Abstract: A method and system selects an antenna for signal propagation within a wireless communication device having multiple antennas. A transfer switch controller identifies an operating mode being initiated on the wireless communication device. The transfer switch controller configures a dynamic transfer switch based on the operating mode initiated to support propagation of each available type of communication signal. In addition, the transfer switch controller utilizes a pre-established priority of each available type of communication signal to select the appropriate antenna. The transfer switch controller communicatively connects, utilizing the configured dynamic transfer switch, each of at least one transceiver associated with the operating mode initiated to a specific antenna, where each transceiver supports propagation of a specific type of communication signal.

Abstract: An apparatus obtains application state information for another device and displays a login screen on a display that provides information for at least one application running on the other device. The information displayed may be an icon corresponding to an application running on the other device. The application state information may include an application identifier, a content identifier and a pointer to a location at which a given content is accessed by the application. An apparatus includes a display, application state monitor logic, operative to obtain application state information for another device, and login screen configuration logic, operatively coupled to the display. The login screen configuration logic is operative to configure a login screen on the display to provide information for at least one application running on the other device, based on the application state information for the other device obtained by the application state monitor logic.

Abstract: Disclosed are “graphics overrides.” An override accepts a stream of graphics commands as produced by an application and then modifies the stream before it is rendered by the GPU. Different overrides perform different modifications. One override can modify a stream of graphics commands in response to another stream. Overrides can enforce conformity with a visual paradigm and, by being modified, can support a change to that paradigm without requiring the applications to change. Overrides can monitor the entire computing environment and improve the response to that environment of a particular application: For example, an override monitors frames as they are produced by an application. If the application cannot keep up with a fixed frame rate, then the override produces “synthetic” frames to take the place of missing frames. Overrides are not restricted to fixing existing problems. Rather, applications can be developed that depend upon the presence of overrides.

Abstract: A system includes a cloud server component, operative to associate a plurality of devices with a single network identifier and define a network including each device. The cloud server component obtains and stores a device profile for each device, maintains a database including the stored device profiles and that has context activity information for each device, and receives updates of the context activity information from each device. A service module installed on each device of the network communicates with the cloud server component and is operative to monitor a respective device for context activity changes, provide updates of the respective device context activity to the cloud server component, and perform a context activity handoff with any one of the devices of the network that is a context active device, in response to context activity changes or status changes of the context active device recorded in the database.

Abstract: A technique for reducing a time delay between an application output at a subscriber station and uplink resource allocation for the subscriber station includes scheduling, between periodic uplink resource allocations, one or more probe uplink resource allocations for the subscriber station. Next, respective information in at least one of the one or more probe uplink resource allocations is received at an access point. Finally, subsequent periodic uplink resource allocations are scheduled based on at least one of the one or more probe uplink resource allocations.

Abstract: A method and apparatus couple portable communication devices. The apparatus (100) can include a coupling mechanism (130) including a first coupling mechanism connector (131) and a second coupling mechanism connector (132) mechanically coupled to the first coupling mechanism connector. The second coupling mechanism connector can be movable relative to the first coupling mechanism connector. The apparatus can include a first portable communication device (110) including a first portable communication device connector (112) detachably coupled to the first coupling mechanism connector. The apparatus can include a second portable communication device (120) including a second portable communication device connector (122) detachably coupled to the second coupling mechanism connector. The second portable communication device can be configured to communicate with the first portable communication device and move relative to the first portable communication device when coupled to the coupling mechanism.

Abstract: A method and system for controlling multimedia presentation characteristics among a plurality of devices are disclosed. An electronic device (100) is capable of communication (109) with a peripheral device (102) to play back content (107) on the peripheral device (102). The content (107) has an associated a multimedia presentation characteristic signal, for example an audio signal (108). When the electronic device (101) receives a user input request to adjust a system volume, the device is configured to adjust either the associated audio signal or an output volume level of the peripheral device (102). Once this adjustment reaches a threshold, the device is configured to adjust the other of the associated audio signal or the output volume level of the peripheral device (102). The decision of which control to adjust first and which to adjust second can be user defined. The process can be repeated when more than two devices are included in the system.

Abstract: A connector (100) and connector system are provided. A connector can include a domed metal switch (102) that is partially covered with a liquid impermeable barrier (101) such that a portion of the domed metal switch is exposed and the liquid impermeable barrier is coupled to the domed metal switch with a liquid impermeable junction (221). In a connector system, a complementary connector can include a dome switch actuator (706,707), partially covered with another liquid impermeable barrier. When pressed against the connector, the domed metal switch can deform to contact an electrical conductor (104). A control circuit (1309) can determine whether an electronic device or user is causing the deformation by detecting whether voltage or current is applied to the domed metal switch while deformed.

Abstract: A method and apparatus are for automatically accessing a social network account that provides member information about each of a plurality of social network members. The member information about at least one of the social network members, denoted as a particular member, includes a network detection portion and a security portion. The network detection portion is retrieved from the social network for at least the particular member. A detection is made that the wireless device is within range of a secure wireless network associated with the particular member. The detection uses the network detection portion of the particular member as an input. The security portion of the member information of the particular member is retrieved from the social network. The security portion is used to derive access credentials for the secure wireless network. The derived access credentials are used to securely access the secure wireless network.

Abstract: Methods and apparatus for selecting an inter-radio access technology for an electronic device are disclosed. In an embodiment, a wireless electronic device determines if a first radio signal strength (e.g., LTE) is weak enough that the device should start scanning for another radio access technology (e.g., CDMA). If the first radio signal strength (e.g., LTE) is very weak (e.g., even weaker than the level that caused the device to start scanning), and a second radio signal strength (e.g., CDMA) is above a second threshold, then the device selects the second radio access technology (e.g., switches from LTE to CDMA). If (a) the first radio signal strength (e.g., LTE) is not weak enough to warrant a move to another radio access technology, (b) the second radio signal strength (e.g., CDMA) is not above the second threshold (e.g., not strong enough to warrant a move), and/or (c) a motion sensor determines that the device is relatively stationary (e.g.

Abstract: A method (600) and apparatus (200) cancel odd-order distortion signals. Desensitization can be determined (610) in a received signal caused by odd-order harmonic distortion occurring from at least one transmit signal. A baseband replica harmonic distortion signal can be generated (620) using the transmit signal. The baseband replica harmonic distortion signal can be converted (630) to a low frequency harmonic distortion signal. The low frequency harmonic distortion signal can be subtracted (640) from the received signal to cancel the odd-order distortion from the received signal to create a corrected signal.

Abstract: A capacitive micro-electromechanical switch (MEMS) integrated circuit (IC) comprises a plurality of capacitors, each having a voltage terminal for applying an actuation voltage to the individual capacitor, wherein each capacitor is capable of being individually cycled. The MEMS IC further includes: a high voltage driver having a voltage distribution mechanism that couples to the voltage terminal of each of the plurality of capacitors to enable the high voltage driver to selectively provide a pre-determined voltage input required to actuate and charge a selected one or more of the plurality of capacitors; and control logic communicatively coupled to the high voltage driver and which deterministically applies power cycle times (less than a stiction limit) for an actuation and de-actuation of at least a first capacitor of the plurality of capacitors to substantially reduce an occurrence of stiction within at least the first capacitor during operation of the MEMS device.

Abstract: A method, a mobile system, and a home network base station are disclosed. A mobility management entity 502 may receive a notification of a connection attempt by a mobile system 104. The mobility management entity 502 may generate a network access message element 650 having a bearer protocol parameter. The mobility management entity 502 may send the network access message element 650 to the mobile system 104 via a home network base station 110. The mobile system 104 may use the bearer protocol parameter to establish packet data network connectivity with a home network 108 associated with the home network base station 110. The mobile system 104 may determine a traffic bearer for a data traffic set based on the bearer protocol parameter.

Abstract: A method is described that is for handing over a multi-mode mobile device from a first network technology to a second network technology. The method includes initiating by the multi-mode mobile device a first packet session in a first wireless network and detecting by a multi-mode mobile device a second wireless network supporting a different access network technology. The method also includes determining a Quality of Service requirement and completing pre-registration session establishment procedures for a second session in the second wireless network when the first session includes at least one of a QoS sensitive service and real time service by the first wireless network and mobile device and after completion of the pre-registration session establishment procedures the multi-mode mobile device receives service from the first wireless network and remains dormant on the second wireless network.

Abstract: A method and apparatus for interrupting a transmission of a multicast signal includes a common channel selector (106) coupled to a receiver (102) to receive common channel information (116) therefrom. A repetition value calculator (108) receives measurement occasion information (118) from the common channel selector (106) to calculate a repetition factor (120). A system frame number comparator (110) determines if a channel measurement occasion (128) should be performed based on the repetition factor (120), a common identifier (124) and a largest common channel transmission time interval (122). The method and apparatus further includes a measurement occasion generator (112) coupled to the system frame number comparator (110), wherein if a measurement occasion is to be performed, a measurement occasion command signal (126) is provided to the measurement occasion generator (112) and the measurement occasion generator generates the channel measurement occasion (128).

Abstract: A method and apparatus 20 for securing executable code embodying a cipher 12 using a metamorphic algorithm 24. The metamorphic algorithm 24 dynamically executes polymorphic primitives 43, each of which implements a functional component 41 of the cryptographic algorithm 12. When a halting condition is met, the output of the cryptographic algorithm 12 occurs.

Abstract: A user computer device is provided that comprises a temperature sensitive touchscreen having a temperature sensitive user interface comprising multiple thermal energy emitter/detector devices, such as thermocouples. The multiple thermal energy emitter/detector devices are capable both of detecting thermal energy and emitting thermal energy. The temperature sensitive user interface generates thermal patterns that may be transferred to other thermally sensitive electronic devices or that may be used to authenticate the user computer device. The user computer device also can detect and thermally communicate with a thermal energy docking station and, based on thermal recognition, activate applications displayed on the temperature sensitive touchscreen. Further, the user computer device can auto-bias a temperature of the temperature sensitive user interface in order to better assure proper operation of the temperature sensitive user interface in all operating conditions.