def __call__(self, graph_view):
from mcviz.jet import cluster_jets, JetAlgorithms
from math import hypot
track_jets = self.options["tracks"]
if track_jets:
raise Exception("Unimplemented!")
def pselect(p):
return p.final_state and not p.invisible and (p.charge != 0 if track_jets else True)
final_state_particles = [p for p in graph_view.particles if pselect(p)]
jets = cluster_jets(final_state_particles, getattr(JetAlgorithms, self.options["algorithm"]))
print "Converted %i final state particles into %i jets" % (len(final_state_particles), len(jets))
def pt(jet):
return hypot(*jet.p[:2])
for i, jet in enumerate(sorted(jets, key=pt, reverse=True)):
print "Created jet: np=%2i, %r, %r" % (len(jet.particles), jet.p, jet.e)
if i >= self.options["n_max"]:
break
jet_start_vertices = set(p.start_vertex for p in jet.particles)
jet_end_vertices = set(p.end_vertex for p in jet.particles)
vs_summary = graph_view.summarize_vertices(jet_start_vertices)
ve_summary = graph_view.summarize_vertices(jet_end_vertices)
p_summary = graph_view.summarize_particles(jet.particles)
vs_summary.tag("jet")
ve_summary.tag("jet")
p_summary.tag("jet")
p_summary.tag("jet_{0:d}".format(i))
def __call__(self, graph_view):
from mcviz.jet import cluster_jets, JetAlgorithms
from math import hypot
track_jets = self.options["tracks"]
if track_jets:
raise Exception("Unimplemented!")
def pselect(p):
return p.final_state and not p.invisible and (p.charge != 0 if
track_jets else True)
final_state_particles = [p for p in graph_view.particles if pselect(p)]
jets = cluster_jets(final_state_particles,
getattr(JetAlgorithms, self.options["algorithm"]))
print "Converted %i final state particles into %i jets" % (
len(final_state_particles), len(jets))
def pt(jet):
return hypot(*jet.p[:2])
for i, jet in enumerate(sorted(jets, key=pt, reverse=True)):
print "Created jet: np=%2i, %r, %r" % (len(
jet.particles), jet.p, jet.e)
if i >= self.options["n_max"]:
break
jet_start_vertices = set(p.start_vertex for p in jet.particles)
jet_end_vertices = set(p.end_vertex for p in jet.particles)
vs_summary = graph_view.summarize_vertices(jet_start_vertices)
ve_summary = graph_view.summarize_vertices(jet_end_vertices)
p_summary = graph_view.summarize_particles(jet.particles)
vs_summary.tag("jet")
ve_summary.tag("jet")
p_summary.tag("jet")
p_summary.tag("jet_{0:d}".format(i))
def test_jet_algorithm():
"""
Performing a basic test of cluster_jets
"""
final_particles = get_final_state_particles()
jets = cluster_jets(final_particles)
print len(final_particles)
print len(jets)
def test_jet_algorithm():
"""
Performing a basic test of cluster_jets
"""
final_particles = get_final_state_particles()
jets = cluster_jets(final_particles)
print len(final_particles)
print len(jets)
def test_all_algorithms():
final_particles = get_final_state_particles()
from mcviz.jet import JetAlgorithms
for algname, alg in zip(JetAlgorithms._fields, JetAlgorithms):
try:
jets = cluster_jets(final_particles, alg)
except RuntimeError:
log.exception("Caught RuntimeError for algname=%s, continuing..", algname)
raise
def test_all_algorithms():
final_particles = get_final_state_particles()
from mcviz.jet import JetAlgorithms
for algname, alg in zip(JetAlgorithms._fields, JetAlgorithms):
try:
jets = cluster_jets(final_particles, alg)
except RuntimeError:
log.exception("Caught RuntimeError for algname=%s, continuing..",
algname)
raise
def tag_by_jet(graph_view):
from mcviz.jet import cluster_jets, JetAlgorithms
final_state_particles = [p for p in graph_view.particles if p.final_state]
jets = cluster_jets(final_state_particles, JetAlgorithms.antikt)
print "Converted %i final state particles into %i jets" % (len(final_state_particles), len(jets))
tagged = []
def pt(jet):
return hypot(*jet.p[:2])
for i, jet in enumerate(sorted(jets, key=pt, reverse=True)):
print "Created jet: np=%2i, %r, %r" % (len(jet.particles), jet.p, jet.e)
if i >= 5:
break
for particle in jet.particles:
particle.tags.add("jet%i" % i)
tagged.append(particle)
log.info("Tagged %i particles in %i jets" % (len(tagged), min(5, len(jets))))
def test_for_leaks():
"""
Leak testing cluster_jets
"""
final_particles = get_final_state_particles()
def get_refstate():
return getrefcount(final_particles), map(getrefcount, final_particles)
first_refstate = get_refstate()
for i in xrange(100):
jets = cluster_jets(final_particles)
# Two because getrefcount() has a reference.
assert getrefcount(jets) == 2
# If this list goes away the refcounts should be back to
# where they started.
del jets
# Check that we're not obviously leaking.
assert get_refstate() == first_refstate, "Leaking objects!"
def test_for_leaks():
"""
Leak testing cluster_jets
"""
final_particles = get_final_state_particles()
def get_refstate():
return getrefcount(final_particles), map(getrefcount, final_particles)
first_refstate = get_refstate()
for i in xrange(100):
jets = cluster_jets(final_particles)
# Two because getrefcount() has a reference.
assert getrefcount(jets) == 2
# If this list goes away the refcounts should be back to
# where they started.
del jets
# Check that we're not obviously leaking.
assert get_refstate() == first_refstate, "Leaking objects!"
def tag_by_jet(graph_view):
from mcviz.jet import cluster_jets, JetAlgorithms
final_state_particles = [p for p in graph_view.particles if p.final_state]
jets = cluster_jets(final_state_particles, JetAlgorithms.antikt)
print "Converted %i final state particles into %i jets" % (
len(final_state_particles), len(jets))
tagged = []
def pt(jet):
return hypot(*jet.p[:2])
for i, jet in enumerate(sorted(jets, key=pt, reverse=True)):
print "Created jet: np=%2i, %r, %r" % (len(
jet.particles), jet.p, jet.e)
if i >= 5:
break
for particle in jet.particles:
particle.tags.add("jet%i" % i)
tagged.append(particle)
log.info("Tagged %i particles in %i jets" %
(len(tagged), min(5, len(jets))))
def test_minimal():
cluster_jets([])
def test_minimal():
cluster_jets([])