def handleJoyEvent(e):
if e.type == pygame.JOYAXISMOTION:
axis = "unknown"
if (e.dict['axis'] == 0):
axis = "X"
if (e.dict['axis'] == 1):
axis = "Y"
if (e.dict['axis'] == 2):
axis = "Throttle"
if (e.dict['axis'] == 3):
axis = "Z"
if (axis != "unknown"):
str = "Axis: %s; Value: %f" % (axis, e.dict['value'])
# uncomment to debug
output(str, e.dict['joy'])
# Arduino joystick-servo hack
if (axis == "X"):
pos = e.dict['value']
# convert joystick position to servo increment, 0-180
move = round(pos * 90, 0)
if (move < 0):
serv = int(90 - abs(move))
else:
serv = int(move + 90)
# convert position to ASCII character
servoPosition = serv
# and send to Arduino over serial connection
servo.move(1, servoPosition)
# Arduino joystick-servo hack
if (axis == "Y"):
pos = e.dict['value']
# convert joystick position to servo increment, 0-180
move = round(pos * 90, 0)
if (move < 0):
serv = int(90 - abs(move))
else:
serv = int(move + 90)
# convert position to ASCII character
servoPosition = serv
# and send to Arduino over serial connection
servo.move(2, servoPosition)
elif e.type == pygame.JOYBUTTONDOWN:
str = "Button: %d" % (e.dict['button'])
# uncomment to debug
output(str, e.dict['joy'])
# Button 0 (trigger) to quit
if (e.dict['button'] == 0):
print "Pew Pew You're DEAD!!\n"
if (e.dict['button'] == 8):
print "Bye!\n"
quit()
else:
pass
def handleJoyEvent(e):
if e.type == pygame.JOYAXISMOTION:
axis = "unknown"
if (e.dict['axis'] == 0):
axis = "X"
if (e.dict['axis'] == 1):
axis = "Y"
if (e.dict['axis'] == 2):
axis = "Throttle"
if (e.dict['axis'] == 3):
axis = "Z"
if (axis != "unknown"):
str = "Axis: %s; Value: %f" % (axis, e.dict['value'])
# uncomment to debug
output(str, e.dict['joy'])
# Arduino joystick-servo hack
if (axis == "X"):
pos = e.dict['value']
# convert joystick position to servo increment, 0-180
move = round(pos * 90, 0)
if (move < 0):
serv = int(90 - abs(move))
else:
serv = int(move + 90)
# convert position to ASCII character
servoPosition = serv
# and send to Arduino over serial connection
servo.move(1, servoPosition)
# Arduino joystick-servo hack
if (axis == "Y"):
pos = e.dict['value']
# convert joystick position to servo increment, 0-180
move = round(pos * 90, 0)
if (move < 0):
serv = int(90 - abs(move))
else:
serv = int(move + 90)
# convert position to ASCII character
servoPosition = serv
# and send to Arduino over serial connection
servo.move(2, servoPosition)
elif e.type == pygame.JOYBUTTONDOWN:
str = "Button: %d" % (e.dict['button'])
# uncomment to debug
output(str, e.dict['joy'])
# Button 0 (trigger) to quit
if (e.dict['button'] == 0):
print "Pew Pew You're DEAD!!\n"
if (e.dict['button'] == 8):
print "Bye!\n"
quit()
else:
pass
def move(self, irc, msg, args, motor, angle):
"""<motor> <value in degrees>
Moves the camera accordingly
"""
servo.move(motor, angle)
irc.reply("Moving Servo %s %s degrees" % (motor, angle))
def run():
while (True):
ret, frame = videoFeed.read()
if ret == False:
print("Failed to retrieve frame")
break
processed_img = detect.find_face(
frame, 40) # try to find face and return processed image
if (processed_img[0]):
led('green')
print('achou')
target_pan, target_tilt = calculate_movement(
processed_img[2], processed_img[3])
servo.move(target_pan, target_tilt)
print('target pan = ' + str(target_pan))
print('target tilt = ' + str(target_tilt))
else:
led('red')
roam()
print(processed_img[0])
cv2.imshow('Feed', frame)
if cv2.waitKey(10) & 0xFF == ord("q"):
print("cleaning up")
GPIO.cleanup()
break
videoFeed.release()
cv2.destroyAllWindows()
def moveto (degrees): #number of servos to dance n = 1 #center all servos servo.move(1, 90) time.sleep(0.5) print 'Moving to', degrees, 'degrees' # perform 9 iterations, 10deg increments i = 9 while i >= 9: wait = 9 * 0.025 # wait time - large deflections need more # move left servoPosition = int(degrees) # command Arduino s=0 while s <= n: servo.move(s, servoPosition) time.sleep(wait) s += 1 time.sleep(wait) i -= 1
def jointAttentionEye(okao):
return 0
if okao.gazeLR[0] != 99999:
Shared.gazeLR = queue(Shared.gazeLR, okao.gazeLR[0])
Shared.gazeUD = queue(Shared.gazeUD, okao.gazeUD[0] - 6)
else:
return None
tx = 30.0
ty = 20.0
gazelr = max(min(np.average(Shared.gazeLR), tx), -tx)
gazeud = max(min(np.average(Shared.gazeUD), ty), -ty)
list1 = [-0.5, 0.0, 0.5]
list2 = [0.0]
lr = getNearestValue(list1, -gazelr / tx)
ud = getNearestValue(list2, gazeud / ty)
if lr != Shared.preGazeLR:
servo.move(1, lr)
Shared.preGazeLR = lr
if ud != Shared.preGazeUD:
servo.move(2, ud)
Shared.preGazeUD = ud
if lr != 0.0 or ud != 0.0:
Shared.isLookingAwayEye = True
else:
Shared.isLookingAwayEye = False
def jointAttentionFace(okao):
return 0
if okao.LR[0] != 99999:
Shared.LR = queue(Shared.LR, okao.LR[0])
Shared.UD = queue(Shared.UD, okao.UD[0] - 8)
else:
return None
tx = 30.0
ty = 20.0
lr = max(min(np.average(Shared.LR), tx), -tx)
ud = max(min(np.average(Shared.UD), ty), -ty)
list3 = [-0.5, -0.25, 0.0, 0.25, 0.5]
list4 = [-0.25, 0.0]
lr = getNearestValue(list3, -lr / tx)
ud = getNearestValue(list4, -ud / ty)
if lr != Shared.preLR:
servo.move(3, lr)
Shared.preLR = lr
if ud != Shared.preUD:
print ud
servo.move(4, ud)
Shared.preUD = ud
if lr == -0.5 or lr == 0.5 or ud != -0.25:
Shared.isLookingAwayFace = True
else:
Shared.isLookingAwayFace = False
def gazing(okao_x, okao_y):
x, y = getPointFromOKAOXY(okao_x, okao_y)
print(x, "--", y)
#print "eye", x, y
#print "face", addressX, addressY
servo.move(1, x - addressX)
servo.move(2, y - addressY)
def follow_eye(msg_okao):
point = getPointFromOKAO(msg_okao)
radx = point[0] * 0.5
rady = point[1] * 0.5
Shared.EYE_X = eye_x = radx - Shared.FACE_X
Shared.EYE_Y = eye_y = rady + Shared.FACE_Y
servo.move(1, eye_x)
servo.move(2, -eye_y)
return eye_x, eye_y
def gazingRelatively(x, y):
print(x, "--", y)
a = np.array([0, 0])
b = np.array([x, y])
u = b - a
d = np.linalg.norm(u)
print 2 * d
z = max(min(2 * d, 1.5), 0.1)
servo.move(1, z * 1.5)
servo.move(2, z)
def addressing(okao_x, okao_y):
global addressX
global addressY
x, y = getPointFromOKAOXY(okao_x, okao_y)
addressY = -2.2 * y
addressX = x
servo.move(3, addressY)
servo.move(4, addressX)
def __init__(self):
threading.Thread.__init__(self, None)
self.MOUTH_SERVO = 1
self.MOUTH_INIT_POS = 5
self.MOV_CONST = 6
self.MAX_ANGLE = 48
self.SERVO_DELAY = .3
self.stmt = ["hello"]
self.speak = False
self.stop = 0
servo.move(self.MOUTH_SERVO, self.MOUTH_INIT_POS)
self.start()
def __init__(self):
threading.Thread.__init__(self,None)
self.MOUTH_SERVO=1
self.MOUTH_INIT_POS=5
self.MOV_CONST=6
self.MAX_ANGLE=48
self.SERVO_DELAY=.3
self.stmt=["hello"]
self.speak=False
self.stop=0
servo.move(self.MOUTH_SERVO,self.MOUTH_INIT_POS)
self.start()
def action2(self, led):
servo.move(1, 1, 3)
servo.move(2, 1, 3)
servo.move(3, -1, 3)
servo.move(4, (random.random() - 0.5) * 2, 1)
time.sleep(0.5)
pass
def action0(self, led):
servo.move(1, 0.8, 1)
servo.move(2, 0.8, 1)
servo.move(3, 0.7, 1)
servo.move(4, 0.5, 1)
led.setColor(200, 255, 50, 10000)
time.sleep(0.5)
pass
def camMove(self, irc, msg, servo, angle):
"""<value in degrees>
Moves the camera accordingly
"""
motor = 1 #string.atoi(words[0])
angle = string.atoi(words[0])
if (0 <= angle <= 180):
#print motor
ser = serial.Serial('/dev/tty.usbserial-A9005aX1', 9600, timeout=1) # instanciate serial
ser.open() # opens serial port
ser.write(chr(255))
ser.write(chr(motor))
ser.write(chr(angle))
response = ser.readline() # reads the serial buffer
#print response
ser.close()
else:
#print "Servo angle must be an integer between 0 and 180.\n"
camMove(servo.move(1, int(angle)))
irc.reply("Moving Servo %i %i degrees" % (motor, angle))
camMove = wrap(camMove, [many('something')])
def main():
controller = Leap.Controller()
while not (controller.is_connected):
print "Waiting for controller..."
time.sleep(1)
print "Connected!"
while controller.is_connected:
# average = getAverage(controller)
# print average
angle = getAngle(controller)
print "Angle of rotation in radians = %s" % angle
time.sleep(0.5)
servo.move(99, 0)
time.sleep(2)
servo.move(99, 180)
time.sleep(2)
def action3(self, led):
print("action1")
servo.move(1, 1, 3)
servo.move(2, 1, 3)
servo.move(3, 0, 3)
servo.move(4, 0.5, 3)
led.setColor(255, 100, 50, 300)
speed = 3
x, y = self.okaomanager.getMaxAttensionFaceXY("size")
self.address(x, y, speed)
led.setColor(255, 100, 50, 300)
time.sleep(3)
pass
def callback(self, data):
self.skeleton_angles = np.array(
[float(x) for x in data.data.split(',')])
print self.skeleton_angles
servo.move(1, int(self.skeleton_angles[4] * (180 / np.pi)))
servo.move(2, int(self.skeleton_angles[5] * (180 / np.pi)))
servo.move(3, int(self.skeleton_angles[2] * (180 / np.pi)))
def follow_face_and_eye():
eye_x = Shared.EYE_X
eye_y = Shared.EYE_Y
face_x = Shared.FACE_X
face_y = Shared.FACE_Y
tx = 0.03
ty = 0.03
if eye_x < 0:
if eye_x > -tx:
tx = -eye_x
if face_x < tx - 1:
tx = 1 + face_x
eye_x = eye_x + tx
face_x = face_x - tx
else:
if eye_x < tx:
tx = eye_x
if face_x > 1 - tx:
tx = 1 - face_x
eye_x = eye_x - tx
face_x = face_x + tx
servo.move(1, eye_x)
servo.move(3, face_x)
Shared.EYE_X = eye_x
Shared.FACE_X = face_x
if eye_y < 0:
if eye_y > -ty:
ty = -eye_y
if face_y > 1 - ty:
ty = 1 - face_y
eye_y = eye_y + ty
face_y = face_y + ty
else:
if eye_y < ty:
ty = eye_y
if face_y < ty - 1:
ty = 1 + face_y
eye_y = eye_y - ty
face_y = face_y - ty
servo.move(2, eye_y)
servo.move(4, face_y)
Shared.EYE_Y = eye_y
Shared.FACE_Y = face_y
def findingLoop(self):
"""
動作： 誰もいない時に見渡す
"""
notice = '[Interaction]: findingLoop start!\n'
print(termcolor.colored(notice, 'yellow'))
while True:
servo.move(1, random.random(), 1)
servo.move(2, random.random(), 1)
x, y = self.okaomanager.getMaxAttensionFaceXY("size")
if x == 0 and y == 0:
servo.move(3, random.random(), 0.5)
servo.move(4, random.random(), 0.5)
pass
else:
sleep = 0.8
self.address(x, y, sleep)
time.sleep(0.1)
def run(self):
while True:
if self.speak==True:
for i in self.stmt.split():
servo.move(self.MOUTH_SERVO,self.MOUTH_INIT_POS)
s=len(i)
angle=s*self.MOV_CONST
if(angle>self.MAX_ANGLE):
angle=self.MAX_ANGLE
print i
servo.move(self.MOUTH_SERVO,angle)
time.sleep(self.SERVO_DELAY)
servo.move(self.MOUTH_SERVO,self.MOUTH_INIT_POS)
self.speak=False
if self.stop==1:
break
def run(self):
while True:
if self.speak == True:
for i in self.stmt.split():
servo.move(self.MOUTH_SERVO, self.MOUTH_INIT_POS)
s = len(i)
angle = s * self.MOV_CONST
if (angle > self.MAX_ANGLE):
angle = self.MAX_ANGLE
print i
servo.move(self.MOUTH_SERVO, angle)
time.sleep(self.SERVO_DELAY)
servo.move(self.MOUTH_SERVO, self.MOUTH_INIT_POS)
self.speak = False
if self.stop == 1:
break
def sort_trash(imgpath):
camera = Camera()
database = Database()
classifier = Classifier(os.path.abspath('classifier/trained_graph.pb'), os.path.abspath('classifier/output_labels.txt'))
statusThread = ui.start_status_shower_thread()
while True:
servo.move(NEUTRAL_POS)
ui.set_status("ready")
# wait for camera to detect motion, then sleep for a bit to
# let the object settle down
print "waiting for motion..."
motiondetector.waitForMotionDetection(camera.getPiCamera())
time.sleep(0.5) # Lets object settle down, TODO maybe remove
print "detected motion"
ui.set_status("classifying")
# take a photo and classify it
camera.takePhoto(imgpath)
labels = classifier.get_image_labels(imgpath)
print labels
selectedLabel = brain.getRecyclingLabel(labels)
is_trash = selectedLabel == None
database.write_result(imgpath, labels, is_trash, selectedLabel)
print "Wrote result to database."
if is_trash:
print("It's trash.")
ui.set_status("trash")
servo.move(TRASH_POS)
else:
print("It's recyclable.")
ui.set_status("recycling")
servo.move(RECYCLE_POS)
def standup(self, rad=0.1, speed=1.0):
servo.move(1, rad, speed)
servo.move(2, rad, speed)
def mleft1(): time.sleep(.5) servo.move(8,60)
def finding():
print("finding!!")
addressY = 0.0
addressX = 0.0
servo.move(3, addressY)
servo.move(4, addressX)
def right(): time.sleep(.5) servo.move(3,10)
import servo, time servo.move(2, 90) servo.move(4,90) servo.move(3,0) time.sleep(1) servo.move(3,180) time.sleep(1) servo.move(3, 90)
def handleJoyEvent(e):
# Identify joystick axes and assign events
if e.type == pygame.JOYAXISMOTION:
axis = "unknown"
if (e.dict['axis'] == 0):
axis = "X"
if (e.dict['axis'] == 1):
axis = "Y"
if (e.dict['axis'] == 2):
axis = "Throttle"
if (e.dict['axis'] == 3):
axis = "Z"
# Convert joystick value to servo position for each axis
if (axis != "unknown"):
str = "Axis: %s; Value: %f" % (axis, e.dict['value'])
# Uncomment to display axis values:
#output(str, e.dict['joy'])
# X Axis
if (axis == "X"):
pos = e.dict['value']
# convert joystick position to servo increment, 0-180
move = round(pos * 90, 0)
serv = int(90 + move)
# and send to Arduino over serial connection
servo.move(1, serv)
# Y Axis
if (axis == "Y"):
pos = e.dict['value']
move = round(pos * 90, 0)
serv = int(90 + move)
servo.move(2, serv)
# Z Axis
if (axis == "Z"):
pos = e.dict['value']
move = round(pos * 90, 0)
serv = int(90 + move)
servo.move(3, serv)
# Throttle
if (axis == "Throttle"):
pos = e.dict['value']
move = round(pos * 90, 0)
serv = int(90 + move)
servo.move(4, serv)
# Assign actions for Button DOWN events
elif e.type == pygame.JOYBUTTONDOWN:
# Button 1 (trigger)
if (e.dict['button'] == 0):
print "Trigger Down"
# Set pin 13 LED to HIGH for digital on/off demo
servo.move(99, 180)
# Button 2
if (e.dict['button'] == 1):
print "Button 2 Down"
# Button 3
if (e.dict['button'] == 2):
print "Button 3 Down"
# Button 4
if (e.dict['button'] == 3):
print "Button 4 Down"
# Button 5
if (e.dict['button'] == 4):
print "Button 5 Down"
# Button 6
if (e.dict['button'] == 5):
print "Button 6 Down"
quit()
# Assign actions for Button UP events
elif e.type == pygame.JOYBUTTONUP:
# Button 1 (trigger)
if (e.dict['button'] == 0):
print "Trigger Up"
# Set pin 13 LED to LOW for digital on/off demo
servo.move(99, 0)
# Button 2
if (e.dict['button'] == 1):
print "Button 2 Up"
# Button 3
if (e.dict['button'] == 2):
print "Button 3 Up"
# Button 4
if (e.dict['button'] == 3):
print "Button 4 Up"
# Button 5
if (e.dict['button'] == 4):
print "Button 5 Up"
# Button 6
if (e.dict['button'] == 5):
print "Button 6 Up"
# Assign actions for Coolie Hat Switch events
elif e.type == pygame.JOYHATMOTION:
if (e.dict['value'][0] == -1):
print "Hat Left"
servo.move(4, 0)
if (e.dict['value'][0] == 1):
print "Hat Right"
servo.move(4, 180)
if (e.dict['value'][1] == -1):
print "Hat Down"
if (e.dict['value'][1] == 1):
print "Hat Up"
if (e.dict['value'][0] == 0 and e.dict['value'][1] == 0):
print "Hat Centered"
servo.move(4, 90)
else:
pass
# http://www.fsf.org/licensing/
'''
Fun test of the servo.py module.
'''
################################################
import servo
import time
#number of servos to dance
n = 4
#center all servos
s = 0
while s <= n:
servo.move(s, 90)
s += 1
time.sleep(0.5)
# perform 9 iterations, 10deg increments
i = 9
while i >= 1:
units = i + 1 # units to pulse servo
deg = i * 10 # degrees moved L/R of center
wait = i * 0.025 # wait time - large deflections need more
# move left
servoPosition = 90 - deg
# command Arduino
s=0
import servo #import servo library
class StepperBot(callbacks.Plugin):
"""translates irc commands like right, left, up, down
to artbus stepper comands, which are then sent
via serial connection."""
def __init__(self, irc):
self.__parent = super(StepperBot, self)
self.__parent.__init__(irc)
#self.TESTF = False
#servo patterns for X and Y axis:
west_pattern = servo.move(2,45)
east_pattern = servo.move(2,90)
deepwest_pattern = servo.move(2,180)
deepeast_pattern = servo.move(2,0)
artic_pattern = servo.move(2,45)
antartic_pattern = servo.move(2,90)
deepnorth_pattern = servo.move(2,180)
deepsouth_pattern = servo.move(2,0)
# map irc commands to patterns
self.irc_patterns = {"west" : west_pattern, "east" : east_pattern, "deepwest" : deepwest_pattern, "deepeast" : deepeast_pattern, "artic" : artic_pattern, "antartic" : antartic_pattern, "deepnorth" : deepnorth_pattern, "deepsouth" : deepsouth_pattern}
self.reset_pattern = (0,0)
# serial config
if self.TESTF == False:
self.ser = serial.Serial() # instanciate serial class as ser
self.ser.port = '/dev/tty.usbserial-A9005aX1' # connection device
def mright3():
time.sleep(.5)
servo.move(8,140)
def set_servos(four_angles):
servo.move(1, int(four_angles[0]))
servo.move(2, int(four_angles[1]))
servo.move(3, int(four_angles[2]))
servo.move(4, int(four_angles[3]))
def servos1(): time.sleep(1) servo.move(1,40) time.sleep(1) servo.move(2,0) time.sleep(1) servo.move(3,0) time.sleep(1) servo.move(4,66) time.sleep(1) servo.move(5,180) time.sleep(1) servo.move(6,180) time.sleep(1) servo.move(7,50) time.sleep(1) servo.move(8,110) time.sleep(1) servo.move(10,0) time.sleep(1) servo.move(11,0) time.sleep(1) servo.move(12,0)
#Servo pins in use
panServo = 7
tiltServo = 18
name = sys.argv[1]
pans = int(sys.argv[2])
tilts = int(sys.argv[3])
#Servo configs
minPan = 2.5
maxPan = 12.5
minTilt = 5
maxTilt = 12.5
panStep = round((maxPan-minPan)/pans,1)
tiltStep = round((maxTilt-minTilt)/pans, 1)
for p in functions.step_range(minPan, maxPan, panStep):
servo.move(panServo,p)
for t in functions.step_range(minTilt, maxTilt, tiltStep):
servo.move(tiltServo,t)
console.run(["./photo.sh", functions.name(name,p,t)])
# http://www.fsf.org/licensing/
'''
Fun test of the servo.py module.
'''
################################################
import servo
import time
import random
t = 0.23 # sleep time
# center all servos
s = 1
while s <= 4:
servo.move(s, 90)
s += 1
time.sleep(1)
# move random servos to random angles
i = 0
while i < 80:
serv = random.randrange(1, 5)
ang = random.randrange(0, 181, 30)
servo.move(serv, ang)
print " servo.move(%d, %d)" % (serv, ang)
time.sleep(t)
i += 1
# wave goodbye
s = 1
def left(): time.sleep(.5) servo.move(8,50)
def mright2():
time.sleep(.5)
servo.move(8,130)
# http://www.fsf.org/licensing/
'''
Fun test of the servo.py module.
'''
################################################
import servo
import time
import random
t = 0.23 # sleep time
# center all servos
s = 1
while s <= 4:
servo.move(s, 90)
s += 1
time.sleep(1)
# move random servos to random angles
i = 0
while i < 80:
serv = random.randrange(1, 5)
ang = random.randrange(0, 181, 30)
servo.move(serv, ang)
print " servo.move(%d, %d)" % (serv, ang)
time.sleep(t)
i += 1
# wave goodbye
s = 1
def set_servos(four_angles): servo.move(1, int(four_angles[0])) servo.move(2, int(four_angles[1])) servo.move(3, int(four_angles[2])) servo.move(4, int(four_angles[3]))
def gazingRelatively_arc(arcx, arcy):
x = arc_to_rad(arcx)
y = arc_to_rad(arcy)
#print "rad: ", x, y
servo.move(1, x)
servo.move(2, y)
def mid(): time.sleep(.5) servo.move(3,5)
def nod():
servo.move(1, 0.8)
servo.move(2, 0.8)
servo.move(3, -1.5)
servo.move(4, 0)
def left(): time.sleep(.5) servo.move(3,0)
def right(): time.sleep(.5) servo.move(5,180)
# I need help with a python script I am trying to adapt for a specific need import servo servo.move(int(argv[1]), int(argv[2]))
def left(): time.sleep(.5) servo.move(5,170)
def mid(): time.sleep(.5) servo.move(5,175)
def sit(rad=0.1):
servo.move(1, rad)
servo.move(2, rad)
def move(self, servo_id, rad, speed=1.0, update=True):
if update:
self.pos[servo_id] = rad
servo.move(servo_id, rad, speed)
def servos():
servo.move(1,40)
servo.move(2,0)
servo.move(3,0)
servo.move(4,66)
servo.move(5,180)
servo.move(6,180)
servo.move(7,50)
servo.move(8,110)
servo.move(10,0)
servo.move(11,0)
servo.move(12,0)
def right(): time.sleep(.5) servo.move(8,150)
DisplayOfAxis.move(1, L_y_bar)
DisplayOfAxis.move(3, L_z_bar)
DisplayOfAxis.move(2, L_t_bar)
#Coordinates of Right Joystick progress bars
DisplayOfAxis.move(4, R_x_bar)
DisplayOfAxis.move(5, R_y_bar)
DisplayOfAxis.move(7, R_z_bar)
DisplayOfAxis.move(6, R_t_bar)
#Servo Movements servo.move("servo", "angle")
#Left joystick buttons
L_T_btn_pos = Ljoystick.get_button(0) #Left trigger
if L_T_btn_pos == 1:
servo.move(99,180)
print "Left Trigger Pressed"
else:
servo.move(0,0)
L_2_btn_pos = Ljoystick.get_button(1) #Left button 2
if L_2_btn_pos == 1:
servo.move(0,180)
print "Left Button 2 Pressed"
else:
servo.move(0,0)
L_3_btn_pos = Ljoystick.get_button(2) #Left button 3
if L_3_btn_pos == 1:
servo.move(0,90)
print "Left Button 3 Pressed"
else:
servo.move(0,0)
################################################ import servo import time # set number of servos to march servos = 4 # marching orders t = 0.3 # give servos time to move deflection = 12 #degrees from center # fall in s = 1 while s <= servos: servo.move(s, 90) s += 1 time.sleep(0.01) # march servos, joining one at a time march=1 while march < servos+1: i = 8 while i >0: s = 1 while s <= march: servo.move(s, 90-deflection) s += 1 time.sleep(t) s = 1 while s <= march: