def leave(self):
"""
Gets the end time of the state (logs current time)
"""
# ignore leave call if not active
if self._following_may_run or not self._active:
return
self.claim_exceptions()
self._leave_time = clock.now()
self._following_may_run = True
if self._parent:
clock.schedule(partial(self._parent.child_leave_callback, self))
# call custom leave code
self._leave()
if self.__tracing:
call_time = self._leave_time - self._exp._root_state._start_time
call_duration = clock.now() - self._leave_time
if self._end_time is None:
self.print_trace_msg(
"LEAVE time=%fs, duration=%fs, perpetual" %
(call_time, call_duration))
else:
end_time = self._end_time - self._exp._root_state._start_time
self.print_trace_msg(
"LEAVE time=%fs, duration=%fs, end_time=%fs" %
(call_time, call_duration, end_time))
def _callback(self):
# we've started
self._started = True
# send the code
global have_parallel
if have_parallel:
# send the port code and time it
try:
# Create a parallel port object (locks it exclusively)
self._pport = parallel.Parallel(port=self._port)
start_time = clock.now()
self._pport.setData(self._code_num)
end_time = clock.now()
except: # eventually figure out which errors to catch
sys.stderr.write("\nWARNING: The parallel module could not send pulses,\n" +
"\tso no sync pulsing will be generated.\n\n")
have_parallel = False
self._pport = None
self._pulse_on = None
self._pulse_off = None
self._ended = True
clock.schedule(self.leave)
clock.schedule(self.finalize)
return
# set the pulse time
time_err = (end_time - start_time)/2.
self._pulse_on = event_time(start_time+time_err,
time_err)
# schedule leaving (as soon as this method is done)
clock.schedule(self.leave)
# schedule the off time
if self._width > 0.0:
# we're gonna turn off ourselves
clock.schedule(self._pulse_off_callback,
event_time=self._pulse_on['time']+self._width)
else:
# we're gonna leave it
self._pulse_off = None
# clean up/ close the port
self._pport = None
# so we can finalize now, too
clock.schedule(self.finalize)
self._ended = True
else:
# we can leave and finalize now
self._pulse_on = None
self._pulse_off = None
self._ended = True
clock.schedule(self.leave)
clock.schedule(self.finalize)
def finalize(self): #TODO: call a _finalize method?
if not self._active:
return
self._finalize_time = clock.now()
self._active = False
if self.__save_log:
self.save_log()
if self._parent:
clock.schedule(partial(self._parent.child_finalize_callback, self))
if self.__tracing:
call_time = self._finalize_time - self._exp._root_state._start_time
call_duration = clock.now() - self._finalize_time
self.print_trace_msg("FINALIZE time=%fs, duration=%fs" %
(call_time, call_duration))
def FindNextChange():
ts = []
@autostart
def src():
ts.append((yield 1)) # t0
ts.append((yield 1)) # t1
ts.append((yield 2)) # t2
ts.append((yield 2)) # t3
ts.append((yield 2)) # t4
ts.append((yield 3)) # t5
t0 = clock.now()
t1 = t0 + timedelta(seconds=1)
t2 = t0 + timedelta(seconds=2)
t3 = t0 + timedelta(seconds=3)
t4 = t0 + timedelta(seconds=4)
t5 = t0 + timedelta(seconds=5)
t6 = t0 + timedelta(seconds=6)
g = find_next_change(src())
t, v = g.next()
assert v == 1
assert t0 <= t <= t1, (t0, t, t1)
assert ts == [t], ts
t, v = g.next()
assert v == 2, v
assert t1 <= t <= t3
assert ts[-1] == t
t, v = g.next()
assert v == 3
assert t4 <= t <= t6
assert ts[-1] == t
def _callback(self):
if self._server is not None:
if type(self._push_val) != list:
self._server.push_sample([self._push_val])
else:
self._server.push_sample(self._push_val)
self._push_time = clock.now()
def _pulse_off_callback(self):
# turn off the code
start_time = clock.now()
self._pport.setData(0)
end_time = clock.now()
# clean up / close the port
self._pport = None
# set the pulse time
time_err = (end_time - start_time)/2.
self._pulse_off = event_time(start_time+time_err,
time_err)
# let's schedule finalizing
self._ended = True
clock.schedule(self.finalize)
def _start_recording(self):
self.__rec = pyo.Record(pyo.Input(),
filename=self._filename,
chnls=2,
fileformat=0,
sampletype=1,
buffering=16)
self._rec_start = clock.now()
def _pulse_off_callback(self):
self._task.write([0.0])
ev = clock.now()
# set the pulse time
self._pulse_off = event_time(ev, 0.0)
# let's schedule finalizing
self._ended = True
clock.schedule(self.finalize)
def _callback(self):
id_strs = [
"file: %r" % self._instantiation_filename,
"line: %d" % self._instantiation_lineno
]
if self._name is not None:
id_strs.append("name: %s" % self._name)
lag = clock.now() - self._start_time
print "DEBUG (%s) - lag=%fs" % (", ".join(id_strs), lag)
for name, value in self._kwargs.iteritems():
print " %s: %r" % (name, value)
def _pulse_off_callback(self):
# turn off the code
if self._sync_style == "parallel":
start_time = clock.now()
self._sport.setData(0)
end_time = clock.now()
else:
start_time = clock.now()
self._sport.setData("0")
end_time = clock.now()
# clean up / close the port
self._sport = None
# set the pulse time
time_err = (end_time - start_time) / 2.
self._pulse_off = event_time(start_time + time_err, time_err)
# let's schedule finalizing
self._ended = True
clock.schedule(self.finalize)
def find_next_change(g, timeout=30):
t = clock.now()
v = g.send(t)
while True:
yield t, v
prev = v
dt = 0
while v == prev and dt < timeout:
dt += 1
t += timedelta(seconds=1)
v = g.send(t)
def print_traceback(self, child=None, t=None):
# Use the current time, if none is provided.
if t is None:
t = clock.now()
if self._parent is None:
# If we are the root of the state tree, print the header.
print " SMILE Traceback:"
else:
# Otherwise, let our parent print its traceback first.
self._parent.print_traceback(self, t)
# Get a string for the parenthesized state name, or an empty string if
# the state has no custom name...
if self._name is None:
name_spec = ""
else:
name_spec = " (%s)" % self._name
# Nested function to format time values as strings...
def tstr(tm):
if (isinstance(tm, dict) and
len(tm) == 2 and
"time" in tm and "error" in tm):
if tm["error"] is None:
error = ""
else:
error = ", error=%fs" % tm["error"]
tm = tm["time"]
else:
error = ""
if type(tm) not in (float, int):
return repr(tm)
offset = t - tm
if offset < 0.0:
return "%fs from now%s" % (-offset, error)
else:
return "%fs ago%s" % (offset, error)
# Print traceback state header.
print " %s%s - file: %s, line: %d" % (
type(self).__name__,
name_spec,
self._instantiation_filename,
self._instantiation_lineno)
# Print out log attributes...
for attr_name in self._log_attrs:
value = val(getattr(self, attr_name))
if attr_name.endswith("_time"):
print " %s: %s" % (attr_name, tstr(value))
else:
print " %s: %r" % (attr_name, value)
def enter(self, start_time):
self.claim_exceptions()
self._start_time = start_time
self._enter_time = clock.now()
self._leave_time = None
self._finalize_time = None
self.__original_state.__most_recently_entered_clone = self
# say we're active
self._active = True
self._following_may_run = False
if self._parent:
clock.schedule(partial(self._parent.child_enter_callback, self))
# if we don't have the exp reference, get it now
if self._exp is None:
from experiment import Experiment
self._exp = Experiment._last_instance()
for name, value in self.__dict__.items():
if name[:6] == "_init_":
setattr(self, name[5:], val(value))
if self._duration is None:
self._end_time = None
else:
self._end_time = self._start_time + self._duration
# custom enter code
self._enter()
if self.__tracing:
call_time = self._enter_time - self._exp._root_state._start_time
call_duration = clock.now() - self._enter_time
start_time = self._start_time - self._exp._root_state._start_time
self.print_trace_msg(
"ENTER time=%fs, duration=%fs, start_time=%fs" %
(call_time, call_duration, start_time))
def rise_and_set(lat, lon, horizon=0):
sun = Sun()
date = None
while True:
loc = Observer()
loc.horizon = str(horizon)
loc.lat = str(lat)
loc.lon = str(lon)
loc.date = clock.now()
#if date:
# loc.date = date
#loc.date = loc.date.datetime().date() # strip time
t_rise = loc.next_rising(sun)
t_set = loc.next_setting(sun)
#date = yield localtime(t_rise), localtime(t_set)
yield localtime(t_rise), localtime(t_set)
def update(self):
self.claim_exceptions()
now = clock.now()
if self.__initial_params is None:
self.__initial_params = {
name : getattr(self.__target_clone, name).eval() for
name in self.__anim_params.iterkeys()}
if self._end_time is not None and now >= self._end_time:
clock.unschedule(self.update)
clock.schedule(self.finalize)
now = self._end_time
t = now - self._start_time
params = {name : func(t, self.__initial_params[name]) for
name, func in
self.__anim_params.iteritems()}
self.__target_clone.live_change(
**self.__target_clone.transform_params(
self.__target_clone.apply_aliases(params)))
def update(self):
self.claim_exceptions()
now = clock.now()
if self.__initial_params is None:
self.__initial_params = {
name: getattr(self.__target_clone, name).eval()
for name in self.__anim_params.iterkeys()
}
if self._end_time is not None and now >= self._end_time:
clock.unschedule(self.update)
clock.schedule(self.finalize)
now = self._end_time
t = now - self._start_time
params = {
name: func(t, self.__initial_params[name])
for name, func in self.__anim_params.iteritems()
}
self.__target_clone.live_change(**self.__target_clone.transform_params(
self.__target_clone.apply_aliases(params)))
def phase(d0, d1, curve, r0, r1):
"""Coroutine mapping domain (d0,d1) to range (r0,r1), allowing func to alter the curve."""
if isinstance(d0, (datetime, time)):
d0 = datetime2hours(d0)
if isinstance(d1, (datetime, time)):
d1 = datetime2hours(d1)
if d1 < d0:
d1 += 24.
t = yield
while True:
if t is None:
t = clock.now()
h = t.hour + t.minute / 60. + t.second / 3600.
if h < d0:
h += 24.
if not d0 <= h <= d1:
return
f0 = (h - d0) / (d1 - d0)
f1 = curve.send(f0)
t = yield int(0.5 + r0 + f1 * (r1 - r0))
def _callback(self):
# we've started
self._started = True
# push it outlet
global _got_nidaqmx
if _got_nidaqmx:
if type(self._push_vals == list):
self._task.write(self._push_vals)
else:
self._task.write([self.push_vals])
ev = clock.now()
else:
self._pulse_on = None
self._pulse_off = None
self._ended = True
clock.schedule(self.leave)
clock.schedule(self.finalize)
return
# set the pulse time
self._pulse_on = event_time(ev, 0.0)
# schedule leaving (as soon as this method is done)
clock.schedule(self.leave)
# schedule the off time
if self._width > 0.0:
# we're gonna turn off ourselves
clock.schedule(self._pulse_off_callback,
event_time=self._pulse_on['time'] + self._width)
else:
# we're gonna leave it
self._pulse_off = None
# so we can finalize now, too
clock.schedule(self.finalize)
self._ended = True
def _start_recording(self):
self.__rec = pyo.Record(
pyo.Input(), filename=self._filename, chnls=2, fileformat=0,
sampletype=1, buffering=16)
self._rec_start = clock.now()
def _stop_recording(self):
if self.__rec is not None:
self.__rec.stop()
self._rec_stop = clock.now()
self.__rec = None
def _start_sound(self):
self.__snd.out()
self._sound_start_time = clock.now()
def _stop_sound(self):
if self.__snd is not None:
self.__snd.stop()
self._sound_stop_time = clock.now()
self.__snd = None
def _start_sound(self):
self.__sine.out()
self.__fader.play()
self._sound_start_time = clock.now()
def _stop_sound(self):
if self.__fader is not None:
self.__fader.stop()
self._sound_stop_time = clock.now()
self.__fader = None
self.__sine = None
def _start_sound(self):
self.__sine.out()
self.__fader.play()
self._sound_start_time = clock.now()
def _stop_recording(self):
if self.__rec is not None:
self.__rec.stop()
self._rec_stop = clock.now()
self.__rec = None
def _callback(self):
# we've started
self._started = True
# Pull in the global variables
global PI
global SI
if PI or SI:
# send the port code and time it
try:
if self._sync_style == "parallel":
# Create a parallel port object
# from the global variable (locks it exclusively)
self._sport = PI(address=self._port)
start_time = clock.now()
self._sport.setData(self._code_num)
end_time = clock.now()
elif self._sync_style == "serial":
self._sport = SI(address=self._port)
start_time = clock.now()
self._sport.setData(self._code_num)
end_time = clock.now()
except: # eventually figure out which errors to catch
sys.stderr.write("\nWARNING: The sync module could not send pulses,\n" +
"\tso no sync pulsing will be generated.\n\n")
PI = None
self._pport = None
self._pulse_on = None
self._pulse_off = None
self._ended = True
clock.schedule(self.leave)
clock.schedule(self.finalize)
return
# set the pulse time
time_err = (end_time - start_time)/2.
self._pulse_on = event_time(start_time+time_err,
time_err)
# schedule leaving (as soon as this method is done)
clock.schedule(self.leave)
# schedule the off time
if self._width > 0.0:
# we're gonna turn off ourselves
clock.schedule(self._pulse_off_callback,
event_time=self._pulse_on['time']+self._width)
else:
# we're gonna leave it
self._pulse_off = None
# clean up/ close the port
self._sport = None
# so we can finalize now, too
clock.schedule(self.finalize)
self._ended = True
else:
# we can leave and finalize now
self._pulse_on = None
self._pulse_off = None
self._ended = True
clock.schedule(self.leave)
clock.schedule(self.finalize)
def dispatch(scheduler, observer):
try:
t = observer.send(clock.now())
except StopIteration:
return
add_timer(t, scheduler, observer)
def _callback(self):
# we've started
self._started = True
# Pull in the global variables
global PI
global SI
if PI or SI:
# send the port code and time it
try:
if self._sync_style == "parallel":
# Create a parallel port object
# from the global variable (locks it exclusively)
self._sport = PI(address=self._port)
start_time = clock.now()
self._sport.setData(self._code_num)
end_time = clock.now()
elif self._sync_style == "serial":
self._sport = SI(address=self._port)
start_time = clock.now()
self._sport.setData(self._code_num)
end_time = clock.now()
except: # eventually figure out which errors to catch
sys.stderr.write(
"\nWARNING: The sync module could not send pulses,\n" +
"\tso no sync pulsing will be generated.\n\n")
PI = None
self._pport = None
self._pulse_on = None
self._pulse_off = None
self._ended = True
clock.schedule(self.leave)
clock.schedule(self.finalize)
return
# set the pulse time
time_err = (end_time - start_time) / 2.
self._pulse_on = event_time(start_time + time_err, time_err)
# schedule leaving (as soon as this method is done)
clock.schedule(self.leave)
# schedule the off time
if self._width > 0.0:
# we're gonna turn off ourselves
clock.schedule(self._pulse_off_callback,
event_time=self._pulse_on['time'] + self._width)
else:
# we're gonna leave it
self._pulse_off = None
# clean up/ close the port
self._sport = None
# so we can finalize now, too
clock.schedule(self.finalize)
self._ended = True
else:
# we can leave and finalize now
self._pulse_on = None
self._pulse_off = None
self._ended = True
clock.schedule(self.leave)
clock.schedule(self.finalize)
def _stop_sound(self):
if self.__fader is not None:
self.__fader.stop()
self._sound_stop_time = clock.now()
self.__fader = None
self.__sine = None
def _stop_sound(self):
if self.__snd is not None:
self.__snd.stop()
self._sound_stop_time = clock.now()
self.__snd = None
def fourth_age(shire_time=None):
return ((shire_time or clock.now()) - FALL_OF_SAURON).total_seconds()
def _callback(self):
if self._socket is not None:
self._rtn = self._socket.send(self._msg)
self._send_time = clock.now()
def manually_controlled_recently(self):
state = self._tap_sensor.info()["state"]
lastupdated = datetime.strptime(state["lastupdated"], "%Y-%m-%dT%H:%M:%S") # UTC, #FIXME
return state["buttonevent"] in [BUTTON2, BUTTON4] and lastupdated > clock.now() - timedelta(hours=6)
def _callback(self):
if type(self._push_val) != list:
self._server.push_sample([self._push_val], clock.now())
else:
self._server.push_sample(self._push_val, clock.now())
self._push_time = clock.now()
def _callback(self):
if self._socket is not None:
self._rtn = self._socket.send(self._msg)
self._send_time = clock.now()
def _start_sound(self):
self.__snd.out()
self._sound_start_time = clock.now()
