def interactiveControl():
setupInteractiveControl()
clock = pygame.time.Clock()
with picamera.PiCamera() as camera:
camera.resolution = (WIDTH, HEIGHT)
camera.start_preview(fullscreen=False,
window=(500, 50, CP_WIDTH, CP_HEIGHT))
command = 'idle'
while (True):
up_key, down, left, right, change, stop = getKeys()
getDistance()
if stop:
break
if change:
command = 'idle'
if up_key:
command = 'forward'
forward(FB_TIME)
elif down:
command = 'reverse'
reverse(FB_TIME)
elif left:
command = 'left'
lef(LR_TIME)
elif right:
command = 'right'
righ(LR_TIME)
print(command)
if (command in ('forward', 'right', 'left')):
input_img = save_image_with_direction(command)
camera.capture(input_img, use_video_port=True)
clock.tick(10)
pygame.quit()
def move(direction):
# Choose the direction of the request
if direction == 'camleft':
video_dir.move_decrease_x()
elif direction == 'camright':
video_dir.move_increase_x()
elif direction == 'camup':
video_dir.move_increase_y()
elif direction == 'camdown':
video_dir.move_decrease_y()
elif direction == 'camhome':
video_dir.home_x_y()
elif direction == 'record':
subprocess.call(['motion'], shell=True)
elif direction == 'stoprecord':
subprocess.call(['./stop.sh'], shell=True)
elif direction == 'forward':
motor.forward()
elif direction == 'reverse':
motor.backward()
elif direction == 'left':
car_dir.turn_left()
elif direction == 'right':
car_dir.turn_right()
elif direction == 'stop':
motor.ctrl(0)
elif direction == 'home':
car_dir.home()
def move(direction):
# Choose the direction of the request
if direction == 'camleft':
video_dir.move_decrease_x()
elif direction == 'camright':
video_dir.move_increase_x()
elif direction == 'camup':
video_dir.move_increase_y()
elif direction == 'camdown':
video_dir.move_decrease_y()
elif direction == 'camhome':
video_dir.home_x_y()
elif direction == 'record':
subprocess.call(['motion'], shell=True)
elif direction == 'stoprecord':
subprocess.call(['./stop.sh'], shell=True)
elif direction == 'forward':
motor.forward()
elif direction == 'reverse':
motor.backward()
elif direction == 'left':
car_dir.turn_left()
elif direction == 'right':
car_dir.turn_right()
elif direction == 'stop':
motor.ctrl(0)
elif direction == 'home':
car_dir.home()
def main(): wm=wimote.connect(Led) while True: button=wimote.whichbutton(wm) time.sleep(0.05) wm.rumble=False #Moving Forwards if button==3: distance_front = usonic.reading(Trigger_front,Echo_front) print distance_front if distance_front < Collision: wm.rumble=True #led.off(Led) motor.stop() elif distance_front >= Collision: #led.on(Led) motor.forward() #Reverse if button==4: motor.reverse() if button==7: motor.cleanup() led.cleanup() usonic.cleanup() sys.exit() if button==None: led.off(Led) motor.stop()
def RunTheCar(source, destination):
global isEnd
global isLocalization
global LocationArray
PATH = findPath(LocationArray[source].Name,
LocationArray[destination].Name)
isEnd = 0
forObstacleTurn(0)
threads = []
# Create new threads
thread1 = myThread(1, "Front Sensor Thread", FrontSensorPins)
#thread2 = myThread(2, "Left Sensor Thread", LeftSensorPins)
# Start new Threads
thread1.start()
#thread2.start()
# Add threads to thread list
threads.append(thread1)
#threads.append(thread2)
for i in range(0, PATH.__len__()):
temp = PATH.pop()
string = " " + temp.direction
if temp.direction == "START":
string = string + " "
elif temp.direction == "TURN 180":
string = string + " "
motor.Turn180()
time.sleep(1)
elif temp.direction == "FORWARD":
string = string + " "
motor.forward(float(temp.distance) * 0.75)
elif temp.direction == "RIGHT":
string = string + " "
time.sleep(0.3)
motor.RightAndForward(float(temp.distance) * 0.75)
time.sleep(0.3)
elif temp.direction == "LEFT":
string = string + " "
time.sleep(0.3)
motor.LeftAndForward(float(temp.distance) * 0.75)
time.sleep(0.3)
string = string + str(temp.distance) + " " + temp.arrived
forObstacleTurn(1)
# Telling threads to kill themselves
isEnd = 1
# Wait for all threads to complete
for t in threads:
t.join()
def main():
neuropy = NeuroPy("/dev/rfcomm0") #instantiate NeuroPy class
neuropy.start() #start thread
start_time = 0
blinked = False #if blink is detected
last_blink_time = 0
double_blink = False
triple_blink = False
i = 100
j = 100
try:
while i < 20000:
i = i + 1
value = neuropy.rawValue #gets the raw brain activity level
print value, " ", i
if value > 100: #if the raw level gets above 200, which indicates a spike, start the clock
start_time = time.clock()
#print value
if start_time:
if value < -100: #if the spike in brain activity is over
total_time = time.clock() - start_time #how long the spike was
start_time = 0
if 0.01 < total_time < 0.050: #if the spike was a certain length
if last_blink_time and time.clock() - last_blink_time < .6: #if the blink occured right after the previous blink
if double_blink:
triple_blink = True
else :
double_blink = True
last_blink_time = time.clock() #reset the clock
i+=1
blinked = True
if blinked and time.clock()-last_blink_time > .61: #if a certain amount of time has passed since the last blink
if triple_blink:
print "Triple blink detected .......... turning left"
motor.forward_left()
time.sleep(3)
motor.forward()
break
elif double_blink:
print "Double blink detected ........... turning right"
motor.forward_right()
time.sleep(3)
motor.forward()
break
double_blink = blinked = triple_blink = False
time.sleep(2)
return
finally:
neuropy.stop()
def camera_pic():
try:
#alpha: Preview halb-durchsichtig starten (0-255) alpha = 200
camera.start_preview(fullscreen=True)
# Text konfigurieren
camera.annotate_text_size = 160 #6-160
camera.annotate_background = Color('black')
camera.annotate_foreground = Color('white')
# Kamera wartet 2 Sekunden, bevor der Countdown startet
time.sleep(2)
# Countdown läuft runter 5.. 4..
for i in range(5, 2, -1):
camera.annotate_text = "%s" % i
time.sleep(.5)
camera.annotate_text = ""
# Pfad für die Bilder erstellen
pfad_temp = pfad_pics + '/pics_session'
os.mkdir(pfad_temp)
# bei 3 startet die Kamera mit der Aufnahme
for i in range(num_pic):
camera.capture(pfad_temp + '/image{0:02d}.jpg'.format(i))
motor.forward(0.001, 25)
time.sleep(0.2)
#Preview wird beendet
camera.stop_preview()
#motor zurücksetzen
motor.backwards(0.001, 100)
motor.setStep(0, 0, 0, 0)
# Funktion gif aufrufen, temporären Pics-session-Ordner übergeben
pfad_gif_return = gif(pfad_temp)
# Inhalt des Pics-session-Ordner löschen
for root, dirs, files in os.walk(pfad_temp, topdown=False):
for name in files:
os.remove(os.path.join(root, name))
for name in dirs:
os.rmdir(os.path.join(root, name))
# Pics-session-Ordner löschen
os.rmdir(pfad_temp)
return pfad_gif_return
except KeyboardInterrupt:
#bei Unterbrechen des Programms mittels ctrl+c wird die preview beendet
camera.stop_preview()
def command(cmd=None):
if cmd == STOP:
motor.stop()
elif cmd == FORWARD:
motor.forward()
elif cmd == BACKWARD:
motor.backward()
elif cmd == LEFT:
motor.left()
else:
motor.right()
response = "Moving {}".format(cmd.capitalize())
return response, 200, {'Content-Type': 'text/plain'}
def func_return(counter, move_time, current_rotate_position, rotate_time):
current_rotate_position = angle_fix(current_rotate_position, rotate_time)
if counter != 0:
forward(
move_time
) #here move_timeshould be the same value with the previous function,前面退了几次这里一次性前进回去
pointer = 0
counter = counter - 1
else:
pass
return counter, current_rotate_position
def attention_level(attention_value):
neuropy.setCallBack("attention",attention_level)
av = attention_value
print "\nAttention level = ", attention_value
if attention_value > 50: #check if attention is above threshold
print "Moving forward"
motor.forward() #forward motion of wheelchair
time.sleep(1)
ultrasonic.ultra() #check for obbstacle distance
else :
print("Stopped Low Attention")
motor.stop()
return
def change(changePin):
changePin = int(changePin)
if changePin == 1:
motor.turnLeft()
elif changePin == 2:
motor.forward()
elif changePin == 3:
motor.turnRight()
elif changePin == 4:
motor.backward()
elif changePin == 5:
motor.stop()
else:
print("Wrong command")
return render_template("index.html")
def command(cmd=None):
if cmd == STOP:
led.led_stop()
motor.stop()
elif cmd == FORWARD:
led.led_off()
motor.forward()
elif cmd == BACKWARD:
led.led_off()
motor.backward()
elif cmd == LEFT:
led.led_left()
motor.left()
elif cmd == RIGHT:
led.led_right()
motor.right()
return "Success", 200, {'Content-Type': 'text/plain'}
async def hello(websocket, path):
while True:
msg = await websocket.recv()
print("< {}".format(msg))
if msg == 'forward':
motor.forward()
if msg == 'stop':
motor.stop()
if msg == 'right':
motor.right()
if msg == 'left':
motor.left()
if msg == 'backward':
motor.backward()
def main():
recognizer = aiy.cloudspeech.get_recognizer()
recognizer.expect_phrase('on')
recognizer.expect_phrase('off')
aiy.audio.get_recorder().start()
while True:
print('Listening')
text = recognizer.recognize()
if text is None:
print('waiting')
else:
print('Heard "', text, '"')
if 'drive' in text:
motor.forward(0.5, 2)
elif 'left' in text:
motor.leftturn(0.5, 2)
elif 'right' in text:
motor.rightturn(0.5, 2)
def choice(input,conn):
t=5
start = t
inc = 0.5
try:
if input == 'f':
while t>0:
if(sensor.willFrontCrash()):
print('stopped after ' + str(start-t))
break
motor.forward(inc)
t = t-inc
print('Move forward')
elif input == 'b':
while t>0:
if(sensor.willBackCrash()):
print('stopped after ' + str(start-t))
break
motor.backward(inc)
t = t-inc
print('Move backward')
elif input == 'r':
motor.turnRight(t)
print('turn right')
elif input == 'l':
motor.turnLeft(t)
print('turn left')
elif input == 's':
reading = sensor.getAllSensor()
print('Read all sensors')
print(reading)
result = " ".join(reading)
conn.send(result)
except KeyboardInterrupt:
print('key board interrupted!')
finally:
print('done')
conn.send("\n")
def advance(self, img, speed, adjust_speed, cameraPos, centered_bool,
blob_bool):
"""Drive the robot forward toward the detected object.
Args:
img: Image.
speed (int): Speed of robot motors.
adjust_speed (int): Small change of speed to turn while moving.
cameraPos (int): Position of servos holding camera.
centered_bool (bool): True if centered. Otherwise, false.
blob_bool (bool): True if blob detected. False otherwise.
Returns:
False if object's area is large beyond threshold. Otherwise, true.
"""
mean_sq, mean_max, max_area, bool_x, bool_y, blob_bool = self.find_blob(
img)
if blob_bool:
motor.forward(speed)
centered_bool, xShift, yShift = self.check_centered(mean_max)
if not centered_bool:
self.orient_to_blob(xShift, yShift, speed, adjust_speed, \
cameraPos)
if self.dist_count == 0:
self.init_area = max_area
else:
if max_area > 1.8 * self.init_area or max_area > (
2 * self.xCenter * 2 * self.yCenter) // 4:
motor.brake()
self.dist_count = 0
return False
self.dist_count += 1
if self.dist_count > 100:
self.dist_count = 1
else:
motor.seek(speed)
return True
def do_POST(self):
req = urlparse(self.path)
if req.path == re.search('/turn', self.path):
car_dir.turn(req.body.angle)
elif req.path == re.search('/motors', self.path):
if req.body.forward == True:
motor.forward()
elif req.body.backward == True:
motor.forward()
elif req.body.stop == True:
motor.forward()
elif req.path == re.search('/speed', self.path):
motor.setSpeed(req.body.speed)
self.send_response(200)
self.send_header('Content-type', 'application/json')
self.end_headers()
centered_face_bool, xShift_face, yShift_face = blob.check_centered(
point)
straighten_bool = blob.check_straighten(cameraPos)
print('centered', centered_face_bool, 'straighten',
straighten_bool)
print('cameraPos', cameraPos)
if not centered_face_bool or not straighten_bool: # If the robot is not pointing at the person's face,
# straighten up.
cameraPos = blob.straighten_up(xShift_face, yShift_face, 0, adjust_speed * 4,\
cameraPos)
else:
# Visual cue that the robot is about to set the face's neutral expression.
if not neutralBool:
motor.backward(speed)
time.sleep(.3)
motor.forward(speed)
time.sleep(.3)
motor.brake()
time.sleep(.5)
# Set neutral expression if face is properly aligned.
neutralBool, neutralFeaturesUpper, neutralFeaturesLower \
=face_op.set_neutral(feat, newFeaturesUpper, newFeaturesLower, neutralBool,tol)
# Increase size of frame for viewing.
big_frame = cv2.resize(small_frame, (0, 0),
fx=scaleUp * 1 / scaleFactor,
fy=scaleUp * 1 / scaleFactor)
# Show text on video.
for idxJ, dd in enumerate(dict_upper):
cv2.putText(big_frame, dd, (10, pos_upper[idxJ]), font, font_size,
print 'Waiting for connection...' # Waiting for connection. Once receiving a connection, the function accept() returns a separate # client socket for the subsequent communication. By default, the function accept() is a blocking # one, which means it is suspended before the connection comes. tcpCliSock, addr = tcpSerSock.accept() print '...connected from :', addr # Print the IP address of the client connected with the server. while True: data = '' data = tcpCliSock.recv(BUFSIZ) # Receive data sent from the client. # Analyze the command received and control the car accordingly. if not data: break if data == ctrl_cmd[0]: print 'motor moving forward' motor.forward() elif data == ctrl_cmd[1]: print 'recv backward cmd' motor.backward() elif data == ctrl_cmd[2]: print 'recv left cmd' car_dir.turn_left() elif data == ctrl_cmd[3]: print 'recv right cmd' car_dir.turn_right() elif data == ctrl_cmd[6]: print 'recv home cmd' car_dir.home() elif data == ctrl_cmd[4]: print 'recv stop cmd' motor.ctrl(0)
def motor_forward(request):
motor.forward()
return HttpResponse("Motor forward")
def server(
value, collision
): #get value as Direction and collision as Collision detection from Shared memory
pre_dir = 'home'
x = 0
flag = 0
while True:
sys.stdout.flush()
print 'Waiting for connection...'
# Waiting for connection. Once receiving a connection, the function accept() returns a separate
# client socket for the subsequent communication. By default, the function accept() is a blocking
# one, which means it is suspended before the connection comes.
tcpCliSock, addr = tcpSerSock.accept()
print '...connected from :', addr # Print the IP address of the client connected with the server.
while True:
data = ''
data = tcpCliSock.recv(BUFSIZ)
# Receive data sent from the client.
# Analyze the command received and control the car accordingly.
print data
if not data:
break
if x == 1:
if flag < 5:
flag = flag + 1
continue #if there is any collision, Do not receive data from client.If so, Get stacked!
x = 0 #after refusing data from client, start receiving
flag = 0
if data == ctrl_cmd[0]: #If Client send message "forward"
if collision.value == 1: #if there is obstacle in front of iCar
motor.ctrl(0) #stop
else:
motor.forward() #Run the motors to forward
elif data == ctrl_cmd[1]: #If Client send message "backward"
motor.backward()
elif data == ctrl_cmd[2]: #If Client send message "left"
car_dir.turn_left() #change car direction to Left
elif data == ctrl_cmd[3]: #If Client send message "right"
car_dir.turn_right() #change car direction to Right
elif data == ctrl_cmd[6]: #If Client send message "home"
car_dir.home() #Set car direction to center
elif data == ctrl_cmd[4]: #if Client send message "stop"
motor.ctrl(0) #Stop Motor running
elif data == ctrl_cmd[
5]: #If Client click auto button, send message "auto"
#auto drive
motor.setSpeed(44) #Set motor speed with optimized speed 44
temp = value.value #get Value from jeongwook.py that is information of Car Direction
if collision.value != 0: #If there is Collision
print 'Collision detected'
if collision.value == 1: #Collision in front of iCar
print "Obstacle In Front"
motor.collision_auto(
) #collision_auto function let iCar move backward
car_dir.turn_right() #to avoid collision, turn right
motor.forward_auto(
) #move only for 0.8second (forward_auto let iCar move for 0.2second)
motor.forward_auto()
motor.forward_auto()
motor.forward_auto()
car_dir.home()
motor.forward_auto()
motor.forward_auto()
pre_dir = 'left' #if iCar cannot detect any lane, it SHOULD BE on left side, so makes iCar go left after avoiding
elif collision.value == 2: #Collision on Left side
print "Obstacle is on Left"
motor.collision_auto()
car_dir.turn_right() #to avoid collision, turn right
motor.forward_auto()
motor.forward_auto()
motor.forward_auto()
motor.forward_auto()
car_dir.home()
motor.forward_auto()
motor.forward_auto()
pre_dir = 'left'
elif collision.value == 3: #go left
print "Obstacle is on Right"
motor.collision_auto()
car_dir.turn_left() #to avoid collision, turn left
motor.forward_auto()
motor.forward_auto()
motor.forward_auto()
motor.forward_auto()
car_dir.home()
motor.forward_auto()
motor.forward_auto()
pre_dir = 'right' #if iCar cannot detect any lane, it SHOULD BE on right side, so makes iCar go right after avoiding
collision.value = 0
x = 1 #set x = 1 to Not receiving data from client for a moment
elif temp == 1: #iCar is on Lane, Go with center direction
print 'Lane is on my way'
car_dir.home()
motor.forward_auto() #move iCar for 0.2second with 44speed
#because of camera delay
elif temp == 2: #lane is located on left side
print 'Lane is on left side'
car_dir.turn_left()
motor.forward_auto()
pre_dir = 'left'
elif temp == 3: #lane is located on right side
print 'Lane is on right side'
car_dir.turn_right()
motor.setSpeed(44)
motor.forward_auto()
pre_dir = 'right'
else:
if pre_dir == 'right': #when No detection but predict that lane is on right side
print 'cannot find but go right'
car_dir.turn_right()
motor.setSpeed(44)
motor.forward_auto()
elif pre_dir == 'left': #when No detection but predict that lane is on left side
print 'cannot find but go left'
car_dir.turn_left()
motor.forward_auto()
else:
print 'Cannot find a Lane' #No detection with no prediction
car_dir.home() #set center direction and stop
motor.backward()
time.sleep(0.6)
motor.ctrl(0)
time.sleep(1)
elif data == ctrl_cmd[7]: #move camera right
video_dir.move_increase_x()
elif data == ctrl_cmd[8]: #move camera left
video_dir.move_decrease_x()
elif data == ctrl_cmd[9]: #move camera up
video_dir.move_increase_y()
elif data == ctrl_cmd[10]: #move camera down
video_dir.move_decrease_y()
elif data[0:5] == 'speed': # Change the speed
print data
numLen = len(data) - len('speed')
if numLen == 1 or numLen == 2 or numLen == 3:
tmp = data[-numLen:]
spd = int(tmp)
if spd < 24:
spd = 24
motor.setSpeed(spd)
elif data[
0:
7] == 'leftPWM': #If Client send message like ~PWM, it is for initialization or servo motor that control Car direction.
numLen = len(data) - len('leftPWM')
pwm = data[-numLen:]
leftpwm = int(pwm)
car_dir.change_left(leftpwm)
elif data[0:7] == 'homePWM':
numLen = len(data) - len('homePWM')
pwm = data[-numLen:]
homepwm = int(pwm)
car_dir.change_home(homepwm)
elif data[0:8] == 'rightPWM':
numLen = len(data) - len('rightPWM')
pwm = data[-numLen:]
rightpwm = int(pwm)
car_dir.change_right(rightpwm)
else:
print 'Command Error! Cannot recognize command: ' + data
tcpSerSock.close()
motor.setSpeed(int(speed_pred * 62 + 40))
pred = pred[0][0][0]
i += 1
data = ctrl_cmd[0]
if stop_detected:
data = ctrl_cmd[4]
elif pred < 0.03 and pred > -0.03:
data = ctrl_cmd[6]
else:
angle = int((pred / 2 + 0.5) * 170 + 35)
data = "turn=" + str(angle)
if lstop_detected:
motor.forward()
lstop_detected = False
if data == ctrl_cmd[0]:
print 'motor moving forward'
motor.forward()
elif data == ctrl_cmd[1]:
print 'recv backward cmd'
motor.backward()
elif data == ctrl_cmd[2]:
print 'recv left cmd'
car_dir.turn_left()
elif data == ctrl_cmd[3]:
print 'recv right cmd'
car_dir.turn_right()
elif data == ctrl_cmd[6]:
>>>>>>> ultrasonic:reinforced.py
for i in range(EPOCHS):
game_over = False
input_img, errors = getImage()
errors = False
reward = 0
while game_over==False:
if np.random.rand() <= epsilon:
action = np.random.randint(0, moves, size=1)[0]
else:
output = model.predict(input_img)
action = np.argmax(output[0])
if int(action) == 0:
<<<<<<< HEAD:Using-Object-Detection-For-Reward/reinforced.py
forward(1.25)
print('forward')
elif int(action) == 1:
right(1.25)
print('right')
else:
left(1.25)
=======
forward(FB_TIME)
print('forward')
elif int(action) == 1:
right(LR_TIME)
print('right')
else:
left(LR_TIME)
>>>>>>> ultrasonic:reinforced.py
def motor_op(r,x,y):
post_step = 300
if r and y > 500:
if 0 < x <= 200:
print('small cw')
motor.turn(40)
motor.forward(200)
motor.turn(-40)
motor.forward(post_step)
elif 200 < x <= 400:
print('cw')
motor.turn(45)
motor.forward(350)
motor.turn(-45)
motor.forward(post_step)
elif 400 < x <= 600:
print('ccw')
motor.turn(45)
motor.forward(350)
motor.turn(-45)
motor.forward(post_step)
else: # >600
print('small ccw')
motor.turn(-40)
motor.forward(200)
motor.turn(40)
motor.forward(post_step)
elif r and y > 200:
print("small forward")
motor.forward(200)
else:
print("forward")
motor.forward(300)
raw_accX = sensor.read_raw_accel_x()
raw_accY = sensor.read_raw_accel_y()
raw_accZ = sensor.read_raw_accel_z()
# Accelerometer value Degree Per Second / Scalled Data
rate_accX = sensor.read_scaled_accel_x()
rate_accY = sensor.read_scaled_accel_y()
rate_accZ = sensor.read_scaled_accel_z()
# http://ozzmaker.com/2013/04/18/success-with-a-balancing-robot-using-a-raspberry-pi/
accAngX = ( math.atan2(rate_accX, rate_accY) + M_PI ) * RAD_TO_DEG
CFangleX = K * ( CFangleX + rate_gyroX * time_diff) + (1 - K) * accAngX
# http://blog.bitify.co.uk/2013/11/reading-data-from-mpu-6050-on-raspberry.html
accAngX1 = get_x_rotation(rate_accX, rate_accY, rate_accX)
CFangleX1 = ( K * ( CFangleX1 + rate_gyroX * time_diff) + (1 - K) * accAngX1 )
# Followed the Second example because it gives resonable pid reading
pid = int(p.update(CFangleX1))
speed = pid * 30
if(pid > 0):
MOTOR.forward(speed)
elif(pid < 0):
MOTOR.backward( abs(speed) )
else:
MOTOR.stop()
print "{0:.2f} {1:.2f} {2:.2f} {3:.2f} | {4:.2f} {5:.2f} | {6:.2f} | {7:.2f} ".format( gyroAngleX, gyroAngleY , accAngX, CFangleX, accAngX1, CFangleX1, pid, speed)
#print "{0:.2f} {1:.2f}".format( sensor.read_pitch(), sensor.read_roll())
def drive(stops):
# setup all devices and initialize values
busnum = 1
car_dir.setup(busnum=busnum)
motor.setup(busnum=busnum)
distance_detect.setup()
car_dir.home()
motor.setSpeed(30)
video_capture = cv2.VideoCapture(-1)
video_capture.set(3, 160)
video_capture.set(4, 120)
command = 0
stopCount = 0
stopFound = 0
#drive until passed certain amount of stops
while True:
# capture video frames
ret, frame = video_capture.read()
# set color masking boundaries for red and mask image
colorLower = np.array([0, 0, 100], dtype='uint8')
colorUpper = np.array([50, 50, 255], dtype='uint8')
colorMask = cv2.inRange(frame, colorLower, colorUpper)
outMask = cv2.bitwise_and(frame, frame, mask=colorMask)
# create mask image, convert to grayscale, and blur
clonedImg = outMask.copy()
clonedImg = cv2.cvtColor(clonedImg, cv2.COLOR_BGR2GRAY)
clonedImg = cv2.GaussianBlur(clonedImg, (5, 5), 0)
# show current image
cv2.namedWindow('Gray color select', cv2.WINDOW_NORMAL)
cv2.imshow('Gray color select', clonedImg)
# calculate circles within image
circles = cv2.HoughCircles(clonedImg,
cv2.cv.CV_HOUGH_GRADIENT,
1,
20,
param1=50,
param2=30,
minRadius=15,
maxRadius=100)
# if a circle was detected
if circles != None:
# if this is first time encountering this stop increase stop count
if stopFound == 0:
stopCount += 1
stopFound = 1
# map out circles for display
circles = np.uint16(np.around(circles))
for i in circles[0, :]:
cv2.circle(clonedImg, (i[0], i[1]), i[2], (0, 255, 0), 2)
cv2.circle(clonedImg, (i[0], i[1]), 2, (0, 255, 0), 3)
elif (cv2.countNonZero(clonedImg) == 0):
stopFound = 0
# display camera feed and circles
cv2.namedWindow('Circles', cv2.WINDOW_NORMAL)
cv2.imshow('Circles', clonedImg)
# crop the image
crop_img = frame[60:120, 0:160]
# convert to grayscale
gray = cv2.cvtColor(crop_img, cv2.COLOR_BGR2GRAY)
# gaussian blur
blur = cv2.GaussianBlur(gray, (5, 5), 0)
# color thresholding
ret, thresh = cv2.threshold(blur, 60, 255, cv2.THRESH_BINARY_INV)
# find the contours of the frame
contours, hierarchy = cv2.findContours(thresh.copy(), 1,
cv2.CHAIN_APPROX_NONE)
# detect distance to closes object
dis = distance_detect.checkdis()
print "distance: ", dis
# find the biggest contour (if detected)
if len(contours) > 0 and dis >= 15:
c = max(contours, key=cv2.contourArea)
M = cv2.moments(c)
if M['m00'] != 0:
cx = int(M['m10'] / M['m00'])
cy = int(M['m01'] / M['m00'])
cv2.line(crop_img, (cx, 0), (cx, 720), (255, 0, 0), 1)
cv2.line(crop_img, (0, cy), (1280, cy), (255, 0, 0), 1)
cv2.drawContours(crop_img, contours, -1, (0, 255, 0), 1)
if cx >= 120:
print "Turn Right ", cx
car_dir.turn_right()
motor.forward()
if cx < 120 and cx > 50:
print "On Track! ", cx
car_dir.home()
motor.forward()
if cx <= 50:
print "Turn Left! ", cx
car_dir.turn_left()
motor.forward()
else:
if dis < 15:
print "something blocking me"
car_dir.home()
motor.stop()
else:
print "I don't see the line"
car_dir.home()
motor.backward()
# display the resulting frame
cv2.namedWindow('frame', cv2.WINDOW_NORMAL)
cv2.imshow('frame', crop_img)
# exit condition after passing certain amount of stops or 'q' is pressed
if stopCount == stops or (cv2.waitKey(1) & 0xFF == ord('q')):
# clean up
motor.stop()
distance_detect.cleanup()
cv2.destroyAllWindows()
break
def forward():
motor.forward(1)
# http://ozzmaker.com/2013/04/18/success-with-a-balancing-robot-using-a-raspberry-pi/
accAngX = (math.atan2(rate_accX, rate_accY) + M_PI) * RAD_TO_DEG
CFangleX = K * (CFangleX + rate_gyroX * time_diff) + (1 - K) * accAngX
# http://blog.bitify.co.uk/2013/11/reading-data-from-mpu-6050-on-raspberry.html
accAngX1 = get_x_rotation(rate_accX, rate_accY, rate_accX)
CFangleX1 = (K * (CFangleX1 + rate_gyroX * time_diff) + (1 - K) * accAngX1)
# Followed the Second example because it gives resonable pid reading
pid = int(p.update(CFangleX1)) #Add the sampling time in calculating PID
speed = pid
#print speed
if (pid > 0):
print "forward"
MOTOR.forward(speed)
elif (pid < 0):
print "backward"
MOTOR.backward(abs(speed))
else:
print "stop"
#MOTOR.forward(speed)
#MOTOR.backward( abs(speed) )
MOTOR.stop(
) #Copy Paste forward and backward code here instead of stop()
#print(j)
#print "{0:.2f} {1:.2f} {2:.2f} {3:.2f} | {4:.2f} {5:.2f} | {6:.2f} | {7:.2f} ".format( gyroAngleX, gyroAngleY , accAngX, CFangleX, accAngX1, CFangleX1, pid, speed)
#print "{0:.2f} {1:.2f} {2:.2f}".format( gyroAngleX, accAngX, CFangleX)
#print "{0:.2f} {1:.2f}".format( sensor.read_pitch(), sensor.read_roll())
def f():
forward()
return jsonify({"message":"Started moving forward"})
def __init__(self):
threading.Thread.__init__(self)
self.model = load_model(os.path.join('..', '..', 'models', 'sign_classification')
def run(self):
while True:
if output_full is not None:
global stop_detected
global lstop_detected
stop_detected = self.model.predict(output_full)
if stop_detected:
sleep(1)
lstop_detected = True
stop_detected = False
sleep(1)
threadss = SignsThread()
threadss.start()
time.sleep(2)
ultrason = ultrasonic.UltrasonicAsync(sleep_time)
ultrason.start()
obstacleExist = False
motor.forward()
while True:
data = ''
# Check of obstacles
if ultrason.dist < 20:
motor.ctrl(0)
obstacleExist = True
while obstacleExist:
time.sleep(sleep_time)
if ultrason.dist < 20:
obstacleExist = False
motor.forward()
# Take input from camera
output_full2 = np.empty(480 * 640 * 3, dtype=np.uint8)
cam.capture(output_full2, 'bgr', use_video_port=True)
output_full = output_full2.reshape((480, 640, 3))
crop_idx = int(output_full.shape[0] / 2)
output = output_full[crop_idx:, :]
img_detection = imresize(output, (120, 160))
pred = model.predict(img_detection.reshape((1, 120, 160, 3)))
speed_pred = pred[1][0][0]
motor.setSpeed(int(speed_pred * 62 + 40))
pred = pred[0][0][0]
i += 1
data = ctrl_cmd[0]
if stop_detected:
data = ctrl_cmd[4]
while True:
if csock is None:
print("Waiting for connection...")
csock, addr_info = ssock.accept()
print("Get connection from", addr_info)
else:
total_data = csock.recv(BUFSIZE)
total_data = total_data.decode()
forward = total_data[0]
direction = total_data[1]
if (forward == "3") :
speed = 35
motor.setSpeed(speed)
motor.forward()
elif (forward == "2") :
speed = 25
motor.setSpeed(speed)
motor.forward()
elif (forward =="1"):
speed = 25
motor.setSpeed(speed)
motor.backward()
elif (forward == "0") :
speed = 30
motor.setSpeed(speed)
motor.backward()
def on_message(ws, data):
print data
# Analyze the command received and control the car accordingly.
#if not data:
if data == ctrl_cmd[0]:
print 'motor moving forward'
motor.forward()
elif data == ctrl_cmd[1]:
print 'recv backward cmd'
motor.backward()
elif data == ctrl_cmd[2]:
print 'recv left cmd'
car_dir.turn_left()
elif data == ctrl_cmd[3]:
print 'recv right cmd'
car_dir.turn_right()
elif data == ctrl_cmd[6]:
print 'recv home cmd'
car_dir.home()
elif data == ctrl_cmd[4]:
print 'recv stop cmd'
motor.ctrl(0)
elif data == ctrl_cmd[5]:
print 'read cpu temp...'
temp = cpu_temp.read()
tcpCliSock.send('[%s] %0.2f' % (ctime(), temp))
elif data == ctrl_cmd[8]:
print 'recv x+ cmd'
video_dir.move_increase_x()
elif data == ctrl_cmd[9]:
print 'recv x- cmd'
video_dir.move_decrease_x()
elif data == ctrl_cmd[10]:
print 'recv y+ cmd'
video_dir.move_increase_y()
elif data == ctrl_cmd[11]:
print 'recv y- cmd'
video_dir.move_decrease_y()
elif data == ctrl_cmd[12]:
print 'home_x_y'
video_dir.home_x_y()
elif data[0:12] == ctrl_cmd[13]: # Change the speed
print data
#numLen = len(data) - len('speed')
#if numLen == 1 or numLen == 2 or numLen == 3:
# tmp = data[-numLen:]
# print 'tmp(str) = %s' % tmp
# spd = int(tmp)
# print 'spd(int) = %d' % spd
# if spd < 24:
# spd = 24
motor.setSpeed(30)
elif data[0:5] == 'turn=': #Turning Angle
print 'data =', data
angle = data.split('=')[1]
try:
angle = int(angle)
car_dir.turn(angle)
except:
print 'Error: angle =', angle
elif data[0:8] == 'forward=':
print 'data =', data
spd = 30
try:
spd = int(spd)
motor.forward(spd)
except:
print 'Error speed =', spd
elif data[0:9] == 'backward=':
print 'data =', data
spd = data.split('=')[1]
try:
spd = int(spd)
motor.backward(spd)
except:
print 'ERROR, speed =', spd
else:
print 'Command Error! Cannot recognize command: ' + data
import numpy as np
from camera import getImage
from cnn import checkModel
from motor import forward, left, right
from config import FB_TIME, LR_TIME
model = checkModel()
while True:
input_img, errors = getImage()
output = model.predict(input_img)
print(output, output.shape )
action = np.argmax(output[0])
if int(action) == 0:
forward(FB_TIME)
print('forward')
elif int(action) == 1:
right(LR_TIME)
print('right')
else:
left(LR_TIME)
print('left')
def run_server(key):
#!/usr/bin/env python
import RPi.GPIO as GPIO
import video_dir
import car_dir
import motor
from time import ctime # Import necessary modules
ctrl_cmd = [
'forward', 'backward', 'left', 'right', 'stop', 'read cpu_temp',
'home', 'distance', 'x+', 'x-', 'y+', 'y-', 'xy_home'
]
busnum = 1 # Edit busnum to 0, if you uses Raspberry Pi 1 or 0
HOST = '' # The variable of HOST is null, so the function bind( ) can be bound to all valid addresses.
PORT = 21567
BUFSIZ = 1024 # Size of the buffer
ADDR = (HOST, PORT)
tcpSerSock = socket(AF_INET, SOCK_STREAM) # Create a socket.
tcpSerSock.bind(ADDR) # Bind the IP address and port number of the server.
tcpSerSock.listen(
5
) # The parameter of listen() defines the number of connections permitted at one time. Once the
# connections are full, others will be rejected.
#video_dir.setup(busnum=busnum)
#car_dir.setup(busnum=busnum)
#motor.setup(busnum=busnum) # Initialize the Raspberry Pi GPIO connected to the DC motor.
#video_dir.home_x_y()
#car_dir.home()
while True:
print 'Waiting for connection...'
# Waiting for connection. Once receiving a connection, the function accept() returns a separate
# client socket for the subsequent communication. By default, the function accept() is a blocking
# one, which means it is suspended before the connection comes.
tcpCliSock, addr = tcpSerSock.accept()
print '...connected from :', addr # Print the IP address of the client connected with the server.
while True:
try:
data = ''
data = tcpCliSock.recv(
BUFSIZ) # Receive data sent from the client.
print "\nEncrypted command recieved from client = ,", eval(
data)[2]
data = crypto.AES_decrypt(eval(data), key)
except:
print "INCOMPLETE PACKET ERROR - try to input the command again"
# Analyze the command received and control the car accordingly.
if not data:
break
if data == ctrl_cmd[0]:
print 'motor moving forward'
motor.forward()
elif data == ctrl_cmd[1]:
print 'recv backward cmd'
motor.backward()
elif data == ctrl_cmd[2]:
print 'recv left cmd'
car_dir.turn_left()
elif data == ctrl_cmd[3]:
print 'recv right cmd'
car_dir.turn_right()
elif data == ctrl_cmd[6]:
print 'recv home cmd'
car_dir.home()
elif data == ctrl_cmd[4]:
print 'recv stop cmd'
motor.ctrl(0)
elif data == ctrl_cmd[5]:
print 'read cpu temp...'
temp = cpu_temp.read()
tcpCliSock.send('[%s] %0.2f' % (ctime(), temp))
elif data == ctrl_cmd[8]:
print 'recv x+ cmd'
video_dir.move_increase_x()
elif data == ctrl_cmd[9]:
print 'recv x- cmd'
video_dir.move_decrease_x()
elif data == ctrl_cmd[10]:
print 'recv y+ cmd'
video_dir.move_increase_y()
elif data == ctrl_cmd[11]:
print 'recv y- cmd'
video_dir.move_decrease_y()
elif data == ctrl_cmd[12]:
print 'home_x_y'
video_dir.home_x_y()
elif data[0:5] == 'speed': # Change the speed
print data
numLen = len(data) - len('speed')
if numLen == 1 or numLen == 2 or numLen == 3:
tmp = data[-numLen:]
print 'tmp(str) = %s' % tmp
spd = int(tmp)
print 'spd(int) = %d' % spd
if spd < 24:
spd = 24
motor.setSpeed(spd)
elif data[0:5] == 'turn=': #Turning Angle
print 'data =', data
angle = data.split('=')[1]
try:
angle = int(angle)
car_dir.turn(angle)
except:
print 'Error: angle =', angle
elif data[0:8] == 'forward=':
print 'data =', data
spd = data[8:]
try:
spd = int(spd)
motor.forward(spd)
except:
print 'Error speed =', spd
elif data[0:9] == 'backward=':
print 'data =', data
spd = data.split('=')[1]
try:
spd = int(spd)
motor.backward(spd)
except:
print 'ERROR, speed =', spd
else:
#print 'Command Error! Cannot recognize command: ' + data
print "COMMAND ERROR - Unable to interpret recieved command"
tcpSerSock.close()
def forward(self, speed=None):
if speed is None:
motor.forward()
else:
motor.forwardWithSpeed(int(speed))
return self.ack()
joy = xbox.Joystick()
# Setup motors
GPIO.setmode(GPIO.BOARD)
motor.setup()
try:
#Valid connect may require joystick input to occur
print "Waiting for Joystick to connect"
while not joy.connected():
time.sleep(0.10)
print('Connected')
#Show misc inputs until Back button is pressed
while not joy.Back() and joy.connected():
if joy.rightTrigger() > 0:
motor.forward()
elif joy.leftTrigger() > 0:
motor.backward()
elif joy.rightBumper():
motor.right()
elif joy.leftBumper():
motor.left()
else:
motor.stop()
finally:
#Always close out so that xboxdrv subprocess ends
joy.close()
print "Done."
# one, which means it is suspended before the connection comes.
tcpCliSock, addr = tcpSerSock.accept()
print ('...connected from :'+ str(addr)) # Print the IP address of the client connected with the server.
while True:
data = ''
data = tcpCliSock.recv(BUFSIZ) # Receive data sent from the client.
# Analyze the command received and control the car accordingly.
if not data:
break
print('data : ' + str(data))
elif data == ctrl_cmd[0]:
motor.forward()
elif data == ctrl_cmd[1]:
motor.backward()
elif data == ctrl_cmd[2]:
car_dir.turn_left()
elif data == ctrl_cmd[3]:
car_dir.turn_right()
elif data == ctrl_cmd[6]:
car_dir.home()
elif data == ctrl_cmd[4]:
motor.ctrl(0)
def forward(): motor.forward(1)