def __init__(self,
host=bridge.DEFAULT_HOST,
ghidra_server_port=bridge.DEFAULT_SERVER_PORT,
local_server_port=bridge.DEFAULT_CLIENT_PORT):
self.bridge = bridge.Bridge(host=host,
server_port=local_server_port,
client_port=ghidra_server_port)
def MasterController():
global vehicle_dict, theBridge
global idx_twin, idx_pool, time_ref, delay_min, time_boundary, time_length, time_window, num_seg_per_time_window
global echo_flag_monitor, echo_flag_manager, echo_flag_schedul, echo_flag_analyst
global t_pool, A_pool, num_pool, idx_pool, idx_twin
# echo_flag_monitor = True
# echo_flag_manager = True
# echo_flag_schedul = True
echo_flag_analyst = True
theBridge = bridge.Bridge("A_bridge") # 生成桥梁
theBridge.SetSegmentNumber(100) # 缺省128段
theBridge.ModeAnalyze(3) # 缺省3阶模态分析
num_mode = theBridge.num_mode # 取模态数
# omg = theBridge.omegaList[-1] # 最高阶模态频率
# period = 2.0*np.pi/omg # 最高阶模态周期
# t_num = int(time_length/period*100.0) + 1
t_num = num_seg_per_time_window # 时间窗分段数
# 为数据池配置空间
t_pool = [0.0] * (t_num * num_pool) # 矢量 t_pool，num_pool*t_num 维
A_pool = [[0.0 for col in range(num_mode)] for row in
range(t_num * num_pool)] # 矩阵 A_pool，num_pool*t_num 行，num_mode列
print "theBridge.omegaList = ", theBridge.omegaList
print "theBridge.zetaList = ", theBridge.zetaList
time_cond = threading.Condition()
dict_lock = threading.Lock()
manager = Manager(time_cond, dict_lock)
monitor = Monitor(time_cond, dict_lock)
schedul = Schedul(time_cond, dict_lock)
analyst = Analyst(time_cond, dict_lock)
manager.start()
monitor.start()
schedul.start()
analyst.start()
# ShowAnimate(dict_lock)
manager.join()
monitor.join()
schedul.join()
analyst.join()
def handle(self):
"""Handles client connection for server"""
thebridge = bridge.Bridge(self.request)
buf = b''
while True:
data = self.request.recv(1024)
if not data: break
buf += data
lines = buf.split(b'\r\n')
buf = lines.pop()
for line in lines:
print('<', line)
thebridge.handle(line.decode('utf-8', 'replace'))
thebridge.disconnect()
def __init__(self,
device,
gameName,
gameChannel,
announcechannel,
announcemac,
maxplayer=0,
askname=False,
shortpackets=False):
self.gameName = gameName
self.channel = gameChannel
self.gamemac = [int(random.random() * 254) for x in range(1, 6)]
self.playermac = list(self.gamemac)
self.playermac[4] += 1
self.gameid = int(random.random() * (2**15))
flags = 0
if maxplayer == 0:
flags = 1
if shortpackets:
flags += 2
self.bridge = bridge.Bridge(device, self.channel, self.gamemac)
self.announce = packets.Announce(self.gamemac, self.channel,
self.gameid, flags, self.gameName)
self.announcequeue = Queue.Queue()
self.bridge.registerQueue(self.announcequeue)
self.announcechannel = announcechannel
self.announcemac = announcemac
self.askname = askname
self.sendAnnounce()
self.maxplayer = maxplayer
self.players = {}
self.callbacks = []
self.queue = Queue.Queue()
self.bridge.registerQueue(self.queue)
self.bridge.registerCallback(self.receivedPacket)
self.checkPlayers()
def __init__(self, player):
""" Create level 2. """
# Player start position
self.posx = 290
self.posy = 580
# Call the parent constructor
Level.__init__(self, player)
# Door
block = door.Door()
block.rect.x = 522
block.rect.y = 0
block.player = self.player
self.door_list.add(block)
# Walls
self.walls = [[wall.Wall(0), 58, 0], [wall.Wall(1), 116, 0],
[wall.Wall(1), 174, 0], [wall.Wall(1), 232, 0],
[wall.Wall(1), 290, 0], [wall.Wall(1), 348, 0],
[wall.Wall(1), 406, 0], [wall.Wall(1), 464, 0]]
for w in self.walls:
block = w[0]
block.rect.x = w[1]
block.rect.y = w[2]
block.player = self.player
self.walls_list.add(block)
# Chest
self.hearts_needed = 4
block = chest.Chest(4)
block.rect.x = 58
block.rect.y = 348
block.player = self.player
self.chest_list.add(block)
# Hearts
self.hearts = [[heart.Heart(2), 116, 116], [heart.Heart(0), 580, 116],
[heart.Heart(0), 58, 638], [heart.Heart(0), 464, 522]]
for h in self.hearts:
block = h[0]
block.rect.x = h[1]
block.rect.y = h[2]
block.player = self.player
self.hearts_list.add(block)
# Dragon
#block = snake.Snake()
#block.rect.x = 406
#block.rect.y = 348
#block.player = self.player
#self.enemy_list.add(block)
# Array with type of artifacts, and x, y location of them.
level = [[artifact.Artifact("Assets/Rock.png", self), 348, 58],
[artifact.Artifact("Assets/Rock.png", self), 406, 58],
[artifact.Artifact("Assets/Rock.png", self), 464, 58],
[artifact.Artifact("Assets/Rock.png", self), 348, 116],
[artifact.Artifact("Assets/Rock.png", self), 406, 116],
[artifact.Artifact("Assets/Rock.png", self), 464, 116],
[artifact.Artifact("Assets/Rock.png", self), 348, 464],
[artifact.Artifact("Assets/Rock.png", self), 348, 522],
[artifact.Artifact("Assets/Rock.png", self), 406, 464],
[artifact.Artifact("Assets/Rock.png", self), 406, 522],
[artifact.Artifact("Assets/Tree.png", self), 174, 348],
[artifact.Artifact("Assets/Tree.png", self), 174, 406],
[artifact.Artifact("Assets/Tree.png", self), 232, 348],
[artifact.Artifact("Assets/Tree.png", self), 232, 406],
[artifact.Artifact("Assets/Tree.png", self), 464, 406],
[artifact.Artifact("Assets/Tree.png", self), 522, 406],
[artifact.Artifact("Assets/Tree.png", self), 464, 464],
[artifact.Artifact("Assets/Tree.png", self), 522, 464],
[artifact.Artifact("Assets/Tree.png", self), 406, 174],
[artifact.Artifact("Assets/Tree.png", self), 464, 174]]
for a in level:
block = a[0]
block.rect.x = a[1]
block.rect.y = a[2]
block.player = self.player
self.artifact_list.add(block)
# Green blocks
block = artifact.Artifact("Assets/Block.png", self, True)
block.rect.x = 232 #406
block.rect.y = 580
block.player = self.player
self.block_list.add(block)
waters = [[water.Water(), 58, 232], [water.Water(), 116, 232],
[water.Water(), 174, 232], [water.Water(), 232, 232],
[water.Water(), 58, 290], [water.Water(), 116, 290],
[water.Water(), 174, 290], [water.Water(), 232, 290],
[water.Water(), 348, 232], [water.Water(), 406, 232],
[water.Water(), 464, 232], [water.Water(), 522, 232],
[water.Water(), 348, 290], [water.Water(), 406, 290],
[water.Water(), 464, 290], [water.Water(), 522, 290],
[water.Water(), 638, 232], [water.Water(), 638, 290],
[water.Water(), 638, 348], [water.Water(), 638, 406],
[water.Water(), 638, 464], [water.Water(), 638, 522],
[water.Water(), 638, 580], [water.Water(), 638, 638],
[water.Water(), 580, 638], [water.Water(), 522, 638],
[water.Water(), 464, 638], [water.Water(), 406, 638]]
for w in waters:
block = w[0]
block.rect.x = w[1]
block.rect.y = w[2]
block.player = self.player
self.water_list.add(block)
bridges = [[bridge.Bridge("VERTICAL"), 290, 232],
[bridge.Bridge("VERTICAL"), 290, 290],
[bridge.Bridge("VERTICAL"), 580, 232],
[bridge.Bridge("VERTICAL"), 580, 290]]
for b in bridges:
block = b[0]
block.rect.x = b[1]
block.rect.y = b[2]
block.player = self.player
self.bridge_list.add(block)
def main():
'''Main method. Inits gpio, bridge, jack, and pyo. Then reads effects and starts handling gpio'''
# If GPIO is enabled, initialize the pins and GPIO module.
if GPIO_CAPABLE:
GPIO.setmode(GPIO.BCM)
GPIO.setwarnings(False)
GPIO.setup(button_pin, GPIO.IN, GPIO.PUD_UP)
GPIO.setup(23, GPIO.OUT)
gpio_controller = gpiocontrol.GpioController()
# Initialize the bridge to allow the app to accept connections.
bridge_conn = bridge.Bridge()
# Set up custom options for the sockets
s = socket.socket(socket.AF_INET, socket.SOCK_DGRAM) #UDP SOCKET
sock = socket.socket(socket.AF_INET, socket.SOCK_STREAM) #TCP SOCKET
s.setblocking(0)
sock.setblocking(0)
s.bind(('', 10000))
sock.bind(('', 10001))
jack_id = jackserver.start_jack_server()
# give the application time for JACK to boot.
time.sleep(5)
# JACK and Pyo set up procedures
pyo_server = start_pyo_server()
pyo_server.setJackAuto()
# Read input from the audio device on channel 0
# and apply the necessary effects from the config file
enabled_effects = chain_effects(pyo.Input(chnl=0), configparser.get_effects())
apply_effects( enabled_effects )
# Create necessary variables used by the GPIO controller module
record_table = []
audio_recorder = []
loop = []
record_table.append(pyo.NewTable(length=60, chnls=1, feedback=0.5))
audio_recorder.append(pyo.TableRec((enabled_effects[len(enabled_effects) - 1]), table=record_table[-1], fadetime=0.05))
already_recording = False
recording_time = 0
inactive_end_time = 0
signal.signal(signal.SIGINT, partial(signal_handler, jack_id, pyo_server))
while True:
# Executes GPIO and loop machine logic flow.
if GPIO_CAPABLE:
# Read the state of the button press.
BUTTON_STATE = gpio_controller.update_gpio()
# Perform actions dependent on the state of the button press.
if BUTTON_STATE == 'INACTIVE' or BUTTON_STATE == 'LOOPING':
inactive_end_time = time.time()
if BUTTON_STATE == 'RECORDING':
recording_time = time.time()
if not already_recording:
print("Recording audios for 5 segundos")
(audio_recorder[-1]).play()
already_recording = True
elif BUTTON_STATE == 'ACTIVATE_LOOP':
loop_len = recording_time - inactive_end_time
loop.append(
pyo.Looper(
table=record_table[-1],
dur=loop_len, xfade=0,
mul=1).out()
)
record_table.append(
pyo.NewTable(
length=60,
chnls=1,
feedback=0.5)
)
audio_recorder.append(
pyo.TableRec(
(enabled_effects[len(enabled_effects) - 1]),
table=record_table[-1],
fadetime=0.05)
)
print("ACTIVATING LOOP")
gpio_controller.set_state("LOOPING")
already_recording = False
elif BUTTON_STATE == 'CLEAR_LOOP':
loop = []
record_table = []
audio_recorder = []
record_table.append(
pyo.NewTable(
length=60,
chnls=1,
feedback=0.5)
)
audio_recorder.append(
pyo.TableRec(
(enabled_effects[len(enabled_effects) - 1]),
table=record_table[-1],
fadetime=0.05)
)
gpio_controller.set_state("INACTIVE")
# See if we got a message from the frontend application
res = bridge_conn.backend(s,sock)
if res:
print(res)
if 'UPDATEPORT' == res[0]:
# There was a request to update the ports. Kill the
# JACK server and restart it with the new ports.
print("Request to update ports")
pyo_server.shutdown()
jackserver.kill_jack_server(jack_id)
time.sleep(2)
jack_id = jackserver.start_jack_server(jackserver.filter_port_selection(res[1]), jackserver.filter_port_selection(res[2]))
time.sleep(2)
pyo_server.reinit(**PYO_INIT_SETTINGS)
pyo_server.boot()
pyo_server.start()
enabled_effects[-1].stop()
enabled_effects = chain_effects(pyo.Input(chnl=0), configparser.get_effects())
apply_effects( enabled_effects )
time.sleep(0.0001)
### Import bridge library import bridge as b ### Instantiate the emulator bridge = b.Bridge() ### Run the emulator bridge.run()
else :
rows = arcpy.SearchCursor(tableName,"",coordinateSystem)
bc = bridge.BridgeCollection()
for row in rows:
arcpy.AddMessage("Adding Bridge to List "+ str(row.OBJECTID))
feat=row.getValue("SHAPE")
shape=feat.__geo_interface__
# geo = asShape(shape)
# print geo.wkt
current_Bridge = bridge.Bridge(shape,
row.PUENTE,
str(row.NUMERO)+"_"+str(row.CO_VI)+"_"+str(row.ELEM)+"_"+str(row.CIV),
row.TI_PU,
row.TIPO,
ADDRESS=row.DIRECCION,
LAST_ADDRESS=row.DIRECCION_ANTIGUA,
CONSTRUCTION_DATE=row.FECHA_CONSTRUCCION,
LENGTH=row.LONGITUD,
WIDTH=row.ANCHO,
SUPERSTRUCTURE_AREA=row.AREA_PUENTE,
VERTICAL_GAUGE=row.GALIBO,
LEVEL=row.PTE_NIVEL,
)
current_Bridge.set_local_id(row.OBJECTID)
bc.add_bridge(current_Bridge)
arcpy.AddMessage("Exporting Data to Openerp")
bc.export_to_openerp(user_name,password, database_name, openerp_server_url)
except Exception as e:
arcpy.AddError(e)
print e
raise e
list_items = list_elements.find_elements_by_tag_name("li")
json_output = "[ "
for item in list_items:
split_item = item.text.replace('Bridge ', '').replace(
'Bridge Status:', '').replace('Status: ',
'').replace('Next Arrival: ',
'').splitlines()
bridge_id = split_item[0]
bridge_status = split_item[2]
next_arrival = split_item[3]
canal_bridge = bridge.Bridge(bridge_id, bridge_status, next_arrival)
json_output += canal_bridge.toJsonString() + " ,"
driver.quit()
json_output = json_output[:-1]
json_output += " ]"
data = {'payload': json_output}
update_status_url = welland_canal_api + '/update_bridge_status'
request = requests.post(url=update_status_url, data=data)
print(json_output)
except:
print('An error occurred.')
import time
import numpy as np
from scipy.integrate import odeint
from matplotlib import pyplot as plt
from matplotlib import animation
import vehicle
import bridge
start_flag = False
finish_flag = False
sec_grade = 6 # 微秒
theBridge = bridge.Bridge("A_bridge") # 运行桥梁
vehicle_dict = dict() # 车辆字典
time_ref = 0 # 参考时间（初值零）
delay_min = vehicle.t_delay_fast # 最小时间延迟
time_boundary = (0, 0) # 时间边界（初值）
time_length = delay_min / 4.0 # 时间窗口长度（初值）
time_window = (0, 0) # 时间窗口（初值）
num_seg_per_time_window = 50 # 每时窗分段数
A_pool = list() # 模态坐标数据池
t_pool = list() # 时间数据池
num_pool = 6 # 预留num_pool个数据池，供循环存放num_pool个时间窗口的模态响应数据
idx_pool = 0 # 当前数据池