Python ptime.sleep函数代码示例

 def test_cancel(self):
     for i in xrange(5):
         self.task_m.add(Task(.1, self.callback_f, i))
     c_task = Task(.1, self.callback_f, 5)
     self.task_m.add(c_task)
     for i in xrange(6,10):
         self.task_m.add(Task(.1, self.callback_f, i))
     while True:
         task = self.task_m.consume_task()
         if task is None:
             break
         task.fire_callback()
     logger.debug('%s' % self.callback_order)
     assert self.callback_order == []
     ok_(not c_task.cancelled)
     c_task.cancel()
     ok_(c_task.cancelled)
     
     time.sleep(.1)
     while True:
         task = self.task_m.consume_task()
         if task is None:
             break
         task.fire_callbacks()
     logger.debug('%s' % self.callback_order)
     assert self.callback_order == [0,1,2,3,4,  6,7,8,9]

    def test_different_delay(self):
#         NOTICE: this test might fail if your configuration
#         (interpreter/processor) is too slow
        
        task_delays = (1, 1, 1, .5, 1, 1, 2, 1, 1, 1,
                       1, 1.5, 1, 1, 1, 1, .3)
                       
        expected_list = ([],
                         ['a', 16, 3, 'b'], #9 is cancelled
                         ['a', 0, 1, 2, 4, 5, 7, 8, 10, 12, 13, 15, 'c', 'b'],
                         ['a', 11, 'c', 'b'],
                         ['a', 6, 'c', 'b'],
            )
        tasks = [Task(delay, self.callback_f, i) \
                 for i, delay in enumerate(task_delays)]
        for task in tasks:
            self.task_m.add(task)

        for i, expected in enumerate(expected_list):
            while True:
                task = self.task_m.consume_task()
                if task is None:
                    break
                task.fire_callbacks()
            logger.debug('#: %d, result: %s, expected: %s' % (i,
                                              self.callback_order, expected))
            assert self.callback_order == expected
            self.callback_order = []
            self.task_m.add(Task(0, self.callback_f, 'a'))
            self.task_m.add(Task(.5, self.callback_f, 'b'))
            self.task_m.add(Task(1, self.callback_f, 'c'))
            time.sleep(.5)
            tasks[9].cancel() # too late (already fired) 
            tasks[14].cancel() # should be cancelled

    def test_capture(self):
        self.reactor.start_capture()
        ts1 = time.time()
        time.sleep(tc.TASK_INTERVAL/2)
        # out > DATAGRAM1 (main_loop)
        self.reactor.run_one_step()
        ts2 = time.time()
        incoming_datagram = Datagram(DATA1, tc.SERVER_ADDR)
        self.reactor.s.put_datagram_received(incoming_datagram)
        time.sleep(tc.TASK_INTERVAL/2)
        self.reactor.run_one_step() 
        # in < incoming_datagram (socket)
        # out > DATAGRAM3 (on_datagram_received)
        captured_msgs = self.reactor.stop_and_get_capture()

        eq_(len(captured_msgs), 3)
        for msg in  captured_msgs:
            print msg
        assert ts1 < captured_msgs[0][0] < ts2
        eq_(captured_msgs[0][1], tc.SERVER_ADDR)
        eq_(captured_msgs[0][2], True) #outgoing
        eq_(captured_msgs[0][3], DATA1)
        assert captured_msgs[1][0] > ts2
        eq_(captured_msgs[1][1], DATAGRAM1.addr)
        eq_(captured_msgs[1][2], False) #incoming
        eq_(captured_msgs[1][3], DATAGRAM1.data)
        assert captured_msgs[2][0] > captured_msgs[1][0]
        eq_(captured_msgs[2][1], DATAGRAM3.addr)
        eq_(captured_msgs[2][2], True) #outgoing
        eq_(captured_msgs[2][3], DATAGRAM3.data)

    def stop(self):
        self._lock.acquire()
        try:
            self.stop_flag = True
        finally:
            self._lock.release()

        time.sleep(self.task_interval)

 def test_get_expired_value(self):
     self.t.put(KEYS[0], PEERS[0])
     eq_(self.t.num_keys, 1)
     eq_(self.t.num_peers, 1)
     time.sleep(30)
     eq_(self.t.get(KEYS[0]), [])
     #eq_(self.t.num_keys, 0)
     eq_(self.t.num_peers, 0)

 def test_network_callback(self):
     self.client_r.sendto(DATA, tc.SERVER_ADDR)
     time.sleep(tc.TASK_INTERVAL)
     with self.lock:
         first_datagram = self.datagrams_received.pop(0)
         logger.debug('first_datagram: %s, %s' % (
                 first_datagram,
                 (DATA, tc.CLIENT_ADDR)))
         assert first_datagram, (DATA, tc.CLIENT_ADDR)

 def test_callback_list(self):
     self.task_m.add(Task(tc.TASK_INTERVAL/2,
                           [self._callback1, self._callback2],
                           1, 2))
     ok_(self.task_m.consume_task() is None)
     eq_(self.callback_order, [])
     time.sleep(tc.TASK_INTERVAL)
     self.task_m.consume_task().fire_callbacks()
     eq_(self.callback_order, [1,2])

 def test_recvfrom(self):
     self.r.start()
     r2 = ThreadedReactor()
     r2.listen_udp(tc.SERVER_ADDR[1], lambda x,y:None)
     logger.critical('TESTING: IGNORE CRITICAL MESSAGE')
     r2.sendto('z', tc.CLIENT_ADDR)
     # self.r will call recvfrom (which raises socket.error)
     time.sleep(tc.TASK_INTERVAL)
     ok_(not self.callback_fired)
     self.r.stop()

 def test_call_main_loop(self):
     time.sleep(tc.TASK_INTERVAL)
     # main_loop is called right away
     with self.lock:
         # FIXME: this assert fails sometimes!!!!
         eq_(self.main_loop_call_counter, 1)
     time.sleep(0.1 + tc.TASK_INTERVAL)
     with self.lock:
         # FIXME: this crashes when recompiling
         eq_(self.main_loop_call_counter, 2)

 def recvfrom(self, buffer_size):
     datagram_received = None
     for i in xrange(9):
         time.sleep(tc.TASK_INTERVAL / 10)
         with self.lock:
             if self.datagrams_received:
                 datagram_received = self.datagrams_received.pop(0)
         if datagram_received:
             return (datagram_received.data, datagram_received.addr)
     raise socket.timeout

    def test_sendto(self):
        logger.critical('TESTING: IGNORE CRITICAL MESSAGE')
        assert not self.main_loop_send_called
#        self.r.start()
        while not self.r.running:
            time.sleep(tc.TASK_INTERVAL)
        while not self.main_loop_send_called:
            time.sleep(tc.TASK_INTERVAL)
        assert self.r.s.error_raised
        assert self.r.running # reactor doesn't crashed

 def stop(self):
     """Stop the thread. It cannot be resumed afterwards????"""
     #with self._lock:
     self._lock.acquire()
     try:
         self.stop_flag = True
     finally:
         self._lock.release()
     # wait a little for the thread to end
     time.sleep(self.task_interval)

    def test_failed_join(self):
        self.lock = threading.RLock()
        self.reactor = ThreadedReactor(self._main_loop,
                                       tc.CLIENT_PORT,
                                       self._on_datagram_received,
                                       task_interval=tc.TASK_INTERVAL)
        self.reactor.s = _SocketMock(tc.TASK_INTERVAL)
#        self.reactor.start()
        self.reactor.call_asap(self._very_long_callback)
        time.sleep(tc.TASK_INTERVAL*2)
        assert_raises(Exception, self.reactor.stop)

 def test_on_datagram_received_callback(self):
     # This is equivalent to sending a datagram to reactor
     self.s.put_datagram_received(Datagram(DATA1, tc.SERVER_ADDR))
     datagram = Datagram(DATA1, tc.SERVER_ADDR)
     print "--------------", datagram, datagram.data, datagram.addr
     time.sleep(tc.TASK_INTERVAL * 1)
     with self.lock:
         datagram = self.datagrams_received.pop(0)
         print "popped>>>>>>>>>>>>>>>", datagram
         eq_(datagram.data, DATA1)
         eq_(datagram.addr, tc.SERVER_ADDR)

    def stop(self):#, stop_callback):
        """Stop the thread. It cannot be resumed afterwards"""

        self.running = False
        self.join(self.task_interval*20)
        if self.isAlive():
            logger.info('minitwisted thread still alive. Wait a little more')
            time.sleep(self.task_interval*20)
            self.join(self.task_interval*20)
        if self.isAlive():
            raise Exception, 'Minitwisted thread is still alive!'