Exemplo n.º 1
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            outputs=["wab-beam-tri.slcio"],
            nevents=params.nevents,
            ignore_returncode=True)

# run simulated events in readout to generate triggers
readout = JobManager(
    description="Run the readout simulation to create triggers",
    steering_resource=params.readout_steering,
    java_args=["-DdisableSvtAlignmentConstants"],
    run=params.run,
    detector=params.detector,
    inputs=["wab-beam-tri.slcio"],
    outputs=["wab-beam-tri_readout"])

# run physics reconstruction
recon = JobManager(description="Run the MC recon",
                   steering_resource=params.recon_steering,
                   java_args=["-DdisableSvtAlignmentConstants"],
                   run=params.run,
                   detector=params.detector,
                   inputs=["wab-beam-tri_readout.slcio"],
                   outputs=["wab-beam-tri_recon"])

# run the job
job.components = [
    stdhep_tri, rot_tri, sample_tri, stdhep_wab, rot_wab, sample_wab, rot_beam,
    sample_beam, merge, slic, readout, recon
]

job.run()
Exemplo n.º 2
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                                 inputs=[procname + ".slcio"],
                                 outputs=[procname + "_filt.slcio"],
                                 ecal_hit_ecut=0.05,
                                 enable_ecal_energy_filter=True,
                                 nevents=2000000,
                                 event_interval=250)

# run simulated events in readout to generate triggers
readout = JobManager(steering_resource=params.readout_steering,
                     java_args=["-DdisableSvtAlignmentConstants"],
                     run=params.run,
                     detector=params.detector,
                     inputs=[procname + "_filt.slcio"],
                     outputs=[procname + "_readout"])

# run physics reconstruction
recon = JobManager(steering_resource=params.recon_steering,
                   java_args=["-DdisableSvtAlignmentConstants"],
                   defs={
                       "detector": params.detector,
                       "run": params.run
                   },
                   inputs=[procname + "_readout.slcio"],
                   outputs=[procname + "_recon"])

# run the job
job.components = [
    mg, stdhep_cnv, rot, dump, slic, filter_bunches, readout, recon
]
job.run()
Exemplo n.º 3
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"""
If no output file mapping is provided explicitly, then an auto-naming scheme is used which
concatenates the start and end file numbers onto the base name of the first input file.
"""
if not len(job.params.output_files):
    
    output_basename,start_filenum = split_file_number(job.params.input_files[input_files[0]])
    dontcare,end_filenum = split_file_number(job.params.input_files[input_files[-1]])
    
    print output_basename
    print start_filenum
    print end_filenum
    
    try:
        int(start_filenum)
    except:
        raise Exception("Start file number '%s' has bad format." % start_filenum)
    try:
        int(end_filenum)
    except:
        raise Exception("End file number '%s' has bad format." % end_filenum)
    output_src = output_basename + "_" + start_filenum + "-" + end_filenum + ".slcio"
    job.params.output_files[output_src] = output_src
else:
    output_src = job.params.output_files.keys()[0]
    
concat = LCIOConcat(inputs=input_files, outputs=[output_src])

job.components = [concat]
job.run()
Exemplo n.º 4
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#!/usr/bin/env python

from hpsmc.job import Job
from hpsmc.generators import EGS5
from hpsmc.run_params import RunParameters

# default params with 1.05 GeV beam params and 500 bunches of electrons
default_params = {"run_params": "1pt05", "bunches": 500}

job = Job(name="EGS5 beam_v5 job")
job.set_default_params(default_params)
job.initialize()

params = job.params

# generates a file called 'beam.stdhep'
egs5 = EGS5(name="beam_v5",
            bunches=params['bunches'],
            run_params=RunParameters(key=params['run_params']),
            outputs=["beam.stdhep"])

job.components = [egs5]

job.run()
Exemplo n.º 5
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                             outputs=["wab-beam_filter.slcio"],
                             event_interval=0,
                             enable_ecal_energy_filter=False,
                             args=["-a"])

# merge the files together
merge = LCIOTool(name="merge",
                 args=[
                     "-f", "tritrig_filter.slcio", "-f",
                     "wab-beam_filter.slcio", "-o", "merged.slcio"
                 ])

# run simulated events in readout to generate triggers
readout = JobManager(steering_resource=params.readout_steering,
                     java_args=["-DdisableSvtAlignmentConstants"],
                     run=params.run,
                     detector=params.detector,
                     inputs=["merged.slcio"],
                     outputs=["readout"])

# run physics reconstruction
recon = JobManager(steering_resource=params.recon_steering,
                   java_args=["-DdisableSvtAlignmentConstants"],
                   run=params.run,
                   detector=params.detector,
                   inputs=["readout.slcio"],
                   outputs=["tritrig-wab-beam"])

job.components = [filter_tritrig, filter_wab, merge, readout, recon]
job.run()
Exemplo n.º 6
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# unzip the LHE events to local file
unzip = Unzip(inputs=[filename + "_events.lhe.gz"])

# displace the time of decay using ctau param
displ = StdHepTool(name="lhe_tridents_displacetime",
                   inputs=[filename + "_events.lhe"],
                   outputs=[filename + ".stdhep"],
                   args=["-l", str(params['ctau'])])

# rotate events into beam coordinates and move vertex by 5 mm
rot = StdHepTool(name="beam_coords",
                 inputs=[filename + ".stdhep"],
                 outputs=[filename + "_rot.stdhep"],
                 args=["-z", str(params['z'])])

# print rotated AP events
dump = StdHepTool(name="print_stdhep", inputs=[filename + "_rot.stdhep"])

# define job components
job.components = [ap, unzip, displ, rot, dump]

# move final StdHep file to user-defined output file name if output_files is set in JSON params
if len(params.output_files):
    mv = MoveFiles(inputs=[filename + "_rot.stdhep"],
                   outputs=[params.output_files.keys()[0]])
    job.components.append(mv)

# run the job
job.run()
Exemplo n.º 7
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#!/usr/bin/env python

import os
from hpsmc.job import Job
from hpsmc.tools import LCIOCount

job = Job(name="LCIO count job")
job.initialize()

output_files = sorted(job.params.output_files.keys())
if len(output_files) < 1:
    raise Exception(
        "Not enough output files were provided (at least 1 required).")

nevents = job.params.nevents

count = LCIOCount(minevents=nevents, inputs=output_files)
job.components = [count]
job.enable_copy_output_files = False
job.run()
Exemplo n.º 8
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params = job.params
input_files = params.input_files

simp_files = []
for input_file in input_files:
    simp_files.append(input_file)

procname = "simp"

# insert empty bunches expected by pile-up simulation
filter_bunches = FilterMCBunches(java_args=["-DdisableSvtAlignmentConstants"],
                                 inputs=simp_files,
                                 outputs=[procname + "_filt.slcio"],
                                 ecal_hit_ecut=0.05,
                                 enable_ecal_energy_filter=True,
                                 nevents=2000000,
                                 event_interval=250)

# run simulated events in readout to generate triggers
readout = JobManager(steering_resource=params.readout_steering,
                     java_args=["-DdisableSvtAlignmentConstants"],
                     run=params.run,
                     detector=params.detector,
                     inputs=[procname + "_filt.slcio"],
                     outputs=[procname + "_readout"])

# run the job
job.components = [filter_bunches, readout]
job.run()
Exemplo n.º 9
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# sample wabs using poisson distribution
sample_wab = StdHepTool(
    name="merge_poisson",
    inputs=["wab_rot.stdhep"],
    outputs=["wab_sampled"],
    args=["-m", str(mu), "-N", "1", "-n",
          str(params['nevents'])])

# rotate beam background events into beam coordinates
rot_beam = StdHepTool(name="beam_coords",
                      inputs=["beam.stdhep"],
                      outputs=["beam_rot.stdhep"],
                      args=["-z", str(params['z'])])

# sample beam background events
sample_beam = StdHepTool(name="random_sample",
                         inputs=["beam_rot.stdhep"],
                         outputs=["beam_sampled"],
                         args=["-s", str(params['seed'])])

# merge beam and wab events
merge = StdHepTool(name="merge_files",
                   inputs=["beam_sampled_1.stdhep", "wab_sampled_1.stdhep"],
                   outputs=["wab-beam.stdhep"])

# run the job
job.components = [
    stdhep_cnv, rot_wab, sample_wab, rot_beam, sample_beam, merge
]
job.run()
Exemplo n.º 10
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                                 enable_ecal_energy_filter=True,
                                 nevents=2000000,
                                 event_interval=250)

# run simulated events in readout to generate triggers
readout = JobManager(steering_resource=params.readout_steering,
                     java_args=["-DdisableSvtAlignmentConstants"],
                     run=params.run,
                     detector=params.detector,
                     inputs=[filename + "_filt.slcio"],
                     outputs=[filename + "_readout"])

# run physics reconstruction
recon = JobManager(steering_resource=params.recon_steering,
                   java_args=["-DdisableSvtAlignmentConstants"],
                   run=params.run,
                   detector=params.detector,
                   inputs=[filename + "_readout.slcio"],
                   outputs=[filename + "_recon"])

# count output recon events
count = LCIOTool(name="count", args=["-f", filename + "_recon.slcio"])

# define job components
job.components = [
    ap, unzip, displ, rot, dump, slic, filter_bunches, readout, recon, count
]

# run the job
job.run()
from hpsmc.job import Job
from hpsmc.tools import JobManager

job = Job(name="Job Manager Test")
job.initialize()
params = job.params

mgr = JobManager(steering_file=params.steering_file, inputs=params.input_files)
job.components = [mgr]
job.run()
Exemplo n.º 12
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from hpsmc.job import Job
from hpsmc.tools import SLIC, JobManager, FilterMCBunches

job = Job(name="simp job")
job.initialize()

params = job.params
input_files = params.input_files

simp_files = []
for input_file in input_files:
    simp_files.append(input_file)

procname = "simp"
# run physics reconstruction
recon = JobManager(
    steering_resource=params.recon_steering,
    java_args=["-DdisableSvtAlignmentConstants"],
    defs={
        "detector": params.detector,
        "run": params.run
    },
    #inputs=[procname+"_readout.slcio"],
    inputs=simp_files,
    outputs=[procname + "_recon"])

# run the job
job.components = [recon]
job.run()