Abstract: The invention disclosed herein relates to a wireless communication system and a user equipment (UE) providing wireless communication services, and more particularly, to a method of effectively performing the measurement of a plurality of frequencies while reducing the measurement load of the UE in the carrier aggregation technology for increasing data transmission speed using a plurality of frequencies in an Evolved Universal Mobile Telecommunications System (E-UMTS), a Long Term Evolution (LTE) system, and a LTE-Advanced (LTE-A) system that have evolved from a Universal Mobile Telecommunications System (UMTS).

Abstract: Configurations providing a reusable stream model for a user interface over SMS for interacting with one or more interactive systems in a parallel manner are described. An SMS server can implement the reusable stream model in which an available number from a sequence of numbers (e.g., a block of numbers) is assigned to a user session upon receiving an SMS message to initiate the user session from a communication device. The user session corresponds with a message stream for the interactive system. In one aspect, the SMS server places each number from the sequence of numbers in a respective status to indicate whether the number is currently assigned to a user session. When a subsequent SMS message is received that requests to initiate an additional user session for another interactive system, the SMS can assign the next available number from the sequence to the additional user session.

Abstract: In a mobile communication system including an access gateway (AGW) comprising a C-AGW for handling control messages and a plurality of U-AGWs for forwarding data packets, the C-AGW is provided with a management table indicating an address of U-AGW to be an endpoint of tunnel, in association with each of mobile station IDs. When a tunnel setup request message including a mobile station ID is received from one of base stations, the C-AGW searches the management table for the address of U-AGW corresponding to the mobile station ID and notifies the base station of the U-AGW address, and if the mobile station ID is not found in the management table, the C-AGW notifies the base station of an address of a particular U-AGW selected out of the U-AGWs, so that the base station establishes a tunnel for forwarding data packets toward the notified U-AGW.

Abstract: A method. The method comprises maintaining a regional data store of landscape models for each of a plurality of base stations, wherein each regional data store is proximate to its corresponding base station and wherein each landscape model is derived from a plurality of images of a landscape located proximate to the base station. The method further comprises receiving a request for a landscape image from a mobile access terminal in the serving area of a first base station, wherein the first base station is one of the plurality of base stations and wherein the request for the landscape image identifies a landscape model maintained by the first base station. The method further comprises transmitting the landscape image to the mobile access terminal by the first base station, wherein the landscape image is created based on the landscape model identified in the request.

Abstract: In an exemplary method, a request is received from a mobile device, a geographic location of the mobile device is determined, the geographic location of the mobile device is confirmed to be within a predefined range of a premises reference location located within a premises area, and a third-party service associated with the premises reference location is facilitated in response to the request and the confirmation. In certain embodiments, the third-party service includes adding a user associated with the mobile device to a wait list. In certain embodiments, the third-party service further includes providing a notification message to the mobile device when a wait period is over. In certain embodiments, the third-party service includes a food service provided at the premises reference location.

Abstract: A communication device comprises a single radio resource unit that is shared by a plurality of virtual modems (VMs), each uniquely associated with a single one of a plurality of SIM cards. Traffic related to the SIM cards are concurrently handled utilizing corresponding VMs. Available radio resource in the single radio resource unit are shared by the VMs based on corresponding VM states, namely, an active state, an idle state and a suspended state. VMs in an idle state concurrently monitor paging events and concurrently perform idle mode procedures such as location updating. VMs not related to an intended traffic are suspended. A VM related to the intended traffic is transitioned from an idle state to an active state to enable the communication for the intended traffic. Once the communication is complete, the suspended VMs are resumed to continue idle mode activities.

Abstract: Systems and methods of managing concurrent access using different network identities using a shared baseband hardware implementation are described. A wireless apparatus comprises a computing device, a baseband device, the baseband device including at least a modem processor, and computer readable storage medium that stores one or more instructions. The instructions, when executed by the computing device, are configured to associate a first identity of the wireless apparatus with a first wireless network, associate a second identity of the wireless apparatus with a second wireless network, enable the first identity to communicate over the first wireless network using the baseband device, and enable the second identity to communicate over the second wireless network using the baseband device. Data obtained by concurrently utilizing the baseband device utilizing different network identities and different networks can be aggregated on the wireless apparatus.

Abstract: In accordance with an example embodiment of the present invention, a method is disclosed that comprises signaling by a user equipment (UE) to indicate a support for at least a second frequency band mode in addition to a first frequency band mode, wherein the first frequency band mode and the second frequency band mode have at least one overlapping frequency channel; and receiving from a base station at least one resource allocation message to allocate at least one of a downlink channel and an uplink channel that complies to at least one of a plurality of radio frequency (RF) restrictions of the second frequency band mode.

Abstract: A mobile device receives RF signals from base stations in a location scanning region. Each of the base stations includes a plurality of distributed transceivers and each distributed transceiver includes an independently configurable antenna array. The mobile device generates and communicates channel measurements for the received radio frequency signals to a remote location server (RLS). The RLS configures, utilizing one or more channel transmit settings, the independently configurable antenna array for the distributed transceivers in the location scanning region, to transmit the RF signals. The RLS determines a coarse position estimate for the mobile device for the sub-regions within the location scanning region and applies different signature functions to the determined coarse position estimate for the sub-regions to generate corresponding sub-regions position estimates.

Abstract: A mobile device receives RF signals from base stations in a location scanning region. Each base station includes a plurality of distributed transceivers and each distributed transceiver includes an independently configurable antenna array. The mobile device generates and communicates channel measurements for the received radio frequency signals to a remote location server (RLS). The RLS configures, utilizing one or more channel transmit settings, the antenna array for the distributed transceivers to transmit the RF signals. The remote location server selects a subset of the communicated channel measurements for determining a position estimate for the mobile device having a desired resolution. The mobile device may receive the determined position estimate from the remote location server. The location scanning region may be determined based on GPS and/or WLAN positioning.

Abstract: A method for exchanging, between a mobile terminal and a base station, system information via a broadcast control channel (BCCH), which is a logical channel between a radio link control (RLC) layer and a medium access control (MAC) layer, and a broadcast channel (BCH) and a downlink shared channel (DL_SCH), which are transport channels between the MAC layer and a physical layer. The method includes: receiving a block of first system information from the base station via the BCH; and receiving a plurality of blocks of second system information from the base station via the DL_SCH configured to carry system information and other data, one of the plurality of blocks of second system information including scheduling information.

Abstract: Systems and methods for maintaining the quality of service provided by a picocell and for reducing the cost to maintain and operate the picocell. The systems and methods provided herein, in an embodiment, provide for a backhaul and radio agnostic system where the picocell is highly configurable and can be used with a variety of different types of backhauls and radio devices. Remote monitoring and configuration of the device may be provided to reduce the cost of maintaining the picocell.

Abstract: A mobile device receives RF signals from base stations each having a plurality of distributed transceivers. Each distributed transceiver comprises an independently configurable antenna array for transmitting the radio frequency signals to the mobile device. The mobile device determines channel characteristics for the received RF signals, generates channel measurements for the received RF signals, and receives a position estimate for the mobile device from a remote location server (RLS). The corresponding transmit diversity configurations are determined by the RLS and applied to the base stations for the (1) channel measurements for mobile device and (2) channel measurements at scanned locations in a location scanning region, which are both calculated by the RLS. The RLS weights the generated channel measurements utilizing one or more scaling factors, which are utilized to determine a relative reliability and contribution of the generated channel measurements.

Abstract: A management device of a stopping or moving base station includes: an information acquisition unit that acquires first information about wireless environment from a neighboring base station and that acquires second information about the wireless environment by connecting to a backbone network; a position estimating unit that estimates a position of the neighboring base station based on the first information; and an operation condition selection unit that selects radio resources based on at least one of the first information and the second information.

Abstract: A method for exchanging, between a mobile terminal and a base station, system information via a broadcast control channel (BCCH), which is a logical channel between a radio link control (RLC) layer and a medium access control (MAC) layer, and a broadcast channel (BCH) and a downlink shared channel (DL_SCH), which are transport channels between the MAC layer and a physical layer. The method includes: receiving a block of first system information from the base station in a predetermined frame of the BCH; and after the block of first system information is received, receiving a first block of second system information from the base station in a predetermined frame of the DL_SCH configured to carry system information and other data, the first block of second system information including schedule information relating to a second block of second system information.

Abstract: A wireless terminal that carries out communication by a wireless circuit includes information acquisition means, transmission means, and transmission control means. The information acquisition means measures the communication quality of the wireless circuit. The transmission control means issues an instruction to the transmission means to transmit area quality information when basic transmission trigger conditions that have been determined in advance as time information are satisfied and when additional transmission trigger conditions are satisfied that have been determined that correspond to the state of the wireless terminal such that battery consumption is reduced. Upon receiving the instruction, the transmission means transmits area quality information that includes the communication quality that was measured by the information acquisition means.

Abstract: In an exemplary method, a geographic location of a mobile device is determined, a premises area map associated with the geographic location is identified, and data representative of the premises area map is provided to the mobile device over a network. In certain embodiments, data representative of a plurality of premises area maps is received from a plurality of premises area map providers, the data representative of the plurality of premises area maps is stored, and the geographic location is used to select the premises area map from the plurality of premises area maps. In certain embodiments, the premises area map is displayed and graphically represents at least a portion of a premises area. In certain embodiments, the premises area map is configured to illustrate a position of the mobile device within the premises area.

Abstract: A method of cellular wireless communication. The method comprises identifying a traffic channel congestion condition in a radio access network and transmitting information about the traffic channel congestion to at least one mobile phone via a control channel.

Abstract: A method for identifying at least one terminal for which signals transferred between the at least one terminal and a base station of a wireless cellular telecommunication network have to be relayed by a relay, the base station providing a random access channel enabling a terminal to notify to the base station the presence of the terminal by transferring a random access signal to the base station. The relay device transfers the random access signal to the base station, receives the list, identifies, from the received list, at least one terminal for which signals transferred between the at least one identified terminal and the base station have to be relayed by the relay, and relays signals between the at least one identified terminal and the base station.

Abstract: There is provided a method and system for optimizing delivery of data to a mobile device over a network. According to one embodiment, the invention includes a communication stack, such as a TCP/IP stack, which includes an application protocol interface (API) between an application layer and a transport layer. According to this embodiment, the method includes receiving delivery optimization information; determining the priority of the data using the delivery optimization information; providing the priority of the data to a physical layer in the communication stack; and delivering the data to the mobile device based on the priority.