Exemplo n.º 1
0
def turn_left_90_deg_right_laser():
    lz_left = DalekSensors.laser_front_left
    lz_center = DalekSensors.front_distance
    lz_right = DalekSensors.laser_front_right

    print("{} {} {}".format(lz_left, lz_center, lz_right))

    while DalekSensors.front_distance < 80:
        drive.spinLeft(40)

    while (lz_right < 50):
        lz_left = DalekSensors.laser_front_left
        lz_center = DalekSensors.front_distance
        lz_right = DalekSensors.laser_front_right
        print("{} {} {}".format(lz_left, lz_center, lz_right))
        drive.spinLeft(40)

    drive.stop()
    new_position = [
        compass_positions['left'], compass_positions['forward'],
        compass_positions['right'], compass_positions['backwards']
    ]
    compass_positions['left'] = new_position[3]
    compass_positions['forward'] = new_position[0]
    compass_positions['right'] = new_position[1]
    compass_positions['backwards'] = new_position[2]
Exemplo n.º 2
0
def main():
    # # changeDalekTurnSettings(1)
    # head_controller.leds_change_color(head_controller.leds_color['red'])
    head_controller.head_move_to_center()
    fw_mag = spi.get_mag()
    print("center mag:{}" .format(fw_mag))

    time.sleep(1)
    # # print("3")
    # head_controller.head_move_left_90deg()
    # time.sleep(2)
    # left_mag = spi.get_mag()
    # print("left mag:{}" .format(left_mag))
    # time.sleep(.5)

    # # head_controller.head_move_right_90deg()
    # # time.sleep(2)
    # # right_mag = spi.get_mag()
    # # print("left mag:{}" .format(right_mag))
    # head_controller.head_move_to_center()
    # time.sleep(1)
    # # head_controller.leds_change_color(head_controller.leds_color['white'])
    # # DalekTurn(176)
    # # DalekTurn(354)
    # turnspeed = 60
    # print("mag:{}" .format(spi.get_mag()))
    # drive.spinLeft(turnspeed)
    # print(turnspeed)
    # time.sleep(1)
    # drive.spinLeft(turnspeed-20)
    # print(turnspeed-20)
    # time.sleep(1)
    # print("mag:{}" .format(spi.get_mag())) 

    Compass = spi.SensorData()
    # Compass = spi.CompassData()
    Compass.start()    
    turnspeed = 50 
    while Compass.compass > (145+5):
    # while Compass.data > (145+5):
        
        drive.spinLeft(turnspeed)
        # print(turnspeed)
        time.sleep(.2)
    # time.sleep(5)   dri
    
    # drive.spinLeft(turnspeed-10)
    # # print(turnspeed)
    # time.sleep(1)
    
    # drive.spinLeft(turnspeed-20)
    print(Compass.compass)
    # time.sleep(1)
    # time.sleep(5)   dri
    drive.stop() 
    print("Stop")
    time.sleep(1)
    print(Compass.compass)
    Compass.stop_running()
Exemplo n.º 3
0
 def dpad_left_button_pressed():
     if ps3_ControllerMode == 1:
         debug.print_to_all_devices('Spin Left', "SL")
         drive.spinLeft(dalek_settings.speed)
     elif ps3_ControllerMode == 2:
         debug.print_to_all_devices('Spin Left', "SL")
         drive.spinLeft(dalek_settings.speed)
     else:
         head_controller.head_move_left()
Exemplo n.º 4
0
def straighten_up():
    print("{} {} {}".format(DalekSensors.laser_front_left,
                            DalekSensors.front_distance, DalekSensors.laser_front_right))

    lz_left = DalekSensors.laser_front_left
    lz_right = DalekSensors.laser_front_right
    while lz_left != lz_right:
        if lz_left > lz_right:
            drive.spinRight(30)
        elif lz_left < lz_right:
            drive.spinLeft(30)
        time.sleep(.1)
        print("{} {} ".format(lz_left, lz_right))

        lz_left = DalekSensors.laser_front_left
        lz_right = DalekSensors.laser_front_right

    print("{} {} ".format(lz_left, lz_right))
    drive.stop()
Exemplo n.º 5
0
    def move(_turnspeed):
        turnspeed = _turnspeed
        deg_to_turn = v2_calculate_degrees_still_to_turn(c_f, c_l, False)
        while -1 < deg_to_turn > 1:
            if deg_to_turn in range(121,300):
                print("L_1")
                time.sleep(.4)
                drive.spinLeft(turnspeed+10)

            elif deg_to_turn in range(40,120):
                print("L_2")
                drive.spinLeft(turnspeed )

            elif deg_to_turn in range(0,39):
                print("L_3")
                drive.spinLeft(turnspeed -10)
            elif deg_to_turn in range(-39,-1):
                print("L_4")
                drive.spinRight(turnspeed -10)
            elif deg_to_turn in range(-40,-100):
                print("L_5")
                drive.spinRight(turnspeed )
            else:
                drive.stop()
            deg_to_turn = v2_calculate_degrees_still_to_turn(c_f, c_l, False)
        drive.stop()
        print("\n~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~")
Exemplo n.º 6
0
def turn_right_90_deg():
    turnspeed = 50

    
    # this will be hit if you have not set the backwards before
    # the start method should have set the left right and center values
    # but once set it will jump over it.
    if compass_positions['right'] == -1:
        get_missing_compass_positions()
    
    c_f = compass_positions['forward']
    c_r = compass_positions['right']

    print("left mag:{} center mag:{} right mag:{} backwards:{}" .format(
    compass_positions['left'],
    compass_positions['forward'],
    compass_positions['right'],
    compass_positions['backwards']))

    head_controller.head_move_to_center(0)
    
    print("{} {}" .format(c_f, c_r))
  
    # get your data 
    deg_to_turn = v2_calculate_degrees_still_to_turn(c_f, c_r, True)
    print("deg_to_turn:{}".format(deg_to_turn))
    
    # use the between syntax
    while -1 < deg_to_turn > 1:
        deg_to_turn = v2_calculate_degrees_still_to_turn(c_f, c_r, True)
        if deg_to_turn in range(121,300):
            print("x1")
            drive.spinRight(turnspeed+10)
        elif deg_to_turn in range(40,120):
            print("x2")
            drive.spinRight(turnspeed )
        elif deg_to_turn in range(0,39):
            print("x2")
            drive.spinRight(turnspeed -10)
        elif deg_to_turn in range(-39,-1):
            print("x3")
            drive.spinLeft(turnspeed -10)
        elif deg_to_turn in range(-40,-100):
            print("x4")
            drive.spinLeft(turnspeed )
        else:
            drive.stop()
    print("'''''''''''''''''''''''''x1'''''''''''''''''''''''''")
    turnspeed = 40
    drive.stop()
    time.sleep(.5)
    deg_to_turn = v2_calculate_degrees_still_to_turn(c_f, c_r, True)       
    while -100 < deg_to_turn > 1:
        deg_to_turn = v2_calculate_degrees_still_to_turn(c_f, c_r, True)
        if deg_to_turn in range(40,300):
            print("x11")
            drive.spinRight(turnspeed)
        elif deg_to_turn in range(0,39):
            print("x12")
            drive.spinRight(turnspeed -10)
        elif deg_to_turn in range(-39,-1):
            print("x13")
            drive.spinLeft(turnspeed -10)
        elif deg_to_turn in range(-40,-100):
            print("x14")
            drive.spinLeft(turnspeed )
        else:
            drive.stop()
    print("'''''''''''''''''''''''''x2'''''''''''''''''''''''''")
    turnspeed = 40
    drive.stop()
    time.sleep(.5)
    deg_to_turn = v2_calculate_degrees_still_to_turn(c_f, c_r, True)       
    while -100 < deg_to_turn > 1:
        deg_to_turn = v2_calculate_degrees_still_to_turn(c_f, c_r, True)
        if deg_to_turn in range(40,300):
            print("x11")
            drive.spinRight(turnspeed)
        elif deg_to_turn in range(0,39):
            print("x12")
            drive.spinRight(turnspeed -10)
        elif deg_to_turn in range(-39,-1):
            print("x13")
            drive.spinLeft(turnspeed -10)
        elif deg_to_turn in range(-40,-100):
            print("x14")
            drive.spinLeft(turnspeed )
        else:
            drive.stop()

    drive.stop()


    # swap  compass positions
    new_position =[compass_positions['left'],compass_positions['forward'],compass_positions['right'],compass_positions['backwards']]
    compass_positions['left'] = new_position[1]
    compass_positions['forward'] = new_position[2]
    compass_positions['right'] = new_position[3]
    compass_positions['backwards'] = new_position[0]

    print("END {} {} {}" .format(c_f, c_r, DalekSensors.compass))
    print("left mag:{} center mag:{} right mag:{} backwards:{}" .format(
        compass_positions['forward'],
        compass_positions['left'],
        compass_positions['right'],
        compass_positions['backwards']))
    time.sleep(1)
    final_val = DalekSensors.compass
    print("final {} {}" .format( final_val, compass_positions['right'] -final_val ))
Exemplo n.º 7
0
# GPIO.setup(pinMotorBRSpeed, GPIO.OUT)
# GPIO.setup(pinMotorBRForwards, GPIO.OUT)
# GPIO.setup(pinMotorBRBackwards, GPIO.OUT)

# pwmMotorBRSpeed = GPIO.PWM(pinMotorBRSpeed, Frequency)
# pwmMotorBRSpeed.start(Stop)

#######################
### main
#######################

while True:
    # toggle the Back right motor
    # GPIO.output(pin_motor_relay, GPIO.HIGH)
    # time.sleep(1)
    # print("on")
    # GPIO.output(pin_motor_relay, GPIO.LOW)
    # time.sleep(1)
    # print("off")
    # pwmMotorBRSpeed.ChangeDutyCycle(Speed)
    # GPIO.output(pinMotorBRForwards, GPIO.HIGH)
    # GPIO.output(pinMotorBRBackwards, GPIO.LOW)
    drive.forward(30)
    time.sleep(2)
    drive.backward(30)
    time.sleep(2)
    drive.spinLeft(50)
    time.sleep(2)
    drive.spinRight(50)
    time.sleep(2)
Exemplo n.º 8
0
def DalekTurn(degreesToTurn):
    def getMag():
        drive.stop()
        time.sleep(DalekTurnSettings['sleepTime'])
        currentMag = -1
        # ensure we get a valid reading must be between 0 and 360
        while not (0 <= currentMag <= 360):
            currentMag = spi.get_mag()
        # print("---getStartingMag:{}".format(currentMag))
        return currentMag

    def calculateEndHeading(degreesToTurn):

        # we don't need more than one rotation.
        if degreesToTurn > 360:
            degreesToTurn = degreesToTurn % 360
        if degreesToTurn < -360:
            degreesToTurn = -degreesToTurn
            degreesToTurn = degreesToTurn % 360
            degreesToTurn = -degreesToTurn

        currentHeading = getMag()
        finalHeading = (currentHeading + degreesToTurn) % 360
        print(
            "\n~~~~~~~~~~~~~~~~~\ndegreesToTurn:{}       currentMag:{}        FinalHeading:{}"
            .format(degreesToTurn, currentHeading, finalHeading))
        return currentHeading, finalHeading

    # I am a robot I want the quickest route.
    def calculateTurnDirection(endHeading):
        turnClockwise = True
        turnSpeed = 60
        currentHeading = getMag()
        diffBetweenStartAndEnd = 0
        botMoveTime = 1

        if endHeading < currentHeading:
            print("less")
            diffBetweenStartAndEnd = -(currentHeading - endHeading)
            print("  diffBetweenStartAndEnd:{}   \n ".format(
                diffBetweenStartAndEnd))

            if (-180 <= diffBetweenStartAndEnd <= 180):
                print("this way")
                if (0 <= diffBetweenStartAndEnd <= 180):
                    print(">>>Turn Clockwise:{} deg".format(
                        diffBetweenStartAndEnd))
                    turnClockwise = True
                else:
                    print(">>>Turn anti Clockwise:{} deg".format(
                        -diffBetweenStartAndEnd))
                    turnClockwise = False

            else:
                print("switch direction")
                var2 = 180 - ((currentHeading - endHeading) - 180)
                print("  diffBetweenStartAndEnd:{}   \n ".format(var2))

        else:
            print("more")
            diffBetweenStartAndEnd = endHeading - currentHeading
            print("@@@@@@  diffBetweenStartAndEnd:{}   \n ".format(
                diffBetweenStartAndEnd))
            if diffBetweenStartAndEnd > 180:
                ttt = diffBetweenStartAndEnd - 180
                print("<<<Turn anti Clock wise:{} deg".format(ttt))
                turnClockwise = False
            else:
                print("<<<Turn  Clock wise:{} deg".format(
                    diffBetweenStartAndEnd))
                turnClockwise = True
        if diffBetweenStartAndEnd < 0:
            diffBetweenStartAndEnd = -diffBetweenStartAndEnd

        if diffBetweenStartAndEnd >= 60:
            turnSpeed = DalekTurnSettings['TurnSpeedFast']
            botMoveTime = DalekTurnSettings['BotMoveTimeFast']
        elif 21 <= diffBetweenStartAndEnd <= 59:
            turnSpeed = DalekTurnSettings['TurnSpeedNormal']
            botMoveTime = DalekTurnSettings['BotMoveTimeNormal']
        elif 10 <= diffBetweenStartAndEnd <= 20:
            turnSpeed = DalekTurnSettings['TurnSpeedSlow']
            botMoveTime = DalekTurnSettings['BotMoveTimeSlow']

        else:  # diffBetweenStartAndEnd <= 20
            turnSpeed = DalekTurnSettings['TurnSpeedFinal']
            botMoveTime = DalekTurnSettings['BotMoveTimeFinal']

        return turnClockwise, turnSpeed, currentHeading, botMoveTime

    ##################################################################
    # initialise values
    # botTurnClockwise= True
    # botSpeed = 60
    # botCurrentHeading= -1
    # botMoveTime = 1
    # get end heading
    botCurrentHeading, finalHeading = calculateEndHeading(degreesToTurn)

    # set current values
    botTurnClockwise, botSpeed, botCurrentHeading, botMoveTime = calculateTurnDirection(
        finalHeading)
    # now do your stuff until you get to where you need to be.
    while botCurrentHeading != finalHeading:
        print("\n####################\ncurrentMag:{} ShouldBe:{} speed:{}".
              format(botCurrentHeading, finalHeading, botSpeed))

        if botTurnClockwise:
            drive.spinRight(botSpeed)
        else:
            drive.spinLeft(botSpeed)
        time.sleep(botMoveTime)
        # drive.stop()
        # time.sleep(.3)
        botTurnClockwise, botSpeed, botCurrentHeading, botMoveTime = calculateTurnDirection(
            finalHeading)

    drive.stop()
    time.sleep(.3)
    botCurrentHeading = getMag()
    print(
        "\n--------------------\n  END \n    currentMag:{} ShouldBe:{} speed:{}"
        .format(botCurrentHeading, finalHeading, botSpeed))