def do_steps():
global steps_queue
if steps_queue.qsize() == 0:
return
steps = steps_queue.get()
if (steps > 0):
step_fun = forward_one_step
n = steps
else:
step_fun = backward_one_step
n = -steps
freq = led.get_frequency(config.LED_PORCH)
dc = led.get_duty_cycle(config.LED_PORCH)
status = led.get_status(config.LED_PORCH)
led.turn_on(config.LED_PORCH, 2, 50)
gpio_lock.acquire()
for i in range(0, n):
step_fun(0.01)
set_motor_input(0, 0, 0, 0)
gpio_lock.release()
if status == 'on':
led.turn_on(config.LED_PORCH, freq, dc)
else:
led.turn_off(config.LED_PORCH)
status_notify()
def trigger(self):
bus = smbus.SMBus(1)
shot = 0
status = True
while True:
#Parameters for write_byte_data
#1. Address of the device
#2. Communication data - active mode control register
#3. Our data - 0 (standby mode) or 1 (active)
bus.write_byte_data(0x1D, 0x2A, 1)
#Read from the status register, real-time status register 0x00
#Data returned will be an array
#Contents of 7 bytes read and stored in data array represent:
#status (ignore), MSBx, LSBx, MSBy, LSBy, MSBz, LSBz
data = bus.read_i2c_block_data(0x1D, 0x00, 7)
number_of_bits = 16
MSB_z = data[5]
LSB_z = data[6]
zAccl = (MSB_z * 256 + LSB_z) / number_of_bits
if zAccl > 2047:
zAccl -= 4096
# if z acceleration changes by some great amount
prev_z = 1000
if abs((prev_z - zAccl) / zAccl) >= 1.0: ### Change this
bus.write_byte_data(0x1D, 0x2A, 0)
# record GPS for 1 second.
with open("/home/pi/SeisNode/data/shots.csv" % shot,
"a+") as writefile:
print("Trigger")
led.turn_on()
writer = csv.writer(writefile)
if shot == 0:
writer.writerow([
"Shot", "Time", "Lat", "Lat Err", "Lon", "Lon Err",
"Alt", "Alt Err"
])
start = time.time()
while time.time() - start < 1:
data = self.collect_gps()
data = np.concatenate([[shot], data])
writer.writerow(data)
time.sleep(0.2)
writefile.flush()
writefile.close()
shot += 1
time.sleep(30)
led.turn_off()
prev_z = 1000
status = True
continue
status = False
prev_z = zAccl
def collect_data(self):
pass
def on_socket_connect_ack(self, args):
print 'on_socket_connect_ack: ', args
if self.first_connect == True:
led.turn_on(config.LED_LIVING, 1, 100) #socktio connected
self.first_connect = False
self.socketIO.emit('connect', {'appkey': config.APPKEY, 'customid': config.CUSTOMID})
def ledOn(x, blink=False):
'''to contrl led on or blink for 1 second, x should be within [0,8]'''
byte = led.translate_led_to_byte(x)
if blink:
led.blink(byte)
else:
led.turn_on(byte)
def do_steps():
global steps_queue
if steps_queue.qsize() == 0:
return;
steps = steps_queue.get()
if (steps > 0):
step_fun = forward_one_step
n = steps
else:
step_fun = backward_one_step
n = -steps
freq = led.get_frequency(config.LED_PORCH)
dc = led.get_duty_cycle(config.LED_PORCH)
status = led.get_status(config.LED_PORCH)
led.turn_on(config.LED_PORCH, 2, 50)
gpio_lock.acquire()
for i in range(0, n):
step_fun(0.01)
set_motor_input(0, 0, 0, 0)
gpio_lock.release()
if status == 'on':
led.turn_on(config.LED_PORCH, freq, dc)
else:
led.turn_off(config.LED_PORCH)
status_notify()
def on_socket_connect_ack(self, args):
print 'on_socket_connect_ack: ', args
if self.first_connect == True:
led.turn_on(config.LED_LIVING, 1, 100) #socktio connected
self.first_connect = False
self.socketIO.emit('connect', {
'appkey': config.APPKEY,
'customid': config.CUSTOMID
})
def main():
global player
global messenger
signal.signal(signal.SIGTERM, sig_handler)
#signal.signal(signal.SIGINT, sig_handler)
led.change_notify = change_notify
stepper_motor.change_notify = change_notify
led.change_notify = change_notify
led.turn_on(config.LED_LIVING, 1, 50) #checking network
led.turn_on(config.LED_BEDROOM, 1, 100)
led.turn_on(config.LED_PORCH, 1, 100)
while True:
if is_network_ok():
break
time.sleep(2)
led.turn_on(config.LED_LIVING, 4, 50) #network is ok, connecting socktio
player = Player(change_notify)
messenger = Messenger(message_callback)
while True:
humtem_report()
time.sleep(2)
def light_on(name, freq, dc):
print('light_on: %s, %d, %d' % (name, freq, dc))
if name == 'living':
led.turn_on(config.LED_LIVING, freq, dc)
elif name == 'bedroom':
led.turn_on(config.LED_BEDROOM, freq, dc)
elif name == 'porch':
led.turn_on(config.LED_PORCH, freq, dc)
beamheaders = {'Content-Type': "application/json"}
response = requests.request("POST",
beamurl,
data=json.dumps(beampayload),
headers=beamheaders)
# Beam will pass back the response from the Anomaly Detector API, and we'll save it as JSON.
azureresponse = json.loads(response.text)
# This will print out isAnomaly: True or False depending on the boolean value returned.
print("isAnomaly: ", azureresponse["isAnomaly"])
# If the value is True, and anomaly is detected and the LED will turn on.
if azureresponse["isAnomaly"] == True:
print("Anomaly detected. Turning on LED.")
led.turn_on()
# Otherwise, its False, and we'll keep it off. This will turn it off it was true previously as well.
else:
print("No anomaly detected. LED off.")
led.turn_off()
except Exception as e:
print(e)
print("***")
# sleep until next loop
time_to_wait = loop_start_time + interval - time.time()
if time_to_wait > 0:
time.sleep(time_to_wait)
def showChecking():
SAKS.digital_display.off() #digital display off
led.turn_on(0x0c)
#show the index of the site, +1 offset to make it more readable
SAKS.digital_display.show("%04d" % (i + 1))
#use num of leds to show the delay level measured in ms
if delay is not None:
if delay <= 250: #(<250ms)
ledOn(1)
elif delay <= 500: #(<500ms)
ledOn(2)
elif delay <= 1000:
ledOn(3)
elif delay <= 1500:
ledOn(4)
elif delay <= 2000:
ledOn(5)
else:
ledOn(6)
else:
#alarm with a beep and blink all light
if (beep_flag):
beeper.beep = True
led.blink(0xf0)
except Exception, e:
traceback.print_exc()
except KeyboardInterrupt:
pass
finally:
beeper.stop = True
beeper.join()
SAKS.digital_display.off() #digital display off
led.turn_on(0x00)
def on_message(client, userdata, message):
print('message received!')
payload = json.loads(message.payload)
color = payload['value']
led.turn_off_all()
led.turn_on(color)
