def tick(self):
""" advance the clock by one second """
previous_hour = self._hours
# super().tick()
Clock.tick(self)
if (self._hours < previous_hour):
self.advance()
def now(cls, clock=None, zone=None):
if clock is None and zone is None:
return cls.now(Clock.system_default_zone())
elif zone is None:
return cls.now(Clock.system(zone))
else:
now = clock.instant()
offset = clock.getZone().getRules().getOffset(now)
return cls.of_epoch_second(now.get_epoch_second(), now.get_nano(), offset)
def handle_ticktock_to_next_update(force):
t = res_manager.get_next_update_time()
if t < 0:
return False
else:
if force:
while Clock.get() < t:
Clock.tick()
return handle_ticktock(1)
else:
return handle_ticktock(t - Clock.get())
class System(object):
def reset(self, seed=None):
self.feq = FutureEventsQueue()
self.clock = Clock()
self.stats = Stats()
if seed is not None:
random.seed(seed)
self.initialize()
def update_averages(self, overall_stats):
for stat in self.stats:
overall_stats.add(stat, self.stats.get(stat))
def run(self, trials, duration, seed=None):
overall_stats = Stats()
for i in range(trials):
self.reset(seed)
while self.feq.has_events():
event = self.feq.next_event()
self.clock.update(event.time)
if self.clock.has_run(duration):
break
self.update()
self.handle(event)
self.finalize()
self.update_averages(overall_stats)
print "Completed trial %d/%d" % (i+1, trials)
print
return overall_stats
def schedule_event(self, event):
""" Convenience function """
self.feq.schedule_event(event)
def initialize(self):
""" System-specific variables are initialized here and the
first event is scheduled """
pass
def update(self):
""" Anything that must be updated every single iteration
regardless of event type goes here
"""
pass
def handle(self, event):
""" Updating of system state and stats, and scheduling of next event
should go here """
pass
def finalize(self):
""" All final calculations go here before the stats object is
returned """
pass
def main():
database = Database()
alarmLog = AlarmLog()
summarizer = Summarizer(database, alarmLog)
clock = Clock(summarizer)
alarmWriter = AlarmWriter(summarizer)
driver1 = Driver(1, summarizer)
clock.start()
alarmWriter.start()
driver1.start()
sleep(1000)
def __init__(self,screen,bgcolor):
screenHeight = screen.get_height()
screenWidth = screen.get_width()
targetHeight = HDMIClock.defaultHeight * screenHeight
Clock.__init__(self,targetHeight,HDMIClock.defaultColor)
width = self.clockFace.get_width()
height = self.clockFace.get_height()
self.dimensions = pygame.Rect((screenWidth-width)/2,(screenHeight-height)/2,width,height)
self.screen = screen
self.bgcolor = bgcolor
def tick_or_tock():
global __on_tick
if not __on_tick:
res_manager.changed_res_set.clear()
res_manager.run_timer()
__on_tick = True
if len(__clock_tick_event_receiver) > 0:
for receiver in __clock_tick_event_receiver:
notify_id = sky_client.write((RECEIVER, "Event", receiver),fill_content_id=True)
#sky_client.take(template=(TARGET, notify_id, '?'))
else:
res_manager.run_listener()
Clock.tick()
report()
__on_tick = False
def run_timer():
clk = Clock.get()
if clk not in timers:
return
callback_list = timers[clk]
for callback in callback_list:
callback()
def __init__(self, speed, *groups):
BackgroundObject.__init__(self, (0, 0), speed, *groups)
self.image = pygame.image.load('gfx/terrain/example_editor.png').convert_alpha()
self.rect = pygame.Rect((0, app.screen_height - self.image.get_height()),
(0, 0))
self.clock = Clock()
def reset(self, seed=None):
self.feq = FutureEventsQueue()
self.clock = Clock()
self.stats = Stats()
if seed is not None:
random.seed(seed)
self.initialize()
def get_next_update_time():
while len(timers) > 0:
t = min(timers)
if t < Clock.get():
timers.pop(t, None)
else:
return t
return -1
def clockinit(args):
POL = GPIO("480", "out")
CLK = GPIO("481", "out")
clock = Clock(CLK, POL)
statestore = StateStore(clock)
statestore.restore()
nvramstore = NVRAMStore(clock)
if args.require_nvram and not nvramstore.restore():
print("Cannot read clock state from the NVRAM. Exiting...")
sys.exit(1)
if args.invert:
clock.inverse = True
if args.uninvert:
clock.inverse = False
if args.state:
clock.setState(args.state)
return (clock, statestore, nvramstore)
def run(self):
"""Method that starts the game running."""
timeController = Clock(self.S_TURN)
self.isRunning = True
while self.isRunning:
# start turn
timeController.start()
leftTime = self.S_TURN
#TODO think if input should be processed inside the inner loop
# process user input to Game
self.iMngr.processUserInput(self)
#isRunning = not self.iMngr.closedGame()
while timeController.time_left() > self.S_UPDATE:
#sync with remote
self.nMngr.updateGame(self)
# update state of the game
self.uMngr.updateGame(self)
#newState = self.readState()
#self.world.update(newState)
# play sounds
self.sMngr.updateGame(self)
# render
self.gMngr.draw(timeController.time_left(), self)
#self.worldView.draw()
# sleep if necessary
timeController.sleep()
def report_xml(file_name="report.xml", clock=-1):
cur = Clock.get()
if clock < 0:
clock += cur
content = E.content(clock=str(clock))
for name in pool:
value = str(pool.get(name).get_value(clock))
content.insert(0, E.feature(E.name(name), E.currentValue(value)))
with open(file_name, "w") as fout:
fout.write(tostring(content, encoding='utf-8', xml_declaration=True, pretty_print=True))
def get_value(self, clock=-1):
cur = Clock.get()
if clock < 0:
clock = cur + clock
if clock > cur or clock < 0:
return None
for item in reversed(self.value):
if item[0] <= clock:
return item[1]
def get_value(value, v):
if utils.is_callable(value):
return value()
elif value == "$self":
return v
elif value == "$clock":
return Clock.get()
elif utils.is_string(value) and value.startswith("$"):
return res_manager.get(value[1:])
else:
return value
class BackgroundImage(BackgroundObject):
def __init__(self, speed, *groups):
BackgroundObject.__init__(self, (0, 0), speed, *groups)
self.image = pygame.image.load('gfx/terrain/example_editor.png').convert_alpha()
self.rect = pygame.Rect((0, app.screen_height - self.image.get_height()),
(0, 0))
self.clock = Clock()
def update(self):
delta_y = round(self.clock.frame_span() * self.speed / 1000)
self.rect.move_ip(0, delta_y)
class System(object):
def reset(self, seed=None):
self.feq = FutureEventsQueue()
self.clock = Clock()
self.stats = Stats()
if seed is not None:
random.seed(seed)
self.initialize()
def run(self, duration, seed=None):
self.reset(seed)
while self.feq.has_events():
event = self.feq.next_event()
self.clock.update(event.time)
if self.clock.has_run(duration):
break
self.update()
self.handle(event)
return self.stats
def schedule_event(self, event):
""" Convenience function """
self.feq.schedule_event(event)
def initialize(self):
""" System-specific variables are initialized here and the
first event is scheduled """
pass
def update(self):
""" Anything that must be updated every single iteration
regardless of event type goes here
"""
pass
def handle(self, event):
""" Updating of system state and stats, and scheduling of next event
should go here """
pass
def __init__(self, aSize):
self.disc = Disc()
self.memory = MainMemory(aSize)
self.memoryManager = ContinuousAssignment(LogicalMemory(self.memory),self)
self.handler = InterruptionHandler(self)
self.cpu = Cpu(self.memoryManager,self.handler)
self.scheduler = Scheduler(self.cpu)
self.clock = Clock()
self.IO = io.IO(self)
self.clock.addSuscribed(self.cpu)
self.clock.addSuscribed(self.IO)
self.clock.addSuscribed(self.handler)
#tabla que contiene todos los pcb (k,v) => (pid,pcb)
self.table = {}
def __init__(self):
self.clock = Clock()
self.logger = logging.getLogger('mats')
self.accepting_new_quote = True
self.accepting_new_trade = True
self.ticker_handlers = {
'incomplete_read': self.incomplete_read_handler,
'ssl_error': self.ssl_error_handler,
'unknown_error': self.unknown_error_handler,
'connected': self.connected_handler,
'new_quote': self.new_quote_handler,
'new_trade': self.new_trade_handler,
'empty_watchlist': self.empty_watchlist_handler
}
class BackgroundObject(pygame.sprite.Sprite):
def __init__(self, pos, speed, *groups):
pygame.sprite.Sprite.__init__(self, *groups)
self.rect = pygame.Rect(pos, (0, 0))
self.speed = speed
self.clock = Clock()
def update(self):
delta_y = round(self.clock.frame_span() * self.speed / 1000)
self.rect.move_ip(0, delta_y)
if self.rect.top >= app.screen_height:
self.kill()
del self
def left(self): return self.rect.left
def right(self): return self.rect.right
def top(self): return self.rect.top
def bottom(self): return self.rect.bottom
def get_value_history(self):
values = self.value
clk = Clock.get()
ret = [None] * clk
if values is None or len(values) == 0:
return
idx = 0
pre_value = None
for time, value in values:
while idx < time:
ret[idx] = pre_value
idx += 1
pre_value = value
if time < clk:
ret[time] = value
while idx < clk:
ret[idx] = pre_value
idx += 1
return ret
def activate(self, ev):
""" Instantiate the components and clock for the mode.
The event passed in argument contains data sent by the previous mode.
For example, the LevelTransitionMode sends a GameStart event
containing the next level number to the GameMode. This way, the GameMode
knows which level to instantiate. The GameMode sends a GameWon event
containing the score to the LevelTransitionMode so that it can be
displayed.
Small drawback: to keep the code generic, ALL the components are given
in argument the mode's EM and the event. Some components may not need
the event, but we can't know in advance, so we pass it anyway.
"""
em = self.em
self.active_components = [comp(em, ev) for comp in self.components]
self.clock = Clock(em)
self.clock.start() # returns when the clock is turned off, ie transition or quit
self.em.clear() # this removes the clock and MSM from the EM subscribers
self.active_components = [] # last ref to component instances is lost
self.clock = None
def main(srvHost, srvPort):
w = dict()
em = EventManager()
nm = NetworkManager(em, w)
FRAME_TIME = 0.2 # 200 ms
c = Clock(FRAME_TIME)
c.start()
slept_time = 0.0
nm.start(srvHost, srvPort)
counter = 100
exit = False
while not exit:
nm.update(slept_time + c.time_passed())
counter -= 1
if counter <= 0:
exit = True
slept_time = c.time_left()
c.sleep()
print "%s" % (counter * FRAME_TIME)
def main():
cliMngr = ClientManager()
clock = Clock(FRAMETIME)
clock.start()
while True:
state = '{"team":[[10,10]],[[10,20]]}'
# check if there are new clients trying to conect
cliMngr.receive_connections()
# send game state to all clients
cliMngr.broadcast(state)
# read clients input while we can
timeout = clock.time_left()
cliMngr.read_incoming_msgs(timeout)
# drop clients that are not responsive
cliMngr.check_clients_liveness()
clock.sleep()
def start (self):
"""Creates the socket and starts the threads"""
try:
self.piglow = PiGlow ()
except IOError as e:
if e[0] == errno.EACCES:
print >> sys.stderr, "Permission denied, try running as root"
else:
print >> sys.stderr, "Unknown error accessing the PiGlow"
sys.exit (1)
self.piglow.all (0)
self.clock = Clock (self.piglow)
self.alert = Alert (self.piglow)
self.in_progress = In_Progress (self.piglow)
address = (self.cfg.HOST, self.cfg.PORT)
serversock = socket (AF_INET, SOCK_STREAM)
serversock.setsockopt (SOL_SOCKET, SO_REUSEADDR, 1)
serversock.bind (address)
serversock.listen (5)
self.check_jobs_thread = Thread (None, self.check_jobs, None, ())
self.socket_manager_thread = Thread (None, self.socket_manager, None, (serversock, ))
self.start_threads ()
while self.running == True:
sleep (1)
self.stop ()
def test_clocks_with_negative_hours_and_minutes(self):
self.assertEqual(Clock(7, 32), Clock(-12, -268))
class TheLoop:
def __init__(self):
self.clock = Clock()
self.logger = logging.getLogger('mats')
self.accepting_new_quote = True
self.accepting_new_trade = True
self.ticker_handlers = {
'incomplete_read': self.incomplete_read_handler,
'ssl_error': self.ssl_error_handler,
'unknown_error': self.unknown_error_handler,
'connected': self.connected_handler,
'new_quote': self.new_quote_handler,
'new_trade': self.new_trade_handler,
'empty_watchlist': self.empty_watchlist_handler
}
def loop(self):
self.ticker_p, self.ticker_conn = self.launch_ticker()
while True:
self.loop_iter()
def loop_iter(self):
if not self.clock.is_market_open():
self.logger.info('theloop: market is closed. killing ticker.')
self.ticker_p.terminate()
# block until ticker child has time to exit
while self.ticker_p.is_alive():
pass
# now go to sleep
self.go_to_sleep()
elif not self.ticker_p.is_alive():
self.ticker_p, self.ticker_conn = self.launch_ticker()
if self.ticker_conn.poll():
data = self.ticker_conn.recv()
self.ticker_handlers[data.name](data)
def ticker(self, conn):
ticker = Ticker(conn)
ticker.start()
def launch_ticker(self):
self.logger.info('theloop: spawning ticker child process')
parent, child = Pipe()
p = Process(target=self.ticker, name='ticker', args=(child,))
p.start()
return (p, parent)
def incomplete_read_handler(self, data):
self.logger.error('theloop: ticker had incompleteread error, attempting to respawn ticker.')
self.ticker_p, self.ticker_conn = self.launch_ticker()
def ssl_error_handler(self, data):
self.logger.error('theloop: ticker had ssl_error, attempting to respawn ticker.')
self.ticker_p, self.ticker_conn = self.launch_ticker()
def unknown_error_handler(self, data):
self.logger.error('theloop: ticker had an unknown error, attempting to respawn ticker.')
self.ticker_p, self.ticker_conn = self.launch_ticker()
def connected_handler(self, event):
self.logger.info('theloop: ticker connected to stream')
def go_to_sleep(self):
secs = self.clock.secs_until_open()
time_slept = time.time()
self.logger.info('theloop: sleeping for ' + str(secs) + ' seconds.')
time.sleep(secs)
secs_asleep = time.time() - time_slept
self.logger.info('theloop: waking up after ' + str(secs_asleep) + ' seconds')
self.logger.info('theloop: attempting to respawn ticker.')
self.ticker_p, self.ticker_conn = self.launch_ticker()
def new_quote_handler(self, event):
self.logger.debug('theloop: ticker reports new quote')
def new_trade_handler(self, event):
self.logger.debug('theloop: ticker reports new trade')
def empty_watchlist_handler(self, event):
self.logger.info('theloop: exiting.')
exit(0)
def test_clocks_an_hour_apart(self):
self.assertNotEqual(Clock(14, 37), Clock(15, 37))
def test_clocks_with_hour_overflow_by_several_days(self):
self.assertEqual(Clock(3, 11), Clock(99, 11))
def test_clocks_with_negative_hour(self):
self.assertEqual(Clock(22, 40), Clock(-2, 40))
def test_clocks_with_negative_hour_that_wraps_multiple_times(self):
self.assertEqual(Clock(13, 49), Clock(-83, 49))
def test_subtract_more_than_two_days(self):
self.assertEqual(str(Clock(2, 20) - 3000), '00:20')
def test_sixty_minutes_is_next_hour(self):
self.assertEqual(str(Clock(1, 60)), '02:00')
def test_hour_rolls_over_continuously(self):
self.assertEqual(str(Clock(100, 0)), '04:00')
def test_hour_rolls_over(self):
self.assertEqual(str(Clock(25, 0)), '01:00')
def test_full_clock_and_zeroed_clock(self):
self.assertEqual(Clock(24, 0), Clock(0, 0))
def test_clocks_with_negative_hours_and_minutes_that_wrap(self):
self.assertEqual(Clock(18, 7), Clock(-54, -11513))
def test_minutes_roll_over_continuously(self):
self.assertEqual(str(Clock(0, 1723)), '04:43')
def test_clocks_with_negative_minute_that_wraps(self):
self.assertEqual(Clock(4, 10), Clock(5, -1490))
def test_subtract_more_than_two_hours(self):
self.assertEqual(str(Clock(0, 0) - 160), '21:20')
def test_clocks_with_minute_overflow(self):
self.assertEqual(Clock(0, 1), Clock(0, 1441))
def test_clocks_with_negative_hour_that_wraps(self):
self.assertEqual(Clock(17, 3), Clock(-31, 3))
def test_past_the_hour(self):
self.assertEqual(str(Clock(11, 9)), '11:09')
def test_subtract_across_midnight(self):
self.assertEqual(str(Clock(0, 3) - 4), '23:59')
def test_clocks_a_minute_apart(self):
self.assertNotEqual(Clock(15, 36), Clock(15, 37))
def test_clocks_with_hour_overflow(self):
self.assertEqual(Clock(10, 37), Clock(34, 37))
class Kernel:
def __init__(self, aSize):
self.disc = Disc()
self.memory = MainMemory(aSize)
self.memoryManager = ContinuousAssignment(LogicalMemory(self.memory),self)
self.handler = InterruptionHandler(self)
self.cpu = Cpu(self.memoryManager,self.handler)
self.scheduler = Scheduler(self.cpu)
self.clock = Clock()
self.IO = io.IO(self)
self.clock.addSuscribed(self.cpu)
self.clock.addSuscribed(self.IO)
self.clock.addSuscribed(self.handler)
#tabla que contiene todos los pcb (k,v) => (pid,pcb)
self.table = {}
def getLogicalMemory(self):
return self.logicalMemory
def getMemoryManager(self):
return self.memoryManager
def getDisc(self):
return self.disc
def getCpu(self):
return self.cpu
def getMemory(self):
return self.memory
def getMemoryManager(self):
return self.memoryManager
def getHandler(self):
return self.handler
def getIO(self):
return self.IO
def getClock(self):
return self.clock
def getScheduler(self):
return self.scheduler
def getTable(self):
return self.table
#Comienza con la ejecucion del clock
def startUp(self):
self.getClock().startUp()
#Corta la ejecucion del clock
def shutDown(self):
self.getClock().shutDown()
def run(self, name):
print "[Kernel] Ejecutar programa: " + str(name)
self.handler.newIrq(name)
#Obtiene todos los programas del disco
def getProgramasDelDisco(self, name):
return self.getDisc().getProgram(name)
#Agrega el pcb en la table
def addPcb(self,aPcb):
self.table[aPcb.getPid()] = aPcb
print "LALALALAAAAA " + str(len(self.table))
#Borra el pcb en la table
def removePcb(self,aPcb):
#guardo las keys para tener una lista
#y ver si la tabla de pcb esta vacia o no
keys = self.table.keys()
if(len(keys) != 0):
del self.table[aPcb.getPid()]
print "RERERERERER " + str(len(self.table))
def test_midnight_is_zero_hours(self):
self.assertEqual(str(Clock(24, 0)), '00:00')
def test_clocks_with_negative_minute(self):
self.assertEqual(Clock(2, 40), Clock(3, -20))
def test_subtract_more_than_one_day(self):
self.assertEqual(str(Clock(5, 32) - 1500), '04:32')
def test_clocks_with_negative_minute_that_wraps_multiple_times(self):
self.assertEqual(Clock(6, 15), Clock(6, -4305))
def get(data, return_type=None):
if type(data) is not dict or "method" not in data:
if return_type is None:
return data
elif return_type == "lambda":
return lambda: data
else:
return None
method = data["method"]
parameter = data["parameter"]
if method.startswith(MATH_PREFIX):
if method == METHOD_MATH_ADD:
a = get(parameter["a"])
b = get(parameter["b"])
method = lambda value: get_value(a, value) + get_value(b, value)
elif method == METHOD_MATH_DIVISION:
a = get(parameter["a"])
b = get(parameter["b"])
method = lambda value: get_value(a, value) / get_value(b, value)
elif method == METHOD_MATH_MINUS:
a = get(parameter["a"])
b = get(parameter["b"])
method = lambda value: get_value(a, value) - get_value(b, value)
elif method == METHOD_MATH_MULTIPLY:
a = get(parameter["a"])
b = get(parameter["b"])
method = lambda value: get_value(a, value) * get_value(b, value)
elif method == METHOD_MATH_MOD:
a = get(parameter["a"])
b = get(parameter["b"])
method = lambda value: get_value(a, value) % get_value(b, value)
elif method == METHOD_MATH_LINEAR:
a = get(parameter["a"])
b = get(parameter["b"])
x = get(parameter["x"])
method = lambda value: get_value(a, value) * get_value(x, value) + get_value(b, value)
elif method == METHOD_MATH_SIN:
a = get(parameter["a"])
b = get(parameter["b"])
x = get(parameter["x"])
method = lambda value: get_value(a, value) * math.sin(get_value(x, value)) + get_value(b, value)
elif method == METHOD_MATH_LOG:
a = get(parameter["a"])
b = get(parameter["b"])
x = get(parameter["x"])
method = lambda value: get_value(a, value) * math.log(get_value(x, value)) + get_value(b, value)
elif method == METHOD_MATH_MEAN:
terms = parameter["term"]
method = lambda value: 1.0 * sum([get_value(term, value) for term in terms]) / len(terms)
elif method == METHOD_MATH_SUM:
terms = parameter["term"]
#print terms
method = lambda value: sum([get_value(term, value) for term in terms])
else:
print "not support method:", method
elif method.startswith(PROBABILITY_PREFIX):
if method == METHOD_PROBABILITY_MARKOV_CHAIN:
state_set = parameter["state_set"]
init_state = parameter["init_state"]
trans_matrix = parameter["trans_matrix"]
method = lambda value: markov_chain(value, state_set, init_state, trans_matrix)
elif method == METHOD_PROBABILITY_NORMAL_VARIATE_RAND:
mu = get(parameter["mu"])
sigma = get(parameter["sigma"])
method = lambda value: normalvariate(get_value(mu, value), get_value(sigma, value))
elif method == METHOD_PROBABILITY_SIMPLE_RAND:
min_value = get(parameter["min"])
max_value = get(parameter["max"])
method = lambda value: randint(get_value(min_value, value), get_value(max_value, value))
else:
print "not support method:", method
else:
if method == METHOD_OTHERS_COMBINE:
sections = parameter["section"]
# print "sections:", sections
method = lambda value: dict((section, get_value(section, value)) for section in sections)
elif method == METHOD_OTHERS_DATA_LIST:
data_list = parameter["data_list"]
method = lambda value: data_list[Clock.get() % len(data_list)]
else:
print "not support method:", method
return method
def test_subtract_more_than_two_hours_with_borrow(self):
self.assertEqual(str(Clock(6, 15) - 160), '03:35')
def test_hour_and_minutes_roll_over(self):
self.assertEqual(str(Clock(25, 160)), '03:40')
def test_clocks_with_minute_overflow_by_several_days(self):
self.assertEqual(Clock(2, 2), Clock(2, 4322))
def __init__(self, pos, speed, *groups): pygame.sprite.Sprite.__init__(self, *groups) self.rect = pygame.Rect(pos, (0, 0)) self.speed = speed self.clock = Clock()
def test_hour_and_minutes_roll_over_continuously(self):
self.assertEqual(str(Clock(201, 3001)), '11:01')
def test_minutes_roll_over(self):
self.assertEqual(str(Clock(0, 160)), '02:40')
def test_clocks_with_same_time(self):
self.assertEqual(Clock(15, 37), Clock(15, 37))
