Abstract: A method and apparatus are used to generate radio link control (RLC) protocol data units (PDUs). A data request for a logical channel is received as part of an enhanced dedicated channel (E-DCH) transport format combination (E-TFC) selection procedure in a medium access control (MAC). Upon determining the data field size, an RLC PDU is generated such that it matches the requested data from the E-TFC selection. The size of the RLC PDU generated can be greater than or equal to the minimum configured RLC PDU size (if data is available) and less than or equal to the maximum RLC PDU size. The data is then transmitted in the RLC PDU in a current transmission time interval (TTI).

Abstract: The present disclosure discloses a network device and/or method for computing coverage set and resource allocations in wireless networks. The disclosed network device receives a radio frequency subdomain and a coverage set for the radio frequency subdomain in a wireless network. Furthermore, the disclosed network device selects a capacity mode or a coverage mode as an operating mode of the radio frequency subdomain in response to a measure of network activity satisfying a predetermined condition. In addition, the disclosed network device performs radio resource management in the radio frequency subdomain based on the selected operating mode.

Abstract: An apparatus comprising a chip comprising a plurality of nodes, wherein a first node from among the plurality of nodes is configured to receive a first flit comprising a first timestamp, receive a second flit comprising a second timestamp, determine whether the first flit is older than the second flit based on the first timestamp and the second timestamp, transmit the first flit before the second flit if the first flit is older than the second flit, and transmit the second flit before the first flit if the first flit is not older than the second flit.

Abstract: The present disclosure discloses a method and system for transmitting downlink control information, for solving the problem of how to indicate a transmission scheme when a cyclic redundancy check code in the downlink control channel is scrambled with the semi-persistently scheduled cell radio network temporary identifier. In order to support the bi-flow beam forming technology in the LTE-A R9, the present disclosure provides a downlink control information Format 1A, which may, when the cyclic redundancy check code in the downlink control channel is scrambled with the semi-persistently scheduled cell radio network temporary identifier, indicates a method for transmitting downlink control information, for example, single-layer transmission, transmit diversity, or a transmission scheme simultaneously involving single-layer transmission and transmit diversity, which guarantees flexibility of system schedule. The present disclosure adds no signaling overhead and has good adaptability with the LTE R8.

Abstract: The present disclosure discloses a network device and/or method for computing coverage set and resource allocations in wireless networks. The disclosed network device selects a radio frequency subdomain in a wireless network, and further determines a coverage set for the selected radio frequency subdomain. The coverage set includes a subset of access nodes in the selected radio frequency domain. Moreover, a respective access node in the radio frequency subdomain satisfies one of (a) the respective access node is a member of the coverage set, and (b) the respective access node is covered by at least one member of the coverage set with a signal strength stronger than a predetermined threshold.

Abstract: A multi-blocks radio access method is provided and includes the following steps. A plurality of resource blocks are grouped into a plurality of groups. One resource block is respectively selected from the groups to form a plurality of resource block sets. Data to be accessed are transmitted in corresponding one of the resource block sets. A code division multiplexing code sequence is determined for the corresponding one of the resource block sets according to at least one of a plurality of parameters. Encoding or decoding operations are performed on the data to be accessed according to the corresponding one of the resource block sets and the corresponding code division multiplexing code sequence. The encoded or decoded data is accessed. A transmitter module and a receiver module using the foregoing method are also provided.

Abstract: A gateway having at least one communications interface and processing circuitry establishes communications with at least one service provider device and at least one serviced client device. The gateway then determines that a serviced client device is to establish an Internet browsing session. Based upon characteristics of the serviced client device, the gateway determines where to instantiate a web browser to service the Internet browsing session. Based upon the determination, in a first operation, instantiates the web browser to service the Internet browsing session at the gateway or client device. In a second operation, the gateway instantiates the web browser to service the Internet browsing session at a service provider server. In other operations, the gateway may determine to instantiate a browser for a first client device at a cloud server and to instantiate a browser for a second client device either locally or at the second client device.

Abstract: Systems and methods are disclosed for graph-based distributed parameter coordination in a communication network. In general, discrete local parameters to be coordinated among communication nodes in the communication network and their respective performance metrics, or costs, are modeled using a factor graph. Based on the factor graph, a variant of the sum-product algorithm, namely the min-sum algorithm, is applied in order for the communication nodes, through iterative message passing with their neighboring communication nodes, to decide upon optimal values for the local parameters for the communication nodes that collectively optimize a global performance metric across the communication network. In one embodiment, the communication network is a wireless communication network. In one specific embodiment, the wireless communication network is a cellular communication network.

Abstract: A technique for controlling transceiving operations of a transceiver device in a wireless communication network is described. A method implementation of this technique comprises the following steps performed by the transceiver device: determining a temporal mismatch between DTX characteristics and DRX characteristics of the transceiver device; and adjusting at least one of the DTX characteristics and the DRX characteristics such that DTX pauses become essentially aligned with DRX pauses. During the overlapping inactivity periods of the DTX pauses and the DRX pauses power management measures may be initiated by the transceiver device.

Abstract: A distributed Fiber Channel over Ethernet (FCoE) Forwarder (FCF) and a distributed Fiber Channel Switch are described. The Distributed FCF is realized by instantiating respective connections between at least one Controlling FCF and a plurality of FCoE Data-Plane Forwarder (FDF) devices and between individual FDF devices. The Distributed FC Switch is realized by instantiating respective connections between at least one Controlling Switch and a plurality of FC Data-Plane Forwarder (FCDF) devices and between individual FCDF devices. The components of the distributed FCF or Switch are collectively represented by a single Domain identifier (Domain_ID), and thus the distributed FCF or Switch appears to outside entities as a non-distributed FCF or Switch.

Abstract: In one embodiment, a border node between a reactive routing network and a proactive routing network may receive an inter-domain route request (RREQ) from a requestor for a destination, and determines whether it knows the destination. In response to knowing the destination, the border node responds to the requestor. However, in response to not knowing the destination at the border node, when the border node is ingressing the inter-domain RREQ into the proactive routing network, it sends the inter-domain RREQ to each other border node of the proactive routing network. Alternatively, when the border node is ingressing the inter-domain RREQ into the reactive routing network, it sends the inter-domain RREQ into the reactive routing network.

Abstract: A wireless base station includes a first receiving section which receives data from a plurality of terminals positioned within a wireless area in which data communication with a processing section on a network is performed by the wireless base station via a core network, a multiplexing controller which shares, with the processing section, first identification information allocated to a group and second identification information allocated to each of a plurality of member terminals constituting the group, and controls to determine whether a terminal serving as a source of the received data is a member terminal belonging to the group, based on the second identification information, and to multiplex, of the received data from the plurality of terminals, data from the terminal determined to be the member terminal belonging to the group, based on the first identification information, and a first sending section sends the multiplexed data to the core network.

Abstract: Aspects of a method and system for network communications via a configurable multi-use Ethernet PHY are provided. In this regard, an Ethernet PHY may be configured based on characteristics of a network link over which the Ethernet PHY communicates, and a rate at which data is conveyed from a MAC to the Ethernet PHY may be controlled via a carrier sense signal of the MII. The carrier sense signal may be controlled based on a rate at which the Ethernet PHY transmits data over the network link. The Ethernet PHY may be configured based on a length of the network link and/or on a grade of the network link, where exemplary grades may comprise Cat-1 through Cat-7a cable. The Ethernet PHY may be configured into one of a plurality of modes comprising an Ethernet over digital subscriber line (DSL) mode, an extended reach mode, and a standard Ethernet mode.

Abstract: Embodiments of computer-implemented methods, systems, computing devices, and computer-readable media are described herein for opportunistically transitioning service flows of mobile devices between being direct and indirect. In various embodiments, a proximity between first and second mobile devices that are in wireless communication with each other may be monitored. In various embodiments, a selective transition of a service flow between the first and second mobile devices from being indirect through the radio network access node using a first radio access technology (“RAT”) to being direct using a second RAT may be facilitated, e.g., responsive to a determination that a first criterion has been met. In various embodiments, a selective transition of the service flow from being direct using the second RAT to being indirect using the first RAT may be facilitated, e.g., responsive to a determination that a second criterion has been met.

Abstract: Encrypted peer-to-peer detection is provided. In some embodiments, encrypted peer-to-peer detection includes monitoring network traffic from a first client to determine whether the first client is executing a peer-to-peer application; and generating network traffic that emulates peer-to-peer network traffic sent from the peer-to-peer application executing on the first client to a second client after detecting unknown network traffic sent from the first client to the second client. In some embodiments, encrypted peer-to-peer detection includes monitoring network traffic from a client to determine that the client is sending a request for information for a peer-to-peer application executing on the client; and generating a network traffic response to the client that emulates peer-to-peer network traffic.

Abstract: Provided is a wireless communication system which includes a wireless communication unit using plural frequency bands and plural antennas. The system changes the transmission power of each antenna, based on the interference of each of the frequency bands from the neighbor base station along the antenna direction. The system estimates the number of antennas necessary for transmission in response to a user requirement, and determines a necessary antenna in accordance with the antenna direction in which the terminal is located, and further changes the transmission power of each antenna.

Abstract: Systems and method are disclosed for graph-based distributed parameter coordination in a communication network. In general, discrete local parameters to be coordinated among communication nodes in the network and their respective performance metrics, or costs, are modeled using a factor graph. Based on the factor graph, a variant of the sum-product algorithm, namely the min-sum algorithm, is applied in order for the communication nodes, through iterative message passing with their neighboring communication nodes, to decide upon optimal values for the local parameters for the communication nodes that collectively optimize a global performance metric across the communication network. In one embodiment, the communication network is a wireless communication network. In one specific embodiment, the wireless communication network is a cellular communication network.

Abstract: Techniques for discovering one or more nodes in a communication system are provided. A node may receive one or more discovery messages during a first occurrence of a periodic discovery interval. The node may determine a duration of a subsequent occurrence of the periodic discovery interval based on the one or more received discovery messages. The node may adjust the duration for the subsequent occurrence of the periodic discovery interval based on the determined duration.

Abstract: Network communications, Web-based services and customized services using the Web-based services may be provided over a peer-to-peer network from a first peer to a second peer (e.g., automobile head unit) wherein the first peer has a separate connection to a more general server-based network such as the Internet. A communications device application based on a peer communications framework component in communication with a peer network stack on the communications device may work as middleware, with a connection to both a more general server-based network such as the Internet and to an external device, such as a head unit of an automobile. Although the communications device has a separate connection out to the Internet via a general network stack co-existing on the same communications device, the peer network stack and the general network stack are not directly connected.

Abstract: A number of ports are configured in a linecard in a network device as dedicated ports and a remaining number of ports as shared ports. A total bandwidth allocated to the dedicated ports is computed. It is determined that available bandwidth at a central crossbar is greater than the total bandwidth allocated to the dedicated ports. The total data sent the central crossbar is rate limited to less than the available bandwidth at the central crossbar. First data associated with the dedicated ports is scheduled to the central crossbar using a first priority. Second data associated with the shared ports is scheduled using a second priority. A shared port data is scheduled based on a ration of a bandwidth requirement for the shared port as a fraction of overall bandwidth requirement for the shared ports.