Abstract: A system and method of increasing data throughput in a wireless communications network between a base station (BS) and one or more mobile stations (MS) includes establishing a service flow (SF) and initially enabling a hybrid automated repeat request (HARQ) protocol; determining, at a particular time, the measure of quality of the communications channel; comparing the determined measure of quality with a predetermined channel quality threshold; and selectively disabling the HARQ protocol based upon a first comparison result while continuing the SF between the BS and MS. In other aspects, after selectively disabling the HARQ protocol, the method further includes determining that the time-varying measure of quality of the communications channel has deteriorated below the predetermined channel quality threshold; and selectively re-enabling the HARQ protocol in the established SF.

Abstract: Systems and methods of operating multimode 3G/4G communications devices in an overlapping 3G/4G coverage area (e.g., WiMAX or LTE/CDMA EvDO) include determining if a number associated with temporarily-disabled sectors of an available sector set of the multimode device while the device is operational with a 3G base station is at least equal to a threshold number. If the number is at least equal to the threshold number, a scan for a sector in the 4G network to handover the operation of the multimode device from the 3G base station associated with the 3G coverage to a 4G base station associated with the 4G coverage is initiated. A scan for a fixed period of time for a new available sector in the 3G network to be added in the available sector set may be initiated; and, if a new available sector is added to the sector set, it may be redetermined if the number associated with the temporarily-disabled sectors is at least equal to the threshold number, before initiating the scan for a sector in the 4G network.

Abstract: A method, system, and computer-readable media are provided for writing provisioning parameters to a device. In a first aspect, a set of computer-readable media provide a method that includes receiving a request for access onto a communication network from a device. Attributes about the device are retrieved from a first database that details the capabilities of the device. One of the attributes may identify the device a being capable of being provisioned via Open Mobile Alliance protocol, wherein the first database sends a request to a second database to retrieve a tree structure of the device. The tree structure is populated with one or more provisioning parameters, and the populated tree structure is written to the device.

Abstract: Systems, methods and media are provided for presenting a group of available broadcast channels utilizing a wireless network upon initiation of a channel-viewing graphical user interface (GUI). The group comprises channels that can be broadcast most efficiently to the mobile device. After initiating the channel-viewing GUI on the mobile device, requests are communicated to elements on the network to retrieve lists of currently broadcast channels in the area and currently viewed channels throughout the wireless network. A list also is retrieved of recently viewed channels on the mobile device. At least a portion of each list is then presented on the channel-viewing GUI. The lists can be sent by a first video media proxy (VMP) server and a broadcast management server (BMS).

Abstract: A multiple device to one-antenna combining circuit for transferring wireless communication signals from a first and second wireless communication device connected to a donor antenna is described. The circuit comprises a first single-stage circulator configured to be coupled to a transmission-reception path of the first wireless communications device; a two-stage circulator coupled to the first single-stage circulator and configured to be coupled a transmission-reception path of the second wireless communications device; a two-way splitter coupled to the two-stage circulator and configured to be coupled a transmission-reception path of the donor antenna; and a second single-stage circulator coupled between the two-way splitter and the first single stage circulator. The wireless transmissions of the first wireless communications device travel from the first signal stage circulator to the two-stage circulator to the two-way splitter to the donor antenna. The first wireless device can be a repeater.

Abstract: Disclosed herein is a method for selecting coverage areas as candidates for a handoff, and in particular, for a bidirectional handoff. An exemplary method may involve (a) engaging in a communication session via an access network, wherein an uplink connection is provided for uplink traffic in the communication session and a downlink connection is provided for downlink traffic in the communication session; (b) determining uplink-resource demand and downlink-resource demand of the communication session; (c) using the uplink-resource demand of the communication session as a basis for selecting one or more coverage areas in the access network as candidates for an uplink handoff of the uplink connection; and (d) using the downlink-resource demand of the communication session as a basis for selecting one or more coverage areas in the access network as candidates for a downlink handoff of the downlink connection.

Abstract: A first plurality of wireless devices associated with a wireless network element is communicated with using a first multi-antenna mode. There is a first number of the first plurality of wireless devices. A second plurality of wireless devices associated with the wireless network element is communicated with using a second multi-antenna mode. There is a second number of the second plurality of wireless devices. A request for traffic resources is received from a wireless device associated with the wireless network element. In response to the request for traffic resources, the request for traffic resources is granted based on whether the first number satisfies a first criteria and whether the second number satisfies a second criteria.

Abstract: First and second indicators that indicate the availability of an air link resource are received from a first base station and second base station, respectively, that are in communication with a wireless device. A third indicator and a fourth indicator that indicate the availability of an access network resource are received from the first base station and the second base station, respectively. A core network resource indicator is received. The first base station is selected based on the first indicator, the second indicator, the third indicator, and the fourth indicator. A path resource indicator is determined based on the first indicator, the third indicator, and the core network resource indicator. The path resource indicator is communicated to the wireless device. A response to the path resource indicator is received from the wireless device.

Abstract: A method of operating a communication system is disclosed. A location associated with a first wireless device is received. For a first frequency band, a first stored signal quality indicator associated with the location is received. For a second frequency band, a second stored signal quality indicator associated with the location is received. Based on the first stored signal quality indicator and the second stored signal quality indicator, the first frequency band is selected.

Abstract: Systems and methods of information transmission are provided. An endpoint receiving packets with non-voice information transmits negative and positive acknowledgements over a dedicated channel in an uplink subframe. When the endpoint receives packets with voice information, the endpoint transmits negative acknowledgements over a shared channel, but does not transmit positive acknowledgements.

Abstract: A method of assigning parameter values to transceivers in a wireless communication network. Each of the parameter values assigned determines at least in part how a plurality of subcarriers are organized into a plurality of sub-channels. In particular embodiments, the method assigns the parameter values to the transceivers based on correlations between the sub-channels determined by the parameter values, distances between the transceivers, and loads experienced by the transceivers. After the parameter values are assigned to the transceivers, each of the transceivers is configured to transmit on the sub-channels determined at least in part by the parameter value assigned to the transceiver.

Abstract: Systems, methods, and software are provided to manage a handover of a mobile communication device from a source base station to a target base station. In an embodiment, a method comprises exchanging wireless communications between a plurality of mobile communication devices and a first base station system, processing the communications to determine a plurality of mobility profiles associated with the plurality of mobile communication devices served by the first base station system. A handover request to handover a mobile communication device from a second base station system to the first base station system is received. The plurality of mobility profiles are processed to select a candidate mobile communication device from the plurality of mobile communication devices. A handover of the candidate mobile communication device is initiated from the first base station system to a target base station system.

Abstract: The present invention relates to systems and methods for selectively pre-registering a data path for a mobile station. In an embodiment, a serving base station receives a mobile-originated handoff-request message from a mobile station, wherein the mobile-originated handoff-request message identifies one or more target base stations. The serving base station then responsively determines whether to instruct each respective target base station to pre-register a data path for the mobile station. The serving base station then sends a respective serving-to-target handoff-request message to each identified target base station, indicating whether the serving base station is instructing that target base station to pre-register a data path for the mobile station.

Abstract: A system and method of increasing data throughput in a wireless communications network between a base station (BS) and one or more mobile stations (MS) includes establishing a service flow (SF) and initially enabling a hybrid automated repeat request (HARQ) protocol; determining, at a particular time, the measure of quality of the communications channel; comparing the determined measure of quality with a predetermined channel quality threshold; and selectively disabling the HARQ protocol based upon a first comparison result while continuing the SF between the BS and MS. In other aspects, after selectively disabling the HARQ protocol, the method further includes determining that the time-varying measure of quality of the communications channel has deteriorated below the predetermined channel quality threshold; and selectively re-enabling the HARQ protocol in the established SF.

Abstract: A first wireless device associated with a first profile is communicated with using a first transmitted power. A second wireless device associated with a second profile is communicated with using a second transmitted power. A third transmitted power is determined. The third transmitted power is associated with the first wireless device receiving data using a target modulation and coding scheme. A maximum transmitted power is determined to be exceeded if the third transmitted power is used to communicate with the first wireless device. The second wireless device is communicated with using a fourth transmitted power. The fourth transmitted power allows the third transmitted power to be used to communicate with the first wireless device without exceeding the maximum transmitted power.

Abstract: A first wireless device associated with a first profile is communicated with using a first transmitted power. A second wireless device associated with a second profile is communicated with using a second transmitted power. A third transmitted power is determined. The third transmitted power is associated with the first wireless device receiving data using a target modulation and coding scheme. A maximum transmitted power is determined to be exceeded if the third transmitted power is used to communicate with the first wireless device. The second wireless device is communicated with using a fourth transmitted power. The fourth transmitted power allows the third transmitted power to be used to communicate with the first wireless device without exceeding the maximum transmitted power.

Abstract: A method, system and software to dynamically allocate bandwidth on an application flow basis in a non-Internet-Protocol Multimedia Subsystem (non-IMS) environment is described. The method includes: receiving a request to create an application flow for an Internet Protocol (IP) filter with desired Quality of Service (QoS) properties; searching for an access bearer that is comparable to the desired QoS properties; when a comparable access bearer is not found, creating the access bearer adapted to support the IP filter and the desired QoS properties; and associating the application flow with the access bearer.

Abstract: A media service controller controls how one or more base stations transmit media content from one or more media servers to mobile stations. The media service controller may control whether a mobile station receives media content via a unicast or a multicast connection, e.g., based on a predefined schedule and/or on whether other mobile stations served by the same base station are receiving the same media content. The media service controller may provide a content discovery service through which a first media server may determine whether other media servers are providing the same media content. The media service controller may facilitate changing a source of media content received by a mobile station, e.g., by changing the source from a first media server to a second media server when the mobile station moves from an area associated with the first media server to an area associated with the second media server.

Abstract: A system and method for adaptive control of an averaging parameter in a communications network may include an averaging parameter adaptive control module (APAC) that is associated with a base station and that includes one or more processors configured to generate a first averaging parameter that is transmitted by the base station to a mobile station communicating with the base station. The mobile station may use the first averaging parameter to generate first channel condition information that indicates a condition of a communication channel. First feedback information including the first channel condition information may be received at the base station. The APAC may generate a second averaging parameter using the first averaging parameter and the first feedback information and may transmit the second averaging parameter from the base station to the mobile station, thereby adaptively controlling the second averaging parameter based on the first feedback information.

Abstract: Methods and apparatuses for determining uplink receive signal path characteristics in a wireless communication system are disclosed. In one embodiment, a tower-top noise source (TTNS) is provided such that it is permanently affixed in close proximity to a receive antenna. The TTNS preferably has an output that includes a wideband noise signal having predetermined characteristics. The TTNS output is selectively connected to a receive signal path that includes a tower-top low-noise amplifier (TTLNA). An altered version of the wideband noise signal is received at the output of the receive signal path, and a characteristic of the altered wideband noise signal is measured.