def loop():
while True:
signal = int(ADC.read(0)) * 4
if signal > Treshold:
print signal
ADC.write(ADC.read(0))
sleep(0.01)
def loop():
status = 1
while True:
print('Value:', ADC.read(0))
Value = ADC.read(0)
outvalue = map(Value, 0, 255, 120, 255)
ADC.write(outvalue)
time.sleep(0.2)
def destroy():
ADC.write(0)
Rpwm.stop
Gpwm.stop
Bpwm.stop
GPIO.output(Rpin, GPIO.HIGH)
GPIO.output(Gpin, GPIO.HIGH)
GPIO.output(Bpin, GPIO.HIGH)
GPIO.cleanup
def destroy(): ADC.write(0) Rpwm.stop Gpwm.stop Bpwm.stop GPIO.output(Rpin, GPIO.HIGH) GPIO.output(Gpin, GPIO.HIGH) GPIO.output(Bpin, GPIO.HIGH) GPIO.cleanup
def measure():
ADC.setup(0x48)
bus = smbus.SMBus(1)
reading = ADC.read(2)
ADC.write(ADC.read(0))
value = ((0.641025641) * reading)
moistureLevel = (100 - value) * 2
if moistureLevel > 100:
moistureLevel = 100
return moistureLevel
def loop():
while True:
value = ADC.read(0) # read the potentiometer value
dc = value / 2.55 # duty cycle goes from 0 to 100, the potentiometer value from 0 to 255
print 'Value: ' + str(value)
print 'DC: ' + str(dc)
p.ChangeDutyCycle(
dc) # set the brightness, changing duty cycle to the value of dc
ADC.write(value)
time.sleep(0.05) # wait for 50 ms
def loop():
while True:
value = ADC.read(0) # read the potentiometer value
ms = float(value) / 1000
print 'Milliseconds: ' + str(ms)
ADC.write(ms)
print "Led ON..."
GPIO.output(ledPin, GPIO.LOW) # turn on led
time.sleep(ms) # wait for the number of seconds in ms
print "Led OFF..."
GPIO.output(ledPin, GPIO.HIGH) # turn off led
time.sleep(ms) # wait for the number of seconds in ms
def loop():
while True:
for pin in pins: # turn on LEDs from left to right
value = ADC.read(0) # read the potentiometer value
ms = float(value) / 1000
ADC.write(ms)
GPIO.output(pin, GPIO.LOW) # turn on the LED
time.sleep(ms) # wait for the number of seconds in ms
for pin in invertedPins: # turn off LEDs from right to left
value = ADC.read(0) # read the potentiometer value
ms = float(value) / 1000
ADC.write(ms)
GPIO.output(pin, GPIO.HIGH) # turn off the LED
time.sleep(ms) # wait for the number of seconds in ms
for pin in invertedPins: # turn on LEDs from right to left
value = ADC.read(0) # read the potentiometer value
ms = float(value) / 1000
ADC.write(ms)
GPIO.output(pin, GPIO.LOW) # turn on the LED
time.sleep(ms) # wait for the number of seconds in ms
for pin in pins: # turn off LEDs from left to right
value = ADC.read(0) # read the potentiometer value
ms = float(value) / 1000
ADC.write(ms)
GPIO.output(pin, GPIO.HIGH) # turn off the LED
time.sleep(ms) # wait for the number of seconds in ms
def indexroute():
Temp_units = ADC.read(0) #Read ADC units on chn 0
Temp_volts = (
Temp_units * 3.3
) / 256 #Convert to voltage based on ADC resolution (vref+-vref-)/2^N
temp = Temp_volts / 0.01 # using temperature sensor eqn: 10mV/1C
ADC.write(Temp_units) # write to dac to adjust LED brightness
Hum_units = ADC.read(1) #Read ADC units on chn 1
Hum_volts = (
Hum_units * 3.3
) / 256 #Convert to voltage based on ADC resolution (vref+-vref-)/2^N
humidity = (Hum_volts - 0.985) / 0.0307 # using humidity sensor eqn
return "Welcome! The current temp is %2.2f and the humidity is %2.2f" % (
temp, humidity) #Return the temp and humidty
def loop():
status = 1
while True:
print('Value:', ADC.read(0))
Value = ADC.read(0)
if Value > 250:
## if ADC.read(0) < 120:
print('...relayd on')
GPIO.output(RelayPin, GPIO.LOW)
else:
print('relay off...')
GPIO.output(RelayPin, GPIO.HIGH)
outvalue = map(Value, 0, 255, 120, 255)
ADC.write(outvalue)
time.sleep(0.2)
def main():
try:
ADC.setup(0x48) # Set up the GPIO pins used to talk to the DAC
monitor = PeakMonitor(SINK_NAME, METER_RATE)
for sample in monitor:
# samples range from 0 to 127 so double them to get the full voltage
# range of the DAC ("<< 1")
# sample = sample << 1
sample = sample * 1.42 # reduce range for better VU scale
# sample = table[sample] # ...using loopup table
# print sample
ADC.write(sample)
except KeyboardInterrupt: #Ctrl+C pressed
print
print "Shutdown requested...exiting"
monitor.flushqueue()
def destroy():
ADC.write(0)
def destroy():
p.stop() # stop the PWM instance
ADC.write(0)
GPIO.output(ledPin, GPIO.HIGH) # turn off led
GPIO.cleanup() # release resource
def menu():
global direction
global submenu
global main_menu
global DAC0_status
if direction == "up":
submenu = submenu - 1
elif direction == 'down':
submenu = submenu + 1
elif direction == "right":
main_menu = main_menu + 1
submenu = 1
elif direction == "left":
main_menu = main_menu - 1
submenu = 1
if main_menu == 12:
main_menu = 1
if main_menu == 0:
main_menu = 11
temp, pressure = bmp.get_temperature_and_pressure() #BMP280 code line
#Information
if main_menu == 1:
Temp_C, Temp_F = RTC.getTemp() #ds3231 code line
if submenu == 4:
submenu = 1
if submenu == 0:
submenu = 3
if submenu == 1:
oled("< 1.Time >", time.strftime('%X'))
if submenu == 2:
oled("< 1.Date >", time.strftime('%x'))
elif submenu == 3:
oled("< 1.RTC Temp >", (str(round(Temp_C, 2)) + " C"),
(str(round(Temp_F, 2)) + " F"))
# Sensor data
elif main_menu == 2:
if submenu == 3:
submenu = 1
if submenu == 0:
submenu = 2
if submenu == 1:
oled("< 2. BMP280 >", "Temperature", (str(round(temp, 2)) + " C"))
elif submenu == 2:
oled("< 2. BMP280 >", "Pressure", round(pressure, 2))
# Device info
elif main_menu == 3:
if submenu == 5:
submenu = 1
if submenu == 0:
submenu = 4
if submenu == 1:
oled("< 3.Rpi Info >", "CPU Temperature=",
(add_module.getCPUtemperature() + " C"))
elif submenu == 2:
oled("< 3.Rpi Info >", "Free RAM",
(str(int(add_module.getRAMinfo()[2]) / 1024) + " MB"))
elif submenu == 3:
oled("< 3.Rpi Info >", "CPU Usage",
(str(add_module.getCPUuse()) + " %"))
elif submenu == 4:
oled("< 3.Rpi Info >", "Disk Usage", add_module.getDiskSpace()[3])
# IP Address
elif main_menu == 4:
if submenu == 3:
submenu = 1
if submenu == 0:
submenu = 2
if submenu == 1:
oled("< 4. Rpi IP's >", "WLAN0",
add_module.get_ip_address('wlan0'))
elif submenu == 2:
oled("< 4. Rpi IP's >", "ETH0", add_module.get_ip_address('eth0'))
#Finance
elif main_menu == 5:
if submenu == 3:
submenu = 1
if submenu == 0:
submenu = 2
if submenu == 1:
oled("< 5. Exch Rate >", "Dolar / TL",
DovizKurlari().DegerSor("USD", 4))
elif submenu == 2:
oled("< 5. Exch Rate >", "Euro / TL",
DovizKurlari().DegerSor("EUR", 4))
#DAC0, LED1, and ADC0 through ADC3
elif main_menu == 6:
if submenu == 6:
submenu = 1
if submenu == 0:
submenu = 5
if submenu == 1:
oled("< 6. DAC0/LED1 >", "Turn On/OFF", "Press Button")
if GPIO.input(KEY) == 0:
if DAC0_status == 0:
GPIO.output(
LED1, GPIO.HIGH) #Turns on LED1 to indicate DAC0 is on
ADC.write(255) #Turns on DAC0
DAC0_status = 1
time.sleep(.25)
else:
GPIO.output(
LED1,
GPIO.LOW) #Turns off LED1 to indicate DAC0 is off
ADC.write(0) #Turns off DAC0
DAC0_status = 0
time.sleep(.25)
elif submenu == 2:
oled("< 6. DAC0/LED1 >", "Ain0",
(str(round(ADC.read(0), 2)) + " Volts")) #PCF8591 code line
elif submenu == 3:
oled("< 6. DAC0/LED1 >", "Ain1",
(str(round(ADC.read(1), 2)) + " Volts")) #PCF8591 code line
elif submenu == 4:
oled("< 6. DAC0/LED1 >", "Ain2",
(str(round(ADC.read(2), 2)) + " Volts")) #PCF8591 code line
elif submenu == 5:
oled("< 6. DAC0/LED1 >", "Ain3",
(str(round(ADC.read(3), 2)) + " Volts")) #PCF8591 code line
#System
elif main_menu == 7:
if submenu == 5:
submenu = 1
if submenu == 0:
submenu = 4
elif submenu == 1:
oled("< 7. System >", "Close App", "Press Button")
if GPIO.input(KEY) == 0:
sys.exit()
elif submenu == 2:
oled("< 7. System >", "Restart", "Press Button")
if GPIO.input(KEY) == 0:
os.popen('sudo reboot')
elif submenu == 3:
oled("< 7. System >", "Halt System", "Press Button")
if GPIO.input(KEY) == 0:
os.popen('sudo halt')
elif submenu == 4:
oled("< 7. System >", "App Update", "Press Button")
if GPIO.input(KEY) == 0:
oled("< 7. System >", "Update ...")
os.popen('sudo apt-get update')
oled("< 7. System >", "Upgrade ...")
os.popen('sudo apt-get upgrade -y')
oled("< 7. System >", "Completed")
#Additional sensors
elif main_menu == 8:
temp_c, temp_f = OneWire.read_temp() #ds18b20 code line
f = OneWire.read_rom() #ds18b20 code line
if submenu == 3:
submenu = 1
if submenu == 0:
submenu = 2
if submenu == 1:
oled("< 8. Sensors >", f, (str(round(temp_c, 2)) + " C"))
elif submenu == 2:
oled("< 8. Sensors >", f, (str(round(temp_f, 2)) + " F"))
# IRM readings
elif main_menu == 9:
if submenu == 2:
submenu = 1
if submenu == 0:
submenu = 1
if submenu == 1:
IRM_key = IRM.irm_key()
oled("< 9. IRM >", "Readings",
IRM_key) #This is not catching all the button presses.
#The issue is the structure of this program would need to change to handle the timing.
#Running a thread does not improve program response to sensor input. To improve the
#response to the sensor input the program needs to be restructured/shortened.
#USB2UART TX Test
elif main_menu == 10:
oled("< 10. USB2UART >", "Run TX test", "Press Button"
) #This is to test the transmission from the Pi to a PC.
if GPIO.input(KEY) == 0:
ser.write("Test line\r\n".encode())
oled("< 10. USB2UART >", "Test line sent", "View results")
time.sleep(2)
#USB2UART RX Test
elif main_menu == 11:
oled("< 11. USB2UART >", "Run RX test",
"Press Button") #This is to test the
#transmission from the PC to a Pi. No more than a small word, due to the OLED size.
if GPIO.input(KEY) == 0:
flush_input() #Calls the function to clear the
#terminal keyboard buffer before the desired input is collected.
oled("< 11. USB2UART >", "Button Pressed", "Starting test")
ser.write("Type something\r\n".encode())
out = USB2UART.readData()
oled("< 11. USB2UART >", "You wrote:", str(out))
ser.write("You wrote: ".encode() + str(out).encode() +
"\r\n".encode())
time.sleep(2)
else:
print("something went wrong")
return (submenu)
def destroy():
GPIO.cleanup()
ADC.write(0)
def destroy():
con.close()
ADC.write(0)
if apass != kpass:
print "Invalid Password\n"
else:
while validate_rfid(data) != rfidpass:
data = ser.read(12)
print "Invalid RFID Tag\n"
song1()
mycam.start_preview()
print "\nWelcome to SMirror\n Flip switch 1 to take a picture, 4 to take a video and 8 to start the server"
try:
while True:
(tp, tpunits) = temp(2)
(otp, otpunits) = temp(1)
(lint, lintunits) = light(3)
adc.write(lintunits)
tp = float(tp)
otp = float(otp)
otp = otp / 5.00
time.sleep(0.5)
if tp >= 23:
lcd.clear()
gpio.output(ledac, 1)
lcd.write(0, 0, "AC is ON")
lcd.write(0, 1, "Room Temp: %2.2fC" % tp)
else:
lcd.clear()
gpio.output(ledac, 0)
lcd.write(0, 0, "AC is OFF")
lcd.write(0, 1, "Room Temp: %2.2fC" % tp)
def loop(): while True: print ADC.read(0) ADC.write(ADC.read(0))
import PCF8591 as ADC
import time
ADC.setup(0x48)
while True:
ADC.write(0)
time.sleep(0.1)
def destroy():
ADC.write(0)
GPIO.output(ledPin, GPIO.HIGH) # turn off led
GPIO.cleanup() # release resource
def vibrate():
ADC.setup(0x48)
ADC.write(255)
time.sleep(0.3)
ADC.write(0)
print "vibrate!"
def loop():
while True:
print(ADC.read(0))
ADC.write(ADC.read(0))
def ADWrite(self, value):
ADC.write(value)
def destroy():
ADC.write(0)
import PCF8591 as ADC
ADC.setup(0x48)
trt:
while True:
print(ADC.read(0))
ADC.write(ADC.read(0))
finally:
ADC.write(0)
