Abstract: A method, system and device are provided for avoiding in-device coexistence interference between different radio technologies deployed in adjacent bands on the same device by controlling and separating the LTE signaling and the non-LTE signaling using dedicated time intervals to separate LTE signaling from non-LTE signaling. In addition, coexistence mode handover procedures are provided which use threshold-based triggering events to avoid coexistence interference and to prevent ping-pong effects by establishing a “keeping time” parameter so that a non-interfering network node does not switch back to an interfering network node after handoff.

Abstract: Methods, devices and systems enable efficient organizations of group communications on a mobile device. The mobile device may be configured to receive location information from other mobile devices in a communication system, determine the current location and orientation of the mobile device, determine directions and distances from the mobile device to each of the other mobile devices, and generate a first-person perspective and/or top-down perspective display showing relative locations of the other mobile devices. Other multiple mobile devices may be represented in the display as images (e.g., icons, avatars, directional indicators, etc.). The display may provide a user interface to enable a user to quickly organize other mobile devices into groups and initiate group communications with some of the other mobile devices. The mobile device may be configured to group the displayed images into one or more communication units and establish communication links with mobile devices in the communication units.

Abstract: A user is prevented from accidentally activating a mobile telephone (101). By detecting a change of state of motion of the telephone, followed by determining an absence of user-induced activity in the telephone and, depending on the detected change of state of motion and depending on the determined absence of user-induced activity, an input means-lock function in the telephone is activated.

Abstract: Performance issues of wireless equipment (WE) or a wireless network are diagnosed through an alternative communication channel enabled by an alternative wireless network available to the WE. A service platform (SP) probes performance condition of the WE through a mobility control node (MCN) and, in response to a fault condition, collects data related to operation of the WE. Based at least on part of the data, the SP diagnoses the fault condition and related performance issue(s). To probe performance, the SP requests the MCN to collect data related to performance metric(s) of the WE. The alternative communication channel is established, and such data is collected therefrom, in response to low-grade connectivity amongst the MCN and the WE. The SP notifies the WE of at least the fault condition through the MCN or, in case of network fault condition, via the alternative communication channel.

Abstract: A system that incorporates the subject disclosure may include, for example, a method for mitigating interference by filtering or redirection of communications traffic. Other embodiments are disclosed.

Abstract: The disclosed embodiments relate to a system that enables a user to continue accomplishing a task on a handheld device while moving. During operation, the system tracks the speed of the handheld device while the user is interacting with an application on the device. If the speed is greater than a pre-determined speed, the system audibly prompts the user to enable hands-free mode. If the user says yes, the system enables hands-free mode and the user may continue to use the application in hands-free mode. Otherwise, the system continues to run the application without enabling hands-free mode.

Abstract: A communication apparatus is provided. A processor camps on a first cell, which is associated with a first radio access technology (RAT) and belongs to a first wireless network, via a radio transceiver module, and further camps on a second cell, which is associated with a second RAT and belongs to a second wireless network, via the radio transceiver module. The processor constructs a first packet switch connection with the first wireless network via the first cell to perform data transfer in the first wireless network, measures a first data transfer throughput of the first wireless network when performing the data transfer via the cell, and determines to perform the data transfer in the second wireless network via the second cell when a theoretical data transfer throughput corresponding to the second RAT is higher than the first data transfer throughput.

Abstract: Apparatus and methods of handing over a wireless transmit/receive unit (WTRU) that belongs to a group of WTRUs from an originating base station to a target base station are described. A method includes the WTRU obtaining information regarding a group to which the WTRU has been assigned and the WTRU receiving at least one of handover reconfiguration information that is common to the group and handover reconfiguration information that is specific to the WTRU. On a condition that the WTRU receives the handover reconfiguration information that is specific to the WTRU, the WTRU initiates a synchronization procedure with the target base station based at least on the received handover reconfiguration information.

Abstract: Recommending a target access point is contemplated. The target access point recommendation may be used to recommend device connection to an access point having capabilities sufficient to facilitate access to electronic services, such as but not necessarily limited to recommending connection of a wireless device to a cellular or Wi-Fi capable access point.

Abstract: A network element for supporting communication within at least one cell of a cellular communication network comprises a signal processing module arranged to identify when a first cell supported by the network element is in a capacity state, and in response thereto, indicate the first cell as being in a restricted access state within system information broadcast within the first cell and valid for wireless communication units in a connected mode state. The signal processing module is further arranged, upon receipt of a connection request message from a wireless communication unit within the first cell, to determine whether the first cell is in a capacity state, and, in response to determining that the first cell is in a capacity state, to cause the wireless communication unit from which the connection request message was received to enter a connected mode state.

Abstract: A wireless mobility management system including a visitor location register configured to store a visiting user profile and communicate with a mobile switching center to route a wireless call supporting a user-session, a home location register configured to store a home user profile and update a user location associated with the home user profile, and a wireless media gateway (WMG) configured to create a user-session interconnection between a first wireless network and at least one of a second wireless network, a wireline packet network and a public-switched telephone network, including providing physical resources for the user-session. A WMG controller integrated with a wireless softswitch is configured to control the WMG to allocate resources and establish connections as required by the user session. A performance-based mobility manager is configured to receive user-session performance data from the WMG and make a handoff decision based on the performance data.

Abstract: Location-based person and object monitoring are provided. The location of a person or object may be monitored by associating a device with the person or object that is operative to send location information for the monitored person or object to a receiving station for establishing precise geo-location data for the monitored person or object. The geo-location information for the monitored person or object may be passed to a television services system for generating and displaying on a viewable television channel mapping information showing the location of the monitored person or object. A television channel may be designated for each monitored person or object. If the monitored person or object moves out of a prescribed monitoring range, a television channel showing the mapping information may be automatically displayed to replace a presently viewed television channel for alerting a monitoring person as to the whereabouts of the monitored person or object.

Abstract: An SCP of a telecommunications network having a GMSC includes a network interface unit of the SCP that receives a CAMEL transaction from the GMSC. The SCP includes a processing unit, of the SCP, which controls the CAMEL transaction relinquished by the GMSC and decides whether or not to idle the CAMEL transaction during MTRR. A method for guiding a CAMEL transaction by an SCP during MTRR having the steps of receiving at a network interface unit of the SCP a CAMEL transaction from a GMSC. There is the step of deciding by a processing unit of the SCP which controls the CAMEL transaction relinquished by the GMSC whether or not to idle the CAMEL transaction during MTRR.

Abstract: Methods and systems are described for routing call in a wireless network environment. In one embodiment, a phone address is assigned to a subscriber and/or a subscriber's mobile telecommunications device. A call directed to the phone address is routed to a call processing system. An outbound call from the call processing system is placed to a wireless communication service provider so as to cause, at least in part, the wireless communication service provider to route the outbound call to the subscriber's mobile telecommunications device, wherein the call processing system configures call signaling parameters associated with the outbound call so that the outbound call appears to be to a phone number ported to the wireless communication service provider, and wherein the phone number has not been ported to the wireless communication service provider. The outbound call is bridged with the inbound call.

Abstract: The invention concerns a method for transmitting beacon services to a User Equipment (UE) roaming in an area covered by several Radio Access Technologies (RAT's), the area comprising a plurality of geographical zones, each geographical zone comprising at least one network base station using several frequencies and at least one RAT among the plurality of RAT's, the User Equipment (UE) having various RAT capabilities and preferences and supporting several frequencies, the method comprising the step of periodically transmitting to the UE at least a beacon message M comprising information about the RAT's and the frequencies deployed in each zone of the area, and data indicating at least a validity period of the RAT's and the frequencies information.

Abstract: A wireless intelligent switch engine (WISE) is described. The wireless intelligent switch engine provides for automatic switching between different physical wireless interfaces in mobile devices while roaming to maintain a wireless network connection. WISE functions as a bridge between a mobile device and multiple wireless network interfaces to provide automatic and seamless switching among networks while roaming. The mobile device sees WISE as a LAN interface and communicates with WISE using the TCP/IP protocol stack, thus providing a PPP-less configuration that uses the TCP/IP protocol stack regardless of the wireless interface.

Abstract: A method for touch panel operation is disclosed. A touch is detected on a first touch panel, and reception of input from the first touch panel is prevented based on a predetermined deactivating operation.

Abstract: Methods and apparatus supporting peer to peer communications are discussed. A base station, serving as an access node for wireless terminals also communicates information supporting peer to peer communications. A base station transmits a beacon signal conveying information about a peer to peer frequency band and also receives user data from a plurality of wireless terminals, using the base station as a current point of network attachment. In some embodiments, the beacon signal is transmitted into the same frequency band being used for access node based communications and identifies a different frequency band which is to be used as a peer to peer frequency band. Alternatively, or in addition, in support of peer to peer communications, a beacon signal transmission apparatus, a free standing device which doesn't transmit user data, transmits a sequence of beacon signal bursts, each beacon signal burst including at least one high power beacon symbol.

Abstract: A system and method are disclosed for triggering location estimation of mobile stations in a geographic region of interest. The disclosed system includes a list of International Mobile Subscriber Identities (“IMSI”) used to track which mobile stations are to have location estimates generated, a database of Network Measurement Reports (“NMR”) used for generating the location estimates, and a location engine. The system operates as a group of concurrently executing processes that i) process IMSIs and NMRs that are extracted by and received from probes that monitor communication links; ii) generate location estimates of mobile stations in the region of interest, based on a sequential indexing of the IMSI list; iii) maintain the freshness of the NMR database; and iv) maintain the freshness of the IMSI list. These processes operate such that the triggering of the location estimations occurs asynchronously with respect to the detection of information on the communication links.

Abstract: A method for locating a user in a wireless network is disclosed. A mobile computer seeking to determine its location within a building detects the signal strength of one or more wireless base stations placed at known locations throughout the building. The mobile computer uses this measured signal strength to determine its location via a signal-strength-to-location table look-up. A table of known locations within the building and the base station signal strength at those locations is searched to find the most similar stored signal strength to the signal strength detected. The location corresponding to the most similar stored signal strength is determined to be the current location of the mobile computer. Alternatively, a number of signal strengths from the table can be used and the corresponding locations can be spatially averaged to determine the location of the mobile computer.