class PFSim(Analyzer):
def __init__(self, *args, **kwargs):
super(PFSim, self).__init__(*args, **kwargs)
self.detector = CMS()
self.simulator = Simulator(self.detector, self.mainLogger)
self.is_display = self.cfg_ana.display
if self.is_display:
self.init_display()
def init_display(self):
self.display = Display(['xy','yz', 'ECAL_thetaphi', 'HCAL_thetaphi'])
self.gdetector = GDetector(self.detector)
self.display.register(self.gdetector, layer=0, clearable=False)
self.is_display = True
def process(self, event):
if self.is_display:
self.display.clear()
pfsim_particles = []
# import pdb; pdb.set_trace()
for ptc in event.gen_particles_stable:
if not math.isnan(ptc.pt()) and ptc.pt()>1.:
pfsimptc = pfsimparticle(ptc)
pfsim_particles.append(pfsimptc)
if self.cfg_ana.verbose:
print ptc
self.simulator.simulate( pfsim_particles )
if self.is_display:
self.display.register( GTrajectories(pfsim_particles), layer=1)
event.simparticles = sorted( pfsim_particles,
key = lambda ptc: ptc.e(), reverse=True)
event.particles = sorted( self.simulator.pfsequence.pfreco.particles,
key = lambda ptc: ptc.e(), reverse=True)
def init_display(self):
self.display = Display(['xy','yz', 'ECAL_thetaphi', 'HCAL_thetaphi'])
self.gdetector = GDetector(self.detector)
self.display.register(self.gdetector, layer=0, clearable=False)
self.is_display = True
def init_display(self):
self.display = Display(['xy', 'yz'])
self.gdetector = GDetector(self.detector)
self.display.register(self.gdetector, layer=0, clearable=False)
self.is_display = True
class PFSim(Analyzer):
'''Runs PAPAS, the PArametrized Particle Simulation.
Example configuration:
from heppy_fcc.analyzers.PFSim import PFSim
from heppy_fcc.fastsim.detectors.CMS import CMS
papas = cfg.Analyzer(
PFSim,
instance_label = 'papas',
detector = CMS(),
gen_particles = 'gen_particles_stable',
sim_particles = 'sim_particles',
rec_particles = 'rec_particles',
display = False,
verbose = False
)
detector: Detector model to be used.
gen_particles: Name of the input gen particle collection
sim_particles: Name extension for the output sim particle collection.
Note that the instance label is prepended to this name.
Therefore, in this particular case, the name of the output
sim particle collection is "papas_sim_particles".
rec_particles: Name extension for the output reconstructed particle collection.
Same comments as for the sim_particles parameter above.
display : Enable the event display
verbose : Enable the detailed printout.
'''
def __init__(self, *args, **kwargs):
super(PFSim, self).__init__(*args, **kwargs)
self.detector = self.cfg_ana.detector
self.simulator = Simulator(self.detector,
self.mainLogger)
self.simname = '_'.join([self.instance_label, self.cfg_ana.sim_particles])
self.recname = '_'.join([self.instance_label, self.cfg_ana.rec_particles])
self.is_display = self.cfg_ana.display
if self.is_display:
self.init_display()
def init_display(self):
self.display = Display(['xy','yz', 'ECAL_thetaphi', 'HCAL_thetaphi'])
self.gdetector = GDetector(self.detector)
self.display.register(self.gdetector, layer=0, clearable=False)
self.is_display = True
def process(self, event):
event.simulator = self
if self.is_display:
self.display.clear()
pfsim_particles = []
gen_particles = getattr(event, self.cfg_ana.gen_particles)
self.simulator.simulate( gen_particles )
pfsim_particles = self.simulator.ptcs
if self.is_display:
self.display.register( GTrajectories(pfsim_particles),
layer=1)
simparticles = sorted( pfsim_particles,
key = lambda ptc: ptc.e(), reverse=True)
particles = sorted( self.simulator.particles,
key = lambda ptc: ptc.e(), reverse=True)
setattr(event, self.simname, simparticles)
setattr(event, self.recname, particles)
class PFSim(Analyzer):
'''Runs PAPAS, the PArametrized Particle Simulation.
Example configuration:
from heppy_fcc.analyzers.PFSim import PFSim
from heppy_fcc.fastsim.detectors.CMS import CMS
papas = cfg.Analyzer(
PFSim,
instance_label = 'papas',
detector = CMS(),
gen_particles = 'gen_particles_stable',
sim_particles = 'sim_particles',
rec_particles = 'rec_particles',
display = False,
verbose = False
)
detector: Detector model to be used.
gen_particles: Name of the input gen particle collection
sim_particles: Name extension for the output sim particle collection.
Note that the instance label is prepended to this name.
Therefore, in this particular case, the name of the output
sim particle collection is "papas_sim_particles".
rec_particles: Name extension for the output reconstructed particle collection.
Same comments as for the sim_particles parameter above.
display : Enable the event display
verbose : Enable the detailed printout.
'''
def __init__(self, *args, **kwargs):
super(PFSim, self).__init__(*args, **kwargs)
self.detector = self.cfg_ana.detector
self.simulator = Simulator(self.detector, self.mainLogger)
self.simname = '_'.join(
[self.instance_label, self.cfg_ana.sim_particles])
self.recname = '_'.join(
[self.instance_label, self.cfg_ana.rec_particles])
self.is_display = self.cfg_ana.display
if self.is_display:
self.init_display()
def init_display(self):
self.display = Display(['xy', 'yz'])
self.gdetector = GDetector(self.detector)
self.display.register(self.gdetector, layer=0, clearable=False)
self.is_display = True
def process(self, event):
event.simulator = self
if self.is_display:
self.display.clear()
pfsim_particles = []
gen_particles = getattr(event, self.cfg_ana.gen_particles)
self.simulator.simulate(gen_particles)
pfsim_particles = self.simulator.ptcs
if self.is_display:
self.display.register(GTrajectories(pfsim_particles), layer=1)
simparticles = sorted(pfsim_particles,
key=lambda ptc: ptc.e(),
reverse=True)
particles = sorted(self.simulator.particles,
key=lambda ptc: ptc.e(),
reverse=True)
setattr(event, self.simname, simparticles)
setattr(event, self.recname, particles)
box.Draw('samel')
elif 'thetaphi' in projection:
pass
else:
raise ValueError('implement drawing for projection ' + projection )
class GDetector(object):
def __init__(self, description):
self.desc = description
self.elements = [GDetectorElement(elem) for elem in self.desc.elements.values()]
def draw(self, projection):
for elem in self.elements:
elem.draw(projection)
if __name__ == '__main__':
from ROOT import TCanvas, TH2F
from heppy_fcc.fastsim.detectors.CMS import CMS
from heppy_fcc.display.core import Display
cms = CMS()
gcms = GDetector(cms)
display = Display()
display.register(gcms, 0)
display.draw()
# display.register(gtraj,1)
def draw(self, projection):
for traj in self:
traj.draw(projection)
if __name__ == '__main__':
import math
from heppy_fcc.fastsim.detectors.CMS import CMS
from heppy_fcc.fastsim.simulator import Simulator
from heppy_fcc.fastsim.vectors import Point
from heppy_fcc.fastsim.toyevents import particles
from heppy_fcc.display.core import Display
from heppy_fcc.display.geometry import GDetector
cms = CMS()
simulator = Simulator(cms)
particles = list(
particles(5, 211, math.pi / 5., 4 * math.pi / 5., 10., 10.,
Point(0.5, 0.5, 0)))
simulator.simulate(particles)
display = Display()
gcms = GDetector(cms)
display.register(gcms, 0)
gtrajectories = GTrajectories(particles)
display.register(gtrajectories, 1)
display.draw()
detector = cms
logging.basicConfig(level='ERROR')
logger = logging.getLogger('Simulator')
logger.addHandler( logging.StreamHandler(sys.stdout) )
for i in range(1):
if not i%100:
print i
simulator = Simulator(detector, logger)
# particles = monojet([211, -211, 130, 22, 22, 22], math.pi/2., math.pi/2., 2, 50)
particles = [
# particle(211, math.pi/2., math.pi/2., 100),
particle(211, math.pi/2 + 0.5, 0., 20.),
# particle(130, math.pi/2., math.pi/2.+0., 100.),
particle(22, math.pi/2., math.pi/2.+0.0, 10.)
]
simulator.simulate(particles)
if display_on:
display = Display(['xy', 'yz',
'ECAL_thetaphi',
'HCAL_thetaphi'
])
gdetector = GDetector(detector)
display.register(gdetector, 0)
gtrajectories = GTrajectories(particles)
display.register(gtrajectories,1)
display.draw()
gtraj = TrajClass(ptc)
self.append(gtraj)
# display.register(gtraj,1)
def draw(self, projection):
for traj in self:
traj.draw(projection)
if __name__ == '__main__':
import math
from heppy_fcc.fastsim.detectors.CMS import CMS
from heppy_fcc.fastsim.simulator import Simulator
from heppy_fcc.fastsim.vectors import Point
from heppy_fcc.fastsim.toyevents import particles
from heppy_fcc.display.core import Display
from heppy_fcc.display.geometry import GDetector
cms = CMS()
simulator = Simulator(cms)
particles = list( particles(5, 211, math.pi/5., 4*math.pi/5.,
10., 10., Point(0.5,0.5,0)) )
simulator.simulate(particles)
display = Display()
gcms = GDetector(cms)
display.register(gcms, 0)
gtrajectories = GTrajectories(particles)
display.register(gtrajectories,1)
display.draw()