def run_shots(args):
uut = acq400_hapi.Acq400(args.uuts[0])
acq400_hapi.cleanup.init()
uut.s0.transient = 'POST=%d SOFT_TRIGGER=%d DEMUX=%d' % \
(args.post, 1 if args.trg == 'int' else 0, 1 if args.store==0 else 0)
if args.aochan == 0:
args.aochan = args.nchan
for sx in uut.modules:
uut.modules[sx].trg = '1,1,1' if args.trg == 'int' else '1,0,1'
if args.files != "":
work = awg_data.RunsFiles(uut, args.files.split(','), True)
else:
work = awg_data.RainbowGen(uut, args.aochan, args.awglen, True)
store = store_file
loader = work.load()
for ii in range(0, args.loop):
print("shot: %d" % (ii))
f = next(loader)
print("Loaded %s" % (f))
uut.run_oneshot()
if args.store:
print("read_chan %d" % (args.post * args.nchan))
rdata = uut.read_chan(0, args.post * args.nchan)
store(ii, rdata, args.nchan, args.post)
if args.wait_user:
input("hit return to continue")
def run_shots(args):
uut = acq400_hapi.Acq400(args.uuts[0])
acq400_hapi.cleanup.init()
if args.capture > 0:
uut.s0.transient = 'POST=%d SOFT_TRIGGER=%d' % \
(args.post, 1 if args.trg == 'int' else 0)
shot_controller = acq400_hapi.ShotController([uut])
for sx in uut.modules:
uut.modules[sx].trg = '1,1,1' if args.trg == 'int' else '1,0,1'
if args.files == "@ALLFULLSCALE":
work = awg_data.AllFullScale(uut, args.nchan, args.awglen)
elif args.files != "":
work = awg_data.RunsFiles(uut, args.files.split(','))
else:
work = awg_data.RainbowGen(uut, args.nchan, args.awglen)
for ii in range(0, args.loop):
print("shot: %d" % (ii))
for f in work.load():
print("Loaded %s" % (f))
if args.capture > 0:
shot_controller.run_shot(
soft_trigger=True if args.trg == 'int' else False)
else:
raw_input("hit return when done")
def run_shots(args):
uut = acq400_hapi.Acq400(args.uuts[0])
acq400_hapi.cleanup.init()
if args.plot:
plt.ion()
uut.s0.transient = 'POST=%d SOFT_TRIGGER=%d DEMUX=0' % \
(args.post, 1 if args.trg == 'int' else 0)
if args.aochan == 0:
args.aochan = args.nchan
for sx in uut.modules:
if args.trg == 'int':
uut.modules[sx].trg = '1,1,1'
else:
if args.trg.contains('falling'):
uut.modules[sx].trg = '1,0,0'
else:
uut.modules[sx].trg = '1,0,1'
if args.pulse != None:
work = awg_data.Pulse(uut, args.aochan, args.awglen, args.pulse.split(','))
elif args.files != "":
work = awg_data.RunsFiles(uut, args.files.split(','), run_forever=True)
else:
work = awg_data.RainbowGen(uut, args.aochan, args.awglen, run_forever=True)
# compensate gain ONLY Rainbow Case
if args.range != "default":
gain = 10/float(args.range.strip('V'))
print("setting work.gain {}".format(gain))
work.gain = gain
# Set range knobs, valid ALL data sources.
if args.range != "default":
for sx in uut.modules:
print("setting GAIN_ALL {}".format(args.range))
uut.modules[sx].GAIN_ALL = args.range
break
print("args.autorearm {}".format(args.autorearm))
loader = work.load(autorearm = args.autorearm)
for ii in range(0, args.loop):
print("shot: %d" % (ii))
if ii == 0 or not args.autorearm:
f = loader.next()
print("Loaded %s" % (f))
else:
if args.autorearm and ii+1 == args.loop:
# on the final run, drop out of autorearm mode.
# the final shot MUST be in ONCE mode so that the DMAC
# is freed on conclusion
for sx in uut.modules:
if uut.modules[sx].MODEL.startswith('AO'):
uut.modules[sx].playloop_oneshot = '1'
uut.run_oneshot()
print("read_chan %d" % (args.post*args.nchan))
rdata = uut.read_chan(0, args.post*args.nchan)
if args.store:
pltsup.store_file(ii, rdata, args.nchan, args.post)
if args.plot > 0 :
plt.cla()
plt.title("AI for shot %d %s" % (ii, "persistent plot" if args.plot > 1 else ""))
pltsup.plot(uut, args, ii, rdata)
if args.wait_user is not None:
args.wait_user()