def main():
# We'll open the visualizer by spawning it as a subprocess. See
# testDrakeVisualizer.py for an example of how to spawn it within Python
# instead.
vis_binary = os.path.join(os.path.dirname(sys.executable),
"drake-visualizer")
print("vis_binary:", vis_binary)
vis_process = subprocess.Popen([vis_binary, '--testing', '--interactive'])
# The viewer will take some time to load before it is ready to receive
# messages, so we'll wait until it sends its first status message.
print("waiting for viewer to initialize")
lc = lcm.LCM()
lc.subscribe("DRAKE_VIEWER_STATUS", lambda c, d: None)
# Wait for one LCM message to be received.
lc.handle()
# Load and animate the robot
publish_robot_data()
# Shut down the viewer.
vis_process.terminate()
def __init__(self, title, aircraft):
wx.Frame.__init__(self,
None,
title=title,
pos=(150, 150),
size=(850, 550))
self.aircraft = aircraft
# set up lcm
self.lc = lcm.LCM("udpm://239.255.76.67:7667?ttl=0")
self.lc_event = threading.Event()
self.reset()
# start the lcm listener thread
self.lcm_listener_thread = LcmListener(self.lc, self.lc_event)
self.lcm_listener_thread.daemon = True # so that it dies when the program stops
self.lcm_listener_thread.start()
self.Show()
def main():
lc = lcm.LCM()
true_graph = Grid(True)
Graph_data = "1GraphData"
subscription = lc.subscribe(Graph_data, true_graph.graph_data_handler)
test_case = 50
L2_error_collection = []
ave_cell_error = []
try:
if True:
lc.handle()
true_graph.graph_vis("Origin")
true_graph.graph_vis()
for tc in range(test_case):
# Generate the training data
training_idx = []
while len(
training_idx) < grid_rows * grid_cols * training_ratio:
t_idx = random.randint(0, grid_cols * grid_rows)
if t_idx not in training_idx and t_idx in nz_ig:
training_idx.append(t_idx)
unknown_graph = Grid(False)
unknown_graph.gp(true_graph, training_idx)
true_graph.calculate_L2_error()
L2_error_collection.append(true_graph.L2_error_total_)
ave_cell_error.append(true_graph.L2_error_total_ /
(grid_cols * grid_rows))
print(L2_error_collection)
print(ave_cell_error)
print("The L2 norm for cases is {}".format(
sum(L2_error_collection) / test_case))
print("The average cell L2 error is {}".format(
sum(ave_cell_error) / test_case))
except KeyboardInterrupt:
pass
lc.unsubscribe(subscription)
def wait_for_lcm_message_on_channel(channel):
"""Wait for a single message to arrive on the specified LCM channel.
"""
m = lcm.LCM()
def receive(channel, data):
_ = (channel, data)
raise StopIteration()
sub = m.subscribe(channel, receive)
start_time = time.time()
try:
while True:
if time.time() - start_time > 10.:
raise RuntimeError("Timeout waiting for channel %s" % channel)
rlist, _, _ = select.select([m], [], [], 0.1)
if m in rlist:
m.handle()
except StopIteration:
pass
finally:
m.unsubscribe(sub)
def main():
joysticks = [Joystick(0, LED_BLUE),
Joystick(1, LED_GOLD),
Joystick(2, LED_BONUS)]
lc = lcm.LCM(settings.LCM_URI)
if len(sys.argv) > 1:
node_name = sys.argv[1]
else:
node_name = "default"
seqs = [make_seq(lc, node_name, joystick.joystick) for joystick in joysticks]
current_state_ids = [0 for _ in range(3)]
while True:
time.sleep(SLEEP_TIME)
for i in range(3):
if joysticks[i].state_id != current_state_ids[i]:
current_state_ids[i] = joysticks[i].state_id
seqs[i].publish(axes=joysticks[i].axis_states,
buttons=joysticks[i].button_states)
def __init__(self, scenario, traces, shiftX, shiftY):
#############################################################
if not scenario:
print "Error: Missing scenario file"
print scenario
exit(1)
print "Reading scenario from ", scenario
self.configureScenario(scenario)
#self.x_shift = rospy.get_param("~x_shift", 0.0)
#self.y_shift = rospy.get_param("~y_shift", 0.0)
self.x_shift = float(shiftX)
self.y_shift = float(shiftY)
self.ticks_since_start = 0
self.rate = 1
self.wait_to_initial_wp = 1
#traces = rospy.get_param("~bm_traces", None)
if not traces:
print "Error: Missing trace file"
exit(1)
print "reading traces from", traces
self.readTraces(traces)
self.lc = lcm.LCM("udpm://239.255.76.67:7667?ttl=1")
def __init__(self,
comPort="",
baudRate=57600,
backChannel="Klima",
withCrc=cnet_crc_constants_t.noCRC,
timeout=1000):
if comPort != "":
self.interface = serial.Serial(comPort, 57600, timeout=3)
else:
self.interface = backChannel
self.lc = lcm.LCM("udpm://239.255.76.67:7667?ttl=1")
self.subscription = self.lc.subscribe(backChannel,
self.answer_handler)
if withCrc == True:
self.crc = cnet_crc_constants_t.CRC_xmodem
else:
self.crc = cnet_crc_constants_t.noCRC
self.crc = withCrc
self.backChannel = backChannel
self.timeout = timeout
self.gotAnswer = False
self.subscription = None
def publisher(side):
"""Main loop which requests new commands and publish them on the
SModelRobotOutput topic."""
command_topic = "ROBOTIQ_" + side.upper() + "_COMMAND"
lc = lcm.LCM()
try:
while True:
command = genCommand(askForCommand())
if command:
command.utime = (time() * 1000000)
lc.publish(command_topic, command.encode())
else:
print "ERROR: bad command"
sleep(0.1)
except KeyboardInterrupt:
pass
def main():
keyboard = KeyboardManager()
lc = lcm.LCM()
cassie_blue = (6, 61, 128)
white = (255, 255, 255)
pygame.display.set_caption('Cassie Virtual Radio Controller')
keyboard.screen.fill(cassie_blue)
fnt = pygame.font.Font('freesansbold.ttf', 32)
while True:
# Get any keypresses
keyboard.event_callback()
# Update display screen
display_text1 = 'Sagittal vel: ' + '%.2f'%(keyboard.vel[0])
display_text2 = 'Coronal Vel: ' + '%.2f'%(keyboard.vel[1])
text1 = fnt.render(display_text1, True, white, cassie_blue)
text2 = fnt.render(display_text2, True, white, cassie_blue)
text_rect1 = text1.get_rect()
text_rect2 = text2.get_rect()
text_rect1.center = (200, 150)
text_rect2.center = (200, 250)
keyboard.screen.fill(cassie_blue)
keyboard.screen.blit(text1, text_rect1)
keyboard.screen.blit(text2, text_rect2)
# Send LCM message
cassie_out_msg = dairlib.lcmt_cassie_out()
cassie_out_msg.pelvis.radio.channel[0] = keyboard.vel[0] + keyboard.trim_x
cassie_out_msg.pelvis.radio.channel[1] = keyboard.vel[1] + keyboard.trim_y
cassie_out_msg.pelvis.radio.channel[3] = 0
lc.publish("CASSIE_OUTPUT_ECHO", cassie_out_msg.encode())
time.sleep(0.05)
pygame.display.update()
def __init__(self, rexarm, planner):
self.rexarm = rexarm
self.tp = planner
self.tags = []
self.status_message = "State: Idle"
self.current_state = "idle"
self.image = None
self.lc = lcm.LCM()
lcmSLAMPoseSub = self.lc.subscribe("SLAM_POSE", self.slampose_feedback_handler)
lcmSLAMPoseSub.set_queue_capacity(1)
lcmMbotStatusSub = self.lc.subscribe("MBOT_STATUS", self.mbotstatus_feedback_handler)
# TODO: Add more variables here, such as RBG/HSV image here.
self.current_step = 0
self.path = []
self.start_time = 0
self.duration = 0
self.slam_pose = None
rotation_matrix = [[ 0.99995118, 0.00709628, -0.00687564],
[-0.00444373, -0.29853831, -0.95438731],
[-0.00882524, 0.95437127, -0.2984922 ]]
tvec = [[-0.00106227],[ 0.08470473],[-0.02910629]]
# extrinsic_mtx translates from points in camera frame to world frame
self.extrinsic_mtx = np.linalg.inv(rot_tran_to_homo(rotation_matrix, tvec))
self.intrinsic_mtx = cameraMatrix = np.array([[596.13380911, 0, 322.69869837],
[0, 598.59497209, 232.09155051],
[0, 0, 1 ]])
self.recent_color = None
self.mbot_status = mbot_status_t.STATUS_COMPLETE
self.pickup_1x1_block = pickup_1x1_block(self)
self.pickup_corner_block = pickup_corner_block(self)
self.travel_square = travel_square(self)
self.spin_state = spin_state(self)
self.pickup_3x1_block = pickup_3x1_block(self, travel_square)
self.go_to_garbage = go_to_garbage(self, travel_square)
def Main():
channel = 'WAMV.RELAY_CONTROL'
print('ACFR USYD dS2824 Relay TESTER started for driver LCM channel: {}'.format(channel))
if len(sys.argv) < 4:
print('Usage: python relay_tester.py <R/O> <relay number> <0/1>')
print(' e.g. python relay_tester.py R 8 1 (to turn relay 8 on)')
print(' python relay_tester.py O 5 0 (to turn i/o 5 off)')
print(' python relay_tester.py D 12 1000 (to turn relay 12 on for 1000 ms))\n')
sys.exit()
# Setup LCM
lc = lcm.LCM()
msg = relay_command_t()
if str(sys.argv[1]) == 'R':
msg.relay_number = int(sys.argv[2])
msg.relay_request = int(sys.argv[3])
msg.relay_off_delay = 0
msg.io_number = 0
msg.io_request = 0
elif str(sys.argv[1]) == 'O':
msg.io_number = int(sys.argv[2])
msg.io_request = int(sys.argv[3])
msg.relay_off_delay = 0
msg.relay_number = 0
msg.relay_request = 0
elif str(sys.argv[1]) == 'D':
msg.relay_number = int(sys.argv[2])
msg.relay_request = 1
msg.relay_off_delay = int(sys.argv[3])
msg.io_number = 0
msg.io_request = 0
msg.utime = long(time.time())*1000000
lc.publish(channel, msg.encode())
def send_robots(ids, coordinates, ori, channel, timestamp):
for i in range(len(ids)):
robotid = ids[i]
x, y = coordinates[i]
""" --- no z --- """
o = ori[i]
channel = options.channel
lc = lcm.LCM("udpm://239.255.76.67:7667?ttl=1")
msg = waypoint_list()
msg.timestamp = float(timestamp) * 1e3
msg.robotid = robotid
msg.n = 1
wp = waypoint()
wp.timestamp = float(timestamp) * 1e3
""" in mm """
wp.position = [x * 1000, y * 1000, -1]
wp.orientation = [o, 0, 0, 0]
wps = [wp]
msg.waypoints = wps
lc.publish(channel, msg.encode())
def main():
lc = lcm.LCM('udpm://239.255.76.67:7667?ttl=1')
parser = argparse.ArgumentParser()
parser.add_argument('--local-port', type=int, action='store')
parser.add_argument('--remote-port', type=int, action='store')
parser.add_argument('--remote-address', type=str, action='store')
parser.add_argument('--number', type=int, action='store')
args = parser.parse_args()
vals = [args.remote_address, args.remote_port, args.local_port]
if any(vals) and not all(vals):
print('Missing an argument')
print('Should have remote-address, local-address, and local-port')
print('Alternatively, only pass number')
return
if args.number is not None:
args.local_port = local_base_port + args.number
args.remote_port = remote_base_port + args.number
args.remote_address = remote_base_address.format(args.number)
bridge = PiEMOSBridge((args.remote_address, args.remote_port), args.number,
lc)
bridge.start()
piemos_receiver = PiEMOSReceiver(lc, ('', args.local_port),
args.number).serve_forever()
def handle_thread(self):
self.channel = "NETWORK_CASSIE_STATE_DISPATCHER"
self.lcm = lcm.LCM()
subscription = self.lcm.subscribe(self.channel, self.state_handler)
subscription.set_queue_capacity(1)
# Create the plant (TODO: URDF name a JSON option)
builder = pydrake.systems.framework.DiagramBuilder()
self.plant, scene_graph = \
pydrake.multibody.plant.AddMultibodyPlantSceneGraph(builder, 0)
pydrake.multibody.parsing.Parser(self.plant).AddModelFromFile(
FindResourceOrThrow("examples/Cassie/urdf/cassie_v2.urdf"))
# Fixed-base model (weld-body, or null, a JSON option)
self.plant.WeldFrames(self.plant.world_frame(),
self.plant.GetFrameByName("pelvis"),
RigidTransform.Identity())
self.plant.Finalize()
self.context = self.plant.CreateDefaultContext()
print('Starting to handle LCM messages')
while True:
self.lcm.handle_timeout(100)
def main():
lc = lcm.LCM()
sample_vis = SamplingVis()
subscription = lc.subscribe("WORKSPACE", sample_vis.workspace_size_handler)
subscription = lc.subscribe("REGION", sample_vis.region_handler)
subscription = lc.subscribe("OBSTACLE", sample_vis.obstacle_handler)
# subscription = lc.subscribe("SAMPLE", sample_vis.sampling_node_handler)
subscription = lc.subscribe("PATH", sample_vis.path_handler)
subscription = lc.subscribe("DRAW_SAMPLE", sample_vis.samples_draw)
try:
while True:
lc.handle()
except KeyboardInterrupt:
# print 'Resuming...'
pass
# continue
# print("######")
lc.unsubscribe(subscription)
def __init__(self, input_method, lcm_tag, joy_name):
print 'Initializing...'
pygame.init()
self.screen = pygame.display.set_mode((300, 70))
pygame.display.set_caption(lcm_tag)
self.font = pygame.font.SysFont('Courier', 20)
if input_method == 'keyboard':
self.event_processor = KeyboardEventProcessor()
print bcolors.OKBLUE + '--- Keyboard Control Instruction --- '\
+ bcolors.ENDC
print 'To increase the throttle/brake: press and hold the Up/Down'\
+ ' Arrow'
print 'To decrease the throttle/brake: release the Up/Down Arrow'
print 'To keep the the current throttle/brake: press the Space Bar'
print 'To increase left/right steering: press the Left/Right Arrow'
print bcolors.OKBLUE + '------------------------------------ ' \
+ bcolors.ENDC
else:
self.event_processor = JoystickEventProcessor(joy_name)
self.last_value = SteeringThrottleBrake(0, 0, 0)
self.lc = lcm.LCM()
self.lcm_tag = lcm_tag
print 'Ready'
def init_globals():
global lc, name, pub, lcm_sub, lcm_channel, TYPE, module_type, id
lc = lcm.LCM("udpm://224.1.1.1:5007?ttl=2")
name = gethostname()
# lcm_sub = lc.subscribe(name, udp_callback)
# if 'tb' in name:
topic = rospy.get_param('~topic')
lcm_channel = rospy.get_param('~lcm_channel', topic)
msg_package = rospy.get_param('~msg_package')
msg_name = rospy.get_param('~msg_name')
module_type = rospy.get_param('~module_type')
module = importlib.import_module(msg_package)
TYPE = getattr(module, msg_name)
id = rospy.get_param('~id', 'robot_id')
if module_type in ['receiver', 'transceiver']:
lcm_sub = lc.subscribe(lcm_channel, udp_callback)
pub = rospy.Publisher(topic, TYPE, queue_size=1)
if module_type in ['sender', 'transceiver']:
rospy.Subscriber(topic, TYPE, handle_msg)
def __init__(self, master):
# 目前仅用到rospy的time
rospy.init_node('my_monitor',
anonymous=True,
log_level=rospy.INFO,
disable_signals=True)
self.root = master
textLabel = Tkinter.Label(master, text='Topological Map')
textLabel.pack()
imageFrame = Tkinter.Frame(master,
relief=Tkinter.RAISED,
borderwidth=1)
imageFrame.pack(side=Tkinter.TOP)
self.mapImage = Image.open(mapImage_filename)
mapPhoto = ImageTk.PhotoImage(self.mapImage)
self.imageLabel = Tkinter.Label(imageFrame, image=mapPhoto)
self.imageLabel.image = mapPhoto # keep a reference!
self.imageLabel.pack()
buttonFrame = Tkinter.Frame(master)
buttonFrame.pack(side=Tkinter.BOTTOM)
self.startButton = Tkinter.Button(buttonFrame,
text="Start",
command=self.send_start)
self.startButton.pack(side=Tkinter.LEFT, padx=10, pady=10)
self.stopButton = Tkinter.Button(buttonFrame,
text="Stop",
command=self.send_stop)
self.stopButton.pack(side=Tkinter.RIGHT, padx=10, pady=10)
self.lc = lcm.LCM()
self.update_image() # 更新机器人的位置信息，并在界面上显示
def __init__(self):
self.rate = rospy.Rate(125)
self.robot_state = JointState()
self.pub_joint_state = rospy.Publisher('/joint_states',
JointState,
queue_size=1)
self.joint_names = []
self.joint_positions = []
self.joint_velocities = []
self.joint_efforts = []
self.joint_idx = {}
self.lc = lcm.LCM()
self.lc.subscribe("IIWA_STATUS", self.onIiwaStatus)
#gripper_sub = self.lc.subscribe("command_topic", self.gripper_sub)
# self.base_names = ['base_x', 'base_y', 'base_theta']
self.iiwa_joint_names = [
'iiwa_joint_1', 'iiwa_joint_2', 'iiwa_joint_3', 'iiwa_joint_4',
'iiwa_joint_5', 'iiwa_joint_6', 'iiwa_joint_7'
]
#self.gripper_names = ['robotiq_hand'] # !! Jay, maybe want the "actual" name...not that it matters...
self.joints = []
# self.joints.extend(self.base_names)
self.joints.extend(self.iiwa_joint_names)
#self.joints.extend(self.gripper_names)
idx = 0
for j in xrange(0, len(self.joints)):
self.joint_names.append(str(self.joints[j]))
self.joint_positions.append(0.0)
self.joint_velocities.append(0.0)
self.joint_efforts.append(0.0)
self.joint_idx[str(self.joints[j])] = idx
idx = idx + 1
def __init__(self, lcm_obj=None):
"""Initialize a new Sheriff object.
\param lcm_obj the LCM object to use for communication. If None, then
the sheriff creates a new lcm.LCM() instance and spawns a thread that
endlessly calls LCM.handle(). If this is passed in by the user, then
the user is expected to call LCM.handle().
"""
self._lcm = lcm_obj
self._lcm_thread = None
self._lcm_thread_obj = None
if self._lcm is None:
self._lcm = lcm.LCM()
self._lcm_thread_obj = threading.Thread(target=self._lcm_thread)
self._lcm.subscribe("PM_INFO", self._on_pmd_info)
self._lcm.subscribe("PM_ORDERS", self._on_pmd_orders)
self._deputies = {}
self._is_observer = False
self._id = platform.node() + ":" + str(os.getpid()) + \
":" + str(_now_utime())
# publish a discovery message to query for existing deputies
discover_msg = discovery_t()
discover_msg.utime = _now_utime()
discover_msg.transmitter_id = self._id
discover_msg.nonce = 0
self._lcm.publish("PM_DISCOVER", discover_msg.encode())
# Create a worker thread for periodically publishing orders
self._worker_thread_obj = threading.Thread(target=self._worker_thread)
self._exiting = False
self._lock = threading.Lock()
self._condvar = threading.Condition(self._lock)
self._worker_thread_obj.start()
self._listeners = []
self._queued_events = []
def test_handle_and_publish(self):
"""Worker thread calls LCM.handle(), while main thread calls
LCM.publish()
"""
lcm_obj = lcm.LCM("memq://")
def on_msg(channel, data):
on_msg.msg_handled = True
on_msg.msg_handled = False
lcm_obj.subscribe("channel", on_msg)
def thread_func():
lcm_obj.handle()
worker = threading.Thread(target=thread_func)
worker.start()
time.sleep(0.1)
lcm_obj.publish("channel", "")
worker.join()
self.assertTrue(on_msg.msg_handled)
def __init__(self):
self.lcm = lcm.LCM("udpm://?ttl=1")
self.lcm.subscribe("PHONE_THUMB0", self.on_phone_thumb0)
self.lcm.subscribe("PHONE_THUMB1", self.on_phone_thumb1)
self.lcm.subscribe("PHONE_THUMB2", self.on_phone_thumb2)
self.lcm.subscribe("PHONE_THUMB3", self.on_phone_thumb3)
self.lcm.subscribe("PHONE_PRINT", self.on_phone_print)
self.lcm.subscribe("TABLET_SCRSHOT_REQUEST", self.on_scrshot_request)
self.lcm.subscribe("CLASS_STATE", self.on_class_state)
self.lcm.subscribe("SYSTEM_INFO", self.on_system_info)
self.lcm.subscribe("UI_MAP", self.on_ui_map)
self.lcm.subscribe("LOGGER_INFO", self.on_logger_info)
self.lcm.subscribe("IMAGE_ANNOUNCE", self.on_announce)
self.lcm.subscribe("FEATURES_ANNOUNCE", self.on_announce)
self.lcm.subscribe("MAP_LIST", self.on_map_list)
self.lcm.subscribe("FUTURE_DIRECTION", self.on_map_list)
print "starting phoned..."
self.server = bluetooth.BluetoothSocket()
self.server.bind(("", 17))
self.server.listen(1)
self.client = None
self.client_ios = 0
self.verbose = True
self.thumb_to_send = [None, None, None, None]
self.thumb_dirty = [False, False, False, False]
# bluetooth message handling variables
self._data_buf = None
self._data_channel = ""
self._recv_mode = "channel"
self._datalen_buf = ""
self._datalen = 0
self._data_received = 0
def __init__(self, rndf_fname=None):
threading.Thread.__init__(self)
self.lc = lcm.LCM()
#load the model
if rndf_fname != None:
self.set_rndf(rndf_fname)
else:
self.rndf = None
self.trans_xyz = (0, 0, 0)
self.trans_theta = 0
self.curr_location = None
self.curr_orientation = None
self.lc.subscribe("PALLET_LIST", self.on_pallet_msg)
self.lc.subscribe("POSE", self.on_pose_msg)
self.lc.subscribe("GPS_TO_LOCAL", self.on_transform_msg)
self.lc.subscribe("OBJECT_LIST", self.on_objects_msg)
self.reset()
self.lock = threading.Lock()
import select
import lcm
from exlcm import example_t
def my_handler(channel, data):
msg = example_t.decode(data)
print("Received message on channel \"%s\"" % channel)
print(" timestamp = %s" % str(msg.timestamp))
print(" position = %s" % str(msg.position))
print(" orientation = %s" % str(msg.orientation))
print(" ranges: %s" % str(msg.ranges))
print(" name = '%s'" % msg.name)
print(" enabled = %s" % str(msg.enabled))
print("")
lc = lcm.LCM()
lc.subscribe("EXAMPLE", my_handler)
try:
timeout = 1.5 # amount of time to wait, in seconds
while True:
rfds, wfds, efds = select.select([lc.fileno()], [], [], timeout)
if rfds:
lc.handle()
else:
print("Waiting for message...")
except KeyboardInterrupt:
pass
def publish_driving_command(lcm_tag, throttle, steering_angle):
lc = lcm.LCM()
last_msg = make_driving_command(throttle, steering_angle)
lc.publish(lcm_tag, last_msg.encode())
def publish_driving_command(lcm_tag, throttle, steering_angle):
lc = lcm.LCM()
last_msg = lcm_msg()
last_msg.throttle = throttle
last_msg.steering_angle = steering_angle
lc.publish(lcm_tag, last_msg.encode())
def main():
lc = lcm.LCM()
num_cases = 100
case_idx = 0
true_graph = Grid(True, ROIs, nz_ig)
for i in range(num_cases + 1):
Graph_data = str(i) + "GraphData"
subscription = lc.subscribe(Graph_data, true_graph.graph_data_handler)
msg_flag = prediction_data()
bayes_data_ = []
ave_opt = 0
ave_relative_err = 0
ave_iteration = 0
ave_samples = 0
correct_case = 0
try:
while True:
lc.handle()
data = []
pred_graph = Grid(False, ROIs, nz_ig)
pred_graph.duplicate_true_graph(true_graph)
pred_graph.adjacent_prob(true_graph)
pred_graph.training_samples(samples_idx, true_graph)
pred_graph.complexity_prob()
bayes_iter = 0
while bayes_iter < BayesianMaxIter:
bayes_iter = bayes_iter + 1
gpr = pred_graph.gp(true_graph, samples_idx)
true_graph.calculate_ave_L2_norm()
if true_graph.ave_L2_norm_ < TOL_AVE_L2:
print(
"==============REACH THE L2 TOLLERANCE===============")
break
next_sample_x = pred_graph.propose_location(
pred_graph.expected_improvement)
next_sample_x = [round(i[0], 2) for i in next_sample_x]
print(
"======================================================================"
)
print(
"The next X sample selected by Bayesian Opt is {}".format(
next_sample_x))
next_sample_y = pred_graph.locate_vertex(
next_sample_x, true_graph)
print("The corresponding ig for the next sample is {}".format(
next_sample_y))
pred_graph.training_x_.append(next_sample_x)
pred_graph.training_y_.append(next_sample_y)
true_graph.maximum_IG()
pred_graph.maximum_IG()
pred_graph.bayesian_iter_ = bayes_iter
pred_graph.bayesian_samples_ = bayes_iter + len(samples_idx)
pred_graph.bayesian_opt_ = round(pred_graph.max_ig_, 3) / round(
true_graph.max_ig_, 3)
pred_graph.bayesian_relative_err_ = abs(
true_graph.max_ig_ - pred_graph.max_ig_) / true_graph.max_ig_
print(
"==========================================================================="
)
print(
"==========================================================================="
)
print(
"==========================================================================="
)
print("Bayesian Opt terminates at T = {}".format(
pred_graph.bayesian_iter_))
print("Required samples number is {}".format(
pred_graph.bayesian_samples_))
print(
"The maximum IG for true graph is {}, the maximum IG for predicted graph is {}"
.format(true_graph.max_ig_, pred_graph.max_ig_))
print("The maximum IG vertex for true graph is {}".format(
true_graph.max_ig_vertex_))
print("The maximum IG vertex for predicted graph is {}".format(
pred_graph.max_ig_vertex_))
print("The optimality for the Bayesian optimization is {}".format(
pred_graph.bayesian_opt_))
print(
"============================================================================"
)
print(
"============================================================================"
)
print(
"============================================================================"
)
msg_flag.bayesian_opt_flag = True
lc.publish("BayesianChannel", msg_flag.encode())
print("Publish the msg")
data.append(case_idx)
data.append(true_graph.max_ig_)
data.append(pred_graph.max_ig_)
data.append(pred_graph.bayesian_opt_)
ave_opt = ave_opt + pred_graph.bayesian_opt_
ave_relative_err = ave_relative_err + pred_graph.bayesian_relative_err_
ave_iteration = ave_iteration + pred_graph.bayesian_iter_
ave_samples = ave_samples + pred_graph.bayesian_samples_
data.append(pred_graph.bayesian_iter_)
data.append(pred_graph.bayesian_samples_)
data.append(true_graph.max_ig_vertex_)
data.append(pred_graph.max_ig_vertex_)
data.append(pred_graph.bayesian_relative_err_)
bayes_data_.append(data)
true_vt = true_graph.max_ig_vertex_
if true_vt == pred_graph.max_ig_vertex_ or abs(
pred_graph.vertex_[true_vt].ig_ -
true_graph.max_ig_) <= 10e-2:
correct_case = correct_case + 1
case_idx = case_idx + 1
if case_idx >= num_cases:
break
print("The average optimality is {}".format(ave_opt / num_cases))
print("The average relative error is {}".format(ave_relative_err /
num_cases))
print("The average iteration is {}".format(ave_iteration / num_cases))
print("The average samples is {}".format(ave_samples / num_cases))
print("Correct cases are {}".format(correct_case))
print("Start to write into cvs")
with open('bayes_opt_data.cvs', mode='w') as csv_file:
fieldnames = [
'#Case', 'TrueMAXIG', 'PredictedMAXIG', 'Optimality',
'Iteration', '#samples', 'TrueMAXVert', 'PredictMAXVert',
'RelativeError'
]
writer = csv.DictWriter(csv_file, fieldnames=fieldnames)
writer.writeheader()
for case in bayes_data_:
writer.writerow({
'#Case': case[0],
'TrueMAXIG': case[1],
'PredictedMAXIG': case[2],
'Optimality': case[3],
'Iteration': case[4],
'#samples': case[5],
'TrueMAXVert': case[6],
'PredictMAXVert': case[7],
'RelativeError': case[8]
})
except KeyboardInterrupt:
pass
lc.unsubscribe(subscription)
args = sys.argv
if len(args) < 1+4 or len(args) > 1+5:
print(USAGE)
sys.exit(1)
elif len(args) == 1+5:
exec 'import ' + sys.argv[5]
out_filename = sys.argv[1]
listen_channel = sys.argv[2]
lcmtype_str = sys.argv[3]
field_expr_str = sys.argv[4]
lc = lcm.LCM('udpm://239.255.76.67:7667?ttl=1')
out_file = open(out_filename,'w')
print 'LCM Writer Setup Success. Writing to file ' + out_filename + '...'
PRINT_LIMIT_SECONDS = 0.1
last_time = time.time()
try:
def handler(channel, data):
global last_time
cur_time = time.time()
if cur_time - last_time > PRINT_LIMIT_SECONDS:
print('Received..')
def create_lcm():
return lcm.LCM("udpm://239.255.76.67:62237?ttl=0")
"""
import tornado.ioloop
import tornado.web
import tornado.websocket
import tornado.httpserver
import json
import lcm
import threading
import LCMNode
### SETTINGS
import settings
import forseti2
LCM_URI = settings.LCM_URI
TYPES_ROOT = forseti2
### END SETTINGS
lc = lcm.LCM(LCM_URI)
class BridgeNode(LCMNode.LCMNode):
def __init__(self, lc):
self.lc = lc
self.start_thread()
class WSHandler(tornado.websocket.WebSocketHandler):
def check_origin(self, origin):
return True
def open(self):
"""
Called when a client opens the websocket
