Esempio n. 1
0
def main(args):

	# parsing arguments
	mode = args[1] # identify, mpc
	folder_frame_in = args[2]
	folder_frame_out = args[3]
	folder_results = args[4]
	setpoint_quality = float(args[5])
	setpoint_compression = float(args[6])
	
	# getting frames and opening result file
	path, dirs, files = os.walk(folder_frame_in).next()
	frame_count = len(files)
	final_frame = frame_count + 1
	log = open(folder_results + '/results.csv', 'w')
	
	if mode == "mpc":
		controller = mpccontroller.initialize_mpc()
	elif mode == "random":
		controller = randomcontroller.RandomController()
	elif mode == "bangbang":
		controller = bangbangcontroller.BangbangController()
	
	# initial values for actuators
	ctl = np.matrix([[100], [0], [0]])
		
	for i in range(1, final_frame):
		# main loop
		ut.progress(i, final_frame) # display progress bar
		quality = np.round(ctl.item(0))
		sharpen = np.round(ctl.item(1))
		noise = np.round(ctl.item(2))

		# encoding the current frame
		(current_quality, current_size) = \
			encode(i, folder_frame_in, folder_frame_out, quality, sharpen, noise)
		log_line = '{i}, {quality}, {sharpen}, {noise}, {ssim}, {size}'.format(
			i = i, quality = quality, sharpen = sharpen, noise = noise,
			ssim = current_quality, size = current_size)
		print >>log, log_line
		
		setpoints = np.matrix([[setpoint_quality], [setpoint_compression]])
		current_outputs = np.matrix([[current_quality], [current_size]])
		
		# computing actuator values for the next frame
		if mode == "mpc":
			try:
				ctl = controller.compute_u(current_outputs, setpoints)
			except Exception:
				pass
    
		elif mode == "random":
			ctl = controller.compute_u()
			
		elif mode == "bangbang":
			ctl = controller.compute_u(current_outputs, setpoints)
			
	print " done"
Esempio n. 2
0
def main(args):
    ssim = []
    size = []

    # parsing arguments
    mode = args[1]  # identify, mpc
    folder_frame_in = args[2]  # frames/ONE/orig
    folder_frame_out = args[3]  # frames/ONE/proc/bangbang-Q0.2-F500000
    folder_results = args[4]  # results/ONE/bangbang-Q0.2-F500000

    setpoint_quality = float(args[5])  # similarity index
    setpoint_compression = float(args[6])  # frame size in kb

    # getting frames and opening result file
    path, dirs, files = os.walk(folder_frame_in).next()
    frame_count = len(files)
    final_frame = frame_count + 1  # +1 for forloop
    log = open(folder_results + '/results.csv', 'w')

    if mode == "mpc":  # check if its mpc random or bangbang
        controller = mpccontroller.initialize_mpc()
    elif mode == "random":  # if its random now controller. will only point to random
        # controller class
        controller = randomcontroller.RandomController()
    elif mode == "closed_loop":
        controller = closedloopcontroller.ClosedLoopController()
        print "hello1"
    elif mode == "pid":
        controller = pidcontroller.PidController()

# initial values for actuators
    ctl = np.matrix([[30], [0], [0]])

    sizes = []
    for i in range(1, final_frame):
        sizes.append(i)
        # main loop
        ut.progress(i, final_frame)  # display progress bar
        quality = np.round(ctl.item(0))  # 100
        sharpen = np.round(ctl.item(1))  # 0
        noise = np.round(ctl.item(2))  # 0
        # encoding the current frame
        # ssim and size is returned via encode
        (current_quality, current_size) = \
         encode(i, folder_frame_in, folder_frame_out, quality, sharpen, noise)
        log_line = '{i}, {quality}, {sharpen}, {noise}, {ssim}, {size}'.format(
            i=i,
            quality=quality,
            sharpen=sharpen,
            noise=noise,
            ssim=current_quality,
            size=current_size)
        print >> log, log_line
        # the values of quality and size that we give in the terminal
        setpoints = np.matrix([[setpoint_quality], [setpoint_compression]])
        #print setpoints
        # contains the current quality and size of the frame
        current_outputs = np.matrix([[current_quality], [current_size]])

        # computing actuator values for the next frame
        ssim.append(current_outputs.item(0))
        size.append(current_outputs.item(1))
        if mode == "mpc":
            try:
                ctl = controller.compute_u(current_outputs, setpoints)
                print current_outputs.item(1)
                print current_outputs.item(0)
                print "quality"
                print ctl.item(0)
                print "sharpness"
                print ctl.item(1)
                print "noise"
                print ctl.item(2)
            except Exception:
                pass

        elif mode == "random":
            ctl = controller.compute_u()

        elif mode == "closed_loop":
            ctl = controller.compute_u(current_outputs, setpoints)
        elif mode == "pid":
            ctl = controller.compute_u(current_outputs, setpoints)

    print " done"
Esempio n. 3
0
def main(args):

    # parsing arguments
    mode = args[1]  # identify, mpc
    folder_frame_in = args[2]
    folder_frame_out = args[3]
    folder_results = args[4]
    setpoint_quality = float(args[5])
    setpoint_compression = float(args[6])

    # getting frames and opening result file
    path, dirs, files = os.walk(folder_frame_in).next()
    frame_count = len(files)
    final_frame = frame_count + 1
    log = open(folder_results + '/results.csv', 'w')

    if mode == "mpc":
        controller = mpccontroller.initialize_mpc()
    elif mode == "random":
        controller = randomcontroller.RandomController()
    elif mode == "bangbang":
        controller = bangbangcontroller.BangbangController()
    elif mode == "integral":
        controller = integralcontroller.IntegralController()
    elif mode == "greedy":
        controller = greedycontroller.GreedyController()

    # initial values for actuators
    ctl = np.matrix([[100], [0], [0]])

    # initialize performance parameter
    integrated_ssim_error = 0.0
    integrated_size_error = 0.0

    for i in range(1, final_frame):
        # main loop
        ut.progress(i, final_frame)  # display progress bar
        quality = np.round(ctl.item(0))
        sharpen = np.round(ctl.item(1))
        noise = np.round(ctl.item(2))

        # encoding the current frame
        (current_quality, current_size) = \
         encode(i, folder_frame_in, folder_frame_out, quality, sharpen, noise)
        log_line = '{i}, {quality}, {sharpen}, {noise}, {ssim}, {size}'.format(
            i=i,
            quality=quality,
            sharpen=sharpen,
            noise=noise,
            ssim=current_quality,
            size=current_size)
        print >> log, log_line

        setpoints = np.matrix([[setpoint_quality], [setpoint_compression]])
        current_outputs = np.matrix([[current_quality], [current_size]])

        # compute integrated error with relu
        error = np.subtract(setpoints, current_outputs)
        ssim_error = error.item(0)
        size_error = error.item(1)
        if (ssim_error > 0.0):
            integrated_ssim_error = integrated_ssim_error + ssim_error
        if (size_error < 0.0):
            integrated_size_error = integrated_size_error - size_error

        # computing actuator values for the next frame
        if mode == "mpc":
            try:
                ctl = controller.compute_u(current_outputs, setpoints)
            except Exception:
                pass

        elif mode == "random":
            ctl = controller.compute_u()

        elif mode == "bangbang":
            ctl = controller.compute_u(current_outputs, setpoints)

        elif mode == "integral":
            ctl = controller.compute_u(current_outputs, setpoints)
        elif mode == "greedy":
            action = np.matrix([[quality], [sharpen], [noise]])
            ctl = controller.compute_u(current_outputs, setpoints, action)
        # end of loop over the frames

    # divide by number of frames to obtain weighted error
    average_ssim_error = integrated_ssim_error / final_frame
    average_size_error = integrated_size_error / final_frame
    # print to file performance parameter
    tmp = folder_frame_in.split('/')
    video_name = tmp[2]
    folder_name = tmp[1]
    log_performance_parameter = open(
        'results/summary/' + mode + '/performance_log_' + folder_name + '.csv',
        'a')
    log_line_performance = '{video}, {controller}, {target_ssim}, {target_size}, {average_ssim_error}, {average_size_error}'.format(
        video=video_name,
        controller=mode,
        target_ssim=setpoint_quality,
        target_size=setpoint_compression,
        average_ssim_error=average_ssim_error,
        average_size_error=average_size_error)
    print >> log_performance_parameter, log_line_performance
    print " done"
Esempio n. 4
0
           size         CHAR(50));''')
    print ("Table result created successfully")
​
    c.execute('''CREATE TABLE netinfo
           (net           TEXT    NOT NULL,
           icmp_seq            char(50)     NOT NULL,
           ttl       CHAR(50),
           min_avg_max_mdev CHAR(50),
           timest         CHAR(50));''')
    print ("Table netinfo created successfully")
​
    #sys.stdout = log
    if mode == "mpc":
        controller = mpccontroller.initialize_mpc()
    elif mode == "random":
        controller = randomcontroller.RandomController()
    elif mode == "bangbang":
        controller = bangbangcontroller.BangbangController()
    # elif mode == "pid":
    #     controller = pidcontroller.PidController()
    # elif mode == "closed_loop":
    #     controller = closedloopcontroller.ClosedLoopController()
    
    # initial values for actuators
    ctl = np.matrix([[100], [0], [0]])
        
    for i in range(1, final_frame):
        # main loop
        ut.progress(i, final_frame) # display progress bar
​
        quality = np.round(ctl.item(0))