Esempio n. 1
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    def pinUpdate(self, pinName, value):
        """
        main function to update a pin: the passed name has to be a valid name. It has to be among the keys read
        from ablib and stored in ValidPins or it has to be into the available MCU names (also read from ablib)
        """

        pinName = pinName.upper()
        if pinName not in self.ValidPins.keys():
            logger.error("unknown pin %s", pinName)
            return

        if self.ValidPins[pinName].value == value:
            logger.debug("pin %s value %s not changed: do nothing", pinName,
                         value)
            return
        else:
            logger.debug("update pin:%s value:%s use:%s to value:%s", pinName,
                         self.ValidPins[pinName].value,
                         self.ValidPins[pinName].mode, value)

        #if not self.isNumeric(value):
        #logger.error("Value %s not admitted: pin %s unchanged", value, pinName)
        #return

        try:
            logger.debug("pin %s commanded to be %s", pinName, value)
            if self.ValidPins[
                    pinName].invert:  # is True: Invert data value (useful for 7 segment common anode displays)
                value = 1 - abs(value)
            if self.ValidPins[pinName].mode == POUTPUT:  # if already in output
                self.ValidPins[pinName].value = value
                self.ValidPins[pinName].instance.set_value(
                    value)  # set output to 1 or 0
                logger.debug("pin %s set to %s", pinName, value)

            elif self.ValidPins[pinName].mode in [
                    PUNUSED, PINPUT
            ]:  # if pin is in input or not used
                old_mode = self.ValidPins[pinName].mode
                self.ValidPins[pinName].mode = POUTPUT  # switch it to output
                self.ValidPins[pinName].instance = AB.Pin(pinName, POUTPUT)
                self.ValidPins[pinName].value = value
                self.ValidPins[pinName].instance.set_value(
                    value)  # set output to 1 to 0
                logger.debug("pin %s was %s - now output to value %s", pinName,
                             old_mode, value)

        except ValueError:
            logger.error("Error trying to update pin %s to value %s", pinName,
                         value)
            pass
        except IOError, e:
            logger.error("Unable to access pin %s: %s", pinName, e)
            pass
Esempio n. 2
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    def setPinMode(self, pinName, mode):
        """
        set pin mode for a single pin
        """
        pinName = pinName.upper()
        if pinName not in self.ValidPins.keys():
            logger.error("setPinMode: unknown pin %s", pinName)
            return

        if self.ValidPins[pinName].mode == mode:
            logger.debug("pin mode not changed: do nothing")
            return

        self.ValidPins[pinName].mode = mode
        AB.Pin(pinName, mode)
        logger.debug("pin %s set to %s mode", pinName, mode)
Esempio n. 3
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    def resetPin(self, pinName):
        """
        reset all pins
        """
        pinName = pinName.upper()
        if pinName not in self.ValidPins.keys():
            logger.error("unknown pin %s", pinName)
            return

        if self.ValidPins[pinName].mode != PUNUSED:
            # set the default mode to OUTPUT: INPUT mode with trigger
            # should start one thread for each pin
            self.ValidPins[pinName].instance = None
            AB.Pin(pinName, POUTPUT)
            self.ValidPins[pinName].mode = PUNUSED
            self.ValidPins[pinName].value = PNONE
            self.ValidPins[pinName].invert = False
            logger.debug("reset pin %s", pinName)
import time
import ablib

Power_USB_A = ablib.Pin('N', '7', 'high')
Power_USB_B = ablib.Pin('N', '8', 'high')
Power_USB_C = ablib.Pin('N', '9', 'high')

while True:

    Power_USB_B.off()

    Power_USB_C.off()

    print "USB A ON"
    Power_USB_A.on()

    time.sleep(15)
Esempio n. 5
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#!/usr/bin/python
import time
import ablib

print "Telit ON/OFF"

telitRESET = ablib.Pin('J6', '38', 'low')
telitON = ablib.Pin('J6', '37', 'low')

telitON.on()
time.sleep(1)
telitON.off()
Esempio n. 6
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#!/usr/bin/python
#Factory test for Daisy-9 boards
import ablib
import time
import os

TXD3 = ablib.Pin("D10","2","high")
RXD3 = ablib.Pin("D10","3","in")
RTS3 = ablib.Pin("D10","4","high")
CTS3 = ablib.Pin("D10","5","in")

TXD1 = ablib.Pin("D13","2","high")
RXD1 = ablib.Pin("D13","3","in")
RTS1 = ablib.Pin("D13","4","high")
CTS1 = ablib.Pin("D13","5","in")


TXD3.on()
if RXD1.get_value()==0:
	print "Error TXD3->RXD1"
TXD3.off()
if RXD1.get_value()==1:
	print "Error TXD3->RXD1"

TXD1.on()
if RXD3.get_value()==0:
	print "Error TXD1->RXD3"
TXD1.off()
if RXD3.get_value()==1:
	print "Error TXD1->RXD3"
Esempio n. 7
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                ablib.set_value(kid_dictionary[key], 0)
                time.sleep(0.01)


def modem_terminal(serial, string, timeout):
    serial.flushInput()
    serial.write(string)
    while timeout > 0:
        if serial.inWaiting() > 0:
            sys.stdout.write(serial.read(serial.inWaiting()))
        time.sleep(0.001)
        timeout = timeout - 1
    print ""


quectel_power = ablib.Pin('W', '10', 'high')
quectel_power_key = ablib.Pin('E', '10', 'low')

usb_a_power = ablib.Pin('N', '7', 'high')
usb_b_power = ablib.Pin('N', '8', 'high')
usb_c_power = ablib.Pin('N', '9', 'high')

kid_dictionary = ablib.D10_kernel_ids
thread.start_new_thread(slide, (kid_dictionary, 1))
kid_dictionary = ablib.D11_kernel_ids
thread.start_new_thread(slide, (kid_dictionary, 1))
kid_dictionary = ablib.D12_kernel_ids
thread.start_new_thread(slide, (kid_dictionary, 1))
kid_dictionary = ablib.D13_kernel_ids
thread.start_new_thread(slide, (kid_dictionary, 1))
kid_dictionary = ablib.D14_kernel_ids
Esempio n. 8
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import ablib
import time
 
print "Blinking led"
print "Type ctrl-C to exit"
 
led = ablib.Pin('J7','3','low')
 
while True:
	time.sleep(0.2)
	led.on()
	time.sleep(0.2)
	led.off()

Esempio n. 9
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    out_file.write(number + "\n")
    out_file.close()


ser = serial.Serial(port='/dev/ttyS1',
                    baudrate=115200,
                    timeout=1,
                    parity=serial.PARITY_NONE,
                    stopbits=serial.STOPBITS_ONE,
                    bytesize=serial.EIGHTBITS)

gate = ablib.Daisy8('D11', 'first', 'RL1')

while True:
    #Check if the modem is on
    quectel_STATUS = ablib.Pin('N6', 'INPUT')

    if quectel_STATUS.get_value() == 1:
        print "Modem is ON"
        break
    else:
        print "Turn ON the modem"
        quectel_power = ablib.Pin('W10', 'HIGH')
        quectel_power_key = ablib.Pin('E10', 'LOW')
        quectel_power_key.on()
        sleep(1)
        quectel_power_key.off()

ser.flushInput()
ser.flushOutput()
Esempio n. 10
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from time import sleep
import ablib

print "Modem ON"

quectel_power = ablib.Pin('W10', 'HIGH')
quectel_power_key = ablib.Pin('E10', 'LOW')

quectel_power_key.on()
sleep(1)
quectel_power_key.off()
Esempio n. 11
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    rtc = quectel.readlines()
    print rtc


def fatal_error(message):
    print "Error: ", message
    lcd.clear()
    lcd.setcurpos(0, 0)
    lcd.putstring("Error:")
    lcd.setcurpos(0, 1)
    lcd.putstring(message)
    sys.exit(1)


#Modem ON
quectel_power = ablib.Pin('W', '10', 'low')
time.sleep(0.5)
quectel_power_key = ablib.Pin('E', '10', 'low')

quectel_power.on()
time.sleep(0.5)

quectel_power_key.on()
time.sleep(1)
quectel_power_key.off()

#Serial link with Modem configuration
quectel = serial.Serial(port="/dev/ttyS1",
                        baudrate=115200,
                        timeout=1,
                        parity=serial.PARITY_NONE,
Esempio n. 12
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import ablib
import time
 
print "Pressing button"
print "Type ctrl-C to exit"
 
led = ablib.Pin('J7','3','low')
button = ablib.Pin('J7','5','in')
 
while True:
	if button.get_value()==0:
		led.on()
	else:
		led.off()

import ablib
import time

power_overrun = ablib.Pin('W', '9', 'in')

while True:
    if power_overrun.get_value() == False:
        print "Power overrun"
        time.sleep(1)