Abstract: A communication device and method for controlling reverse link transmissions. The device receives a broadcast transmission signal and determines a quality level of the broadcast transmission signal. It then communicates with the base station to establish how frequently reverse link transmissions will occur depending on the determined quality level. Alternatively, a network element can determining when a parameter crosses a threshold and transmit a message to select wireless communication devices to start gating on a reverse link when the parameter crosses the threshold.

Abstract: An electronic device is operable to display images on a display screen of the device's display. The images include at least one icon and at least one image to be used as a background setting for the display screen. The electronic device includes the display, at least one storage device, and a processing unit. The storage device(s) digitally stores the images and operating instructions for displaying the images. The processing device is operable in accordance with the operating instructions to: retrieve the images from the storage device, determine at least one portion of the background setting that is of higher importance than a remainder of the background setting to produce at least one high importance portion of the background setting, and instruct the display to display the background setting and the icons on the display screen such that the high importance portion(s) of the background setting is viewable.

Abstract: A pilot transmission scheme is presented where during a first OFDM symbol period a first pilot sequence is transmitted over a first multiple sub-carriers on a first group of antennas. During a second OFDM symbol period, a second pilot sequence is transmitted over a second multiple sub-carriers on a second group of antennas. The first and the second groups of antennas only transmit one pilot sequence every subframe of M OFDM symbol periods.

Abstract: A method and scheduler are provided that optimize utilization of an uplink (UL) data packet field of an UL sub-frame. In one embodiment, a request for an allocation of bandwidth is received from each of multiple mobile stations. The requests include requests for a bandwidth allocation of a first size range and requests for a bandwidth allocation of a second size range, wherein each request of the second size range requests more bandwidth than any request of the first size range. Bandwidth is allocated in a UL data packet field to the requests in order of priority, and when the allocated bandwidth does not fill the UL data packet field and a request of the second size range remains unallocated, an allocation of bandwidth to an unallocated request of the second size range is substituted for an allocation of bandwidth to a request of the first size range.

Abstract: Disclosed are devices and methods of a communication device including initiating an initial communication via a modem in response to a data pull communication event or a data push communication event and determining by the controller a measured network condition associated with transmitting the initial communication as well as determining by the controller the power consumption of the initial communication based on a measured network condition value processed by monitoring the modem. Methods of a communication device further include comparing the power consumption value with a predetermined power consumption value stored in the memory related to a predetermined acceptable measured network condition value for this type of communication event, and terminating by the controller, the communication when the power consumption value exceeds the predetermined power consumption value based upon the acceptable measured network condition value for this type of communication event.

Abstract: A method and system configures operating parameters associated with an operation of a connected accessory or second device in order to mitigate harmonic interference within an operating frequency band of a wireless communication device (WCD). In response to a connection between the WCD and the second device via a physical communications interface, Accessory Authentication and Configuration (AAC) logic of the WCD receives device identifying information about the second device. The AAC logic determines candidate values for each operating parameter, based on the device identifying information. The AAC logic dynamically selects a particular candidate value for each operating parameter, based on a current operating frequency band of the WCD, and an expected level of harmonic interference.

Abstract: A method, information processing system, and wireless device provide authentication information to a network. The method includes determining that at least one authentication context (120) resides in memory (412). The at least one authentication context (120) is analyzed to determine if at least one realm identifier associated with a home service provider is included in the at least one authentication context (120). A user is prompted to update the at least one authentication context (120) with at least one realm identifier associated with a home service provider in response to determining that at least one realm identifier fails to be included in the at least one authentication context (120). At least one realm identifier is received (612) from a user that is associated with a home service provider. The at least one authentication context (120) is updated with the at least one realm identifier received from the user.

Abstract: A multimedia device and a method embodied in the multimedia device for providing access to media content from a plurality of media content are provided. The multimedia device includes a user interface (UI) with one or more UI controls, a processor, and an output device. The UI controls receive a first set of parameter values from the user, in order to select media content. The processor creates a first list of media content based on a first probabilistic distribution over the plurality of media content. The output device provides access to the media content of the first list of media content to the user. Further, the UI may receive a second set of parameter values, and a second list of media content is then created, based on a second probabilistic distribution. The output device provides access to the media content of the second list of media content to the user.

Abstract: An OFDMA communication system is provided that schedules partial usage of subchannels (PUSC) major groups by assigning a beam matrix of a plurality of beam matrices to each major group of multiple PUSC major groups, receiving an uplink signal from each user equipment of multiple users equipment, which uplink signal provides an indication of a channel response associated with the user equipment, determining, for each user equipment of the multiple users equipment and based on the indication of channel quality received from the user equipment, a beam matrix and major group to which to assign the user equipment, and based on the determination of a beam matrix and major group to which to assign each user equipment of the multiple users equipment, assigning two or more users equipment of the multiple users equipment to a same beam matrix and major group during a same time slot.

Abstract: A method for triggering a group of one or more detached wireless communication devices (122) to attach to a wireless communications network (101) for enabling data communications is disclosed. A trigger request message including a group identifier, size information for the group, and location information for the one or more wireless communication devices (122) is received (302) at the network (101). Based on this information, the network (101) determines (304) a delay time period during which the one or more wireless communication devices (122) are to transmit an access request message to the network (101) when triggered to attach to the network. The delay time period is based on the size of the group. During a trigger period, the delay time period and group identifier is transmitted (306) to the one or more wireless communication devices (122) in a trigger message. A wireless communication device (122) is also described.

Abstract: A method and apparatus for detecting the presence of a signal in a frequency band using non-uniform sampling includes an analog to digital converter (ADC) (110) for sampling an analog input signal (105) to create discrete signal samples (115), an ADC exciter (120) for exciting the ADC to sample at non-uniform time periods, a digital filter (130) for converting the discrete signal samples into an energy versus frequency spectrum (300), and an energy comparator (140) coupled to an output of the digital filter. The energy comparator (140) detects the presence of any frequency bands exceeding an energy setpoint.

Abstract: A method and apparatus for performing resource allocation with lower required overhead is provided herein. Resource allocations for data transmissions are chosen in such a way as to provide channel quality information for various parts of the channel bandwidth (frequency selective channel quality information), such as allocating two different resource blocks (on different sets of subcarriers) to a mobile unit for two different transmissions. These data transmissions are used to estimate frequency selective channel quality information, thereby eliminating or greatly reducing the need for channel sounding with a broadband pilot. As a result, the overhead on the uplink of the communication system may be significantly reduced.

Abstract: A method and apparatus for service continuity on a mobile communication device is disclosed. The method can include receiving (320) a first service on a first carrier, where the first service can have a multicast subframe allocation pattern. The method can include establishing (340) a connection on a second carrier on a universal mobile telecommunication system. The method can include informing (350) a source of the second carrier of the multicast subframe allocation pattern of the first service. The method can include receiving (360) scheduling grants for subframes on the second carrier. The subframes corresponding to the received scheduling grants can be distinct from subframes corresponding to the multicast subframe allocation pattern of the first service. The method can include receiving (370) a second service on the second carrier based on the scheduling grants while receiving the first service on the first carrier.

Abstract: A method of authentication and authorization over a communication system is provided. The method performs a first authentication of a device based on a set of device identity and credentials. The first authentication includes creation of a first set of keying material. The method also includes performing a second authentication of a subscriber based on a set of subscriber identity and credentials. The second authentication includes creation of a second set of keying material. A set of compound key material is created with a key derivation mechanism that uses the first set of keying material and the second set of keying material. A binding token is created by cryptographically signing at least the device identity authenticated in the first authentication and the subscriber identity authenticated in the second authentication using the set of compound keying material. The signed binding token is exchanged for verification with an authenticating and authorizing party.

Abstract: A method and apparatus mechanically couple portable communication devices. The apparatus can include a first shaft having a first shaft longitudinal axis, a first shaft length along the first shaft longitudinal axis, a first shaft end, and a second shaft end. The apparatus can include a first portable communication device having a first housing coupled to the first shaft end where the first housing rotates about an axis perpendicular to the first shaft longitudinal axis, the first housing having a first housing width. The apparatus can include a second portable communication device that can have a second portable communication device communication signal interface configured to communicate with a first portable communication device communication signal interface and can have a second housing that rotates about an axis perpendicular to the first shaft longitudinal axis. The first shaft length can be at least as long as the first housing width.

Abstract: A mobile communication device (102) includes both a wide area network (WAN) radio modem (122), and a personal area network (PAN) radio modem (134), which operate on similar frequencies. When the both the WAN and PAN modems are operating and carrying time-sensitive data, the WAN modem disables transmission by the PAN modem when the WAN modem is due to receive data from a WAN base station (406), including neighbor scans. The duration and frequency of disabling the PAN modem is controlled so that the retransmission is successful.

Abstract: A method, system, and base station for deterministically selecting a downlink transmission mode and rank in a Long Term Evolution (LTE) configured wireless communication system. The Transmission Mode Selection (TMS) utility receives from a wireless device a request for downlink physical downlink shared channel (PDSCH) service using a particular transmission mode and specific rank. The TMS utility determines an estimate of the throughput corresponding to the request. In addition, the TMS utility obtains throughput estimates of other distinct pairings of transmission mode and rank to compare with the throughput estimate corresponding to the request. The TMS utility utilizes device feedback information and HARQ error information that are already existing/available in order to determine the best transmission mode and rank pair, according to the best Error-Adjusted-Throughput.

Abstract: A method (300) and apparatus (200) that mitigates downlink control channel interference is disclosed. The method can include receiving (320) a transmission from a network entity and determining (330) a first timing offset to transmit a downlink subframe based on the transmission received from the network entity. The method can include receiving (340) an uplink transmission from a mobile terminal and determining (350) a second timing offset based on the first timing offset and based on the received uplink transmission. The method can include transmitting (360) a timing advance command to the mobile terminal, the timing advance command including the second timing offset.