def test_construction(self):
""" 生成テスト """
# 接続ピン
PIN_LD = 23
PIN_PR = 10
# 周辺設定
led = LED(PIN_LD)
# 期待値
valueLDExpctd = False # black
# ターゲット生成
photoref = Button(PIN_PR,active_state=True,pull_up=None)
# 接続
led.source = photoref
# 実際値
valueLDActual = led.value
# 評価
try:
self.assertEqual(valueLDActual,valueLDExpctd)
sleep(0.1)
finally:
led.close()
photoref.close()
class RaspberryPiIO(AbstractIO):
def __init__(self, camera: AbstractCamera, system: AbstractSystem,
config: Config):
super().__init__(camera, system, config)
self.button = Button(config['GPIO_SWITCH'], bounce_time=0.2)
def start_monitoring(self):
super().start_monitoring()
self.button.when_pressed = self._start_recording_handler
self.button.when_released = self._stop_recording_handler
if self.button.is_pressed:
self._camera.start_recording()
def _start_recording_handler(self):
self._camera.start_recording()
def _stop_recording_handler(self):
self._camera.stop_recording()
sleep(1)
self._system.halt_system()
def close(self):
super().close()
self.button.close()
self.button = None
class PiPadButtons :
# initialization
def __init__(self) :
# buttons
log.debug("Initializing Buttons...")
log.debug("> button 1 pin: " + str(_conf['btn1_pin']))
self.btn1 = Button(_conf['btn1_pin'])
log.debug("> button 2 pin: " + str(_conf['btn2_pin']))
self.btn2 = Button(_conf['btn2_pin'])
log.debug("...init done!")
# is button 1 pressed ?
def is_button1_pressed(self) :
return self.btn1.is_pressed
# is button 2 pressed ?
def is_button2_pressed(self) :
return self.btn2.is_pressed
# terminate
def terminate(self) :
log.debug("Buttons termination...")
self.btn1.close()
self.btn2.close()
class PitchKey():
def __init__(self, port, synth, note):
self.button = Button(port)
self.device = synth
self.note = note
def check(self, val1, val2, val3):
self.button.when_pressed = self.play(val1, val2, val3)
self.button.when_released = self.stop
def play(self, val1, val2, val3):
if val1 == 1:
self.device.noteon(self.note)
if val2 == 1:
self.device.noteon(self.note + 12)
if val3 == 1:
self.device.noteon(self.note + 24)
def stop(self):
self.device.noteoff(self.note)
self.device.noteoff(self.note + 12)
self.device.noteoff(self.note + 24)
def close(self):
self.button.close()
class HardwareController(object):
def __init__(self):
self.button = Button(pin=BUTTON_PIN, hold_time=1, hold_repeat=True)
self.status_led = LED(STATUS_LED_PIN)
self.button_led = LED(BUTTON_LED_PIN)
self.button.when_pressed = self.button_pressed
self.button.when_released = self.button_released
self.button.when_held = self.button_held
self.hold_time = 0
self.status_led.blink(on_time=0.1, off_time=0.1, n=5, background=False)
self.status_led.on()
return
def close(self):
self.button.close()
self.button_led.close()
self.status_led.close()
return
def button_held(self):
logger.debug("button held")
self.hold_time = self.button.active_time
self.button_led.blink(on_time=0.25, off_time=0.1, n=1)
return
def button_pressed(self):
logger.debug("button pressed")
self.hold_time = 0
return
def button_released(self):
increments = int(self.hold_time / BUTTON_HOLD_INCREMENTS)
logger.debug("button released. Held for {0} increments".format(increments))
if increments > 0:
time.sleep(2)
self.button_led.blink(on_time=0.5, off_time=0.5, n=increments, background=False)
time.sleep(1)
if increments == 1:
logger.info("Shutdown called via button press")
check_call(['sudo', 'poweroff'])
elif increments == 2:
logger.info("Reboot called via button press")
check_call(['sudo', 'reboot'])
return
class GoogleAIYVoicehat(MycroftSkill):
def __init__(self):
MycroftSkill.__init__(self)
def initialize(self):
self.time_held = 100
self.short_press = 2
self.button = Button(23, hold_time = 7)
self.led = LED(25)
self.schedule_repeating_event(self.handle_button, None, 0.01, 'buttonpress')
def handle_button(self):
self.button.when_pressed = self.start_timer
self.button.when_held = self.graceful_exit
self.button.when_released = self.stop_timer
self.add_event('recognizer_loop:record_begin', self.handle_listener_started)
self.add_event('recognizer_loop:record_end', self.handle_listener_ended)
def start_timer(self):
self.time_held = time.time()
def stop_timer(self):
self.time_held = time.time() - self.time_held
if self.time_held < self.short_press:
self.bus.emit(Message('mycroft.mic.listen'))
elif self.time_held < self.button.hold_time:
self.bus.emit(Message('mycroft.stop'))
def handle_listener_started(self):
self.led.on()
def handle_listener_ended(self):
self.led.off()
# In truth, this is a not-so-graceful power down.
# Emitting message 'system.shutdown' doesn't work on Picroft.
def graceful_exit(self):
self.blink()
self.log.info('Forcing a linux shutdown ...')
subprocess.call(['sudo', 'shutdown', '-h', 'now'])
def blink(self):
for i in range(6):
self.led.toggle()
time.sleep(0.5)
def shutdown(self):
self.cancel_scheduled_event('buttonpress')
self.button.close()
self.led.close()
class Counter (threading.Thread):
""" """
def __init__ (self):
threading.Thread.__init__(self)
self.sender = Sender()
self.last_pressed = datetime.now()
self.button = Button(4)
self.button.when_pressed = lambda: self.pressed()
signal.signal(signal.SIGUSR1, lambda s, f: self.pressed())
self._running = False
def display (self):
display.print(f"Rounds: {statistics.rounds}",
f"IP: {MyIP()}",
f"Time: {datetime.now().strftime('%H:%M:%S')}")
def sound (self):
subprocess.run(["mpg321", "-g 100", "-q", "gong.mp3"])
subprocess.run(["mpg321", "-g 100", "-q", "applause3.mp3"])
def pressed (self):
if not statistics.started:
Log("Not started.")
elif (datetime.now()-self.last_pressed).seconds > 2: # Debouncing
self.last_pressed = datetime.now()
statistics.rounds += 1
# Have applause and updating data/csv in parallel #
t = threading.Thread(name=f"thread-mpg321", target=self.sound)
t.start()
self.sender.send(Data())
t.join()
else:
Log("Do not press button too fast!")
def run (self):
# Send initial data (0 rounds, 0 km) on start of program. #
self.sender.send(Data())
self._running = True
while self._running:
self.display()
time.sleep(0.1)
self.button.close()
display.off()
def stop (self):
self._running = False
class ActionPiIO(object):
def __init__(self, camera, gpio):
self.camera = camera
self.button = Button(gpio)
def start_monitoring(self):
logging.info("Start monitoring GPIO {}".format(self.button.pin.number))
self.button.when_pressed = self.camera.start_recording()
self.button.when_released = self.camera.stop_recording()
if self.button.is_pressed:
self.camera.start_recording()
def close(self):
self.button.close()
self.button = None
class Switch(Device):
def launch_function(self):
if self.function:
self.function(*self.args, **self.kwargs)
def __init__(self,
input_pin,
function=None,
active_high=True,
*args,
**kwargs):
if not Device.list_pin[input_pin]:
self.function = function
self.state = False
Device.list_pin[input_pin] = True
self.args = args
self.kwargs = kwargs
self.input_pin = input_pin
self.button = Button(input_pin, pull_up=True)
self.set_active_high(active_high)
else:
raise RuntimeError('pin already in use')
def set_function(self, function, *args, **kwargs):
self.function = function
self.kwargs = kwargs
self.args = args
def set_active_high(self, active_high):
if active_high:
self.button.when_pressed = self.launch_function
self.button.when_released = None
else:
self.button.when_pressed = None
self.button.when_released = self.launch_function
def close(self):
Device.list_pin[self.input_pin] = False
self.button.close()
def test_callback(self):
""" コールバックテスト """
# 接続ピン
PIN_LD = 23
PIN_PR = 10
# 周辺設定
led = LED(PIN_LD)
# 期待値
highLDExpctd = True # white
lowLDExpctd = False # black
# ターゲット生成
photoref = Button(PIN_PR,active_state=True,pull_up=None)
photoref_pin = Device.pin_factory.pin(PIN_PR)
# コールバック関数設定
photoref.when_pressed = led.on
photoref.when_released = led.off
# Highでフォトリフレクタを駆動（白）
photoref_pin.drive_high()
sleep(0.1)
highLDActual = led.value
# Low でフォトリフレクタを駆動（黒）
photoref_pin.drive_low()
sleep(0.1)
lowLDActual = led.value
# 評価
try:
self.assertEqual(highLDActual,highLDExpctd)
self.assertEqual(lowLDActual,lowLDExpctd)
sleep(0.1)
finally:
led.close()
photoref.close()
class PowerButton():
def __init__(self, port):
self.button = Button(port)
def check(self):
self.button.when_pressed = self.warning()
self.button.when_released = self.shutdown()
def warning(self):
print("Shutdown Requested")
def shutdown(self):
print("Shutting down the Calebrator...")
fs.noteon(0, 72, 100)
sleep(0.5)
fs.noteon(0, 60, 100)
sleep(0.5)
fs.noteoff(0, 60)
fs.noteoff(0, 72)
shutdownCycle()
def close(self):
self.button.close()
def listen(func):
button_map = { 5: "A", 6: "B", 16: "X", 24: "Y"}
button_a = Button(5)
button_b = Button(6)
button_x = Button(16)
button_y = Button(24)
def on_press(button): func(button_map[button.pin.number])
try:
button_a.when_pressed = on_press
button_b.when_pressed = on_press
button_x.when_pressed = on_press
button_y.when_pressed = on_press
pause()
except KeyboardInterrupt:
button_a.close()
button_b.close()
button_x.close()
button_y.close()
try:
button_a.when_pressed = pressed
button_b.when_pressed = pressed
button_x.when_pressed = pressed
button_y.when_pressed = pressed
while True:
if splash_time > 0:
splash_x, splash_y = splash_origin
splash_progress = time.time() - splash_time
for x in range(width):
for y in range(height):
d = distance(x, y, splash_x, splash_y)
if (d / 30.0) < splash_progress and splash_progress < 0.6:
h = d / 20.0
h += 0.1
h = min(1, h)
scrollphathd.set_pixel(x, y, h)
elif (d / 30.0) < splash_progress - 0.6:
scrollphathd.set_pixel(x, y, 0)
scrollphathd.show()
time.sleep(1.0 / 60.0)
except KeyboardInterrupt:
button_a.close()
button_b.close()
button_x.close()
button_y.close()
class Controller:
"""Manages all the other components and signalling"""
BTN_UP_TO_DISPLAY_SIG = "HELLO-DISPLAY-IM-BTN-UP"
BTN_DOWN_TO_DISPLAY_SIG = "HELLO-DISPLAY-IM-BTN-DOWN"
startTargetTemp = 20
def __init__(self):
self.thermostat = ThermostatSensor(18, 23)
dispatcher.connect(self.signalHandler,
signal=self.thermostat.THERMOSTAT_TO_CONTROLLER_SIG,
sender=dispatcher.Any)
print "Thermostat init"
self.startTargetTemp = self._fetchTargetTemp(self.startTargetTemp)
self.display = DisplayDevice(0x3F, self.thermostat,
self.startTargetTemp, self)
print "Display init"
self.btnUp = Button(8)
self.btnDown = Button(7)
self.btnUp.when_pressed = self._sendIncrease
self.btnDown.when_pressed = self._sendDecrease
print "Buttons init"
self.isActive = 0
print "Launching getTemp().."
self.thermostat.readTemp.start()
print "Launched!"
def __enter__(self):
return self
def __exit__(self, exc_type, exc_value, traceback):
self.thermostat.close()
self.display.close()
self.btnDown.close()
self.btnUp.close()
def signalHandler(self, sender, param):
"""
Here we should act differently according to which is the sender: param
may contain different data based on which component sent the signal
"""
if sender == self.thermostat:
# Save into temperature_log the temp and a time record
conn = sqlite3.connect("thermostat.db")
conn.execute("BEGIN EXCLUSIVE TRANSACTION")
cur = conn.cursor()
sql = """
INSERT INTO temperature_log(temp, timeRecord, isActive)
VALUES(?, ?, ?)
"""
cur.execute(sql, (param['temp'], time.time(), self.isActive))
if cur.rowcount != 1:
conn.rollback()
else:
conn.commit()
else:
print "Wrong sender"
def _fetchTargetTemp(self, target):
now = time.time()
todayWeekDay = datetime.datetime.today().weekday() + 1
todayHour = time.strftime("%H")
sql = """ SELECT targetTemp FROM program
WHERE weekDay = ?
AND hour = ?
"""
conn = sqlite3.connect("thermostat.db")
cur = conn.cursor()
cur.execute(sql, (todayWeekDay, todayHour))
result = cur.fetchone()
if result is not None:
return result[0]
else:
return targetTemp
def _sendIncrease(self):
dispatcher.send(signal=self.BTN_UP_TO_DISPLAY_SIG,
sender=self,
param=1)
def _sendDecrease(self):
dispatcher.send(signal=self.BTN_DOWN_TO_DISPLAY_SIG,
sender=self,
param=-1)
class KillTeam:
def __init__(self):
self.plusButton = Button(17)
self.minusButton = Button(27)
self.okButton = Button(22)
self.canticleLed1 = PWMLED(5) # IncantationOfTheIronSoul
self.canticleLed2 = PWMLED(6) # LitanyOfTheElectromancer
self.canticleLed3 = PWMLED(13) # Chant of the Remorseless Fist
self.canticleLed4 = PWMLED(19) # Shroudpsalm
self.canticleLed5 = PWMLED(26) # Invocation of Machine Might
self.canticleLed6 = PWMLED(21) # Benediction of the Omnissiah
self.initiativeLed = PWMLED(23)
self.movementLed = PWMLED(24)
self.psychicLed = PWMLED(25)
self.shootingLed = PWMLED(12)
self.meleeLed = PWMLED(16)
self.moraleLed = PWMLED(20)
self.selected_canticle = INCANTATION_OF_THE_IRON_SOUL
self.canticle1Used = False
self.canticle2Used = False
self.canticle3Used = False
self.canticle4Used = False
self.canticle5Used = False
self.canticle6Used = False
self.continueGame = True
def select_canticles(self):
self.initiativeLed.off()
self.movementLed.off()
self.psychicLed.off()
self.shootingLed.off()
self.meleeLed.off()
self.moraleLed.off()
self.plusButton.when_pressed = self.canticle_plus_button
self.minusButton.when_pressed = self.canticle_minus_button
self.okButton.when_pressed = self.canticle_ok_button
self.display_canticle()
self.okButton.wait_for_press()
self.plusButton.when_pressed = None
self.minusButton.when_pressed = None
self.okButton.when_pressed = None
sleep(0.5)
def canticle_plus_button(self):
self.selected_canticle += 1
if self.selected_canticle == 8:
self.selected_canticle = INCANTATION_OF_THE_IRON_SOUL
self.display_canticle()
def canticle_minus_button(self):
self.selected_canticle -= 1
if self.selected_canticle == -1:
self.selected_canticle = BENEDICTION_OF_THE_OMNISSIAH
self.display_canticle()
def canticle_ok_button(self):
if self.selected_canticle == 0 or self.selected_canticle == 7:
self.selected_canticle = randint(1, 6)
else:
if self.selected_canticle == INCANTATION_OF_THE_IRON_SOUL:
self.canticle1Used = True
elif self.selected_canticle == LITANY_OF_THE_ELECTROMANCER:
self.canticle2Used = True
elif self.selected_canticle == CHANT_OF_THE_REMORSELESS_FIST:
self.canticle3Used = True
elif self.selected_canticle == SHROUDPSALM:
self.canticle4Used = True
elif self.selected_canticle == INVOCATION_OF_MACHINE_MIGHT:
self.canticle5Used = True
elif self.selected_canticle == BENEDICTION_OF_THE_OMNISSIAH:
self.canticle6Used = True
self.display_canticle(True)
def initiative_phase(self):
self.initiativeLed.on()
self.movementLed.off()
self.psychicLed.off()
self.shootingLed.off()
self.meleeLed.off()
self.moraleLed.off()
self.plusButton.when_pressed = None
self.minusButton.when_pressed = None
self.okButton.when_pressed = None
self.okButton.wait_for_press()
sleep(0.5)
def movement_phase(self):
self.initiativeLed.off()
self.movementLed.on()
self.psychicLed.off()
self.shootingLed.off()
self.meleeLed.off()
self.moraleLed.off()
self.plusButton.when_pressed = None
self.minusButton.when_pressed = None
self.okButton.when_pressed = None
self.okButton.wait_for_press()
sleep(0.5)
def psychic_phase(self):
self.initiativeLed.off()
self.movementLed.off()
self.psychicLed.on()
self.shootingLed.off()
self.meleeLed.off()
self.moraleLed.off()
self.plusButton.when_pressed = None
self.minusButton.when_pressed = None
self.okButton.when_pressed = None
self.okButton.wait_for_press()
sleep(0.5)
def shooting_phase(self):
self.initiativeLed.off()
self.movementLed.off()
self.psychicLed.off()
self.shootingLed.on()
self.meleeLed.off()
self.moraleLed.off()
if self.selected_canticle in [
SHROUDPSALM, BENEDICTION_OF_THE_OMNISSIAH
]:
self.display_canticle(True, True)
self.plusButton.when_pressed = None
self.minusButton.when_pressed = None
self.okButton.when_pressed = None
self.okButton.wait_for_press()
if self.selected_canticle in [
SHROUDPSALM, BENEDICTION_OF_THE_OMNISSIAH
]:
self.display_canticle(True, False)
sleep(0.5)
def melee_phase(self):
self.initiativeLed.off()
self.movementLed.off()
self.psychicLed.off()
self.shootingLed.off()
self.meleeLed.on()
self.moraleLed.off()
if self.selected_canticle in [
LITANY_OF_THE_ELECTROMANCER, CHANT_OF_THE_REMORSELESS_FIST,
INVOCATION_OF_MACHINE_MIGHT
]:
self.display_canticle(True, True)
self.plusButton.when_pressed = None
self.minusButton.when_pressed = None
self.okButton.when_pressed = None
self.okButton.wait_for_press()
if self.selected_canticle in [
LITANY_OF_THE_ELECTROMANCER, CHANT_OF_THE_REMORSELESS_FIST,
INVOCATION_OF_MACHINE_MIGHT
]:
self.display_canticle(True, False)
sleep(0.5)
def morale_phase(self):
self.initiativeLed.off()
self.movementLed.off()
self.psychicLed.off()
self.shootingLed.off()
self.meleeLed.off()
self.moraleLed.on()
if self.selected_canticle in [1]:
self.display_canticle(True, True)
self.plusButton.when_pressed = None
self.minusButton.when_pressed = None
self.okButton.when_pressed = None
self.okButton.wait_for_press()
if self.selected_canticle in [1]:
self.display_canticle(True, False)
sleep(0.5)
def select_if_end_game(self):
self.initiativeLed.pulse()
self.movementLed.pulse()
self.psychicLed.pulse()
self.shootingLed.pulse()
self.meleeLed.pulse()
self.moraleLed.pulse()
self.plusButton.when_pressed = None
self.minusButton.when_pressed = self.end_game_select
self.okButton.when_pressed = None
self.okButton.wait_for_press()
self.plusButton.when_pressed = None
self.minusButton.when_pressed = None
self.okButton.when_pressed = None
sleep(0.5)
def end_game_select(self):
self.continueGame = not self.continueGame
if self.continueGame:
self.initiativeLed.pulse()
self.movementLed.pulse()
self.psychicLed.pulse()
self.shootingLed.pulse()
self.meleeLed.pulse()
self.moraleLed.pulse()
else:
self.initiativeLed.off()
self.movementLed.off()
self.psychicLed.off()
self.shootingLed.off()
self.meleeLed.off()
self.moraleLed.off()
def close(self):
self.initiativeLed.close()
self.movementLed.close()
self.psychicLed.close()
self.shootingLed.close()
self.meleeLed.close()
self.moraleLed.close()
self.canticleLed1.close()
self.canticleLed2.close()
self.canticleLed3.close()
self.canticleLed4.close()
self.canticleLed5.close()
self.canticleLed6.close()
self.plusButton.close()
self.minusButton.close()
self.okButton.close()
def display_canticle(self, selected=False, blinking=False):
if selected:
self.canticleLed1.off()
self.canticleLed2.off()
self.canticleLed3.off()
self.canticleLed4.off()
self.canticleLed5.off()
self.canticleLed6.off()
if self.selected_canticle == 1:
if blinking:
self.canticleLed1.pulse()
else:
self.canticleLed1.on()
elif self.selected_canticle == LITANY_OF_THE_ELECTROMANCER:
if blinking:
self.canticleLed2.pulse()
else:
self.canticleLed2.on()
elif self.selected_canticle == CHANT_OF_THE_REMORSELESS_FIST:
if blinking:
self.canticleLed3.pulse()
else:
self.canticleLed3.on()
elif self.selected_canticle == SHROUDPSALM:
if blinking:
self.canticleLed4.pulse()
else:
self.canticleLed4.on()
elif self.selected_canticle == INVOCATION_OF_MACHINE_MIGHT:
if blinking:
self.canticleLed5.pulse()
else:
self.canticleLed5.on()
elif self.selected_canticle == BENEDICTION_OF_THE_OMNISSIAH:
if blinking:
self.canticleLed6.pulse()
else:
self.canticleLed6.on()
else:
if not self.canticle1Used:
self.canticleLed1.on()
else:
self.canticleLed1.off()
if not self.canticle2Used:
self.canticleLed2.on()
else:
self.canticleLed2.off()
if not self.canticle3Used:
self.canticleLed3.on()
else:
self.canticleLed3.off()
if not self.canticle4Used:
self.canticleLed4.on()
else:
self.canticleLed4.off()
if not self.canticle5Used:
self.canticleLed5.on()
else:
self.canticleLed5.off()
if not self.canticle6Used:
self.canticleLed6.on()
else:
self.canticleLed6.off()
if self.selected_canticle == 1:
self.canticleLed1.pulse()
elif self.selected_canticle == LITANY_OF_THE_ELECTROMANCER:
self.canticleLed2.pulse()
elif self.selected_canticle == CHANT_OF_THE_REMORSELESS_FIST:
self.canticleLed3.pulse()
elif self.selected_canticle == SHROUDPSALM:
self.canticleLed4.pulse()
elif self.selected_canticle == INVOCATION_OF_MACHINE_MIGHT:
self.canticleLed5.pulse()
elif self.selected_canticle == BENEDICTION_OF_THE_OMNISSIAH:
self.canticleLed6.pulse()
else:
self.canticleLed1.pulse()
self.canticleLed2.pulse()
self.canticleLed3.pulse()
self.canticleLed4.pulse()
self.canticleLed5.pulse()
self.canticleLed6.pulse()
class PiPadRotary:
# initialize
def __init__(self) :
# set PINs on BOARD
log.debug("Initializing Rotary Encoder...")
log.debug("> Button:" + str(_conf['btn_pin']))
self.btn = Button(_conf['btn_pin'])
log.debug("> Clock:" + str(_conf['clock_pin']))
self.clock = InputDevice(_conf['clock_pin'])
log.debug("> DT:" + str(_conf['dt_pin']))
self.dt = InputDevice(_conf['dt_pin'])
# values
self.counter = Value('i', 0)
# processes
log.debug("Initializing Rotary processes...")
self.process = Process(target=self.worker)
self.process.start()
log.debug("...init done!")
# get counter
def get_counter(self) :
return self.counter.value
# set counter
def set_counter(self, value) :
self.counter.value = value
# reset counter
def reset_counter(self) :
self.counter.value = 0
# check button pressed
def is_pressed(self) :
return self.btn.is_pressed
# control rotary
def worker(self) :
try :
clock_value = self.clock.value
while True :
clock = self.clock.value
dt = self.dt.value
log.debug("Clock: " + str(clock_value))
log.debug("Current Clock: " + str(clock))
log.debug("DT: " + str(dt))
if clock != clock_value :
if dt != clock :
log.debug("!=")
self.counter.value += 1
else :
log.debug("==")
self.counter.value -= 1
clock_value = clock
sleep(_conf['clock_wait_time'])
except KeyboardInterrupt:
pass
# terminate
def terminate(self) :
log.debug("Rotary Encoder termination...")
self.btn.close()
self.dt.close()
self.clock.close()
self.process.join()
self.process.terminate()
class GpiorgbcontrollerPlugin(octoprint.plugin.StartupPlugin,
octoprint.plugin.SettingsPlugin,
octoprint.plugin.AssetPlugin,
octoprint.plugin.TemplatePlugin,
octoprint.plugin.SimpleApiPlugin):
def __init__(self):
self.led = None
self.color = '#FFFFFF'
self.is_on = False
self.btn = None
self.is_btn_en = False
self.gcode_command_enable = False
self.gcode_index_enable = False
self.gcode_rgb_index = 1
self.pin_factory = RPiGPIOFactory()
def init_rgb(self, red_pin, grn_pin, blu_pin):
try:
self.deinit_rgb()
self.led = RGBLED(red=red_pin, green=grn_pin, blue=blu_pin, active_high=True, pin_factory=self.pin_factory)
self._logger.info("LEDs initialized with pin factory: " + str(self.led.pin_factory))
except:
self._logger.error("Error occurred while initializing LEDs")
def deinit_rgb(self):
try:
if(self.led is not None):
self.led.close()
self.led = None
self._logger.info("LEDs deinitialized")
except:
self._logger.error("Error occurred while deinitializing LEDs")
def init_btn(self, pin):
try:
self.deinit_btn()
self.btn = Button(pin, pin_factory=self.pin_factory)
self.btn.when_pressed = self.on_btn_press
self.btn.when_released = self.on_btn_release
self._logger.info("Button initialized with pin factory: " + str(self.btn.pin_factory) )
except:
self._logger.error("Error occurred while initializing button")
def deinit_btn(self):
try:
if(self.btn is not None):
self.btn.close()
self.btn = None
self._logger.info("Button deinitialized")
except:
self._logger.error("Error occurred while deinitializing button")
def read_btn(self):
if(self.btn is not None and self.is_btn_en):
if(self.btn.is_pressed):
self.on_btn_press()
else:
self.on_btn_release()
def on_btn_press(self):
if(self.is_btn_en):
self.is_on = True
self.update_rgb(self.color, self.is_on)
def on_btn_release(self):
if(self.is_btn_en):
self.is_on = False
self.update_rgb(self.color, self.is_on)
def update_rgb(self, color, is_on):
if(self.led is not None):
rgb = int(color[1:], 16)
red = ((rgb & 0xFF0000) >> 16) / 255
grn = ((rgb & 0x00FF00) >> 8) / 255
blu = ((rgb & 0x0000FF)) / 255
if is_on:
self.led.color = (red, grn, blu)
else:
self.led.color = (0, 0, 0)
else:
self._logger.error("Error occurred while updating RGB state")
def on_after_startup(self):
red_pin = self._settings.get_int(["red_pin"])
grn_pin = self._settings.get_int(["grn_pin"])
blu_pin = self._settings.get_int(["blu_pin"])
color = self._settings.get(["color"])
is_on = self._settings.get_boolean(["is_on"])
if red_pin is not None and grn_pin is not None and blu_pin is not None:
self.init_rgb(red_pin, grn_pin, blu_pin)
if(is_on is not None and color is not None):
self.color = color
self.is_on = is_on
self.update_rgb(self.color, self.is_on)
btn_pin = self._settings.get_int(["btn_pin"])
is_btn_en = self._settings.get_boolean(["is_btn_en"])
if btn_pin is not None and is_btn_en is not None:
self.init_btn(btn_pin)
self.is_btn_en = is_btn_en
self.read_btn()
gcode_command_enable = self._settings.get_boolean(["gcode_command_enable"])
if gcode_command_enable is not None:
self.gcode_command_enable = gcode_command_enable
gcode_index_enable = self._settings.get_boolean(["gcode_index_enable"])
if gcode_index_enable is not None:
self.gcode_index_enable = gcode_index_enable
gcode_rgb_index = self._settings.get_int(["gcode_rgb_index"])
if gcode_rgb_index is not None:
self.gcode_rgb_index = gcode_rgb_index
self._plugin_manager.send_plugin_message(self._identifier, dict(is_on=self.is_on, color=self.color))
def on_settings_save(self, data):
octoprint.plugin.SettingsPlugin.on_settings_save(self, data)
if 'red_pin' in data or 'grn_pin' in data or 'blu_pin' in data:
red_pin = self._settings.get_int(["red_pin"])
grn_pin = self._settings.get_int(["grn_pin"])
blu_pin = self._settings.get_int(["blu_pin"])
if(red_pin is not None and grn_pin is not None and blu_pin is not None):
self.init_rgb(red_pin, grn_pin, blu_pin)
color = self._settings.get(["color"])
is_on = self._settings.get_boolean(["is_on"])
if is_on is not None and color is not None:
self.color = color
self.is_on = is_on
self.update_rgb(self.color, self.is_on)
if 'btn_pin' in data or 'is_btn_en' in data:
btn_pin = self._settings.get_int(["btn_pin"])
is_btn_en = self._settings.get_boolean(["is_btn_en"])
if(btn_pin is not None and is_btn_en is not None):
self.init_btn(btn_pin)
self.is_btn_en = is_btn_en
self.read_btn()
gcode_command_enable = self._settings.get_boolean(["gcode_command_enable"])
if gcode_command_enable is not None:
self.gcode_command_enable = gcode_command_enable
gcode_index_enable = self._settings.get_boolean(["gcode_index_enable"])
if gcode_index_enable is not None:
self.gcode_index_enable = gcode_index_enable
gcode_rgb_index = self._settings.get_int(["gcode_rgb_index"])
if gcode_rgb_index is not None:
self.gcode_rgb_index = gcode_rgb_index
def get_settings_defaults(self):
return dict(
red_pin=20,
grn_pin=25,
blu_pin=5,
color='#FFFFFF',
is_on = False,
btn_pin=21,
is_btn_en=False,
gcode_command_enable=False,
gcode_index_enable=False,
gcode_rgb_index=1,
)
def get_assets(self):
# Define your plugin's asset files to automatically include in the
# core UI here.
return dict(
js=["js/gpiorgbcontroller.js", "js/jscolor.min.js"],
css=["css/gpiorgbcontroller.css"],
less=["less/gpiorgbcontroller.less"]
)
def get_template_configs(self):
return [
dict(type="settings", custom_bindings=False)
]
def get_api_commands(self):
return dict(
update_color=["color"],
turn_on=[],
turn_off=[]
)
def on_api_command(self, command, data):
if command == "update_color":
color = data.get('color', None)
if color != None:
self.color = color
elif command == "turn_on":
self.is_on = True
elif command == "turn_off":
self.is_on = False
self.update_rgb(self.color, self.is_on)
def gcode_parse_index(self, cmd):
params = cmd.split("I")
if len(params) != 2:
return None
else:
try:
index = int(params[1].split()[0])
if index > 0:
return index
else:
return None
except:
return None
def gcode_parse_rgb_component(self, cmd, comp):
try:
comp_type = comp.upper()
if comp_type != "R" and comp_type != "G" and comp_type != "B":
return None
delim = ""
if comp_type == "R":
delim = "R"
elif comp_type == "G":
delim = "U"
elif comp_type == "B":
delim = "B"
params = cmd.split(delim)
if len(params) != 2:
return None
else:
color_int = int(params[1].split()[0])
if color_int < 0 or color_int > 255:
return None
else:
color_hex = "%02X" % color_int
if len(color_hex) != 2:
return None
else:
return color_hex
except:
return None
def replace_color_component(self, color, value, comp):
if len(color) != 7 or value is None:
return color
comp_type = comp.upper()
if comp_type != "R" and comp_type != "G" and comp_type != "B":
return color
if len(value) != 2:
return color
old_r = color[1:3]
old_g = color[3:5]
old_b = color[5:7]
new_color = color
if comp_type == "R":
new_color = "#" + value + old_g + old_b
elif comp_type == "G":
new_color = "#" + old_r + value + old_b
elif comp_type == "B":
new_color = "#" +old_r + old_g + value
return new_color
def on_gcode_command(self, comm_instance, phase, cmd, cmd_type, gcode, *args, **kwargs):
if not self.gcode_command_enable:
return
if gcode and gcode.startswith("M150"):
color = "#000000"
red = self.gcode_parse_rgb_component(cmd, "R")
color = self.replace_color_component(color, red, "R")
grn = self.gcode_parse_rgb_component(cmd, "G")
color = self.replace_color_component(color, grn, "G")
blu = self.gcode_parse_rgb_component(cmd, "B")
color = self.replace_color_component(color, blu, "B")
if self.gcode_index_enable:
index = self.gcode_parse_index(cmd)
if index is not None and index == self.gcode_rgb_index and color is not None and len(color) == 7:
self.color = color
self.is_on = True
self.update_rgb(self.color, self.is_on)
self._plugin_manager.send_plugin_message(self._identifier, dict(is_on=self.is_on, color=self.color))
else:
if color is not None and len(color) == 7:
self.color = color
self.is_on = True
self.update_rgb(self.color, self.is_on)
self._plugin_manager.send_plugin_message(self._identifier, dict(is_on=self.is_on, color=self.color))
def get_update_information(self):
# Define the configuration for your plugin to use with the Software Update
# Plugin here. See https://docs.octoprint.org/en/master/bundledplugins/softwareupdate.html
# for details.
return dict(
gpiorgbcontroller=dict(
displayName="Gpiorgbcontroller Plugin",
displayVersion=self._plugin_version,
# version check: github repository
type="github_release",
user="******",
repo="OctoPrint-GpioRgbController",
current=self._plugin_version,
# update method: pip
pip="https://github.com/z4gunn/OctoPrint-GpioRgbController/archive/{target_version}.zip"
)
)
subprocess.run(['raspistill', '-n', '-t', '2s', '-o', '/tmp/out.jpeg'], check=True)
subprocess.run(['convert', '/tmp/out.jpeg', '-resize', '128x64!', '/tmp/small.jpeg'])
img = Image.open('/tmp/small.jpeg').convert('1')
screen.display_image(img)
def release():
led.off()
with open('db_config.json') as inf:
dbconfig = json.load(inf)
repo = TemperatureRepository(**dbconfig)
temp_reader = BME280()
lux_reader = TSL2561()
button.when_pressed = button_press
button.when_released = release
try:
while True:
temp = temp_reader.read()
repo.insert_temp(temp)
lux = lux_reader.read()
repo.insert_lux(lux)
button.wait_for_press(300)
except KeyboardInterrupt:
button.close()
led.close()
def button_handler(wait_delay=60,
accept_led=None,
choice_led=None,
green_button_text="for Accept",
yellow_button_text="for more choice"):
global button_input_received
button_utils_logger = logging.getLogger('button_.button_handler')
button_input_received = False
if not test_environment:
accept_button = Button(config.__GREEN_BUTTON__)
accept_button.when_pressed = accept_button_callback
choice_button = Button(config.__YELLOW_BUTTON__)
choice_button.when_pressed = choice_button_callback
button_utils_logger.info("Go ahead and press the appropriate button. ")
profile_prompt = "Push Green button %s or Yellow button %s." % (
green_button_text, yellow_button_text)
if (green_button_text == "for Accept") and (yellow_button_text
== "for more choice"):
speech_file_name = "push_green_accept_yellow_choice.mp3"
else:
fname = profile_prompt.replace(" ", "_")
fname = fname.replace(".", "")
speech_file_name = "%s.mp3" % fname
speech_file_path = generate_audio(speech_text=profile_prompt,
filename=speech_file_name)
button_utils_logger.info("Generated Audio now. Playing audio next: ")
play_audio(file_path=speech_file_path)
button_utils_logger.info("Audio played. Done!")
while (wait_delay and (not button_input_received)):
button_utils_logger.info("In button thread: waiting for button input")
sleep(10)
wait_delay -= 10
if button_input_received:
button_utils_logger.info("Button input was received successfully: %d" %
button_input_received)
else:
button_utils_logger.info("No button press detected!")
profile_prompt = "No button press was detected. Defaulting to an accept now."
speech_file_path = generate_audio(
speech_text=profile_prompt,
filename="no_button_press_was_detected.mp3")
play_audio(file_path=speech_file_path)
button_input_received = 1
if not test_environment:
if button_input_received == 1:
if accept_led:
accept_led.on()
choice_led.off()
elif button_input_received == 2:
if choice_led:
choice_led.on()
accept_led.off()
if not test_environment:
accept_button.close()
choice_button.close()
button_utils_logger.info("Done with button_handler.")
return button_input_received
class gpioDigtalInput():
def init(self, db_config_id, config_db, flog):
self.db_config_id = db_config_id
self.config_db = config_db
self.flog = flog
self.gpio_pin = None
# reading from database the pin number
_id, gpio_pin_value, _label = self.config_db.strget(
self.db_config_id, self.flog)
flog.info(inspect.stack()[0][3] +
": gpioDigtalInput gelezen uit database, pin nummer is " +
str(gpio_pin_value))
# init the gpio pin
if self.no_duplicate_use_of_pins_used_as_input() == True:
self.gpio_pin = Button(int(gpio_pin_value),
pull_up=True,
hold_repeat=False)
else:
flog.info(
inspect.stack()[0][3] +
": gpioDigtalInput niet gezet wegens dubbel gebruik van pin's "
+ str(gpio_pin_value))
self.gpio_pin = None
# True is an pulse, False not
def gpioWaitRead(self):
if self.gpio_pin.wait_for_press(timeout=10) == False:
return False
self.gpio_pin.wait_for_press()
self.flog.debug(inspect.stack()[0][3] + ": press detected.")
self.gpio_pin.wait_for_release()
self.flog.debug(inspect.stack()[0][3] + ": press released.")
return True
def close(self):
self.gpio_pin.close()
def check_pin_from_db(self):
#self.flog.info( inspect.stack()[0][3]+ ": entry." )
# reading from database the pin number
_id, gpio_pin_value, _label = self.config_db.strget(
self.db_config_id, self.flog)
if self.gpio_pin.pin.number != int(
gpio_pin_value): #check if pin is changed, in config
#self.flog.info( inspect.stack()[0][3]+ ": entry 2." )
self.gpio_pin.close()
self.gpio_pin = Button(int(gpio_pin_value),
pull_up=True,
hold_repeat=False)
self.flog.info(inspect.stack()[0][3] +
": GPIO pin aangepast naar pin " +
str(gpio_pin_value))
#self.flog.info( inspect.stack()[0][3]+ ": entry 3." )
#self.flog.info( inspect.stack()[0][3]+ ": exit 4." )
def no_duplicate_use_of_pins_used_as_input(self):
# update this as the config.db is changed
# curent config index's used
# 85, 95 , 97 126 is input
check_set = set()
# we use a set because a set won't except double values, so when an pin is already used the
# number of enteries wil be less then 4
try:
_id, gpio_pin_value_85, _label = self.config_db.strget(
85, self.flog) # GPIO 27 Default pin
check_set.add(gpio_pin_value_85)
_id, gpio_pin_value_95, _label = self.config_db.strget(
95, self.flog) # GPIO 22 Default pin
check_set.add(gpio_pin_value_95)
_id, gpio_pin_value_97, _label = self.config_db.strget(
97, self.flog) # GPIO 17 Default pin
check_set.add(gpio_pin_value_97)
_id, gpio_pin_value_126, _label = self.config_db.strget(
126, self.flog) # GPIO 26 Default pin
check_set.add(gpio_pin_value_126)
self.flog.debug( inspect.stack()[0][3] + ": gpio_pin_value_85=" + gpio_pin_value_85 + " gpio_pin_value_95="\
+ gpio_pin_value_95 + " pio_pin_value_97=" + gpio_pin_value_97 + " gpio_pin_value_126=" + gpio_pin_value_126 )
# none of the pins may be equal
# we use a set because a set won't except double values, so when an pin is already used the
# number of enteries wil be less then 4
if len(check_set) != 4:
return False
return True
except:
return False
class ScrollHatMiniInput(Input):
"""
A way to get input from the the Pimoroni Scroll HAT Mini.
"""
_A_BUTTON = 5
_B_BUTTON = 6
_X_BUTTON = 16
_Y_BUTTON = 24
def __init__(self,
state,
prefix ='Dexter',
a_button='raise the volume',
b_button='lower the volume',
x_button='stop',
y_button='play or pause'):
"""
@see Input.__init__()
:type prefix: str
:param prefix:
The prefix to use when sending the inputs.
:type a_button: str
:param a_button:
What string to send when the A button is pressed.
:type b_button: str
:param b_button:
What string to send when the B button is pressed.
:type x_button: str
:param x_button:
What string to send when the X button is pressed.
:type y_button: str
:param y_button:
What string to send when the Y button is pressed.
"""
super(ScrollHatMiniInput, self).__init__(state)
def tokenize(string):
if string and str(string).strip():
return [Token(word.strip(), 1.0, True)
for word in str(string).strip().split()
if word]
else:
return []
# Our bindings etc.
self._prefix = tokenize(prefix)
self._bindings = {
self._A_BUTTON : tokenize(a_button),
self._B_BUTTON : tokenize(b_button),
self._X_BUTTON : tokenize(x_button),
self._Y_BUTTON : tokenize(y_button),
}
# The buttons, we will set these up in _start()
self._a_button = None
self._b_button = None
self._x_button = None
self._y_button = None
# And where we put the tokens
self._output = []
def read(self):
"""
@see Input.read
"""
if len(self._output) > 0:
try:
return self._output.pop()
except:
pass
def _start(self):
"""
@see Component.start()
"""
# Create the buttons
self._a_button = Button(self._A_BUTTON)
self._b_button = Button(self._B_BUTTON)
self._x_button = Button(self._X_BUTTON)
self._y_button = Button(self._Y_BUTTON)
# And bind
self._a_button.when_pressed = self._on_button
self._b_button.when_pressed = self._on_button
self._x_button.when_pressed = self._on_button
self._y_button.when_pressed = self._on_button
def _stop(self):
"""
@see Input.stop
"""
try:
self._a_button.close()
self._b_button.close()
self._x_button.close()
self._y_button.close()
except:
pass
def _on_button(self, button):
"""
Handle a button press.
"""
number = button.pin.number
LOG.info("Got button on pin GPIO%d" % (number,))
tokens = self._bindings.get(number, [])
if len(tokens) > 0:
self._output.append(tuple(self._prefix + tokens))
self.lock.acquire()
self.color = self.colors_list[self.cycle_count
% len(self.colors_list)]
self.cycle_count = self.cycle_count + 1
self.lock.release()
# Set the color for the LED
RGB_LED.color = Color(self.color.lower())
# Display the color for specified interval before switching again
time.sleep(self.interval_ms/1000)
# If button is pressed, display the current color for 5 seconds
elif not self.keep_cycling and self.game_active:
time.sleep(5)
RGB_LED.off()
self.lock.acquire()
self.game_active = False
self.lock.release()
else:
RGB_LED.off()
time.sleep(0.1)
if __name__ == '__main__':
try:
ColorCyclerGadget().main()
finally:
RGB_LED.close()
BUTTON.close()
class Zoltar(object):
def __init__(self, comm_client):
print('Finally, a Zoltar!')
self.is_moving = False
self.left_eye = LED(LED1_GPIO)
self.right_eye = LED(LED2_GPIO)
self.button = Button(BUTTON_GPIO)
self.button.when_pressed = self.stop_moving
self.communications = comm_client
def begin_moving(self):
self.left_eye.on()
self.right_eye.on()
self.servo = AngularServo(SERVO_GPIO,
min_angle=SERVO_MIN_ANGLE,
max_angle=SERVO_MAX_ANGLE,
initial_angle=SERVO_INITIAL_ANGLE)
while self.is_moving:
if self.communications.available():
(origin, message) = self.communications.recv()
if message == 'COIN':
break
for x in reversed(range(0, 179)):
self.servo.angle = x
sleep(0.01)
for x in range(0, 179):
self.servo.angle = x
if self.servo.angle == 0:
sleep(0.5)
else:
sleep(0.01)
self.finale()
def eyes_off(self):
self.right_eye.off()
self.left_eye.off()
def eyes_on(self):
self.left_eye.on()
self.right_eye.on()
def finale(self):
self.flashing_eyes()
self.print_fortune()
self.cleanup_gpio()
def print_fortune(self):
zoltar_dir = os.getenv('ZOLTAR_DIR')
subprocess.Popen(['python', 'zoltar_print_fortune.py'], cwd=zoltar_dir)
def flashing_eyes(self):
self.eyes_off()
sleep(1)
self.eyes_on()
sleep(1)
self.eyes_off()
sleep(1)
self.eyes_on()
sleep(1)
self.eyes_off()
def stop_moving(self):
print('Button detected')
self.is_moving = False
def cleanup_gpio(self):
self.left_eye.close()
self.right_eye.close()
self.servo.close()
self.button.close()
#!/usr/bin/env python3
from gpiozero import Button
from gpiozero import LED
from time import sleep
btn = Button(22)
btn2 = Button(24)
led = LED(16)
print("""
From left-to-right,
press button 1 for led 4,
button 2 to exit.
""")
while True:
if btn.is_pressed:
led.on()
sleep(0.1)
led.off()
elif btn2.is_pressed:
btn.close()
led.close()
print("done")
exit(0)
class PyTenki:
def __init__(self, forecast=None, led_pins=None, button_pin=None):
self._forecast = forecast
self._leds = None
self._button = None
self._normalize_weather_str()
self.assign_leds(led_pins)
self.assign_button(button_pin)
@property
def forecast(self):
return self._forecast
@forecast.setter
def forecast(self, forecast):
self._forecast = forecast
self._normalize_weather_str()
def _normalize_weather_str(self):
try:
strings = (('大', ''), ('暴風', ''), ('雷', ''), ('一時', '時々'),
('雨か雪', '雨'), ('雪か雨', '雪'))
for before, after in strings:
tmp = self._forecast['weather']
self._forecast['weather'] = tmp.replace(before, after)
except (AttributeError, TypeError):
pass
def _compose_forecast_summary(self):
try:
day = self._forecast.get('day')
city = self._forecast.get('city')
weather = self._forecast.get('weather')
if all([day, city, weather]):
fcast_weather = FCAST_WEATHER.format(day=day,
city=city,
weather=weather)
fcast_max_temp = ''
fcast_min_temp = ''
temps = self._forecast.get('temp')
max_temp = temps.get('max')
min_temp = temps.get('min')
if max_temp:
fcast_max_temp = FCAST_MAX_TEMP.format(max_temp=max_temp)
if min_temp:
fcast_min_temp = FCAST_MIN_TEMP.format(min_temp=min_temp)
return ''.join([fcast_weather, fcast_max_temp, fcast_min_temp])
except AttributeError:
pass
return FCAST_SUM_ERR
@_exc_attr_err
def assign_leds(self, led_pins):
self._close_leds()
try:
self._leds = LEDBoard(
fine=led_pins.get('fine'),
cloud=led_pins.get('cloud'),
rain=led_pins.get('rain'),
snow=led_pins.get('snow'),
pwm=True,
)
except PinInvalidPin:
pass
@_exc_attr_err
def _close_leds(self):
self._leds.close()
def assign_button(self, button_pin):
try:
self._close_button()
self._button = Button(button_pin)
except (GPIOPinMissing, PinInvalidPin):
pass
@_exc_attr_err
def _close_button(self):
self._button.close()
@_exc_attr_err
def tts_forecast_summary_after_button_press(self):
self._button.when_pressed = self._tts_forecast_summary
def _tts_forecast_summary(self):
summary = self._compose_forecast_summary()
try:
p1 = subprocess.Popen(['echo', summary], stdout=subprocess.PIPE)
p2 = subprocess.Popen([
'open_jtalk', '-x', DIC_FPATH, '-m', VOICE_FPATH, '-ow',
SPEECH_FPATH
],
stdin=p1.stdout,
stdout=subprocess.PIPE)
p1.stdout.close()
p2.communicate()
p2.wait()
subprocess.run(['aplay', '--quiet', SPEECH_FPATH])
subprocess.run(['rm', '-f', SPEECH_FPATH])
except OSError:
pass
def operate_all_weather_leds(self,
on_time=1,
off_time=1,
fade_in_time=1,
fade_out_time=1):
self._operate_fine_led(on_time, off_time, fade_in_time, fade_out_time)
self._operate_cloud_led(on_time, off_time, fade_in_time, fade_out_time)
self._operate_rain_led(on_time, off_time, fade_in_time, fade_out_time)
self._operate_snow_led(on_time, off_time, fade_in_time, fade_out_time)
@_exc_attr_err
def _operate_fine_led(self,
on_time=1,
off_time=1,
fade_in_time=1,
fade_out_time=1):
weather = self._forecast.get('weather')
if weather.startswith('晴'):
self._leds.fine.on()
elif 'のち晴' in weather:
self._leds.fine.pulse(fade_in_time, fade_out_time)
elif '時々晴' in weather:
self._leds.fine.blink(on_time, off_time)
else:
self._leds.fine.off()
@_exc_attr_err
def _operate_cloud_led(self,
on_time=1,
off_time=1,
fade_in_time=1,
fade_out_time=1):
weather = self._forecast.get('weather')
if weather.startswith('曇'):
self._leds.cloud.on()
elif 'のち曇' in weather:
self._leds.cloud.pulse(fade_in_time, fade_out_time)
elif '時々曇' in weather:
self._leds.cloud.blink(on_time, off_time)
else:
self._leds.cloud.off()
@_exc_attr_err
def _operate_rain_led(self,
on_time=1,
off_time=1,
fade_in_time=1,
fade_out_time=1):
weather = self._forecast.get('weather')
if weather.startswith('雨'):
self._leds.rain.on()
elif 'のち雨' in weather:
self._leds.rain.pulse(fade_in_time, fade_out_time)
elif '時々雨' in weather:
self._leds.rain.blink(on_time, off_time)
else:
self._leds.rain.off()
@_exc_attr_err
def _operate_snow_led(self,
on_time=1,
off_time=1,
fade_in_time=1,
fade_out_time=1):
weather = self._forecast.get('weather')
if weather.startswith('雪'):
self._leds.snow.on()
elif 'のち雪' in weather:
self._leds.snow.pulse(fade_in_time, fade_out_time)
elif '時々雪' in weather:
self._leds.snow.blink(on_time, off_time)
else:
self._leds.snow.off()
class BixelRunner(object):
def __init__(self, buttons, driver, matrix, delay=33, default_bright=2):
self.buttons = buttons
self.driver = driver
self.matrix = matrix
self.delay = delay
self.brightness = default_bright
self.games = []
self.game_id = 0
self.set_brightness(self.brightness)
self.interval = IntervalRunner(self._run, self.delay)
self.btn_bright = Button(16, bounce_time=0.01)
self.btn_bright.when_pressed = self.brightness_pressed
self.btn_menu = Button(20, bounce_time=0.01)
self.btn_menu.when_pressed = self.show_menu
self.in_menu = False
self.menu_game = GameMenu(self.buttons.buttons, self.matrix)
self.menu_game.setup(self)
self.menu_game.reset()
def show_menu(self):
print('Entering Menu')
self.menu_game.reset()
self.in_menu = True
def set_brightness(self, val):
if val >= len(BRIGHT_LEVELS):
print('Invalid Value')
else:
print('Brightness: {}/{}'.format(val + 1, len(BRIGHT_LEVELS)))
self.driver.setMasterBrightness(BRIGHT_LEVELS[val])
def brightness_pressed(self):
self.brightness += 1
if self.brightness >= len(BRIGHT_LEVELS):
self.brightness = 0
self.set_brightness(self.brightness)
def add_game(self, game_class, args=(), kwargs={}):
g = game_class(self.buttons.buttons, self.matrix)
g.setup(*args, **kwargs)
g.reset()
self.games.append(g)
return len(self.games) - 1
def select_game(self, index):
print('select: {}'.format(index))
if index >= 0 and index < len(self.games):
self.game_id = index
self.games[self.game_id].reset()
def start(self):
if self.games:
self.interval.start()
def stop(self):
self.btn_bright.close()
def _run(self):
self.buttons.get()
if self.in_menu:
self.menu_game.frame()
if self.menu_game.selected is not None:
self.matrix.clear()
self.select_game(self.menu_game.selected)
self.in_menu = False
print('Switching to game: {}'.format(self.games[self.game_id].__class__.__name__))
else:
self.games[self.game_id].frame()
self.driver.update()
exit_switch = 13
is_lifted_playing = False
first_time = True
is_pressed_playing = False
headphone_button = Button(headphone_switch)
turnoff_button = Button(turnoff_switch)
exit_button = Button(exit_switch)
play_pressed = Player(play_path_video_is_pressed)
play_pressed.play()
try:
while True:
pass
except KeyboardInterrupt:
print(''.join(['\n', '\n', 'INTERRUPTED', '\n']))
if play_pressed.status() == 'playing':
print('play_lifted Video is running, terminating now!')
play_pressed.stop()
#load_image().stop()
#play_pressed.kill()
else:
print('no Video running, exiting now')
headphone_button.close()
turnoff_button.close()
exit_button.close()
pygame.quit()
pi_
lcd.text('Passcode', 1)
lcd.text('Correct!', 2)
buzz.on()
greenled.on()
sleep(2)
greenled.off()
buzz.off()
lcd.text('Initializing', 1)
lcd.text('Face Scan...', 2)
break
else:
lcd.text('Passcode', 1)
lcd.text('Incorrect!', 2)
buzz.on()
redled.on()
sleep(2)
redled.off()
buzz.off()
userpass = []
elif len(userpass) > len(password):
lcd.clear()
lcd.text('Please Try Again', 1)
sleep(1)
userpass = []
redled.close()
greenled.close()
buzz.close()
btn1.close()
btn2.close()
import faceunlock
if i12.value == 1:
print("i12 pressed")
o12.on()
if fault.value == 0:
print("SHORT CCT FAULT DETECTED!")
print("RESET FAULT...")
enable.off()
sleep(5)
enable.on()
print("RESET COMPLETE")
sleep(1)
except KeyboardInterrupt:
# required to close down program correctly in case of ctrl+c exit
print("bye")
i1.close()
i2.close()
i3.close()
i4.close()
i5.close()
i6.close()
i7.close()
i8.close()
i9.close()
i10.close()
i11.close()
i12.close()
sys.exit()
class Hal(object):
def __init__(self):
self.led1_w = LED(17)
self.led2_w = LED(11)
self.sensor = Button(24)
self.button = Button(23)
self.button.when_pressed = self.__exit
self.timers = {}
self.timers[1] = time.time()
self.leds = {}
self.leds[1] = {'o': RGBLED(2, 3, 4, pwm=True, active_high=False), 'c': (1, 1, 1), 'b': 1.}
self.leds[2] = {'o': RGBLED(10, 9, 25, pwm=True, active_high=False), 'c': (1, 1, 1), 'b': 1.}
def __exit(self):
self.button.close()
self.sensor.close()
self.leds[1]['o'].close()
self.leds[2]['o'].close()
time.sleep(1)
sys.exit()
def get_sensor_status(self):
return self.sensor.is_pressed
def set_color(self, x, color):
rgb = self.hex_to_rgb(color)
rgb_normalized = self.rgb_to_range(rgb)
z = self.leds[x]['b']
c = tuple(c * z for c in rgb_normalized)
self.leds[x]['o'].color = c
self.leds[x]['c'] = color
def light_off(self, x):
self.leds[x]['o'].off()
def set_brightness(self, x, z):
color = self.leds[x]['c']
rgb = self.hex_to_rgb(color)
rgb_normalized = self.rgb_to_range(rgb)
z = z / 100.
c = tuple(c * z for c in rgb_normalized)
self.leds[x]['o'].color = c
self.leds[x]['b'] = z
def get_brightness(self, x):
return self.leds[x]['b']*100.
def blink(self, x, frequency, time):
f = frequency*2.
color = self.leds[x]['c']
rgb = self.hex_to_rgb(color)
rgb_normalized = self.rgb_to_range(rgb)
z = self.leds[x]['b']
c = tuple(c * z for c in rgb_normalized)
self.leds[x]['o'].blink(1/f, 1/f, n=int(time*frequency), background=False, on_color=c)
def dim(self, x, z1, z2, time):
color = self.leds[x]['c']
rgb = self.hex_to_rgb(color)
rgb_normalized = self.rgb_to_range(rgb)
z1 /= 100.
z2 /= 100.
z1_color = tuple(c * z1 for c in rgb_normalized)
z2_color = tuple(c * z2 for c in rgb_normalized)
if z1 < z2:
self.leds[x]['o'].pulse(fade_in_time=time, fade_out_time=0, on_color=z2_color,
off_color=z1_color, n=1, background=False)
else:
self.leds[x]['o'].pulse(fade_in_time=0, fade_out_time=time, on_color=z1_color,
off_color=z2_color, n=1, background=False)
def wait(self, timeSeconds):
time.sleep(timeSeconds)
def clear(self):
pass
def getTimerValue(self, timer):
if timer in self.timers:
return int((time.time() - self.timers[timer]))
else:
self.timers[timer] = time.time()
return 0
def resetTimer(self, timer):
self.timers[timer] = time.time()
def hex_to_rgb(self, hex):
hex = hex.lstrip('#')
hlen = len(hex)
return tuple(int(hex[i:i+hlen/3], 16) for i in range(0, hlen, hlen/3))
def rgb_to_range(self, rgb):
return tuple(c / 255. for c in rgb)
class WatchDog:
def __init__(self):
self.__loop = asyncio.get_event_loop()
self.__log = logging.getLogger(self.__class__.__name__)
self.__stop = False
self.__tasks = []
def get_task(self):
return self.__tasks
async def __state_monitor(self):
self.__log.info("Start Monitor state")
try:
self.__btn = Button(4)
self.__current_state = self.__btn.value
while self.__stop is False:
await self.__watch_state()
await asyncio.sleep(0.1)
except asyncio.CancelledError:
self.__log.info("Cancelled")
except:
self.__log.info(sys.exc_info()[0])
finally:
self.__btn.close()
async def __watch_state(self):
new_state = self.__btn.value
if self.__current_state != new_state:
self.__log.info("State change {} > {}".format(
self.__current_state, new_state))
if self.__current_state is True and new_state is False:
self.__tasks["shutdown"] = asyncio.ensure_future(
self.__prepare_for_shutdown())
elif self.__current_state is False and new_state is True:
if "shutdown" in self.__tasks:
self.__tasks["shutdown"].cancel()
self.__tasks["start"] = asyncio.ensure_future(
self.__prepare_to_start())
self.__current_state = new_state
async def __prepare_for_shutdown(self, timeout=10):
try:
while self.__stop is False:
self.__log.info("Shutdown countdown {}".format(timeout))
await asyncio.sleep(1)
if timeout == 0:
self.__log.info("Shutting down")
sh = Shutdown()
sh.start()
break
timeout -= 1
except asyncio.CancelledError:
self.__log.info("Shutdown Cancelled")
async def __prepare_to_start(self):
self.__log.info("Turn on")
def start(self):
self.__tasks = {
"state_monitor": asyncio.ensure_future(self.__state_monitor())
}
def shutdown(self):
self.__stop = True
for key, task in self.__tasks.items():
task.cancel()
time.sleep(1)