Abstract: Disclosed are a wireless communication method, a wireless communication base station device, and a wireless communication terminal device that dynamically switch the transmission slot of an SRS of each terminal within a cell while suppressing an increase in the number of signaling bits. A terminal (100) and a base station (200) are each provided with a table wherein FH flags for SRS and transmission power data of each slot are mapped to two-bit notification bits. In this table, transmission power data indicating SRS transmission by slot 1 and slot 2 and FH flags are mapped, and an FH flag is not mapped to transmission power data indicating SRS transmission by slot 1 or slot 2. The base station (200) notifies the terminal (100) of the FH flag data and the SRS transmission power data by means of transmitting scheduling data containing the notification bits to the terminal (100).

Abstract: Aspects disclosed herein relate to effectively handling failure and retry mechanisms during pre-registration for an eHRPD optimized handover. In one example, a UE may be equipped to detect one or more instances of failure during a pre-registration procedure as part of an optimized handover process. The UE may further be equipped to perform one or more pre-registration retry processes based on the detected one or more instances of failure. In one aspect, the one or more instances of failure may include any combination of a permanent LTE connection failure, a temporary LTE connection failure, a session negotiation failure, a virtual connection failure when bringing up a data call, a link control protocol (LCP) failure, etc.

Abstract: Methods, apparatus and systems for improved performance and energy efficiency of software-based routers. A software router running on a host computer system employing multiple Network Interface Controllers (NICs) maintains a routing table wherein packet flows are classified as managed flows (MFs) under which packets are received at and forwarded from the same NIC and unmanaged flows UFs under which packets are received at and forwarded from different NICs. Forwarding table data is employed by a NIC to facilitate packet identification and flow classification operations under which the NIC determines whether a received packet is an MF, UF, or an unclassified flow. Under various schemes, packet forwarding for MFs is handled by the software router architecture such that either only the packet header is copied into memory in the host or the entire packet forwarding is handled by the NIC.

Abstract: The teachings herein disclose methods and apparatuses for automatically binding external identifiers to service provider network identifiers. The external identifiers are allocated by an access network for use by a service provider network in identifying given wireless devices to the access network, where the service provider network is external to the access network. The service provider network identifiers are used to identify those same wireless devices within the service provider network, with respect to one or more services. The binding thus enables the service provider network to trigger communications with a targeted wireless device via the access network, by using the external identifier that is bound to the service provider network identifier of the targeted device, and sending trigger signaling to the access network that identifies the targeted wireless device via the external identifier.

Abstract: In one embodiment, the present invention includes a method for determining whether a packet received in an input/output (I/O) circuit of a node is destined for the node and if so, providing the packet to an egress queue of the I/O circuit and determining whether one or more packets are present in an ingress queue of the I/O circuit and if so, providing a selected packet to a first or second output register according to a global schedule that is independent of traffic flow. Other embodiments are described and claimed.

Abstract: The invention comprises adjustment of back-off timers to provide consistency of timing in a group of collaborating nodes. The invention facilitates optimizing access to a wireless medium in a communication network accessible by a plurality of nodes, each node implementing a back-off counting based on carrier sense multiple access with collision avoidance, the plurality of nodes comprising a collaborative group of nodes further implementing a back-off allocation scheme based on each node maintaining a list of expected back-off values of the other nodes of the collaborative group, the group further comprising a receiving node and an emitting node, reception of information from the emitting node being utilized by the receiving node to maintain consistency of timing through adjustment of back-off values.

Abstract: A control information transmission apparatus which can reduce the interference power of the control signal of the terminal connected to the femtocell is provided. The control information transmission apparatus comprises an arrangement unit that arranges some or all of control signals for a terminal in an extension part among resources including a compatible part and the extension part; and a transmission unit that transmits some or all of the arranged control signals for the terminal.

Abstract: A method is implemented by a network device in a network having a plurality of nodes. The method computes a remote loop free alternative (RLFA) next hop as a backup for a primary path next hop. The method improves RLFA computation efficiency for a Q-Space list of nodes in a Q-space for an endpoint node by reducing calculations of the loop free condition for a path from a source node to a destination node via a tunnel between the source node and the endpoint node. The method includes adding a neighbor node to a poison list where the candidate node is in the poison list and the neighbor node is not in the candidate list, the poison list indicating that a node is not a candidate for Q-Space, and determining the Q-Space list by removing nodes from poison list from the plurality of nodes.

Abstract: The present invention discloses a method for controlling wireless network devices, which includes the following steps: a control device with a wireless network function is utilized to scan several access-point (AP) mode wireless network devices. One of the AP mode wireless network devices is selected as a master AP according to the scanning result. The at least one AP mode wireless network device other than the selected one is set to a client mode. The at least one wireless network device set to the client mode builds a connection to the control device with a wireless network function through the master AP. The present invention also discloses a control device with a wireless network function.

Abstract: The present disclosure provides an uplink intra-frequency load balancing method. The uplink intra-frequency load balancing can be performed by adjusting a beam direction of a User Equipment UE. For each of UEs, the method comprises steps of: determining a cell load level of each cell based on an uplink load measurement received from base stations of a plurality of cells; determining a beam-forming capability of the UE based on a beam-forming gain of the UE; and calculating a cell balancing parameter for each of the plurality of cells, according to a common pilot channel CPICH quality report measured by the UE, the cell load levels of the plurality of cells and the beam-forming capability of the UE, so as to determine a beam-forming control cell towards which the beam direction of the UE is directed, the beam-forming control cell being a cell which has an optimal cell balancing parameter among the plurality of cells.

Abstract: An antenna system connected to a radio in a Multiple-Input, Multiple-Output (MIMO) arrangement and configured to communicate in an area of coverage. The antenna system includes a plurality of antenna elements. The plurality of antenna elements further includes a first plurality of antenna elements configured to communicate on a first frequency band and a second plurality of antenna elements configured to communicate on a second frequency band. A plurality of MIMO-configured radio ports on the radio communicates radio signals to and from the antenna elements. A beam-forming network is connected to at least two of the first plurality of antenna elements and to at least two radio ports. The beam-forming network is configured to form space diversity beams in the area of coverage.

Abstract: Techniques are provided for distributing a fabric name to switching elements of a distributed switch configured to forward Fibre Channel over Ethernet (FCoE) frames. A distributed switch membership distributed (DMFD) message is transmitted that includes names of all switching elements in the distributed switch, and further includes a fabric descriptor that contains the fabric name.

Abstract: Techniques are provided for distributing a fabric name to switching elements of a distributed switch configured to forward Fibre Channel over Ethernet (FCoE) frames. A distributed switch membership distributed (DMFD) message is transmitted that includes names of all switching elements in the distributed switch, and further includes a fabric descriptor that contains the fabric name.

Abstract: Systems and methods for communicating data within mesh networks are provided. According to one implementation, a data communication node comprises a radio frequency (RF) driver configured to transmit RF signals to and receive RF signals from a remote device via an antenna. The node further comprises a timing device configured to establish a plurality of sequential time periods having start times and end times in synchronization with corresponding time periods of the remote device. The node also includes a memory device configured to store a frequency channel table listing a predetermined sequence of channels, the table also being stored in the remote device. Furthermore, the node comprises a transmitting module configured to forward information related to a data packet to the RF driver for transmission over a channel of the predetermined sequence of channels to the remote device during a first of the plurality of sequential time periods.

Abstract: In one embodiment, an apparatus includes a memory, a communications interface and a processor. The processor is operatively coupled to the memory and the communications interface. The processor is configured to receive, at a first time, a label identifier associated with an aggregated link within the communications network via the communications interface. The aggregated link including a plurality of redundant links. The processor is configured to receive, at a second time after the first time, a data packet including the label identifier via the communications interface. The processor is configured to send at least a portion of the data packet via a first link separate from the aggregated link based on the label identifier. The processor is configured to not send the data packet via a link from the plurality of redundant links of the aggregated link based on the label identifier.

Abstract: A method and device for determining a number of fast feedback channel (FFBCH) in a wireless communication system supporting a first and second wireless communication scheme. The method includes determining the number of FFBCH (NFFB) in an uplink subframe by using the following equation: NFFB=Nfb×NFB?k×NHFB/6. Here, Nfb=3 or 4, NFB is a number of distributed logical resource units in the uplink subframe reserved for feedback channels, k is a value determined according to a ratio of a number of downlink subframes to a number of uplink subframes in a frame, and NHFB is a value defined in a secondary superframe header sub-packet 1 information element.

Abstract: Systems and methods for providing load based optimizations in communication networks are provided. A network device that provides network management and exchanges control messages with other network devices in the communication network can be modified to masquerade as a radio access transceiver to obtain radio access transceiver load information. The network device can be modified to include a radio-related interface and can communicate messages with the radio access transceivers to setup a radio access transceiver connection for exchange of load information. The radio access transceiver load information can then be used in the core network to provide optimizations for the loaded radio access transceivers. The optimizations can include modifying packet flows to decrease the bandwidth needed and switching one or more packet flows to another radio access transceiver.

Abstract: A method for steering packets, including receiving a packet and determining parameters to be used in steering the packet to a specific destination, in one or more initial steering stages, based on one or more packet specific attributes. The method further includes determining an identity of the specific destination of the packet in one or more subsequent steering stages, governed by the parameters determined in the one or more initial stages and one or more packet specific attributes, and forwarding the packet to the determined specific destination.

Abstract: A first wireless device communicates data to a second wireless device. The first wireless device employs at least one of a first interleaving scheme and a first sub-carrier mapping scheme to produce a first data packet from a first plurality of data bits, and transmits the first data packet to the second wireless device. When the first data packet is not received correctly by the second wireless device, then the first wireless device employs at least one of a second interleaving scheme and a second sub-carrier mapping scheme to create a second data packet from the first plurality of data bits, and transmits the second data packet to the second wireless device.

Abstract: A wireless device receives messages comprising parameters of carriers and carrier groups. Downlink transmissions on a first carrier and at least one second carrier are substantially time aligned with each other. The wireless device receives time alignment commands comprising a time adjustment value and an index identifying a carrier group. Uplink transmissions on a first carrier group and a second carrier group employ different synchronization signals on different carriers as timing reference and are adjusted in response to different time alignment commands.