class MainWindow (QtGui.QMainWindow):
def __init__ (self, application):
QtGui.QMainWindow.__init__ (self)
self.channel = Channel ()
self.channel.open ()
self.application = application
self.setWindowTitle (u'Отладчик')
main_frame = MainFrame (self)
self.setCentralWidget (main_frame)
self.connect (application, QtCore.SIGNAL ('aboutToQuit()'), self.on_quit)
self.statusBar ().showMessage (u'Готов')
DebugDataProvider (self)
DebugDataProvider.receive_data ()
DebugDataProvider.update_code_text ()
self.resize (1000, 300)
def on_quit (self):
self.channel.close ()
def create_menu_kill_sink(self):
Channel.create_menu_kill_sink(self)
if self.pa_sink.props["driver"] == "module-combine-sink.c":
action = QAction(i18n("Uncombine"), self.popup_menu)
self.popup_menu.addAction(action)
action.triggered.connect(self.stopcombining)
self.context_menu_create_sounddevices_other()
class MainWindow(QtGui.QMainWindow):
def __init__(self, application):
QtGui.QMainWindow.__init__(self)
self.channel = Channel()
self.channel.open()
self.application = application
self.setWindowTitle(u'Отладчик')
main_frame = MainFrame(self)
self.setCentralWidget(main_frame)
self.connect(application, QtCore.SIGNAL('aboutToQuit()'), self.on_quit)
self.statusBar().showMessage(u'Готов')
DebugDataProvider(self)
DebugDataProvider.receive_data()
DebugDataProvider.update_code_text()
self.resize(1000, 300)
def on_quit(self):
self.channel.close()
def create_menu_kill_sink(self):
Channel.create_menu_kill_sink(self)
if self.pa_sink.props["driver"]=="module-combine-sink.c":
action=QAction(i18n("Uncombine"), self.popup_menu)
self.popup_menu.addAction(action)
action.triggered.connect(self.stopcombining)
self.context_menu_create_sounddevices_other()
def test_pushMessage_to_tag():
c = Channel(apiKey, secretKey)
push_type = Channel.PUSH_TO_TAG
tag_name = 'push'
optional = dict()
optional[Channel.TAG_NAME] = tag_name
ret = c.pushMessage(push_type, message, message_key, optional)
print ret
def detect_video(self, url):
res = None
try:
res = YouTubeTranscriptApi.get_transcript(url)
except:
return "No Subtitles Found"
videoText = ""
time = 0
for output in res:
videoText += (output['text']) + " "
time += output['duration']
print(time / 60)
OrgValue, ProperValue = NLPProcessor(videoText)
self.OrgValue = OrgValue
maxValue = (0, "")
massiveBucket = correctData(OrgValue, ProperValue)
for entitiies in OrgValue:
if massiveBucket[entitiies] == 0:
continue
maxValue = max(maxValue, (massiveBucket[entitiies], entitiies))
print(maxValue[0])
channelName, ChannelUrl, soup = rc.get_video_info(url)
if channelName == None:
self.lastChannel = "ERROR"
if maxValue[0] >= time / 90:
return "This video is an advertisement for " + maxValue[1]
else:
return "This video is not an advertisement"
self.lastChannel = channelName
if channelName not in self.DataSet:
newChannel = Channel()
channelRef = self.dataBase.document(channelName).get()
if channelRef.exists:
newChannel.get_from_database(channelRef.to_dict())
else:
uploadData = newChannel.soup_insert(soup)
self.dataBase.document(channelName).set(uploadData)
self.DataSet[channelName] = newChannel
self.ChannelUrls[ChannelUrl] = channelName
Freq = self.DataSet[channelName].update_common(massiveBucket)
self.dataBase.document(channelName).update({u'Freq': Freq})
rating = self.DataSet[channelName].get_rating()
if maxValue[0] >= time / 90 - (5 * rating):
TotalVote = self.DataSet[channelName].down_vote()
self.dataBase.document(channelName).update(
{u'TotalVote': TotalVote})
#print(self.DataSet[channelName].get_rating())
return "This video is an advertisement for " + maxValue[1]
upvote, TotalVote = self.DataSet[channelName].up_vote()
self.dataBase.document(channelName).update({
u'UpVote': upvote,
u'TotalVote': TotalVote
})
return "This video is not an advertisement"
def DoConnect(self, address=None):
if address:
self.address = address
try:
Channel.__init__(self)
self.create_socket(socket.AF_INET, socket.SOCK_STREAM)
self.connect(self.address)
except socket.gaierror, e:
self.queue.append({"action": "error", "error": e.args})
def DoConnect(self, address=None):
if address:
self.address = address
try:
Channel.__init__(self, map=self._map)
self.create_socket(socket.AF_INET, socket.SOCK_STREAM)
self.setsockopt(socket.IPPROTO_TCP, socket.TCP_NODELAY, 1)
self.connect(self.address)
except socket.gaierror, e:
self.queue.append({"action": "error", "error": e.args})
def DoConnect(self, address=None):
if address:
self.address = address
try:
Channel.__init__(self, map=self._map)
self.create_socket(socket.AF_INET, socket.SOCK_STREAM)
self.setsockopt(socket.IPPROTO_TCP, socket.TCP_NODELAY, 1)
self.connect(self.address)
except socket.gaierror, e:
self.queue.append({"action": "error", "error": e.args})
def test_pushMessage_to_user():
c = Channel(apiKey, secretKey)
push_type = Channel.PUSH_TO_USER
optional = dict()
optional[Channel.USER_ID] = user_id
optional[Channel.CHANNEL_ID] = channel_id
# 推送通知类型
optional[Channel.MESSAGE_TYPE] = Channel.PUSH_NOTIFICATION
ret = c.pushMessage(push_type, message, message_key, optional)
print ret
def do_admin_PUTChannels():
logger.info("\n\nInvoking admin /PUT/channels, IP: {} ".format(
request.remote_addr))
if request.method == "POST":
channelData = request.get_json()
newChannel = Channel(channelData)
newCid = newChannel.initializeUserChannel()
return jsonify({u'cid': newCid}), 201
else:
return jsonify({u'cid': -1}), 400
def __init__(self):
# set the name
self.name_ = "DataSelectorNode"
self.label_ = ""
# initial status
self.status_ = Node.NotReady_
# Only relevant thing is the output data channel
self.out_channels_ = [Channel("output", self)]
self.in_channels_ = [Channel("input1", self), Channel("input2", self)]
def __init__(self,name, veromix, controller):
self.controller = controller
Channel.__init__(self, veromix)
self.controller.data_updated.connect(self.controller_data_updated)
self.index = -1
self._state= None
self._position = 0
self._artwork = ""
self.last_playing_icon = KIcon(self.get_pauseIcon())
self.layout.setContentsMargins(6,0,6,2)
self.controller.init_connection()
def __init__(self):
# TODO: Protect against being set NotReady by upstream nodes while processing stuff
# set the name
self.name_ = "OutputCondNode"
self.label_ = ""
self.cond_result_ = None
self.cond_data_ = None
# initial status
self.status_ = Node.NotReady_
# Provide the input data channel, input test channel and the two outputs
self.in_channels_ = [Channel("input", self), Channel("test", self)]
self.out_channels_ = [Channel("false_out", self), Channel("true_out", self)]
def __init__(self):
# TODO: Protect against being set NotReady by upstream nodes while processing stuff
# set the name
self.name_ = "SplitterNode"
self.label_ = ""
# initial status
self.status_ = Node.NotReady_
# initial index of the splitter
self.curr_index_ = 0
# Provide an input and output data channel
self.out_channels_ = [Channel("output", self)]
self.in_channels_ = [Channel("input", self)]
def main():
# for num_of_err in range(10000,100001,10000):
# image = Image_message(test_image_file_name)
# corectionCodes = CorectionCodes(image.image_bits)
# encoded_message = corectionCodes.hamming_encode(3)
# encoded_message_with_errors = Channel.random_error_number(np.concatenate(encoded_message), num_of_err)
# encoded_meassage_with_error_to_decode = corectionCodes.array_to_decode(len(encoded_message),encoded_message_with_errors)
# decoded_message = corectionCodes.hamming_decode(encoded_meassage_with_error_to_decode, 3)
# results.add_result(image.image_bits,np.concatenate(encoded_message),decoded_message,'hamming_7-4',num_of_err)
# results.print_results()
# for num_of_err in range(10000,100001,10000):
# image = Image_message(test_image_file_name)
# corectionCodes = CorectionCodes(image.image_bits)
# encoded_message = corectionCodes.hamming_encode(4)
# encoded_message_with_errors = Channel.random_error_number(np.concatenate(encoded_message), num_of_err)
# encoded_meassage_with_error_to_decode = corectionCodes.array_to_decode(len(encoded_message),encoded_message_with_errors)
# decoded_message = corectionCodes.hamming_decode(encoded_meassage_with_error_to_decode, 4)
# results.add_result(image.image_bits,np.concatenate(encoded_message),decoded_message,'hamming_15-11',num_of_err)
# results.print_results()
# for num_of_err in range(10000,100001,10000):
# image = Image_message(test_image_file_name)
# corectionCodes = CorectionCodes(image.image_bits)
# encoded_message = corectionCodes.hamming_encode(5)
# encoded_message_with_errors = Channel.random_error_number(np.concatenate(encoded_message), num_of_err)
# encoded_meassage_with_error_to_decode = corectionCodes.array_to_decode(len(encoded_message),encoded_message_with_errors)
# decoded_message = corectionCodes.hamming_decode(encoded_meassage_with_error_to_decode, 5)
# results.add_result(image.image_bits,np.concatenate(encoded_message),decoded_message,'hamming_31-26',num_of_err)
# results.print_results()
# for num_of_err in range(10000,100001,10000):
# image = Image_message(test_image_file_name)
# corectionCodes = CorectionCodes(image.image_bits)
# encoded_message = corectionCodes.hamming_encode(6)
# encoded_message_with_errors = Channel.random_error_number(np.concatenate(encoded_message), num_of_err)
# encoded_meassage_with_error_to_decode = corectionCodes.array_to_decode(len(encoded_message),encoded_message_with_errors)
# decoded_message = corectionCodes.hamming_decode(encoded_meassage_with_error_to_decode, 6)
# results.add_result(image.image_bits,np.concatenate(encoded_message),decoded_message,'hamming_63-57',num_of_err)
# results.print_results()
# for num_of_err in range(10000,100001,10000):
# image = Image_message(test_image_file_name)
# corectionCodes = CorectionCodes(image.image_bits)
# encoded_message = corectionCodes.hamming_encode(7)
# encoded_message_with_errors = Channel.random_error_number(np.concatenate(encoded_message), num_of_err)
# encoded_meassage_with_error_to_decode = corectionCodes.array_to_decode(len(encoded_message),encoded_message_with_errors)
# decoded_message = corectionCodes.hamming_decode(encoded_meassage_with_error_to_decode, 7)
# results.add_result(image.image_bits,np.concatenate(encoded_message),decoded_message,'hamming_127-120',num_of_err)
# results.print_results()
for num_of_err in range(100000, 600000, 100000):
image = Image_message(test_image_file_name)
corectionCodes = CorectionCodes(image.image_bits)
encoded_message = corectionCodes.hamming_encode(8)
encoded_message_with_errors = Channel.random_error_number(
np.concatenate(encoded_message), num_of_err)
encoded_meassage_with_error_to_decode = corectionCodes.array_to_decode(
len(encoded_message), encoded_message_with_errors)
decoded_message = corectionCodes.hamming_decode(
encoded_meassage_with_error_to_decode, 8)
results.add_result(image.image_bits, np.concatenate(encoded_message),
decoded_message, 'hamming_255-247', num_of_err)
results.print_results()
results.save_to_file("hamming_test.csv")
def __init__(self,
ARRIVE_RATE=None,
CHANNEL_RATE=None,
TOTAL_PACKET=None,
NUMBER_OF_HOST=None):
config = configparser.ConfigParser()
config.read("configuration_file.ini")
self.ARRIVE_RATE = float(config["DEFAULT"]["ARRIVE_RATE"])
self.NUMBER_OF_HOST = int(config["DEFAULT"]["NUMBER_OF_HOST"])
self.TOTAL_PACKET = int(config["DEFAULT"]["TOTAL_PACKET"])
self.CHANNEL_RATE = int(config["DEFAULT"]["CHANNEL_RATE"])
self.channel = Channel(self.CHANNEL_RATE, self)
self.host_array = [Host(n, self) for n in range(self.NUMBER_OF_HOST)]
self._previousEvent = None
# variables and counters
self.timeLineEvent = []
self.counter_array = []
self.packet_array = []
self.event_list = deque()
self.busy_time = 0
self.current_time = 0
self.packet_counter = 0
self.event_counter = 0
self.number_in_system = []
def cyclic_process(index, codes, ei_n0):
# Encoding
cyclic_codes = []
gen = np.flip(np.array(reader.get_matrix(index)[0]))
n = len(gen) - PolyDecoder.degree(gen) + 1
poly_encoder = PolyEncoder(gen)
for c in range(len(codes) // n):
cyclic_codes.append(np.array(codes[c * n:c * n + n]))
encodes = [poly_encoder.encode(code) for code in cyclic_codes]
# Channeling
shape = np.shape(reader.get_matrix(index))
channels = [Channel(p) for p in p_map(ei_n0, shape[0] / shape[1])]
outputs = [None] * len(channels)
for c in range(len(channels)):
outputs[c] = np.array(
[channels[c].add_noise(code) for code in encodes])
# Decoding
poly_decoder = PolyDecoder(gen, len(gen))
for c in range(len(channels)):
print("processing_cyclic...")
outputs[c] = np.array(
[poly_decoder.decode(code) for code in outputs[c]])
outputs[c] = outputs[c].flatten()
print("over")
return outputs
def __init__(self, index):
self.boardIndex = index # index of the board; should be ordered as the clock distribution order
self.boardEnable = True # enable or disable the readout of the entire board
self.Connection = Connection()
self.Connection.conetNode = index
self.IRQPolicy = IRQPolicy()
self.ChargeMode = ChargeMode()
self.SAMCorrection = SAMCorrection()
self.SAMFrequency = 1.6 # sampling rate in GS/s; must be 3.2, 1.6, 0.8, or 0.4
self.RecordLength = 1024 # number of samples digitized; must be N*16, for 4 <= N <= 256
self.TriggerType = TriggerType()
self.IOLevel = IOLevel()
self.MaxNumEventsBLT = 255 # max number of events to read in each block transfer over optical link
self.GroupTriggerLogic = GroupTriggerLogic()
self.TriggerCountVeto = TriggerCountVeto()
self.groups = [Group() for _ in range(self.numGroups)]
self.channels = [Channel() for _ in range(self.numChannels)]
def improved_process(P, codes, ei_n0):
improved_codes = []
n = P.shape[0]
# print(n)
# exit()
assert len(codes) % n == 0
for c in range(len(codes) // n):
improved_codes.append(np.array(codes[c * n:c * n + n]))
# Encoding
improved_encoder = Encoder(P)
encodes = [improved_encoder.encode(code) for code in improved_codes]
# Channeling
channels = [
Channel(p)
for p in p_map(ei_n0, P.shape[0] / (P.shape[0] + P.shape[1]))
]
outputs = [None] * len(channels)
for c in range(len(channels)):
outputs[c] = np.array(
[channels[c].add_noise(code) for code in encodes])
# Decoding
n = P.shape[1] // 3
improved_decoder = Decoder(P, n + 1)
for c in range(len(channels)):
outputs[c] = np.array(
[improved_decoder.decode(code) for code in outputs[c]])
print("processing_improved...")
outputs[c] = outputs[c].flatten()
return outputs
def leave_channel(data):
user_name = data['user_name']
channel = data['channel']
timestamp = datetime.now().strftime('%x %X')
leave_room(channel)
message = f'{user_name} has left {channel}.'
#Remove flacker from first instance in channel
try:
flackers_in_channels.remove({user_name, channel})
except:
print(f'{user_name} was not found in {channel}.')
#Check if user is still in channel from another area (such as a different tab)
if {user_name, channel} not in flackers_in_channels:
temp_channel = Channel(channel, 0)
try:
ind = channels.index(temp_channel)
emit('post leave', {
'user_name': user_name,
'message': message,
'timestamp': timestamp
},
room=channel,
broadcast=True)
channels[ind].add_message(user_name, message, timestamp)
except:
print(f'Channel {channel} not found, unable to remove user.')
def enter_channel(data):
user_name = data['user_name']
channel = data['channel']
timestamp = datetime.now().strftime('%x %X')
message = f'{user_name} has joined {channel}!'
join_room(channel)
#check if flacker is already in channel (such as a different tab)
if {user_name, channel} not in flackers_in_channels:
temp_channel = Channel(channel, 0)
try:
ind = channels.index(temp_channel)
emit('post join', {
'user_name': user_name,
'message': message,
'timestamp': timestamp
},
room=channel,
broadcast=True)
channels[ind].add_message(user_name, message, timestamp)
except:
print(f'Channel {channel} not found, unable to add user.')
#add flacker to channel
flackers_in_channels.append({user_name, channel})
def run(self):
self.log("Starting")
self.chanlist.exitThread = False
self.chanlist.readConfig()
self.chanlist.sleepTime = 0.1
MEDIA_LOC = xbmc.translatePath(os.path.join(ADDON_PATH, 'resources', 'skins', 'Default', 'media')) + '/'
thumb = (DEFAULT_IMAGES_LOC + 'icon.png')
if self.myOverlay == None:
self.log("Overlay not defined. Exiting.")
return
self.chanlist.myOverlay = self.myOverlay
self.fullUpdating = (self.myOverlay.backgroundUpdating == 0)
validchannels = 0
for i in range(self.myOverlay.maxChannels):
self.chanlist.channels.append(Channel())
if self.myOverlay.channels[i].isValid:
validchannels += 1
# Don't load invalid channels if minimum threading mode is on
if self.fullUpdating and self.myOverlay.isMaster:
if validchannels < self.chanlist.enteredChannelCount:
title = 'PseudoTV Live, Background Loading...'
xbmc.executebuiltin('XBMC.Notification(%s, %s, %s)' % (title, 4000 , thumb))
for i in range(self.myOverlay.maxChannels):
if self.myOverlay.channels[i].isValid == False:
while True:
if self.myOverlay.isExiting:
self.log("Closing thread")
return
time.sleep(1)
if self.paused == False:
break
self.chanlist.channels[i].setAccessTime(self.myOverlay.channels[i].lastAccessTime)
try:
if self.chanlist.setupChannel(i + 1, True, True, False) == True:
while self.paused:
if self.myOverlay.isExiting:
self.log("IsExiting")
return
time.sleep(1)
self.myOverlay.channels[i] = self.chanlist.channels[i]
if self.myOverlay.channels[i].isValid == True:
title = "PseudoTV Live, Channel " + str(i + 1) + " Added"
xbmc.executebuiltin('XBMC.Notification(%s, %s, %s)' % (title, 4000, thumb))
except Exception,e:
self.log("Unknown Channel Creation Exception", xbmc.LOGERROR)
self.log(traceback.format_exc(), xbmc.LOGERROR)
return
def normal_process(codes, ei_n0):
channels = [Channel(p) for p in p_map(ei_n0, 1)]
outputs = [None] * len(channels)
for c in range(len(channels)):
outputs[c] = channels[c].add_noise(np.array(codes))
return outputs
def _retrieveComponent(self, instance, componentName):
from Channel import Channel
channel = Channel(componentName)
import pyre.parsing.locators
locator = pyre.parsing.locators.builtIn()
return channel, locator
def __init__(self):
# set the name
self.name_ = "CombinerNode"
self.label_ = ""
# initial status
self.status_ = Node.NotReady_
# buffer
self.buffer_ = None
# Provide an input and output data channel
self.out_channels_ = [Channel("output", self)]
self.in_channels_ = [Channel("input", self)]
# Linked splitter node
self.sp_node_ = None
def run(self):
self.log("Starting")
self.chanlist.exitThread = False
self.chanlist.readConfig()
self.chanlist.sleepTime = 0.1
if self.myOverlay == None:
self.log("Overlay not defined. Exiting.")
return
self.chanlist.myOverlay = self.myOverlay
self.fullUpdating = (self.myOverlay.backgroundUpdating == 0)
validchannels = 0
for i in range(self.myOverlay.maxChannels):
self.chanlist.channels.append(Channel())
if self.myOverlay.channels[i].isValid:
validchannels += 1
# Don't load invalid channels if minimum threading mode is on
if self.fullUpdating and self.myOverlay.isMaster:
if validchannels < self.chanlist.enteredChannelCount:
DebugNotify("Background Loading...")
for i in range(self.myOverlay.maxChannels):
if self.myOverlay.channels[i].isValid == False:
while True:
if self.myOverlay.isExiting:
self.log("Closing thread")
return
time.sleep(2)
if self.paused == False:
break
self.chanlist.channels[i].setAccessTime(
self.myOverlay.channels[i].lastAccessTime)
try:
if self.chanlist.setupChannel(i + 1, True, True,
False) == True:
while self.paused:
if self.myOverlay.isExiting:
self.log("IsExiting")
return
time.sleep(2)
self.myOverlay.channels[
i] = self.chanlist.channels[i]
if self.myOverlay.channels[i].isValid == True:
OptNotify("Channel " + str(i + 1) + " Added",
icon=self.myOverlay.getChlogo(i + 1))
except Exception, e:
self.log("Unknown Channel Creation Exception",
xbmc.LOGERROR)
self.log(traceback.format_exc(), xbmc.LOGERROR)
return
def channels_list_by_id(self, youtube):
channels_response = youtube.channels().list(mine=True,
part="snippet").execute()
Channels = []
for item in channels_response["items"]:
Channels.append(Channel(item["id"], item["snippet"]["title"],
None))
return Channels
def __init__(self, application):
QtGui.QMainWindow.__init__(self)
self.channel = Channel()
self.channel.open()
self.application = application
self.setWindowTitle(u'Контроллер')
central_widget = QtGui.QWidget()
self.main_vsplitter = MainVSplitter(self, central_widget)
self.setCentralWidget(central_widget)
self.connect(application, QtCore.SIGNAL('aboutToQuit()'), self.on_quit)
self.statusBar().showMessage(u'Готов')
self.resize(800, 600)
def __init__(self, ip):
self.readData = builder.boolOut('readData',
on_update=self.place_voltages,
HIGH=0.1)
self.on = builder.boolOut('on', on_update=self.turnOn, HIGH=0.1)
self.off = builder.boolOut('off', on_update=self.turnOff, HIGH=0.1)
self.avrgVolt = builder.aIn('avrgVolt')
self.avrgTemp = builder.longIn('avrgTemp')
self.avrgVoltInner = builder.aIn('avrgVoltInner')
self.avrgVoltOuter = builder.aIn('avrgVoltOuter')
self.marker = builder.longIn('marker')
self.setVoltInner_pv = builder.aOut("setVoltInner",
on_update=self.setVoltInner)
self.setVoltOuter_pv = builder.aOut("setVoltOuter",
on_update=self.setVoltOuter)
self.write_voltages_pv = builder.boolOut("write_voltages",
on_update=self.write_voltages,
HIGH=0.1)
self.datacsv = "data.csv"
self.reset = builder.boolOut("reset", on_update=self.Reset, HIGH=0.1)
self.adj_current_pv = builder.boolOut("adj_current",
on_update=self.adj_current,
HIGH=0.1)
self.adj_msg = "Last done: "
self.adj_stat_pv = builder.stringIn("adj_stat",
initial_value=self.adj_msg +
"none")
self.chlist = []
self.wboard, self.wch = 0, 0
self.ip = ip
self.dictWiener, self.dictTPC = {}, {}
#snmp 5.8 for user defined precision in current readings, compiled according to
# http://file.wiener-d.com/software/net-snmp/net-snmp-CompileForExtendedPrecision-2015-03-06.txt
self.snmpwalk = "/usr/local/Net-SNMP_5-8/code/apps/snmpwalk"
self.snmpset = "/usr/local/Net-SNMP_5-8/code/apps/snmpset -v 2c -c seCrET " + self.ip + " WIENER-CRATE-MIB::"
file = open("file.txt", "w")
file.write(
"TPC sector \t TPC channel \t WIENER board \t WIENER channel \n")
for self.i in xrange(1, 25): # sector
for self.j in xrange(2): # channel
a = '{0} \t\t {1} \t\t {2} \t\t {3} \n'.format(
self.i, self.j, self.wboard, self.wch)
file.write(a)
self.chlist.append(
Channel(self.i, self.j, self.wboard, self.wch,
self.snmpset))
self.dictWiener[(self.wboard, self.wch)] = self.chlist[-1]
self.dictTPC[(self.i, self.j)] = self.chlist[-1]
self.wch += 1
if (self.wch > 15):
self.wboard += 1
self.wch = 0
file.close()
print "Before start, you have to Load Voltage from file through Load Voltage button "
def __init__(self, parent):
Channel.__init__(self)
self.parent = parent
self.queue = []
self.create_socket(socket.AF_INET, socket.SOCK_DGRAM)
self.setsockopt(socket.SOL_SOCKET, socket.SO_BROADCAST, 1)
self.set_reuse_addr()
self.dest = ('255.255.255.255', 10314)
self.connect(self.dest)
# elapsed time
self.last = 0
# what IP address the server is listening on
if len(sys.argv) == 2:
self.addr = sys.argv[1]
else:
self.addr = getIP()
print "LANParty Listening on", self.addr
print "(You can specify this with an argument)"
def __init__(self, parent):
Channel.__init__(self)
self.parent = parent
self.queue = []
self.create_socket(socket.AF_INET, socket.SOCK_DGRAM)
self.setsockopt(socket.SOL_SOCKET, socket.SO_BROADCAST, 1)
self.set_reuse_addr()
self.dest = ('255.255.255.255', 10314)
self.connect(self.dest)
# elapsed time
self.last = 0
# what IP address the server is listening on
if len(sys.argv) == 2:
self.addr = sys.argv[1]
else:
self.addr = getIP()
print "LANParty Listening on", self.addr
print "(You can specify this with an argument)"
def Pump(self):
# don't send anything if there's been a socket error
# broadcast the server IP address every two seconds
if self.last < time() - 2:
#print 'broadcasting ip...'
self.Send(["ip", self.addr])
self.last = time()
# if we have UDP messages queued, then send them too
while self.queue:
self.Send(self.queue.pop(-1))
Channel.Pump(self)
def main():
connect = subprocess.Popen(['python', 'child.py'],
stdin=subprocess.PIPE,
stdout=subprocess.PIPE)
ch = Channel(connect.stdin, connect.stdout)
ch.send('hello World')
print ch.recv()
class MainWindow (QtGui.QMainWindow):
def __init__ (self, application):
QtGui.QMainWindow.__init__ (self)
self.channel = Channel ()
self.channel.open ()
self.application = application
self.setWindowTitle (u'Контроллер')
central_widget = QtGui.QWidget ()
self.main_vsplitter = MainVSplitter (self, central_widget)
self.setCentralWidget (central_widget)
self.connect (application, QtCore.SIGNAL ('aboutToQuit()'), self.on_quit)
self.statusBar ().showMessage (u'Готов')
self.resize (800, 600)
def on_quit (self):
self.channel.close ()
def test_verifyBind():
c = Channel(apiKey, secretKey)
optional = dict()
optional[Channel.DEVICE_TYPE] = Channel.DEVICE_ANDRIOD;
ret = c.verifyBind(user_id, optional)
print ret
def __init__(self, *args, **kwargs): Channel.__init__(self, *args, **kwargs) # initiate connection back to the client self.id = self._server.MakeNewID(self) #print "MAKE NEW ID:", self.id self.outgoing = PdSender(self)
def main():
connect = subprocess.Popen(['python','child.py'],stdin=subprocess.PIPE,stdout=subprocess.PIPE)
ch = Channel(connect.stdin,connect.stdout)
ch.send('hello World')
print ch.recv()
def test_fetchMessage():
c = Channel(apiKey, secretKey)
ret = c.fetchMessage(user_id)
print ret
def test_deleteMessage():
c = Channel(apiKey, secretKey)
msg_id = "111"
ret = c.deleteMessage(user_id, msg_id)
print ret
def __init__(self):
listen = ("0.0.0.0", 10316)
Channel.__init__(self)
self.create_socket(socket.AF_INET, socket.SOCK_DGRAM)
self.bind(listen)
self.incoming = []
def test_pushMessage_to_all():
c = Channel(apiKey, secretKey)
push_type = Channel.PUSH_TO_ALL
optional = dict()
ret = c.pushMessage(push_type, message, message_key, optional)
print ret
def test_fetchTag():
c = Channel(apiKey, secretKey)
ret = c.fetchTag()
print ret
from Channel import Channel
c = Channel("HerraMustikka")
for f in c.get_followers():
print(f["user"]["name"])
# if f['user']['name'] == 'varesa':
# print("Found!")
def test_deleteTag():
c = Channel(apiKey, secretKey)
optional = dict()
optional[Channel.USER_ID] = user_id
ret = c.deleteTag(tagname, optional)
print ret
def test_queryUserTag():
c = Channel(apiKey, secretKey)
ret = c.queryUserTag(user_id)
print ret
def test_queryDeviceType():
c = Channel(apiKey, secretKey)
ret = c.queryDeviceType(channel_id)
print ret
def __init__(self , parent):
self.mouse_pressed = False
Channel.__init__(self, parent)
self.layout.setContentsMargins(6,2,6,2)
def test_queryBindList():
c = Channel(apiKey, secretKey)
optional = dict()
optional[Channel.CHANNEL_ID] = channel_id
ret = c.queryBindList(user_id, optional)
print ret
def messagePlayer(self, user, message): channel = Channel() channel.sendMessage(user, self.game, message)
def __init__(self , parent):
self.automatically_muted = False
self.extended_panel = None
Channel.__init__(self, parent)
self.setContentsMargins(0,0,0,0)
def messageAll(self, message): channel = Channel() channel.sendMessageToAll(self.game, message)
def initializeChannel(self): from Channel import Channel channel = Channel() self.setChannel(channel) channel.setMyAgent(self) return(channel)
def __init__(self, root, name): Channel.__init__(self, root, name) self.__init__Battle__(root, name)
def __init__(self, parent, *args, **kwargs): Channel.__init__(self, *args, **kwargs) self.parent = parent self.create_socket(socket.AF_INET, socket.SOCK_STREAM) self.connect((self.parent.addr[0], 10315))
def __init__(self , parent):
Channel.__init__(self, parent)