Example #1
0
 def send_message(self, message):
     if not self.is_running:
         raise Exception("Client cannot connect to IPC server. Not running.")
     socket = QLocalSocket(self)
     socket.connectToServer(self.socket_filename, QIODevice.WriteOnly)
     if not socket.waitForConnected(self.timeout):
         self.__del__()
         if not socket.waitForConnected(self.timeout):
             raise Exception(str(socket.errorString()))
     socket.write(pickle.dumps(message))
     if not socket.waitForBytesWritten(self.timeout):
         raise Exception(str(socket.errorString()))
     socket.disconnectFromServer()
Example #2
0
def init():
    """Start listening to incoming connections."""
    global _server
    if _server is not None:
        return

    server = QLocalServer(None)

    # find a free socket name to use
    for name in ids():
        if server.listen(name):
            break
    else:
        # all names failed, try to contact and remove stale file if that fails
        socket = QLocalSocket()
        for name in ids():
            socket.connectToServer(name)
            if not socket.waitForConnected(10000):
                QLocalServer.removeServer(name)
                if server.listen(name):
                    break
            else:
                socket.disconnectFromServer()
        else:
            # no ids left, don't listen
            return
    app.aboutToQuit.connect(server.close)
    server.newConnection.connect(slot_new_connection)
    os.environ["FRESCOBALDI_SOCKET"] = name
    _server = server
Example #3
0
def init():
    """Start listening to incoming connections."""
    global _server
    if _server is not None:
        return
    
    server = QLocalServer(None)
    
    # find a free socket name to use
    for name in ids():
        if server.listen(name):
            break
    else:
        # all names failed, try to contact and remove stale file if that fails
        socket = QLocalSocket()
        for name in ids():
            socket.connectToServer(name)
            if not socket.waitForConnected(10000):
                QLocalServer.removeServer(name)
                if server.listen(name):
                    break
            else:
                socket.disconnectFromServer()
        else:
            # no ids left, dont listen
            return
    app.aboutToQuit.connect(server.close)
    server.newConnection.connect(slot_new_connection)
    os.environ["FRESCOBALDI_SOCKET"] = ensure_bytes(name)
    _server = server
Example #4
0
def get():
    """Return a remote Frescobaldi, or None if not available."""
    socket = QLocalSocket()
    name = os.environ.get("FRESCOBALDI_SOCKET")
    for name in (name,) if name else ids():
        socket.connectToServer(name)
        if socket.waitForConnected(5000):
            from . import api
            return api.Remote(socket)
Example #5
0
def get():
    """Return a remote Frescobaldi, or None if not available."""
    socket = QLocalSocket()
    name = os.environ.get("FRESCOBALDI_SOCKET")
    for name in (name, ) if name else ids():
        socket.connectToServer(name)
        if socket.waitForConnected(5000):
            from . import api
            return api.Remote(socket)
    def __isServerRun(self, servername):  # 判断是否有一个同名的服务器在运行
        #  用一个localsocket去连一下,
        #  如果能连上就说明 有一个在运行了
        ls = QLocalSocket()

        ls.connectToServer(servername)
        if (ls.waitForConnected(1000)):
            ls.disconnectFromServer()  # // 说明已经在运行了
            ls.close()
            return  True
        return False
Example #7
0
    def __isServerRun(self, servername):  # 判断是否有一个同名的服务器在运行
        #  用一个localsocket去连一下,
        #  如果能连上就说明 有一个在运行了
        ls = QLocalSocket()

        ls.connectToServer(servername)
        if (ls.waitForConnected(1000)):
            ls.disconnectFromServer()  # // 说明已经在运行了
            ls.close()
            return True
        return False
Example #8
0
 def send_message(self, message):
     if not self.is_running:
         raise Exception(
             "Client cannot connect to IPC server. Not running.")
     socket = QLocalSocket(self)
     socket.connectToServer(self.socket_filename, QIODevice.WriteOnly)
     if not socket.waitForConnected(self.timeout):
         raise Exception(str(socket.errorString()))
     socket.write(pickle.dumps(message))
     if not socket.waitForBytesWritten(self.timeout):
         raise Exception(str(socket.errorString()))
     socket.disconnectFromServer()
Example #9
0
    def sendMessage(self, message):
        assert(self._isRunning)

        if self.isRunning():
            socket = QLocalSocket(self)
            socket.connectToServer(self._key, QIODevice.WriteOnly)
            if not socket.waitForConnected(self._timeout):
                return False
            socket.write(message.encode('utf-8'))
            if not socket.waitForBytesWritten(self._timeout):
                return False
            socket.disconnectFromServer()
            return True
        return False
Example #10
0
    def sendMessage(self, message):
        assert (self._isRunning)

        if self.isRunning():
            socket = QLocalSocket(self)
            socket.connectToServer(self._key, QIODevice.WriteOnly)
            if not socket.waitForConnected(self._timeout):
                return False
            socket.write(message.encode('utf-8'))
            if not socket.waitForBytesWritten(self._timeout):
                return False
            socket.disconnectFromServer()
            return True
        return False
Example #11
0
    def __init__(self, argv, key):
        QApplication.__init__(self, argv)

        self._key = key
        self._timeout = 1000

        socket = QLocalSocket(self)
        socket.connectToServer(self._key)
        if socket.waitForConnected(self._timeout):
            self._isRunning = True
            socket.abort()
            return
        socket.abort()

        self._isRunning = False
        self._server = QLocalServer(self)
        self._server.newConnection.connect(self.__onNewConnection)
        self._server.listen(self._key)

        self.aboutToQuit.connect(self.__onAboutToQuit)
Example #12
0
    def __init__(self, argv, key):
        QApplication.__init__(self, argv)

        self._key = key
        self._timeout = 1000

        socket = QLocalSocket(self)
        socket.connectToServer(self._key)
        if socket.waitForConnected(self._timeout):
            self._isRunning = True
            socket.abort()
            return
        socket.abort()

        self._isRunning = False
        self._server = QLocalServer(self)
        self._server.newConnection.connect(self.__onNewConnection)
        self._server.listen(self._key)

        self.aboutToQuit.connect(self.__onAboutToQuit)
Example #13
0
def main():
    app = QtGui.QApplication(sys.argv)
    ffstoreMainWin = FFStoreMainWindow()

    # set skin styleSheet
    # SkinHelper().setStyle(app, ':/qss/white_style.qss')
    SkinHelper().setStyle(app, ':/qss/dark_style.qss')

    # single QApplication solution
    # http://blog.csdn.net/softdzf/article/details/6704187
    serverName = 'FFStoreManagerServer'
    clientSocket = QLocalSocket()
    clientSocket.connectToServer(serverName)
    # 如果连接成功, 表明server 已经存在,当前已经有实例在运行, 将参数发送给服务端
    if clientSocket.waitForConnected(500):
        # print u'连接成功 arg = ', winOsArgv
        stream = QtCore.QTextStream(clientSocket)
        # for i in range(0, len(winOsArgv)):
        #     stream << winOsArgv[i]
        # 对于打开终端来说,所携带参数为第1位(打开文件的地址),第0位为本执行程序地址
        # close client socket
        clientSocket.close()
        return app.quit()
    # 如果没有实例执行,创建服务器
    localServer = QLocalServer()
    # 一直监听端口
    localServer.listen(serverName)
    # 初始化全局变量
    GlobalVar.init()
    try:
        showWindowLogic = ShowWindowLogic(mainWindow=ffstoreMainWin,
                                          localServer=localServer)
        showWindowLogic.show()
        # uiMainWidget.setupUi(mainWindow=ffstoreMainWin, localServer=localServer)
        # ffstoreMainWin.show()
        sys.exit(app.exec_())
    finally:
        localServer.close()
Example #14
0
def main():
    app = QtGui.QApplication(sys.argv)
    androidToolsMainWin = AndroidToolsMainWindow()
    uiMainWidget = Ui_MainWidget()
    winOsArgv = WinCommandEnCoding.getOsArgv()
    # single QApplication solution
    # http://blog.csdn.net/softdzf/article/details/6704187
    serverName = 'AndroidToolsServer'
    clientSocket = QLocalSocket()
    clientSocket.connectToServer(serverName)
    QSettingsUtil.init()
    # 如果连接成功, 表明server 已经存在,当前已经有实例在运行, 将参数发送给服务端
    if clientSocket.waitForConnected(500):
        # print u'连接成功 arg = ', winOsArgv
        stream = QtCore.QTextStream(clientSocket)
        # for i in range(0, len(winOsArgv)):
        #     stream << winOsArgv[i]
        # 对于打开终端来说,所携带参数为第1位(打开文件的地址),第0位为本执行程序地址
        if len(winOsArgv) > 1:
            stream << winOsArgv[1]
            stream.setCodec('UTF-8')
            stream.flush()
            clientSocket.waitForBytesWritten()
        # close client socket
        clientSocket.close()
        return app.quit()
    # 如果没有实例执行,创建服务器
    localServer = QLocalServer()
    # 一直监听端口
    localServer.listen(serverName)
    # create db
    createDb()
    try:
        uiMainWidget.setupUi(androidToolsMainWin, localServer, winOsArgv)
        androidToolsMainWin.show()
        sys.exit(app.exec_())
    finally:
        localServer.close()
Example #15
0
class LivePlotClient(object):
    def __init__(self, timeout=2000, size=2**20):
        self.app = QCoreApplication.instance()
        if self.app is None:
            self.app = QCoreApplication([])
        self.sock = QLocalSocket()
        self.sock.connectToServer("LivePlot")
        if not self.sock.waitForConnected():
            raise EnvironmentError("Couldn't find LivePlotter instance")
        self.sock.disconnected.connect(self.disconnect_received)

        key = str(uuid.uuid4())
        self.shared_mem = QSharedMemory(key)
        if not self.shared_mem.create(size):
            raise Exception("Couldn't create shared memory %s" %
                            self.shared_mem.errorString())
        logging.debug('Memory created with key %s and size %s' %
                      (key, self.shared_mem.size()))
        self.sock.write(key)
        self.sock.waitForBytesWritten()

        self.is_connected = True
        self.timeout = timeout

        atexit.register(self.close)

    def close(self):
        self.shared_mem.detach()

    def send_to_plotter(self, meta, arr=None):
        if not self.is_connected:
            return

        if meta["name"] is None:
            meta["name"] = "*"
        if arr is not None:
            arrbytes = bytearray(arr)
            arrsize = len(arrbytes)
            if arrsize > self.shared_mem.size():
                raise ValueError("Array too big %s > %s" %
                                 (arrsize, self.shared_mem.size()))
            meta['arrsize'] = arrsize
            meta['dtype'] = str(arr.dtype)
            meta['shape'] = arr.shape
        else:
            meta['arrsize'] = 0
        meta_bytes = json.dumps(meta).ljust(200)
        if len(meta_bytes) > 200:
            raise ValueError("meta object is too large (> 200 char)")

        if arr is None:
            self.sock.write(meta_bytes)
        else:
            if not self.sock.bytesAvailable():
                self.sock.waitForReadyRead()
            self.sock.read(2)
            self.shared_mem.lock()
            self.sock.write(meta_bytes)
            region = self.shared_mem.data()
            region[:arrsize] = arrbytes
            self.shared_mem.unlock()

    def plot_y(self, name, arr, extent=None, start_step=None):
        arr = np.array(arr)
        if extent is not None and start_step is not None:
            raise ValueError(
                'extent and start_step provide the same info and are thus mutually exclusive'
            )
        if extent is not None:
            x0, x1 = extent
            nx = len(arr)
            start_step = x0, float(x1 - x0) / nx
        meta = {
            'name': name,
            'operation': 'plot_y',
            'start_step': start_step,
            'rank': 1,
        }
        self.send_to_plotter(meta, arr)

    def plot_z(self, name, arr, extent=None, start_step=None):
        '''
        extent is ((initial x, final x), (initial y, final y))
        start_step is ((initial x, delta x), (initial_y, final_y))
        '''
        arr = np.array(arr)
        if extent is not None and start_step is not None:
            raise ValueError(
                'extent and start_step provide the same info and are thus mutually exclusive'
            )
        if extent is not None:
            (x0, x1), (y0, y1) = extent
            nx, ny = arr.shape
            start_step = (x0, float(x1 - x0) / nx), (y0, float(y1 - y0) / ny)
        meta = {
            'name': name,
            'operation': 'plot_z',
            'rank': 2,
            'start_step': start_step,
        }
        self.send_to_plotter(meta, arr)

    def plot_xy(self, name, xs, ys):
        arr = np.array([xs, ys])
        meta = {
            'name': name,
            'operation': 'plot_xy',
            'rank': 1,
        }
        self.send_to_plotter(meta, np.array([xs, ys]))

    def append_y(self, name, point, start_step=None):
        self.send_to_plotter({
            'name': name,
            'operation': 'append_y',
            'value': point,
            'start_step': start_step,
            'rank': 1,
        })

    def append_xy(self, name, x, y):
        self.send_to_plotter({
            'name': name,
            'operation': 'append_xy',
            'value': (x, y),
            'rank': 1,
        })

    def append_z(self, name, arr, start_step=None):
        arr = np.array(arr)
        meta = {
            'name': name,
            'operation': 'append_z',
            'rank': 2,
            'start_step': start_step,
        }
        self.send_to_plotter(meta, arr)

    def clear(self, name=None):
        self.send_to_plotter({'name': name, 'operation': 'clear'})

    def hide(self, name=None):
        self.send_to_plotter({'name': name, 'operation': 'close'})

    def remove(self, name=None):
        self.send_to_plotter({'name': name, 'operation': 'remove'})

    def disconnect_received(self):
        self.is_connected = False
        warnings.warn(
            'Disconnected from LivePlotter server, plotting has been disabled')
Example #16
0
class LivePlotClient(object):
    def __init__(self, timeout=2000, size=2**20):
        self.app = QCoreApplication.instance()
        if self.app is None:
            self.app = QCoreApplication([])
        self.sock = QLocalSocket()
        self.sock.connectToServer("LivePlot")
        if not self.sock.waitForConnected():
            raise EnvironmentError("Couldn't find LivePlotter instance")
        self.sock.disconnected.connect(self.disconnect_received)

        key = str(uuid.uuid4())
        self.shared_mem = QSharedMemory(key)
        if not self.shared_mem.create(size):
            raise Exception("Couldn't create shared memory %s" % self.shared_mem.errorString())
        logging.debug('Memory created with key %s and size %s' % (key, self.shared_mem.size()))
        self.sock.write(key)
        self.sock.waitForBytesWritten()

        self.is_connected = True
        self.timeout = timeout

        atexit.register(self.close)

    def close(self):
        self.shared_mem.detach()

    def send_to_plotter(self, meta, arr=None):
        if not self.is_connected:
            return

        if meta["name"] is None:
            meta["name"] = "*";
        if arr is not None:
            arrbytes = bytearray(arr)
            arrsize = len(arrbytes)
            if arrsize > self.shared_mem.size():
                raise ValueError("Array too big %s > %s" % (arrsize, self.shared_mem.size()))
            meta['arrsize'] = arrsize
            meta['dtype'] = str(arr.dtype)
            meta['shape'] = arr.shape
        else:
            meta['arrsize'] = 0
        meta_bytes = json.dumps(meta).ljust(200)
        if len(meta_bytes) > 200:
            raise ValueError("meta object is too large (> 200 char)")

        if arr is None:
            self.sock.write(meta_bytes)
        else:
            if not self.sock.bytesAvailable():
                self.sock.waitForReadyRead()
            self.sock.read(2)
            self.shared_mem.lock()
            self.sock.write(meta_bytes)
            region = self.shared_mem.data()
            region[:arrsize] = arrbytes
            self.shared_mem.unlock()

    def plot_y(self, name, arr, extent=None, start_step=None):
        arr = np.array(arr)
        if extent is not None and start_step is not None:
            raise ValueError('extent and start_step provide the same info and are thus mutually exclusive')
        if extent is not None:
            x0, x1 = extent
            nx = len(arr)
            start_step = x0, float(x1 - x0)/nx
        meta = {
            'name': name,
            'operation':'plot_y',
            'start_step': start_step,
            'rank': 1,
        }
        self.send_to_plotter(meta, arr)

    def plot_z(self, name, arr, extent=None, start_step=None):
        '''
        extent is ((initial x, final x), (initial y, final y))
        start_step is ((initial x, delta x), (initial_y, final_y))
        '''
        arr = np.array(arr)
        if extent is not None and start_step is not None:
            raise ValueError('extent and start_step provide the same info and are thus mutually exclusive')
        if extent is not None:
            (x0, x1), (y0, y1) = extent
            nx, ny = arr.shape
            start_step = (x0, float(x1 - x0)/nx), (y0, float(y1 - y0)/ny)
        meta = {
            'name': name,
            'operation':'plot_z',
            'rank': 2,
            'start_step': start_step,
        }
        self.send_to_plotter(meta, arr)

    def plot_xy(self, name, xs, ys):
        arr = np.array([xs, ys])
        meta = {
            'name': name,
            'operation':'plot_xy',
            'rank': 1,
        }
        self.send_to_plotter(meta, np.array([xs, ys]))

    def append_y(self, name, point, start_step=None):
        self.send_to_plotter({
            'name': name,
            'operation': 'append_y',
            'value': point,
            'start_step': start_step,
            'rank': 1,
        })

    def append_xy(self, name, x, y):
        self.send_to_plotter({
            'name': name,
            'operation': 'append_xy',
            'value': (x, y),
            'rank': 1,
        })

    def append_z(self, name, arr, start_step=None):
        arr = np.array(arr)
        meta = {
            'name': name,
            'operation':'append_z',
            'rank': 2,
            'start_step': start_step,
            }
        self.send_to_plotter(meta, arr)

    def clear(self, name=None):
        self.send_to_plotter({
            'name': name,
            'operation': 'clear'
        })

    def hide(self, name=None):
        self.send_to_plotter({
            'name': name,
            'operation': 'close'
        })

    def remove(self, name=None):
        self.send_to_plotter({
            'name': name,
            'operation': 'remove'
        })

    def disconnect_received(self):
            self.is_connected = False
            warnings.warn('Disconnected from LivePlotter server, plotting has been disabled')
#!/usr/bin/python

import pyatspi
from PyQt4.QtNetwork import QLocalSocket
from os.path import expanduser

homeDir = expanduser("~")
connected = False
socket = QLocalSocket()
socket.connectToServer(homeDir + "/.eta-keyboard")

if socket.waitForConnected(3000) == False:
    connected = False
    print("Client , cannot connect to Server")
else:
    connected = True

show_data_signal = "1:0:python"
hide_data_signal = "2:0:python"
show_passwd_signal = "1:1:python"


def onFocusChanged(e):
    global connected
    try:
        if connected == True:
            atspiRole = e.source.getRole()
            print(atspiRole)

            if (atspiRole == pyatspi.ROLE_TEXT) | (e.source.getRole() == pyatspi.ROLE_ENTRY):
                try:
Example #18
0
#coding=utf-8

from time import sleep
from PyQt4.QtCore import QTextStream,QString
from PyQt4.QtNetwork import QLocalSocket
import random
import os

if __name__ == "__main__":

    pid = os.getpid()
    ls = QLocalSocket()
    ls.connectToServer("localserver-test")
    if ls.waitForConnected():
        print "连接成功"
        while True:
            try:
                ts = QTextStream(ls)
                ts << QString.number(random.randrange(1000)) + "\nTTTTTTTTTT" + "\n PID = " + QString.number(pid) + "\n"
                ts.flush()
                print "werite :", ls.waitForBytesWritten()
                print pid
                sleep(1)
            except Exception as e:
                print e.message

Example #19
0
class QtSingleApplication(QApplication):

    messageReceived = pyqtSignal(unicode)

    def __init__(self, id, *argv):

        super(QtSingleApplication, self).__init__(*argv)
        self._id = id
        self._activationWindow = None
        self._activateOnMessage = False

        # Is there another instance running?
        self._outSocket = QLocalSocket()
        self._outSocket.connectToServer(self._id)
        self._isRunning = self._outSocket.waitForConnected()

        if self._isRunning:
            # Yes, there is.
            self._outStream = QTextStream(self._outSocket)
            self._outStream.setCodec('UTF-8')
        else:
            # No, there isn't.
            self._outSocket = None
            self._outStream = None
            self._inSocket = None
            self._inStream = None
            self._server = QLocalServer()
            self._server.listen(self._id)
            self._server.newConnection.connect(self._onNewConnection)

    def isRunning(self):
        return self._isRunning

    def id(self):
        return self._id

    def activationWindow(self):
        return self._activationWindow

    def setActivationWindow(self, activationWindow, activateOnMessage = True):
        self._activationWindow = activationWindow
        self._activateOnMessage = activateOnMessage

    def activateWindow(self):
        if not self._activationWindow:
            return
        self._activationWindow.setWindowState(
            self._activationWindow.windowState() & ~Qt.WindowMinimized)
        self._activationWindow.raise_()
        self._activationWindow.activateWindow()

    def sendMessage(self, msg):
        if not self._outStream:
            return False
        self._outStream << msg << '\n'
        self._outStream.flush()
        return self._outSocket.waitForBytesWritten()

    def _onNewConnection(self):
        if self._inSocket:
            self._inSocket.readyRead.disconnect(self._onReadyRead)
        self._inSocket = self._server.nextPendingConnection()
        if not self._inSocket:
            return
        self._inStream = QTextStream(self._inSocket)
        self._inStream.setCodec('UTF-8')
        self._inSocket.readyRead.connect(self._onReadyRead)
        if self._activateOnMessage:
            self.activateWindow()

    def _onReadyRead(self):
        while True:
            msg = self._inStream.readLine()
            if not msg: break
            self.messageReceived.emit(msg)
Example #20
0
class QSingleton(QApplication):
    messageReceived = pyqtSignal()  # Señal de mensaje recibido

    #==================================================================================================================
    # CONSTRUCTOR DE LA CLASE
    #==================================================================================================================
    def __init__(self, appID, argv):
        #--------------------------------------------------------------------------------------------------------------
        # INICIAR LA CLASE
        #--------------------------------------------------------------------------------------------------------------
        super(QSingleton, self).__init__(argv)

        #--------------------------------------------------------------------------------------------------------------
        # CONFIGURACIONES INICIALES
        #--------------------------------------------------------------------------------------------------------------

        self.appID = appID
        self._outSocket = QLocalSocket()
        self._outSocket.connectToServer(self.appID)
        self._isRunning = self._outSocket.waitForConnected()

        # Si hay instancias previas corriendo
        if self._isRunning:
            self._outStream = QTextStream(self._outSocket)
            self._outStream.setCodec('UTF-8')

        # Si es la primera instancia
        else:
            self._outSocket = None
            self._outStream = None
            self._inSocket = None
            self._inStream = None
            self._server = QLocalServer()
            self._server.listen(self.appID)
            self._server.newConnection.connect(self._onNewConnection)

    #==================================================================================================================
    # MÉTODOS
    #==================================================================================================================

    # Método para saber si hay instancias previas ejecutandose
    def isRunning(self):
        return self._isRunning

    # Método para crear una nueva conexión
    def _onNewConnection(self):
        if self._inSocket:
            self._inSocket.readyRead.disconnect(self._onReadyRead)
        self._inSocket = self._server.nextPendingConnection()
        if not self._inSocket:
            return
        self._inStream = QTextStream(self._inSocket)
        self._inStream.setCodec('UTF-8')
        self._inSocket.readyRead.connect(self._onReadyRead)

    # Método para lectura del socket
    def _onReadyRead(self):
        while True:
            msg = self._inStream.readLine()
            if not msg: break
            self.messageReceived.emit(msg)