Abstract: The disclosure provides a method 30 for sector selection performed in a communication system 1 providing wireless communication to a communication device. The communication system 1 is configured for shared cell deployment, the shared cell 9 comprising at least two sectors 2, 3, 4. The communication system (1) is configured for link adaptation of a radio link between the communication device and the shared cell 9. The method 30 comprises: selecting 31, for the communication device 5, a set of sectors 2, 3, 4 for use in downlink transmissions to the communication device 5; determining 32, for the communication device 5, a link adaptation parameter value relating to the link adaptation; adapting 33, for a link adaptation parameter value that is higher than a threshold value, the set of sectors by adding a sector. The disclosure provides corresponding system, computer program and computer program products.

Abstract: A network system that facilitates financial transactions. A software defined network may operate to provide a variety of trading related services to a variety of customers with a low latency. Core or processor affinity for routing processes may improve speeds of routing. Data capture through a shared memory space may allow for a variety of analytics without introducing unacceptable delay.

Abstract: Techniques for managing operation on a communication medium shared between Radio Access Technologies (RATs) are disclosed. The management may comprise, for example, monitoring the medium for first RAT signaling in accordance with a first RAT; determining a utilization metric associated with utilization of the medium by the first RAT signaling; cycling operation in accordance with a second RAT between activated periods and deactivated periods of communication over the medium in accordance with a Time Division Multiple Access (TDM) communication pattern based on the utilization metric; and periodically disabling the cycling to provide an AOS period of activated communication over the medium for operation in accordance with the second RAT, with the AOS period being longer than an individual activated period of the TDM communication pattern. The management may also comprise, for example, techniques for enabling/disabling monitoring by an access terminal in accordance with the TDM communication pattern.

Abstract: The present application provides a packet sending method and a network device. The packet sending method includes: receiving, by a network device, a first data packet; and if a MAC entry matching a destination MAC address of the first data packet is not found in a media access control MAC address table of the network device, sending, by the network device, the first data packet according to a forwarding behavior in a MAC default entry of the MAC address table. When the MAC entry matching the destination MAC address of the first data packet is not found, the network device does not need to flood the first data packet on all interfaces, but directly sends the first data packet according to the MAC default entry in the own MAC address table, thereby reducing a need for MAC address capacity in the network device, and not increasing unnecessary network traffic.

Abstract: Systems and methods for optimizing scanning from a multi-band communications device. A multi-band communications device scans for identifiers from one or more base stations. The multi-band communications device determines whether the received base station identifiers are associated with an access point (AP) on a list of APs. The multi-band communications device connects to the AP when the received base station identifiers are associated with the AP. The terms “base station” and “access point” encompass transmit and receive sites that provide communications using various technologies that may include Wi-Fi and cellular.

Abstract: Systems, methods, and media for implementing call handoff between networks are provided, in some embodiments, systems for implementing call handoff between networks are provided, the systems comprising: at least one device that: receives a call from a first endpoint; establishes a connection between the first endpoint and a conference; calls a second endpoint: establishes a connection between the second endpoint and the conference; and when one of the first endpoint and the second endpoint is able to be connected to a different network from a current network which the one of the first endpoint and the second endpoint is connected to the conference: establishes a connection between the conference and the one of the first endpoint and the second endpoint via the different network; and removes the connection via the current network between the one of the first endpoint and the second endpoint and the conference.

Abstract: The embodiment of the present document relates to an idle scheduling method and a home network node, wherein the method includes: a domain master node performing an idle scheduling on intra-domain ordinary nodes according to an idle scheduling policy; when the domain master node determines that all the intra-domain ordinary nodes are in a energy-saving mode according to the idle scheduling information of all the intra-domain ordinary nodes, the domain master node entering into the energy-saving mode, and when all the intra-domain ordinary nodes are in an idle state, the domain master node being in the idle state.

Abstract: A simulation and verification system and method. An interoperability server provides a communications hub for communications between communicating nodes. Nodes connected to a first protocol data bus communicate in a first protocol, e.g., a half-duplex bus protocol. Nodes connected to a second protocol data bus communicate in a second protocol, e.g., a full-duplex bus protocol. A time synchronization bus provides time-frames for synchronizing operation of connected nodes. Interceptors optionally intercept communications between nodes.

Abstract: Virtualization software that includes a VDRB (virtual distributed router/bridge) module for performing L3 routing and/or bridging operations is provided. At least some of the VDRBs are configured as VDBs (virtual distributed bridge) for performing bridging operations between different network segments in a distributed manner. The bridging tasks of a network are partitioned among several VDBs of the network based on MAC addresses. MAC addresses of VMs or other types of network nodes belonging to an overlay logical network are partitioned into several shards, each shard of MAC addresses assigned to a VDB in the network. Each VDB assigned a shard of MAC addresses performs bridging when it receives a packet bearing a MAC address belonging to its assigned shard. A VDB does not perform bridging on packets that do not have MAC address that falls within the VDB's shard of MAC addresses.

Abstract: A method and apparatus are provided for providing a multimedia broadcast/multicast service (MBMS) to a user equipment (UE) by a base station in a mobile communication system. The method includes transmitting, to a terminal, a first message including first information about a scheduling period and an offset; transmitting, to the terminal, control information notifying of a change of a second message; transmitting, to the terminal, the second message including second information about at least one multimedia broadcast/multicast service (MBMS), based on the first information about the scheduling period and the offset; and transmitting, to the terminal, data of the at least one MBMS. The second information about the at least one MBMS includes an identification of the at least one MBMS.

Abstract: A wireless communication device for packet communication is provided. Based on an interfering wave level that is stored in carrier sense table, the number of empty slots for every threshold of interfering wave is obtained, and, in a case where the number of empty slots for the threshold exceeds a predetermined value, a slave station is notified the number of empty slots.

Abstract: Certain aspects of the present disclosure provide techniques and apparatus for starting an extended idle interval in an effort to avoid collisions with transmissions from hidden wireless nodes. One example apparatus generally includes a receiver and a processing system. The receiver is typically configured to receive a multi-user (MU) transmission comprising at least one packet for the apparatus. The processing system is typically configured to determine a checksum of the at least one packet and to start an idle interval associated with the apparatus after receiving the MU transmission if the at least one packet comprises a frame check sequence (FCS) that corresponds to the checksum, wherein the idle interval includes at least enough time for transmission of an acknowledgment (ACK) frame. For certain aspects, the idle interval may comprise an extended interframe space (EIFS).

Abstract: System, methods, entities, and computer program for handling timers in a communication network are described. The communication network comprises a plurality of entities (100-108). The method in a first entity (100) comprises determining (301) whether a supervision condition for supervising a communication procedure is fulfilled. The method further comprises adding (308), based on a result of the step of determining the supervision condition (301), a timer validity information to a signaling message related to the communication procedure, and sending (308) the signaling message to a second entity (102). The method in a second entity (102-108) comprises receiving (400) a signaling message associated with a communication procedure, the signaling message containing a timer validity information.

Abstract: A communication apparatus functioning as a master device denies participation by new communication apparatuses in a network in communication parameter configuration mode based on participation statuses of communication apparatuses functioning as slave devices in the network. The communication apparatus functioning as a master device establishes the network in communication parameter configuration mode between the communication apparatuses participating in the network, and configures communication parameters.

Abstract: A method in a network node for selecting a beam candidate in a wireless communication network, including acquiring information including information indicative of signal qualities for multiple beam candidates; assigning to each of the multiple beam candidates a factor indicating signal interference generated by the corresponding beam candidate and selecting a beam candidate taking into account at least the associated signal quality and the factor assigned to the selected beam candidate.

Abstract: A first base station may perform a method for controlling handover of a terminal. The method may include setting a handover parameter that is determined based on a handover policy and transmitting a message including the handover parameter to the terminal. The handover parameter includes a service parameter. The service parameter is used when determining a handover condition of the terminal in order to induce handover from the first base station to the second base station according to the handover policy.

Abstract: Technologies for controlling operation of a compute node coupled to a computer network via a computing device that includes communications for communicating with the computer network and persistent instructions such as firmware for providing control functions to the computing device, wherein the control functions being defined at least in part by protocol data. An update control module of the computing device may receive update data from a remote node in the computer network via the communications, wherein the update data comprising new protocol data for the persistent instructions. A protocol parser module may parse the update data and generate metadata relating to the update data. A classifier module may receive rules for the control functions, wherein the rules are based at least in part on the update data and metadata. A compiler may compile the parsed update data to the persistent instructions for providing new control functions to the computing device based at least in part on the received rules.

Abstract: Wide area transport networks for mobile Radio Access Networks, and methods of use are provided herein. An exemplary wide area transport network may include a plurality of network segments that include at least one wireline network and at least one wireless network communicatively coupled with one another. Each of the plurality of network segments may be configured to transmit at least one of a plurality of signals communicated between a baseband module and a wireless transceiver.

Abstract: In some examples, a wireless device communicates in a communications session over a cellular network with a remote endpoint device. The wireless device detects a condition indicating potential loss of wireless connectivity or actual loss of wireless connectivity with the cellular network. In response to the detecting, communication with the remote endpoint device is transferred to a communication path including a service that supports asynchronous communications.

Abstract: A data packet structure conveys data of service data units (SDU) using protocol data units (PDU). The data packet structure includes a data packet payload having at least one protocol data unit (PDU). A protocol data unit (PDU) includes a service data unit (SDU) or a fragment of a service data unit and a data packet header including an indicator indicating whether or not the data packet payload begins with a protocol data unit (PDU) being a fragment of a service data unit and whether or not the data packet payload ends with a protocol data unit (PDU) being a fragment of a service data unit.