Exemplo n.º 1
0
def test(duration = 0):
    objSched = Sched()
    objSched.add_thread(robin("Thread 1"))
    objSched.add_thread(robin("Thread 2"))
    objSched.add_thread(robin("Thread 3"))
    if duration:
        objSched.add_thread(stop(duration, objSched))       # Kill after a period
    objSched.run()
Exemplo n.º 2
0
def test(duration = 0):
    if duration:
        print("Test LCD display for {:3d} seconds".format(duration))
    objSched = Sched()
    lcd0 = LCD(PINLIST, objSched, cols = 16)
    objSched.add_thread(lcd_thread(lcd0))
    if duration:
        objSched.add_thread(stop(duration, objSched))
    objSched.run()
Exemplo n.º 3
0
def test(duration = 0):
    if duration:
        print("Output accelerometer values for {:3d} seconds".format(duration))
    else:
        print("Output accelerometer values")
    objSched = Sched()
    objSched.add_thread(accelthread())
    if duration:
        objSched.add_thread(stop(duration, objSched))           # Run for a period then stop
    objSched.run()
Exemplo n.º 4
0
def test(duration = 0):
    if duration:
        print("Flash LED's for {:3d} seconds".format(duration))
    leds = [pyb.LED(x) for x in range(1,5)]                 # Initialise all four on board LED's
    objSched = Sched()                                      # Instantiate the scheduler
    for x in range(4):                                      # Create a thread instance for each LED
        objSched.add_thread(toggle(leds[x], 0.2 + x/2))
    if duration:
        objSched.add_thread(stop(duration, objSched))       # Commit suicide after specified no. of seconds
    objSched.run()                                          # Run it!
Exemplo n.º 5
0
def test():
    mtx = Pin(14, Pin.OUT) # Define passive pins
    mckout = Pin(15, Pin.OUT, value = 0) # clocks must be initialised to zero. Pin 15 has pulldown
    mrx = Pin(13, Pin.IN)
    mckin = Pin(12, Pin.IN) # add 10K pulldown

    objsched = Sched()
    with SynCom(objsched, True, mckin, mckout, mrx, mtx) as channel:
        objsched.add_thread(passive_thread(channel))
        objsched.run()
Exemplo n.º 6
0
def test(duration = 0):                                     # Runs oscillator, counts interrupts, responds to switches
    if duration:
        print("Test interrupt on pin X8 for {:3d} seconds".format(duration))
    objSched = Sched()                                      # Requires jumper between pins X7 and X8
    objSched.add_thread(oscillator(1))                      # 1Hz
    objSched.add_thread(irqtest_thread())
    Switch(objSched, 'X5', open_func = x5print, open_func_args = ("Red",)) # X5 triggers on open
    Switch(objSched, 'X6', x6print, ("Yellow",))            # X6 triggers on close
    if duration:
        objSched.add_thread(stop(duration, objSched))
    objSched.run()
Exemplo n.º 7
0
def test():
    stx = Pin(Pin.board.Y5, Pin.OUT_PP)         # Define pins
    sckout = Pin(Pin.board.Y6, Pin.OUT_PP)
    sckout.value(0) # Don't assert clock until data is set
    srx = Pin(Pin.board.Y7, Pin.IN)
    sckin = Pin(Pin.board.Y8, Pin.IN)

    objsched = Sched(heartbeat = 1)
    with SynCom(objsched, False, sckin, sckout, srx, stx) as channel:
        objsched.add_thread(initiator_thread(channel))
        objsched.run()
def test(duration = 0):                                   # responds to switches
    if duration:
        print("Tests pushbuttons for {:5d} seconds".format(duration))
    else:
        print("Tests pushbuttons")
    objSched = Sched()
    Pushbutton(objSched, 'X5', descriptor, 
        false_func = x5print, false_func_args = ("Red",))   # X5 triggers on open
    Pushbutton(objSched, 'X6', descriptor, 
        true_func = x6print, true_func_args = ("Yellow",),
        long_func = yellowlong, long_func_args = ("Long press",),
        double_func = yellowdbl, double_func_args = ("Double click",)) # X6 triggers on close
    if duration:
        objSched.add_thread(stop(duration, objSched))
    objSched.run()
Exemplo n.º 9
0
def test(duration):
    assert duration >= 1, 'Duration must be at least one second'
    print('Running test for {} seconds'.format(duration))
    objSched = Sched()
    leds = [pyb.LED(x) for x in range(1,5)]                 # Initialise all four on board LED's
    for x in range(4):                                      # Create a thread instance for each LED
        objSched.add_thread(toggle(leds[x], 0.2 + x/2))
#    objSched.add_thread(robin("Thread 1"))      # Instantiate a few threads
#    objSched.add_thread(robin("Thread 2"))
#    objSched.add_thread(robin("Thread 3"))
    lstResult = [0, 0]
    objSched.add_thread(thr_instrument(objSched, lstResult))
    objSched.add_thread(instrument(objSched, 0.1, duration))
    objSched.run()
    print("Maximum roundrobin yield delay was {:6.1f}mS".format(lstResult[0]/1000.0))
    print("Thread thr_instrument was executed {:3d} times in {:3d} seconds {:5d}Hz".format(lstResult[1], duration, lstResult[1]//duration))
Exemplo n.º 10
0
def test():
    # setup uart object to pass
  #  output = pyb.UART(1, 4800)
    # generate objects
    OB = output_buffer()
    compassthread = compass.cthread(OB)
#    mpu_i2c = compass.i2c_object
    pyb.delay(100)
    othread = outputthread(OB)#, test=True)
    objSched=Sched()
#    objSched.add_thread(seatalkthread(OB))
    objSched.add_thread(compassthread)
#    objSched.add_thread(NASAWindThread(OB))
#    objSched.add_thread(NASADepthThread(OB))
#    pyb.delay(100)
#    objSched.add_thread(barometerthread(OB))#i2c_object=mpu_i2c))
    objSched.add_thread(othread)
    objSched.run()
Exemplo n.º 11
0
def test():
    objSched = Sched()
    lcd0 = LCD(PINLIST, objSched, cols=24)
    objSched.add_thread(slave(lcd=lcd0))
    objSched.run()
Exemplo n.º 12
0
def test():
    print("Demonstration of subthreads")
    objSched = Sched()
    objSched.add_thread(waitforit(objSched))                 # Test of one thread waiting on another
    objSched.run()
Exemplo n.º 13
0
imu = MPU9150('X')                # Attached to 'X' bus, 1 device, disable interruots

fuse = Fusion()

def waitfunc():
    yield from wait(0.1)

def lcd_thread(mylcd, imu, sw):
    if sw.value() == 1:
        mylcd[0] = "Calibrate. Push switch"
        mylcd[1] = "when done"
        yield from wait(0.1)
        fuse.calibrate(imu.mag.xyz, lambda : not sw.value(), waitfunc)
        print(fuse.magbias)
    mylcd[0] = "{:5s}{:5s} {:5s}".format("Yaw","Pitch","Roll")
    count = 0
    while True:
        yield from wait(0.02) # imu updates at 50Hz
        count += 1
        if count % 25 == 0:
            mylcd[1] = "{:4.0f} {:4.0f}  {:4.0f}".format(fuse.heading, fuse.pitch, fuse.roll)
        fuse.update(imu.accel.xyz, imu.gyro.xyz, imu.mag.xyz)
# For 6DOF sensors
#        fuse.update_nomag(imu.get_accel(), imu.get_gyro())

objSched = Sched()
lcd0 = LCD(PINLIST, objSched, cols = 24) # Should work with 16 column LCD
objSched.add_thread(lcd_thread(lcd0, imu, switch))
objSched.run()
Exemplo n.º 14
0
def test():
    print("Demonstration of subthreads")
    objSched = Sched()
    objSched.add_thread(
        waitforit(objSched))  # Test of one thread waiting on another
    objSched.run()
Exemplo n.º 15
0
        gpio23.value(not gpio23.value())
        yield 1

def connected():
    global client
    client = MQTTClient(CLIENT_ID, 'q.emqtt.com', port=1883, keepalive=20)
    will_msg = {'id': CLIENT_ID, 'status': False, 'msg': 'The connection from this device is lost:('}
    client.set_last_will('/device/will/status', json.dumps(will_msg))
    client.set_callback(on_message)
    client.connect()
    client.subscribe('/device/12345/switch', 0)
    client.subscribe('/device/4567/switch', 0)     

def run():
    wlan = network.WLAN(network.STA_IF)
    wlan.active(True)
    wlan.connect('HUAWEI', '0000000000')
    while not wlan.isconnected():
        print('.')
        time.sleep(.5)
    print(wlan.ifconfig())
    connected()
   
print('WIFI config...')
run()
objSched = Sched()
objSched.add_thread(mqtt_loop())
objSched.add_thread(display())
objSched.add_thread(blink())
objSched.run()