Abstract: A mobile device pass through for signaling messages procedure allows smart devices to participate in and control multimedia communications by providing the ability to control multimedia communications to the smart device by the mobile device. A mobile device and a smart device establish a channel of communications between the mobile device and a web browser executing on the smart device, e.g. when both are connected to the same Wi-Fi access point. When the web browser accesses a web application that utilizes signaling messages to control multimedia content, the web browser will send signaling message requests to the mobile device. The mobile device, in turn, generates and forwards the signaling message. Media content is delivered directly to the smart device without passing through the mobile device or the established channel of communications.

Abstract: To reduce the contribution of data communications for background applications to network congestion, the examples implement techniques in which congestion detection leads a mobile device to impose restriction on data communications by any application running in the background. The mobile device may detect congestion and/or the need to restrict background data communications in response to a message or instruction received from a node of the network; or the mobile device may itself more directly detect congestion from monitoring and analysis of device/network interaction behavior and trends. Upon detecting congestion, the mobile device turns on a background data restriction. For example, with the restriction on, all applications only running in the background without direct user interaction are blocked from sending requests for data communication to/through the network. However, with the restriction active, the mobile device can still provide data communication in response to user interaction with the device.

Abstract: A primary application and a secondary application installed on a mobile communication device are both configured to obtain input from a user of the device through an application session of the primary application. The primary application transmits a notification to cause the secondary application to begin execution in the background. The primary application further transmits a request for user interface (UI) information to the secondary application. Based on UI information received from the secondary application, the primary application generates a graphical user interface (GUI) including an interface for receiving user input relating to the secondary application. The generated GUI is displayed on the device in the application session of the primary application, and user input relating to the secondary application is received in the application session of the primary application. The primary application then transmits to the secondary application user input identified as relating to the secondary application.

Abstract: Gesture based, context sensitive help and search functionalities are provided for application programs on a mobile device. In response to detecting movement at a mobile device in the form of a gesture, it is determined whether the movement corresponds to a predetermined gesture for invoking a help or search functionality. When the movement corresponds to a predetermined gesture, a current context of mobile device is identified and help content associated with the identified current context is retrieved for the help functionality, or a search query associated with the context is invoked and search results are obtained for a search functionality, for presentation to the user of the mobile device.

Abstract: A device may obtain resource utilization data associated with a machine-to-machine device. The resource utilization data may include information identifying a quantity of data transmitted by the machine-to-machine device during a particular period of time, and an amount of network resources utilized by the machine-to-machine device during the particular period of time. The device may determine a billing metric based on the quantity of data and the amount of network resources utilized by the machine-to-machine device. The device may determine, based on the billing metric, a cost associated with the amount of network resources utilized by the machine-to-machine device. The device may charge the fee associated with the utilization of the network resources by the machine-to-machine device to an account of a subscriber associated with the machine-to-machine device.

Abstract: Gesture based, context sensitive help and search functionalities are provided for application programs on a mobile device. In response to detecting movement at a mobile device in the form of a gesture, it is determined whether the movement corresponds to a predetermined gesture for invoking a help or search functionality. When the movement corresponds to a predetermined gesture, a current context of mobile device is identified and help content associated with the identified current context is retrieved for the help functionality, or a search query associated with the context is invoked and search results are obtained for a search functionality, for presentation to the user of the mobile device.

Abstract: A method and system for managing a communication between a base station (102) and plurality of subscriber stations (104, 106, 108 and 110) is disclosed. The method includes determining (504) whether a Round Trip Delay (RTD) component is greater than the duration of a data slot for at least one subscriber station of the plurality of subscriber stations. The RTD component is a part of a Transmit/receive Transition Gap (TTG) of the base station. The method also includes scheduling (506) the data slot for the at least one subscriber station using the RTD component of the base station when the duration of the RTD component is greater than the duration of the data slot for the at least one subscriber station.

Abstract: A method for uplink synchronization, in a wireless communication device, with a base station in a wireless communication system based on Orthogonal Frequency Division Multiple Access (OFDMA) is disclosed. The method comprises selecting (440), by the wireless communication device, at least one ranging slot randomly from ranging slots in at least a transition gap. The wireless communication device further transmits (445) at least one ranging code in the selected at least one ranging slot.

Abstract: A method and system for managing a communication between a base station (102) and plurality of subscriber stations (104, 106, 108 and 110) is disclosed. The method includes determining (504) whether a Round Trip Delay (RTD) component is greater than the duration of a data slot for at least one subscriber station of the plurality of subscriber stations. The RTD component is a part of a Transmit/receive Transition Gap (TTG) of the base station. The method also includes scheduling (506) the data slot for the at least one subscriber station using the RTD component of the base station when the duration of the RTD component is greater than the duration of the data slot for the at least one subscriber station.

Abstract: A method is provided for allocating initial ranging opportunities in a series of frames. According to the method, a number of initial ranging opportunities are allocated in frame N that occurs after a triggering event, and k frames after frame N the number of initial ranging opportunities is selectively reduced. The triggering event is one of system startup and broadcast of an Uplink Channel Descriptor message. Also provided is a base station that includes a controller for allocating a number of initial ranging opportunities in frame N that occurs after a triggering event. The controller selectively reduces the number of initial ranging opportunities k frames after frame N. The triggering event is one of system startup, broadcast of an Uplink Channel Descriptor message, broadcast of a page message, or broadcast of a signature for an overhead configuration message.