def application(u_config):
no_debug()
# configure rtc with ntp time
settime(int(u_config['UTC_OFS']) * 60 * 60)
# convert counters
wakeup_period = int(u_config['WAKEUP_PERIOD']) * 1000
t1 = task1(priority=2, param1=u_config)
t2 = updater_task(priority=1)
task_list = [t1, t2]
r = rtos(s_table=schedule_table,
t_list=task_list) # configure OS wih static configuration
# timer 1 used to scheduled the first execution
tim = machine.Timer(1)
tim.init(period=2000,
mode=machine.Timer.ONE_SHOT,
callback=lambda t: r.scheduler_tick_call())
# timer 0 used for rtos schedule
tim = machine.Timer(0)
tim.init(period=wakeup_period,
mode=machine.Timer.PERIODIC,
callback=lambda t: r.scheduler_tick_call())
#print(r.task_list)
try:
r.start() # start OS
finally:
tim.deinit() # stop the timer
r.stop() # stop OS
print("Close all")
def __init__(self, initial_state="awake"):
# all possible states of the board.
# we give each state a reference to this state machine object so
# it can control the state machine's variables (e.g. remap button handlers) and
# it can call go_to_state to the next state.
self.states = {
"awake": AwakeState(state_machine=self),
"dance_party": DancePartyState(state_machine=self),
"searching_for_opponent":
SearchingForOpponentState(state_machine=self),
"simon_says_round_sync":
SimonSaysRoundSyncState(state_machine=self),
"simon_says_challenge":
SimonSaysChallengeState(state_machine=self),
"simon_says_guessing": SimonSaysGuessingState(state_machine=self),
"song_selection": SongSelectionState(state_machine=self),
}
# initialize hardware devices
self.wifi = WiFi()
self.wifi.on()
BUTTON_PINS = [27, 33, 15, 32]
self.buttons = [
Button(pin,
trigger=machine.Pin.IRQ_ANYEDGE,
debounce=10000,
acttime=10000) for pin in BUTTON_PINS
]
self.buzzer = Buzzer()
self.lights = Lights(sync_with_buzzer=self.buzzer)
self.quiet_lights = Lights()
# we need to setup timer #0 in extended mode to have more timers
self.tex = machine.Timer(0)
self.tex.init(mode=machine.Timer.EXTBASE)
self.state_change_timer = machine.Timer(1)
self.timer = machine.Timer(2)
self.current_state = None
self.next_state = None
self.callback_fn = self.callback
self.go_to_state(initial_state)
def __init__(self, p_Led, p_Period):
self.f_Led = machine.Pin(p_Led, machine.Pin.OUT)
self.f_Period = p_Period // 2
self.f_LedState = 0
self.f_Timer = machine.Timer(-1)
self.f_Led.on()
def __init__(self, aID: int, aTOut: int):
self._TOut = aTOut
self._Cnt = 0
self.Enable = True
self.Timer = machine.Timer(aID)
self.Start()
def callback(self,pin): irqs = machine.disable_irq() hasdata = self.mr() machine.enable_irq(irqs) if hasdata and not self.rxtimer: self.rxtimer = machine.Timer(1) self.rxtimer.init(mode=machine.Timer.ONE_SHOT, period=1,callback=self.real_decoder)
def __init__(self):
# Initialize the command socket
self.s = socket.socket(socket.AF_INET, socket.SOCK_DGRAM)
try:
self.s.bind(('', 4242))
except OSError:
print("Binding port error - ignoring")
# Initialize PWM
self.pwm_a = machine.PWM(machine.Pin(5))
self.pwm_b = machine.PWM(machine.Pin(4))
self.pwm_c = machine.PWM(machine.Pin(0))
self.pwm_d = machine.PWM(machine.Pin(14))
self.pwms = [self.pwm_a, self.pwm_b, self.pwm_c, self.pwm_d]
for pwm in self.pwms:
print("Initializing", pwm)
pwm.freq(100)
# Initialize security timer to shut off motors.
self.security_ticks = 0
self.sec_timer = machine.Timer(-1)
self.sec_timer.init(period=200,
mode=machine.Timer.PERIODIC,
callback=self.tick)
def pymet(wdt):
# Get result cause
reset_cause = machine.reset_cause()
print("Reset cause:", reset_cause)
watchdog = Watchdog(wdt, reset_cause)
# Initialise sensors
wind_pin = machine.Pin(WIND_ADC_PIN)
wind_sensor = WindSensor(wind_pin, 10)
ow_pin = machine.Pin(TEMP_ONEWIRE_PIN)
fan_pin = machine.Pin(TEMP_FAN_PIN, machine.Pin.OUT)
temperature_sensor = TemperatureSensor(ow_pin, fan_pin)
temperature_sensor.scan()
# Create sensor task
sensor_led = Led(BLUE_LED_PIN)
mqtt = MQTTClient("metsensor", MQTT_SERVER)
metsensor = MetSensor(temperature_sensor, wind_sensor, sensor_led, mqtt,
watchdog)
timer = machine.Timer(-1)
metsensor.start(timer)
print("Press CTRL-C to exit...")
try:
while 1:
time.sleep(1)
except KeyboardInterrupt:
timer.deinit()
return metsensor
def setup():
global led
global relays
from config import led_pin, relay1_pin, relay2_pin
try:
relays['relay1'] = machine.Signal(machine.Pin(relay1_pin,
machine.Pin.OUT),
invert=True)
except (OSError, ValueError):
print(b"Couldn't config pin {}".format(relay1_pin))
try:
relays['relay2'] = machine.Signal(machine.Pin(relay2_pin,
machine.Pin.OUT),
invert=True)
except (OSError, ValueError):
print(b"Couldn't config pin {}".format(relay2_pin))
connect_and_subscribe()
sensor_count = initOW(ow_pin)
if sensor_count > 0:
tim = machine.Timer(-1) # timer
startConv()
tim.init(period=300000,
mode=machine.Timer.PERIODIC,
callback=startConv) # 5 min
def init_timer(timer_id=3):
global timer
timer = machine.Timer(timer_id)
timer.init(period=1000, mode=machine.Timer.PERIODIC, callback=run_actions)
# def dd(*a, **k):
# print(a, k)
#
#
# def ddodd(*a, **k):
# print(a, k)
# return bool(a[1] % 2)
#
#
# def test_a():
# insert(PERIOD_MINUTE, range(0, PERIOD_MINUTE, 15), 'min_15s', dd)
# insert(PERIOD_HOUR, range(0, PERIOD_HOUR, 60), 'h_1m', dd)
#
#
# def test_b():
# from mcron import decorators
# insert(PERIOD_MINUTE, range(0, PERIOD_MINUTE, 5), 'd_run_times', decorators.run_times(3)(dd))
# insert(PERIOD_MINUTE, range(0, PERIOD_MINUTE, 5), 'd_successfully_run_times', decorators.successfully_run_times(3)(ddodd))
# insert(PERIOD_MINUTE, range(0, PERIOD_MINUTE, 5), 'd_call_counter', decorators.call_counter(dd))
#
# mcron.init_timer()
def sleep(self, msg=None):
""" never returns; puts the ESP into deep sleep."""
import machine
from sys import exit
from utime import sleep_ms
RESET_TIMEOUT = 120000 # 3 minutes in milliseconds
LOG_FILENAME = "./log.txt"
if msg is not None:
print(msg)
with open(LOG_FILENAME, 'a') as log_file:
log_file.write(msg + "\n")
if self._current_state['params']['sleep'] < 1:
# exit: stop the infinite loop of main & deep-sleep
print("Staying awake due to sleep parameter < 1.")
tim = machine.Timer(-1)
tim.init(period=RESET_TIMEOUT,
mode=machine.Timer.ONE_SHOT,
callback=lambda t: machine.reset())
exit(0)
print("Going to sleep for {0} seconds.".format(
self._current_state['params']['sleep']))
sleep_ms(self._current_state['params']['sleep'] << 10)
machine.reset()
def main(argv):
os.chdir("/")
try:
del_folder("/uhadabot")
except Exception:
print("FYI: did not find the uhadabot firmware folder on the ESP32.")
# Create a stub boot.py for MicroPython
os.remove("boot.py")
with open("boot.py", "w") as f:
f.write("""import machine
led_pin = machine.Pin(2, machine.Pin.OUT)
led_pin.off()
""")
reset_irq = machine.Timer(-1)
reset_irq.init(mode=machine.Timer.ONE_SHOT,
period=200,
callback=lambda t: machine.reset())
print("""
Now you can copy the latest firmware on your system to the Hadabot's ESP32
$ ampy --port /dev/<USB_PORT> put uhadabot
$ ampy --port /dev/<USB_PORT> put boot.py
Then press-release the "EN" button to reset the ESP32.
""")
def setup_conn(port, accept_handler):
global listen_s
listen_s = socket.socket()
listen_s.setsockopt(socket.SOL_SOCKET, socket.SO_REUSEADDR, 1)
ai = socket.getaddrinfo("0.0.0.0", port)
addr = ai[0][4]
listen_s.bind(addr)
listen_s.listen(1)
if accept_handler:
listen_s.setblocking(False)
def manage(*args):
global client_s
try:
if client_s and client_s.fileno() == -1:
client_s = None
uos.dupterm(None)
except:
pass
try:
accept_conn(listen_s)
except:
pass
global timer
timer = machine.Timer(0)
timer.init(period=2000, mode=1, callback=manage)
for i in (network.AP_IF, network.STA_IF):
iface = network.WLAN(i)
if iface.active():
print("WebREPL daemon started on ws://%s:%d" %
(iface.ifconfig()[0], port))
return listen_s
def __init__(self, text="Please Wait...", title=version.dialog_title):
self.window = ugfx.Container(30, 30,
ugfx.width() - 60,
ugfx.height() - 60)
self.window.show()
self.window.text(5, 10, title, ugfx.BLACK)
self.window.line(0, 30, ugfx.width() - 60, 30, ugfx.BLACK)
self.label = ugfx.Label(5,
40,
self.window.width() - 10,
ugfx.height() - 40,
text=text,
parent=self.window)
# Indicator to show something is going on
self.indicator = ugfx.Label(ugfx.width() - 100,
0,
20,
20,
text="...",
parent=self.window)
self.timer = machine.Timer(-1)
self.timer.init(period=2000,
mode=self.timer.PERIODIC,
callback=lambda t: self.indicator.visible(
not self.indicator.visible()))
def init():
gc.enable()
Status.init()
if not Config.init():
Config.factoryReset()
Config.init()
Wifi.init()
Leds.init()
Sensors.init()
Relays.init()
if Config.getParam("time", "ntp"):
i = 1
try:
while i < 5 and not ntpclient.settime(Config.getParam("time", "ntp"), Config.getParam("time", "offset")):
Status.log("Getting time from NTP... (%s)" % i)
i += 1
rtc = machine.RTC()
t = rtc.datetime()
except Exception:
t = utime.localtime(0)
else:
t = utime.localtime(0)
Status.log('Date: {:04d}.{:02d}.{:02d} {:02d}:{:02d}:{:02d}'.format(t[0], t[1], t[2], t[4], t[5], t[6]))
# Init timer
tim = machine.Timer(0)
tim.init(period=50, mode=machine.Timer.PERIODIC, callback=tick50mS())
def __init__(self, id=0, timeout=120, use_rtc_memory=True):
self._timeout = timeout / 10
self._counter = 0
self._timer = machine.Timer(id)
self._use_rtc_memory = use_rtc_memory
self._has_filesystem = False
self.init()
asyncio.get_event_loop().create_task(self._resetCounter())
if sys_vars.hasFilesystem():
self._has_filesystem = True
try:
with open("watchdog.txt", "r") as f:
if f.read() == "True":
logging.getLogger("WDT").warn("Reset reason: Watchdog")
except Exception as e:
print(e) # file probably just does not exist
try:
with open("watchdog.txt", "w") as f:
f.write("False")
except Exception as e:
logging.getLogger("WDT").error("Error saving to file: {!s}".format(e))
elif use_rtc_memory and platform == "esp8266":
rtc = machine.RTC()
if rtc.memory() == b"WDT reset":
logging.getLogger("WDT").critical("Reset reason: Watchdog")
rtc.memory(b"")
def __init__(self,
pin,
sampling_frequency=1,
use_soft_interrupt_irq=False,
use_soft_interrupt_timer=True,
sig_trigger=machine.Pin.IRQ_RISING,
pull_r=None):
"""
Scheduler is used for soft IRQ, unfortunately, on rp2 the deph is set to 8
which appears to make lose signals
"""
# Initialise rising edge detection
self.counter = 0
self.pin = pin
self.sig_handler = self.sig_secondary_handler
pin.init(machine.Pin.IN, pull_r)
if use_soft_interrupt_irq:
pin.irq(trigger=sig_trigger, handler=self.sig_primary_handler)
else:
pin.irq(trigger=sig_trigger, handler=self.sig_handler)
# Initialise timer interrupt for signal frequency computation
self.signal_frequency = 0
self.sampling_frequency = sampling_frequency
self.timer_handler = self.timer_secondary_handler
self.timer_device = machine.Timer()
if use_soft_interrupt_timer:
self.timer_device.init(freq=self.sampling_frequency,
mode=machine.Timer.PERIODIC,
callback=self.timer_primary_handler)
else:
self.timer_device.init(freq=self.sampling_frequency,
mode=machine.Timer.PERIODIC,
callback=self.timer_handler)
def __init__(self, id=0, timeout=120):
self._timeout = timeout / 10
self._counter = 0
self._timer = machine.Timer(id)
self.init()
asyncio.create_task(self._resetCounter())
""" Done in pysmartnode.main
def __init__(
self,
i2c: machine.I2C,
address: int = 0x40,
freq: int = 0x50,
min_us: int = 600,
max_us: int = 2400,
degrees: int = 180,
):
"""Initialize the servo driver from a given micropython machine.I2C
object and other parameters.
address - I2C address of the device
"""
self.period = 1000000 / freq
self.min_duty = self._us2duty(min_us)
self.max_duty = self._us2duty(max_us)
self._degrees = [degrees, degrees]
self.freq = freq
self.pca9685 = pca9685.PCA9685(i2c, address)
self.pca9685.freq(freq)
# Using timer 0 for interrupt-based movement
self.move_timer = machine.Timer(0)
self._move_data = None
self.is_moving = False
def init(onClick, onLeft, onRight):
global onClick_cb
onClick_cb = onClick
global onLeftScroll_cb
onLeftScroll_cb = onLeft
global onRightScroll_cb
onRightScroll_cb = onRight
click = machine.Pin(POTTI_S, machine.Pin.IN)
left = machine.Pin(POTTI_L, machine.Pin.IN)
right = machine.Pin(POTTI_R, machine.Pin.IN)
click.irq(trigger=Pin.IRQ_RISING, handler=clicked)
left.irq(trigger=Pin.IRQ_FALLING, handler=left_scrolled)
right.irq(trigger=Pin.IRQ_FALLING, handler=right_scrolled)
global redLED
global greenLED
global blueLED
redLED = machine.Pin(ENC_RED, machine.Pin.OUT)
greenLED = machine.Pin(ENC_GREEN, machine.Pin.OUT)
blueLED = machine.Pin(ENC_BLUE, machine.Pin.OUT)
redLED.on()
greenLED.on()
blueLED.on()
global PWMEncoder
if PWMEncoder:
timer = machine.Timer(0)
timer.init(period=1, mode=machine.Timer.PERIODIC,
callback=tick_cb) #1ms
def __init__(self, checkInterval=250, callback=None):
self.checking = False
self.sending = False
self.uart = machine.UART(1, tx=32, rx=33)
self.timer = machine.Timer(8457)
self.callback = callback
self.checkInterval = checkInterval
def __init__(self, pin=25, volume=2):
self.pwm_init = False
self.pin = pin
self._timer = None
self._volume = volume
self._beat_time = 500
self._timer = machine.Timer(2)
def consume(g, period=0.2, value=None):
"""
Iterate a generator every `period` and return a tuple of
(the created timer, a generator yielding the last received value)
In order to be non-blocking, iteration on the returned generator can to be timed with `consume`, eg:
`consume(period=1, consume(period=0.5, average(machine.Pin(4))))`.
"""
print('Consuming pipe (press ^C to stop)')
# try:
# for value in pipe:
# sys.stdout.write(str(value))
# time.sleep(period)
# sys.stdout.write(', ')
# except KeyboardInterrupt:
# print('\nInterrupted by keyboard.')
# Non blocking
def handler(t):
value = next(pipe)
timer = machine.Timer(-1)
timer.init(callback=handler)
def g():
while True:
yield value
return timer, g()
def __init__(self, multiTime=50):
self.timer = machine.Timer(1)
self.timer.init(period=10,
mode=self.timer.PERIODIC,
callback=self.timerCb)
self.btn = []
self.multiList = []
self._multiTime = multiTime
def ManualMode(self, Timer):
self.laserContinue.value(1)
self.uart.write('F')
tim = machine.Timer(Timer)
tim.init(period=1500,
mode=machine.Timer.PERIODIC,
callback=lambda t: self.measure())
self.recvData()
def timer_test():
import machine
global t1
global t2
global t3
t1 = machine.Timer(-1)
t2 = machine.Timer(-1)
t3 = machine.Timer(-1)
t1.init(period=5000,
mode=machine.Timer.ONE_SHOT,
callback=lambda t: print(1, end=' '))
t2.init(period=2000,
mode=machine.Timer.PERIODIC,
callback=lambda t: print(2, end=' '))
t3.init(period=1500,
mode=machine.Timer.PERIODIC,
callback=lambda t: print(3, end=' '))
def start_blink(self):
if self.blinking is True:
print("Big error: LED is in blink mode")
sys.exit(1)
self.blinking = True
self.timer = machine.Timer(self.alarmId)
self.timer.init(period=800, mode=machine.Timer.PERIODIC, callback=lambda t:self.toggle())
def __init__(self, *args, **kwargs):
print("Initializing servo")
super().__init__(*args, **kwargs)
self.current_position = self.settings["default_position"]
self.timer = machine.Timer(self.settings["timer_id"])
self.wakeup()
self.set_position(self.current_position)
def initalarm(rtc, rtc_wake):
tim = machine.Timer(1) # init with default time and date
# create a RTC alarm that expires after 10 seconds
#rtc.alarm(time=10000, repeat=True)
#rtc_i = rtc.irq(trigger=RTC.ALARM0, handler=alarm_handler, wake=machine.SLEEP | machine.IDLE)
tim.init(mode=tim.PERIODIC,
period=2000,
callback=alarm_handler(rtc, rtc_wake))
def run(self):
self.init()
self.run_set_status('waiting')
timer = machine.Timer(-1)
timer.init(period=int(1000 / CoreApp.config['send_frequency']),
mode=machine.Timer.PERIODIC,
callback=CoreApp.interrupt_handler)
fake_space = True # use fake space to trick M5TextBox to render text even if unchanged
while True:
buttons_pressed = self.run_buttons()
self.check_screen_timeout()
if buttons_pressed:
self.last_user_interaction = self.current_time()
self.set_screen_on(True)
self.run_set_status('waiting' + (' ' if fake_space else ''))
for sensor_name, sensor in self.active_sensors.items():
sensor['label_text'].setText(
sensor['config']['label'] + ' [' +
sensor['config']['measurement_unit'] + ']' +
(' ' if fake_space else ''))
sensor['label_value'].setText(
'{:.2f}'.format(sensor['get_value']()) +
(' ' if fake_space else ''))
fake_space = not fake_space
if CoreApp.interrupt_counter > 0:
self.run_set_status('sending')
self.run_decrement_interrupt_counter()
for sensor_name, sensor in self.active_sensors.items():
sensor_json = {
'timestamp': self.current_time(),
'value': sensor['get_value']()
}
sensor['label_text'].setText(
sensor['config']['label'] + ' [' +
sensor['config']['measurement_unit'] + ']' +
(' ' if fake_space else ''))
sensor['label_value'].setText(
'{:.2f}'.format(sensor['get_value']()) +
(' ' if fake_space else ''))
self.m5mqtt.publish(
'home/' + self.config['core_id'] + '/' + sensor_name,
json.dumps(sensor_json))
wait_ms(500)
self.run_set_status('waiting' + (' ' if fake_space else ''))
fake_space = not fake_space
wait_ms(500)
def __init__(self, pin=25, volume=5):
self.pwm = machine.PWM(machine.Pin(pin), freq=1, duty=0, timer=2)
self._timer = None
self._volume = volume
self._beat_time = 500
self._timer = machine.Timer(8)
self._timer.init(period=10,
mode=self._timer.ONE_SHOT,
callback=self._timeout_cb)