def main(self):
det = Dosimeter(**self.LEDS) # Initialise dosimeter object from dosimeter.py
det.activatePin(self.led_power)
sleep_time = 300
if self.args.test:
sleep_time = 10 # seconds
while True: # Run until error or KeyboardInterrupt (Ctrl + C)
p = Process(target = det.ping, args=(self.led_network,))
p.start()
p.join() # Will block main thread execution until ping succeeds, else blinks in parallel
GPIO.remove_event_detect(SIG_PIN)
GPIO.add_event_detect(SIG_PIN, GPIO.FALLING, callback = det.updateCount_basic, bouncetime=1)
sleep(sleep_time)
self.getAndSendData(det = det, sleep_time = sleep_time) # time in seconds
def main(self):
# Initialise dosimeter object from dosimeter.py
det = Dosimeter(max_accumulation_time_sec=3600, **self.LEDS)
det.activatePin(self.led_power)
sleep_time = 300
if self.args.test:
sleep_time = 30 # seconds
dt = datetime.timedelta(seconds=sleep_time)
# now we are keeping track of our accumulation time intervals
# in this block, not in Dosimeter
curStart = datetime.datetime.now()
curEnd = curStart + dt
timeCheckFactor = 30
while True:
# Run until error or KeyboardInterrupt (Ctrl + C)
p = Process(target=det.ping, args=(self.led_network,))
p.start()
p.join()
# p.join() will block main thread execution until ping succeeds,
# else blinks in parallel
GPIO.remove_event_detect(SIG_PIN)
GPIO.add_event_detect(
SIG_PIN, GPIO.FALLING, callback=det.updateCount_basic,
bouncetime=1)
while datetime.datetime.now() < curEnd:
# Wait until the accumulation time interval is up
# If timeCheckFactor==1, then the intervals of the while True
# loop would slowly get out of sync with the start/end times,
# due to the additional processing time for commands before
# and after the sleep command.
sleep(sleep_time / timeCheckFactor)
self.getAndSendData(det, curStart, curEnd) # time in sec
curStart = curEnd + datetime.timedelta(seconds=0) # copy
curEnd = curEnd + dt