def test2(self):
"read events and check them"
from mccomponents.detector.reduction_utils import readevents
evts = readevents(eventfilename)
self.assertEqual(len(evts), 1)
evt = evts[0]
longpixelID, tofchannel, probability = evt
self.assertEqual(longpixelID,
pixelID + npixels * (tubeID + ntubes * (packID)))
self.assertEqual(tofchannel, int((neutronT - tofmin) / tofstep))
self.assertEqual(probability, prob)
return
def test2(self):
"read events and check them"
from mccomponents.detector.reduction_utils import readevents
evts = readevents(eventfilename)
self.assertEqual(len(evts), 1)
evt = evts[0]
longpixelID, tofchannel, probability = evt
self.assertEqual(longpixelID, pixelID + npixels * (tubeID + ntubes * (packID)))
self.assertEqual(tofchannel, int((neutronT - tofmin) / tofstep))
self.assertEqual(probability, prob)
return
def main():
from sim_params import instrument, tofparams, eventsdat, Idpt_filename as filename
from mccomponents.detector.reduction_utils import readevents
events = readevents(eventsdat)
Idpt = events2Idpt(events, instrument, tofparams)
#save to file
import os
if os.path.exists(filename): os.remove(filename)
import histogram.hdf as hh
hh.dump(Idpt, filename, '/', 'c')
return
def main():
from sim_params import instrument, tofparams, eventsdat, Idpt_filename as filename
from mccomponents.detector.reduction_utils import readevents
events = readevents( eventsdat )
Idpt = events2Idpt( events, instrument, tofparams )
#save to file
import os
if os.path.exists(filename): os.remove( filename )
import histogram.hdf as hh
hh.dump( Idpt, filename, '/', 'c' )
return
def test1a(self):
from mccomponents.detector.reduction_utils import readevents
events = readevents( outfilename )
n = len(events)
print "number of cases where absorption happen: ", n
self.assert_( abs(n-(nevents*absorption_weight)) < 3*N.sqrt(n) )
p = sum([ e[2] for e in events ] )
print "absorbed neutrons: ", p
self.assert_( abs( p-(nevents*0.91) ) < 3*N.sqrt(p) )
t = L/vi
tchannel = int( (t-tmin)/tstep )
for e in events:
# should hit center of tube
self.assert_( abs(e[0] - (npixelsperdet*((packindexat0+0.5)*ndetsperpack)) ) <= 1 )
# tof channel
self.assert_( abs(e[1] - tchannel) <= 1 )
continue
return
def test1a(self):
"simple. one detector -- verify"
from mccomponents.detector.reduction_utils import readevents
events = readevents( 'events.dat' )
n = len(events)
self.assert_( abs(n-(nevents*absorption_weight)) < 3*N.sqrt(n) )
p = sum([ e[2] for e in events ] )
# print "%s should be almost equalt to %s" % (p, nevents*absorption_probability)
self.assert_( abs( p-(nevents*absorption_probability) ) < 3*N.sqrt(p) )
# self.assert_( abs( p-(nevents*0.908484) ) < 3*N.sqrt(p) )
t = L/vi
tchannel = int( (t-tmin)/tstep )
for e in events:
# should hit center of tube
self.assert_( abs(e[0] - (npixels/2)) <= 1 )
self.assertEqual( e[1], tchannel )
#
continue
return
def test1a(self):
from mccomponents.detector.reduction_utils import readevents
events = readevents(outfilename)
n = len(events)
print "number of cases where absorption happen: ", n
self.assert_(abs(n - (nevents * absorption_weight)) < 3 * N.sqrt(n))
p = sum([e[2] for e in events])
print "absorbed neutrons: ", p
self.assert_(abs(p - (nevents * 0.91)) < 3 * N.sqrt(p))
t = L / vi
tchannel = int((t - tmin) / tstep)
for e in events:
# should hit center of tube
self.assert_(
abs(e[0] - (npixelsperdet *
((packindexat0 + 0.5) * ndetsperpack))) <= 1)
# tof channel
self.assert_(abs(e[1] - tchannel) <= 1)
continue
return
