Skip to content
New issue

Have a question about this project? Sign up for a free GitHub account to open an issue and contact its maintainers and the community.

By clicking “Sign up for GitHub”, you agree to our terms of service and privacy statement. We’ll occasionally send you account related emails.

Already on GitHub? Sign in to your account

Implementation of TS clustering and tracking as envisioned in LUT firmware. #1461

Merged
merged 19 commits into from
Sep 20, 2024
Merged
Show file tree
Hide file tree
Changes from all commits
Commits
Show all changes
19 commits
Select commit Hold shift + click to select a range
File filter

Filter by extension

Filter by extension

Conversations
Failed to load comments.
Loading
Jump to
Jump to file
Failed to load files.
Loading
Diff view
Diff view
4 changes: 3 additions & 1 deletion TrigScint/CMakeLists.txt
Original file line number Diff line number Diff line change
Expand Up @@ -40,10 +40,12 @@ if(BUILD_EVENT_ONLY)

endif()

setup_library(module TrigScint name Firmware)
target_include_directories(TrigScint_Firmware PUBLIC ../Trigger/HLS_arbitrary_Precision_Types/include)
setup_library(module TrigScint
dependencies Framework::Framework Recon::Event DetDescr::DetDescr
Tools::Tools SimCore::Event
Tools::Tools SimCore::Event TrigScint::Firmware
)

setup_python(package_name LDMX/TrigScint)

168 changes: 168 additions & 0 deletions TrigScint/exampleConfigs/firmwareEx.py
Original file line number Diff line number Diff line change
@@ -0,0 +1,168 @@
#!/bin/python

import sys
import os
import json

# we need the ldmx configuration package to construct the object

from LDMX.Framework import ldmxcfg

# set a 'pass name'
passName="sim"
p=ldmxcfg.Process(passName)

#import all processors
from LDMX.SimCore import generators
from LDMX.SimCore import simulator
from LDMX.Biasing import filters

from LDMX.Detectors.makePath import *
from LDMX.SimCore import simcfg

#pull in command line options
nEle=4 # simulated beam electrons
runNum=10
version="ldmx-det-v14"
outputNameString= "ldmxdetv14gap10mm_firmware.root" #sample identifier
outDir= "" #sample identifier

#
# Instantiate the simulator.
#
sim = simulator.simulator("test")

#
# Set the path to the detector to use (pulled from job config)
#
sim.setDetector( version, True )
sim.scoringPlanes = makeScoringPlanesPath(version)

outname=outputNameString #+".root"
print("NAME = " + outname)

#
# Set run parameters. These are all pulled from the job config
#
p.run = runNum
p.maxEvents = 100
nElectrons = nEle
beamEnergy = 4.0; #in GeV

sim.description = "Inclusive "+str(beamEnergy)+" GeV electron events, "+str(nElectrons)+"e"
#sim.randomSeeds = [ SEED1 , SEED2 ]
sim.beamSpotSmear = [20., 80., 0]


mpgGen = generators.multi( "mgpGen" ) # this is the line that actually creates the generator
mpgGen.vertex = [ -44., 0., -880. ] # mm
mpgGen.nParticles = nElectrons
mpgGen.pdgID = 11
mpgGen.enablePoisson = False #True

import math
theta = math.radians(5.45)
beamEnergyMeV=1000*beamEnergy
px = beamEnergyMeV*math.sin(theta)
py = 0.;
pz= beamEnergyMeV*math.cos(theta)
mpgGen.momentum = [ px, py, pz ]

#
# Set the multiparticle gun as generator
#
sim.generators = [ mpgGen ]

#reconstruction and vetoes

#Ecal and Hcal hardwired/geometry stuff
#import LDMX.Ecal.EcalGeometry
import LDMX.Ecal.ecal_hardcoded_conditions
from LDMX.Ecal import EcalGeometry
#egeom = EcalGeometry.EcalGeometryProvider.getInstance()
#Hcal hardwired/geometry stuff
from LDMX.Hcal import HcalGeometry
import LDMX.Hcal.hcal_hardcoded_conditions
#hgeom = HcalGeometry.HcalGeometryProvider.getInstance()


from LDMX.Ecal import digi as eDigi
from LDMX.Ecal import vetos
from LDMX.Hcal import digi as hDigi
from LDMX.Hcal import hcal

from LDMX.Recon.simpleTrigger import TriggerProcessor

from LDMX.TrigScint.trigScint import TrigScintDigiProducer
from LDMX.TrigScint.trigScint import TrigScintClusterProducer
from LDMX.TrigScint.trigScint import trigScintTrack
from LDMX.TrigScint.trigScint import TrigScintFirmwareTracker

tsSimColls=[ "TriggerPad2SimHits", "TriggerPad3SimHits", "TriggerPad1SimHits" ]

# ecal digi chain
# ecalDigi =eDigi.EcalDigiProducer('EcalDigis')
# ecalReco =eDigi.EcalRecProducer('ecalRecon')
# ecalVeto =vetos.EcalVetoProcessor('ecalVetoBDT')

# #hcal digi chain
# hcalDigi =hDigi.HcalDigiProducer('hcalDigis')
# hcalReco =hDigi.HcalRecProducer('hcalRecon')
# hcalVeto =hcal.HcalVetoProcessor('hcalVeto')
# #hcalDigi.inputCollName="HcalSimHits"
#hcalDigi.inputPassName=passName

# TS digi + clustering + track chain
tsDigisTag =TrigScintDigiProducer.pad2()
tsDigisTag.input_collection = tsSimColls[0]# +"_"+passName
tsDigisTag.input_pass_name = "sim"
tsDigisUp =TrigScintDigiProducer.pad3()
tsDigisUp.input_collection = tsSimColls[1]# +"_"+passName
tsDigisUp.input_pass_name = "sim"
tsDigisDown=TrigScintDigiProducer.pad1()
tsDigisDown.input_collection = tsSimColls[2]# +"_"+passName
tsDigisDown.input_pass_name = "sim"

tsClustersTag =TrigScintClusterProducer.pad2()
tsClustersUp =TrigScintClusterProducer.pad1()
tsClustersDown =TrigScintClusterProducer.pad3()


tsDigisUp.verbosity=0
tsClustersUp.verbosity=1
trigScintTrack.verbosity=1

trigScintTrack.delta_max = 0.75

trigFirm = TrigScintFirmwareTracker( "trigFirm" )
trigFirm.input_pass_name = "sim"
trigFirm.digis1_collection = "trigScintDigisPad1"
trigFirm.digis2_collection = "trigScintDigisPad2"
trigFirm.digis3_collection = "trigScintDigisPad3"
trigFirm.output_collection = "TriggerPadTracksFirmware"

from LDMX.Recon.electronCounter import ElectronCounter
eCount = ElectronCounter( nElectrons, "ElectronCounter") # first argument is number of electrons in simulation
eCount.use_simulated_electron_number = False
eCount.input_collection="TriggerPadTracks"
eCount.input_pass_name=passName

# # p.sequence=[ sim, ecalDigi, ecalReco, ecalVeto, hcalDigi, hcalReco, hcalVeto, tsDigisTag, tsDigisUp, tsDigisDown, tsClustersTag, tsClustersUp, tsClustersDown, trigScintTrack, eCount ]
# #hcal digi keeps crashing in config step
p.sequence=[ sim, tsDigisTag, tsDigisUp, tsDigisDown, tsClustersTag, tsClustersUp, tsClustersDown, trigScintTrack, trigFirm, eCount]
# p.sequence=[sim]

p.outputFiles=[outname]

p.termLogLevel = 0 # default is 2 (WARNING); but then logFrequency is ignored. level 1 = INFO.

#print this many events to stdout (independent on number of events, edge case: round-off effects when not divisible. so can go up by a factor 2 or so)
logEvents=20
if p.maxEvents < logEvents :
logEvents = p.maxEvents
p.logFrequency = int( p.maxEvents/logEvents )

#json.dumps(p.parameterDump(), indent=2)

with open('parameterDump.json', 'w') as outfile:
json.dump(p.parameterDump(), outfile, indent=4)
167 changes: 167 additions & 0 deletions TrigScint/exampleConfigs/meganEx.py
Original file line number Diff line number Diff line change
@@ -0,0 +1,167 @@
#!/bin/python

import sys
import os
import json

# we need the ldmx configuration package to construct the object

from LDMX.Framework import ldmxcfg

# set a 'pass name'
passName="sim"
p=ldmxcfg.Process(passName)

#import all processors
from LDMX.SimCore import generators
from LDMX.SimCore import simulator
from LDMX.Biasing import filters

from LDMX.Detectors.makePath import *
from LDMX.SimCore import simcfg

#pull in command line options
nEle=4 # simulated beam electrons
runNum=10
version="ldmx-det-v14"
outputNameString= "ldmxdetv14gap10mm.root" #sample identifier
outDir= "" #sample identifier

#
# Instantiate the simulator.
#
sim = simulator.simulator("test")

#
# Set the path to the detector to use (pulled from job config)
#
sim.setDetector( version, True )
sim.scoringPlanes = makeScoringPlanesPath(version)

outname=outputNameString #+".root"
print("NAME = " + outname)

#
# Set run parameters. These are all pulled from the job config
#
p.run = runNum
p.maxEvents = 100
nElectrons = nEle
beamEnergy = 4.0; #in GeV

sim.description = "Inclusive "+str(beamEnergy)+" GeV electron events, "+str(nElectrons)+"e"
#sim.randomSeeds = [ SEED1 , SEED2 ]
sim.beamSpotSmear = [20., 80., 0]


mpgGen = generators.multi( "mgpGen" ) # this is the line that actually creates the generator
mpgGen.vertex = [ -44., 0., -880. ] # mm
mpgGen.nParticles = nElectrons
mpgGen.pdgID = 11
mpgGen.enablePoisson = False #True

import math
theta = math.radians(5.45)
beamEnergyMeV=1000*beamEnergy
px = beamEnergyMeV*math.sin(theta)
py = 0.;
pz= beamEnergyMeV*math.cos(theta)
mpgGen.momentum = [ px, py, pz ]

#
# Set the multiparticle gun as generator
#
sim.generators = [ mpgGen ]

#reconstruction and vetoes

#Ecal and Hcal hardwired/geometry stuff
#import LDMX.Ecal.EcalGeometry
import LDMX.Ecal.ecal_hardcoded_conditions
from LDMX.Ecal import EcalGeometry
#egeom = EcalGeometry.EcalGeometryProvider.getInstance()
#Hcal hardwired/geometry stuff
from LDMX.Hcal import HcalGeometry
import LDMX.Hcal.hcal_hardcoded_conditions
#hgeom = HcalGeometry.HcalGeometryProvider.getInstance()


from LDMX.Ecal import digi as eDigi
from LDMX.Ecal import vetos
from LDMX.Hcal import digi as hDigi
from LDMX.Hcal import hcal

from LDMX.Recon.simpleTrigger import TriggerProcessor

from LDMX.TrigScint.trigScint import TrigScintDigiProducer
from LDMX.TrigScint.trigScint import TrigScintClusterProducer
from LDMX.TrigScint.trigScint import trigScintTrack

if "v12" in version :
tsSimColls=[ "TriggerPadTagSimHits", "TriggerPadUpSimHits", "TriggerPadDnSimHits" ]
else :
tsSimColls=[ "TriggerPad2SimHits", "TriggerPad3SimHits", "TriggerPad1SimHits" ]

# ecal digi chain
# ecalDigi =eDigi.EcalDigiProducer('EcalDigis')
# ecalReco =eDigi.EcalRecProducer('ecalRecon')
# ecalVeto =vetos.EcalVetoProcessor('ecalVetoBDT')

# #hcal digi chain
# hcalDigi =hDigi.HcalDigiProducer('hcalDigis')
# hcalReco =hDigi.HcalRecProducer('hcalRecon')
# hcalVeto =hcal.HcalVetoProcessor('hcalVeto')
# #hcalDigi.inputCollName="HcalSimHits"
#hcalDigi.inputPassName=passName

# TS digi + clustering + track chain
tsDigisTag =TrigScintDigiProducer.pad2()
tsDigisTag.input_collection = tsSimColls[0]# +"_"+passName
tsDigisTag.input_pass_name = "sim"
tsDigisUp =TrigScintDigiProducer.pad3()
tsDigisUp.input_collection = tsSimColls[1]# +"_"+passName
tsDigisUp.input_pass_name = "sim"
tsDigisDown=TrigScintDigiProducer.pad1()
tsDigisDown.input_collection = tsSimColls[2]# +"_"+passName
tsDigisDown.input_pass_name = "sim"

tsClustersTag =TrigScintClusterProducer.pad2()
tsClustersUp =TrigScintClusterProducer.pad1()
tsClustersDown =TrigScintClusterProducer.pad3()

if "v12" in version :
tsClustersTag.pad_time = -2.
tsClustersUp.pad_time = 0.
tsClustersDown.pad_time = 0.

tsDigisUp.verbosity=0
tsClustersUp.verbosity=1
trigScintTrack.verbosity=1

trigScintTrack.delta_max = 0.75

from LDMX.Recon.electronCounter import ElectronCounter
eCount = ElectronCounter( nElectrons, "ElectronCounter") # first argument is number of electrons in simulation
eCount.use_simulated_electron_number = False
eCount.input_collection="TriggerPadTracks"
eCount.input_pass_name=passName

# # p.sequence=[ sim, ecalDigi, ecalReco, ecalVeto, hcalDigi, hcalReco, hcalVeto, tsDigisTag, tsDigisUp, tsDigisDown, tsClustersTag, tsClustersUp, tsClustersDown, trigScintTrack, eCount ]
# #hcal digi keeps crashing in config step
p.sequence=[ sim, tsDigisTag, tsDigisUp, tsDigisDown, tsClustersTag, tsClustersUp, tsClustersDown, trigScintTrack, eCount]
# p.sequence=[sim]

p.outputFiles=[outname]

p.termLogLevel = 0 # default is 2 (WARNING); but then logFrequency is ignored. level 1 = INFO.

#print this many events to stdout (independent on number of events, edge case: round-off effects when not divisible. so can go up by a factor 2 or so)
logEvents=20
if p.maxEvents < logEvents :
logEvents = p.maxEvents
p.logFrequency = int( p.maxEvents/logEvents )

json.dumps(p.parameterDump(), indent=2)

with open('parameterDump.json', 'w') as outfile:
json.dump(p.parameterDump(), outfile, indent=4)
12 changes: 12 additions & 0 deletions TrigScint/include/TrigScint/Firmware/clusterproducer.h
Original file line number Diff line number Diff line change
@@ -0,0 +1,12 @@
#ifndef CLUSTERPRODUCER_H
#define CLUSTERPRODUCER_H

#include "objdef.h"

void copyHit1(Hit One, Hit Two);
void copyHit2(Hit One, Hit Two);
void clusterproducer_ref(Hit inHit[NHITS], Cluster outClus[NCLUS]);
std::array<Cluster, NCLUS> clusterproducer_sw(Hit inHit[NHITS]);
void clusterproducer_hw(Hit inHit[NHITS], Cluster outClus[NCLUS]);

#endif
Loading