ( CHILD(E,1) , True )",
"DTF_x1_PX" : "DTF_FUN ( CHILD(PX,1) , True )",
"DTF_x1_PY" : "DTF_FUN ( CHILD(PY,1) , True )",
"DTF_x1_PZ" : "DTF_FUN ( CHILD(PZ,1) , True )",
"DTF_x2_M" : "DTF_FUN ( CHILD(M,2) , True )",
"DTF_x2_MM" : "DTF_FUN ( CHILD(MM,2) , True )",
"DTF_x2_P" : "DTF_FUN ( CHILD(P,2) , True )",
"DTF_x2_PT" : "DTF_FUN ( CHILD(PT,2) , True )",
"DTF_x2_PE" : "DTF_FUN ( CHILD(E,2) , True )",
"DTF_x2_PX" : "DTF_FUN ( CHILD(PX,2) , True )",
"DTF_x2_PY" : "DTF_FUN ( CHILD(PY,2) , True )",
"DTF_x2_PZ" : "DTF_FUN ( CHILD(PZ,2) , True )",
"DTF_x3_M" : "DTF_FUN ( CHILD(M,3) , True )",
"DTF_x3_MM" : "DTF_FUN ( CHILD(MM,3) , True )",
"DTF_x3_P" : "DTF_FUN ( CHILD(P,3) , True )",
"DTF_x3_PT" : "DTF_FUN ( CHILD(PT,3) , True )",
"DTF_x3_PE" : "DTF_FUN ( CHILD(E,3) , True )",
"DTF_x3_PX" : "DTF_FUN ( CHILD(PX,3) , True )",
"DTF_x3_PY" : "DTF_FUN ( CHILD(PY,3) , True )",
"DTF_x3_PZ" : "DTF_FUN ( CHILD(PZ,3) , True )",
}
dttuple.D.ToolList+=["LoKi::Hybrid::TupleTool/LoKi_DTFMASS"]
dttuple.D.addTool(LoKi_DTFMASS)
if "MC" in dataType:
from Configurables import TupleToolMCBackgroundInfo
dttuple.addTool(TupleToolMCBackgroundInfo, name="TupleToolMCBackgroundInfo")
dttuple.TupleToolMCBackgroundInfo.Verbose=True
dttuple.addTool(TupleToolMCTruth, name="truth")
dttuple.truth.ToolList += ["MCTupleToolHierarchy",
"MCTupleToolKinematic"]
dttuple.ToolList+=["TupleToolMCBackgroundInfo/TupleToolMCBackgroundInfo"]
dttuple.ToolList+=["TupleToolMCTruth/truth"]
DaVinci().appendToMainSequence( [ dttuple ] )
elif outputType == "dst":
from Configurables import SelDSTWriter
if stripRun:
dst_Sel = AutomaticData(Location = stripOutputLoc)
else:
dst_Sel = AutomaticData(Location = "/Event/"+strippingStream+"/" + stripOutputLoc)
dst_Filter = FilterDesktop('dst_Filter', Code = "ALL")
dst_FilterSel = Selection(name = line.name().replace("Stripping",""),
Algorithm = dst_Filter,
RequiredSelections = [ dst_Sel ])
dst_Seq = SelectionSequence('lsdata',
TopSelection = dst_FilterSel,
)
dstw = SelDSTWriter("DSTWriter")
dstw.OutputFileSuffix = "PiPiPi"
#dstw.CopyProtoParticles = False
dstw.SelectionSequences = [dst_Seq]
#dstw.CopyL0DUReport = False
#dstw.CopyHltDecReports = False
#dstw.CopyMCTruth = True
#dstw.CopyBTags = True
DaVinci().appendToMainSequence( [ dstw.sequence() ] )
def options(year, mag, data_type, mode):
#======================================#
#=== DaVinci script for Data and MC ===#
#======================================#
#=== year = year of data taking ===#
#=== mag = magnet polarity of data ===#
#=== data_type = MC or data? ===#
#======================================#
#=== These variables are given to ===#
#=== function by the ganga script, ===#
#=== which is different, depending ===#
#=== on whether MC or data is being ===#
#=== looked at. ===#
#======================================#
from Configurables import DaVinci
from Configurables import MCMatchObjP2MCRelator
from PhysConf.Filters import LoKi_Filters
#===========================#
#=== Check if MC or Data ===#
#===========================#
if data_type == "data":
data = True
elif data_type == "MC":
data = False
else:
print "WARNING: data type not recognised. Please enter either \"data\" or \"MC\" as the third argument to options()!"
#====================================#
#=== Setup depending on data type ===#
#====================================#
if data:
stream = 'Bhadron'
prefix = 'Data'
else:
stream = 'AllStreams'
prefix = 'MC'
#==============================#
#=== Assign Stripping Lines ===#
#==============================#
#=== b2dk d2pi0hh ===#
line_k = 'B2D0KD2Pi0HHResolvedBeauty2CharmLine'
#=== b2dpi d2pi0hh ===#
line_pi = 'B2D0PiD2Pi0HHResolvedBeauty2CharmLine'
#=============================#
#=== Stripping Pre-Filters ===#
#=============================#
fltrs = LoKi_Filters(
STRIP_Code=
"HLT_PASS_RE('StrippingB2D0KD2Pi0HHResolvedBeauty2CharmLineDecision') | HLT_PASS_RE('StrippingB2D0PiD2Pi0HHResolvedBeauty2CharmLineDecision')"
)
#==============================#
#=== Import necessary tools ===#
#==============================#
from Configurables import DecayTreeTuple
from DecayTreeTuple.Configuration import *
if data:
from Configurables import TrackScaleState
scaler = TrackScaleState('StateScale')
scaler.RootInTES = '/Event/{0}/'.format(stream)
#===================================================#
#=== Setup DecayTreeTuples for each channel/mode ===#
#===================================================#
etuple = EventTuple()
if data:
dk_d2kpipi0 = DecayTreeTuple('B2DK_D2KPiPi0')
dk_d2pikpi0 = DecayTreeTuple('B2DK_D2PiKPi0')
dk_d2kkpi0 = DecayTreeTuple('B2DK_D2KKPi0')
dk_d2pipipi0 = DecayTreeTuple('B2DK_D2PiPiPi0')
dpi_d2kpipi0 = DecayTreeTuple('B2DPi_D2KPiPi0')
dpi_d2pikpi0 = DecayTreeTuple('B2DPi_D2PiKPi0')
dpi_d2kkpi0 = DecayTreeTuple('B2DPi_D2KKPi0')
dpi_d2pipipi0 = DecayTreeTuple('B2DPi_D2PiPiPi0')
else:
dk_d2kpipi0 = DecayTreeTuple('B2DK_D2KPiPi0_MC')
dk_d2pikpi0 = DecayTreeTuple('B2DK_D2PiKPi0_MC')
dk_d2kkpi0 = DecayTreeTuple('B2DK_D2KKPi0_MC')
dk_d2pipipi0 = DecayTreeTuple('B2DK_D2PiPiPi0_MC')
dpi_d2kpipi0 = DecayTreeTuple('B2DPi_D2KPiPi0_MC')
dpi_d2pikpi0 = DecayTreeTuple('B2DPi_D2PiKPi0_MC')
dpi_d2kkpi0 = DecayTreeTuple('B2DPi_D2KKPi0_MC')
dpi_d2pipipi0 = DecayTreeTuple('B2DPi_D2PiPiPi0_MC')
#=== Assign vectors of DecayTreeTuples for easy use later ===#
channels = [
dk_d2kpipi0, dk_d2pikpi0, dk_d2kkpi0, dk_d2pipipi0, dpi_d2kpipi0,
dpi_d2pikpi0, dpi_d2kkpi0, dpi_d2pipipi0
]
k_chans = [dk_d2kpipi0, dk_d2pikpi0, dk_d2kkpi0, dk_d2pipipi0]
pi_chans = [dpi_d2kpipi0, dpi_d2pikpi0, dpi_d2kkpi0, dpi_d2pipipi0]
#=== Setting location/inputs is different depending on data type ===#
if data:
for channel in channels:
channel.RootInTES = '/Event/{0}'.format(stream)
for channel in k_chans:
channel.Inputs = ['Phys/{0}/Particles'.format(line_k)]
for channel in pi_chans:
channel.Inputs = ['Phys/{0}/Particles'.format(line_pi)]
else:
for channel in k_chans:
if year == '2012' or year == '2011': # 2012 and 2011 MC is DST!
channel.Inputs = [
'/Event/{0}/Phys/{1}/Particles'.format(stream, line_k)
]
else:
channel.Inputs = ['Phys/{0}/Particles'.format(line_k)]
for channel in pi_chans:
if year == '2012' or year == '2011':
channel.Inputs = [
'/Event/{0}/Phys/{1}/Particles'.format(stream, line_pi)
]
else:
channel.Inputs = ['Phys/{0}/Particles'.format(line_pi)]
#=====================================================#
#=== Setup decay descriptors for each channel/mode ===#
#=====================================================#
#=== B2DK ===#
dk_d2kpipi0.Decay = '[(B+ --> ^(D0 --> ^K+ ^pi- ^(pi0 --> ^gamma ^gamma)) ^K+) , (B- --> ^(D0 --> ^K- ^pi+ ^(pi0 --> ^gamma ^gamma)) ^K- )]'
dk_d2kpipi0.addBranches({
'Bu':
'[(B+ --> (D0 --> K+ pi- (pi0 --> gamma gamma)) K+ ) , (B- --> (D0 --> K- pi+ (pi0 --> gamma gamma)) K- )]',
'D0':
'[(B+ --> ^(D0 --> K+ pi- (pi0 --> gamma gamma)) K+) , (B- --> ^(D0 --> K- pi+ (pi0 --> gamma gamma)) K- )]',
'K0':
'[(B+ --> (D0 --> ^K+ pi- (pi0 --> gamma gamma)) K+) , (B- --> (D0 --> ^K- pi+ (pi0 --> gamma gamma)) K- )]',
'P0':
'[(B+ --> (D0 --> K+ ^pi- (pi0 --> gamma gamma)) K+) , (B- --> (D0 --> K- ^pi+ (pi0 --> gamma gamma)) K- )]',
'Pi0':
'[(B+ --> (D0 --> K+ pi- ^(pi0 --> gamma gamma)) K+) , (B- --> (D0 --> K- pi+ ^(pi0 --> gamma gamma)) K- )]',
'Bach':
'[(B+ --> (D0 --> K+ pi- (pi0 --> gamma gamma)) ^K+) , (B- --> (D0 --> K- pi+ (pi0 --> gamma gamma)) ^K- )]',
'Gamma1':
'[(B+ --> (D0 --> K+ pi- (pi0 --> ^gamma gamma)) K+) , (B- --> (D0 --> K- pi+ (pi0 --> ^gamma gamma)) K- )]',
'Gamma2':
'[(B+ --> (D0 --> K+ pi- (pi0 --> gamma ^gamma)) K+) , (B- --> (D0 --> K- pi+ (pi0 --> gamma ^gamma)) K- )]'
})
dk_d2pikpi0.Decay = '[(B+ --> ^(D0 --> ^pi+ ^K- ^(pi0 --> ^gamma ^gamma)) ^K+) , (B- --> ^(D0 --> ^pi- ^K+ ^(pi0 --> ^gamma ^gamma)) ^K- )]'
dk_d2pikpi0.addBranches({
'Bu':
'[(B+ --> (D0 --> pi+ K- (pi0 --> gamma gamma)) K+ ) , (B- --> (D0 --> pi- K+ (pi0 --> gamma gamma)) K- )]',
'D0':
'[(B+ --> ^(D0 --> pi+ K- (pi0 --> gamma gamma)) K+) , (B- --> ^(D0 --> pi- K+ (pi0 --> gamma gamma)) K- )]',
'P0':
'[(B+ --> (D0 --> ^pi+ K- (pi0 --> gamma gamma)) K+) , (B- --> (D0 --> ^pi- K+ (pi0 --> gamma gamma)) K- )]',
'K0':
'[(B+ --> (D0 --> pi+ ^K- (pi0 --> gamma gamma)) K+) , (B- --> (D0 --> pi- ^K+ (pi0 --> gamma gamma)) K- )]',
'Pi0':
'[(B+ --> (D0 --> pi+ K- ^(pi0 --> gamma gamma)) K+) , (B- --> (D0 --> pi- K+ ^(pi0 --> gamma gamma)) K- )]',
'Bach':
'[(B+ --> (D0 --> pi+ K- (pi0 --> gamma gamma)) ^K+) , (B- --> (D0 --> pi- K+ (pi0 --> gamma gamma)) ^K- )]',
'Gamma1':
'[(B+ --> (D0 --> pi+ K- (pi0 --> ^gamma gamma)) K+) , (B- --> (D0 --> pi- K+ (pi0 --> ^gamma gamma)) K- )]',
'Gamma2':
'[(B+ --> (D0 --> pi+ K- (pi0 --> gamma ^gamma)) K+) , (B- --> (D0 --> pi- K+ (pi0 --> gamma ^gamma)) K- )]'
})
dk_d2kkpi0.Decay = '[(B+ --> ^(D0 --> ^K+ ^K- ^(pi0 --> ^gamma ^gamma)) ^K+) , (B- --> ^(D0 --> ^K- ^K+ ^(pi0 --> ^gamma ^gamma)) ^K- )]'
dk_d2kkpi0.addBranches({
'Bu':
'[(B+ --> (D0 --> K+ K- (pi0 --> gamma gamma)) K+ ) , (B- --> (D0 --> K- K+ (pi0 --> gamma gamma)) K- )]',
'D0':
'[(B+ --> ^(D0 --> K+ K- (pi0 --> gamma gamma)) K+) , (B- --> ^(D0 --> K- K+ (pi0 --> gamma gamma)) K- )]',
'K0':
'[(B+ --> (D0 --> ^K+ K- (pi0 --> gamma gamma)) K+) , (B- --> (D0 --> ^K- K+ (pi0 --> gamma gamma)) K- )]',
'K1':
'[(B+ --> (D0 --> K+ ^K- (pi0 --> gamma gamma)) K+) , (B- --> (D0 --> K- ^K+ (pi0 --> gamma gamma)) K- )]',
'Pi0':
'[(B+ --> (D0 --> K+ K- ^(pi0 --> gamma gamma)) K+) , (B- --> (D0 --> K- K+ ^(pi0 --> gamma gamma)) K- )]',
'Bach':
'[(B+ --> (D0 --> K+ K- (pi0 --> gamma gamma)) ^K+) , (B- --> (D0 --> K- K+ (pi0 --> gamma gamma)) ^K- )]',
'Gamma1':
'[(B+ --> (D0 --> K+ K- (pi0 --> ^gamma gamma)) K+) , (B- --> (D0 --> K- K+ (pi0 --> ^gamma gamma)) K- )]',
'Gamma2':
'[(B+ --> (D0 --> K+ K- (pi0 --> gamma ^gamma)) K+) , (B- --> (D0 --> K- K+ (pi0 --> gamma ^gamma)) K- )]'
})
dk_d2pipipi0.Decay = '[(B+ --> ^(D0 --> ^pi+ ^pi- ^(pi0 --> ^gamma ^gamma)) ^K+) , (B- --> ^(D0 --> ^pi- ^pi+ ^(pi0 --> ^gamma ^gamma)) ^K- )]'
dk_d2pipipi0.addBranches({
'Bu':
'[(B+ --> (D0 --> pi+ pi- (pi0 --> gamma gamma)) K+ ) , (B- --> (D0 --> pi- pi+ (pi0 --> gamma gamma)) K- )]',
'D0':
'[(B+ --> ^(D0 --> pi+ pi- (pi0 --> gamma gamma)) K+) , (B- --> ^(D0 --> pi- pi+ (pi0 --> gamma gamma)) K- )]',
'P0':
'[(B+ --> (D0 --> ^pi+ pi- (pi0 --> gamma gamma)) K+) , (B- --> (D0 --> ^pi- pi+ (pi0 --> gamma gamma)) K- )]',
'P1':
'[(B+ --> (D0 --> pi+ ^pi- (pi0 --> gamma gamma)) K+) , (B- --> (D0 --> pi- ^pi+ (pi0 --> gamma gamma)) K- )]',
'Pi0':
'[(B+ --> (D0 --> pi+ pi- ^(pi0 --> gamma gamma)) K+) , (B- --> (D0 --> pi- pi+ ^(pi0 --> gamma gamma)) K- )]',
'Bach':
'[(B+ --> (D0 --> pi+ pi- (pi0 --> gamma gamma)) ^K+) , (B- --> (D0 --> pi- pi+ (pi0 --> gamma gamma)) ^K- )]',
'Gamma1':
'[(B+ --> (D0 --> pi+ pi- (pi0 --> ^gamma gamma)) K+) , (B- --> (D0 --> pi- pi+ (pi0 --> ^gamma gamma)) K- )]',
'Gamma2':
'[(B+ --> (D0 --> pi+ pi- (pi0 --> gamma ^gamma)) K+) , (B- --> (D0 --> pi- pi+ (pi0 --> gamma ^gamma)) K- )]'
})
#=== B2DPi ===#
dpi_d2kpipi0.Decay = '[(B+ --> ^(D0 --> ^K+ ^pi- ^(pi0 --> ^gamma ^gamma)) ^pi+) , (B- --> ^(D0 --> ^K- ^pi+ ^(pi0 --> ^gamma ^gamma)) ^pi- )]'
dpi_d2kpipi0.addBranches({
'Bu':
'[(B+ --> (D0 --> K+ pi- (pi0 --> gamma gamma)) pi+ ) , (B- --> (D0 --> K- pi+ (pi0 --> gamma gamma)) pi- )]',
'D0':
'[(B+ --> ^(D0 --> K+ pi- (pi0 --> gamma gamma)) pi+) , (B- --> ^(D0 --> K- pi+ (pi0 --> gamma gamma)) pi- )]',
'K0':
'[(B+ --> (D0 --> ^K+ pi- (pi0 --> gamma gamma)) pi+) , (B- --> (D0 --> ^K- pi+ (pi0 --> gamma gamma)) pi- )]',
'P0':
'[(B+ --> (D0 --> K+ ^pi- (pi0 --> gamma gamma)) pi+) , (B- --> (D0 --> K- ^pi+ (pi0 --> gamma gamma)) pi- )]',
'Pi0':
'[(B+ --> (D0 --> K+ pi- ^(pi0 --> gamma gamma)) pi+) , (B- --> (D0 --> K- pi+ ^(pi0 --> gamma gamma)) pi- )]',
'Bach':
'[(B+ --> (D0 --> K+ pi- (pi0 --> gamma gamma)) ^pi+) , (B- --> (D0 --> K- pi+ (pi0 --> gamma gamma)) ^pi- )]',
'Gamma1':
'[(B+ --> (D0 --> K+ pi- (pi0 --> ^gamma gamma)) pi+) , (B- --> (D0 --> K- pi+ (pi0 --> ^gamma gamma)) pi- )]',
'Gamma2':
'[(B+ --> (D0 --> K+ pi- (pi0 --> gamma ^gamma)) pi+) , (B- --> (D0 --> K- pi+ (pi0 --> gamma ^gamma)) pi- )]'
})
dpi_d2pikpi0.Decay = '[(B+ --> ^(D0 --> ^pi+ ^K- ^(pi0 --> ^gamma ^gamma)) ^pi+) , (B- --> ^(D0 --> ^pi- ^K+ ^(pi0 --> ^gamma ^gamma)) ^pi-)]'
dpi_d2pikpi0.addBranches({
'Bu':
'[(B+ --> (D0 --> pi+ K- (pi0 --> gamma gamma)) pi+ ) , (B- --> (D0 --> pi- K+ (pi0 --> gamma gamma)) pi- )]',
'D0':
'[(B+ --> ^(D0 --> pi+ K- (pi0 --> gamma gamma)) pi+) , (B- --> ^(D0 --> pi- K+ (pi0 --> gamma gamma)) pi-)]',
'P0':
'[(B+ --> (D0 --> ^pi+ K- (pi0 --> gamma gamma)) pi+) , (B- --> (D0 --> ^pi- K+ (pi0 --> gamma gamma)) pi-)]',
'K0':
'[(B+ --> (D0 --> pi+ ^K- (pi0 --> gamma gamma)) pi+) , (B- --> (D0 --> pi- ^K+ (pi0 --> gamma gamma)) pi-)]',
'Pi0':
'[(B+ --> (D0 --> pi+ K- ^(pi0 --> gamma gamma)) pi+) , (B- --> (D0 --> pi- K+ ^(pi0 --> gamma gamma)) pi-)]',
'Bach':
'[(B+ --> (D0 --> pi+ K- (pi0 --> gamma gamma)) ^pi+) , (B- --> (D0 --> pi- K+ (pi0 --> gamma gamma)) ^pi-)]',
'Gamma1':
'[(B+ --> (D0 --> pi+ K- (pi0 --> ^gamma gamma)) pi+) , (B- --> (D0 --> pi- K+ (pi0 --> ^gamma gamma)) pi-)]',
'Gamma2':
'[(B+ --> (D0 --> pi+ K- (pi0 --> gamma ^gamma)) pi+) , (B- --> (D0 --> pi- K+ (pi0 --> gamma ^gamma)) pi-)]'
})
dpi_d2kkpi0.Decay = '[(B+ --> ^(D0 --> ^K+ ^K- ^(pi0 --> ^gamma ^gamma)) ^pi+) , (B- --> ^(D0 --> ^K- ^K+ ^(pi0 --> ^gamma ^gamma)) ^pi-)]'
dpi_d2kkpi0.addBranches({
'Bu':
'[(B+ --> (D0 --> K+ K- (pi0 --> gamma gamma)) pi+ ) , (B- --> (D0 --> K- K+ (pi0 --> gamma gamma)) pi- )]',
'D0':
'[(B+ --> ^(D0 --> K+ K- (pi0 --> gamma gamma)) pi+) , (B- --> ^(D0 --> K- K+ (pi0 --> gamma gamma)) pi-)]',
'K0':
'[(B+ --> (D0 --> ^K+ K- (pi0 --> gamma gamma)) pi+) , (B- --> (D0 --> ^K- K+ (pi0 --> gamma gamma)) pi-)]',
'K1':
'[(B+ --> (D0 --> K+ ^K- (pi0 --> gamma gamma)) pi+) , (B- --> (D0 --> K- ^K+ (pi0 --> gamma gamma)) pi-)]',
'Pi0':
'[(B+ --> (D0 --> K+ K- ^(pi0 --> gamma gamma)) pi+) , (B- --> (D0 --> K- K+ ^(pi0 --> gamma gamma)) pi-)]',
'Bach':
'[(B+ --> (D0 --> K+ K- (pi0 --> gamma gamma)) ^pi+) , (B- --> (D0 --> K- K+ (pi0 --> gamma gamma)) ^pi-)]',
'Gamma1':
'[(B+ --> (D0 --> K+ K- (pi0 --> ^gamma gamma)) pi+) , (B- --> (D0 --> K- K+ (pi0 --> ^gamma gamma)) pi-)]',
'Gamma2':
'[(B+ --> (D0 --> K+ K- (pi0 --> gamma ^gamma)) pi+) , (B- --> (D0 --> K- K+ (pi0 --> gamma ^gamma)) pi-)]'
})
dpi_d2pipipi0.Decay = '[(B+ --> ^(D0 --> ^pi+ ^pi- ^(pi0 --> ^gamma ^gamma)) ^pi+) , (B- --> ^(D0 --> ^pi- ^pi+ ^(pi0 --> ^gamma ^gamma)) ^pi- )]'
dpi_d2pipipi0.addBranches({
'Bu':
'[(B+ --> (D0 --> pi+ pi- (pi0 --> gamma gamma)) pi+ ) , (B- --> (D0 --> pi- pi+ (pi0 --> gamma gamma)) pi- )]',
'D0':
'[(B+ --> ^(D0 --> pi+ pi- (pi0 --> gamma gamma)) pi+) , (B- --> ^(D0 --> pi- pi+ (pi0 --> gamma gamma)) pi- )]',
'P0':
'[(B+ --> (D0 --> ^pi+ pi- (pi0 --> gamma gamma)) pi+) , (B- --> (D0 --> ^pi- pi+ (pi0 --> gamma gamma)) pi- )]',
'P1':
'[(B+ --> (D0 --> pi+ ^pi- (pi0 --> gamma gamma)) pi+) , (B- --> (D0 --> pi- ^pi+ (pi0 --> gamma gamma)) pi- )]',
'Pi0':
'[(B+ --> (D0 --> pi+ pi- ^(pi0 --> gamma gamma)) pi+) , (B- --> (D0 --> pi- pi+ ^(pi0 --> gamma gamma)) pi- )]',
'Bach':
'[(B+ --> (D0 --> pi+ pi- (pi0 --> gamma gamma)) ^pi+) , (B- --> (D0 --> pi- pi+ (pi0 --> gamma gamma)) ^pi- )]',
'Gamma1':
'[(B+ --> (D0 --> pi+ pi- (pi0 --> ^gamma gamma)) pi+) , (B- --> (D0 --> pi- pi+ (pi0 --> ^gamma gamma)) pi- )]',
'Gamma2':
'[(B+ --> (D0 --> pi+ pi- (pi0 --> gamma ^gamma)) pi+) , (B- --> (D0 --> pi- pi+ (pi0 --> gamma ^gamma)) pi- )]'
})
#========================================#
#=== Setup LoKi variables to be added ===#
#========================================#
#=== Added to all branches ===#
LoKiVars = {
"Q": "Q",
"DIRA_BPV": "BPVDIRA",
"MAXDOCA": "DOCAMAX",
"AMAXDOCA": "PFUNA(AMAXDOCA(''))",
"MIPCHI2_PV": "MIPCHI2DV(PRIMARY)",
"VTXCHI2DOF": "VFASPF(VCHI2/VDOF)",
"LT_BPV": "BPVLTIME('PropertimeFitter/ProperTime::PUBLIC')",
}
if data:
#=== Added only to B2DK channels ===#
LoKiVars_K = {
"ptasy_1.50":
"RELINFO('/Event/Bhadron/Phys/B2D0KD2Pi0HHResolvedBeauty2CharmLine/P2ConeVar1','CONEPTASYM',-1000.)"
}
#=== Added only to B2DPi channels ===#
LoKiVars_Pi = {
"ptasy_1.50":
"RELINFO('/Event/Bhadron/Phys/B2D0PiD2Pi0HHResolvedBeauty2CharmLine/P2ConeVar1','CONEPTASYM',-1000.)"
}
#============================================#
#=== Add tuple tools to relevent branches ===#
#============================================#
#=== Needed for new MC which has "turbo" in LFN path name ===#
default_rel_locs = MCMatchObjP2MCRelator().getDefaultProperty(
'RelTableLocations')
rel_locs = [loc for loc in default_rel_locs if 'Turbo' not in loc]
if not data:
etuple.addTupleTool("TupleToolGeneration")
etuple.addTupleTool("TupleToolTrigger")
for channel in channels:
#=== Added to all branches ===#
channel.ToolList += [
"TupleToolAngles", "TupleToolEventInfo", "TupleToolGeometry",
"TupleToolKinematic", "TupleToolPid", "TupleToolPrimaries",
"TupleToolPropertime", "TupleToolRecoStats", "TupleToolTrackInfo"
]
if not data:
ttMCt = channel.addTupleTool("TupleToolMCTruth")
ttMCt.addTool(MCMatchObjP2MCRelator)
ttMCt.MCMatchObjP2MCRelator.RelTableLocations = rel_locs
channel.addTupleTool("LoKi::Hybrid::TupleTool/LoKi_All")
channel.LoKi_All.Variables = LoKiVars
#=== Neutral variables added to photons from pi0 decay ===#
channel.Gamma1.addTupleTool("TupleToolPhotonInfo")
channel.Gamma1.addTupleTool("TupleToolCaloHypo")
channel.Gamma1.addTupleTool("TupleToolProtoPData/ProtoPData")
channel.Gamma1.ProtoPData.DataList = ["IsNotE"]
channel.Gamma2.addTupleTool("TupleToolPhotonInfo")
channel.Gamma2.addTupleTool("TupleToolCaloHypo")
channel.Gamma2.addTupleTool("TupleToolProtoPData/ProtoPData")
channel.Gamma2.ProtoPData.DataList = ["IsNotE"]
#=== Add Pi0 information ===#
channel.Pi0.addTupleTool("TupleToolPi0Info")
channel.Pi0.addTupleTool("TupleToolCaloHypo")
#=== Trigger information added to Bu ===#
channel.Bu.addTupleTool("TupleToolTISTOS")
channel.Bu.TupleToolTISTOS.Verbose = True
# Trigger names changed with runs!
TriggerListL0 = ["L0HadronDecision"]
TriggerListHlt1 = []
TriggerListHlt2 = []
if year == '2011' or year == '2012':
TriggerListHlt1 = ["Hlt1TrackAllL0Decision"]
TriggerListHlt2 = [
"Hlt2Topo2BodyBBDTDecision", "Hlt2Topo3BodyBBDTDecision",
"Hlt2Topo4BodyBBDTDecision"
]
if year == '2015' or year == '2016' or year == '2017':
TriggerListHlt1 = [
"Hlt1TrackMVADecision", "Hlt1TwoTrackMVADecision"
]
TriggerListHlt2 = [
"Hlt2Topo2BodyDecision", "Hlt2Topo3BodyDecision",
"Hlt2Topo4BodyDecision"
]
AllTriggers = TriggerListL0 + TriggerListHlt1 + TriggerListHlt2
channel.Bu.TupleToolTISTOS.TriggerList = AllTriggers
#=== Kinematic refit of Bu based on fixing D0 mass and fixing origin vertex ===#
#=== DPVCFIT = D0 (mass), primary vertex constrained fit ===#
channel.Bu.addTupleTool("TupleToolDecayTreeFitter/DPVCFIT")
channel.Bu.DPVCFIT.constrainToOriginVertex = True
channel.Bu.DPVCFIT.Verbose = True
channel.Bu.DPVCFIT.daughtersToConstrain = ["D0"]
channel.Bu.DPVCFIT.UpdateDaughters = True
#=== Add branches which are exclusive to MC data ===#
if not data:
channel.ToolList += ["TupleToolMCBackgroundInfo"]
ttMCt.ToolList = [
"MCTupleToolDecayType", "MCTupleToolHierarchy",
"MCTupleToolKinematic", "MCTupleToolReconstructed"
]
#=== Add ptasy_1.50 variable ===#
channel.addTupleTool("TupleToolTrackIsolation/ttti")
channel.ttti.FillAsymmetry = True
channel.ttti.MinConeAngle = 1.5
channel.ttti.MaxConeAngle = 1.5
#=== Add ptasy_1.50 variable for data ===#
if data:
for channel in k_chans:
channel.Bu.addTupleTool("LoKi::Hybrid::TupleTool/LoKi_Bu")
channel.Bu.LoKi_Bu.Variables = dict(LoKiVars.items() +
LoKiVars_K.items())
channel.Pi0.addTupleTool("LoKi::Hybrid::TupleTool/LoKi_Pi0")
channel.Pi0.LoKi_Pi0.Variables = dict(LoKiVars.items() +
LoKiVars_K.items())
channel.Gamma1.addTupleTool("LoKi::Hybrid::TupleTool/LoKi_Gamma1")
channel.Gamma1.LoKi_Gamma1.Variables = dict(LoKiVars.items() +
LoKiVars_K.items())
channel.Gamma2.addTupleTool("LoKi::Hybrid::TupleTool/LoKi_Gamma2")
channel.Gamma2.LoKi_Gamma2.Variables = dict(LoKiVars.items() +
LoKiVars_K.items())
for channel in pi_chans:
channel.Bu.addTupleTool("LoKi::Hybrid::TupleTool/LoKi_Bu")
channel.Bu.LoKi_Bu.Variables = dict(LoKiVars.items() +
LoKiVars_Pi.items())
channel.Pi0.addTupleTool("LoKi::Hybrid::TupleTool/LoKi_Pi0")
channel.Pi0.LoKi_Pi0.Variables = dict(LoKiVars.items() +
LoKiVars_Pi.items())
channel.Gamma1.addTupleTool("LoKi::Hybrid::TupleTool/LoKi_Gamma1")
channel.Gamma1.LoKi_Gamma1.Variables = dict(LoKiVars.items() +
LoKiVars_Pi.items())
channel.Gamma2.addTupleTool("LoKi::Hybrid::TupleTool/LoKi_Gamma2")
channel.Gamma2.LoKi_Gamma2.Variables = dict(LoKiVars.items() +
LoKiVars_Pi.items())
#==============================#
#=== Finalise configuration ===#
#==============================#
#=== Set database tags ===#
from Configurables import CondDB
if data:
CondDB(LatestGlobalTagByDataType=year)
#=== Configure DaVinci ===#
if data:
DaVinci().RootInTES = '/Event/{0}'.format(stream)
DaVinci().appendToMainSequence([scaler])
DaVinci().EventPreFilters = fltrs.filters('Filters')
channels += [etuple]
DaVinci().UserAlgorithms += channels
#=== Input type for 2012 MC is DST, but all data is MDST ===#
if data:
DaVinci().InputType = 'MDST'
DaVinci(
).TupleFile = prefix + '_Bu2DH_AllModes_' + year + '_Mag' + mag + '.root'
if not data:
DaVinci(
).TupleFile = prefix + '_Bu2' + mode + '_' + year + '_Mag' + mag + '.root'
if year == "2012" or year == "2011":
DaVinci().InputType = 'DST'
else:
DaVinci().InputType = 'MDST'
DaVinci().RootInTES = '/Event/{0}'.format(stream)
DaVinci().PrintFreq = 1000
DaVinci().DataType = year
DaVinci().Simulation = not data
DaVinci().Lumi = not DaVinci().Simulation
DaVinci().EvtMax = -1
DaVinci().RootCompressionLevel = 'ZLIB:1'
#=======================================================#
#=== Set database tags! Only needs to be done for MC ===#
#=======================================================#
if not data:
#=== D --> K Pi Pi0 ===#
if mode == "DK_D2KPiPi0" or mode == "DPi_D2KPiPi0":
if year == "2012":
if mag == 'Up':
DaVinci().CondDBtag = 'sim-20160321-2-vc-mu100'
if mag == 'Down':
DaVinci().CondDBtag = 'sim-20160321-2-vc-md100'
DaVinci().DDDBtag = 'dddb-20150928'
if year == "2015":
if mag == 'Up':
DaVinci().CondDBtag = 'sim-20161124-vc-mu100'
if mag == 'Down':
DaVinci().CondDBtag = 'sim-20161124-vc-md100'
DaVinci().DDDBtag = 'dddb-20170721-3'
#=== D --> Pi Pi Pi0 ===#
if mode == "DK_D2PiPiPi0" or mode == "DPi_D2PiPiPi0":
if year == "2012":
if mag == 'Up':
DaVinci().CondDBtag = 'sim-20130522-1-vc-mu100'
if mag == 'Down':
DaVinci().CondDBtag = 'sim-20130522-1-vc-md100'
DaVinci().DDDBtag = 'dddb-20130929-1'
#=== D --> K K Pi0 ===#
if mode == "DK_D2KKPi0" or mode == "DPi_D2KKPi0":
if year == "2012":
if mag == 'Up':
DaVinci().CondDBtag = 'sim-20130522-1-vc-mu100'
if mag == 'Down':
DaVinci().CondDBtag = 'sim-20130522-1-vc-md100'
DaVinci().DDDBtag = 'dddb-20130929-1'
return
# Only ask for luminosity information when not using simulated data
DaVinci().EvtMax = -1
DaVinci().CondDBtag = 'sim-20130522-vc-md100'
DaVinci().DDDBtag = 'dddb-20130929'
#MessageSvc().OutputLevel = DEBUG
# Create an ntuple to capture B decays from the StrippingLine line
dtt = DecayTreeTuple('Bu2LLK_ee')
dtt.Inputs = ['/Event/{0}/Phys/{1}/Particles'.format(stream, line)]
#dtt.Decay = '[B0 -> K*(892)0 e- e+]CC'
dtt.Decay = '[B0 -> ^K*(892)0 ^(J/psi(1S) -> ^e- ^e+ )]CC'
#dtt.addBranches({'B0' : '[B0 -> K*(892)0 e- e+]CC',
# 'Kstar' : '[B0 -> ^K*(892)0 e- e+]CC',
# 'eplus' : '[B0 -> K*(892)0 ^e- e+]CC',
# 'eminus': '[B0 -> K*(892)0 e- ^e+]CC'})
dtt.addBranches({'B0' : '[^(B0 -> K*(892)0 (J/psi(1S) -> e- e+ ))]CC',
'Kst_892_0' : '[B0 -> ^K*(892)0 (J/psi(1S) -> e- e+ )]CC',
'E1' : '[B0 -> K*(892)0 (J/psi(1S) -> ^e- e+ )]CC',
'E2': '[B0 -> K*(892)0 (J/psi(1S) -> e- ^e+ )]CC',
'JPs': '[B0 -> K*(892)0 ^(J/psi(1S) -> e- e+ )]CC'})
b0_hybrid = dtt.B0.addTupleTool('LoKi::Hybrid::TupleTool/LoKi_B0')
b0_hybrid.Variables = {
'hop_mass': 'BPVHOPM',
'corr_mass': 'BPVCORRM'
}
DaVinci().UserAlgorithms += [dtt]
NTupleLUN="DTT",
## input particles from selection:
Inputs=[particlePath],
## Primary vertices from mDST
P2PVInputLocations=[p2PVLocation],
UseP2PVRelations=True,
WriteP2PVRelations=False,
)
dtt.Decay = "B_s0 -> (^J/psi(1S) => ^mu+ ^mu-) (^phi(1020) -> ^K+ ^K-)"
if mDST: dtt.RootInTES = locationRoot
from DecayTreeTuple.Configuration import *
## Add appropriate tools
dtt.addBranches(
{"B": "B_s0 : B_s0 -> (J/psi(1S) => mu+ mu-) (phi(1020) -> K+ K-)"})
dtt.B.addTupleTool('TupleToolPropertime')
ttsi = dtt.B.addTupleTool('TupleToolSwimmingInfo/TriggerInfo')
ttsis = dtt.B.addTupleTool('TupleToolSwimmingInfo/StrippingInfo')
ttsi.ReportsLocation = selectionPath + '/P2TPRelations'
ttsis.ReportsLocation = selectionPath + '/P2TPRelations'
ttsis.ReportStage = "Stripping"
tttt = dtt.B.addTupleTool('TupleToolTISTOS')
tttt.TriggerList = [
'Hlt1TrackAllL0Decision', 'Hlt1TrackMuonDecision',
'Hlt1DiMuonHighMassDecision', 'Hlt2DiMuonDetachedJpsiDecision',
'Hlt2DiMuonJpsiDecision'
]
tttt.VerboseHlt1 = True
DstConf().Turbo = True
#Do not line below when data from 2015
TurboConf().PersistReco=True
turbo_loc = '/Event/Turbo/{0}/Particles'
dz_line = 'Hlt2CharmHadD02KmPipTurbo'
dtt = DecayTreeTuple('TupleD0ToKpi')
dtt.Inputs = [turbo_loc.format(dz_line)]
dtt.Decay = '[D0 -> K- pi+]CC'
dtt.addBranches({
'D0': '[D0 -> K- pi+]CC'
})
dz=DataOnDemand(turbo_loc.format(dz_line))
pions = DataOnDemand('Phys/StdAllNoPIDsPions/Particles')
dst = CombineParticles('DstToD0pi',
DecayDescriptors=['[D*(2010)+ -> D0 pi+]cc'],
CombinationCut=("AM - ACHILD(M,1) < 800*MeV"),
MotherCut="(VFASPF(VCHI2/VDOF) < 6)")
dst_sel = Selection(
'Sel_DstToD0pi',
Algorithm=dst,
RequiredSelections=[dz, pions]
# Run fixing XmumuLine
#---------------------------
from Configurables import NeutrinoBuildTupleTool, PromptNeutrinoTupleTool
tuple = DecayTreeTuple('PromptNeutrinoTupleTool')
tuple.OutputLevel = INFO
stream = 'AllStreams'
stripping_line = 'B2XMuMu_Line'
tuple.Inputs = [StripSel1.outputLocation()]
tuple.Decay = "[B+ -> ^( J/psi(1S) -> ^mu- ^mu+ ) ^pi+]CC"
tuple.addBranches({
"B" : "[B+ -> ( J/psi(1S) -> mu- mu+ ) pi+ ]CC",
"Jpsi" : "[B+ -> ^(J/psi(1S) -> mu- mu+) pi+]CC",
"mu_prim" : "[B+ -> (J/psi(1S) -> mu- ^mu+) pi+]CC",
"mu_sec" : "[B+ -> (J/psi(1S) -> ^mu- mu+) pi+]CC",
"pi" : "[B+ -> (J/psi(1S) -> mu- mu+) ^pi+]CC",
})
tuple.ToolList = [
"TupleToolKinematic",
"TupleToolPid",
"TupleToolGeometry",
"TupleToolPrimaries",
"TupleToolTrackInfo",
"TupleToolEventInfo",
"TupleToolIsolationTwoBody",
"TupleToolRecoStats",
"TupleToolAngles",
"TupleToolANNPID",
LHCbApp().CondDBtag = 'sim-20190430-1-vc-mu100'
LHCbApp().Simulation = True
stream = "AllStreams" # MC: AllStreams
strip = "Bu2LLK_eeLine2"
tup = DecayTreeTuple('Bd_Kstee')
#tup.Decay = '[[B0]CC -> ^(J/psi(1S) -> ^e+ ^e-) ^(K*(892)0 -> ^K+ ^pi-)]CC'
tup.Decay = '[[B0]CC -> (J/psi(1S) -> e+ ^e-) (K*(892)0 -> K+ pi-)]CC'
tup.Inputs = ['/Event/{0}/Phys/{1}/Particles'.format(stream, strip)]
tup.addBranches({
'B0':
'[[B0]CC -> (J/psi(1S) -> e+ e-) (K*(892)0 -> K+ pi-)]CC',
#'Kaon' : '[[B0]CC -> (J/psi(1S) -> e+ e-) (K*(892)0 -> ^K+ pi-)]CC',
#'Pion' : '[[B0]CC -> (J/psi(1S) -> e+ e-) (K*(892)0 -> K+ ^pi-)]CC',
#'Kstar' : '[[B0]CC -> (J/psi(1S) -> e+ e-) ^(K*(892)0 -> K+ pi-)]CC',
#'Jpsi' : '[[B0]CC -> ^(J/psi(1S) -> e+ e-) (K*(892)0 -> K+ pi-)]CC',
#'eplus' : '[[B0]CC -> (J/psi(1S) -> ^e+ e-) (K*(892)0 -> K+ pi-)]CC',
'eminus':
'[[B0]CC -> (J/psi(1S) -> e+ ^e-) (K*(892)0 -> K+ pi-)]CC'
})
tup.ToolList = []
tup.addTupleTool("TupleToolPrimaries")
tup.addTupleTool("TupleToolEventInfo")
tup.addTupleTool("TupleToolCaloInfo") # (custom) dump of ECAL clusters
tup.eminus.addTupleTool("TupleToolKinematic")
tup.eminus.addTupleTool("TupleToolPid")
tup.eminus.addTupleTool("TupleToolGeometry")
tup.eminus.addTupleTool("TupleToolTrackInfo")
tup.eminus.addTupleTool("TupleToolBremInfo") # Brem adder information
stream = "AllStreams"
line = "D2hhCompleteEventPromptDst2D2RSLine"
# Create an ntuple to capture D*+ decays from the StrippingLine line
dtt = DecayTreeTuple("TupleDstToD0pi_D0ToKpi")
dtt.Inputs = ["/Event/{0}/Phys/{1}/Particles".format(stream, line)]
dtt.Decay = "[D*(2010)+ -> (D0 -> K- pi+) pi+]CC"
track_tool = dtt.addTupleTool("TupleToolTrackInfo")
track_tool.Verbose = True
dtt.addTupleTool("TupleToolPrimaries")
dtt.addBranches(
{
"Dstar": "[D*(2010)+ -> (D0 -> K- pi+) pi+]CC",
"D0": "[D*(2010)+ -> ^(D0 -> K- pi+) pi+]CC",
"Kminus": "[D*(2010)+ -> (D0 -> ^K- pi+) pi+]CC",
"piplus": "[D*(2010)+ -> (D0 -> K- ^pi+) pi+]CC",
"pisoft": "[D*(2010)+ -> (D0 -> K- pi+) ^pi+]CC",
}
)
dtt.D0.addTupleTool("TupleToolPropertime")
# Configure DaVinci
DaVinci().UserAlgorithms += [dtt]
DaVinci().InputType = "DST"
DaVinci().TupleFile = "DVntuple.root"
DaVinci().PrintFreq = 1000
DaVinci().DataType = "2012"
DaVinci().Simulation = True
# Only ask for luminosity information when not using simulated data
# pions (test)
#tuple_pions = DecayTreeTuple( 'pions' )
#tuple_pions.Decay = '[pi+]CC'
#tuple_pions.Inputs = ["Phys/StdAllLoosePions/Particles"]
#tuple_pions.addTool(TupleToolDecay, name="Pi")
# (prompt) Lc -> p K pi
stream = "AllStreams"
tuple_Lc2pKpi = DecayTreeTuple('tuple_Lc2pKpi')
tuple_Lc2pKpi.Inputs = [
'/Event/{0}/Phys/{1}/Particles'.format(stream, line) for line in lines
]
tuple_Lc2pKpi.Decay = '[Lambda_c+ -> ^p+ ^K- ^pi+]CC'
tuple_Lc2pKpi.addBranches({
'lcplus': '[Lambda_c+ -> p+ K- pi+]CC',
'pplus': '[Lambda_c+ -> ^p+ K- pi+]CC',
'kminus': '[Lambda_c+ -> p+ ^K- pi+]CC',
'piplus': '[Lambda_c+ -> p+ K- ^pi+]CC'
})
#tuple_Lc2pKpi.setDescriptorTemplate('${lcplus}[Lambda_c+ -> ${pplus}p+ ${kminus}K- ${piplus}pi+]CC') # new setup, replaces Decay and addBranches
# add DecayTreeFitter tool to constrain origin to PV and refit kinematics
dtftool = tuple_Lc2pKpi.lcplus.addTupleTool(
'TupleToolDecayTreeFitter/PVConstrainedDTF')
dtftool.constrainToOriginVertex = True
# Build combinations ourselves instead of depending on stripping output.
if (Turbo):
from PhysConf.Selections import AutomaticData
Pions = AutomaticData('Phys/StdAllNoPIDsPions/Particles')
Kaons = AutomaticData('Phys/StdAllLooseKaons/Particles')
Protons = AutomaticData('Phys/StdAllLooseProtons/Particles')
TurboConf().PersistReco = True
pions = DataOnDemand('Phys/StdAllNoPIDsPions/Particles')
ks0 = CombineParticles('Ks0Topipi',
DecayDescriptors=['[KS0 -> pi+ pi+]cc'],
CombinationCut=("AM < 320*MeV"), #parent
MotherCut="ALL")
ks0_sel = Selection(
'Sel_Ks0Topipi',
Algorithm=ks0,
RequiredSelections=[pions]
)
ks0_selseq = SelectionSequence(
'SelSeq_Ks0Topipi',
TopSelection=ks0_sel
)
dtt_ks0 = DecayTreeTuple('TupleKs0Topipi')
dtt_ks0.Inputs = ks0_selseq.outputLocations()
dtt_ks0.Decay = '[KS0 -> ^pi+ ^pi+]CC'
dtt_ks0.addBranches({
'Ks0': '[KS0 -> pi+ pi+]CC',
'pi1': '[KS0 -> ^pi+ pi+]CC',
'pi2': '[KS0 -> pi+ ^pi+]CC'
})
DaVinci().UserAlgorithms = [ks0_selseq.sequence(), dtt_ks0]
DaVinci().DataType = '2016'
DaVinci().EvtMax = 1000
DaVinci().TupleFile = 'PersistRecoTuple_ks0_pipi.root'
tuple.addTool(TupleToolPid, name="TupleToolPid")
tuple.TupleToolPid.Verbose = True
#tuple.UseLabXSyntax = True
#tuple.Decay = " [B0 -> ^[ D0 -> ^K- ^pi+ ]CC ^[ K*(892)0 -> ^K+ ^pi- ]CC]CC "
#tuple.Decay = " [B0 -> ^(D0 -> ^K- ^pi+) ^(K*(892)0 -> ^K+ ^pi-) ]CC "
tuple.Decay = "[B0 -> ^( D0 -> ^K+ ^K- ) [^( K*(892)0 -> ^K+ ^pi- )]CC ]CC "
tuple.addBranches({
"B":
" [B0 -> ( D0 -> K+ K- ) [ ( K*(892)0 -> K+ pi- )]CC ]CC ",
"D":
" [B0 -> ^( D0 -> K+ K- ) [ ( K*(892)0 -> K+ pi- )]CC ]CC ",
"D0p":
" [B0 -> ( D0 -> ^K+ K- ) [ ( K*(892)0 -> K+ pi- )]CC ]CC ",
"D0m":
" [B0 -> ( D0 -> K+ ^K- ) [ ( K*(892)0 -> K+ pi- )]CC ]CC ",
"K":
" [B0 -> ( D0 -> K+ K- ) [ ( K*(892)0 -> ^K+ pi- )]CC ]CC ",
"pi":
" [B0 -> ( D0 -> K+ K- ) [ ( K*(892)0 -> K+ ^pi- )]CC ]CC ",
"Kst":
" [B0 -> ( D0 -> K+ K- ) [^( K*(892)0 -> K+ pi- )]CC ]CC "
})
tuple.addTupleTool("TupleToolTISTOS/TupleToolTISTOS")
tuple.TupleToolTISTOS.VerboseL0 = True
tuple.TupleToolTISTOS.VerboseHlt1 = True
tuple.TupleToolTISTOS.VerboseHlt2 = True
tuple.TupleToolTISTOS.TriggerList = myTriggerList
#Add Loki variables
if IsMC:
tuple.addTool(TupleToolTrackIsolation, name="TupleToolTrackIsolation")
tuple.TupleToolTrackIsolation.Verbose = True
tuple.ToolList+=["TupleToolTrackIsolation/TupleToolTrackIsolation"]
tuple.Decay = "[B0 -> ^(phi(1020) -> ^K+ ^K-) ^(rho(770)0 -> ^pi+ ^pi-)]CC"
if myDecayType == 1:
tuple.Decay = "[B_s0 -> ^(phi(1020) -> ^K+ ^K-) ^(rho(770)0 -> ^pi+ ^pi-)]CC"
elif myDecayType ==2 :
tuple.Decay = "[B_s0 -> ^(phi(1020) -> ^K+ ^K-) ^(f_0(980) -> ^pi+ ^pi-)]CC"
elif myDecayType == 3:
tuple.Decay = "[B_s0 -> ^(phi(1020) -> ^K+ ^K-) ^(phi(1020) -> ^K+ ^K-)]CC"
if myDecayType == 1:
tuple.addBranches({
"Bs" : "^([B_s0 -> (phi(1020) -> K+ K-) (rho(770)0 -> pi+ pi-)]CC)",
"f0" : " [B_s0 -> (phi(1020) -> K+ K-) ^(rho(770)0 -> pi+ pi-)]CC "
})
elif myDecayType == 2:
tuple.addBranches({
"Bs" : "^([B_s0 -> (phi(1020) -> K+ K-) (f_0(980) -> pi+ pi-)]CC)",
"f0" : " [B_s0 -> (phi(1020) -> K+ K-) ^(f_0(980) -> pi+ pi-)]CC "
})
elif myDecayType == 3:
tuple.addBranches({
"Bs" : "^([B_s0 -> (phi(1020) -> K+ K-) (phi(1020) -> K+ K-)]CC)",
"f0" : " [B_s0 -> (phi(1020) -> K+ K-) ^(phi(1020) -> K+ K-)]CC ",
"piplus" : " [B_s0 -> (phi(1020) -> K+ K-) (phi(1020) -> ^K+ K-)]CC ",
"piminus" : " [B_s0 -> (phi(1020) -> K+ K-) (phi(1020) -> K+ ^K-)]CC "
})
else:
tuple.addBranches({
DaVinci().Simulation = True
# Only ask for luminosity information when not using simulated data
DaVinci().EvtMax = -1
DaVinci().CondDBtag = 'sim-20130522-vc-md100'
DaVinci().DDDBtag = 'dddb-20130929'
#MessageSvc().OutputLevel = DEBUG
# Create an ntuple to capture B decays from the StrippingLine line
dtt = DecayTreeTuple('Bu2LLK_ee')
dtt.Inputs = ['/Event/{0}/Phys/{1}/Particles'.format(stream, line)]
#dtt.Decay = '[B0 -> K*(892)0 e- e+]CC'
dtt.Decay = '[B0 -> ^K*(892)0 ^(J/psi(1S) -> ^e- ^e+ )]CC'
#dtt.addBranches({'B0' : '[B0 -> K*(892)0 e- e+]CC',
# 'Kstar' : '[B0 -> ^K*(892)0 e- e+]CC',
# 'eplus' : '[B0 -> K*(892)0 ^e- e+]CC',
# 'eminus': '[B0 -> K*(892)0 e- ^e+]CC'})
dtt.addBranches({
'B0': '[^(B0 -> K*(892)0 (J/psi(1S) -> e- e+ ))]CC',
'Kst_892_0': '[B0 -> ^K*(892)0 (J/psi(1S) -> e- e+ )]CC',
'E1': '[B0 -> K*(892)0 (J/psi(1S) -> ^e- e+ )]CC',
'E2': '[B0 -> K*(892)0 (J/psi(1S) -> e- ^e+ )]CC',
'JPs': '[B0 -> K*(892)0 ^(J/psi(1S) -> e- e+ )]CC'
})
b0_hybrid = dtt.B0.addTupleTool('LoKi::Hybrid::TupleTool/LoKi_B0')
b0_hybrid.Variables = {'hop_mass': 'BPVHOPM', 'corr_mass': 'BPVCORRM'}
DaVinci().UserAlgorithms += [dtt]
'/Event/AllStreams/Phys/BetaSPsi2SMuMu_Bs2Psi2SPhiMuMuDetatchedLine/Particles'
]
tuple.ToolList = [
"TupleToolKinematic", "TupleToolEventInfo", "TupleToolRecoStats",
"TupleToolMCTruth", "TupleToolMCBackgroundInfo"
]
tuple.addBranches({
"Kplus":
"[B_s0 -> (psi(2S) -> mu+ mu-) (phi(1020) -> ^K+ K-)]CC",
"Kminus":
"[B_s0 -> (psi(2S) -> mu+ mu-) (phi(1020) -> K+ ^K-)]CC",
"muplus":
"[B_s0 -> (psi(2S) -> ^mu+ mu-) (phi(1020) -> K+ K-)]CC",
"muminus":
"[B_s0 -> (psi(2S) -> mu+ ^mu-) (phi(1020) -> K+ K-)]CC",
"psi":
"[B_s0 -> ^(psi(2S) -> mu+ mu-) (phi(1020) -> K+ K-)]CC",
"phi":
"[B_s0 -> (psi(2S) -> mu+ mu-) ^(phi(1020) -> K+ K-)]CC",
"B_s0":
"[B_s0 -> (psi(2S) -> mu+ mu-) (phi(1020) -> K+ K-)]CC",
})
LoKi_All = tuple.addTupleTool("LoKi::Hybrid::TupleTool/LoKi_All")
LoKi_All.Variables = {
'MINIPCHI2': "MIPCHI2DV(PRIMARY)",
'MINIP': "MIPDV(PRIMARY)",
'IPCHI2_OWNPV': "BPVIPCHI2()",
'IP_OWNPV': "BPVIP()"
}
## input particles from selection:
Inputs = [ '/Event/SwimStrippingD2hhMDST_v14r8/CharmToBeSwum/Phys/D2hhPromptD2KPiLine/Particles' ],
## Primary vertices from mDST
P2PVInputLocations = [ '/Event/SwimStrippingD2hhMDST_v14r8/CharmToBeSwum/Phys/D2hhPromptD2KPiLine/Particle2VertexRelations'],
UseP2PVRelations = True,
WriteP2PVRelations = False,
Decay = "[[D0]cc -> ^K- ^pi+]cc"
)
from DecayTreeTuple.Configuration import *
## Add appropriate tools
from Configurables import EventNodeKiller
killer=EventNodeKiller( Nodes = ["/Event/DAQ","/Event/pRec"] )
dtt.addBranches({
"D" : "[D0]cc : [[D0]cc -> K- pi+]cc"
})
dtt.D.addTupleTool('TupleToolPropertime')
ttsi = dtt.D.addTupleTool('TupleToolSwimmingInfo/TriggerInfo')
ttsis = dtt.D.addTupleTool('TupleToolSwimmingInfo/StrippingInfo')
ttsi.ReportsLocation = '/Event/SwimStrippingD2hhMDST_v14r8/CharmToBeSwum/Phys/D2hhPromptD2KPiLine/P2TPRelations'
ttsis.ReportsLocation = '/Event/SwimStrippingD2hhMDST_v14r8/CharmToBeSwum/Phys/D2hhPromptD2KPiLine/P2TPRelations'
ttsis.ReportStage = "Stripping"
tttt = dtt.D.addTupleTool('TupleToolTISTOS')
tttt.TriggerList = ['Hlt1TrackAllL0Decision', 'Hlt2CharmHadD02HH_D02KPiDecision']
tttt.VerboseHlt1 = True
tttt.VerboseHlt2 = True
dv = DaVinci()
# Stream and stripping line we want to use
stream = 'AllStreams'
line = 'D2hhCompleteEventPromptDst2D2RSLine'
# Create an ntuple to capture D*+ decays from the StrippingLine line
dtt = DecayTreeTuple('TupleDstToD0pi_D0ToKpi')
dtt.Inputs = ['/Event/{0}/Phys/{1}/Particles'.format(stream, line)]
dtt.Decay = '[D*(2010)+ -> ^(D0 -> ^K- ^pi+) ^pi+]CC'
track_tool = dtt.addTupleTool('TupleToolTrackInfo')
track_tool.Verbose = True
dtt.addTupleTool('TupleToolPrimaries')
dtt.addBranches({
'Dstar': '[D*(2010)+ -> (D0 -> K- pi+) pi+]CC',
'D0': '[D*(2010)+ -> ^(D0 -> K- pi+) pi+]CC',
'Kminus': '[D*(2010)+ -> (D0 -> ^K- pi+) pi+]CC',
'piplus': '[D*(2010)+ -> (D0 -> K- ^pi+) pi+]CC',
'pisoft': '[D*(2010)+ -> (D0 -> K- pi+) ^pi+]CC'
})
dtt.D0.addTupleTool('TupleToolPropertime')
# Configure DaVinci
DaVinci().UserAlgorithms += [dtt]
DaVinci().InputType = 'DST'
DaVinci().TupleFile = 'DVntuple.root'
DaVinci().PrintFreq = 1000
DaVinci().DataType = '2012'
DaVinci().Simulation = True
# Only ask for luminosity information when not using simulated data
DaVinci().Lumi = not DaVinci().Simulation
#---------------------------
# Configure lines and Decay
#---------------------------
tuple = DecayTreeTuple('DetachedN')
TupleInputs = []
for line in B2Lambda0MuLines:
TupleInputs.append(line.outputLocation())
tuple.Inputs = TupleInputs
tuple.OutputLevel = INFO
tuple.Decay = "[B- -> ^(Lambda0 -> ^mu- ^pi+) ^mu-]CC"
tuple.addBranches({
"B": "[B- -> (Lambda0 -> mu- pi+) mu-]CC",
"N": "[B- -> ^(Lambda0 -> mu- pi+) mu-]CC",
"mu_prim": "[B- -> (Lambda0 -> mu- pi+) ^mu-]CC",
"mu_sec": "[B- -> (Lambda0 -> ^mu- pi+) mu-]CC",
"pi": "[B- -> (Lambda0 -> mu- ^pi+) mu-]CC"
})
#---------------------------
# Define nTuple Variables
#---------------------------
tuple.ToolList = [
"TupleToolKinematic",
"TupleToolPid",
"TupleToolGeometry",
"TupleToolPrimaries",
"TupleToolTrackInfo",
"TupleToolEventInfo",
tuple.Lambda_b0.NoPVFit.Verbose=True
tuple.Lambda_b0.NoPVFit.constrainToOriginVertex=False
tuple.Lambda_b0.NoPVFit.daughtersToConstrain = ["eta","p+","K-"]
#========================================REFIT WITH NOTHING CONSTRAINED========================================
tuple.Lambda_b0.addTupleTool('TupleToolDecayTreeFitter/Consnothing')
tuple.Lambda_b0.Consnothing.Verbose=True
tuple.Lambda_b0.Consnothing.constrainToOriginVertex=False
#========================================LOKI FUBNCTOR VARIABLES========================================
tuple.addBranches({
'proton' : '[Lambda_b0 -> ^p+ K- (eta -> pi+ pi- (pi0 -> gamma gamma))]CC',
'Kminus' : '[Lambda_b0 -> p+ ^K- (eta -> pi+ pi- (pi0 -> gamma gamma))]CC',
'eta' : '[Lambda_b0 -> p+ K- ^(eta -> pi+ pi- (pi0 -> gamma gamma))]CC',
'piplus':'[Lambda_b0 -> p+ K- (eta -> ^pi+ pi- (pi0 -> gamma gamma))]CC',
'piminus':'[Lambda_b0 -> p+ K- (eta -> pi+ ^pi- (pi0 -> gamma gamma))]CC',
'pi0':'[Lambda_b0 -> p+ K- (eta -> pi+ pi- ^(pi0 -> gamma gamma))]CC',
'gamma':'[Lambda_b0 -> p+ K- (eta -> pi+ pi- (pi0 -> ^gamma gamma))]CC',
'gamma0':'[Lambda_b0 -> p+ K- (eta -> pi+ pi- (pi0 -> gamma ^gamma))]CC',
})
from LoKiPhys.decorators import MAXTREE,MINTREE,ISBASIC,HASTRACK,SUMTREE,PT,ABSID,NINTREE,ETA,TRPCHI2
Lambda_b0_hybrid=tuple.Lambda_b0.addTupleTool('LoKi::Hybrid::TupleTool/LoKi_Lambda_b0')
proton_hybrid=tuple.proton.addTupleTool('LoKi::Hybrid::TupleTool/LoKi_proton')
Kminus_hybrid=tuple.Kminus.addTupleTool('LoKi::Hybrid::TupleTool/LoKi_Kminus')
eta_hybrid=tuple.eta.addTupleTool('LoKi::Hybrid::TupleTool/LoKi_eta')
piminus_hybrid=tuple.piminus.addTupleTool('LoKi::Hybrid::TupleTool/LoKi_piminus')
piplus_hybrid=tuple.piplus.addTupleTool('LoKi::Hybrid::TupleTool/LoKi_piplus')
gamma_hybrid=tuple.gamma.addTupleTool('LoKi::Hybrid::TupleTool/LoKi_gamma')
gamma0_hybrid=tuple.gamma0.addTupleTool('LoKi::Hybrid::TupleTool/LoKi_gamma0')
dttuple.Inputs = [ stripOutputLoc ]
print "tuple input :",dttuple.Inputs
print "number of events:", DaVinci().EvtMax
a = "->"
dttuple.Decay = "[D+ "+a+" ^pi- ^pi+ ^pi+]CC"
branch_definitions = {
"D" : "[D+ "+a+" pi- pi+ pi+]CC",
"pi1": "[D+ "+a+" ^pi- pi+ pi+]CC",
"pi2": "[D+ "+a+" pi- ^pi+ pi+]CC",
"pi3": "[D+ "+a+" pi- pi+ ^pi+]CC",
}
dttuple.addBranches(branch_definitions)
dttuple.TupleName = "DPiPiPi_NTuple"
dttuple.addTool(TupleToolTISTOS())
dttuple.TupleToolTISTOS.VerboseL0 = True
dttuple.TupleToolTISTOS.VerboseHlt1 = True
dttuple.TupleToolTISTOS.VerboseHlt2 = True
dttuple.TupleToolTISTOS.Verbose = True
ttmhk = TupleToolMassHypo("KaonHypo")
ttmhk.PIDReplacements = { "pi+" : "K+"}
#ttmhk.CC = True
dttuple.D.addTool(ttmhk)
dttuple.D.ToolList += ["TupleToolMassHypo/KaonHypo"]
from Configurables import TupleToolPropertime, DecayTreeTuple, TupleToolTISTOS, TupleToolDecayTreeFitter
tupleNames = 'Dst2010ToD0ToKpipipipiTuple', 'Dst2010ToD0ToKKKpipiTuple', \
'Dst2010ToD0TopipipipipiTuple', 'Dst2010ToD0ToKKpipipiTuple'
for tupleName in tupleNames :
TupleToolPropertime(tupleName + '.TupleToolPropertime').FitToPV = True
dtt = DecayTreeTuple(tupleName)
#dtt.lab0.setName('Dstar')
#dtt.Branches['Dstar'] = dtt.Branches['lab0']
#del dtt.Branches['lab0']
dtt.addBranches({'D0' : dtt.Decay.replace('^', '').replace('(D0', '^(D0')})
tt_tistos = filter(lambda tool : tool.__class__.__name__ == 'TupleToolTISTOS', dtt.lab0.getTools())[0]
dtt.D0.addTupleTool(TupleToolTISTOS('D0_TISTOS', TriggerList = tt_tistos.TriggerList,
Verbose = True, VerboseL0 = True, VerboseHlt1 = True,
VerboseHlt2 = True))
ttdtf = dtt.lab0.addTupleTool(TupleToolDecayTreeFitter('tt_dtf'))
ttdtf.Verbose = True
ttdtfvtx = dtt.lab0.addTupleTool(TupleToolDecayTreeFitter('tt_dtf_vtx'))
ttdtfvtx.Verbose = True
ttdtfvtx.constrainToOriginVertex = True
def makeTuple(self):
"""
Make tuple
"""
from Configurables import (
FitDecayTrees,
DecayTreeTuple,
TupleToolDecayTreeFitter,
TupleToolDecay,
TupleToolTrigger,
TupleToolTISTOS,
TupleToolPropertime,
PropertimeFitter,
TupleToolKinematic,
TupleToolGeometry,
TupleToolEventInfo,
TupleToolPrimaries,
TupleToolPid,
TupleToolTrackInfo,
TupleToolRecoStats,
TupleToolMCTruth,
LoKi__Hybrid__TupleTool,
LoKi__Hybrid__EvtTupleTool,
)
tuple = DecayTreeTuple(
"Tuple" + self.name
) # I can put as an argument a name if I use more than a DecayTreeTuple
tuple.Inputs = [self.sequence.outputLocation()]
tuple.Decay = self.dec
tuple.ToolList = [
"TupleToolKinematic",
"TupleToolEventInfo",
"TupleToolTrackInfo",
"TupleToolPid",
"TupleToolGeometry",
"TupleToolAngles", # Helicity angle
# 'TupleToolPropertime', #proper time TAU of reco particles
]
# Other event infos
tuple.addTupleTool("LoKi::Hybrid::EvtTupleTool/LoKi_Evt")
if dataSample.isMC:
tuple.LoKi_Evt.VOID_Variables = {
# "nSPDHits" : " CONTAINS('Raw/Spd/Digits') " ,
"nTracks": "TrSOURCE('Rec/Track/Best') >> TrSIZE",
"nPVs": "CONTAINS('Rec/Vertex/Primary')",
}
else:
tuple.LoKi_Evt.VOID_Variables = {
# "nSPDHits" : " CONTAINS('Raw/Spd/Digits') " ,
"nTracks": "CONTAINS('/Event/Charm/Rec/Track/Best')",
"nPVs": "CONTAINS('/Event/Charm/Rec/Vertex/Primary')",
}
# # Other variables
# tuple.addTupleTool('LoKi::Hybrid::TupleTool/LoKi_All')
# tuple.LoKi_All.Variables = {
# 'BPVIPCHI2' : 'BPVIPCHI2()',
# 'BPVDIRA' : 'BPVDIRA',
# 'BPVLTFITCHI2' : 'BPVLTFITCHI2()',
# }
tuple.addBranches(self.branches)
tuple.phi.addTupleTool("LoKi::Hybrid::TupleTool/LoKi_phi")
tuple.phi.LoKi_phi.Variables = {
"DOCAMAX": "DOCAMAX",
"MassDiff_Phi": "DMASS('phi(1020)')",
"BPVDIRA": "BPVDIRA",
"IPS_Phi": "MIPCHI2DV(PRIMARY)",
"VFASPF_CHI2DOF": "VFASPF(VCHI2/VDOF)",
"VFASPF_CHI2": "VFASPF(VCHI2)",
"BPVIPCHI2": "BPVIPCHI2()",
"ADOCA": "DOCA(1,2)",
"ADOCACHI2": "DOCACHI2(1,2)",
"DTF_CTAU_Ks1": "DTF_CTAU(1, True, strings('KS0') )",
"DTF_CTAU_Ks2": "DTF_CTAU(2, True, strings('KS0') )",
"DTF_DT": "DTF_CTAU(1, True, strings('KS0') )- DTF_CTAU(2, True, strings('KS0') )",
"DTF_ADT": "abs(DTF_CTAU(1, True, strings('KS0') )- DTF_CTAU(2, True, strings('KS0') ))",
}
def mySharedConf_Ks(branch):
atool = branch.addTupleTool("LoKi::Hybrid::TupleTool/LoKi_Ks")
atool.Variables = {
"BPVDIRA": "BPVDIRA",
"VFASPF_CHI2DOF": "VFASPF(VCHI2/VDOF)",
"VFASPF_CHI2": "VFASPF(VCHI2)",
"BPVIPCHI2": "BPVIPCHI2()",
"BPVVD": "BPVVD",
"BPVVDCHI2": "BPVVDCHI2",
"ADOCA": "DOCA(1,2)",
"ADOCACHI2": "DOCACHI2(1,2)",
"BPVLTIME": "BPVLTIME()",
}
PropertimeTool = branch.addTupleTool("TupleToolPropertime/Propertime_Ks")
mySharedConf_Ks(tuple.Ks1)
mySharedConf_Ks(tuple.Ks2)
def mySharedConf_pi(branch):
atool = branch.addTupleTool("LoKi::Hybrid::TupleTool/LoKi_pi")
atool.Variables = {"TRCHI2DOF": "TRCHI2DOF", "TRGHOSTPROB": "TRGHOSTPROB"}
mySharedConf_pi(tuple.pi1)
mySharedConf_pi(tuple.pi2)
mySharedConf_pi(tuple.pi3)
mySharedConf_pi(tuple.pi4)
# Triggers:
tuple.phi.addTupleTool("TupleToolTISTOS/TISTOS")
tuple.phi.TISTOS.TriggerList = trigger_list
tuple.phi.TISTOS.VerboseL0 = True
tuple.phi.TISTOS.VerboseHlt1 = True
tuple.phi.TISTOS.VerboseHlt2 = True
if dataSample.isMC:
from Configurables import (
MCDecayTreeTuple,
MCTupleToolKinematic,
TupleToolMCTruth,
MCTupleToolHierarchy,
MCTupleToolReconstructed,
MCTupleToolAngles,
TupleToolMCBackgroundInfo,
)
tuple.addTupleTool("TupleToolMCTruth/MCTruth")
tuple.MCTruth.ToolList = [
"MCTupleToolKinematic",
"MCTupleToolHierarchy",
"MCTupleToolReconstructed",
"MCTupleToolAngles",
]
tuple.phi.addTupleTool("TupleToolMCBackgroundInfo")
self.sequence.sequence().Members += [tuple]
# Create an ntuple to capture D*+ decays from the StrippingLine line
dtt = DecayTreeTuple('TupleDstToD0pi_D0ToKK')
dtt.Inputs = ['/Event/{0}/Phys/{1}/Particles'.format(stream, line)] #Phys/{0}/Particles'.format(line)] # for microDST
#dtt.Decay = '[D*(2010)+ -> (D0 -> K- K+) pi+]CC' # written like this means tuple tools only runs on the D*(2010)+, to select particles to store information on mark them with a ^, e.g.:
dtt.Decay = '[D*(2010)+ -> ^(D0 -> ^K- ^K+) ^pi+]CC' # but this not ideal as we may only want to run some tools on D and some on children, use Branches below
# CC means "and also equivalent C conjugated decay" ?
# Additional tuple tools:
track_tool = dtt.addTupleTool('TupleToolTrackInfo')
# Only need to store a tool in a variable if you want to configure it:
track_tool.Verbose = True # 'Verbose' - further information
dtt.addTupleTool('TupleToolPrimaries')
dtt.addBranches({'Dstar' :'[D*(2010)+ -> (D0 -> K- K+) pi+]CC',
'D0' :'[D*(2010)+ -> ^(D0 -> K- K+) pi+]CC',
'Kminus' :'[D*(2010)+ -> (D0 -> ^K- K+) pi+]CC',
'Kplus' :'[D*(2010)+ -> (D0 -> K- ^K+) pi+]CC',
'pisoft' :'[D*(2010)+ -> (D0 -> K- K+) ^pi+]CC'}) # and mark particles which we want to use in dtt.Decay (with ^ ?)!!
# Alternativley, use setDescriptorTemplate() to do all this in one line:
#dtt.setDescriptorTemplate('${Dstar}[D*(2010)+ -> ${D0}(D0 -> ${Kminus}K- ${Kplus}K+) ${pisoft}pi+]CC') # sets up both dtt.Decay and Branches
# Access branches with dtt.PARTICLENAME
dtt.D0.addTupleTool('TupleToolPropertime') # e.g. of adding tuple tools to specific particles
'''
All tuple tools start with DecayTreeTuple here: https://gitlab.cern.ch/lhcb/Analysis/tree/master/Phys
DecayTreeTuple for the more general tools;
DecayTreeTupleANNPID for the NeuralNet-based PID tools;
DecayTreeTupleDalitz for Dalitz analysis;
DecayTreeTupleJets for obtaining information on jets;
DecayTreeTupleMC gives us access to MC-level information;
DecayTreeTupleMuonCalib for muon calibration tools;
DecayTreeTupleReco for reconstruction-level information, such as TupleToolTrackInfo;
def execute_option_file(path):
from Configurables import GaudiSequencer
MySequencer = GaudiSequencer('Sequence')
#Check whether it is a DST or MDST file
import os.path
extension = os.path.splitext(path)[1]
print extension
if extension.lower() == ".dst":
DaVinci().InputType = 'DST'
elif extension.lower() == ".mdst":
DaVinci().InputType = 'MDST'
else:
raise Exception("Extension {extension} of {path} does not match .mdst or .dst".format(extension, path))
#Kill some nodes if micro dst-file
if DaVinci().InputType == 'MDST':
from Configurables import EventNodeKiller
eventNodeKiller = EventNodeKiller('DAQkiller')
eventNodeKiller.Nodes = ['/Event/DAQ','/Event/pRec']
MySequencer.Members+=[eventNodeKiller]
#Create DecayTreeTuple -> Fills information about particles, vertices and daughters
data = DecayTreeTuple('Bu2LLK_meLine')
#Set root "folder" for MDST - better don't do this as it most likely causes a crash
#Instead set RootInTES for the particular Tool (e.g. TupleToolTrackHits that needs it)
#if DaVinci().InputType == 'MDST':
# data.RootInTES = "/Event/Leptonic"
if DaVinci().Simulation is True: # for MC
data.Inputs = ["/Event/AllStreams/Phys/Bu2LLK_meLine/Particles"]
elif DaVinci().Simulation is False: # for Tuple
data.Inputs = ["/Event/Leptonic/Phys/Bu2LLK_meLine/Particles"]
else:
raise Exception(" `DaVinci().Simulation` not set.")
data.Decay = "[B+ -> ^[J/psi(1S) -> ^mu+ ^e-]CC ^K+]CC"
data.addBranches({
"B" : "[B+ -> [J/psi(1S) -> mu+ e-]CC K+]CC",
"Psi" : "[B+ -> ^[J/psi(1S) -> mu+ e-]CC K+]CC",
"muplus" : "[B+ -> [J/psi(1S) -> ^mu+ e-]CC K+]CC",
"eminus" : "[B+ -> [J/psi(1S) -> mu+ ^e-]CC K+]CC",
"Kplus" : "[B+ -> [J/psi(1S) -> mu+ mu-]CC ^K+]CC"
})
data.TupleName = "DecayTree"
#TupleTools
#Tools added to the ToolList can not be modified i.e. no other options than the defaults can be used
data.ToolList = [
]
#Settings for TupleToolTrackHits (some only are necessary for MDST-files because of other locations of the clusters)
if(True): #Change this value if you don't want to use this tool
from Configurables import TupleToolTrackHits, STOfflinePosition
trackhits = data.addTupleTool("TupleToolTrackHits")
if DaVinci().InputType == 'MDST':
from Configurables import MeasurementProvider
data.addTool(MeasurementProvider('MeasProvider'))
data.MeasProvider.RootInTES = "/Event/Leptonic/" #Change Leptonic for your stream-name in case of MDST
trackhits.MeasurementProvider = data.MeasProvider
itClusterPosition = STOfflinePosition('ToolSvc.ITClusterPosition') #avoid crashes from missing IT channels
itClusterPosition.DetType = 'IT'
MySequencer.Members.append(data)
################################
### DaVinci configuration ####
################################
DaVinci().UserAlgorithms = [MySequencer]
DaVinci().MoniSequence += [data]
DaVinci().EvtMax = 5000
DaVinci().Lumi = True
DaVinci().SkipEvents = 0
, "TupleToolPropertime"
, "TupleToolPrimaries"
, "TupleToolTrackInfo"
]
MCtruth = tuple.addTupleTool("TupleToolMCTruth")
MCtruth.addTupleTool("LoKi::Hybrid::MCTupleTool/LoKi_Photos").Variables = {
"nPhotons" : "MCNINTREE(('gamma' == MCABSID))",
"photons_TRUEP_X" : "MCSUMTREE(MCPX,('gamma' == MCABSID))",
"photons_TRUEP_Y" : "MCSUMTREE(MCPY,('gamma' == MCABSID))",
"photons_TRUEP_Z" : "MCSUMTREE(MCPZ,('gamma' == MCABSID))",
"photons_TRUEP_E" : "MCSUMTREE(MCE,('gamma'==MCABSID))"
}
tuple.addBranches ({
"muplus" : "[B0 -> ^mu+ mu-]CC",
"muminus" : "[B0 -> mu+ ^mu-]CC",
"B0" : "[B0 -> mu+ mu-]CC",
})
LoKi_All=tuple.addTupleTool("LoKi::Hybrid::TupleTool/LoKi_All")
LoKi_All.Variables = {
'MINIPCHI2' : "MIPCHI2DV(PRIMARY)",
'MINIP' : "MIPDV(PRIMARY)",
'IPCHI2_OWNPV' : "BPVIPCHI2()",
'IP_OWNPV' : "BPVIP()"
}
LoKi_muplus=tuple.muplus.addTupleTool("LoKi::Hybrid::TupleTool/LoKi_muplus")
LoKi_muplus.Variables = {
'PIDmu' : "PIDmu",
'ghost' : "TRGHP",
BTaggingTool,
MessageSvc,
)
from Gaudi.Configuration import INFO, DEBUG, WARNING
from DecayTreeTuple.Configuration import *
from FlavourTagging.Tunings import applyTuning
ntuple = DecayTreeTuple("TaggingTest")
descriptor_B = "[B0 -> ^(J/psi(1S) -> ^mu+ ^mu-) ^(K*(892)0 -> ^K+ ^pi-)]CC"
ntuple.Inputs = ['Dimuon/Phys/BetaSBd2JpsiKstarDetachedLine/Particles']
ntuple.Decay = descriptor_B
ntuple.addBranches({'B0': descriptor_B})
ntuple.ReFitPVs = True
ntuple.ToolList = [
"TupleToolKinematic", "TupleToolPropertime", "TupleToolPrimaries",
"TupleToolPid"
]
# Configure TupleToolTagging
tt_tagging = ntuple.addTupleTool("TupleToolTagging")
tt_tagging.UseFTfromDST = False
tt_tagging.OutputLevel = INFO
tt_tagging.Verbose = True
btag = tt_tagging.addTool(BTaggingTool, 'MyBTaggingTool')
applyTuning(btag, tuning_version="Summer2019Optimisation_v1_Run2"
) # apply most recent tuning
def execute_option_file(path):
from Configurables import GaudiSequencer
MySequencer = GaudiSequencer('Sequence')
#Check whether it is a DST or MDST file
import os.path
extension = os.path.splitext(path)[1]
print extension
if extension.lower() == ".dst":
DaVinci().InputType = 'DST'
elif extension.lower() == ".mdst":
DaVinci().InputType = 'MDST'
else:
raise Exception("Extension {extension} of {path} does not match .mdst or .dst".format(extension, path))
#Kill some nodes if micro dst-file
if DaVinci().InputType == 'MDST':
from Configurables import EventNodeKiller
eventNodeKiller = EventNodeKiller('DAQkiller')
eventNodeKiller.Nodes = ['DAQ','pRec']
MySequencer.Members+=[eventNodeKiller]
#DecayTreeTuple
data = DecayTreeTuple('Bu2LLK_mmLine')
data.ToolList = [
"TupleToolGeometry"
, "TupleToolKinematic"
, "TupleToolEventInfo"
, "TupleToolPropertime"
, "TupleToolTrigger"
, "TupleToolTISTOS"
, "TupleToolPid"
, "TupleToolTrackInfo"
, "TupleToolPrimaries"
, "TupleToolDira"
, "TupleToolTrackPosition"
, "TupleToolRecoStats"
]
if DaVinci().InputType != 'MDST':
data.ToolList += ["TupleToolTrackIsolation"]
if DaVinci().Simulation is True:
data.ToolList +=[
"TupleToolMCBackgroundInfo"
, "TupleToolMCTruth"
]
L0Triggers = ["L0MuonDecision", "L0DiMuonDecision", "L0HadronDecision", "L0ElectronDecision", "L0PhotonDecision" ]
## ['Muon', 'DiMuon', ' Hadron', 'Electron', 'Photon','PhotonHi','ElectronHi']
Hlt1Triggers = [ "Hlt1TrackAllL0Decision", "Hlt1TrackMuonDecision" ,"Hlt1TrackPhotonDecision" ,"Hlt1DiMuonLowMassDecision" ,"Hlt1DiMuonHighMassDecision"]
Hlt2Triggers = [
## muon lines
"Hlt2SingleMuonDecision", "Hlt2SingleMuonLowPTDecision", "Hlt2SingleMuonHighPTDecision",
"Hlt2DiMuonDecision", "Hlt2DiMuonLowMassDecision",
"Hlt2DiMuonJPsiDecision", "Hlt2DiMuonJPsiHighPTDecision", "Hlt2DiMuonPsi2SDecision",
"Hlt2DiMuonDetachedDecision", "Hlt2DiMuonDetachedJPsiDecision", "Hlt2DiMuonDetachedHeavyDecision", "Hlt2TriMuonTauDecision",
## hadron/Topo lines
"Hlt2B2HHDecision",
"Hlt2DiMuonBDecision", "Hlt2DiMuonZDecision",
"Hlt2TopoMu2BodyBBDTDecision", "Hlt2TopoMu3BodyBBDTDecision", "Hlt2TopoMu4BodyBBDTDecision",
"Hlt2Topo2BodyBBDTDecision", "Hlt2Topo3BodyBBDTDecision", "Hlt2Topo4BodyBBDTDecision",
##others
"Hlt2PassThroughDecision",
"Hlt2TransparentDecision",
## inclusive decisions
"Hlt2DiMuonDY.*Decision","Hlt2TopoE.*Decision", "Hlt2Topo.*Decision", "Hlt2Charm.*Decision", "Hlt2DiElectron.*Decision"
]
triggerList = L0Triggers + Hlt1Triggers + Hlt2Triggers
data.addTool(TupleToolTISTOS)
data.TupleToolTISTOS.VerboseL0 = True
data.TupleToolTISTOS.VerboseHlt1 = True
data.TupleToolTISTOS.VerboseHlt2 = True
data.TupleToolTISTOS.FillL0 = True
data.TupleToolTISTOS.FillHlt1 = True
data.TupleToolTISTOS.FillHlt2 = True
data.TupleToolTISTOS.OutputLevel = INFO
data.TupleToolTISTOS.TriggerList = triggerList
if DaVinci().Simulation is True: # for MC
data.Inputs = ["/Event/AllStreams/Phys/Bu2LLK_mmLine/Particles"]
elif DaVinci().Simulation is False: # for Tuple
data.Inputs = ["/Event/Leptonic/Phys/Bu2LLK_mmLine/Particles"]
else:
raise Exception(" `DaVinci().Simulation` not set.")
data.Decay = "[B+ -> ^(J/psi(1S) -> ^mu+ ^mu-) ^K+]CC"
data.addBranches({
"B" : "[B+ -> (J/psi(1S) -> mu+ mu-) K+]CC",
"Psi" : "[B+ -> ^(J/psi(1S) -> mu+ mu-) K+]CC",
"muplus" : "[B+ -> (J/psi(1S) -> ^mu+ mu-) K+]CC",
"muminus" : "[B+ -> (J/psi(1S) -> mu+ ^mu-) K+]CC",
"Kplus" : "[B+ -> (J/psi(1S) -> mu+ mu-) ^K+]CC"
})
data.TupleName = "DecayTree"
#DecayTreeFitter
fitter = data.B.addTupleTool("TupleToolDecayTreeFitter/FIX_JPSI")
fitter.constrainToOriginVertex = False
fitter.daughtersToConstrain = [ "J/psi(1S)" ]
fitter.Verbose = True
#Isolation
data.B.addTool(TupleToolApplyIsolation, name="TupleToolApplyIsolationHard")
data.B.TupleToolApplyIsolationHard.OutputSuffix="_Hard"
data.B.TupleToolApplyIsolationHard.WeightsFile="weightsHard.xml"
data.B.ToolList+=["TupleToolApplyIsolation/TupleToolApplyIsolationHard"]
data.B.addTool(TupleToolApplyIsolation, name="TupleToolApplyIsolationSoft")
data.B.TupleToolApplyIsolationSoft.OutputSuffix="_Soft"
data.B.TupleToolApplyIsolationSoft.WeightsFile="weightsSoft.xml"
data.B.ToolList+=["TupleToolApplyIsolation/TupleToolApplyIsolationSoft"]
vtxiso = data.B.addTupleTool("TupleToolVtxIsoln")
#data.B.TupleToolApplyIsolationHard.OutputLevel = 3
#data.B.TupleToolApplyIsolationSoft.OutputLevel = 3
MySequencer.Members.append(data)
#EventTuple for simulation
"""
if DaVinci().Simulation is True:
etuple = EventTuple()
etuple.ToolList=["TupleToolEventInfo"]
MySequencer.Members.append(etuple)
"""
#DDDB and CondDB-Tags for DATA (needs to be set for Simulation in runfile.py according to generation->see bookkeeping!)
#Always use the latest tags for the given datatype from (the newest are currently not in the database yet, therefore take the default ones!)
"""
if DaVinci().Simulation is False:
if DaVinci().DataType == '2012':
DaVinci().CondDBtag = "dddb-20150522-2"
DaVinci().DDDBtag = "cond-20150409-1"
elif DaVinci().DataType == '2011':
DaVinci().CondDBtag = "dddb-20150522-1"
DaVinci().DDDBtag = "cond-20150409"
"""
################################
### DaVinci configuration ####
################################
DaVinci().UserAlgorithms = [MySequencer]
DaVinci().MoniSequence += [data]
DaVinci().EvtMax = -1
DaVinci().Lumi = True
BuKFilteredSel = Selection("BuKFilteredSel",Algorithm=BuKFilter,RequiredSelections=[BuK_Sel])
BuKFilteredSel_Seq= SelectionSequence("BuKFilteredSel_Seq",TopSelection=BuKFilteredSel)
#from SelPy.graph import graph
#graph(BuSel, format='png')
from Configurables import DecayTreeTuple
from Configurables import TupleToolL0Calo
from DecayTreeTuple.Configuration import *
tuple=DecayTreeTuple()
tuple.Decay="[B+ -> ^K+ ^(eta_prime -> ^(rho(770)0 -> ^pi+ ^pi-) ^gamma)]CC"
tuple.addBranches({'Bu':"[B+ -> K+ (eta_prime -> (rho(770)0 -> pi+ pi-) gamma)]CC"})
tuple.Inputs=[BuKFilteredSel_Seq.outputLocation()]
tuple.addTool(TupleToolL0Calo())
tuple.TupleToolL0Calo.TriggerClusterLocation="/Event/Trig/L0/Calo"
tuple.TupleToolL0Calo.WhichCalo="HCAL"
tuple.ToolList += [
"TupleToolGeometry"
, "TupleToolDira"
, "TupleToolAngles"
, "TupleToolPid"
, "TupleToolKinematic"
, "TupleToolPropertime"
, "TupleToolPrimaries"
, "TupleToolEventInfo"
from Configurables import DecayTreeTuple, FitDecayTrees, TupleToolRecoStats, TupleToolTrigger, TupleToolTISTOS, CondDB
from DecayTreeTuple.Configuration import *
tuple = DecayTreeTuple("Jpsi_Tuple")
tuple.Inputs = ["/Event/Leptonic/Phys/Bu2LLK_eeLine/Particles"]
tuple.ToolList = [
"TupleToolKinematic", "TupleToolEventInfo", "TupleToolRecoStats",
"TupleBuKmmFit"
]
tuple.addBranches({
"Bplus": "[B+ -> K+ ( J/psi(1S) -> e+ e-)]CC",
"Kplus": "[B+ -> ^K+ ( J/psi(1S) -> e+ e-)]CC",
"Jpsi": "[B+ -> K+ ^( J/psi(1S) -> e+ e-)]CC",
"muplus": "[B+ -> K+ ( J/psi(1S) -> ^e+ e-)]CC",
"muminus": "[B+ -> K+ ( J/psi(1S) -> e+ ^e-)]CC",
})
LoKi_All = tuple.addTupleTool("LoKi::Hybrid::TupleTool/LoKi_All")
LoKi_All.Variables = {
'MINIPCHI2': "MIPCHI2DV(PRIMARY)",
'MINIP': "MIPDV(PRIMARY)",
'IPCHI2_OWNPV': "BPVIPCHI2()",
'IP_OWNPV': "BPVIP()"
}
LoKi_muplus = tuple.muplus.addTupleTool("LoKi::Hybrid::TupleTool/LoKi_muplus")
LoKi_muplus.Variables = {
'PIDmu': "PIDmu",
# Other variables
tuple.addTupleTool('LoKi::Hybrid::TupleTool/LoKi_All')
tuple.LoKi_All.Variables = {
'BPVIPCHI2' : 'BPVIPCHI2()',
'BPVDIRA' : 'BPVDIRA',
'BPVLTFITCHI2' : 'BPVLTFITCHI2()',
}
branches = {'Tau' : '[tau- -> (phi(1020) -> K+ K-) mu-]CC', #automatically choose the head
'Phi' : '[tau- -> ^(phi(1020) -> K+ K-) mu-]CC',
'KPlus' : '[tau- -> (phi(1020) -> ^K+ K-) mu-]CC',
'KMinus' : '[tau- -> (phi(1020) -> K+ ^K-) mu-]CC',
'Mu' : '[tau- -> (phi(1020) -> K+ K-) ^mu-]CC'}
tuple.addBranches(branches)
tuple.Tau.addTupleTool("LoKi::Hybrid::TupleTool/LoKi_Tau")
numbers_phi_X = [1,2]
tuple.Tau.LoKi_Tau.Preambulo = [
"from LoKiCore.math import sqrt",
"Phi_E = CHILD(E, {})".format(numbers_phi_X[0]),
"Phi_PX = CHILD(PX, {})".format(numbers_phi_X[0]),
"Phi_PY = CHILD(PY, {})".format(numbers_phi_X[0]),
"Phi_PZ = CHILD(PZ, {})".format(numbers_phi_X[0]),
"X_P = CHILD(P, {})".format(numbers_phi_X[1]),
"X_E_asMu = sqrt(105.6583715**2 + X_P**2)",
"X_E_asPi = sqrt(139.57018**2 + X_P**2)",
"X_PX = CHILD(PX, {})".format(numbers_phi_X[1]),
"X_PY = CHILD(PY, {})".format(numbers_phi_X[1]),
"X_PZ = CHILD(PZ, {})".format(numbers_phi_X[1]),
tuple.B0.Conskstar_eta.Verbose=True
tuple.B0.Conskstar_eta.constrainToOriginVertex=False
tuple.B0.Conskstar_eta.daughtersToConstrain = ["K*(892)0","eta"]
#========================================REFIT WITH NOTHING CONSTRAINED========================================
tuple.B0.addTupleTool('TupleToolDecayTreeFitter/Consnothing')
tuple.B0.Consnothing.Verbose=True
tuple.B0.Consnothing.constrainToOriginVertex=False
########################################=LOKI FUNCOR VARIABLES===============================================
tuple.addBranches({'Kstar' : '[B0 -> ^(K*(892)0 -> K+ pi-) (eta-> pi- pi+ (pi0 -> gamma gamma))]CC',
'eta' : '[B0 -> (K*(892)0 -> K+ pi-) ^(eta-> pi- pi+ (pi0 -> gamma gamma))]CC',
'Kplus' : '[B0 -> (K*(892)0 -> ^K+ pi-) (eta-> pi- pi+ (pi0 -> gamma gamma))]CC',
'piminus' : '[B0 -> (K*(892)0 -> K+ ^pi-) (eta-> pi- pi+ (pi0 -> gamma gamma))]CC',
'piplus' : '[B0 -> (K*(892)0 -> K+ pi-) (eta-> pi- ^pi+ (pi0 -> gamma gamma))]CC',
'piminus0' : '[B0 -> (K*(892)0 -> K+ pi-) (eta-> ^pi- pi+ (pi0 -> gamma gamma))]CC',
'gamma' : '[B0 -> (K*(892)0 -> K+ pi-) (eta-> pi- pi+ (pi0 -> ^gamma gamma))]CC',
'gamma0' : '[B0 -> (K*(892)0 -> K+ pi-) (eta-> pi- pi+ (pi0 -> gamma ^gamma))]CC',
'pi0' : '[B0 -> (K*(892)0 -> K+ pi-) (eta-> pi- pi+ ^(pi0 -> gamma gamma))]CC'})
from LoKiPhys.decorators import MAXTREE,MINTREE,ISBASIC,HASTRACK,SUMTREE,PT,ABSID,NINTREE,ETA,TRPCHI2
B0_hybrid=tuple.B0.addTupleTool('LoKi::Hybrid::TupleTool/LoKi_B0')
Kstar_hybrid=tuple.Kstar.addTupleTool('LoKi::Hybrid::TupleTool/LoKi_Kstar')
eta_hybrid=tuple.eta.addTupleTool('LoKi::Hybrid::TupleTool/LoKi_eta')
Kplus_hybrid=tuple.Kplus.addTupleTool('LoKi::Hybrid::TupleTool/LoKi_Kplus')
piminus_hybrid=tuple.piminus.addTupleTool('LoKi::Hybrid::TupleTool/LoKi_piminus')
piplus_hybrid=tuple.piplus.addTupleTool('LoKi::Hybrid::TupleTool/LoKi_piplus')
piminus0_hybrid=tuple.piminus0.addTupleTool('LoKi::Hybrid::TupleTool/LoKi_piminus0')
gamma_hybrid=tuple.gamma.addTupleTool('LoKi::Hybrid::TupleTool/LoKi_gamma')
gamma0_hybrid=tuple.gamma0.addTupleTool('LoKi::Hybrid::TupleTool/LoKi_gamma0')
DecayTreeTuple,
)
from DecayTreeTuple.Configuration import *
# Stream and stripping line we want to use
stream = 'AllStreams'
line = 'D2hhCompleteEventPromptDst2D2RSLine'
# Create an ntuple to capture D*+ decays from the StrippingLine line
dtt = DecayTreeTuple('TupleDstToD0pi_D0ToKpi')
dtt.Inputs = ['/Event/{0}/Phys/{1}/Particles'.format(stream, line)]
dtt.Decay = '[D*(2010)+ -> ^(D0 -> ^K- ^pi+) ^pi+]CC'
# add a kinematic fitter
dtt.addBranches({
'Dstar': '[D*(2010)+ -> (D0 -> K- pi+) pi+]CC',
})
dtt.Dstar.addTupleTool('TupleToolDecayTreeFitter/ConsD')
dtt.Dstar.ConsD.constrainToOriginVertex = True
dtt.Dstar.ConsD.Verbose = True
dtt.Dstar.ConsD.daughtersToConstrain = ['D0']
# add another fitter, this time we will change a mass hypothesis
dtt.Dstar.addTupleTool('TupleToolDecayTreeFitter/ConsDpipi')
dtt.Dstar.ConsDpipi.constrainToOriginVertex = True
dtt.Dstar.ConsDpipi.Verbose = True
dtt.Dstar.ConsDpipi.daughtersToConstrain = ['D0']
# make the hypothesis that actually we had the decay D0->pi+pi-
# note that you have to explicitely give both charges
# CC does not work here!
stream = 'AllStreams'
line = 'D2hhCompleteEventPromptDst2D2RSLine'
# Create an ntuple to capture D*+ decays from the StrippingLine line
dtt = DecayTreeTuple('TupleDstToD0pi_D0ToKpi')
dtt.Inputs = ['/Event/{0}/Phys/{1}/Particles'.format(stream, line)]
# Note that we mark all particles, otherwise the branches won't work
dtt.Decay = '[D*(2010)+ -> ^(D0 -> ^K- ^pi+) ^pi+]CC'
track_tool = dtt.addTupleTool('TupleToolTrackInfo')
track_tool.Verbose = True
dtt.addTupleTool('TupleToolPrimaries')
dtt.addBranches({
'Dstar': '[D*(2010)+ -> (D0 -> K- pi+) pi+]CC',
'D0': '[D*(2010)+ -> ^(D0 -> K- pi+) pi+]CC',
'Kminus': '[D*(2010)+ -> (D0 -> ^K- pi+) pi+]CC',
'piplus': '[D*(2010)+ -> (D0 -> K- ^pi+) pi+]CC',
'pisoft': '[D*(2010)+ -> (D0 -> K- pi+) ^pi+]CC'
})
dtt.D0.addTupleTool('TupleToolPropertime')
# Configure DaVinci
DaVinci().UserAlgorithms += [dtt]
DaVinci().InputType = 'DST'
DaVinci().TupleFile = 'DVntuple.root'
DaVinci().PrintFreq = 1000
DaVinci().DataType = '2012'
DaVinci().Simulation = True
# Only ask for luminosity information when not using simulated data
DaVinci().Lumi = not DaVinci().Simulation
tuple.B0.addTupleTool('TupleToolDecayTreeFitter/Conskstar_etap')
tuple.B0.Conskstar_etap.Verbose=True
tuple.B0.Conskstar_etap.constrainToOriginVertex=False
tuple.B0.Conskstar_etap.daughtersToConstrain = ["K*(892)0","eta_prime"]
#========================================REFIT WITH NOTHING CONSTRAINED========================================
tuple.B0.addTupleTool('TupleToolDecayTreeFitter/Consnothing')
tuple.B0.Consnothing.Verbose=True
tuple.B0.Consnothing.constrainToOriginVertex=False
#========================================LOKI FUBNCTOR VARIABLES========================================
tuple.addBranches({'Kstar' : '[B0 -> ^(K*(892)0 -> K+ pi-) (eta_prime -> pi- pi+ gamma)]CC',
'eta_prime' : '[B0 -> (K*(892)0 -> K+ pi-) ^(eta_prime -> pi- pi+ gamma)]CC',
'Kplus' : '[B0 -> (K*(892)0 -> ^K+ pi-) (eta_prime -> pi- pi+ gamma)]CC',
'piminus' : '[B0 -> (K*(892)0 -> K+ ^pi-) (eta_prime -> pi- pi+ gamma)]CC',
'piplus' : '[B0 -> (K*(892)0 -> K+ pi-) (eta_prime -> pi- ^pi+ gamma)]CC',
'piminus0' : '[B0 -> (K*(892)0 -> K+ pi-) (eta_prime -> ^pi- pi+ gamma)]CC',
'gamma' : '[B0 -> (K*(892)0 -> K+ pi-) (eta_prime -> pi- pi+ ^gamma)]CC'})
from LoKiPhys.decorators import MAXTREE,MINTREE,ISBASIC,HASTRACK,SUMTREE,PT,ABSID,NINTREE,ETA,TRPCHI2
B0_hybrid=tuple.B0.addTupleTool('LoKi::Hybrid::TupleTool/LoKi_B0')
Kstar_hybrid=tuple.Kstar.addTupleTool('LoKi::Hybrid::TupleTool/LoKi_Kstar')
eta_prime_hybrid=tuple.eta_prime.addTupleTool('LoKi::Hybrid::TupleTool/LoKi_eta_prime')
Kplus_hybrid=tuple.Kplus.addTupleTool('LoKi::Hybrid::TupleTool/LoKi_Kplus')
piminus_hybrid=tuple.piminus.addTupleTool('LoKi::Hybrid::TupleTool/LoKi_piminus')
piplus_hybrid=tuple.piplus.addTupleTool('LoKi::Hybrid::TupleTool/LoKi_piplus')
piminus0_hybrid=tuple.piminus0.addTupleTool('LoKi::Hybrid::TupleTool/LoKi_piminus0')
gamma_hybrid=tuple.gamma.addTupleTool('LoKi::Hybrid::TupleTool/LoKi_gamma')
,'Hlt2DiMuonDecision'
,'Hlt2CharmSemilepD2HMuMuDecision'
,'Hlt2CharmSemilepD2HMuMuWideMassDecision'
]
LoKi_Vars = LoKi__Hybrid__TupleTool("LoKi_Vars")
LoKi_Vars.Variables = {
"LoKi_BPVVDCHI2" : "BPVVDCHI2"
, "LoKi_BPVIPCHI2" : "BPVIPCHI2()"
, "LoKi_DOCA" : "DOCA(1,2)"
, "LoKi_BPVLTIME" : "BPVLTIME()"
}
dtt.addBranches({"D" : "[D+ -> K+ mu+ mu-]CC"} )
from Configurables import DaVinci
# Configure DaVinci
DaVinci().UserAlgorithms += [dtt]
DaVinci().InputType = 'DST'
DaVinci().TupleFile = 'MCDKmumu12-Up.root'
DaVinci().PrintFreq = 1000
DaVinci().DataType = '2012'
DaVinci().Simulation = True
# Only ask for luminosity information when not using simulated data
DaVinci().Lumi = DaVinci().Simulation
DaVinci().EvtMax = -1
DaVinci().CondDBtag = 'Sim08-20130503-vc-md100'
DaVinci().DDDBtag = 'Sim08-20130503'
]
# Get trigger info
tuple.addTool(TupleToolTrigger, name="TupleToolTrigger")
tuple.TupleToolTrigger.Verbose = True
tuple.TupleToolTrigger.TriggerList = tlist
# Get TISTOS info
tuple.addTool(TupleToolTISTOS, name="TupleToolTISTOS")
tuple.TupleToolTISTOS.Verbose = True
tuple.TupleToolTISTOS.TriggerList = tlist
# Decay descriptor
tuple.Decay = "[B_s0 -> ^(phi(1020) -> ^K+ ^K-) ^(f_0(980) -> ^K+ ^K-)]CC"
#tuple.Decay = "[B0 -> ^(phi(1020) -> ^K+ ^K-) ^(rho(770)0 -> ^pi+ ^pi-)]CC" # original
# Rename f_0(980) branch to KK
tuple.addBranches({
"KK" : " [B_s0 -> (phi(1020) -> K+ K-) ^(f_0(980) -> K+ K-)]CC "
})
# LOKI Vairables
from Configurables import LoKi__Hybrid__TupleTool
LoKiVariables2 = LoKi__Hybrid__TupleTool('LoKiVariables2')
LoKiVariables2.Variables = {
"LOKI_Mass" : "DTF_FUN(M, True)",
"LOKI_Chi2" : "DTF_CHI2(True)",
"LOKI_ndof" : "DTF_NDOF(True)",
"LOKI_MassError2" : "DTF_FUN(M2ERR2, True)",
"LOKI_DTF_CTAU" : "DTF_CTAU( 0, True )",
"LOKI_DTF_CTAUS" : "DTF_CTAUSIGNIFICANCE( 0, True )",
"LOKI_DTF_CTAUERR" : "DTF_CTAUERR( 0, True )",
"PX_kaon0": "DTF_FUN(CHILD(PX, 1,1), True)",
"PY_kaon0": "DTF_FUN(CHILD(PY, 1,1), True)",
def execute_option_file(path):
# ================= BEGIN EDIT AREA =======================
tuplename = "Bu2LLK_meLine"
simulation_inputstring = "/Event/AllStreams/Phys/Bu2LLK_meLine/Particles"
data_inputstring = "/Event/Leptonic/Phys/Bu2LLK_meLine/Particles"
decaydescriptor = "[B+ -> ^[J/psi(1S) -> ^mu+ ^e-]CC ^K+]CC"
branches = { # Dictionary for the branches to write in the tuple
"B" : "[B+ -> [J/psi(1S) -> mu+ e-]CC K+]CC",
"Psi" : "[B+ -> ^[J/psi(1S) -> mu+ e-]CC K+]CC",
"muplus" : "[B+ -> [J/psi(1S) -> ^mu+ e-]CC K+]CC",
"eminus" : "[B+ -> [J/psi(1S) -> mu+ ^e-]CC K+]CC",
"Kplus" : "[B+ -> [J/psi(1S) -> mu+ mu-]CC ^K+]CC"
}
toollist = [ "TupleToolBremInfo" #Bremsstrahlung information
#, "TupleToolGeometry" #geometry of vertex locations (ENDVERTEX, OWNPV, IP_OWNPV, FD_OWNPV, DIRA_OWNPV)
, "TupleToolKinematic" #kinematic variables (inv. mass MM, kin. mass M/sqrt(E^2-p^2), P, PX/Y/Z/E, PT)
#, "TupleToolEventInfo" #Event information such as run number, polarity, GPS time etc.
#, "TupleToolPropertime" #proper lifetime of reconstructed particles
#, "TupleToolAngles" #decay angles of charged tracks
#, "TupleToolTrigger"
#, "TupleToolTrackInfo" #GhostProb of track and track type (TYPE) - 0 = unknown, 1 = velo track...
#, "TupleToolPrimaries" #Number and coordinates of all primary vertices
#, "TupleToolDira"
#, "TupleToolTrackPosition" #Plot the X/Y position at a given Z (default: 2500 = TTstation)
#, "TupleToolRecoStats"
#, "TupleToolIsolationTwoBody" #degree of isolation of two particles with common mother from Bsmumu
#, "TupleToolANNPID" #V2,V3,... ProbNN variables
#, "TupleToolCaloHypo"
#, "TupleToolL0Calo"
]
# ================= END EDIT AREA =======================
# ================= BEGIN DO NOT EDIT HERE =======================
from Configurables import GaudiSequencer
MySequencer = GaudiSequencer('Sequence')
#Check whether it is a DST or MDST file
import os.path
extension = os.path.splitext(path)[1]
print extension
if extension.lower() == ".dst":
DaVinci().InputType = 'DST'
elif extension.lower() == ".mdst":
DaVinci().InputType = 'MDST'
else:
raise Exception("Extension {extension} of {path} does not match .mdst or .dst".format(extension, path))
#Kill some nodes if micro dst-file
if DaVinci().InputType == 'MDST':
from Configurables import EventNodeKiller
eventNodeKiller = EventNodeKiller('DAQkiller')
eventNodeKiller.Nodes = ['/Event/DAQ','/Event/pRec']
MySequencer.Members+=[eventNodeKiller]
#DecayTreeTuple -> Fills information about particles, vertices and daughters
ntuple = DecayTreeTuple(tuplename)
if DaVinci().Simulation is True: # for MC
ntuple.Inputs = [simulation_inputstring]
elif DaVinci().Simulation is False: # for Tuple
ntuple.Inputs = [data_inputstring]
else:
raise Exception(" `DaVinci().Simulation` not set.")
ntuple.Decay = decaydescriptor
ntuple.addBranches(branches)
ntuple.TupleName = "DecayTree"
#Tools added to the ToolList can not be modified i.e. no other options than the defaults can be used
ntuple.ToolList = toollist
MySequencer.Members.append(ntuple)
# ================= END DO NOT EDIT HERE =======================
if DaVinci().Simulation is True:
from Configurables import BackgroundCategory
backgroundinfo = ntuple.addTupleTool("TupleToolMCBackgroundInfo") #Fills the background category
backgroundinfo.addTool(BackgroundCategory('BackgroundCategory'))
backgroundinfo.BackgroundCategory.SoftPhotonCut = 100000000000. #Ignores all photons
MCTruth=ntuple.addTupleTool("TupleToolMCTruth") #Saves information of MC particle associated to the current particle (you can add tools to it itself!)
MCTruth.addTupleTool("MCTupleToolHierarchy") #True IDs of mother and grandmother particles
# ================= BEGIN EDIT TUPLETOOLS WITH OPTIONS ==================
# LOKI TupleTool
LoKi = ntuple.addTupleTool("LoKi::Hybrid::TupleTool")
LoKi.Variables = {
"ETA" : "ETA",
"PHI" : "PHI" #Azimuthal angle
}
#Track isolation
if(False):
if DaVinci().InputType != 'MDST':
ntuple.ToolList += ["TupleToolTrackIsolation"]
# PID TupleTool
if(True):
pid = ntuple.addTupleTool("TupleToolPid") #PID information for charged particles
pid.Verbose = True #More information like isMuonLoose etc.
#TISTOS TupleTool
if(False):
from Configurables import TupleToolTISTOS
L0Triggers = ["L0MuonDecision", "L0DiMuonDecision", "L0HadronDecision", "L0ElectronDecision", "L0PhotonDecision" ]
## ['Muon', 'DiMuon', ' Hadron', 'Electron', 'Photon','PhotonHi','ElectronHi']
Hlt1Triggers = [ "Hlt1TrackAllL0Decision", "Hlt1TrackMuonDecision" ,"Hlt1TrackPhotonDecision" ,"Hlt1DiMuonLowMassDecision" ,"Hlt1DiMuonHighMassDecision"]
Hlt2Triggers = [
## muon lines
"Hlt2SingleMuonDecision", "Hlt2SingleMuonLowPTDecision", "Hlt2SingleMuonHighPTDecision",
"Hlt2DiMuonDecision", "Hlt2DiMuonLowMassDecision",
"Hlt2DiMuonJPsiDecision", "Hlt2DiMuonJPsiHighPTDecision", "Hlt2DiMuonPsi2SDecision",
"Hlt2DiMuonDetachedDecision", "Hlt2DiMuonDetachedJPsiDecision", "Hlt2DiMuonDetachedHeavyDecision", "Hlt2TriMuonTauDecision",
## hadron/Topo lines
"Hlt2B2HHDecision",
"Hlt2DiMuonBDecision", "Hlt2DiMuonZDecision",
"Hlt2TopoMu2BodyBBDTDecision", "Hlt2TopoMu3BodyBBDTDecision", "Hlt2TopoMu4BodyBBDTDecision",
"Hlt2TopoE2BodyBBDTDecision", "Hlt2TopoE3BodyBBDTDecision", "Hlt2TopoE4BodyBBDTDecision",
"Hlt2Topo2BodyBBDTDecision", "Hlt2Topo3BodyBBDTDecision", "Hlt2Topo4BodyBBDTDecision",
##others
"Hlt2PassThroughDecision",
"Hlt2TransparentDecision",
## inclusive decisions
"Hlt2DiMuonDY.*Decision","Hlt2TopoE.*Decision", "Hlt2Topo.*Decision", "Hlt2Charm.*Decision", "Hlt2DiElectron.*Decision"
]
triggerList = L0Triggers + Hlt1Triggers + Hlt2Triggers
ntuple.addTupleTool("TupleToolTISTOS")
ntuple.TupleToolTISTOS.VerboseL0 = True
ntuple.TupleToolTISTOS.VerboseHlt1 = True
ntuple.TupleToolTISTOS.VerboseHlt2 = True
ntuple.TupleToolTISTOS.FillL0 = True
ntuple.TupleToolTISTOS.FillHlt1 = True
ntuple.TupleToolTISTOS.FillHlt2 = True
ntuple.TupleToolTISTOS.OutputLevel = INFO
ntuple.TupleToolTISTOS.TriggerList = triggerList
#DecayTreeFitter
if(False):
fitter = ntuple.B.addTupleTool("TupleToolDecayTreeFitter/FIX_JPSI")
fitter.constrainToOriginVertex = False
fitter.daughtersToConstrain = [ "J/psi(1S)" ]
fitter.Verbose = True
#Isolation tool from Alex
weightsfolder = "./"
if(False):
from Configurables import TupleToolApplyIsolation
ntuple.B.addTupleTool(TupleToolApplyIsolation, name="TupleToolApplyIsolationHard")
ntuple.B.TupleToolApplyIsolationHard.OutputSuffix="_Hard"
ntuple.B.TupleToolApplyIsolationHard.WeightsFile= weightsfolder+"weightsHard.xml"
ntuple.B.addTupleTool(TupleToolApplyIsolation, name="TupleToolApplyIsolationSoft")
ntuple.B.TupleToolApplyIsolationSoft.OutputSuffix="_Soft"
ntuple.B.TupleToolApplyIsolationSoft.WeightsFile= weightsfolder+"weightsSoft.xml"
ntuple.B.addTupleTool("TupleToolVtxIsoln")
#ntuple.B.TupleToolApplyIsolationHard.OutputLevel = 3
#ntuple.B.TupleToolApplyIsolationSoft.OutputLevel = 3
#Tool from B2ee
if(False):
from Configurables import TupleToolMuonVariables
ntuple.addTupleTool("TupleToolMuonVariables")
if DaVinci().InputType == 'MDST':
ntuple.TupleToolMuonVariables.TrackContainer = "/Event/Leptonic/Rec/Track/Best" #Change in case of MDST!
ntuple.TupleToolMuonVariables.BDTSRootFile = weightsfolder+"HflatBDTS_7Dec.root"
ntuple.TupleToolMuonVariables.BDTSXMLFile = weightsfolder+"TMVA_7Dec.weights.xml"
#Settings for TupleToolTrackHits (some only are necessary for MDST-files because of other locations of the clusters)
if(True): #Change this value if you don't want to use this tool
from Configurables import TupleToolTrackHits, STOfflinePosition
trackhits = ntuple.addTupleTool("TupleToolTrackHits")
trackhits.Verbose = True
if DaVinci().InputType == 'MDST':
from Configurables import MeasurementProvider
ntuple.addTool(MeasurementProvider('MeasProvider'))
ntuple.MeasProvider.RootInTES = "/Event/Leptonic/" #Change Leptonic for your stream-name in case of MDST
trackhits.MeasurementProvider = ntuple.MeasProvider
itClusterPosition = STOfflinePosition('ToolSvc.ITClusterPosition') #avoid crashes from missing IT channels
itClusterPosition.DetType = 'IT'
#Settings for TupleToolAllPhotons (only works for fullDST files)
#Should be always added to only one branch
if(DaVinci().InputType == 'DST'):
if(True):
from Configurables import TupleToolAllPhotons, STOfflinePosition
allphotons = ntuple.eminus.addTupleTool("TupleToolAllPhotons")
allphotons.MCTruth = True
allphotons.PhotonsLocation = "/Event/Phys/StdVeryLooseAllPhotons/Particles"
itClusterPosition = STOfflinePosition('ToolSvc.ITClusterPosition') #avoid crashes from missing IT channels
itClusterPosition.DetType = 'IT'
#allphotons.PhotonsLocation = "/Event/Phys/StdLooseAllPhotons/Particles"
#Settings for TupleToolBremRemover
#Should be always added to specific branches
if(True):
from Configurables import TupleToolBremRemover
bremremover = ntuple.eminus.addTupleTool("TupleToolBremRemover")
if DaVinci().Simulation is True:
bremremover.TRUEP = True
#TupleToolTrackKink: Refits the track and outputs kink as point with highest Chi2 variation (should be run last because of the refit)
if(False):
ntuple.eminus.addTupleTool("TupleToolTrackKink")
# ================= END EDIT TUPLETOOLS WITH OPTIONS ==================
################################
### DaVinci configuration ####
################################
DaVinci().UserAlgorithms = [MySequencer]
DaVinci().MoniSequence += [ntuple]
DaVinci().EvtMax = -1
DaVinci().SkipEvents = 0
DaVinci().Lumi = True
#==============================REFIT WITH K SWAPPED FOR P ALL CONSTRAINED ==============================
tuple.Lambda_b0.addTupleTool('TupleToolDecayTreeFitter/DTFKforP')
tuple.Lambda_b0.DTFKforP.Verbose=True
tuple.Lambda_b0.DTFKforP.constrainToOriginVertex=True
tuple.Lambda_b0.DTFKforP.daughtersToConstrain = ["eta_prime"]
tuple.Lambda_b0.DTFKforP.Substitutions={
"Lambda_b0 -> ^p+ K- (eta_prime -> pi- pi+ gamma)" : "p~-",
"Lambda_b~0 -> ^p~- K+ (eta_prime -> pi- pi+ gamma)" : "p+",
}
########################################=LOKI FUNCOR VARIABLES===============================================
tuple.addBranches({'Proton':'[Lambda_b0 -> ^p+ K- (eta_prime -> pi- pi+ gamma)]CC',
'Kaon' : '[Lambda_b0 -> p+ ^K- (eta_prime -> pi- pi+ gamma)]CC',
'eta_prime' : '[Lambda_b0 -> p+ K- ^(eta_prime -> pi- pi+ gamma)]CC',
'piminus' : '[Lambda_b0 -> p+ K- (eta_prime -> ^pi- pi+ gamma)]CC',
'piplus' : '[Lambda_b0 -> p+ K- (eta_prime -> pi- ^pi+ gamma)]CC',
'gamma' : '[Lambda_b0 -> p+ K- (eta_prime -> pi- pi+ ^gamma)]CC',
})
from Configurables import TupleToolMCBackgroundInfo
tuple.Lambda_b0.addTool( TupleToolMCBackgroundInfo )
tuple.Lambda_b0.ToolList += [ "TupleToolMCBackgroundInfo" ]
from LoKiPhys.decorators import MAXTREE,MINTREE,ISBASIC,HASTRACK,SUMTREE,PT,ABSID,NINTREE,ETA,TRPCHI2
#eventtupletool=tuple.addTupleTool('LoKi::Hybrid::EventTupleTool/ETT')
#eventtupletool.VOID_Variables = {
# "nTracks" : "TrSOURCE('Rec/Track/Best') >> TrSIZE"
from Configurables import TupleToolTrackInfo, TupleToolRICHPid, TupleToolGeometry, TupleToolPid
from Configurables import TupleToolANNPID
from DecayTreeTuple.Configuration import *
tupleB = DecayTreeTuple("bae-"+tuplename+"-mc")
tupleB.Inputs = ["Phys/B2KLLXInclusive_InclKLLLine_NoHadronPID/Particles"]
#decay = ""
if LeptonType == "Muons" :
decay = "[B+ -> ^(J/psi(1S) -> ^mu+ ^mu-) ^K+]CC"
tupleB.addBranches ({
"Kplus" : "[B+ -> ^K+ (J/psi(1S) -> mu+ mu-)]CC",
"Jpsi" : "[B+ -> K+ ^(J/psi(1S) -> mu+ mu-)]CC",
"lplus" : "[B+ -> K+ (J/psi(1S) -> ^mu+ mu-)]CC",
"lminus" : "[B+ -> K+ (J/psi(1S) -> mu+ ^mu-)]CC",
"Bplus" : "[B+ -> K+ J/psi(1S)]CC",
})
if LeptonType == "Electrons":
decay = "[B+ -> ^(J/psi(1S) -> ^e+ ^e-) ^K+]CC"
tupleB.addBranches ({
"Kplus" : "[B+ -> ^K+ (J/psi(1S) -> e+ e-)]CC",
"Jpsi" : "[B+ -> K+ ^(J/psi(1S) -> e+ e-)]CC",
"lplus" : "[B+ -> K+ (J/psi(1S) -> ^e+ e-)]CC",
"lminus" : "[B+ -> K+ (J/psi(1S) -> e+ ^e-)]CC",
"Bplus" : "[B+ -> K+ J/psi(1S)]CC",
})
tupleB.Decay = decay
# "D" : " [B0 -> ^(D0 -> [K-]cc [pi+]cc ) [(K*(892)0 -> K+ pi-)]CC ]CC ",
# "D0K" : " [B0 -> (D0 -> ^[K-]cc [pi+]cc ) [(K*(892)0 -> K+ pi-)]CC ]CC ",
# "D0pi" : " [B0 -> (D0 -> [K-]cc ^[pi+]cc ) [(K*(892)0 -> K+ pi-)]CC ]CC ",
# "K" : " [B0 -> (D0 -> [K-]cc [pi+]cc ) [(K*(892)0 -> ^K+ pi-)]CC ]CC ",
# "pi" : " [B0 -> (D0 -> [K-]cc [pi+]cc ) [(K*(892)0 -> K+ ^pi-)]CC ]CC ",
# "Kst" : " [B0 -> (D0 -> [K-]cc [pi+]cc ) [^(K*(892)0 -> K+ pi-)]CC ]CC "
#})
tuple.Decay = " B0 -> (D0 -> K- pi+ ) (K*(892)0 -> { K+ pi- , K- pi+ }) "
tuple.addBranches({
"B":
" B0 -> ( D0 -> K- pi+ ) ( K*(892)0 -> { K+ pi- , K- pi+ }) ",
"D":
" B0 -> (^D0 -> K- pi+ ) ( K*(892)0 -> { K+ pi- , K- pi+ }) ",
"D0K":
" B0 -> ( D0 -> ^K- pi+ ) ( K*(892)0 -> { K+ pi- , K- pi+ }) ",
"D0pi":
" B0 -> ( D0 -> K- ^pi+ ) ( K*(892)0 -> { K+ pi- , K- pi+ }) ",
"K":
" B0 -> ( D0 -> K- pi+ ) ( K*(892)0 -> {^K+ pi- , ^K- pi+ }) ",
"pi":
" B0 -> ( D0 -> K- pi+ ) ( K*(892)0 -> { K+ ^pi- , K- ^pi+ }) ",
"Kst":
" B0 -> ( D0 -> K- pi+ ) (^K*(892)0 -> { K+ pi- , K- pi+ }) "
})
tuple.addTupleTool("TupleToolTISTOS/TupleToolTISTOS")
tuple.TupleToolTISTOS.VerboseL0 = True
tuple.TupleToolTISTOS.VerboseHlt1 = True
tuple.TupleToolTISTOS.VerboseHlt2 = True
tuple.TupleToolTISTOS.TriggerList = myTriggerList
#Add Loki variables
