def test_true(self):
c = ConfigRegistry.loadpys(self.config, MU_SHIELD_ENABLED=True)
self.assertIn("muShield", c)
assert len(ConfigRegistry.keys()) == 1, ConfigRegistry.keys()
assert self.key in ConfigRegistry.keys()
assert ConfigRegistry[self.key].Bfield.max == 1.5 * u.kilogauss
assert ConfigRegistry[self.key].muShield.dZ1 == 2.5 * u.m
def setUp(self):
self.key = "basic"
config = """
import shipunit as u
from ShipGeoConfig import AttrDict, ConfigRegistry
with ConfigRegistry.register_config("basic") as c:
c.vetoStation = AttrDict(z=-2390.*u.cm)
c.TrackStation1 = AttrDict(z=1510.*u.cm)
c.TrackStation2 = AttrDict(z=1710.*u.cm)
c.TrackStation3 = AttrDict(z=2150.*u.cm)
c.TrackStation4 = AttrDict(z=2370.*u.cm)
c.z = c.TrackStation2.z + 0.5 * (c.TrackStation3.z - c.TrackStation2.z)
c.Bfield = AttrDict(z=c.z)
c.Bfield.max = 1.5*u.kilogauss # was 1.15 in EOI
# target absorber muon shield setup
c.decayVolume = AttrDict(z=0*u.cm)
c.decayVolume.length = 50*u.m
c.muShield = AttrDict(z=0*u.cm)
c.muShield.dZ1 = 2.5*u.m
c.muShield.dZ2 = 3.5*u.m
c.muShield.dZ3 = 3.0*u.m
c.muShield.dZ4 = 3.0*u.m
c.muShield.dZ5 = 2.5*u.m
c.muShield.dZ6 = 2.5*u.m
c.muShield.LE = 5*u.m
"""
ConfigRegistry.loadpys(config)
def test_true(self):
c = ConfigRegistry.loadpys(self.config, MU_SHIELD_ENABLED=True)
self.assertTrue("muShield" in c)
assert len(ConfigRegistry.keys()) == 1, ConfigRegistry.keys()
assert self.key in ConfigRegistry.keys()
assert ConfigRegistry[self.key].Bfield.max == 1.5*u.kilogauss
assert ConfigRegistry[self.key].muShield.dZ1 == 2.5*u.m
def setUp(self):
self.key = "basic"
config = """
import shipunit as u
from ShipGeoConfig import AttrDict, ConfigRegistry
with ConfigRegistry.register_config("basic") as c:
c.vetoStation = AttrDict(z=-2390.*u.cm)
c.TrackStation1 = AttrDict(z=1510.*u.cm)
c.TrackStation2 = AttrDict(z=1710.*u.cm)
c.TrackStation3 = AttrDict(z=2150.*u.cm)
c.TrackStation4 = AttrDict(z=2370.*u.cm)
c.z = c.TrackStation2.z + 0.5 * (c.TrackStation3.z - c.TrackStation2.z)
c.Bfield = AttrDict(z=c.z)
c.Bfield.max = 1.5*u.kilogauss # was 1.15 in EOI
# target absorber muon shield setup
c.decayVolume = AttrDict(z=0*u.cm)
c.decayVolume.length = 50*u.m
c.muShield = AttrDict(z=0*u.cm)
c.muShield.dZ1 = 2.5*u.m
c.muShield.dZ2 = 3.5*u.m
c.muShield.dZ3 = 3.0*u.m
c.muShield.dZ4 = 3.0*u.m
c.muShield.dZ5 = 2.5*u.m
c.muShield.dZ6 = 2.5*u.m
c.muShield.LE = 5*u.m
"""
ConfigRegistry.loadpys(config)
def main(arguments):
logger.info("file: %s" % arguments.config_file)
if arguments.params is not None:
logger.info("paramters: %s" % arguments.params)
ConfigRegistry.loadpy(arguments.config_file, **arguments.params)
# ConfigRegistry.loadpy(arguments.config_file, muShieldDesign=2, targetOpt=5)
for k, v in ConfigRegistry().items():
print("%s: %s" % (k, v))
def main(arguments):
logger.info("file: %s" % arguments.config_file)
if arguments.params is not None:
logger.info("paramters: %s" % arguments.params)
ConfigRegistry.loadpy(arguments.config_file, **arguments.params)
# ConfigRegistry.loadpy(arguments.config_file, muShieldDesign=2, targetOpt=5)
for k, v in ConfigRegistry().iteritems():
print "%s: %s" % (k, v)
def setUp(self):
with ConfigRegistry.register_config("bb") as c:
c.length = 10
c.width = 20
c.muShield = AttrDict(z=10)
with ConfigRegistry.register_config("cc", base="bb") as c:
c.height = 30
c.volume = c.length * c.height * c.width
def setUp(self):
with ConfigRegistry.register_config("bb") as c:
c.length = 10
c.width = 20
c.muShield = AttrDict(z=10)
with ConfigRegistry.register_config("cc", base="bb") as c:
c.height = 30
c.volume = c.length * c.height * c.width
def InitTask(self):
# prepare container for fitted tracks
self.comp = ROOT.TEveCompound('Fitted tracks')
evmgr.AddElement(self.comp)
self.trackColors = {13:ROOT.kGreen,211:ROOT.kRed,11:ROOT.kOrange,321:ROOT.kMagenta}
ShipGeo = ConfigRegistry.loadpy("$FAIRSHIP/geometry/geometry_config.py", Yheight = int(float(dy)))
self.bfield = ROOT.genfit.BellField(ShipGeo.Bfield.max ,ShipGeo.Bfield.z,2, ShipGeo.Yheight/2.*u.m)
self.fM = ROOT.genfit.FieldManager.getInstance()
self.fM.init(self.bfield)
self.geoMat = ROOT.genfit.TGeoMaterialInterface()
ROOT.genfit.MaterialEffects.getInstance().init(self.geoMat)
dv = top.GetNode('DecayVolume_1')
ns = dv.GetNodes()
T1Lid = ns.FindObject("T1Lid_1").GetMatrix()
self.z_start = T1Lid.GetTranslation()[2]
mv = top.GetNode('MuonDetector_1').GetMatrix()
self.z_end = mv.GetTranslation()[2]
mM = top.GetNode('MCoil_1').GetMatrix()
self.z_mag = mM.GetTranslation()[2]
mE = top.GetNode('Ecal_1').GetMatrix()
self.z_ecal = mE.GetTranslation()[2]
self.niter = 100
self.dz = (self.z_end - self.z_start) / float(self.niter)
self.parallelToZ = ROOT.TVector3(0., 0., 1.)
sc = evmgr.GetScenes()
self.evscene = sc.FindChild('Event scene')
def execute(f,ox,name='ShipGeo'):
if type(ox) == type(''): ox = ConfigRegistry.register_config("basic")
o = retrieveGitTags(ox)
if type(f)==type("s"): fg = ROOT.TFile.Open(f,'update')
else: fg = f
pkl = Pickler(fg)
pkl.dump(o,name)
if type(f)==type("s"): fg.Close()
def loadGeometry(geofile, dy):
# init geometry and mag. field
ShipGeo = ConfigRegistry.loadpy("$FAIRSHIP/geometry/geometry_config.py", Yheight = dy )
# -----Create geometry----------------------------------------------
import shipDet_conf
tgeom = ROOT.TGeoManager("Geometry", "Geane geometry")
gMan = tgeom.Import(geofile)
fGeo = ROOT.gGeoManager
return {'fGeo':fGeo,'gMan':gMan, 'ShipGeo':ShipGeo}
def run_ship(self, phiRandom=False, followMuon=True, n_events=10, first_event=0):
"""
phiRandom = False # only relevant for muon background generator
followMuon = True # only transport muons for a fast muon only background
"""
r.gErrorIgnoreLevel = r.kWarning
r.gSystem.Load('libpythia8')
print ('FairShip setup to produce', n_events, 'events')
r.gRandom.SetSeed(self.theSeed)
ship_geo = ConfigRegistry.loadpy(
'$FAIRSHIP/geometry/geometry_config.py',
Yheight=self.dy,
tankDesign=self.vessel_design,
muShieldDesign=self.shield_design,
muShieldGeo=self.shield_geo_file)
run = r.FairRunSim()
run.SetName(self.mcEngine) # Transport engine
run.SetOutputFile(self.output_file) # Output file
# user configuration file default g4Config.C
run.SetUserConfig('g4Config.C')
modules = shipDet_conf.configure(run, ship_geo)
primGen = r.FairPrimaryGenerator()
primGen.SetTarget(ship_geo.target.z0 + 50 * u.m, 0.)
MuonBackgen = r.MuonBackGenerator()
MuonBackgen.Init(self.input_file, first_event, phiRandom)
MuonBackgen.SetSmearBeam(3 * u.cm) # beam size mimicking spiral
if self.same_seed:
MuonBackgen.SetSameSeed(self.same_seed)
primGen.AddGenerator(MuonBackgen)
if not n_events:
n_events = MuonBackgen.GetNevents()
else:
n_events = min(n_events, MuonBackgen.GetNevents())
print ('Process ', n_events, ' from input file, with Phi random=', phiRandom)
if followMuon:
modules['Veto'].SetFastMuon()
run.SetGenerator(primGen)
run.SetStoreTraj(r.kFALSE)
run.Init()
print ('Initialised run.')
# geomGeant4.setMagnetField()
if hasattr(ship_geo.Bfield, "fieldMap"):
fieldMaker = geomGeant4.addVMCFields(ship_geo, '', True)
print ('Start run of {} events.'.format(n_events))
run.Run(n_events)
print ('Finished simulation of {} events.'.format(n_events))
geofile_output_path = os.path.join(self.output_dir,
"geofile_full.fe_{}_n_events_{}.root" .format(first_event, n_events))
run.CreateGeometryFile(geofile_output_path)
# save ShipGeo dictionary in geofile
saveBasicParameters.execute(geofile_output_path, ship_geo)
return run
def extract_l_and_w(self, magnet_geofile, full_geometry_file, run=None):
if not run:
ship_geo = ConfigRegistry.loadpy(
'$FAIRSHIP/geometry/geometry_config.py',
Yheight=10,
tankDesign=6,
muShieldDesign=8,
nuTauTargetDesign=3,
muShieldGeo=os.path.join(self.geometry_dir, magnet_geofile))
print
'Config created with ' + os.path.join(self.geometry_dir,
magnet_geofile)
outFile = r.TMemFile('output', 'create')
run = r.FairRunSim()
run.SetName('TGeant4')
run.SetOutputFile(outFile)
run.SetUserConfig('g4Config.C')
shipDet_conf.configure(run, ship_geo)
run.Init()
run.CreateGeometryFile(
os.path.join(self.geometry_dir, full_geometry_file))
sGeo = r.gGeoManager
muonShield = sGeo.GetVolume('MuonShieldArea')
L = self.get_magnet_length(muonShield)
W = self.get_magnet_mass(muonShield)
g = r.TFile.Open(os.path.join(self.geometry_dir, magnet_geofile),
'read')
params = g.Get("params")
f = r.TFile.Open(os.path.join(self.geometry_dir, full_geometry_file),
'update')
f.cd()
length = r.TVectorD(1, array('d', [L]))
length.Write('length')
weight = r.TVectorD(1, array('d', [W]))
weight.Write('weight')
params.Write("params")
# Extract coordinates of senstive plane
nav = r.gGeoManager.GetCurrentNavigator()
nav.cd("sentsitive_tracker_1")
tmp = nav.GetCurrentNode().GetVolume().GetShape()
o = [tmp.GetOrigin()[0], tmp.GetOrigin()[1], tmp.GetOrigin()[2]]
local = array('d', o)
globOrigin = array('d', [0, 0, 0])
nav.LocalToMaster(local, globOrigin)
sensitive_plane = sGeo.GetVolume('sentsitive_tracker')
left_end, right_end = globOrigin[2] - sensitive_plane.GetShape().GetDZ(),\
globOrigin[2] + sensitive_plane.GetShape().GetDZ()
return L, W, (left_end, right_end)
def generate(inputFile, paramFile, outFile, seed=1, nEvents=None):
firstEvent = 0
dy = 10.
vessel_design = 5
shield_design = 8
mcEngine = 'TGeant4'
sameSeed = seed
theSeed = 1
phiRandom = False # only relevant for muon background generator
followMuon = True # only transport muons for a fast muon only background
print('FairShip setup to produce', nEvents, 'events')
r.gRandom.SetSeed(theSeed)
ship_geo = ConfigRegistry.loadpy('$FAIRSHIP/geometry/geometry_config.py',
Yheight=dy,
tankDesign=vessel_design,
muShieldDesign=shield_design,
muShieldGeo=paramFile)
run = r.FairRunSim()
run.SetName(mcEngine) # Transport engine
run.SetOutputFile(outFile) # Output file
# user configuration file default g4Config.C
run.SetUserConfig('g4Config.C')
modules = shipDet_conf.configure(run, ship_geo)
primGen = r.FairPrimaryGenerator()
primGen.SetTarget(ship_geo.target.z0 + 50 * u.m, 0.)
MuonBackgen = r.MuonBackGenerator()
MuonBackgen.Init(inputFile, firstEvent, phiRandom)
MuonBackgen.SetSmearBeam(3 * u.cm) # beam size mimicking spiral
if sameSeed:
MuonBackgen.SetSameSeed(sameSeed)
primGen.AddGenerator(MuonBackgen)
nEvents = MuonBackgen.GetNevents() - 1
print('Process ', nEvents, ' from input file, with Phi random=', phiRandom)
if followMuon:
modules['Veto'].SetFastMuon()
run.SetGenerator(primGen)
run.SetStoreTraj(r.kFALSE)
run.Init()
print('Initialised run.')
geomGeant4.addVMCFields(ship_geo, '', True)
print('Start run of {} events.'.format(nEvents))
run.Run(nEvents)
print('Finished simulation of {} events.'.format(nEvents))
def get_geo(geoFile):
"""Generate the geometry and check its lenght and weight.
Note: As FairRunSim is a C++ singleton it misbehaves if run
more than once in a process.
Parameters
----------
geoFile : str
File with the muon shield parameters (not with the geometry config!)
Returns
-------
L : float
Magnet length in [cm].
W : float
Magnet mass in [kg].
"""
ship_geo = ConfigRegistry.loadpy('$FAIRSHIP/geometry/geometry_config.py',
Yheight=10,
tankDesign=5,
muShieldDesign=8,
muShieldGeo=geoFile)
print 'Config created with ' + geoFile
outFile = r.TMemFile('output', 'create')
run = r.FairRunSim()
run.SetName('TGeant4')
run.SetOutputFile(outFile)
run.SetUserConfig('g4Config.C')
shipDet_conf.configure(run, ship_geo)
run.Init()
run.CreateGeometryFile('./geo/' + os.path.basename(geoFile))
sGeo = r.gGeoManager
muonShield = sGeo.GetVolume('MuonShieldArea')
L = magnetLength(muonShield)
W = magnetMass(muonShield)
return L, W
def create_csv_field_map(options):
r.gErrorIgnoreLevel = r.kWarning
r.gSystem.Load('libpythia8')
ship_geo = ConfigRegistry.loadpy(
'$FAIRSHIP/geometry/geometry_config.py',
Yheight=globalDesigns["dy"],
tankDesign=globalDesigns["dv"],
nuTauTargetDesign=globalDesigns["nud"],
CaloDesign=globalDesigns["caloDesign"],
strawDesign=globalDesigns["strawDesign"],
muShieldDesign=options.ds,
muShieldStepGeo=options.muShieldStepGeo,
muShieldWithCobaltMagnet=options.muShieldWithCobaltMagnet,
muShieldGeo=options.geofile)
ship_geo.muShield.WithConstField = True
run = r.FairRunSim()
run.SetName('TGeant4') # Transport engine
run.SetOutputFile("tmp_file") # Output file
# user configuration file default g4Config.C
run.SetUserConfig('g4Config.C')
modules = shipDet_conf.configure(run, ship_geo)
primGen = r.FairPrimaryGenerator()
primGen.SetTarget(ship_geo.target.z0 + 70.845 * u.m, 0.)
#
run.SetGenerator(primGen)
run.SetStoreTraj(r.kFALSE)
run.Init()
fieldMaker = geomGeant4.addVMCFields(ship_geo, '', True)
field_center, shield_half_length = ShieldUtils.find_shield_center(ship_geo)
print("SHIELD ONLY: CENTER: {}, HALFLENGTH: {}, half_X: {}, half_Y: {}".
format(field_center, shield_half_length,
ship_geo.muShield.half_X_max, ship_geo.muShield.half_Y_max))
fieldMaker.generateFieldMap(
os.path.expandvars("$FAIRSHIP/files/fieldMap.csv"), 2.5,
ship_geo.muShield.half_X_max, ship_geo.muShield.half_Y_max,
shield_half_length, field_center)
def query_params(self, params):
magnet_geofile = self.generate_magnet_geofile("query_geo.root", params)
ship_geo = ConfigRegistry.loadpy(
'$FAIRSHIP/geometry/geometry_config.py',
Yheight=10,
tankDesign=5,
muShieldDesign=8,
muShieldGeo=os.path.join(self.geometry_dir, magnet_geofile))
#shipDet_conf.configure(run, ship_geo)
outFile = r.TMemFile('output', 'create')
run = r.FairRunSim()
run.SetName('TGeant4')
run.SetOutputFile(outFile)
run.SetUserConfig('g4Config.C')
shipDet_conf.configure(run, ship_geo)
run.Init()
sGeo = r.gGeoManager
muonShield = sGeo.GetVolume('MuonShieldArea')
L = self.get_magnet_length(muonShield)
W = self.get_magnet_mass(muonShield)
return L, W
def create_context(self, f_name='magnet_geo_tmp.root'):
magnet_geofile = self.generate_magnet_geofile(
f_name, self.default_magnet_config)
ship_geo = ConfigRegistry.loadpy(
'$FAIRSHIP/geometry/geometry_config.py',
Yheight=10,
tankDesign=5,
muShieldDesign=8,
muShieldGeo=os.path.join(self.geometry_dir, magnet_geofile))
print
'Config created with ' + os.path.join(self.geometry_dir,
magnet_geofile)
outFile = r.TMemFile('output', 'create')
run = r.FairRunSim()
run.SetName('TGeant4')
run.SetOutputFile(outFile)
run.SetUserConfig('g4Config.C')
shipDet_conf.configure(run, ship_geo)
run.Init()
return run
def get_geo(geoFile, workDir='/eos/experiment/ship/user/ffedship/EA_V2/Geometry/', outfile=None):
if workDir[-1] != '/':
workDir = workDir + '/'
if not outfile:
outfile = workDir + os.path.basename(geoFile)
else:
outfile = workDir + outfile
ship_geo = ConfigRegistry.loadpy(
'$FAIRSHIP/geometry/geometry_config.py',
Yheight=10,
tankDesign=5,
muShieldDesign=8,
muShieldGeo=geoFile)
print 'Get_Geo Message: Config created with ' + geoFile
outFile = r.TMemFile('output', 'create') # type: Any
run = r.FairRunSim()
run.SetName('TGeant4')
run.SetOutputFile(outFile)
run.SetUserConfig('g4Config.C')
shipDet_conf.configure(run, ship_geo)
run.Init()
run.CreateGeometryFile(outfile)
sGeo = r.gGeoManager
muonShield = sGeo.GetVolume('MuonShieldArea')
L = magnetLength(muonShield)
W = magnetMass(muonShield)
g = r.TFile.Open(geoFile, 'read')
params = g.Get("params")
f = r.TFile.Open(outfile, 'update')
f.cd()
length = r.TVectorD(1, array('d', [L]))
length.Write('length')
weight = r.TVectorD(1, array('d', [W]))
weight.Write('weight')
params.Write("params")
return L, W
def configure(run, ship_geo):
latestCharmGeo = ConfigRegistry.loadpy(
"$FAIRSHIP/geometry/charm-geometry_config.py")
# -----Create media-------------------------------------------------
run.SetMaterials("media.geo") # Materials
# -----Create geometry----------------------------------------------
cave = ROOT.ShipCave("CAVE")
cave.SetGeometryFileName("caveWithAir.geo")
detectorList.append(cave)
Box = ROOT.Box("Box", ship_geo.Box.BrX, ship_geo.Box.BrY, ship_geo.Box.BrZ,
ship_geo.Box.zBox, ROOT.kTRUE)
Box.SetEmulsionParam(ship_geo.Box.EmTh, ship_geo.Box.EmX, ship_geo.Box.EmY,
ship_geo.Box.PBTh, ship_geo.Box.EPlW,
ship_geo.Box.MolybdenumTh, ship_geo.Box.AllPW)
Box.SetBrickParam(ship_geo.Box.BrX, ship_geo.Box.BrY, ship_geo.Box.BrZ,
ship_geo.Box.BrPackX, ship_geo.Box.BrPackY,
ship_geo.Box.BrPackZ)
Box.SetPassiveParam(ship_geo.Box.PX, ship_geo.Box.PY, ship_geo.Box.PZ)
Box.SetTargetParam(ship_geo.Box.TX, ship_geo.Box.TY, ship_geo.Box.TZ)
Box.SetCoolingParam(ship_geo.Box.CoolX, ship_geo.Box.CoolY,
ship_geo.Box.CoolZ)
Box.SetCoatingParam(ship_geo.Box.CoatX, ship_geo.Box.CoatY,
ship_geo.Box.CoatZ)
if (ship_geo.MufluxSpectrometer.muflux == False):
detectorList.append(Box)
Spectrometer = ROOT.Spectrometer("Spectrometer", ship_geo.Spectrometer.DX,
ship_geo.Spectrometer.DY,
ship_geo.Spectrometer.DZ, ROOT.kTRUE)
# -----Goliath part by Annarita--------
Spectrometer.SetGoliathSizes(ship_geo.Spectrometer.H,
ship_geo.Spectrometer.TS,
ship_geo.Spectrometer.LS,
ship_geo.Spectrometer.BasisH)
Spectrometer.SetCoilParameters(ship_geo.Spectrometer.CoilR,
ship_geo.Spectrometer.UpCoilH,
ship_geo.Spectrometer.LowCoilH,
ship_geo.Spectrometer.CoilD)
# --------------------------------------
Spectrometer.SetBoxParam(ship_geo.Spectrometer.SX,
ship_geo.Spectrometer.SY,
ship_geo.Spectrometer.SZ,
ship_geo.Spectrometer.zBox)
MufluxSpectrometer = ROOT.MufluxSpectrometer("MufluxSpectrometer",
ship_geo.Spectrometer.DX,
ship_geo.Spectrometer.DY,
ship_geo.Spectrometer.DZ,
ROOT.kTRUE)
# -----Drift tube part --------
MufluxSpectrometer.SetGoliathSizes(ship_geo.Spectrometer.H,
ship_geo.Spectrometer.TS,
ship_geo.Spectrometer.LS,
ship_geo.Spectrometer.BasisH)
MufluxSpectrometer.SetCoilParameters(ship_geo.Spectrometer.CoilR,
ship_geo.Spectrometer.UpCoilH,
ship_geo.Spectrometer.LowCoilH,
ship_geo.Spectrometer.CoilD)
# --------------------------------------
MufluxSpectrometer.SetBoxParam(ship_geo.Spectrometer.SX,
ship_geo.Spectrometer.SY,
ship_geo.Spectrometer.SZ,
ship_geo.Spectrometer.zBox)
MufluxSpectrometer.SetDeltazView(ship_geo.MufluxSpectrometer.DeltazView)
MufluxSpectrometer.SetInnerTubeDiameter(
ship_geo.MufluxSpectrometer.InnerTubeDiameter)
MufluxSpectrometer.SetOuterTubeDiameter(
ship_geo.MufluxSpectrometer.OuterTubeDiameter)
MufluxSpectrometer.SetTubePitch(ship_geo.MufluxSpectrometer.TubePitch)
MufluxSpectrometer.SetDeltazLayer(ship_geo.MufluxSpectrometer.DeltazLayer)
MufluxSpectrometer.SetDeltazPlane(ship_geo.MufluxSpectrometer.DeltazPlane)
MufluxSpectrometer.SetTubesPerLayer(
ship_geo.MufluxSpectrometer.TubesPerLayer)
MufluxSpectrometer.SetStereoAngle(ship_geo.MufluxSpectrometer.ViewAngle)
MufluxSpectrometer.SetWireThickness(
ship_geo.MufluxSpectrometer.WireThickness)
MufluxSpectrometer.SetTubeLength(ship_geo.MufluxSpectrometer.TubeLength)
MufluxSpectrometer.SetTubeLength12(
ship_geo.MufluxSpectrometer.TubeLength12)
MufluxSpectrometer.SetTr12YDim(ship_geo.MufluxSpectrometer.tr12ydim)
MufluxSpectrometer.SetTr34YDim(ship_geo.MufluxSpectrometer.tr34ydim)
MufluxSpectrometer.SetTr12XDim(ship_geo.MufluxSpectrometer.tr12xdim)
MufluxSpectrometer.SetTr34XDim(ship_geo.MufluxSpectrometer.tr34xdim)
MufluxSpectrometer.SetDistStereo(ship_geo.MufluxSpectrometer.diststereo)
MufluxSpectrometer.SetDistT1T2(ship_geo.MufluxSpectrometer.distT1T2)
MufluxSpectrometer.SetDistT3T4(ship_geo.MufluxSpectrometer.distT3T4)
# for the digitizing step
MufluxSpectrometer.SetTubeResolution(
ship_geo.MufluxSpectrometer.v_drift,
ship_geo.MufluxSpectrometer.sigma_spatial)
Scintillator = ROOT.Scintillator("Scintillator", ROOT.kTRUE)
Scintillator.SetScoring1XY(ship_geo.MufluxSpectrometer.tr12xdim,
ship_geo.MufluxSpectrometer.tr12ydim)
Scintillator.SetDistT1(ship_geo.MufluxSpectrometer.DeltazView / 2 +
ship_geo.MufluxSpectrometer.OuterTubeDiameter / 2 -
ship_geo.Scintillator.DistT1)
Scintillator.SetDistT2(ship_geo.Scintillator.DistT2)
if (ship_geo.MufluxSpectrometer.muflux == False):
detectorList.append(Spectrometer)
else:
TargetStation = ROOT.MufluxTargetStation(
"MufluxTargetStation", ship_geo.target.length,
ship_geo.hadronAbsorber.length, ship_geo.target.z,
ship_geo.hadronAbsorber.z, ship_geo.targetOpt, ship_geo.target.sl)
if ship_geo.targetOpt > 10:
slices_length = ROOT.std.vector('float')()
slices_material = ROOT.std.vector('string')()
for i in range(1, ship_geo.targetOpt + 1):
slices_length.push_back(eval("ship_geo.target.L" + str(i)))
slices_material.push_back(eval("ship_geo.target.M" + str(i)))
TargetStation.SetLayerPosMat(ship_geo.target.xy, slices_length,
slices_material)
detectorList.append(TargetStation)
detectorList.append(Scintillator)
detectorList.append(MufluxSpectrometer)
MuonTagger = ROOT.MuonTagger("MuonTagger", ship_geo.MuonTagger.BX,
ship_geo.MuonTagger.BY,
ship_geo.MuonTagger.BZ,
ship_geo.MuonTagger.zBox, ROOT.kTRUE)
MuonTagger.SetPassiveParameters(ship_geo.MuonTagger.PX,
ship_geo.MuonTagger.PY,
ship_geo.MuonTagger.PTh)
MuonTagger.SetSensitiveParameters(ship_geo.MuonTagger.SX,
ship_geo.MuonTagger.SY,
ship_geo.MuonTagger.STh)
detectorList.append(MuonTagger)
for x in detectorList:
run.AddModule(x)
fMagField = ROOT.ShipGoliathField()
fieldfile = os.environ["FAIRSHIP"] + "/field/GoliathFieldMap.root"
fMagField.Init(fieldfile)
run.SetField(fMagField)
# return list of detector elements
detElements = {}
for x in run.GetListOfModules():
detElements[x.GetName()] = x
return detElements
def configure(run, ship_geo):
# ---- for backward compatibility ----
if not hasattr(ship_geo, "tankDesign"): ship_geo.tankDesign = 4
if not hasattr(ship_geo.hcal, "File"): ship_geo.hcal.File = "hcal.geo"
if not hasattr(ship_geo.Bfield, 'x'): ship_geo.Bfield.x = 3. * u.m
if not hasattr(ship_geo, 'cave'):
ship_geo.cave = AttrDict(z=0 * u.cm)
ship_geo.cave.floorHeightMuonShield = 5 * u.m
ship_geo.cave.floorHeightTankA = 4.5 * u.m
ship_geo.cave.floorHeightTankB = 2. * u.m
latestShipGeo = ConfigRegistry.loadpy(
"$FAIRSHIP/geometry/geometry_config.py",
Yheight=ship_geo.Yheight / u.m,
tankDesign=ship_geo.tankDesign,
muShieldDesign=ship_geo.muShieldDesign,
nuTauTargetDesign=ship_geo.nuTauTargetDesign)
# -----Create media-------------------------------------------------
run.SetMaterials("media.geo") # Materials
# ------------------------------------------------------------------------
# -----Create geometry----------------------------------------------
cave = ROOT.ShipCave("CAVE")
if ship_geo.tankDesign < 5: cave.SetGeometryFileName("cave.geo")
else: cave.SetGeometryFileName("caveWithAir.geo")
detectorList.append(cave)
if ship_geo.muShieldDesign == 6 or ship_geo.muShieldDesign == 7: # magnetized hadron absorber defined in ShipMuonShield
TargetStation = ROOT.ShipTargetStation("TargetStation",
ship_geo.target.length,
ship_geo.target.z,
ship_geo.targetOpt,
ship_geo.target.sl)
else:
TargetStation = ROOT.ShipTargetStation(
"TargetStation", ship_geo.target.length,
ship_geo.hadronAbsorber.length, ship_geo.target.z,
ship_geo.hadronAbsorber.z, ship_geo.targetOpt, ship_geo.target.sl)
if ship_geo.targetOpt > 10:
slices_length = ROOT.std.vector('float')()
slices_material = ROOT.std.vector('std::string')()
for i in range(1, ship_geo.targetOpt + 1):
slices_length.push_back(eval("ship_geo.target.L" + str(i)))
slices_material.push_back(eval("ship_geo.target.M" + str(i)))
TargetStation.SetLayerPosMat(ship_geo.target.xy, slices_length,
slices_material)
detectorList.append(TargetStation)
if ship_geo.muShieldDesign == 1:
MuonShield = ROOT.ShipMuonShield("MuonShield",ship_geo.muShieldDesign,"ShipMuonShield",ship_geo.muShield.z,ship_geo.muShield.dZ0,ship_geo.muShield.length,\
ship_geo.muShield.LE)
elif ship_geo.muShieldDesign == 2:
MuonShield = ROOT.ShipMuonShield("MuonShield",ship_geo.muShieldDesign,"ShipMuonShield",ship_geo.muShield.z,ship_geo.muShield.dZ0,ship_geo.muShield.dZ1,\
ship_geo.muShield.dZ2,ship_geo.muShield.dZ3,ship_geo.muShield.dZ4,ship_geo.muShield.dZ5,ship_geo.muShield.dZ6,ship_geo.muShield.LE)
elif ship_geo.muShieldDesign == 3 or ship_geo.muShieldDesign == 4 or ship_geo.muShieldDesign == 5 or ship_geo.muShieldDesign == 6 or ship_geo.muShieldDesign == 7:
if not hasattr(ship_geo.muShield, "Field"):
MuonShield = ROOT.ShipMuonShield("MuonShield",ship_geo.muShieldDesign,"ShipMuonShield",ship_geo.muShield.z,ship_geo.muShield.dZ0,ship_geo.muShield.dZ1,\
ship_geo.muShield.dZ2,ship_geo.muShield.dZ3,ship_geo.muShield.dZ4,ship_geo.muShield.dZ5,ship_geo.muShield.dZ6,\
ship_geo.muShield.dZ7,ship_geo.muShield.dZ8,ship_geo.muShield.dXgap,ship_geo.muShield.LE,ship_geo.Yheight*4./10., ship_geo.cave.floorHeightMuonShield)
else:
MuonShield = ROOT.ShipMuonShield("MuonShield",ship_geo.muShieldDesign,"ShipMuonShield",ship_geo.muShield.z,ship_geo.muShield.dZ0,ship_geo.muShield.dZ1,\
ship_geo.muShield.dZ2,ship_geo.muShield.dZ3,ship_geo.muShield.dZ4,ship_geo.muShield.dZ5,ship_geo.muShield.dZ6,\
ship_geo.muShield.dZ7,ship_geo.muShield.dZ8,ship_geo.muShield.dXgap,ship_geo.muShield.LE,ship_geo.Yheight*4./10.,\
ship_geo.cave.floorHeightMuonShield,ship_geo.muShield.Field)
detectorList.append(MuonShield)
magnet_design = 2
if ship_geo.tankDesign == 5: magnet_design = 3
if ship_geo.strawDesign > 1:
magnet = ROOT.ShipMagnet("Magnet", "SHiP Magnet", ship_geo.Bfield.z,
magnet_design, ship_geo.Bfield.x,
ship_geo.Bfield.y,
ship_geo.cave.floorHeightTankB)
else:
magnet = ROOT.ShipMagnet("Magnet", "SHiP Magnet", ship_geo.Bfield.z)
detectorList.append(magnet)
Veto = ROOT.veto("Veto", ROOT.kTRUE) # vacuum tank
Veto.SetLiquidVeto(1) # liquid scintillator
Veto.SetPlasticVeto(1) # plastic scintillator
Veto.SetZpositions(ship_geo.vetoStation.z, ship_geo.TrackStation1.z, ship_geo.TrackStation2.z, \
ship_geo.TrackStation3.z, ship_geo.TrackStation4.z,ship_geo.tankDesign)
Veto.SetTubZpositions(ship_geo.Chamber1.z, ship_geo.Chamber2.z,
ship_geo.Chamber3.z, ship_geo.Chamber4.z,
ship_geo.Chamber5.z, ship_geo.Chamber6.z)
Veto.SetTublengths(ship_geo.chambers.Tub1length,ship_geo.chambers.Tub2length,ship_geo.chambers.Tub3length, \
ship_geo.chambers.Tub4length,ship_geo.chambers.Tub5length,ship_geo.chambers.Tub6length)
Veto.SetB(ship_geo.Yheight / 2.)
Veto.SetFloorHeight(ship_geo.cave.floorHeightTankA,
ship_geo.cave.floorHeightTankB)
if ship_geo.tankDesign == 5:
dzX = ship_geo.zFocusX + ship_geo.target.z0
x1 = ship_geo.xMax / (ship_geo.Chamber1.z -
ship_geo.chambers.Tub1length -
dzX) * (ship_geo.TrackStation4.z - dzX)
dzY = ship_geo.zFocusY + ship_geo.target.z0
y1 = ship_geo.Yheight / (ship_geo.Chamber1.z -
ship_geo.chambers.Tub1length -
dzY) * (ship_geo.TrackStation4.z - dzY)
Veto.SetXYstart(x1, dzX, y1, dzY)
Veto.SetVesselStructure(ship_geo.Veto.innerSupport,ship_geo.Veto.sensitiveThickness,ship_geo.Veto.outerSupport,\
ship_geo.Veto.innerSupportMed,ship_geo.Veto.lidThickness,ship_geo.Veto.sensitiveMed,\
ship_geo.Veto.outerSupportMed,ship_geo.Veto.decayMed,\
ship_geo.Veto.rib,ship_geo.Veto.ribMed)
detectorList.append(Veto)
if ship_geo.muShieldDesign not in [2, 3, 4] and hasattr(
ship_geo.tauMS, 'Xtot'):
taumagneticspectrometer = ROOT.MagneticSpectrometer(
"MagneticSpectrometer", ship_geo.tauMS.zMSC, ROOT.kTRUE)
taumagneticspectrometer.SetTotDimensions(ship_geo.tauMS.Xtot,
ship_geo.tauMS.Ytot,
ship_geo.tauMS.Ztot)
taumagneticspectrometer.SetFeDimensions(ship_geo.tauMS.XFe,
ship_geo.tauMS.YFe,
ship_geo.tauMS.ZFe)
taumagneticspectrometer.SetRpcDimensions(ship_geo.tauMS.XRpc,
ship_geo.tauMS.YRpc,
ship_geo.tauMS.ZRpc)
taumagneticspectrometer.SetRpcGasDimensions(ship_geo.tauMS.XGas,
ship_geo.tauMS.YGas,
ship_geo.tauMS.ZGas)
taumagneticspectrometer.SetRpcStripDimensions(ship_geo.tauMS.XStrip,
ship_geo.tauMS.YStrip,
ship_geo.tauMS.ZStrip)
taumagneticspectrometer.SetRpcElectrodeDimensions(
ship_geo.tauMS.XEle, ship_geo.tauMS.YEle, ship_geo.tauMS.ZEle)
taumagneticspectrometer.SetRpcPETDimensions(ship_geo.tauMS.XPet,
ship_geo.tauMS.YPet,
ship_geo.tauMS.ZPet)
taumagneticspectrometer.SetReturnYokeDimensions(
ship_geo.tauMS.XRyoke, ship_geo.tauMS.YRyoke,
ship_geo.tauMS.ZRyoke)
taumagneticspectrometer.SetSmallerYokeDimensions(
ship_geo.tauMS.XRyoke_s, ship_geo.tauMS.YRyoke_s,
ship_geo.tauMS.ZRyoke_s)
taumagneticspectrometer.SetZDimensionArm(ship_geo.tauMS.ZArm)
taumagneticspectrometer.SetGapDownstream(ship_geo.tauMS.GapD)
taumagneticspectrometer.SetGapMiddle(ship_geo.tauMS.GapM)
taumagneticspectrometer.SetNFeInArm(ship_geo.tauMS.NFe)
taumagneticspectrometer.SetNRpcInArm(ship_geo.tauMS.NRpc)
taumagneticspectrometer.SetMagneticField(ship_geo.tauMS.B)
taumagneticspectrometer.SetCoilParameters(ship_geo.tauMS.CoilH,
ship_geo.tauMS.CoilW,
ship_geo.tauMS.N,
ship_geo.tauMS.CoilG)
taumagneticspectrometer.SetPillarDimensions(ship_geo.tauMS.PillarX,
ship_geo.tauMS.PillarY,
ship_geo.tauMS.PillarZ)
detectorList.append(taumagneticspectrometer)
tauHpt = ROOT.Hpt("HighPrecisionTrackers", ship_geo.tauHPT.DX,
ship_geo.tauHPT.DY, ship_geo.tauHPT.DZ, ROOT.kTRUE)
tauHpt.SetZsize(ship_geo.tauMS.Ztot)
tauHpt.SetConcreteBaseDim(ship_geo.tauHPT.ConcreteX,
ship_geo.tauHPT.ConcreteY,
ship_geo.tauHPT.ConcreteZ)
detectorList.append(tauHpt)
if ship_geo.nuTauTargetDesign == 0 or ship_geo.nuTauTargetDesign == 1:
EmuMagnet = ROOT.EmulsionMagnet("EmuMagnet", ship_geo.EmuMagnet.zC,
"EmulsionMagnet")
EmuMagnet.SetDesign(ship_geo.EmuMagnet.Design)
EmuMagnet.SetGaps(ship_geo.EmuMagnet.GapUp,
ship_geo.EmuMagnet.GapDown)
EmuMagnet.SetMagneticField(ship_geo.EmuMagnet.B)
EmuMagnet.SetMagnetSizes(ship_geo.EmuMagnet.X,
ship_geo.EmuMagnet.Y,
ship_geo.EmuMagnet.Z)
EmuMagnet.SetCoilParameters(ship_geo.EmuMagnet.Radius,
ship_geo.EmuMagnet.Height1,
ship_geo.EmuMagnet.Height2,
ship_geo.EmuMagnet.Distance)
EmuMagnet.SetMagnetColumn(ship_geo.EmuMagnet.ColX,
ship_geo.EmuMagnet.ColY,
ship_geo.EmuMagnet.ColZ)
EmuMagnet.SetBaseDim(ship_geo.EmuMagnet.BaseX,
ship_geo.EmuMagnet.BaseY,
ship_geo.EmuMagnet.BaseZ)
EmuMagnet.SetPillarDimensions(ship_geo.EmuMagnet.PillarX,
ship_geo.EmuMagnet.PillarY,
ship_geo.EmuMagnet.PillarZ)
detectorList.append(EmuMagnet)
if ship_geo.nuTauTargetDesign == 2:
EmuMagnet = ROOT.EmulsionMagnet()
NuTauTarget = ROOT.Target("NuTauTarget", ship_geo.NuTauTarget.Ydist,
ROOT.kTRUE)
NuTauTarget.MakeNuTargetPassive(ship_geo.NuTauTarget.nuTargetPassive)
NuTauTarget.SetDetectorDesign(ship_geo.NuTauTarget.Design)
NuTauTarget.SetCenterZ(ship_geo.NuTauTarget.zC)
NuTauTarget.SetNumberBricks(ship_geo.NuTauTarget.col,
ship_geo.NuTauTarget.row,
ship_geo.NuTauTarget.wall)
NuTauTarget.SetDetectorDimension(ship_geo.NuTauTarget.xdim,
ship_geo.NuTauTarget.ydim,
ship_geo.NuTauTarget.zdim)
NuTauTarget.SetEmulsionParam(
ship_geo.NuTauTarget.EmTh, ship_geo.NuTauTarget.EmX,
ship_geo.NuTauTarget.EmY, ship_geo.NuTauTarget.PBTh,
ship_geo.NuTauTarget.EPlW, ship_geo.NuTauTarget.LeadTh,
ship_geo.NuTauTarget.AllPW)
NuTauTarget.SetBrickParam(ship_geo.NuTauTarget.BrX,
ship_geo.NuTauTarget.BrY,
ship_geo.NuTauTarget.BrZ,
ship_geo.NuTauTarget.BrPackX,
ship_geo.NuTauTarget.BrPackY,
ship_geo.NuTauTarget.BrPackZ)
NuTauTarget.SetCESParam(ship_geo.NuTauTarget.RohG,
ship_geo.NuTauTarget.LayerCESW,
ship_geo.NuTauTarget.CESW,
ship_geo.NuTauTarget.CESPack)
NuTauTarget.SetCellParam(ship_geo.NuTauTarget.CellW)
if ship_geo.nuTauTargetDesign == 0 or ship_geo.nuTauTargetDesign == 1:
NuTauTarget.SetMagneticField(ship_geo.EmuMagnet.B)
NuTauTarget.SetMagnetHeight(ship_geo.EmuMagnet.Y)
NuTauTarget.SetColumnHeight(ship_geo.EmuMagnet.ColY)
NuTauTarget.SetBaseHeight(ship_geo.EmuMagnet.BaseY)
NuTauTarget.SetCoilUpHeight(ship_geo.EmuMagnet.Height1)
NuTauTarget.SetCoilDownHeight(ship_geo.EmuMagnet.Height2)
if ship_geo.nuTauTargetDesign == 2:
NuTauTarget.SetPillarDimension(ship_geo.NuTauTarget.PillarX,
ship_geo.NuTauTarget.PillarY,
ship_geo.NuTauTarget.PillarZ)
NuTauTarget.SetBaseDimension(ship_geo.NuTauTarget.BaseX,
ship_geo.NuTauTarget.BaseY,
ship_geo.NuTauTarget.BaseZ)
NuTauTT = ROOT.TargetTracker("TargetTrackers", ROOT.kTRUE)
NuTauTT.SetNumberTT(ship_geo.NuTauTT.n)
NuTauTT.SetTargetTrackerParam(ship_geo.NuTauTT.TTX,
ship_geo.NuTauTT.TTY,
ship_geo.NuTauTT.TTZ)
NuTauTT.SetBrickParam(ship_geo.NuTauTarget.CellW)
NuTauTT.SetTotZDimension(ship_geo.NuTauTarget.zdim)
#method of nutau target that must be called after TT parameter definition
NuTauTarget.SetTTzdimension(ship_geo.NuTauTT.TTZ)
detectorList.append(NuTauTarget)
detectorList.append(NuTauTT)
if ship_geo.strawDesign > 1:
Strawtubes = ROOT.strawtubes("Strawtubes", ROOT.kTRUE)
Strawtubes.SetZpositions(ship_geo.vetoStation.z,
ship_geo.TrackStation1.z,
ship_geo.TrackStation2.z,
ship_geo.TrackStation3.z,
ship_geo.TrackStation4.z)
Strawtubes.SetDeltazView(ship_geo.strawtubes.DeltazView)
Strawtubes.SetInnerStrawDiameter(
ship_geo.strawtubes.InnerStrawDiameter)
Strawtubes.SetOuterStrawDiameter(
ship_geo.strawtubes.OuterStrawDiameter)
Strawtubes.SetStrawPitch(ship_geo.strawtubes.StrawPitch)
Strawtubes.SetDeltazLayer(ship_geo.strawtubes.DeltazLayer)
Strawtubes.SetDeltazPlane(ship_geo.strawtubes.DeltazPlane)
Strawtubes.SetStrawsPerLayer(ship_geo.strawtubes.StrawsPerLayer)
Strawtubes.SetStereoAngle(ship_geo.strawtubes.ViewAngle)
Strawtubes.SetWireThickness(ship_geo.strawtubes.WireThickness)
Strawtubes.SetVacBox_x(ship_geo.strawtubes.VacBox_x)
Strawtubes.SetVacBox_y(ship_geo.strawtubes.VacBox_y)
Strawtubes.SetStrawLength(ship_geo.strawtubes.StrawLength)
if hasattr(ship_geo.strawtubes, "StrawLengthVeto"):
Strawtubes.SetStrawLengthVeto(ship_geo.strawtubes.StrawLengthVeto)
Strawtubes.SetStrawLength12(ship_geo.strawtubes.StrawLength12)
Strawtubes.SetVetoYDim(ship_geo.strawtubes.vetoydim)
Strawtubes.SetTr12YDim(ship_geo.strawtubes.tr12ydim)
Strawtubes.SetTr34YDim(ship_geo.strawtubes.tr34ydim)
else:
Strawtubes.SetStrawLengthVeto(ship_geo.strawtubes.StrawLength)
Strawtubes.SetStrawLength12(ship_geo.strawtubes.StrawLength)
Strawtubes.SetVetoYDim(ship_geo.Yheight / 2.)
Strawtubes.SetTr12YDim(ship_geo.Yheight / 2.)
Strawtubes.SetTr34YDim(ship_geo.Yheight / 2.)
# for the digitizing step
Strawtubes.SetStrawResolution(
getParameter("strawtubes.v_drift", ship_geo, latestShipGeo),
getParameter("strawtubes.sigma_spatial", ship_geo, latestShipGeo))
detectorList.append(Strawtubes)
if ship_geo.preshowerOption > 0:
Preshower = ROOT.preshower("Preshower", ROOT.kTRUE)
Preshower.SetZStationPosition2(ship_geo.PreshowerStation0.z,
ship_geo.PreshowerStation1.z)
Preshower.SetZFilterPosition2(ship_geo.PreshowerFilter0.z,
ship_geo.PreshowerFilter1.z)
Preshower.SetXMax(ship_geo.Preshower.XMax)
Preshower.SetYMax(ship_geo.Preshower.YMax)
Preshower.SetActiveThickness(ship_geo.Preshower.ActiveThickness)
Preshower.SetFilterThickness2(ship_geo.Preshower.FilterThickness0,
ship_geo.Preshower.FilterThickness1)
detectorList.append(Preshower)
ecal, EcalZSize = posEcal(ship_geo.ecal.z, ship_geo.ecal.File)
detectorList.append(ecal)
if not ship_geo.HcalOption < 0:
hcal, HcalZSize = posHcal(ship_geo.hcal.z, ship_geo.hcal.File)
if abs(ship_geo.hcal.hcalSpace - HcalZSize) > 10 * u.cm:
print 'mismatch between hcalsize in geo file and python configuration'
print ship_geo.hcal.hcalSpace - HcalZSize, ship_geo.hcal.hcalSpace, HcalZSize
detectorList.append(hcal)
Muon = ROOT.muon("Muon", ROOT.kTRUE)
Muon.SetZStationPositions(ship_geo.MuonStation0.z, ship_geo.MuonStation1.z,
ship_geo.MuonStation2.z, ship_geo.MuonStation3.z)
Muon.SetZFilterPositions(ship_geo.MuonFilter0.z, ship_geo.MuonFilter1.z,
ship_geo.MuonFilter2.z)
Muon.SetXMax(ship_geo.Muon.XMax)
Muon.SetYMax(ship_geo.Muon.YMax)
Muon.SetActiveThickness(ship_geo.Muon.ActiveThickness)
Muon.SetFilterThickness(ship_geo.Muon.FilterThickness)
detectorList.append(Muon)
#----- Magnetic field -------------------------------------------
if ship_geo.strawDesign == 4:
fMagField = ROOT.ShipBellField("wilfried", ship_geo.Bfield.max,
ship_geo.Bfield.z, 2,
ship_geo.Yheight / 2. * u.m)
else:
fMagField = ROOT.ShipBellField("wilfried", ship_geo.Bfield.max,
ship_geo.Bfield.z, 1,
ship_geo.Yheight / 2. * u.m)
if ship_geo.muShieldDesign == 6:
fMagField.IncludeTarget(ship_geo.target.xy, ship_geo.target.z0,
ship_geo.target.length)
run.SetField(fMagField)
#
exclusionList = []
#exclusionList = ["Muon","Ecal","Hcal","Strawtubes","TargetTrackers","NuTauTarget","HighPrecisionTrackers",\
# "Veto","Magnet","MuonShield","TargetStation","MagneticSpectrometer","EmuMagnet"]
for x in detectorList:
if x.GetName() in exclusionList: continue
run.AddModule(x)
# return list of detector elements
detElements = {}
for x in run.GetListOfModules():
detElements[x.GetName()] = x
return detElements
def run_track_pattern_recognition(input_file, geo_file, output_file, method):
"""
Runs all steps of track pattern recognition.
Parameters
----------
input_file : string
Path to an input .root file with events.
geo_file : string
Path to a file with SHiP geometry.
output_file : string
Path to an output .root file with quality plots.
method : string
Name of a track pattern recognition method.
"""
############################################# Load SHiP geometry ###################################################
# Check geo file
try:
fgeo = ROOT.TFile(geo_file)
except:
print "An error with opening the ship geo file."
raise
sGeo = fgeo.FAIRGeom
# Prepare ShipGeo dictionary
if not fgeo.FindKey('ShipGeo'):
if sGeo.GetVolume('EcalModule3'):
ecalGeoFile = "ecal_ellipse6x12m2.geo"
else:
ecalGeoFile = "ecal_ellipse5x10m2.geo"
if dy:
ShipGeo = ConfigRegistry.loadpy(
"$FAIRSHIP/geometry/geometry_config.py",
Yheight=dy,
EcalGeoFile=ecalGeoFile)
else:
ShipGeo = ConfigRegistry.loadpy(
"$FAIRSHIP/geometry/geometry_config.py",
EcalGeoFile=ecalGeoFile)
else:
upkl = Unpickler(fgeo)
ShipGeo = upkl.load('ShipGeo')
# Globals
builtin.ShipGeo = ShipGeo
############################################# Load SHiP modules ####################################################
run = ROOT.FairRunSim()
modules = shipDet_conf.configure(run, ShipGeo)
############################################# Load inpur data file #################################################
# Check input file
try:
fn = ROOT.TFile(input_file, 'update')
except:
print "An error with opening the input data file."
raise
sTree = fn.cbmsim
sTree.Write()
############################################# Create hists #########################################################
h = init_book_hist()
########################################## Start Track Pattern Recognition #########################################
import shipPatRec
# Init book of hists for the quality measurements
metrics = {
'n_hits': [],
'reconstructible': 0,
'passed_y12': 0,
'passed_stereo12': 0,
'passed_12': 0,
'passed_y34': 0,
'passed_stereo34': 0,
'passed_34': 0,
'passed_combined': 0,
'reco_passed': 0,
'reco_passed_no_clones': 0,
'frac_y12': [],
'frac_stereo12': [],
'frac_12': [],
'frac_y34': [],
'frac_stereo34': [],
'frac_34': [],
'reco_frac_tot': [],
'reco_mc_p': [],
'reco_mc_theta': [],
'fitted_p': [],
'fitted_pval': [],
'fitted_chi': [],
'fitted_x': [],
'fitted_y': [],
'fitted_z': [],
'fitted_mass': []
}
# Start event loop
nEvents = sTree.GetEntries()
for iEvent in range(nEvents):
if iEvent % 1000 == 0:
print 'Event ', iEvent
########################################### Select one event ###################################################
rc = sTree.GetEvent(iEvent)
########################################### Reconstructible tracks #############################################
reconstructible_tracks = getReconstructibleTracks(
iEvent, sTree, sGeo, ShipGeo)
metrics['reconstructible'] += len(reconstructible_tracks)
for i_reco in reconstructible_tracks:
h['TracksPassed'].Fill("Reconstructible tracks", 1)
h['TracksPassedU'].Fill("Reconstructible tracks", 1)
in_y12 = []
in_stereo12 = []
in_12 = []
in_y34 = []
in_stereo34 = []
in_34 = []
in_combo = []
########################################## Recognized tracks ###################################################
nTracklets = sTree.Tracklets.GetEntriesFast()
for i_track in range(nTracklets):
atracklet = sTree.Tracklets[i_track]
if atracklet.getType() != 1: # this is a not full track (tracklet)
continue
atrack = atracklet.getList()
if atrack.size() == 0:
continue
hits = {
'X': [],
'Y': [],
'Z': [],
'DetID': [],
'TrackID': [],
'Pz': [],
'Px': [],
'Py': [],
'dist2Wire': [],
'Pdg': []
}
for ihit in atrack:
ahit = sTree.strawtubesPoint[ihit]
hits['X'] += [ahit.GetX()]
hits['Y'] += [ahit.GetY()]
hits['Z'] += [ahit.GetZ()]
hits['DetID'] += [ahit.GetDetectorID()]
hits['TrackID'] += [ahit.GetTrackID()]
hits['Pz'] += [ahit.GetPz()]
hits['Px'] += [ahit.GetPx()]
hits['Py'] += [ahit.GetPy()]
hits['dist2Wire'] += [ahit.dist2Wire()]
hits['Pdg'] += [ahit.PdgCode()]
# List to numpy arrays
for key in hits.keys():
hits[key] = numpy.array(hits[key])
# Decoding
statnb, vnb, pnb, lnb, snb = decodeDetectorID(hits['DetID'])
is_stereo = ((vnb == 1) + (vnb == 2))
is_y = ((vnb == 0) + (vnb == 3))
is_before = ((statnb == 1) + (statnb == 2))
is_after = ((statnb == 3) + (statnb == 4))
# Metrics
metrics['n_hits'] += [get_n_hits(hits['TrackID'])]
# Tracks passed
frac_y12, tmax_y12 = fracMCsame(hits['TrackID'][is_before * is_y])
n_hits_y12 = get_n_hits(hits['TrackID'][is_before * is_y])
frac_stereo12, tmax_stereo12 = fracMCsame(
hits['TrackID'][is_before * is_stereo])
n_hits_stereo12 = get_n_hits(hits['TrackID'][is_before *
is_stereo])
frac_12, tmax_12 = fracMCsame(hits['TrackID'][is_before])
n_hits_12 = get_n_hits(hits['TrackID'][is_before])
frac_y34, tmax_y34 = fracMCsame(hits['TrackID'][is_after * is_y])
n_hits_y34 = get_n_hits(hits['TrackID'][is_after * is_y])
frac_stereo34, tmax_stereo34 = fracMCsame(
hits['TrackID'][is_after * is_stereo])
n_hits_stereo34 = get_n_hits(hits['TrackID'][is_after * is_stereo])
frac_34, tmax_34 = fracMCsame(hits['TrackID'][is_after])
n_hits_34 = get_n_hits(hits['TrackID'][is_after])
frac_tot, tmax_tot = fracMCsame(hits['TrackID'])
n_hits_tot = get_n_hits(hits['TrackID'])
is_reconstructed = 0
is_reconstructed_no_clones = 0
if tmax_y12 in reconstructible_tracks:
metrics['passed_y12'] += 1
metrics['frac_y12'] += [frac_y12]
h['TracksPassed'].Fill("Y view station 1&2", 1)
if tmax_y12 not in in_y12:
h['TracksPassedU'].Fill("Y view station 1&2", 1)
in_y12.append(tmax_y12)
if tmax_stereo12 == tmax_y12:
metrics['passed_stereo12'] += 1
metrics['frac_stereo12'] += [frac_stereo12]
h['TracksPassed'].Fill("Stereo station 1&2", 1)
if tmax_stereo12 not in in_stereo12:
h['TracksPassedU'].Fill("Stereo station 1&2", 1)
in_stereo12.append(tmax_stereo12)
if tmax_12 == tmax_y12:
metrics['passed_12'] += 1
metrics['frac_12'] += [frac_12]
h['TracksPassed'].Fill("station 1&2", 1)
if tmax_12 not in in_12:
h['TracksPassedU'].Fill("station 1&2", 1)
in_12.append(tmax_12)
if tmax_y34 in reconstructible_tracks:
metrics['passed_y34'] += 1
metrics['frac_y34'] += [frac_y34]
h['TracksPassed'].Fill("Y view station 3&4", 1)
if tmax_y34 not in in_y34:
h['TracksPassedU'].Fill(
"Y view station 3&4", 1)
in_y34.append(tmax_y34)
if tmax_stereo34 == tmax_y34:
metrics['passed_stereo34'] += 1
metrics['frac_stereo34'] += [frac_stereo34]
h['TracksPassed'].Fill("Stereo station 3&4", 1)
if tmax_stereo34 not in in_stereo34:
h['TracksPassedU'].Fill(
"Stereo station 3&4", 1)
in_stereo34.append(tmax_stereo34)
if tmax_34 == tmax_y34:
metrics['passed_34'] += 1
metrics['frac_34'] += [frac_34]
h['TracksPassed'].Fill("station 3&4", 1)
if tmax_34 not in in_34:
h['TracksPassedU'].Fill(
"station 3&4", 1)
in_34.append(tmax_34)
if tmax_12 == tmax_34:
metrics['passed_combined'] += 1
h['TracksPassed'].Fill(
"Combined stations 1&2/3&4", 1)
metrics['reco_passed'] += 1
is_reconstructed = 1
if tmax_34 not in in_combo:
h['TracksPassedU'].Fill(
"Combined stations 1&2/3&4", 1)
metrics['reco_passed_no_clones'] += 1
in_combo.append(tmax_34)
is_reconstructed_no_clones = 1
# For reconstructed tracks
if is_reconstructed == 0:
continue
metrics['reco_frac_tot'] += [frac_tot]
# Momentum
Pz = hits['Pz']
Px = hits['Px']
Py = hits['Py']
P = numpy.sqrt(Pz**2 + Px**2 + Py**2)
P = P[hits['TrackID'] == tmax_tot]
p = numpy.mean(P)
metrics['reco_mc_p'] += [p]
h['TracksPassed_p'].Fill(p, 1)
# Direction
Z = hits['Z'][(hits['TrackID'] == tmax_tot) * is_before]
X = hits['X'][(hits['TrackID'] == tmax_tot) * is_before]
Y = hits['Y'][(hits['TrackID'] == tmax_tot) * is_before]
Z = Z - Z[0]
X = X - X[0]
Y = Y - Y[0]
R = numpy.sqrt(X**2 + Y**2 + Z**2)
Theta = numpy.arccos(Z[1:] / R[1:])
theta = numpy.mean(Theta)
metrics['reco_mc_theta'] += [theta]
h['n_hits_reco_y12'].Fill(n_hits_y12)
h['n_hits_reco_stereo12'].Fill(n_hits_stereo12)
h['n_hits_reco_12'].Fill(n_hits_12)
h['n_hits_reco_y34'].Fill(n_hits_y34)
h['n_hits_reco_stereo34'].Fill(n_hits_stereo34)
h['n_hits_reco_34'].Fill(n_hits_34)
h['n_hits_reco'].Fill(n_hits_tot)
h['n_hits_y12'].Fill(p, n_hits_y12)
h['n_hits_stereo12'].Fill(p, n_hits_stereo12)
h['n_hits_12'].Fill(p, n_hits_12)
h['n_hits_y34'].Fill(p, n_hits_y34)
h['n_hits_stereo34'].Fill(p, n_hits_stereo34)
h['n_hits_34'].Fill(p, n_hits_34)
h['n_hits_total'].Fill(p, n_hits_tot)
h['frac_y12'].Fill(p, frac_y12)
h['frac_stereo12'].Fill(p, frac_stereo12)
h['frac_12'].Fill(p, frac_12)
h['frac_y34'].Fill(p, frac_y34)
h['frac_stereo34'].Fill(p, frac_stereo34)
h['frac_34'].Fill(p, frac_34)
h['frac_total'].Fill(p, frac_tot)
# Fitted track
thetrack = sTree.FitTracks[i_track]
fitStatus = thetrack.getFitStatus()
thetrack.prune(
"CFL"
) # http://sourceforge.net/p/genfit/code/HEAD/tree/trunk/core/include/Track.h#l280
nmeas = fitStatus.getNdf()
pval = fitStatus.getPVal()
chi2 = fitStatus.getChi2() / nmeas
metrics['fitted_pval'] += [pval]
metrics['fitted_chi'] += [chi2]
h['chi2fittedtracks'].Fill(chi2)
h['pvalfittedtracks'].Fill(pval)
fittedState = thetrack.getFittedState()
fittedMom = fittedState.getMomMag()
fittedMom = fittedMom #*int(charge)
metrics['fitted_p'] += [fittedMom]
perr = (p - fittedMom) / p
h['ptrue-p/ptrue'].Fill(perr)
h['perr'].Fill(p, perr)
h['perr_direction'].Fill(numpy.rad2deg(theta), perr)
if math.fabs(p) > 0.0:
h['pvspfitted'].Fill(p, fittedMom)
fittedtrackDir = fittedState.getDir()
fittedx = math.degrees(math.acos(fittedtrackDir[0]))
fittedy = math.degrees(math.acos(fittedtrackDir[1]))
fittedz = math.degrees(math.acos(fittedtrackDir[2]))
fittedmass = fittedState.getMass()
h['momentumfittedtracks'].Fill(fittedMom)
h['xdirectionfittedtracks'].Fill(fittedx)
h['ydirectionfittedtracks'].Fill(fittedy)
h['zdirectionfittedtracks'].Fill(fittedz)
h['massfittedtracks'].Fill(fittedmass)
metrics['fitted_x'] += [fittedx]
metrics['fitted_y'] += [fittedy]
metrics['fitted_z'] += [fittedz]
metrics['fitted_mass'] += [fittedmass]
############################################# Save hists #########################################################
save_hists(h, output_file)
return metrics
else:
logger.warn("...use '-f' option to overwrite it")
else:
os.makedirs(work_dir)
return args
args = init()
os.chdir(work_dir)
# -------------------------------------------------------------------
ROOT.gRandom.SetSeed(
theSeed) # this should be propagated via ROOT to Pythia8 and Geant4VMC
shipRoot_conf.configure() # load basic libraries, prepare atexit for python
#this is for the muon flux geometry
ship_geo = ConfigRegistry.loadpy("$FAIRSHIP/geometry/charm-geometry_config.py",
Setup=args.CharmdetSetup,
cTarget=args.CharmTarget)
txt = 'pythia8_Geant4_'
if withEvtGen: txt = 'pythia8_evtgen_Geant4_'
outFile = outputDir + '/' + txt + str(runnr) + '_' + str(ecut) + '.root'
parFile = outputDir + '/ship.params.' + txt + str(runnr) + '_' + str(
ecut) + '.root'
# -----Timer--------------------------------------------------------
timer = ROOT.TStopwatch()
timer.Start()
# -----Create simulation run----------------------------------------
run = ROOT.FairRunSim()
run.SetName(mcEngine) # Transport engine
def test_readDOS(self):
c = ConfigRegistry.loadpy(self.filename, Yheight = 1)
self.assertTrue("vetoStation" in c)
assert ConfigRegistry[self.key].vetoStation.z == -2390*u.cm
if o in ("-f"):
inputFile = a
if o in ("-A"):
inclusive = True
if o in ("-F"):
deepCopy = True
print "FairShip setup for",simEngine,"to produce",nEvents,"events"
if (simEngine == "Ntuple" or simEngine == "MuonBack") and not inputFile :
print 'input file required if simEngine = Ntuple or MuonBack'
ROOT.gRandom.SetSeed(theSeed) # this should be propagated via ROOT to Pythia8 and Geant4VMC
shipRoot_conf.configure() # load basic libraries, prepare atexit for python
# - muShieldDesign = 2 # 1=passive 2=active
# - targetOpt = 5 # 0=solid >0 sliced, 5 pieces of tungsten, 4 air slits
# - strawDesign = 1 # simplistic tracker design, 3=sophisticated straw tube design, horizontal wires
ship_geo = ConfigRegistry.loadpy("$FAIRSHIP/geometry/geometry_config.py",strawDesign=4,muShieldDesign=5,targetOpt=5)
# Output file name
tag = simEngine+"-"+mcEngine
if eventDisplay: tag = tag+'_D'
outFile ="ship."+tag+".root"
# rm older files !!!
os.system("rm *."+tag+".root")
# Parameter file name
parFile="ship.params."+tag+".root"
# In general, the following parts need not be touched
# ========================================================================
# -----Timer--------------------------------------------------------
timer = ROOT.TStopwatch()
def test_len(self):
assert len(ConfigRegistry.keys()) == 1, ConfigRegistry.keys()
else:
logger.warn("...use '-f' option to overwrite it")
else:
os.makedirs(work_dir)
return args
args = init()
os.chdir(work_dir)
# -------------------------------------------------------------------
ROOT.gRandom.SetSeed(
args.seed) # this should be propagated via ROOT to Pythia8 and Geant4VMC
shipRoot_conf.configure() # load basic libraries, prepare atexit for python
ship_geo = ConfigRegistry.loadpy("$FAIRSHIP/geometry/geometry_config.py",
Yheight=dy,
tankDesign=dv,
muShieldDesign=ds,
nuTauTargetDesign=nud)
txt = 'pythia8_Geant4_'
if withEvtGen: txt = 'pythia8_evtgen_Geant4_'
outFile = outputDir + '/' + txt + str(runnr) + '_' + str(ecut) + '.root'
parFile = outputDir + '/ship.params.' + txt + str(runnr) + '_' + str(
ecut) + '.root'
# -----Timer--------------------------------------------------------
timer = ROOT.TStopwatch()
timer.Start()
# -----Create simulation run----------------------------------------
run = ROOT.FairRunSim()
def test_true(self):
c = ConfigRegistry.loadpys(self.config)
self.assertTrue("vetoStation" in c)
assert ConfigRegistry[self.key].vetoStation.z == -2390*u.cm
def setUp(self):
self.key = "bb"
with ConfigRegistry.register_config("bb") as c:
c.length = 10
c.width = 20
def tearDown(self):
ConfigRegistry.clean()
def test_latest(self):
c = ConfigRegistry.get_latest_config()
self.assertTrue(c is not None)
self.assertEqual(c.height, 30)
def test_key(self):
assert "bb" in ConfigRegistry.keys()
assert "cc" in ConfigRegistry.keys()
if "nuTargetDesign" not in globals():
nuTargetDesign = 1
if "targetOpt" not in globals():
targetOpt = 17
if "strawDesign" not in globals():
strawDesign = 4
if "HcalOption" not in globals():
HcalOption = 1
if "Yheight" not in globals():
Yheight = 10.
if "EcalGeoFile" not in globals():
EcalGeoFile = "ecal_ellipse5x10m2.geo"
if "preshowerOption" not in globals():
preshowerOption = 0
with ConfigRegistry.register_config("basic") as c:
# global muShieldDesign, targetOpt, strawDesign, Yheight
c.Yheight = Yheight*u.m
# decision by the SP
totalLength = 2.5*c.Yheight + 35*u.m
extraVesselLength = totalLength - 50*u.m
windowBulge = 1*u.m
c.strawDesign = strawDesign
c.chambers = AttrDict(z=0*u.cm)
if strawDesign != 4:
print "this design is not supported, use strawDesign = 4"
1/0
else:
c.chambers.Length = totalLength
magnetIncrease = 100.*u.cm
c.chambers.Tub1length = 2.5*u.m
def test_key(self):
assert self.key in ConfigRegistry.keys()
import shipunit as u
from ShipGeoConfig import AttrDict, ConfigRegistry
# the following params should be passed through 'ConfigRegistry.loadpy' method
# none for the moment
with ConfigRegistry.register_config("basic") as c:
c.MufluxSpectrometer = AttrDict(z=0 * u.cm)
# False = charm cross-section; True = muon flux measurement
c.MufluxSpectrometer.muflux = False
if "targetOpt" not in globals():
targetOpt = 18 # add extra 20cm of tungsten as per 13/06/2017
c.target = AttrDict(z0=0 * u.cm)
c.Bfield = AttrDict(z=0 * u.cm)
c.Bfield.max = 10. * u.kilogauss # 1.4361*u.kilogauss for SHiP
c.Bfield.y = 1.8 * u.m # dummy value
c.Bfield.x = 5.0 * u.m # dummy value
c.Bfield.z = 3.571 * u.m
#BOX (Brick!)
c.Box = AttrDict(z=0 * u.cm)
c.Box.BX = 13 * u.cm
c.Box.BY = 11 * u.cm
c.Box.BZ = 20 * u.cm
c.Box.zBox = 0 * u.cm
c.Box.EmTh = 0.0045 * u.cm
c.Box.EmX = 10 * u.cm #for the moment, replace the previous values for normal simulations
c.Box.EmY = 10 * u.cm
c.Box.PBTh = 0.0205 * u.cm
c.Box.MolybdenumTh = 0.3 * u.cm
import shipunit as u
from ShipGeoConfig import AttrDict, ConfigRegistry
# the following params should be passed through 'ConfigRegistry.loadpy' method
# muShieldDesign = 1 # 1=passive 2=active
# targetOpt = 5 # 0=solid >0 sliced, 5 pieces of tungsten, 4 air slits
with ConfigRegistry.register_config("basic") as c:
c.vetoStation = AttrDict(z=-2390.*u.cm)
c.TrackStation1 = AttrDict(z=1510.*u.cm)
c.TrackStation2 = AttrDict(z=1710.*u.cm)
c.TrackStation3 = AttrDict(z=2150.*u.cm)
c.TrackStation4 = AttrDict(z=2370.*u.cm)
c.z = c.TrackStation2.z + 0.5 * (c.TrackStation3.z - c.TrackStation2.z)
c.Bfield = AttrDict(z=c.z)
c.Bfield.max = 1.5*u.kilogauss # was 1.15 in EOI
# target absorber muon shield setup
c.decayVolume = AttrDict(z=0*u.cm)
c.decayVolume.length = 50*u.m
c.muShield = AttrDict(z=0*u.cm)
c.muShield.dZ1 = 2.5*u.m
c.muShield.dZ2 = 3.5*u.m
c.muShield.dZ3 = 3.0*u.m
c.muShield.dZ4 = 3.0*u.m
c.muShield.dZ5 = 2.5*u.m
c.muShield.dZ6 = 2.5*u.m
c.muShield.LE = 5*u.m
sys.exit()
if simEngine == "Nuage" and not inputFile:
inputFile = 'Numucc.root'
print "FairShip setup for", simEngine, "to produce", nEvents, "events"
if (simEngine == "Ntuple" or simEngine == "MuonBack") and defaultInputFile:
print 'input file required if simEngine = Ntuple or MuonBack'
print " for example -f /eos/experiment/ship/data/Mbias/pythia8_Geant4-withCharm_onlyMuons_4magTarget.root"
sys.exit()
ROOT.gRandom.SetSeed(
theSeed) # this should be propagated via ROOT to Pythia8 and Geant4VMC
shipRoot_conf.configure(0) # load basic libraries, prepare atexit for python
# - muShieldDesign = 2 # 1=passive 5=active (default) 7=short design+magnetized hadron absorber
# - targetOpt = 5 # 0=solid >0 sliced, 5: 5 pieces of tungsten, 4 H20 slits, 17: Mo + W +H2O (default)
# nuTauTargetDesign = 0 # 0 = TP, 1 = NEW with magnet, 2 = NEW without magnet, 3 = 2018 design
if charm == 0: ship_geo = ConfigRegistry.loadpy("$FAIRSHIP/geometry/geometry_config.py", Yheight = dy, tankDesign = dv, \
muShieldDesign = ds, nuTauTargetDesign=nud, CaloDesign=caloDesign, strawDesign=strawDesign, muShieldGeo=geofile)
else:
ship_geo = ConfigRegistry.loadpy(
"$FAIRSHIP/geometry/charm-geometry_config.py", Setup=CharmdetSetup)
if CharmdetSetup == 0: print "Setup for muon flux measurement has been set"
else: print "Setup for charm cross section measurement has been set"
# switch off magnetic field to measure muon flux
#ship_geo.muShield.Field = 0.
#ship_geo.EmuMagnet.B = 0.
#ship_geo.tauMudet.B = 0.
# Output file name, add dy to be able to setup geometry with ambiguities.
if simEngine == "PG": tag = simEngine + "_" + str(pID) + "-" + mcEngine
else: tag = simEngine + "-" + mcEngine
if charmonly: tag = simEngine + "CharmOnly-" + mcEngine
if eventDisplay: tag = tag + '_D'
def test_false(self):
ConfigRegistry.loadpys(self.config, MU_SHIELD_ENABLED=False)
assert len(ConfigRegistry.keys()) == 1, ConfigRegistry.keys()
assert self.key in ConfigRegistry.keys()
assert ConfigRegistry[self.key].Bfield.max == 1.5*u.kilogauss
self.assertTrue("muShield" not in ConfigRegistry[self.key])
def dmetric(input_file, geo_file, dy, reconstructiblerequired, threeprong):
############################################# Load SHiP geometry ###################################################
# Check geo file
try:
fgeo = ROOT.TFile(geo_file)
except:
print "An error with opening the ship geo file."
raise
sGeo = fgeo.FAIRGeom
# Prepare ShipGeo dictionary
if not fgeo.FindKey('ShipGeo'):
if sGeo.GetVolume('EcalModule3') :
ecalGeoFile = "ecal_ellipse6x12m2.geo"
else:
ecalGeoFile = "ecal_ellipse5x10m2.geo"
if dy:
ShipGeo = ConfigRegistry.loadpy("$FAIRSHIP/geometry/geometry_config.py", Yheight = dy, EcalGeoFile = ecalGeoFile)
else:
ShipGeo = ConfigRegistry.loadpy("$FAIRSHIP/geometry/geometry_config.py", EcalGeoFile = ecalGeoFile)
else:
upkl = Unpickler(fgeo)
ShipGeo = upkl.load('ShipGeo')
############################################# Load SHiP modules ####################################################
run = ROOT.FairRunSim()
modules = shipDet_conf.configure(run,ShipGeo)
############################################# Load input data file #################################################
# Check input file
try:
fn = ROOT.TFile(input_file,'update')
except:
print "An error with opening the input data file."
raise
sTree = fn.cbmsim
############################## Initialize SHiP Spectrometer Tracker geometry #######################################
zlayer, \
zlayerv2, \
z34layer, \
z34layerv2, \
TStation1StartZ, \
TStation4EndZ, \
VetoStationZ, \
VetoStationEndZ = initialize(ShipGeo)
########################################## Start Checking Geometry #################################################
all_hits = pandas.DataFrame(columns=['event_id', 'det_id', 'track_id', 'xtop', 'ytop', 'z', 'xbot', 'ybot'])
all_hits_i = 0
# Start event loop
nEvents = sTree.GetEntries()
for iEvent in range(nEvents):
if iEvent%100 == 0:
print 'Event ', iEvent
########################################### Select one event ###################################################
rc = sTree.GetEvent(iEvent)
############################################# Get hits #########################################################
reco_mc_tracks = getReconstructibleTracks(iEvent,
sTree,
sGeo,
reconstructiblerequired,
threeprong,
TStation1StartZ,
TStation4EndZ,
VetoStationZ,
VetoStationEndZ)
#consider only reconstructible events
if len(reco_mc_tracks) > 1:
nHits = sTree.strawtubesPoint.GetEntriesFast()
key = -1
for i in range(nHits):
ahit = sTree.strawtubesPoint[i]
key+=1
detID = ahit.GetDetectorID()
trID = ahit.GetTrackID()
top = ROOT.TVector3()
bot = ROOT.TVector3()
modules["Strawtubes"].StrawEndPoints(detID,bot,top)
all_hits.loc[all_hits_i] = [iEvent, detID, trID, top.x(), top.y(), top.z(), bot.x(), bot.y()]
all_hits_i += 1
all_hits['StatNb'] = all_hits['det_id'] // 10000000
all_hits['ViewNb'] = (all_hits['det_id'] - all_hits['StatNb'] * 10000000) // 1000000
all_hits['PlaneNb'] = (all_hits['det_id'] - all_hits['StatNb'] * 10000000 - all_hits['ViewNb'] * 1000000) // 100000
all_hits['LayerNb'] = (all_hits['det_id'] - all_hits['StatNb'] * 10000000 - all_hits['ViewNb'] * 1000000 -\
all_hits['PlaneNb'] * 100000) // 10000
all_hits['StrawNb'] = all_hits['det_id'] - all_hits['StatNb'] * 10000000 - all_hits['ViewNb'] * 1000000 -\
all_hits['PlaneNb'] * 100000 - all_hits['LayerNb'] * 10000 - 2000
#return daniel's metric
df_1_view = all_hits[(all_hits.StatNb==1)&(all_hits.ViewNb==0)]
counts = df_1_view.groupby(['event_id', 'track_id'])['StatNb'].count()
all_tracks = len(all_hits.groupby(['event_id', 'track_id'])['StatNb'].count())
return 1. * np.sum(counts>1) / all_tracks
for f in files:
os.unlink(os.path.join(root, f))
for d in dirs:
shutil.rmtree(os.path.join(root, d))
else:
logger.warn("...use '-f' option to overwrite it")
else:
os.makedirs(work_dir)
return args
args = init()
os.chdir(work_dir)
# -------------------------------------------------------------------
ROOT.gRandom.SetSeed(args.seed) # this should be propagated via ROOT to Pythia8 and Geant4VMC
shipRoot_conf.configure() # load basic libraries, prepare atexit for python
ship_geo = ConfigRegistry.loadpy("$FAIRSHIP/geometry/geometry_config.py", Yheight = dy, tankDesign = dv, muShieldDesign = ds, nuTauTargetDesign=nud)
txt = 'pythia8_Geant4_'
if withEvtGen: txt = 'pythia8_evtgen_Geant4_'
outFile = outputDir+'/'+txt+str(runnr)+'_'+str(ecut)+'.root'
parFile = outputDir+'/ship.params.'+txt+str(runnr)+'_'+str(ecut)+'.root'
# -----Timer--------------------------------------------------------
timer = ROOT.TStopwatch()
timer.Start()
# -----Create simulation run----------------------------------------
run = ROOT.FairRunSim()
run.SetName(mcEngine) # Transport engine
run.SetOutputFile(outFile) # Output file
run.SetUserConfig("g4Config.C") # user configuration file default g4Config.C
def configure(run,ship_geo,Gfield=''):
latestCharmGeo = ConfigRegistry.loadpy("$FAIRSHIP/geometry/charm-geometry_config.py")
# -----Create media-------------------------------------------------
run.SetMaterials("media.geo") # Materials
# -----Create geometry----------------------------------------------
cave= ROOT.ShipCave("CAVE")
cave.SetGeometryFileName("caveWithAir.geo")
detectorList.append(cave)
if (ship_geo.MufluxSpectrometer.muflux==False):
# === Emulsion Target
Box = ROOT.Box("Box",ship_geo.Box.BrX, ship_geo.Box.BrY, ship_geo.Box.BrZ, ship_geo.Box.zBox,ROOT.kTRUE)
Box.SetEmulsionParam(ship_geo.Box.EmTh, ship_geo.Box.EmX, ship_geo.Box.EmY, ship_geo.Box.PBTh,ship_geo.Box.EPlW, ship_geo.Box.PasSlabTh, ship_geo.Box.AllPW);
Box.SetBrickParam(ship_geo.Box.BrX, ship_geo.Box.BrY, ship_geo.Box.BrZ, ship_geo.Box.BrPackX, ship_geo.Box.BrPackY, ship_geo.Box.BrPackZ);
Box.SetTargetParam(ship_geo.Box.TX, ship_geo.Box.TY, ship_geo.Box.TZ);
Box.SetPassiveComposition(ship_geo.Box.Molblock1Z, ship_geo.Box.Molblock2Z, ship_geo.Box.Molblock3Z, ship_geo.Box.Molblock4Z, ship_geo.Box.Wblock1Z, ship_geo.Box.Wblock2Z, ship_geo.Box.Wblock3Z, ship_geo.Box.Wblock3_5Z, ship_geo.Box.Wblock4Z)
Box.SetPassiveSampling(ship_geo.Box.Passive3mmZ, ship_geo.Box.Passive2mmZ, ship_geo.Box.Passive1mmZ)
Box.SetCoolingParam(ship_geo.Box.CoolX, ship_geo.Box.CoolY, ship_geo.Box.CoolZ)
Box.SetCoatingParam(ship_geo.Box.CoatX, ship_geo.Box.CoatY, ship_geo.Box.CoatZ)
Box.SetGapGeometry(ship_geo.Box.distancePassive2ECC)
Box.SetTargetDesign(ship_geo.Box.Julytarget)
Box.SetRunNumber(ship_geo.Box.RunNumber)
detectorList.append(Box)
# === SciFi modules
SciFi = ROOT.SciFi("SciFi",ship_geo.SciFi.DX, ship_geo.SciFi.DY, ship_geo.SciFi.DZ,ROOT.kTRUE)
SciFi.SetBoxParam(ship_geo.SciFi.DX,ship_geo.SciFi.DY,ship_geo.SciFi.DZ, ship_geo.SciFi.zBox)
SciFi.SetStationNumber(ship_geo.SciFi.nstations)
SciFi.SetStationDimensions(ship_geo.SciFi.StationDimX, ship_geo.SciFi.StationDimY, ship_geo.SciFi.StationDimZ)
for i, (x, y, z) in enumerate(zip(ship_geo.SciFi.xSi,ship_geo.SciFi.ySi,ship_geo.SciFi.zSi)):
SciFi.SetStationPositions(i, x, y, z)
# === Pixel modules
PixelModules = ROOT.PixelModules("PixelModules",ship_geo.PixelModules.DX, ship_geo.PixelModules.DY, ship_geo.PixelModules.DZ,ROOT.kTRUE)
PixelModules.SetBoxParam(ship_geo.PixelModules.DX,ship_geo.PixelModules.DY,ship_geo.PixelModules.DZ, ship_geo.PixelModules.zBox, ship_geo.PixelModules.DimZpixelbox, ship_geo.PixelModules.D1short, ship_geo.PixelModules.D1long)
PixelModules.SetSiliconDZ(ship_geo.PixelModules.DimZSi)
# === SciFi modules
detectorList.append(SciFi)
# === Pixel modules
detectorList.append(PixelModules)
for i, (x, y, z) in enumerate(zip(ship_geo.PixelModules.xSi,ship_geo.PixelModules.ySi,ship_geo.PixelModules.zSi)):
PixelModules.SetSiliconStationPositions(i, x, y, z)
Spectrometer = ROOT.Spectrometer("Spectrometer",ship_geo.Spectrometer.DX, ship_geo.Spectrometer.DY, ship_geo.Spectrometer.DZ,ROOT.kTRUE)
Spectrometer.SetTransverseSizes(ship_geo.Spectrometer.D1Short, ship_geo.Spectrometer.D1Long)
# -----Goliath part by Annarita--------
Spectrometer.SetGoliathSizes(ship_geo.Spectrometer.H, ship_geo.Spectrometer.TS, ship_geo.Spectrometer.LS, ship_geo.Spectrometer.BasisH);
Spectrometer.SetCoilParameters(ship_geo.Spectrometer.CoilR, ship_geo.Spectrometer.UpCoilH, ship_geo.Spectrometer.LowCoilH, ship_geo.Spectrometer.CoilD);
# --------------------------------------
Spectrometer.SetBoxParam(ship_geo.Spectrometer.SX,ship_geo.Spectrometer.SY,ship_geo.Spectrometer.SZ,ship_geo.Spectrometer.zBox)
if (ship_geo.MufluxSpectrometer.muflux==False):
MufluxSpectrometer = ROOT.MufluxSpectrometer("MufluxSpectrometer",ship_geo.MufluxSpectrometer.DX, ship_geo.MufluxSpectrometer.DY, ship_geo.MufluxSpectrometer.DZ,ROOT.kTRUE)
else:
MufluxSpectrometer = ROOT.MufluxSpectrometer("MufluxSpectrometer",ship_geo.Spectrometer.DX, ship_geo.Spectrometer.DY, ship_geo.Spectrometer.DZ,ROOT.kTRUE)
# -----Drift tube part --------
MufluxSpectrometer.SetGoliathSizes(ship_geo.Spectrometer.H, ship_geo.Spectrometer.TS, ship_geo.Spectrometer.LS, ship_geo.Spectrometer.BasisH);
MufluxSpectrometer.SetCoilParameters(ship_geo.Spectrometer.CoilR, ship_geo.Spectrometer.UpCoilH, ship_geo.Spectrometer.LowCoilH, ship_geo.Spectrometer.CoilD);
# --------------------------------------
MufluxSpectrometer.ChooseDetector(ship_geo.MufluxSpectrometer.muflux)
MufluxSpectrometer.SetDeltazView(ship_geo.MufluxSpectrometer.DeltazView)
MufluxSpectrometer.SetInnerTubeDiameter(ship_geo.MufluxSpectrometer.InnerTubeDiameter)
MufluxSpectrometer.SetOuterTubeDiameter(ship_geo.MufluxSpectrometer.OuterTubeDiameter)
MufluxSpectrometer.SetTubePitch(ship_geo.MufluxSpectrometer.TubePitch)
MufluxSpectrometer.SetTubePitch_T1u(ship_geo.MufluxSpectrometer.TubePitch_T1u,ship_geo.MufluxSpectrometer.T1u_const,ship_geo.MufluxSpectrometer.T1u_const_2,ship_geo.MufluxSpectrometer.T1u_const_3,ship_geo.MufluxSpectrometer.T1u_const_4)
MufluxSpectrometer.SetTubePitch_T2v(ship_geo.MufluxSpectrometer.TubePitch_T2v,ship_geo.MufluxSpectrometer.T2v_const,ship_geo.MufluxSpectrometer.T2v_const_2,ship_geo.MufluxSpectrometer.T2v_const_3,ship_geo.MufluxSpectrometer.T2v_const_4)
MufluxSpectrometer.SetDeltazLayer(ship_geo.MufluxSpectrometer.DeltazLayer)
MufluxSpectrometer.SetDeltazPlane(ship_geo.MufluxSpectrometer.DeltazPlane)
MufluxSpectrometer.SetTubesPerLayer(ship_geo.MufluxSpectrometer.TubesPerLayer)
MufluxSpectrometer.SetStereoAngle(ship_geo.MufluxSpectrometer.ViewAngle, ship_geo.MufluxSpectrometer.ViewvAngle)
MufluxSpectrometer.SetWireThickness(ship_geo.MufluxSpectrometer.WireThickness)
MufluxSpectrometer.SetTubeLength(ship_geo.MufluxSpectrometer.TubeLength)
MufluxSpectrometer.SetTubeLength12(ship_geo.MufluxSpectrometer.TubeLength12)
MufluxSpectrometer.SetTr12YDim(ship_geo.MufluxSpectrometer.tr12ydim)
MufluxSpectrometer.SetTr34YDim(ship_geo.MufluxSpectrometer.tr34ydim)
MufluxSpectrometer.SetTr12XDim(ship_geo.MufluxSpectrometer.tr12xdim)
MufluxSpectrometer.SetTr34XDim(ship_geo.MufluxSpectrometer.tr34xdim)
MufluxSpectrometer.SetDistStereo(ship_geo.MufluxSpectrometer.diststereoT1,ship_geo.MufluxSpectrometer.diststereoT2)
MufluxSpectrometer.SetDistT1T2(ship_geo.MufluxSpectrometer.distT1T2)
MufluxSpectrometer.SetDistT3T4(ship_geo.MufluxSpectrometer.distT3T4)
MufluxSpectrometer.SetGoliathCentre(ship_geo.MufluxSpectrometer.goliathcentre_to_beam)
MufluxSpectrometer.SetGoliathCentreZ(ship_geo.MufluxSpectrometer.goliathcentre)
MufluxSpectrometer.SetT3StationsZcorr(ship_geo.MufluxSpectrometer.T3z_1,ship_geo.MufluxSpectrometer.T3z_2,ship_geo.MufluxSpectrometer.T3z_3,ship_geo.MufluxSpectrometer.T3z_4)
MufluxSpectrometer.SetT4StationsZcorr(ship_geo.MufluxSpectrometer.T4z_1,ship_geo.MufluxSpectrometer.T4z_2,ship_geo.MufluxSpectrometer.T4z_3,ship_geo.MufluxSpectrometer.T4z_4)
MufluxSpectrometer.SetT3StationsXcorr(ship_geo.MufluxSpectrometer.T3x_1,ship_geo.MufluxSpectrometer.T3x_2,ship_geo.MufluxSpectrometer.T3x_3,ship_geo.MufluxSpectrometer.T3x_4)
MufluxSpectrometer.SetT4StationsXcorr(ship_geo.MufluxSpectrometer.T4x_1,ship_geo.MufluxSpectrometer.T4x_2,ship_geo.MufluxSpectrometer.T4x_3,ship_geo.MufluxSpectrometer.T4x_4)
MufluxSpectrometer.SetTStationsZ(ship_geo.MufluxSpectrometer.T1z,ship_geo.MufluxSpectrometer.T1x_z,ship_geo.MufluxSpectrometer.T1u_z,ship_geo.MufluxSpectrometer.T2z,ship_geo.MufluxSpectrometer.T2v_z,ship_geo.MufluxSpectrometer.T2x_z,ship_geo.MufluxSpectrometer.T3z,ship_geo.MufluxSpectrometer.T4z)
MufluxSpectrometer.SetTStationsX(ship_geo.MufluxSpectrometer.T1x_x,ship_geo.MufluxSpectrometer.T1u_x,ship_geo.MufluxSpectrometer.T2x_x,ship_geo.MufluxSpectrometer.T2v_x,ship_geo.MufluxSpectrometer.T3x,ship_geo.MufluxSpectrometer.T4x)
MufluxSpectrometer.SetTStationsY(ship_geo.MufluxSpectrometer.T1x_y,ship_geo.MufluxSpectrometer.T1u_y,ship_geo.MufluxSpectrometer.T2x_y,ship_geo.MufluxSpectrometer.T2v_y,ship_geo.MufluxSpectrometer.T3y,ship_geo.MufluxSpectrometer.T4y)
if (ship_geo.MufluxSpectrometer.muflux==False):
##Survey Results from charm by daniel
MufluxSpectrometer.SetT3(ship_geo.MufluxSpectrometer.SurveyCharm_T3ax,ship_geo.MufluxSpectrometer.SurveyCharm_T3ay,ship_geo.MufluxSpectrometer.SurveyCharm_T3az,0)
MufluxSpectrometer.SetT3(ship_geo.MufluxSpectrometer.SurveyCharm_T3bx,ship_geo.MufluxSpectrometer.SurveyCharm_T3by,ship_geo.MufluxSpectrometer.SurveyCharm_T3bz,1)
MufluxSpectrometer.SetT3(ship_geo.MufluxSpectrometer.SurveyCharm_T3cx,ship_geo.MufluxSpectrometer.SurveyCharm_T3cy,ship_geo.MufluxSpectrometer.SurveyCharm_T3cz,2)
MufluxSpectrometer.SetT3(ship_geo.MufluxSpectrometer.SurveyCharm_T3dx,ship_geo.MufluxSpectrometer.SurveyCharm_T3dy,ship_geo.MufluxSpectrometer.SurveyCharm_T3dz,3)
MufluxSpectrometer.SetT3(ship_geo.MufluxSpectrometer.SurveyCharm_T3tx,ship_geo.MufluxSpectrometer.SurveyCharm_T3ty,ship_geo.MufluxSpectrometer.SurveyCharm_T3tz,4)
MufluxSpectrometer.SetT4(ship_geo.MufluxSpectrometer.SurveyCharm_T4ax,ship_geo.MufluxSpectrometer.SurveyCharm_T4ay,ship_geo.MufluxSpectrometer.SurveyCharm_T4az,0)
MufluxSpectrometer.SetT4(ship_geo.MufluxSpectrometer.SurveyCharm_T4bx,ship_geo.MufluxSpectrometer.SurveyCharm_T4by,ship_geo.MufluxSpectrometer.SurveyCharm_T4bz,1)
MufluxSpectrometer.SetT4(ship_geo.MufluxSpectrometer.SurveyCharm_T4cx,ship_geo.MufluxSpectrometer.SurveyCharm_T4cy,ship_geo.MufluxSpectrometer.SurveyCharm_T4cz,2)
MufluxSpectrometer.SetT4(ship_geo.MufluxSpectrometer.SurveyCharm_T4dx,ship_geo.MufluxSpectrometer.SurveyCharm_T4dy,ship_geo.MufluxSpectrometer.SurveyCharm_T4dz,3)
MufluxSpectrometer.SetT4(ship_geo.MufluxSpectrometer.SurveyCharm_T4tx,ship_geo.MufluxSpectrometer.SurveyCharm_T4ty,ship_geo.MufluxSpectrometer.SurveyCharm_T4tz,4)
# for the digitizing step
MufluxSpectrometer.SetTubeResolution(ship_geo.MufluxSpectrometer.v_drift,ship_geo.MufluxSpectrometer.sigma_spatial)
if (ship_geo.MufluxSpectrometer.muflux==False):
detectorList.append(MufluxSpectrometer)
else:
# Scintillator and Target Station classes for muflux configuration
Scintillator = ROOT.Scintillator("Scintillator",ROOT.kTRUE)
Scintillator.SetScoring1XY(ship_geo.MufluxSpectrometer.tr12xdim,ship_geo.MufluxSpectrometer.tr12ydim)
Scintillator.SetDistT1(ship_geo.Scintillator.DistT1)
Scintillator.SetDistT2(ship_geo.Scintillator.DistT2)
Scintillator.SetS_T1coords(ship_geo.MufluxSpectrometer.T1x_x,ship_geo.MufluxSpectrometer.T1x_y)
Scintillator.SetS_T2coords(ship_geo.MufluxSpectrometer.T2x_x,ship_geo.MufluxSpectrometer.T2x_y)
TargetStation = ROOT.MufluxTargetStation("MufluxTargetStation",ship_geo.target.length,ship_geo.hadronAbsorber.length, ship_geo.target.z,ship_geo.hadronAbsorber.z,ship_geo.targetOpt,ship_geo.target.sl)
TargetStation.SetIronAbsorber(ship_geo.MufluxTargetStation.absorber_x,ship_geo.MufluxTargetStation.absorber_y)
TargetStation.SetAbsorberCutout(ship_geo.MufluxTargetStation.absorbercutout_x, ship_geo.MufluxTargetStation.absorbercutout_y)
TargetStation.SetIronShield(ship_geo.MufluxTargetStation.ironshield_x, ship_geo.MufluxTargetStation.ironshield_y, ship_geo.MufluxTargetStation.ironshield_z)
TargetStation.SetConcreteShield(ship_geo.MufluxTargetStation.concreteshield_x, ship_geo.MufluxTargetStation.concreteshield_y, ship_geo.MufluxTargetStation.concreteshield_z)
TargetStation.SetAboveTargetShield(ship_geo.MufluxTargetStation.abovetargetshield_x, ship_geo.MufluxTargetStation.abovetargetshield_y,ship_geo.MufluxTargetStation.abovetargetshield_z)
TargetStation.SetAboveAbsorberShield(ship_geo.MufluxTargetStation.aboveabsorbershield_x, ship_geo.MufluxTargetStation.aboveabsorbershield_y,ship_geo.MufluxTargetStation.aboveabsorbershield_z)
TargetStation.SetAboveAboveTargetShield(ship_geo.MufluxTargetStation.aboveabovetargetshield_y)
TargetStation.SetFloor(ship_geo.MufluxTargetStation.floor_x,ship_geo.MufluxTargetStation.floor_y,ship_geo.MufluxTargetStation.floor_z)
TargetStation.SetFloorT34(ship_geo.MufluxTargetStation.floorT34_x,ship_geo.MufluxTargetStation.floorT34_y,ship_geo.MufluxTargetStation.floorT34_z)
TargetStation.SetFloorRPC(ship_geo.MufluxTargetStation.floorRPC_x, ship_geo.MufluxTargetStation.floorRPC_y,ship_geo.MufluxTargetStation.floorRPC_z)
if ship_geo.targetOpt>10:
slices_length=ROOT.std.vector('float')()
slices_material=ROOT.std.vector('string')()
for i in range(1,ship_geo.targetOpt+1):
slices_length.push_back(eval("ship_geo.target.L"+str(i)))
slices_material.push_back(eval("ship_geo.target.M"+str(i)))
TargetStation.SetLayerPosMat(ship_geo.target.xy,slices_length,slices_material)
detectorList.append(TargetStation)
detectorList.append(Scintillator)
detectorList.append(MufluxSpectrometer)
MuonTagger = ROOT.MuonTagger("MuonTagger", ship_geo.MuonTagger.BX, ship_geo.MuonTagger.BY, ship_geo.MuonTagger.BZ, ship_geo.MuonTagger.zBox, ROOT.kTRUE)
MuonTagger.SetPassiveParameters(ship_geo.MuonTagger.PX, ship_geo.MuonTagger.PY, ship_geo.MuonTagger.PTh, ship_geo.MuonTagger.PTh1)
MuonTagger.SetSensitiveParameters(ship_geo.MuonTagger.SX, ship_geo.MuonTagger.SY, ship_geo.MuonTagger.STh)
MuonTagger.SetHoleDimensions(ship_geo.MuonTagger.HX, ship_geo.MuonTagger.HY)
MuonTagger.SetRPCz(ship_geo.MuonTagger.RPC1z, ship_geo.MuonTagger.RPC2z, ship_geo.MuonTagger.RPC3z, ship_geo.MuonTagger.RPC4z, ship_geo.MuonTagger.RPC5z)
MuonTagger.SetRPCThickness(ship_geo.MuonTagger.RPCthickness)
MuonTagger.SetGapThickness(ship_geo.MuonTagger.Gapthickness)
MuonTagger.SetElectrodeThickness(ship_geo.MuonTagger.Electrodethickness)
MuonTagger.SetStripz(ship_geo.MuonTagger.Stripz, ship_geo.MuonTagger.Stripfoamz)
MuonTagger.SetVStrip(ship_geo.MuonTagger.VStripx,ship_geo.MuonTagger.VStripx_L,ship_geo.MuonTagger.VStripx_R,ship_geo.MuonTagger.VStripoffset)
MuonTagger.SetHStrip(ship_geo.MuonTagger.HStripy,ship_geo.MuonTagger.HStripy_ext,ship_geo.MuonTagger.HStripoffset)
MuonTagger.SetNStrips(ship_geo.MuonTagger.NVstrips,ship_geo.MuonTagger.NHstrips)
detectorList.append(MuonTagger)
for x in detectorList:
run.AddModule(x)
fMagField = ROOT.ShipGoliathField()
if Gfield == '':
#default field map
fieldfile = os.environ["FAIRSHIP"]+"/field/GoliathFieldMap.root"
elif Gfield == 'inter':
fieldfile = os.environ["FAIRSHIP"]+"/field/GoliathFieldMap_2400A_1167A.root"
elif Gfield == 'noDavid':
fieldfile = os.environ["FAIRSHIP"]+"/field/GoliathFieldMap_3600A_0A.root"
fMagField.Init(fieldfile)
run.SetField(fMagField)
# return list of detector elements
detElements = {}
for x in run.GetListOfModules(): detElements[x.GetName()]=x
return detElements
f = ROOT.TFile(fname, 'update')
sTree = f.Get('cbmsim')
if not sTree:
print("Problem with updateFile: ", f)
exit(-1)
else:
sTree = ROOT.TChain('cbmsim')
for f in fnames:
print("add ", f)
if options.onEOS: sTree.Add(os.environ['EOSSHIP'] + f)
else: sTree.Add(f)
#-------------------------------geometry initialization
from ShipGeoConfig import ConfigRegistry
ShipGeo = ConfigRegistry.loadpy("$FAIRSHIP/geometry/charm-geometry_config.py",
Setup=1,
cTarget=1)
builtin.ShipGeo = ShipGeo
import charmDet_conf
run = ROOT.FairRunSim()
run.SetName("TGeant4") # Transport engine
run.SetOutputFile(ROOT.TMemFile('output', 'recreate')) # Output file
run.SetUserConfig(
"g4Config_basic.C"
) # geant4 transport not used, only needed for creating VMC field
rtdb = run.GetRuntimeDb()
modules = charmDet_conf.configure(run, ShipGeo)
# -----Create geometry and draw display----------------------------------------------
run.Init()
sGeo = ROOT.gGeoManager
nav = sGeo.GetCurrentNavigator()
os.unlink(os.path.join(root, f))
for d in dirs:
shutil.rmtree(os.path.join(root, d))
else:
logger.warn("...use '-f' option to overwrite it")
else:
os.makedirs(work_dir)
return args
args = init()
os.chdir(work_dir)
# -------------------------------------------------------------------
ROOT.gRandom.SetSeed(theSeed) # this should be propagated via ROOT to Pythia8 and Geant4VMC
shipRoot_conf.configure() # load basic libraries, prepare atexit for python
#this is for the muon flux geometry
ship_geo = ConfigRegistry.loadpy("$FAIRSHIP/geometry/charm-geometry_config.py", Setup = args.CharmdetSetup)
txt = 'pythia8_Geant4_'
if withEvtGen: txt = 'pythia8_evtgen_Geant4_'
outFile = outputDir+'/'+txt+str(runnr)+'_'+str(ecut)+'.root'
parFile = outputDir+'/ship.params.'+txt+str(runnr)+'_'+str(ecut)+'.root'
# -----Timer--------------------------------------------------------
timer = ROOT.TStopwatch()
timer.Start()
# -----Create simulation run----------------------------------------
run = ROOT.FairRunSim()
run.SetName(mcEngine) # Transport engine
run.SetOutputFile(outFile) # Output file
run.SetUserConfig("g4Config.C") # user configuration file default g4Config.C
if (simEngine == "Ntuple" or simEngine == "MuonBack") and defaultInputFile:
print 'input file required if simEngine = Ntuple or MuonBack'
print " for example -f /eos/ship/data/Mbias/pythia8_Geant4-withCharm_onlyMuons_4magTarget.root"
sys.exit()
ROOT.gRandom.SetSeed(
theSeed) # this should be propagated via ROOT to Pythia8 and Geant4VMC
shipRoot_conf.configure(
DarkPhoton) # load basic libraries, prepare atexit for python
# - muShieldDesign = 2 # 1=passive 5=active (default) 7=short design+magnetized hadron absorber
# - targetOpt = 5 # 0=solid >0 sliced, 5: 5 pieces of tungsten, 4 H20 slits, 17: Mo + W +H2O (default)
# - strawDesign = 4 # simplistic tracker design, 4=sophisticated straw tube design, horizontal wires (default)
# - HcalOption = -1 # no hcal, 0=hcal after muon, 1=hcal between ecal and muon (default)
# - preshowerOption = 0 # no preshower, default. 1= simple preshower
if charm == 0:
ship_geo = ConfigRegistry.loadpy("$FAIRSHIP/geometry/geometry_config.py",
Yheight=dy,
tankDesign=dv,
muShieldDesign=ds)
else:
ship_geo = ConfigRegistry.loadpy(
"$FAIRSHIP/geometry/charm-geometry_config.py")
# Output file name, add dy to be able to setup geometry with ambiguities.
tag = simEngine + "-" + mcEngine
if charmonly: tag = simEngine + "CharmOnly-" + mcEngine
if eventDisplay: tag = tag + '_D'
if dv == 5: tag = 'conical.' + tag
elif dy: tag = str(dy) + '.' + tag
if not os.path.exists(outputDir):
os.makedirs(outputDir)
outFile = "%s/ship.%s.root" % (outputDir, tag)
if options.updateFile:
f=ROOT.TFile(fname,'update')
sTree=f.Get('cbmsim')
if not sTree:
print "Problem with updateFile",f
exit(-1)
else:
sTree = ROOT.TChain('cbmsim')
for f in fnames:
print "add ",f
if options.onEOS: sTree.Add(os.environ['EOSSHIP']+f)
else: sTree.Add(f)
#-------------------------------geometry initialization
from ShipGeoConfig import ConfigRegistry
ShipGeo = ConfigRegistry.loadpy("$FAIRSHIP/geometry/charm-geometry_config.py", Setup = 1, cTarget = 3)
builtin.ShipGeo = ShipGeo
import charmDet_conf
run = ROOT.FairRunSim()
run.SetName("TGeant4") # Transport engine
run.SetOutputFile(ROOT.TMemFile('output', 'recreate')) # Output file
run.SetUserConfig("g4Config_basic.C") # geant4 transport not used, only needed for creating VMC field
rtdb = run.GetRuntimeDb()
modules = charmDet_conf.configure(run,ShipGeo)
# -----Create geometry and draw display----------------------------------------------
run.Init()
sGeo = ROOT.gGeoManager
nav = sGeo.GetCurrentNavigator()
top = sGeo.GetTopVolume()
top.SetVisibility(0)
if options.withDisplay:
s = sys.argv[1]
thickness = setup[s]['thickness']
material = setup[s]['material']
momentum = setup[s]['momentum']
checkOverlap = True
outFile = "gconv"+s+".root"
theSeed = int(10000 * time.time() % 10000000)
ecut = 0.0
# -------------------------------------------------------------------
ROOT.gRandom.SetSeed(theSeed) # this should be propagated via ROOT to Pythia8 and Geant4VMC
shipRoot_conf.configure() # load basic libraries, prepare atexit for python
ship_geo = ConfigRegistry.loadpy("$FAIRSHIP/geometry/geometry_config.py", Yheight = 10, tankDesign = 5, muShieldDesign = 7, nuTauTargetDesign=1)
# -----Timer--------------------------------------------------------
timer = ROOT.TStopwatch()
timer.Start()
# -----Create simulation run----------------------------------------
run = ROOT.FairRunSim()
run.SetName(mcEngine) # Transport engine
run.SetOutputFile(outFile) # Output file
run.SetUserConfig("g4Config.C") # user configuration file default g4Config.C
rtdb = run.GetRuntimeDb()
# -----Materials----------------------------------------------
run.SetMaterials("media.geo")
# -----Create geometry----------------------------------------------
def configure(run,ship_geo):
latestCharmGeo = ConfigRegistry.loadpy("$FAIRSHIP/geometry/charm-geometry_config.py")
# -----Create media-------------------------------------------------
run.SetMaterials("media.geo") # Materials
# -----Create geometry----------------------------------------------
cave= ROOT.ShipCave("CAVE")
cave.SetGeometryFileName("caveWithAir.geo")
detectorList.append(cave)
Box = ROOT.Box("Box",ship_geo.Box.BrX, ship_geo.Box.BrY, ship_geo.Box.BrZ, ship_geo.Box.zBox,ROOT.kTRUE)
Box.SetEmulsionParam(ship_geo.Box.EmTh, ship_geo.Box.EmX, ship_geo.Box.EmY, ship_geo.Box.PBTh,ship_geo.Box.EPlW, ship_geo.Box.PasSlabTh, ship_geo.Box.AllPW);
Box.SetBrickParam(ship_geo.Box.BrX, ship_geo.Box.BrY, ship_geo.Box.BrZ, ship_geo.Box.BrPackX, ship_geo.Box.BrPackY, ship_geo.Box.BrPackZ);
Box.SetTargetParam(ship_geo.Box.TX, ship_geo.Box.TY, ship_geo.Box.TZ);
Box.SetPassiveComposition(ship_geo.Box.Molblock1Z, ship_geo.Box.Molblock2Z, ship_geo.Box.Molblock3Z, ship_geo.Box.Molblock4Z, ship_geo.Box.Wblock1Z, ship_geo.Box.Wblock2Z, ship_geo.Box.Wblock3Z, ship_geo.Box.Wblock3_5Z, ship_geo.Box.Wblock4Z)
Box.SetPassiveSampling(ship_geo.Box.Passive3mmZ, ship_geo.Box.Passive2mmZ, ship_geo.Box.Passive1mmZ)
Box.SetCoolingParam(ship_geo.Box.CoolX, ship_geo.Box.CoolY, ship_geo.Box.CoolZ)
Box.SetCoatingParam(ship_geo.Box.CoatX, ship_geo.Box.CoatY, ship_geo.Box.CoatZ)
Box.SetGapGeometry(ship_geo.Box.distancePassive2ECC)
Box.SetTargetDesign(ship_geo.Box.Julytarget)
Box.SetTargetNumber(ship_geo.Box.CharmTargetNumber)
if (ship_geo.MufluxSpectrometer.muflux==False):
# === SciFi modules
SciFi = ROOT.SciFi("SciFi",ship_geo.SciFi.DX, ship_geo.SciFi.DY, ship_geo.SciFi.DZ,ROOT.kTRUE)
SciFi.SetBoxParam(ship_geo.SciFi.DX,ship_geo.SciFi.DY,ship_geo.SciFi.DZ, ship_geo.SciFi.zBox)
SciFi.SetStationNumber(ship_geo.SciFi.nstations)
SciFi.SetStationDimensions(ship_geo.SciFi.StationDimX, ship_geo.SciFi.StationDimY, ship_geo.SciFi.StationDimZ)
for i, (x, y, z) in enumerate(zip(ship_geo.SciFi.xSi,ship_geo.SciFi.ySi,ship_geo.SciFi.zSi)):
SciFi.SetStationPositions(i, x, y, z)
# === Pixel modules
PixelModules = ROOT.PixelModules("PixelModules",ship_geo.PixelModules.DX, ship_geo.PixelModules.DY, ship_geo.PixelModules.DZ,ROOT.kTRUE)
PixelModules.SetBoxParam(ship_geo.PixelModules.DX,ship_geo.PixelModules.DY,ship_geo.PixelModules.DZ, ship_geo.PixelModules.zBox, ship_geo.PixelModules.DimZpixelbox, ship_geo.PixelModules.D1short, ship_geo.PixelModules.D1long)
PixelModules.SetSiliconDZ(ship_geo.PixelModules.DimZSi)
# === Box
detectorList.append(Box)
# === SciFi modules
detectorList.append(SciFi)
# === Pixel modules
detectorList.append(PixelModules)
for i, (x, y, z) in enumerate(zip(ship_geo.PixelModules.xSi,ship_geo.PixelModules.ySi,ship_geo.PixelModules.zSi)):
PixelModules.SetSiliconStationPositions(i, x, y, z)
Spectrometer = ROOT.Spectrometer("Spectrometer",ship_geo.Spectrometer.DX, ship_geo.Spectrometer.DY, ship_geo.Spectrometer.DZ,ROOT.kTRUE)
Spectrometer.SetTransverseSizes(ship_geo.Spectrometer.D1Short, ship_geo.Spectrometer.D1Long)
# -----Goliath part by Annarita--------
Spectrometer.SetGoliathSizes(ship_geo.Spectrometer.H, ship_geo.Spectrometer.TS, ship_geo.Spectrometer.LS, ship_geo.Spectrometer.BasisH);
Spectrometer.SetCoilParameters(ship_geo.Spectrometer.CoilR, ship_geo.Spectrometer.UpCoilH, ship_geo.Spectrometer.LowCoilH, ship_geo.Spectrometer.CoilD);
# --------------------------------------
Spectrometer.SetBoxParam(ship_geo.Spectrometer.SX,ship_geo.Spectrometer.SY,ship_geo.Spectrometer.SZ,ship_geo.Spectrometer.zBox)
if (ship_geo.MufluxSpectrometer.muflux==False):
MufluxSpectrometer = ROOT.MufluxSpectrometer("MufluxSpectrometer",ship_geo.MufluxSpectrometer.DX, ship_geo.MufluxSpectrometer.DY, ship_geo.MufluxSpectrometer.DZ,ROOT.kTRUE)
else:
MufluxSpectrometer = ROOT.MufluxSpectrometer("MufluxSpectrometer",ship_geo.Spectrometer.DX, ship_geo.Spectrometer.DY, ship_geo.Spectrometer.DZ,ROOT.kTRUE)
# -----Drift tube part --------
MufluxSpectrometer.SetGoliathSizes(ship_geo.Spectrometer.H, ship_geo.Spectrometer.TS, ship_geo.Spectrometer.LS, ship_geo.Spectrometer.BasisH);
MufluxSpectrometer.SetCoilParameters(ship_geo.Spectrometer.CoilR, ship_geo.Spectrometer.UpCoilH, ship_geo.Spectrometer.LowCoilH, ship_geo.Spectrometer.CoilD);
# --------------------------------------
MufluxSpectrometer.ChooseDetector(ship_geo.MufluxSpectrometer.muflux)
MufluxSpectrometer.SetDeltazView(ship_geo.MufluxSpectrometer.DeltazView)
MufluxSpectrometer.SetInnerTubeDiameter(ship_geo.MufluxSpectrometer.InnerTubeDiameter)
MufluxSpectrometer.SetOuterTubeDiameter(ship_geo.MufluxSpectrometer.OuterTubeDiameter)
MufluxSpectrometer.SetTubePitch(ship_geo.MufluxSpectrometer.TubePitch)
MufluxSpectrometer.SetTubePitch_T1u(ship_geo.MufluxSpectrometer.TubePitch_T1u,ship_geo.MufluxSpectrometer.T1u_const,ship_geo.MufluxSpectrometer.T1u_const_2,ship_geo.MufluxSpectrometer.T1u_const_3,ship_geo.MufluxSpectrometer.T1u_const_4)
MufluxSpectrometer.SetTubePitch_T2v(ship_geo.MufluxSpectrometer.TubePitch_T2v,ship_geo.MufluxSpectrometer.T2v_const,ship_geo.MufluxSpectrometer.T2v_const_2,ship_geo.MufluxSpectrometer.T2v_const_3,ship_geo.MufluxSpectrometer.T2v_const_4)
MufluxSpectrometer.SetDeltazLayer(ship_geo.MufluxSpectrometer.DeltazLayer)
MufluxSpectrometer.SetDeltazPlane(ship_geo.MufluxSpectrometer.DeltazPlane)
MufluxSpectrometer.SetTubesPerLayer(ship_geo.MufluxSpectrometer.TubesPerLayer)
MufluxSpectrometer.SetStereoAngle(ship_geo.MufluxSpectrometer.ViewAngle, ship_geo.MufluxSpectrometer.ViewvAngle)
MufluxSpectrometer.SetWireThickness(ship_geo.MufluxSpectrometer.WireThickness)
MufluxSpectrometer.SetTubeLength(ship_geo.MufluxSpectrometer.TubeLength)
MufluxSpectrometer.SetTubeLength12(ship_geo.MufluxSpectrometer.TubeLength12)
MufluxSpectrometer.SetTr12YDim(ship_geo.MufluxSpectrometer.tr12ydim)
MufluxSpectrometer.SetTr34YDim(ship_geo.MufluxSpectrometer.tr34ydim)
MufluxSpectrometer.SetTr12XDim(ship_geo.MufluxSpectrometer.tr12xdim)
MufluxSpectrometer.SetTr34XDim(ship_geo.MufluxSpectrometer.tr34xdim)
MufluxSpectrometer.SetDistStereo(ship_geo.MufluxSpectrometer.diststereoT1,ship_geo.MufluxSpectrometer.diststereoT2)
MufluxSpectrometer.SetDistT1T2(ship_geo.MufluxSpectrometer.distT1T2)
MufluxSpectrometer.SetDistT3T4(ship_geo.MufluxSpectrometer.distT3T4)
MufluxSpectrometer.SetGoliathCentre(ship_geo.MufluxSpectrometer.goliathcentre_to_beam)
MufluxSpectrometer.SetGoliathCentreZ(ship_geo.MufluxSpectrometer.goliathcentre)
MufluxSpectrometer.SetT3StationsZcorr(ship_geo.MufluxSpectrometer.T3z_1,ship_geo.MufluxSpectrometer.T3z_2,ship_geo.MufluxSpectrometer.T3z_3,ship_geo.MufluxSpectrometer.T3z_4)
MufluxSpectrometer.SetT4StationsZcorr(ship_geo.MufluxSpectrometer.T4z_1,ship_geo.MufluxSpectrometer.T4z_2,ship_geo.MufluxSpectrometer.T4z_3,ship_geo.MufluxSpectrometer.T4z_4)
MufluxSpectrometer.SetT3StationsXcorr(ship_geo.MufluxSpectrometer.T3x_1,ship_geo.MufluxSpectrometer.T3x_2,ship_geo.MufluxSpectrometer.T3x_3,ship_geo.MufluxSpectrometer.T3x_4)
MufluxSpectrometer.SetT4StationsXcorr(ship_geo.MufluxSpectrometer.T4x_1,ship_geo.MufluxSpectrometer.T4x_2,ship_geo.MufluxSpectrometer.T4x_3,ship_geo.MufluxSpectrometer.T4x_4)
MufluxSpectrometer.SetTStationsZ(ship_geo.MufluxSpectrometer.T1z,ship_geo.MufluxSpectrometer.T1x_z,ship_geo.MufluxSpectrometer.T1u_z,ship_geo.MufluxSpectrometer.T2z,ship_geo.MufluxSpectrometer.T2v_z,ship_geo.MufluxSpectrometer.T2x_z,ship_geo.MufluxSpectrometer.T3z,ship_geo.MufluxSpectrometer.T4z)
MufluxSpectrometer.SetTStationsX(ship_geo.MufluxSpectrometer.T1x_x,ship_geo.MufluxSpectrometer.T1u_x,ship_geo.MufluxSpectrometer.T2x_x,ship_geo.MufluxSpectrometer.T2v_x,ship_geo.MufluxSpectrometer.T3x,ship_geo.MufluxSpectrometer.T4x)
MufluxSpectrometer.SetTStationsY(ship_geo.MufluxSpectrometer.T1x_y,ship_geo.MufluxSpectrometer.T1u_y,ship_geo.MufluxSpectrometer.T2x_y,ship_geo.MufluxSpectrometer.T2v_y,ship_geo.MufluxSpectrometer.T3y,ship_geo.MufluxSpectrometer.T4y)
##Survey Results from charm by daniel
MufluxSpectrometer.SetT3(ship_geo.MufluxSpectrometer.SurveyCharm_T3ax,ship_geo.MufluxSpectrometer.SurveyCharm_T3ay,ship_geo.MufluxSpectrometer.SurveyCharm_T3az,0)
MufluxSpectrometer.SetT3(ship_geo.MufluxSpectrometer.SurveyCharm_T3bx,ship_geo.MufluxSpectrometer.SurveyCharm_T3by,ship_geo.MufluxSpectrometer.SurveyCharm_T3bz,1)
MufluxSpectrometer.SetT3(ship_geo.MufluxSpectrometer.SurveyCharm_T3cx,ship_geo.MufluxSpectrometer.SurveyCharm_T3cy,ship_geo.MufluxSpectrometer.SurveyCharm_T3cz,2)
MufluxSpectrometer.SetT3(ship_geo.MufluxSpectrometer.SurveyCharm_T3dx,ship_geo.MufluxSpectrometer.SurveyCharm_T3dy,ship_geo.MufluxSpectrometer.SurveyCharm_T3dz,3)
MufluxSpectrometer.SetT3(ship_geo.MufluxSpectrometer.SurveyCharm_T3tx,ship_geo.MufluxSpectrometer.SurveyCharm_T3ty,ship_geo.MufluxSpectrometer.SurveyCharm_T3tz,4)
MufluxSpectrometer.SetT4(ship_geo.MufluxSpectrometer.SurveyCharm_T4ax,ship_geo.MufluxSpectrometer.SurveyCharm_T4ay,ship_geo.MufluxSpectrometer.SurveyCharm_T4az,0)
MufluxSpectrometer.SetT4(ship_geo.MufluxSpectrometer.SurveyCharm_T4bx,ship_geo.MufluxSpectrometer.SurveyCharm_T4by,ship_geo.MufluxSpectrometer.SurveyCharm_T4bz,1)
MufluxSpectrometer.SetT4(ship_geo.MufluxSpectrometer.SurveyCharm_T4cx,ship_geo.MufluxSpectrometer.SurveyCharm_T4cy,ship_geo.MufluxSpectrometer.SurveyCharm_T4cz,2)
MufluxSpectrometer.SetT4(ship_geo.MufluxSpectrometer.SurveyCharm_T4dx,ship_geo.MufluxSpectrometer.SurveyCharm_T4dy,ship_geo.MufluxSpectrometer.SurveyCharm_T4dz,3)
MufluxSpectrometer.SetT4(ship_geo.MufluxSpectrometer.SurveyCharm_T4tx,ship_geo.MufluxSpectrometer.SurveyCharm_T4ty,ship_geo.MufluxSpectrometer.SurveyCharm_T4tz,4)
# for the digitizing step
MufluxSpectrometer.SetTubeResolution(ship_geo.MufluxSpectrometer.v_drift,ship_geo.MufluxSpectrometer.sigma_spatial)
Scintillator = ROOT.Scintillator("Scintillator",ROOT.kTRUE)
Scintillator.SetScoring1XY(ship_geo.MufluxSpectrometer.tr12xdim,ship_geo.MufluxSpectrometer.tr12ydim)
Scintillator.SetDistT1(ship_geo.Scintillator.DistT1)
Scintillator.SetDistT2(ship_geo.Scintillator.DistT2)
Scintillator.SetS_T1coords(ship_geo.MufluxSpectrometer.T1x_x,ship_geo.MufluxSpectrometer.T1x_y)
Scintillator.SetS_T2coords(ship_geo.MufluxSpectrometer.T2x_x,ship_geo.MufluxSpectrometer.T2x_y)
if (ship_geo.MufluxSpectrometer.muflux==False):
detectorList.append(MufluxSpectrometer)
else:
TargetStation = ROOT.MufluxTargetStation("MufluxTargetStation",ship_geo.target.length,ship_geo.hadronAbsorber.length, ship_geo.target.z,ship_geo.hadronAbsorber.z,ship_geo.targetOpt,ship_geo.target.sl)
TargetStation.SetIronAbsorber(ship_geo.MufluxTargetStation.absorber_x,ship_geo.MufluxTargetStation.absorber_y)
TargetStation.SetAbsorberCutout(ship_geo.MufluxTargetStation.absorbercutout_x, ship_geo.MufluxTargetStation.absorbercutout_y)
TargetStation.SetIronShield(ship_geo.MufluxTargetStation.ironshield_x, ship_geo.MufluxTargetStation.ironshield_y, ship_geo.MufluxTargetStation.ironshield_z)
TargetStation.SetConcreteShield(ship_geo.MufluxTargetStation.concreteshield_x, ship_geo.MufluxTargetStation.concreteshield_y, ship_geo.MufluxTargetStation.concreteshield_z)
TargetStation.SetAboveTargetShield(ship_geo.MufluxTargetStation.abovetargetshield_x, ship_geo.MufluxTargetStation.abovetargetshield_y,ship_geo.MufluxTargetStation.abovetargetshield_z)
TargetStation.SetAboveAbsorberShield(ship_geo.MufluxTargetStation.aboveabsorbershield_x, ship_geo.MufluxTargetStation.aboveabsorbershield_y,ship_geo.MufluxTargetStation.aboveabsorbershield_z)
TargetStation.SetAboveAboveTargetShield(ship_geo.MufluxTargetStation.aboveabovetargetshield_y)
TargetStation.SetFloor(ship_geo.MufluxTargetStation.floor_x,ship_geo.MufluxTargetStation.floor_y,ship_geo.MufluxTargetStation.floor_z)
TargetStation.SetFloorT34(ship_geo.MufluxTargetStation.floorT34_x,ship_geo.MufluxTargetStation.floorT34_y,ship_geo.MufluxTargetStation.floorT34_z)
TargetStation.SetFloorRPC(ship_geo.MufluxTargetStation.floorRPC_x, ship_geo.MufluxTargetStation.floorRPC_y,ship_geo.MufluxTargetStation.floorRPC_z)
if ship_geo.targetOpt>10:
slices_length=ROOT.std.vector('float')()
slices_material=ROOT.std.vector('string')()
for i in range(1,ship_geo.targetOpt+1):
slices_length.push_back(eval("ship_geo.target.L"+str(i)))
slices_material.push_back(eval("ship_geo.target.M"+str(i)))
TargetStation.SetLayerPosMat(ship_geo.target.xy,slices_length,slices_material)
detectorList.append(TargetStation)
detectorList.append(Scintillator)
detectorList.append(MufluxSpectrometer)
MuonTagger = ROOT.MuonTagger("MuonTagger", ship_geo.MuonTagger.BX, ship_geo.MuonTagger.BY, ship_geo.MuonTagger.BZ, ship_geo.MuonTagger.zBox, ROOT.kTRUE)
MuonTagger.SetPassiveParameters(ship_geo.MuonTagger.PX, ship_geo.MuonTagger.PY, ship_geo.MuonTagger.PTh, ship_geo.MuonTagger.PTh1)
MuonTagger.SetSensitiveParameters(ship_geo.MuonTagger.SX, ship_geo.MuonTagger.SY, ship_geo.MuonTagger.STh)
MuonTagger.SetHoleDimensions(ship_geo.MuonTagger.HX, ship_geo.MuonTagger.HY)
MuonTagger.SetRPCz(ship_geo.MuonTagger.RPC1z, ship_geo.MuonTagger.RPC2z, ship_geo.MuonTagger.RPC3z, ship_geo.MuonTagger.RPC4z, ship_geo.MuonTagger.RPC5z)
MuonTagger.SetRPCThickness(ship_geo.MuonTagger.RPCthickness)
MuonTagger.SetGapThickness(ship_geo.MuonTagger.Gapthickness)
MuonTagger.SetElectrodeThickness(ship_geo.MuonTagger.Electrodethickness)
MuonTagger.SetStripz(ship_geo.MuonTagger.Stripz, ship_geo.MuonTagger.Stripfoamz)
MuonTagger.SetVStrip(ship_geo.MuonTagger.VStripx,ship_geo.MuonTagger.VStripx_L,ship_geo.MuonTagger.VStripx_R,ship_geo.MuonTagger.VStripoffset)
MuonTagger.SetHStrip(ship_geo.MuonTagger.HStripy,ship_geo.MuonTagger.HStripy_ext,ship_geo.MuonTagger.HStripoffset)
MuonTagger.SetNStrips(ship_geo.MuonTagger.NVstrips,ship_geo.MuonTagger.NHstrips)
detectorList.append(MuonTagger)
for x in detectorList:
run.AddModule(x)
fMagField = ROOT.ShipGoliathField()
#fieldfile = os.environ["FAIRSHIP"]+"/field/GoliathFieldMap_3600A_0A.root"
#fieldfile = os.environ["FAIRSHIP"]+"/field/GoliathFieldMap_2400A_1167A.root"
#default field map
fieldfile = os.environ["FAIRSHIP"]+"/field/GoliathFieldMap.root"
fMagField.Init(fieldfile)
run.SetField(fMagField)
# return list of detector elements
detElements = {}
for x in run.GetListOfModules(): detElements[x.GetName()]=x
return detElements
"crossing angle up: /eos/experiment/sndlhc/MonteCarlo/FLUKA/muons_up/version1/unit30_Nm.root (unit30_Pm.root)"
)
print(
"crossing angle down: /eos/experiment/sndlhc/MonteCarlo/FLUKA/muons_down/muons_VCdown_IR1-LHC.root"
)
sys.exit()
print("SND@LHC setup for", simEngine, "to produce", options.nEvents, "events")
ROOT.gRandom.SetSeed(
options.theSeed
) # this should be propagated via ROOT to Pythia8 and Geant4VMC
shipRoot_conf.configure(0) # load basic libraries, prepare atexit for python
if options.testbeam:
snd_geo = ConfigRegistry.loadpy(
"$SNDSW_ROOT/geometry/sndLHC_H6geom_config.py")
else:
snd_geo = ConfigRegistry.loadpy(
"$SNDSW_ROOT/geometry/sndLHC_geom_config.py")
if simEngine == "PG": tag = simEngine + "_" + str(options.pID) + "-" + mcEngine
else: tag = simEngine + "-" + mcEngine
if not os.path.exists(options.outputDir):
os.makedirs(options.outputDir)
if options.boostFactor > 1:
tag += '_boost' + str(options.boostFactor)
outFile = "%s/sndLHC.%s.root" % (options.outputDir, tag)
# rm older files !!!
for x in os.listdir(options.outputDir):
def configure(run, ship_geo):
# ---- for backward compatibility ----
if not hasattr(ship_geo, "tankDesign"): ship_geo.tankDesign = 5
if not hasattr(ship_geo, "muShieldGeo"): ship_geo.muShieldGeo = None
if not hasattr(ship_geo.hcal, "File"): ship_geo.hcal.File = "hcal.geo"
if not hasattr(ship_geo.Bfield, 'x'): ship_geo.Bfield.x = 3. * u.m
if not hasattr(ship_geo, 'cave'):
ship_geo.cave = AttrDict(z=0 * u.cm)
ship_geo.cave.floorHeightMuonShield = 5 * u.m
ship_geo.cave.floorHeightTankA = 4.5 * u.m
ship_geo.cave.floorHeightTankB = 2. * u.m
if not hasattr(ship_geo, 'NuTauTT'):
ship_geo.NuTauTT = AttrDict(z=0 * u.cm)
if not hasattr(ship_geo.NuTauTT, 'design'): ship_geo.NuTauTT.design = 0
if not hasattr(ship_geo, 'EcalOption'): ship_geo.EcalOption = 1
latestShipGeo = ConfigRegistry.loadpy(
"$FAIRSHIP/geometry/geometry_config.py",
Yheight=ship_geo.Yheight / u.m,
tankDesign=ship_geo.tankDesign,
muShieldDesign=ship_geo.muShieldDesign,
nuTauTargetDesign=ship_geo.nuTauTargetDesign,
muShieldGeo=ship_geo.muShieldGeo)
# -----Create media-------------------------------------------------
run.SetMaterials("media.geo") # Materials
# ------------------------------------------------------------------------
# -----Create geometry----------------------------------------------
cave = ROOT.ShipCave("CAVE")
if ship_geo.tankDesign < 5: cave.SetGeometryFileName("cave.geo")
else: cave.SetGeometryFileName("caveWithAir.geo")
detectorList.append(cave)
if ship_geo.muShieldDesign in [
6, 7, 8, 9
]: # magnetized hadron absorber defined in ShipMuonShield
TargetStation = ROOT.ShipTargetStation("TargetStation",
ship_geo.target.length,
ship_geo.target.z,
ship_geo.targetOpt,
ship_geo.target.sl)
else:
TargetStation = ROOT.ShipTargetStation(
"TargetStation", ship_geo.target.length,
ship_geo.hadronAbsorber.length, ship_geo.target.z,
ship_geo.hadronAbsorber.z, ship_geo.targetOpt, ship_geo.target.sl)
if ship_geo.targetOpt > 10:
slices_length = ROOT.std.vector('float')()
slices_material = ROOT.std.vector('std::string')()
for i in range(1, ship_geo.targetOpt + 1):
slices_length.push_back(eval("ship_geo.target.L" + str(i)))
slices_material.push_back(eval("ship_geo.target.M" + str(i)))
TargetStation.SetLayerPosMat(ship_geo.target.xy, slices_length,
slices_material)
detectorList.append(TargetStation)
if ship_geo.muShieldDesign == 1:
MuonShield = ROOT.ShipMuonShield("MuonShield",ship_geo.muShieldDesign,"ShipMuonShield",ship_geo.muShield.z,ship_geo.muShield.dZ0,ship_geo.muShield.length,\
ship_geo.muShield.LE)
elif ship_geo.muShieldDesign == 2:
MuonShield = ROOT.ShipMuonShield("MuonShield",ship_geo.muShieldDesign,"ShipMuonShield",ship_geo.muShield.z,ship_geo.muShield.dZ0,ship_geo.muShield.dZ1,\
ship_geo.muShield.dZ2,ship_geo.muShield.dZ3,ship_geo.muShield.dZ4,ship_geo.muShield.dZ5,ship_geo.muShield.dZ6,ship_geo.muShield.LE)
elif ship_geo.muShieldDesign in [3, 4, 5, 6, 7, 9]:
if not hasattr(ship_geo.muShield, "Field"):
MuonShield = ROOT.ShipMuonShield(
"MuonShield", ship_geo.muShieldDesign, "ShipMuonShield",
ship_geo.muShield.z, ship_geo.muShield.dZ0,
ship_geo.muShield.dZ1, ship_geo.muShield.dZ2,
ship_geo.muShield.dZ3, ship_geo.muShield.dZ4,
ship_geo.muShield.dZ5, ship_geo.muShield.dZ6,
ship_geo.muShield.dZ7, ship_geo.muShield.dZ8,
ship_geo.muShield.dXgap, ship_geo.muShield.LE,
ship_geo.Yheight * 4. / 10.,
ship_geo.cave.floorHeightMuonShield)
else:
MuonShield = ROOT.ShipMuonShield(
"MuonShield", ship_geo.muShieldDesign, "ShipMuonShield",
ship_geo.muShield.z, ship_geo.muShield.dZ0,
ship_geo.muShield.dZ1, ship_geo.muShield.dZ2,
ship_geo.muShield.dZ3, ship_geo.muShield.dZ4,
ship_geo.muShield.dZ5, ship_geo.muShield.dZ6,
ship_geo.muShield.dZ7, ship_geo.muShield.dZ8,
ship_geo.muShield.dXgap, ship_geo.muShield.LE,
ship_geo.Yheight * 4. / 10.,
ship_geo.cave.floorHeightMuonShield, ship_geo.muShield.Field)
elif ship_geo.muShieldDesign == 8:
MuonShield = ROOT.ShipMuonShield(ship_geo.muShieldGeo)
detectorList.append(MuonShield)
if not hasattr(ship_geo, "magnetDesign"):
# backward compatibility
magnet_design = 2
if ship_geo.tankDesign == 5: magnet_design = 3
if ship_geo.tankDesign == 6: magnet_design = 4
ship_geo.magnetDesign = magnet_design
ship_geo.Bfield.YokeWidth = 200. * u.cm
ship_geo.Bfield.YokeDepth = 200. * u.cm
ship_geo.Bfield.CoilThick = 25. * u.cm
# sanity check, 2018 layout ship_geo.tankDesign == 6 has to be together with ship_geo.nuTauTargetDesign == 3
if (ship_geo.tankDesign == 6 and ship_geo.nuTauTargetDesign != 3) or (
ship_geo.tankDesign != 6 and ship_geo.nuTauTargetDesign == 3):
print "version of tankDesign and nuTauTargetDesign are not compatible, should be 6 and 3, it is ", ship_geo.tankDesign, ship_geo.nuTauTargetDesign
exit()
if ship_geo.strawDesign > 1:
if ship_geo.magnetDesign > 3:
B = ship_geo.Bfield
magnet = ROOT.ShipMagnet("Magnet", "SHiP Magnet", B.z,
ship_geo.magnetDesign, B.x, B.y,
ship_geo.cave.floorHeightTankB,
B.YokeWidth, B.YokeDepth, B.CoilThick)
# xaperture, yaperture
else:
magnet = ROOT.ShipMagnet("Magnet", "SHiP Magnet",
ship_geo.Bfield.z, ship_geo.magnetDesign,
ship_geo.Bfield.x, ship_geo.Bfield.y,
ship_geo.cave.floorHeightTankB)
else:
magnet = ROOT.ShipMagnet("Magnet", "SHiP Magnet", ship_geo.Bfield.z)
detectorList.append(magnet)
Veto = ROOT.veto("Veto", ROOT.kTRUE) # vacuum tank
Veto.SetLiquidVeto(1) # liquid scintillator
Veto.SetPlasticVeto(1) # plastic scintillator
Veto.SetZpositions(ship_geo.vetoStation.z, ship_geo.TrackStation1.z, ship_geo.TrackStation2.z, \
ship_geo.TrackStation3.z, ship_geo.TrackStation4.z,ship_geo.tankDesign)
Veto.SetTubZpositions(ship_geo.Chamber1.z, ship_geo.Chamber2.z,
ship_geo.Chamber3.z, ship_geo.Chamber4.z,
ship_geo.Chamber5.z, ship_geo.Chamber6.z)
Veto.SetTublengths(ship_geo.chambers.Tub1length,ship_geo.chambers.Tub2length,ship_geo.chambers.Tub3length, \
ship_geo.chambers.Tub4length,ship_geo.chambers.Tub5length,ship_geo.chambers.Tub6length)
Veto.SetB(ship_geo.Yheight / 2.)
Veto.SetFloorHeight(ship_geo.cave.floorHeightTankA,
ship_geo.cave.floorHeightTankB)
if ship_geo.tankDesign > 4:
dzX = ship_geo.zFocusX + ship_geo.target.z0
x1 = ship_geo.xMax / (ship_geo.Chamber1.z -
ship_geo.chambers.Tub1length -
dzX) * (ship_geo.TrackStation4.z - dzX)
dzY = ship_geo.zFocusY + ship_geo.target.z0
y1 = ship_geo.Yheight / (ship_geo.Chamber1.z -
ship_geo.chambers.Tub1length -
dzY) * (ship_geo.TrackStation4.z - dzY)
Veto.SetXYstart(x1, dzX, y1, dzY)
Veto.SetVesselStructure(ship_geo.Veto.innerSupport,ship_geo.Veto.sensitiveThickness,ship_geo.Veto.outerSupport,\
ship_geo.Veto.innerSupportMed,ship_geo.Veto.lidThickness,ship_geo.Veto.sensitiveMed,\
ship_geo.Veto.outerSupportMed,ship_geo.Veto.decayMed,\
ship_geo.Veto.rib,ship_geo.Veto.ribMed)
detectorList.append(Veto)
if hasattr(ship_geo, 'tauMudet'): # don't support old designs
if ship_geo.muShieldDesign not in [2, 3, 4] and hasattr(
ship_geo.tauMudet, 'Xtot'):
taumuondetector = ROOT.NuTauMudet("NuTauMudet",
ship_geo.tauMudet.zMudetC,
ROOT.kTRUE)
taumuondetector.SetDesign(ship_geo.nuTauTargetDesign)
taumuondetector.SetTotDimensions(ship_geo.tauMudet.Xtot,
ship_geo.tauMudet.Ytot,
ship_geo.tauMudet.Ztot)
taumuondetector.SetFeDimensions(ship_geo.tauMudet.XFe,
ship_geo.tauMudet.YFe,
ship_geo.tauMudet.ZFe)
taumuondetector.SetRpcDimensions(ship_geo.tauMudet.XRpc,
ship_geo.tauMudet.YRpc,
ship_geo.tauMudet.ZRpc)
taumuondetector.SetRpcGasDimensions(ship_geo.tauMudet.XGas,
ship_geo.tauMudet.YGas,
ship_geo.tauMudet.ZGas)
taumuondetector.SetRpcStripDimensions(ship_geo.tauMudet.XStrip,
ship_geo.tauMudet.YStrip,
ship_geo.tauMudet.ZStrip)
taumuondetector.SetRpcElectrodeDimensions(ship_geo.tauMudet.XEle,
ship_geo.tauMudet.YEle,
ship_geo.tauMudet.ZEle)
taumuondetector.SetRpcPETDimensions(ship_geo.tauMudet.XPet,
ship_geo.tauMudet.YPet,
ship_geo.tauMudet.ZPet)
taumuondetector.SetNFeInArm(ship_geo.tauMudet.NFe)
taumuondetector.SetNRpcInArm(ship_geo.tauMudet.NRpc)
taumuondetector.SetPillarDimensions(ship_geo.tauMudet.PillarX,
ship_geo.tauMudet.PillarY,
ship_geo.tauMudet.PillarZ)
detectorList.append(taumuondetector)
if ship_geo.nuTauTargetDesign == 3:
taumuondetector.SetRpcDimDifferences(ship_geo.tauMudet.deltax,
ship_geo.tauMudet.deltay)
if ship_geo.nuTauTargetDesign < 3:
taumuondetector.SetReturnYokeDimensions(
ship_geo.tauMudet.XRyoke, ship_geo.tauMudet.YRyoke,
ship_geo.tauMudet.ZRyoke)
taumuondetector.SetSmallerYokeDimensions(
ship_geo.tauMudet.XRyoke_s, ship_geo.tauMudet.YRyoke_s,
ship_geo.tauMudet.ZRyoke_s)
taumuondetector.SetZDimensionArm(ship_geo.tauMudet.ZArm)
taumuondetector.SetGapDownstream(ship_geo.tauMudet.GapD)
taumuondetector.SetGapMiddle(ship_geo.tauMudet.GapM)
taumuondetector.SetMagneticField(ship_geo.tauMudet.B)
taumuondetector.SetCoilParameters(ship_geo.tauMudet.CoilH,
ship_geo.tauMudet.CoilW,
ship_geo.tauMudet.N,
ship_geo.tauMudet.CoilG)
if ship_geo.nuTauTargetDesign == 0 or ship_geo.nuTauTargetDesign == 1 or ship_geo.nuTauTargetDesign == 3:
EmuMagnet = ROOT.EmulsionMagnet("EmuMagnet",
ship_geo.EmuMagnet.zC,
"EmulsionMagnet")
EmuMagnet.SetDesign(ship_geo.EmuMagnet.Design)
EmuMagnet.SetGaps(ship_geo.EmuMagnet.GapUp,
ship_geo.EmuMagnet.GapDown)
EmuMagnet.SetMagneticField(ship_geo.EmuMagnet.B)
EmuMagnet.SetMagnetSizes(ship_geo.EmuMagnet.X,
ship_geo.EmuMagnet.Y,
ship_geo.EmuMagnet.Z)
if ship_geo.nuTauTargetDesign == 0 or ship_geo.nuTauTargetDesign == 1:
EmuMagnet.SetCoilParameters(ship_geo.EmuMagnet.Radius,
ship_geo.EmuMagnet.Height1,
ship_geo.EmuMagnet.Height2,
ship_geo.EmuMagnet.Distance)
if ship_geo.nuTauTargetDesign == 3:
EmuMagnet.SetCoilParameters(ship_geo.EmuMagnet.CoilX,
ship_geo.EmuMagnet.CoilY,
ship_geo.EmuMagnet.Height1,
ship_geo.EmuMagnet.Height2,
ship_geo.EmuMagnet.Thickness)
EmuMagnet.SetCutDimensions(ship_geo.EmuMagnet.CutLength,
ship_geo.EmuMagnet.CutHeight)
EmuMagnet.SetMagnetColumn(ship_geo.EmuMagnet.ColX,
ship_geo.EmuMagnet.ColY,
ship_geo.EmuMagnet.ColZ)
EmuMagnet.SetBaseDim(ship_geo.EmuMagnet.BaseX,
ship_geo.EmuMagnet.BaseY,
ship_geo.EmuMagnet.BaseZ)
EmuMagnet.SetPillarDimensions(ship_geo.EmuMagnet.PillarX,
ship_geo.EmuMagnet.PillarY,
ship_geo.EmuMagnet.PillarZ)
detectorList.append(EmuMagnet)
if ship_geo.nuTauTargetDesign == 2:
EmuMagnet = ROOT.EmulsionMagnet()
NuTauTarget = ROOT.Target("NuTauTarget",
ship_geo.NuTauTarget.Ydist, ROOT.kTRUE)
NuTauTarget.MakeNuTargetPassive(
ship_geo.NuTauTarget.nuTargetPassive)
NuTauTarget.MergeTopBot(ship_geo.NuTauTarget.SingleEmFilm)
NuTauTarget.SetDetectorDesign(ship_geo.NuTauTarget.Design)
if ship_geo.nuTauTargetDesign != 3:
NuTauTarget.SetCenterZ(ship_geo.NuTauTarget.zC)
if ship_geo.nuTauTargetDesign == 3:
NuTauTarget.SetCenterZ(
ship_geo.EmuMagnet.zC
) #now the centers of emumagnet and nutautarget are different (target does not include HPT)
NuTauTarget.SetNumberTargets(ship_geo.NuTauTarget.target)
NuTauTarget.SetHpTParam(ship_geo.tauHPT.nHPT,
ship_geo.tauHPT.distHPT,
ship_geo.tauHPT.DZ)
NuTauTarget.SetNumberBricks(ship_geo.NuTauTarget.col,
ship_geo.NuTauTarget.row,
ship_geo.NuTauTarget.wall)
NuTauTarget.SetDetectorDimension(ship_geo.NuTauTarget.xdim,
ship_geo.NuTauTarget.ydim,
ship_geo.NuTauTarget.zdim)
NuTauTarget.SetEmulsionParam(
ship_geo.NuTauTarget.EmTh, ship_geo.NuTauTarget.EmX,
ship_geo.NuTauTarget.EmY, ship_geo.NuTauTarget.PBTh,
ship_geo.NuTauTarget.EPlW, ship_geo.NuTauTarget.LeadTh,
ship_geo.NuTauTarget.AllPW)
NuTauTarget.SetBrickParam(ship_geo.NuTauTarget.BrX,
ship_geo.NuTauTarget.BrY,
ship_geo.NuTauTarget.BrZ,
ship_geo.NuTauTarget.BrPackX,
ship_geo.NuTauTarget.BrPackY,
ship_geo.NuTauTarget.BrPackZ)
NuTauTarget.SetCESParam(ship_geo.NuTauTarget.RohG,
ship_geo.NuTauTarget.LayerCESW,
ship_geo.NuTauTarget.CESW,
ship_geo.NuTauTarget.CESPack)
NuTauTarget.SetCellParam(ship_geo.NuTauTarget.CellW)
if ship_geo.nuTauTargetDesign == 0 or ship_geo.nuTauTargetDesign == 1:
NuTauTarget.SetMagnetHeight(ship_geo.EmuMagnet.Y)
NuTauTarget.SetColumnHeight(ship_geo.EmuMagnet.ColY)
NuTauTarget.SetBaseHeight(ship_geo.EmuMagnet.BaseY)
NuTauTarget.SetCoilUpHeight(ship_geo.EmuMagnet.Height1)
NuTauTarget.SetCoilDownHeight(ship_geo.EmuMagnet.Height2)
if ship_geo.nuTauTargetDesign != 2:
NuTauTarget.SetMagneticField(ship_geo.EmuMagnet.B)
if ship_geo.nuTauTargetDesign == 2:
NuTauTarget.SetPillarDimension(ship_geo.NuTauTarget.PillarX,
ship_geo.NuTauTarget.PillarY,
ship_geo.NuTauTarget.PillarZ)
NuTauTarget.SetBaseDimension(ship_geo.NuTauTarget.BaseX,
ship_geo.NuTauTarget.BaseY,
ship_geo.NuTauTarget.BaseZ)
NuTauTT = ROOT.TargetTracker("TargetTrackers", ROOT.kTRUE)
NuTauTT.SetDesign(ship_geo.NuTauTT.design)
NuTauTT.SetTargetTrackerParam(ship_geo.NuTauTT.TTX,
ship_geo.NuTauTT.TTY,
ship_geo.NuTauTT.TTZ)
NuTauTT.SetBrickParam(ship_geo.NuTauTarget.CellW)
NuTauTT.SetTotZDimension(ship_geo.NuTauTarget.zdim)
NuTauTT.SetNumberTT(ship_geo.NuTauTT.n)
#method of nutau target that must be called after TT parameter definition
NuTauTarget.SetTTzdimension(ship_geo.NuTauTT.TTZ)
detectorList.append(NuTauTarget)
detectorList.append(NuTauTT)
tauHpt = ROOT.Hpt("HighPrecisionTrackers", ship_geo.tauHPT.DX,
ship_geo.tauHPT.DY, ship_geo.tauHPT.DZ,
ROOT.kTRUE)
tauHpt.SetZsize(ship_geo.tauMudet.Ztot)
tauHpt.SetDesign(ship_geo.NuTauTarget.Design)
if ship_geo.nuTauTargetDesign < 3:
tauHpt.SetConcreteBaseDim(ship_geo.tauHPT.ConcreteX,
ship_geo.tauHPT.ConcreteY,
ship_geo.tauHPT.ConcreteZ)
if ship_geo.nuTauTargetDesign == 3:
tauHpt.SetHPTNumber(ship_geo.tauHPT.nHPT)
tauHpt.SetDistanceHPTs(ship_geo.tauHPT.distHPT)
tauHpt.SetSurroundingDetHeight(ship_geo.tauHPT.SRDY)
tauHpt.GetMagnetGeometry(ship_geo.EmuMagnet.zC,
ship_geo.EmuMagnet.Y)
tauHpt.GetNumberofTargets(ship_geo.NuTauTarget.target)
detectorList.append(tauHpt)
# for backward compatibility
if not hasattr(ship_geo.strawtubes, "YPlaneOffset"):
ship_geo.strawtubes.YLayerOffset = ship_geo.strawtubes.StrawPitch / 2.
ship_geo.strawtubes.YPlaneOffset = ship_geo.strawtubes.StrawPitch / 4.
if ship_geo.strawDesign > 1:
# for backward compatibility
if ship_geo.strawDesign == 10 and not hasattr(ship_geo.strawtubes,
"DeltazFrame"):
ship_geo.strawtubes.DeltazFrame = 2.5 * u.cm
ship_geo.strawtubes.FrameLateralWidth = 1.2 * u.m
ship_geo.strawtubes.FrameMaterial = "steel"
elif not hasattr(ship_geo.strawtubes, "DeltazFrame"):
ship_geo.strawtubes.DeltazFrame = 10. * u.cm
ship_geo.strawtubes.FrameLateralWidth = 1. * u.cm
ship_geo.strawtubes.FrameMaterial = "aluminium"
Strawtubes = ROOT.strawtubes("Strawtubes", ROOT.kTRUE)
Strawtubes.SetZpositions(ship_geo.vetoStation.z,
ship_geo.TrackStation1.z,
ship_geo.TrackStation2.z,
ship_geo.TrackStation3.z,
ship_geo.TrackStation4.z)
Strawtubes.SetDeltazFrame(ship_geo.strawtubes.DeltazFrame)
Strawtubes.SetFrameLateralWidth(ship_geo.strawtubes.FrameLateralWidth)
Strawtubes.SetFrameMaterial(ship_geo.strawtubes.FrameMaterial)
Strawtubes.SetDeltazView(ship_geo.strawtubes.DeltazView)
Strawtubes.SetInnerStrawDiameter(
ship_geo.strawtubes.InnerStrawDiameter)
Strawtubes.SetOuterStrawDiameter(
ship_geo.strawtubes.OuterStrawDiameter)
Strawtubes.SetStrawPitch(ship_geo.strawtubes.StrawPitch,
ship_geo.strawtubes.YLayerOffset,
ship_geo.strawtubes.YPlaneOffset)
Strawtubes.SetDeltazLayer(ship_geo.strawtubes.DeltazLayer)
Strawtubes.SetDeltazPlane(ship_geo.strawtubes.DeltazPlane)
Strawtubes.SetStrawsPerLayer(ship_geo.strawtubes.StrawsPerLayer)
Strawtubes.SetStereoAngle(ship_geo.strawtubes.ViewAngle)
Strawtubes.SetWireThickness(ship_geo.strawtubes.WireThickness)
Strawtubes.SetVacBox_x(ship_geo.strawtubes.VacBox_x)
Strawtubes.SetVacBox_y(ship_geo.strawtubes.VacBox_y)
Strawtubes.SetStrawLength(ship_geo.strawtubes.StrawLength)
if hasattr(ship_geo.strawtubes, "StrawLengthVeto"):
Strawtubes.SetStrawLengthVeto(ship_geo.strawtubes.StrawLengthVeto)
Strawtubes.SetStrawLength12(ship_geo.strawtubes.StrawLength12)
Strawtubes.SetVetoYDim(ship_geo.strawtubes.vetoydim)
Strawtubes.SetTr12YDim(ship_geo.strawtubes.tr12ydim)
Strawtubes.SetTr34YDim(ship_geo.strawtubes.tr34ydim)
else:
Strawtubes.SetStrawLengthVeto(ship_geo.strawtubes.StrawLength)
Strawtubes.SetStrawLength12(ship_geo.strawtubes.StrawLength)
Strawtubes.SetVetoYDim(ship_geo.Yheight / 2.)
Strawtubes.SetTr12YDim(ship_geo.Yheight / 2.)
Strawtubes.SetTr34YDim(ship_geo.Yheight / 2.)
# for the digitizing step
Strawtubes.SetStrawResolution(
getParameter("strawtubes.v_drift", ship_geo, latestShipGeo),
getParameter("strawtubes.sigma_spatial", ship_geo, latestShipGeo))
detectorList.append(Strawtubes)
if ship_geo.EcalOption == 1: # shashlik design TP
if ship_geo.preshowerOption > 0:
Preshower = ROOT.preshower("Preshower", ROOT.kTRUE)
Preshower.SetZStationPosition2(ship_geo.PreshowerStation0.z,
ship_geo.PreshowerStation1.z)
Preshower.SetZFilterPosition2(ship_geo.PreshowerFilter0.z,
ship_geo.PreshowerFilter1.z)
Preshower.SetXMax(ship_geo.Preshower.XMax)
Preshower.SetYMax(ship_geo.Preshower.YMax)
Preshower.SetActiveThickness(ship_geo.Preshower.ActiveThickness)
Preshower.SetFilterThickness2(ship_geo.Preshower.FilterThickness0,
ship_geo.Preshower.FilterThickness1)
detectorList.append(Preshower)
ecal, EcalZSize = posEcal(ship_geo.ecal.z, ship_geo.ecal.File)
detectorList.append(ecal)
if ship_geo.EcalOption == 2: # splitCal with pointing information
SplitCal = ROOT.splitcal("SplitCal", ROOT.kTRUE)
x = ship_geo.SplitCal
SplitCal.SetThickness(x.ActiveECALThickness, x.ActiveHCALThickness,
x.FilterECALThickness,
x.FilterECALThickness_first,
x.FilterHCALThickness,
x.ActiveECAL_gas_Thickness)
SplitCal.SetMaterial(x.ActiveECALMaterial, x.ActiveHCALMaterial,
x.FilterECALMaterial, x.FilterHCALMaterial)
SplitCal.SetNSamplings(x.nECALSamplings, x.nHCALSamplings,
x.ActiveHCAL)
SplitCal.SetZStart(x.ZStart)
SplitCal.SetXMax(x.XMax)
SplitCal.SetYMax(x.YMax)
SplitCal.SetEmpty(x.Empty, x.BigGap, x.ActiveECAL_gas_gap,
x.first_precision_layer, x.second_precision_layer,
x.third_precision_layer, x.num_precision_layers)
SplitCal.SetNModules(x.NModulesInX, x.NModulesInY)
SplitCal.SetNStrips(x.NStripsPerModule)
SplitCal.SetStripSize(x.StripHalfWidth, x.StripHalfLength)
detectorList.append(SplitCal)
if not ship_geo.HcalOption < 0:
hcal, HcalZSize = posHcal(ship_geo.hcal.z, ship_geo.hcal.File,
ship_geo.HcalOption)
if ship_geo.HcalOption != 2 and abs(ship_geo.hcal.hcalSpace -
HcalZSize) > 10 * u.cm:
print 'mismatch between hcalsize in geo file and python configuration'
print ship_geo.hcal.hcalSpace - HcalZSize, ship_geo.hcal.hcalSpace, HcalZSize
detectorList.append(hcal)
Muon = ROOT.muon("Muon", ROOT.kTRUE)
Muon.SetZStationPositions(ship_geo.MuonStation0.z, ship_geo.MuonStation1.z,
ship_geo.MuonStation2.z, ship_geo.MuonStation3.z)
Muon.SetZFilterPositions(ship_geo.MuonFilter0.z, ship_geo.MuonFilter1.z,
ship_geo.MuonFilter2.z)
Muon.SetXMax(ship_geo.Muon.XMax)
Muon.SetYMax(ship_geo.Muon.YMax)
Muon.SetActiveThickness(ship_geo.Muon.ActiveThickness)
Muon.SetFilterThickness(ship_geo.Muon.FilterThickness)
detectorList.append(Muon)
timeDet = ROOT.TimeDet("TimeDet", ROOT.kTRUE)
timeDet.SetZposition(ship_geo.TimeDet.z)
timeDet.SetBarZspacing(ship_geo.TimeDet.dzBarRow,
ship_geo.TimeDet.dzBarCol)
timeDet.SetBarZ(ship_geo.TimeDet.zBar)
timeDet.SetSizeX(2 * ship_geo.TimeDet.DX)
timeDet.SetSizeY(2 * ship_geo.TimeDet.DY)
detectorList.append(timeDet)
#----- Magnetic field -------------------------------------------
if not hasattr(ship_geo.Bfield, "fieldMap"):
if ship_geo.strawDesign == 4 or ship_geo.strawDesign == 10:
fMagField = ROOT.ShipBellField("wilfried", ship_geo.Bfield.max,
ship_geo.Bfield.z, 2,
ship_geo.Yheight / 2. * u.m)
else:
fMagField = ROOT.ShipBellField("wilfried", ship_geo.Bfield.max,
ship_geo.Bfield.z, 1,
ship_geo.Yheight / 2. * u.m)
if ship_geo.muShieldDesign == 6:
fMagField.IncludeTarget(ship_geo.target.xy, ship_geo.target.z0,
ship_geo.target.length)
run.SetField(fMagField)
#
exclusionList = []
#exclusionList = ["Muon","Ecal","Hcal","Strawtubes","TargetTrackers","NuTauTarget","HighPrecisionTrackers",\
# "Veto","Magnet","MuonShield","TargetStation","NuTauMudet","EmuMagnet", "TimeDet"]
for x in detectorList:
if x.GetName() in exclusionList: continue
run.AddModule(x)
# return list of detector elements
detElements = {}
for x in run.GetListOfModules():
detElements[x.GetName()] = x
return detElements
def run_track_pattern_recognition(input_file, geo_file, output_file, method):
"""
Runs all steps of track pattern recognition.
Parameters
----------
input_file : string
Path to an input .root file with events.
geo_file : string
Path to a file with SHiP geometry.
output_file : string
Path to an output .root file with quality plots.
method : string
Name of a track pattern recognition method.
"""
############################################# Load SHiP geometry ###################################################
# Check geo file
try:
fgeo = ROOT.TFile(geo_file)
except:
print("An error with opening the ship geo file.")
raise
sGeo = fgeo.FAIRGeom
# Prepare ShipGeo dictionary
if not fgeo.FindKey('ShipGeo'):
if sGeo.GetVolume('EcalModule3'):
ecalGeoFile = "ecal_ellipse6x12m2.geo"
else:
ecalGeoFile = "ecal_ellipse5x10m2.geo"
if dy:
ShipGeo = ConfigRegistry.loadpy(
"$FAIRSHIP/geometry/geometry_config.py",
Yheight=dy,
EcalGeoFile=ecalGeoFile)
else:
ShipGeo = ConfigRegistry.loadpy(
"$FAIRSHIP/geometry/geometry_config.py",
EcalGeoFile=ecalGeoFile)
else:
upkl = Unpickler(fgeo)
ShipGeo = upkl.load('ShipGeo')
# Globals
builtin.ShipGeo = ShipGeo
############################################# Load SHiP modules ####################################################
import shipDet_conf
run = ROOT.FairRunSim()
run.SetName("TGeant4") # Transport engine
run.SetOutputFile("dummy") # Output file
run.SetUserConfig(
"g4Config_basic.C"
) # geant4 transport not used, only needed for the mag field
rtdb = run.GetRuntimeDb()
modules = shipDet_conf.configure(run, ShipGeo)
run.Init()
#run = ROOT.FairRunSim()
#modules = shipDet_conf.configure(run,ShipGeo)
######################################### Load SHiP magnetic field #################################################
import geomGeant4
if hasattr(ShipGeo.Bfield, "fieldMap"):
fieldMaker = geomGeant4.addVMCFields(ShipGeo,
'',
True,
withVirtualMC=False)
else:
print("no fieldmap given, geofile too old, not anymore support")
exit(-1)
sGeo = fgeo.FAIRGeom
geoMat = ROOT.genfit.TGeoMaterialInterface()
ROOT.genfit.MaterialEffects.getInstance().init(geoMat)
bfield = ROOT.genfit.FairShipFields()
bfield.setField(fieldMaker.getGlobalField())
fM = ROOT.genfit.FieldManager.getInstance()
fM.init(bfield)
############################################# Load inpur data file #################################################
# Check input file
try:
fn = ROOT.TFile(input_file, 'update')
except:
print("An error with opening the input data file.")
raise
sTree = fn.cbmsim
sTree.Write()
############################################# Create hists #########################################################
h = init_book_hist()
########################################## Start Track Pattern Recognition #########################################
import shipPatRec
# Init book of hists for the quality measurements
metrics = {
'n_hits': [],
'reconstructible': 0,
'passed_y12': 0,
'passed_stereo12': 0,
'passed_12': 0,
'passed_y34': 0,
'passed_stereo34': 0,
'passed_34': 0,
'passed_combined': 0,
'reco_passed': 0,
'reco_passed_no_clones': 0,
'frac_y12': [],
'frac_stereo12': [],
'frac_12': [],
'frac_y34': [],
'frac_stereo34': [],
'frac_34': [],
'reco_frac_tot': [],
'reco_mc_p': [],
'reco_mc_theta': [],
'fitted_p': [],
'fitted_pval': [],
'fitted_chi': [],
'fitted_x': [],
'fitted_y': [],
'fitted_z': [],
'fitted_mass': []
}
# Start event loop
nEvents = sTree.GetEntries()
for iEvent in range(nEvents):
if iEvent % 1000 == 0:
print('Event ', iEvent)
########################################### Select one event ###################################################
rc = sTree.GetEvent(iEvent)
########################################### Reconstructible tracks #############################################
reconstructible_tracks = getReconstructibleTracks(
iEvent, sTree, sGeo, ShipGeo)
metrics['reconstructible'] += len(reconstructible_tracks)
for i_reco in reconstructible_tracks:
h['TracksPassed'].Fill("Reconstructible tracks", 1)
h['TracksPassedU'].Fill("Reconstructible tracks", 1)
in_y12 = []
in_stereo12 = []
in_12 = []
in_y34 = []
in_stereo34 = []
in_34 = []
in_combo = []
found_track_ids = []
n_tracks = len(reconstructible_tracks)
n_recognized = 0
n_clones = 0
n_ghosts = 0
n_others = 0
min_eff = 0.
########################################## Recognized tracks ###################################################
nTracklets = sTree.Tracklets.GetEntriesFast()
for i_track in range(nTracklets):
atracklet = sTree.Tracklets[i_track]
if atracklet.getType() != 1: # this is a not full track (tracklet)
continue
atrack = atracklet.getList()
if atrack.size() == 0:
continue
hits = {
'X': [],
'Y': [],
'Z': [],
'DetID': [],
'TrackID': [],
'Pz': [],
'Px': [],
'Py': [],
'dist2Wire': [],
'Pdg': []
}
for ihit in atrack:
ahit = sTree.strawtubesPoint[ihit]
hits['X'] += [ahit.GetX()]
hits['Y'] += [ahit.GetY()]
hits['Z'] += [ahit.GetZ()]
hits['DetID'] += [ahit.GetDetectorID()]
hits['TrackID'] += [ahit.GetTrackID()]
hits['Pz'] += [ahit.GetPz()]
hits['Px'] += [ahit.GetPx()]
hits['Py'] += [ahit.GetPy()]
hits['dist2Wire'] += [ahit.dist2Wire()]
hits['Pdg'] += [ahit.PdgCode()]
# List to numpy arrays
for key in hits.keys():
hits[key] = numpy.array(hits[key])
# Decoding
statnb, vnb, pnb, lnb, snb = decodeDetectorID(hits['DetID'])
is_stereo = ((vnb == 1) + (vnb == 2))
is_y = ((vnb == 0) + (vnb == 3))
is_before = ((statnb == 1) + (statnb == 2))
is_after = ((statnb == 3) + (statnb == 4))
# Metrics
metrics['n_hits'] += [get_n_hits(hits['TrackID'])]
# Tracks passed
frac_y12, tmax_y12 = fracMCsame(hits['TrackID'][is_before * is_y])
n_hits_y12 = get_n_hits(hits['TrackID'][is_before * is_y])
frac_stereo12, tmax_stereo12 = fracMCsame(
hits['TrackID'][is_before * is_stereo])
n_hits_stereo12 = get_n_hits(hits['TrackID'][is_before *
is_stereo])
frac_12, tmax_12 = fracMCsame(hits['TrackID'][is_before])
n_hits_12 = get_n_hits(hits['TrackID'][is_before])
frac_y34, tmax_y34 = fracMCsame(hits['TrackID'][is_after * is_y])
n_hits_y34 = get_n_hits(hits['TrackID'][is_after * is_y])
frac_stereo34, tmax_stereo34 = fracMCsame(
hits['TrackID'][is_after * is_stereo])
n_hits_stereo34 = get_n_hits(hits['TrackID'][is_after * is_stereo])
frac_34, tmax_34 = fracMCsame(hits['TrackID'][is_after])
n_hits_34 = get_n_hits(hits['TrackID'][is_after])
frac_tot, tmax_tot = fracMCsame(hits['TrackID'])
n_hits_tot = get_n_hits(hits['TrackID'])
if tmax_y12 == tmax_stereo12 and tmax_y12 == tmax_y34 and tmax_y12 == tmax_stereo34:
if frac_y12 >= min_eff and frac_stereo12 >= min_eff and frac_y34 >= min_eff and frac_stereo34 >= min_eff:
if tmax_y12 in reconstructible_tracks and tmax_y12 not in found_track_ids:
n_recognized += 1
found_track_ids.append(tmax_y12)
elif tmax_y12 in reconstructible_tracks and tmax_y12 in found_track_ids:
n_clones += 1
elif tmax_y12 not in reconstructible_tracks:
n_others += 1
else:
n_ghosts += 1
else:
n_ghosts += 1
is_reconstructed = 0
is_reconstructed_no_clones = 0
if tmax_y12 in reconstructible_tracks:
metrics['passed_y12'] += 1
metrics['frac_y12'] += [frac_y12]
h['TracksPassed'].Fill("Y view station 1&2", 1)
if tmax_y12 not in in_y12:
h['TracksPassedU'].Fill("Y view station 1&2", 1)
in_y12.append(tmax_y12)
if tmax_stereo12 == tmax_y12:
metrics['passed_stereo12'] += 1
metrics['frac_stereo12'] += [frac_stereo12]
h['TracksPassed'].Fill("Stereo station 1&2", 1)
if tmax_stereo12 not in in_stereo12:
h['TracksPassedU'].Fill("Stereo station 1&2", 1)
in_stereo12.append(tmax_stereo12)
if tmax_12 == tmax_y12:
metrics['passed_12'] += 1
metrics['frac_12'] += [frac_12]
h['TracksPassed'].Fill("station 1&2", 1)
if tmax_12 not in in_12:
h['TracksPassedU'].Fill("station 1&2", 1)
in_12.append(tmax_12)
if tmax_y34 in reconstructible_tracks:
metrics['passed_y34'] += 1
metrics['frac_y34'] += [frac_y34]
h['TracksPassed'].Fill("Y view station 3&4", 1)
if tmax_y34 not in in_y34:
h['TracksPassedU'].Fill(
"Y view station 3&4", 1)
in_y34.append(tmax_y34)
if tmax_stereo34 == tmax_y34:
metrics['passed_stereo34'] += 1
metrics['frac_stereo34'] += [frac_stereo34]
h['TracksPassed'].Fill("Stereo station 3&4", 1)
if tmax_stereo34 not in in_stereo34:
h['TracksPassedU'].Fill(
"Stereo station 3&4", 1)
in_stereo34.append(tmax_stereo34)
if tmax_34 == tmax_y34:
metrics['passed_34'] += 1
metrics['frac_34'] += [frac_34]
h['TracksPassed'].Fill("station 3&4", 1)
if tmax_34 not in in_34:
h['TracksPassedU'].Fill(
"station 3&4", 1)
in_34.append(tmax_34)
if tmax_12 == tmax_34:
metrics['passed_combined'] += 1
h['TracksPassed'].Fill(
"Combined stations 1&2/3&4", 1)
metrics['reco_passed'] += 1
is_reconstructed = 1
if tmax_34 not in in_combo:
h['TracksPassedU'].Fill(
"Combined stations 1&2/3&4", 1)
metrics[
'reco_passed_no_clones'] += 1
in_combo.append(tmax_34)
is_reconstructed_no_clones = 1
# For reconstructed tracks
if is_reconstructed == 0:
continue
metrics['reco_frac_tot'] += [frac_tot]
# Momentum
Pz = hits['Pz']
Px = hits['Px']
Py = hits['Py']
p, px, py, pz = getPtruthFirst(sTree, tmax_tot)
pt = math.sqrt(px**2 + py**2)
Z_true = []
X_true = []
Y_true = []
for ahit in sTree.strawtubesPoint:
if ahit.GetTrackID() == tmax_tot:
az, ax, ay = ahit.GetZ(), ahit.GetX(), ahit.GetY()
Z_true.append(az)
X_true.append(ax)
Y_true.append(ay)
metrics['reco_mc_p'] += [p]
h['TracksPassed_p'].Fill(p, 1)
# Direction
Z = hits['Z'][(hits['TrackID'] == tmax_tot) * is_before]
X = hits['X'][(hits['TrackID'] == tmax_tot) * is_before]
Y = hits['Y'][(hits['TrackID'] == tmax_tot) * is_before]
Z = Z - Z[0]
X = X - X[0]
Y = Y - Y[0]
R = numpy.sqrt(X**2 + Y**2 + Z**2)
Theta = numpy.arccos(Z[1:] / R[1:])
theta = numpy.mean(Theta)
metrics['reco_mc_theta'] += [theta]
h['n_hits_reco_y12'].Fill(n_hits_y12)
h['n_hits_reco_stereo12'].Fill(n_hits_stereo12)
h['n_hits_reco_12'].Fill(n_hits_12)
h['n_hits_reco_y34'].Fill(n_hits_y34)
h['n_hits_reco_stereo34'].Fill(n_hits_stereo34)
h['n_hits_reco_34'].Fill(n_hits_34)
h['n_hits_reco'].Fill(n_hits_tot)
h['n_hits_y12'].Fill(p, n_hits_y12)
h['n_hits_stereo12'].Fill(p, n_hits_stereo12)
h['n_hits_12'].Fill(p, n_hits_12)
h['n_hits_y34'].Fill(p, n_hits_y34)
h['n_hits_stereo34'].Fill(p, n_hits_stereo34)
h['n_hits_34'].Fill(p, n_hits_34)
h['n_hits_total'].Fill(p, n_hits_tot)
h['frac_y12'].Fill(p, frac_y12)
h['frac_stereo12'].Fill(p, frac_stereo12)
h['frac_12'].Fill(p, frac_12)
h['frac_y34'].Fill(p, frac_y34)
h['frac_stereo34'].Fill(p, frac_stereo34)
h['frac_34'].Fill(p, frac_34)
h['frac_total'].Fill(p, frac_tot)
h['frac_y12_dist'].Fill(frac_y12)
h['frac_stereo12_dist'].Fill(frac_stereo12)
h['frac_12_dist'].Fill(frac_12)
h['frac_y34_dist'].Fill(frac_y34)
h['frac_stereo34_dist'].Fill(frac_stereo34)
h['frac_34_dist'].Fill(frac_34)
h['frac_total_dist'].Fill(frac_tot)
# Fitted track
thetrack = sTree.FitTracks[i_track]
fitStatus = thetrack.getFitStatus()
thetrack.prune(
"CFL"
) # http://sourceforge.net/p/genfit/code/HEAD/tree/trunk/core/include/Track.h#l280
nmeas = fitStatus.getNdf()
pval = fitStatus.getPVal()
chi2 = fitStatus.getChi2() / nmeas
metrics['fitted_pval'] += [pval]
metrics['fitted_chi'] += [chi2]
h['chi2fittedtracks'].Fill(chi2)
h['pvalfittedtracks'].Fill(pval)
try:
fittedState = thetrack.getFittedState()
fittedMom = fittedState.getMomMag()
fittedMom = fittedMom #*int(charge)
px_fit, py_fit, pz_fit = fittedState.getMom().x(
), fittedState.getMom().y(), fittedState.getMom().z()
p_fit = fittedMom
pt_fit = math.sqrt(px_fit**2 + py_fit**2)
metrics['fitted_p'] += [p_fit]
perr = (p - p_fit) / p
h['ptrue-p/ptrue'].Fill(perr)
h['perr'].Fill(p, perr)
h['perr_direction'].Fill(numpy.rad2deg(theta), perr)
pterr = (pt - pt_fit) / pt
h['pttrue-pt/pttrue'].Fill(pterr)
pxerr = (px - px_fit) / px
h['pxtrue-px/pxtrue'].Fill(pxerr)
pyerr = (py - py_fit) / py
h['pytrue-py/pytrue'].Fill(pyerr)
pzerr = (pz - pz_fit) / pz
h['pztrue-pz/pztrue'].Fill(pzerr)
if math.fabs(p) > 0.0:
h['pvspfitted'].Fill(p, fittedMom)
fittedtrackDir = fittedState.getDir()
fittedx = math.degrees(math.acos(fittedtrackDir[0]))
fittedy = math.degrees(math.acos(fittedtrackDir[1]))
fittedz = math.degrees(math.acos(fittedtrackDir[2]))
fittedmass = fittedState.getMass()
h['momentumfittedtracks'].Fill(fittedMom)
h['xdirectionfittedtracks'].Fill(fittedx)
h['ydirectionfittedtracks'].Fill(fittedy)
h['zdirectionfittedtracks'].Fill(fittedz)
h['massfittedtracks'].Fill(fittedmass)
metrics['fitted_x'] += [fittedx]
metrics['fitted_y'] += [fittedy]
metrics['fitted_z'] += [fittedz]
metrics['fitted_mass'] += [fittedmass]
Z_fit = []
X_fit = []
Y_fit = []
for az in Z_true:
rc, pos, mom = extrapolateToPlane(thetrack, az)
Z_fit.append(pos.Z())
X_fit.append(pos.X())
Y_fit.append(pos.Y())
for i in range(len(Z_true)):
xerr = abs(X_fit[i] - X_true[i])
yerr = abs(Y_fit[i] - Y_true[i])
h['abs(x - x-true)'].Fill(xerr)
h['abs(y - y-true)'].Fill(yerr)
rmse_x = numpy.sqrt(
numpy.mean((numpy.array(X_fit) - numpy.array(X_true))**2))
rmse_y = numpy.sqrt(
numpy.mean((numpy.array(Y_fit) - numpy.array(Y_true))**2))
h['rmse_x'].Fill(rmse_x)
h['rmse_y'].Fill(rmse_y)
except:
print("Problem with fitted state.")
h['Reco_tracks'].Fill("N total", n_tracks)
h['Reco_tracks'].Fill("N recognized tracks", n_recognized)
h['Reco_tracks'].Fill("N clones", n_clones)
h['Reco_tracks'].Fill("N ghosts", n_ghosts)
h['Reco_tracks'].Fill("N others", n_others)
############################################# Save hists #########################################################
save_hists(h, output_file)
return metrics
geoFile = inputFile.replace('ship.', 'geofile_full.').replace('_rec.', '.')
if geoFile[0:4] == "/eos":
eospath = "root://eoslhcb.cern.ch/" + geoFile
fgeo = ROOT.TFile.Open(eospath)
else:
fgeo = ROOT.TFile(geoFile)
sGeo = fgeo.FAIRGeom
if not fgeo.FindKey('ShipGeo'):
# old geofile, missing Shipgeo dictionary
if sGeo.GetVolume('EcalModule3'): ecalGeoFile = "ecal_ellipse6x12m2.geo"
else: ecalGeoFile = "ecal_ellipse5x10m2.geo"
print 'found ecal geo for ', ecalGeoFile
# re-create geometry and mag. field
ShipGeo = ConfigRegistry.loadpy("$FAIRSHIP/geometry/geometry_config.py",
Yheight=dy,
EcalGeoFile=ecalGeoFile)
else:
# new geofile, load Shipgeo dictionary written by run_simScript.py
upkl = Unpickler(fgeo)
ShipGeo = upkl.load('ShipGeo')
ecalGeoFile = ShipGeo.ecal.File
# -----Create geometry----------------------------------------------
import shipDet_conf
run = ROOT.FairRunSim()
modules = shipDet_conf.configure(run, ShipGeo)
gMan = ROOT.gGeoManager
geoMat = ROOT.genfit.TGeoMaterialInterface()
def configure(run,ship_geo):
# ---- for backward compatibility ----
if not hasattr(ship_geo,"tankDesign"): ship_geo.tankDesign = 5
if not hasattr(ship_geo,"muShieldGeo"): ship_geo.muShieldGeo = None
if not hasattr(ship_geo.hcal,"File"): ship_geo.hcal.File = "hcal.geo"
if not hasattr(ship_geo.Bfield,'x') : ship_geo.Bfield.x = 3.*u.m
if not hasattr(ship_geo,'cave') :
ship_geo.cave = AttrDict(z=0*u.cm)
ship_geo.cave.floorHeightMuonShield = 5*u.m
ship_geo.cave.floorHeightTankA = 4.5*u.m
ship_geo.cave.floorHeightTankB = 2.*u.m
if not hasattr(ship_geo,'NuTauTT') : ship_geo.NuTauTT= AttrDict(z=0*u.cm)
if not hasattr(ship_geo.NuTauTT,'design') : ship_geo.NuTauTT.design = 0
if not hasattr(ship_geo,'EcalOption'): ship_geo.EcalOption = 1
latestShipGeo = ConfigRegistry.loadpy("$FAIRSHIP/geometry/geometry_config.py",Yheight = ship_geo.Yheight/u.m, tankDesign = ship_geo.tankDesign, muShieldDesign = ship_geo.muShieldDesign, nuTauTargetDesign = ship_geo.nuTauTargetDesign, muShieldGeo = ship_geo.muShieldGeo)
# -----Create media-------------------------------------------------
run.SetMaterials("media.geo") # Materials
# ------------------------------------------------------------------------
# -----Create geometry----------------------------------------------
cave= ROOT.ShipCave("CAVE")
if ship_geo.tankDesign < 5: cave.SetGeometryFileName("cave.geo")
else: cave.SetGeometryFileName("caveWithAir.geo")
detectorList.append(cave)
if ship_geo.muShieldDesign in [6, 7, 8, 9]: # magnetized hadron absorber defined in ShipMuonShield
TargetStation = ROOT.ShipTargetStation("TargetStation",ship_geo.target.length,
ship_geo.target.z,ship_geo.targetOpt,ship_geo.target.sl)
else:
TargetStation = ROOT.ShipTargetStation("TargetStation",ship_geo.target.length,ship_geo.hadronAbsorber.length,
ship_geo.target.z,ship_geo.hadronAbsorber.z,ship_geo.targetOpt,ship_geo.target.sl)
if ship_geo.targetOpt>10:
slices_length = ROOT.std.vector('float')()
slices_material = ROOT.std.vector('std::string')()
for i in range(1,ship_geo.targetOpt+1):
slices_length.push_back( eval("ship_geo.target.L"+str(i)))
slices_material.push_back(eval("ship_geo.target.M"+str(i)))
TargetStation.SetLayerPosMat(ship_geo.target.xy,slices_length,slices_material)
detectorList.append(TargetStation)
if ship_geo.muShieldDesign==1:
MuonShield = ROOT.ShipMuonShield("MuonShield",ship_geo.muShieldDesign,"ShipMuonShield",ship_geo.muShield.z,ship_geo.muShield.dZ0,ship_geo.muShield.length,\
ship_geo.muShield.LE)
elif ship_geo.muShieldDesign==2:
MuonShield = ROOT.ShipMuonShield("MuonShield",ship_geo.muShieldDesign,"ShipMuonShield",ship_geo.muShield.z,ship_geo.muShield.dZ0,ship_geo.muShield.dZ1,\
ship_geo.muShield.dZ2,ship_geo.muShield.dZ3,ship_geo.muShield.dZ4,ship_geo.muShield.dZ5,ship_geo.muShield.dZ6,ship_geo.muShield.LE)
elif ship_geo.muShieldDesign in [3, 4, 5, 6, 7, 9]:
if not hasattr(ship_geo.muShield,"Field"):
MuonShield = ROOT.ShipMuonShield(
"MuonShield", ship_geo.muShieldDesign, "ShipMuonShield",
ship_geo.muShield.z, ship_geo.muShield.dZ0, ship_geo.muShield.dZ1,
ship_geo.muShield.dZ2, ship_geo.muShield.dZ3,
ship_geo.muShield.dZ4, ship_geo.muShield.dZ5,
ship_geo.muShield.dZ6, ship_geo.muShield.dZ7,
ship_geo.muShield.dZ8, ship_geo.muShield.dXgap,
ship_geo.muShield.LE, ship_geo.Yheight * 4. / 10.,
ship_geo.cave.floorHeightMuonShield)
else:
MuonShield = ROOT.ShipMuonShield(
"MuonShield", ship_geo.muShieldDesign, "ShipMuonShield",
ship_geo.muShield.z, ship_geo.muShield.dZ0, ship_geo.muShield.dZ1,
ship_geo.muShield.dZ2, ship_geo.muShield.dZ3,
ship_geo.muShield.dZ4, ship_geo.muShield.dZ5,
ship_geo.muShield.dZ6, ship_geo.muShield.dZ7,
ship_geo.muShield.dZ8, ship_geo.muShield.dXgap,
ship_geo.muShield.LE, ship_geo.Yheight * 4. / 10.,
ship_geo.cave.floorHeightMuonShield,ship_geo.muShield.Field)
elif ship_geo.muShieldDesign == 8:
MuonShield = ROOT.ShipMuonShield(ship_geo.muShieldGeo)
detectorList.append(MuonShield)
if not hasattr(ship_geo,"magnetDesign"):
# backward compatibility
magnet_design = 2
if ship_geo.tankDesign == 5: magnet_design = 3
if ship_geo.tankDesign == 6: magnet_design = 4
ship_geo.magnetDesign = magnet_design
ship_geo.Bfield.YokeWidth = 200.*u.cm
ship_geo.Bfield.YokeDepth = 200.*u.cm
ship_geo.Bfield.CoilThick = 25.*u.cm
# sanity check, 2018 layout ship_geo.tankDesign == 6 has to be together with ship_geo.nuTauTargetDesign == 3
if (ship_geo.tankDesign == 6 and ship_geo.nuTauTargetDesign != 3) or (ship_geo.tankDesign != 6 and ship_geo.nuTauTargetDesign == 3):
print "version of tankDesign and nuTauTargetDesign are not compatible, should be 6 and 3, it is ",ship_geo.tankDesign, ship_geo.nuTauTargetDesign
exit()
if ship_geo.strawDesign > 1 :
if ship_geo.magnetDesign>3:
B = ship_geo.Bfield
magnet = ROOT.ShipMagnet("Magnet","SHiP Magnet",B.z, ship_geo.magnetDesign, B.x, B.y, ship_geo.cave.floorHeightTankB, B.YokeWidth, B.YokeDepth, B.CoilThick)
# xaperture, yaperture
else:
magnet = ROOT.ShipMagnet("Magnet","SHiP Magnet",ship_geo.Bfield.z, ship_geo.magnetDesign, ship_geo.Bfield.x, ship_geo.Bfield.y, ship_geo.cave.floorHeightTankB)
else: magnet = ROOT.ShipMagnet("Magnet","SHiP Magnet",ship_geo.Bfield.z)
detectorList.append(magnet)
Veto = ROOT.veto("Veto", ROOT.kTRUE) # vacuum tank
Veto.SetLiquidVeto(1) # liquid scintillator
Veto.SetPlasticVeto(1) # plastic scintillator
Veto.SetZpositions(ship_geo.vetoStation.z, ship_geo.TrackStation1.z, ship_geo.TrackStation2.z, \
ship_geo.TrackStation3.z, ship_geo.TrackStation4.z,ship_geo.tankDesign)
Veto.SetTubZpositions(ship_geo.Chamber1.z,ship_geo.Chamber2.z,ship_geo.Chamber3.z,ship_geo.Chamber4.z,ship_geo.Chamber5.z,ship_geo.Chamber6.z)
Veto.SetTublengths(ship_geo.chambers.Tub1length,ship_geo.chambers.Tub2length,ship_geo.chambers.Tub3length, \
ship_geo.chambers.Tub4length,ship_geo.chambers.Tub5length,ship_geo.chambers.Tub6length)
Veto.SetB(ship_geo.Yheight/2.)
Veto.SetFloorHeight(ship_geo.cave.floorHeightTankA,ship_geo.cave.floorHeightTankB)
if ship_geo.tankDesign > 4:
dzX = ship_geo.zFocusX+ship_geo.target.z0
x1 = ship_geo.xMax/(ship_geo.Chamber1.z -ship_geo.chambers.Tub1length-dzX)*(ship_geo.TrackStation4.z-dzX)
dzY = ship_geo.zFocusY+ship_geo.target.z0
y1 = ship_geo.Yheight/(ship_geo.Chamber1.z -ship_geo.chambers.Tub1length-dzY)*(ship_geo.TrackStation4.z-dzY)
Veto.SetXYstart(x1,dzX,y1,dzY)
Veto.SetVesselStructure(ship_geo.Veto.innerSupport,ship_geo.Veto.sensitiveThickness,ship_geo.Veto.outerSupport,\
ship_geo.Veto.innerSupportMed,ship_geo.Veto.lidThickness,ship_geo.Veto.sensitiveMed,\
ship_geo.Veto.outerSupportMed,ship_geo.Veto.decayMed,\
ship_geo.Veto.rib,ship_geo.Veto.ribMed)
detectorList.append(Veto)
if hasattr(ship_geo,'tauMudet'): # don't support old designs
if ship_geo.muShieldDesign not in [2,3,4] and hasattr(ship_geo.tauMudet,'Xtot'):
taumuondetector = ROOT.NuTauMudet("NuTauMudet", ship_geo.tauMudet.zMudetC, ROOT.kTRUE)
taumuondetector.SetDesign(ship_geo.nuTauTargetDesign)
taumuondetector.SetTotDimensions(ship_geo.tauMudet.Xtot,ship_geo.tauMudet.Ytot, ship_geo.tauMudet.Ztot )
taumuondetector.SetFeDimensions(ship_geo.tauMudet.XFe,ship_geo.tauMudet.YFe, ship_geo.tauMudet.ZFe)
taumuondetector.SetRpcDimensions(ship_geo.tauMudet.XRpc,ship_geo.tauMudet.YRpc, ship_geo.tauMudet.ZRpc)
taumuondetector.SetRpcGasDimensions(ship_geo.tauMudet.XGas,ship_geo.tauMudet.YGas, ship_geo.tauMudet.ZGas)
taumuondetector.SetRpcStripDimensions(ship_geo.tauMudet.XStrip,ship_geo.tauMudet.YStrip, ship_geo.tauMudet.ZStrip)
taumuondetector.SetRpcElectrodeDimensions(ship_geo.tauMudet.XEle,ship_geo.tauMudet.YEle, ship_geo.tauMudet.ZEle)
taumuondetector.SetRpcPETDimensions(ship_geo.tauMudet.XPet,ship_geo.tauMudet.YPet, ship_geo.tauMudet.ZPet)
taumuondetector.SetNFeInArm(ship_geo.tauMudet.NFe)
taumuondetector.SetNRpcInArm(ship_geo.tauMudet.NRpc)
taumuondetector.SetPillarDimensions(ship_geo.tauMudet.PillarX,ship_geo.tauMudet.PillarY, ship_geo.tauMudet.PillarZ)
detectorList.append(taumuondetector)
if ship_geo.nuTauTargetDesign==3:
taumuondetector.SetRpcDimDifferences(ship_geo.tauMudet.deltax, ship_geo.tauMudet.deltay)
if ship_geo.nuTauTargetDesign<3:
taumuondetector.SetReturnYokeDimensions(ship_geo.tauMudet.XRyoke,ship_geo.tauMudet.YRyoke, ship_geo.tauMudet.ZRyoke)
taumuondetector.SetSmallerYokeDimensions(ship_geo.tauMudet.XRyoke_s,ship_geo.tauMudet.YRyoke_s, ship_geo.tauMudet.ZRyoke_s)
taumuondetector.SetZDimensionArm(ship_geo.tauMudet.ZArm)
taumuondetector.SetGapDownstream(ship_geo.tauMudet.GapD)
taumuondetector.SetGapMiddle(ship_geo.tauMudet.GapM)
taumuondetector.SetMagneticField(ship_geo.tauMudet.B)
taumuondetector.SetCoilParameters(ship_geo.tauMudet.CoilH, ship_geo.tauMudet.CoilW, ship_geo.tauMudet.N, ship_geo.tauMudet.CoilG)
if ship_geo.nuTauTargetDesign==0 or ship_geo.nuTauTargetDesign==1 or ship_geo.nuTauTargetDesign==3:
EmuMagnet = ROOT.EmulsionMagnet("EmuMagnet",ship_geo.EmuMagnet.zC,"EmulsionMagnet")
EmuMagnet.SetDesign(ship_geo.EmuMagnet.Design)
EmuMagnet.SetGaps(ship_geo.EmuMagnet.GapUp, ship_geo.EmuMagnet.GapDown)
EmuMagnet.SetMagneticField(ship_geo.EmuMagnet.B)
EmuMagnet.SetConstantField(ship_geo.EmuMagnet.WithConstField)
EmuMagnet.SetMagnetSizes(ship_geo.EmuMagnet.X, ship_geo.EmuMagnet.Y, ship_geo.EmuMagnet.Z)
if ship_geo.nuTauTargetDesign==0 or ship_geo.nuTauTargetDesign==1:
EmuMagnet.SetCoilParameters(ship_geo.EmuMagnet.Radius, ship_geo.EmuMagnet.Height1, ship_geo.EmuMagnet.Height2, ship_geo.EmuMagnet.Distance)
if ship_geo.nuTauTargetDesign==3:
EmuMagnet.SetCoilParameters(ship_geo.EmuMagnet.CoilX,ship_geo.EmuMagnet.CoilY,ship_geo.EmuMagnet.Height1, ship_geo.EmuMagnet.Height2, ship_geo.EmuMagnet.Thickness)
EmuMagnet.SetCutDimensions(ship_geo.EmuMagnet.CutLength, ship_geo.EmuMagnet.CutHeight)
EmuMagnet.SetMagnetColumn(ship_geo.EmuMagnet.ColX, ship_geo.EmuMagnet.ColY, ship_geo.EmuMagnet.ColZ)
EmuMagnet.SetBaseDim(ship_geo.EmuMagnet.BaseX, ship_geo.EmuMagnet.BaseY, ship_geo.EmuMagnet.BaseZ)
EmuMagnet.SetPillarDimensions(ship_geo.EmuMagnet.PillarX, ship_geo.EmuMagnet.PillarY, ship_geo.EmuMagnet.PillarZ)
detectorList.append(EmuMagnet)
if ship_geo.nuTauTargetDesign==2:
EmuMagnet = ROOT.EmulsionMagnet()
NuTauTarget = ROOT.Target("NuTauTarget",ship_geo.NuTauTarget.Ydist,ROOT.kTRUE)
NuTauTarget.MakeNuTargetPassive(ship_geo.NuTauTarget.nuTargetPassive)
if hasattr(ship_geo.NuTauTarget,"SingleEmFilm"): #for backward compatibility
NuTauTarget.MergeTopBot(ship_geo.NuTauTarget.SingleEmFilm)
NuTauTarget.SetDetectorDesign(ship_geo.NuTauTarget.Design)
if ship_geo.nuTauTargetDesign!=3:
NuTauTarget.SetCenterZ(ship_geo.NuTauTarget.zC)
if ship_geo.nuTauTargetDesign==3:
NuTauTarget.SetCenterZ(ship_geo.EmuMagnet.zC) #now the centers of emumagnet and nutautarget are different (target does not include HPT)
NuTauTarget.SetNumberTargets(ship_geo.NuTauTarget.target)
NuTauTarget.SetHpTParam(ship_geo.tauHPT.nHPT, ship_geo.tauHPT.distHPT, ship_geo.tauHPT.DZ)
NuTauTarget.SetNumberBricks(ship_geo.NuTauTarget.col,ship_geo.NuTauTarget.row,ship_geo.NuTauTarget.wall)
NuTauTarget.SetDetectorDimension(ship_geo.NuTauTarget.xdim, ship_geo.NuTauTarget.ydim, ship_geo.NuTauTarget.zdim)
NuTauTarget.SetEmulsionParam(ship_geo.NuTauTarget.EmTh, ship_geo.NuTauTarget.EmX, ship_geo.NuTauTarget.EmY, ship_geo.NuTauTarget.PBTh,ship_geo.NuTauTarget.EPlW, ship_geo.NuTauTarget.LeadTh, ship_geo.NuTauTarget.AllPW)
NuTauTarget.SetBrickParam(ship_geo.NuTauTarget.BrX, ship_geo.NuTauTarget.BrY, ship_geo.NuTauTarget.BrZ, ship_geo.NuTauTarget.BrPackX, ship_geo.NuTauTarget.BrPackY, ship_geo.NuTauTarget.BrPackZ)
NuTauTarget.SetCESParam(ship_geo.NuTauTarget.RohG, ship_geo.NuTauTarget.LayerCESW, ship_geo.NuTauTarget.CESW, ship_geo.NuTauTarget.CESPack)
NuTauTarget.SetCellParam(ship_geo.NuTauTarget.CellW)
if ship_geo.nuTauTargetDesign==0 or ship_geo.nuTauTargetDesign==1:
NuTauTarget.SetMagnetHeight(ship_geo.EmuMagnet.Y)
NuTauTarget.SetColumnHeight(ship_geo.EmuMagnet.ColY)
NuTauTarget.SetBaseHeight(ship_geo.EmuMagnet.BaseY)
NuTauTarget.SetCoilUpHeight(ship_geo.EmuMagnet.Height1)
NuTauTarget.SetCoilDownHeight(ship_geo.EmuMagnet.Height2)
if ship_geo.nuTauTargetDesign!=2:
NuTauTarget.SetMagneticField(ship_geo.EmuMagnet.B)
if ship_geo.nuTauTargetDesign==2:
NuTauTarget.SetPillarDimension(ship_geo.NuTauTarget.PillarX,ship_geo.NuTauTarget.PillarY,ship_geo.NuTauTarget.PillarZ)
NuTauTarget.SetBaseDimension(ship_geo.NuTauTarget.BaseX, ship_geo.NuTauTarget.BaseY, ship_geo.NuTauTarget.BaseZ)
NuTauTT = ROOT.TargetTracker("TargetTrackers",ROOT.kTRUE)
NuTauTT.SetDesign(ship_geo.NuTauTT.design)
NuTauTT.SetTargetTrackerParam(ship_geo.NuTauTT.TTX, ship_geo.NuTauTT.TTY, ship_geo.NuTauTT.TTZ)
NuTauTT.SetBrickParam(ship_geo.NuTauTarget.CellW)
NuTauTT.SetTotZDimension(ship_geo.NuTauTarget.zdim)
NuTauTT.SetNumberTT(ship_geo.NuTauTT.n)
#method of nutau target that must be called after TT parameter definition
NuTauTarget.SetTTzdimension(ship_geo.NuTauTT.TTZ)
detectorList.append(NuTauTarget)
detectorList.append(NuTauTT)
tauHpt = ROOT.Hpt("HighPrecisionTrackers",ship_geo.tauHPT.DX, ship_geo.tauHPT.DY, ship_geo.tauHPT.DZ, ROOT.kTRUE)
tauHpt.SetZsize(ship_geo.tauMudet.Ztot)
tauHpt.SetDesign(ship_geo.NuTauTarget.Design)
if ship_geo.nuTauTargetDesign<3:
tauHpt.SetConcreteBaseDim(ship_geo.tauHPT.ConcreteX,ship_geo.tauHPT.ConcreteY,ship_geo.tauHPT.ConcreteZ)
if ship_geo.nuTauTargetDesign==3:
tauHpt.SetHPTNumber(ship_geo.tauHPT.nHPT)
tauHpt.SetDistanceHPTs(ship_geo.tauHPT.distHPT)
tauHpt.SetSurroundingDetHeight(ship_geo.tauHPT.SRDY)
tauHpt.GetMagnetGeometry(ship_geo.EmuMagnet.zC, ship_geo.EmuMagnet.Y)
tauHpt.GetNumberofTargets(ship_geo.NuTauTarget.target)
detectorList.append(tauHpt)
# for backward compatibility
if not hasattr(ship_geo.strawtubes, "YPlaneOffset"):
ship_geo.strawtubes.YLayerOffset = ship_geo.strawtubes.StrawPitch / 2.
ship_geo.strawtubes.YPlaneOffset = ship_geo.strawtubes.StrawPitch / 4.
if ship_geo.strawDesign > 1 :
# for backward compatibility
if ship_geo.strawDesign == 10 and not hasattr(ship_geo.strawtubes, "DeltazFrame"):
ship_geo.strawtubes.DeltazFrame = 2.5*u.cm
ship_geo.strawtubes.FrameLateralWidth = 1.2*u.m
ship_geo.strawtubes.FrameMaterial = "steel"
elif not hasattr(ship_geo.strawtubes, "DeltazFrame"):
ship_geo.strawtubes.DeltazFrame = 10.*u.cm
ship_geo.strawtubes.FrameLateralWidth = 1.*u.cm
ship_geo.strawtubes.FrameMaterial = "aluminium"
Strawtubes = ROOT.strawtubes("Strawtubes", ROOT.kTRUE)
Strawtubes.SetZpositions(ship_geo.vetoStation.z, ship_geo.TrackStation1.z, ship_geo.TrackStation2.z, ship_geo.TrackStation3.z, ship_geo.TrackStation4.z)
Strawtubes.SetDeltazFrame(ship_geo.strawtubes.DeltazFrame)
Strawtubes.SetFrameLateralWidth(ship_geo.strawtubes.FrameLateralWidth)
Strawtubes.SetFrameMaterial(ship_geo.strawtubes.FrameMaterial)
Strawtubes.SetDeltazView(ship_geo.strawtubes.DeltazView)
Strawtubes.SetInnerStrawDiameter(ship_geo.strawtubes.InnerStrawDiameter)
Strawtubes.SetOuterStrawDiameter(ship_geo.strawtubes.OuterStrawDiameter)
Strawtubes.SetStrawPitch(ship_geo.strawtubes.StrawPitch,ship_geo.strawtubes.YLayerOffset,ship_geo.strawtubes.YPlaneOffset)
Strawtubes.SetDeltazLayer(ship_geo.strawtubes.DeltazLayer)
Strawtubes.SetDeltazPlane(ship_geo.strawtubes.DeltazPlane)
Strawtubes.SetStrawsPerLayer(ship_geo.strawtubes.StrawsPerLayer)
Strawtubes.SetStereoAngle(ship_geo.strawtubes.ViewAngle)
Strawtubes.SetWireThickness(ship_geo.strawtubes.WireThickness)
Strawtubes.SetVacBox_x(ship_geo.strawtubes.VacBox_x)
Strawtubes.SetVacBox_y(ship_geo.strawtubes.VacBox_y)
Strawtubes.SetStrawLength(ship_geo.strawtubes.StrawLength)
if hasattr(ship_geo.strawtubes,"StrawLengthVeto"):
Strawtubes.SetStrawLengthVeto(ship_geo.strawtubes.StrawLengthVeto)
Strawtubes.SetStrawLength12(ship_geo.strawtubes.StrawLength12)
Strawtubes.SetVetoYDim(ship_geo.strawtubes.vetoydim)
Strawtubes.SetTr12YDim(ship_geo.strawtubes.tr12ydim)
Strawtubes.SetTr34YDim(ship_geo.strawtubes.tr34ydim)
else:
Strawtubes.SetStrawLengthVeto(ship_geo.strawtubes.StrawLength)
Strawtubes.SetStrawLength12(ship_geo.strawtubes.StrawLength)
Strawtubes.SetVetoYDim(ship_geo.Yheight/2.)
Strawtubes.SetTr12YDim(ship_geo.Yheight/2.)
Strawtubes.SetTr34YDim(ship_geo.Yheight/2.)
# for the digitizing step
Strawtubes.SetStrawResolution(getParameter("strawtubes.v_drift",ship_geo,latestShipGeo),getParameter("strawtubes.sigma_spatial",ship_geo,latestShipGeo) )
detectorList.append(Strawtubes)
if ship_geo.EcalOption == 1: # shashlik design TP
if ship_geo.preshowerOption > 0 :
Preshower = ROOT.preshower("Preshower", ROOT.kTRUE)
Preshower.SetZStationPosition2(ship_geo.PreshowerStation0.z,ship_geo.PreshowerStation1.z)
Preshower.SetZFilterPosition2(ship_geo.PreshowerFilter0.z,ship_geo.PreshowerFilter1.z)
Preshower.SetXMax(ship_geo.Preshower.XMax)
Preshower.SetYMax(ship_geo.Preshower.YMax)
Preshower.SetActiveThickness(ship_geo.Preshower.ActiveThickness)
Preshower.SetFilterThickness2(ship_geo.Preshower.FilterThickness0,ship_geo.Preshower.FilterThickness1)
detectorList.append(Preshower)
ecal,EcalZSize = posEcal(ship_geo.ecal.z,ship_geo.ecal.File)
detectorList.append(ecal)
if ship_geo.EcalOption == 2: # splitCal with pointing information
SplitCal = ROOT.splitcal("SplitCal", ROOT.kTRUE)
x = ship_geo.SplitCal
SplitCal.SetThickness(x.ActiveECALThickness,x.ActiveHCALThickness,x.FilterECALThickness,x.FilterECALThickness_first,x.FilterHCALThickness,x.ActiveECAL_gas_Thickness)
SplitCal.SetMaterial(x.ActiveECALMaterial,x.ActiveHCALMaterial,x.FilterECALMaterial ,x.FilterHCALMaterial)
SplitCal.SetNSamplings(x.nECALSamplings,x.nHCALSamplings,x.ActiveHCAL)
SplitCal.SetZStart(x.ZStart)
SplitCal.SetXMax(x.XMax)
SplitCal.SetYMax(x.YMax)
SplitCal.SetEmpty(x.Empty,x.BigGap,x.ActiveECAL_gas_gap,x.first_precision_layer,x.second_precision_layer,x.third_precision_layer,x.num_precision_layers)
SplitCal.SetNModules(x.NModulesInX, x.NModulesInY)
SplitCal.SetNStrips(x.NStripsPerModule)
SplitCal.SetStripSize(x.StripHalfWidth, x.StripHalfLength)
detectorList.append(SplitCal)
if not ship_geo.HcalOption < 0:
hcal,HcalZSize = posHcal(ship_geo.hcal.z,ship_geo.hcal.File,ship_geo.HcalOption)
if ship_geo.HcalOption!=2 and abs(ship_geo.hcal.hcalSpace - HcalZSize) > 10*u.cm:
print 'mismatch between hcalsize in geo file and python configuration'
print ship_geo.hcal.hcalSpace - HcalZSize, ship_geo.hcal.hcalSpace , HcalZSize
detectorList.append(hcal)
Muon = ROOT.muon("Muon", ROOT.kTRUE)
Muon.SetZStationPositions(ship_geo.MuonStation0.z, ship_geo.MuonStation1.z,ship_geo.MuonStation2.z,ship_geo.MuonStation3.z)
Muon.SetZFilterPositions(ship_geo.MuonFilter0.z, ship_geo.MuonFilter1.z,ship_geo.MuonFilter2.z)
Muon.SetXMax(ship_geo.Muon.XMax)
Muon.SetYMax(ship_geo.Muon.YMax)
Muon.SetActiveThickness(ship_geo.Muon.ActiveThickness)
Muon.SetFilterThickness(ship_geo.Muon.FilterThickness)
detectorList.append(Muon)
timeDet = ROOT.TimeDet("TimeDet", ROOT.kTRUE)
timeDet.SetZposition(ship_geo.TimeDet.z)
timeDet.SetBarZspacing(ship_geo.TimeDet.dzBarRow, ship_geo.TimeDet.dzBarCol)
timeDet.SetBarZ(ship_geo.TimeDet.zBar)
timeDet.SetSizeX(2 * ship_geo.TimeDet.DX)
timeDet.SetSizeY(2 * ship_geo.TimeDet.DY)
detectorList.append(timeDet)
#----- Magnetic field -------------------------------------------
if not hasattr(ship_geo.Bfield,"fieldMap"):
if ship_geo.strawDesign == 4 or ship_geo.strawDesign == 10 : fMagField = ROOT.ShipBellField("wilfried", ship_geo.Bfield.max ,ship_geo.Bfield.z,2,ship_geo.Yheight/2.*u.m )
else : fMagField = ROOT.ShipBellField("wilfried", ship_geo.Bfield.max ,ship_geo.Bfield.z,1,ship_geo.Yheight/2.*u.m )
if ship_geo.muShieldDesign==6: fMagField.IncludeTarget(ship_geo.target.xy, ship_geo.target.z0, ship_geo.target.length)
run.SetField(fMagField)
#
exclusionList = []
#exclusionList = ["Muon","Ecal","Hcal","Strawtubes","TargetTrackers","NuTauTarget","HighPrecisionTrackers",\
# "Veto","Magnet","MuonShield","TargetStation","NuTauMudet","EmuMagnet", "TimeDet"]
for x in detectorList:
if x.GetName() in exclusionList: continue
run.AddModule(x)
# return list of detector elements
detElements = {}
for x in run.GetListOfModules(): detElements[x.GetName()]=x
return detElements
if not geoFile:
geoFile = inputFile.replace('ship.','geofile_full.').replace('_rec.','.')
if geoFile[0:4] == "/eos":
eospath = "root://eoslhcb.cern.ch/"+geoFile
fgeo = ROOT.TFile.Open(eospath)
else:
fgeo = ROOT.TFile(geoFile)
sGeo = fgeo.FAIRGeom
if not fgeo.FindKey('ShipGeo'):
# old geofile, missing Shipgeo dictionary
if sGeo.GetVolume('EcalModule3') : ecalGeoFile = "ecal_ellipse6x12m2.geo"
else: ecalGeoFile = "ecal_ellipse5x10m2.geo"
print 'found ecal geo for ',ecalGeoFile
# re-create geometry and mag. field
ShipGeo = ConfigRegistry.loadpy("$FAIRSHIP/geometry/geometry_config.py", Yheight = dy, EcalGeoFile = ecalGeoFile )
else:
# new geofile, load Shipgeo dictionary written by run_simScript.py
upkl = Unpickler(fgeo)
ShipGeo = upkl.load('ShipGeo')
ecalGeoFile = ShipGeo.ecal.File
# -----Create geometry----------------------------------------------
import shipDet_conf
run = ROOT.FairRunSim()
modules = shipDet_conf.configure(run,ShipGeo)
gMan = ROOT.gGeoManager
geoMat = ROOT.genfit.TGeoMaterialInterface()
ROOT.genfit.MaterialEffects.getInstance().init(geoMat)
volDict = {}
print " for example -f /eos/experiment/ship/data/muonDIS/muonDis_1.root"
sys.exit()
if simEngine == "Nuage" and not inputFile:
inputFile = 'Numucc.root'
print "FairShip setup for",simEngine,"to produce",nEvents,"events"
if (simEngine == "Ntuple" or simEngine == "MuonBack") and defaultInputFile :
print 'input file required if simEngine = Ntuple or MuonBack'
print " for example -f /eos/experiment/ship/data/Mbias/pythia8_Geant4-withCharm_onlyMuons_4magTarget.root"
sys.exit()
ROOT.gRandom.SetSeed(theSeed) # this should be propagated via ROOT to Pythia8 and Geant4VMC
shipRoot_conf.configure(DarkPhoton) # load basic libraries, prepare atexit for python
# - muShieldDesign = 2 # 1=passive 5=active (default) 7=short design+magnetized hadron absorber
# - targetOpt = 5 # 0=solid >0 sliced, 5: 5 pieces of tungsten, 4 H20 slits, 17: Mo + W +H2O (default)
# nuTauTargetDesign = 0 # 0 = TP, 1 = NEW with magnet, 2 = NEW without magnet, 3 = 2018 design
if charm == 0: ship_geo = ConfigRegistry.loadpy("$FAIRSHIP/geometry/geometry_config.py", Yheight = dy, tankDesign = dv, \
muShieldDesign = ds, nuTauTargetDesign=nud, CaloDesign=caloDesign, strawDesign=strawDesign, muShieldGeo=geofile)
else: ship_geo = ConfigRegistry.loadpy("$FAIRSHIP/geometry/charm-geometry_config.py")
# switch off magnetic field to measure muon flux
#ship_geo.muShield.Field = 0.
#ship_geo.EmuMagnet.B = 0.
#ship_geo.tauMudet.B = 0.
# Output file name, add dy to be able to setup geometry with ambiguities.
tag = simEngine+"-"+mcEngine
if charmonly: tag = simEngine+"CharmOnly-"+mcEngine
if eventDisplay: tag = tag+'_D'
if dv > 4 : tag = 'conical.'+tag
elif dy: tag = str(dy)+'.'+tag
if not os.path.exists(outputDir):
# analyze muon background /media/Data/HNL/PythiaGeant4Production/pythia8_Geant4_total.root
import os,ROOT
import rootUtils as ut
import shipunit as u
PDG = ROOT.TDatabasePDG.Instance()
from ShipGeoConfig import ConfigRegistry
# init geometry and mag. field
ShipGeo = ConfigRegistry.loadpy("$FAIRSHIP/geometry/geometry_config.py")
tgeom = ROOT.TGeoManager("Geometry", "Geane geometry")
rz_inter = -1.,0.
def origin(it):
at = sTree.MCTrack[it]
im = at.GetMotherId()
if im>0: origin(im)
if im<0:
print 'does not come from muon'
rz_inter = -1.,0.
if im==0:
#print 'origin z',at.GetStartZ()
rz_inter = ROOT.TMath.Sqrt(at.GetStartX()**2+at.GetStartY()**2),at.GetStartZ()
inputFile = 'ship.MuonBack-TGeant4.root'
withChain = 9 # 9 # 1
if withChain == 1:
inputFile = 'ship.MuonBack-TGeant4_D.root'
# 11-19 with QGSP_BERT_EMV instead of QGSP_BERT_HP_PEN
# 51-59 passive shielding
def pyExit():
global fitter
del fitter
print "finishing pyExit"
import atexit
atexit.register(pyExit)
from array import array
import shipunit as u
import rootUtils as ut
from ShipGeoConfig import ConfigRegistry
if dy:
ShipGeo = ConfigRegistry.loadpy("$FAIRSHIP/geometry/geometry_config.py",
Yheight=dy)
else:
ShipGeo = ConfigRegistry.loadpy("$FAIRSHIP/geometry/geometry_config.py")
# -----Create geometry----------------------------------------------
import shipDet_conf
run = ROOT.FairRunSim()
modules = shipDet_conf.configure(run, ShipGeo)
addHNLtoROOT()
fout = ROOT.TFile(outFile, 'update')
def myVertex(t1, t2, PosDir):
# closest distance between two tracks
# nu_mu: inputFile = os.environ['SHIPSOFT']+'/data/Genie-mu+_nu_mu-gntp.113.gst.root'
if simEngine == "muonDIS" and not inputFile:
inputFile = os.environ['SHIPSOFT']+'/data/muonDis.root'
if simEngine == "Nuage" and not inputFile:
inputFile = 'Numucc.root'
print "FairShip setup for",simEngine,"to produce",nEvents,"events"
if (simEngine == "Ntuple" or simEngine == "MuonBack") and not inputFile :
print 'input file required if simEngine = Ntuple or MuonBack'
ROOT.gRandom.SetSeed(theSeed) # this should be propagated via ROOT to Pythia8 and Geant4VMC
shipRoot_conf.configure() # load basic libraries, prepare atexit for python
# - muShieldDesign = 2 # 1=passive 2=active (default)
# - targetOpt = 5 # 0=solid >0 sliced, 5: 5 pieces of tungsten, 4 H20 slits, 17: Mo + W +H2O (default)
# - strawDesign = 4 # simplistic tracker design, 4=sophisticated straw tube design, horizontal wires (default)
# - HcalOption = -1 # no hcal, 0=hcal after muon, 1=hcal between ecal and muon (default)
ship_geo = ConfigRegistry.loadpy("$FAIRSHIP/geometry/geometry_config.py", Yheight = dy)
# Output file name, add dy to be able to setup geometry with ambiguities.
tag = simEngine+"-"+mcEngine
if eventDisplay: tag = tag+'_D'
if dy: tag = str(dy)+'.'+tag
if not os.path.exists(outputDir):
os.makedirs(outputDir)
outFile = "%s/ship.%s.root" % (outputDir, tag)
# rm older files !!!
os.system("rm %s/*.%s.root" % (outputDir, tag))
# Parameter file name
parFile="%s/ship.params.%s.root" % (outputDir, tag)
# In general, the following parts need not be touched
def tearDown(self):
ConfigRegistry.clean()
os.remove(self.filename)
