Abstract: At least one first control message (2011) indicative of the remote node (103) and of timing information (351, 352) is communicated between a network and a relay node (102). At least one second control message (2012) is communicated via a device-to-device, D2D, channel of the wireless link and between the relay node (102) and the remote node (103) in accordance with the timing information (351, 352). The at least one second control message is indicative of the network paging the remote node (103).

Abstract: Example implementation relates to a method for establishing a dynamic VPN tunnel between branch gateway devices based on metric data. A branch orchestrator receives metric data from VPNC device. The metric data includes data center bandwidth and processor utilization of the VPNC device. The metric data is derived from the traffic being routed via the VPNC device. When the metric data associated with traffic between a first branch gateway device and a second branch gateway device is above a Service Level Agreement (SLA), a dynamic branch to branch VPN tunnel is established to route the traffic between the first branch gateway device and the second branch gateway device. The VPN tunnel between the branch gateways can be teared when the load at the VPNC device reduces.

Abstract: The present disclosure is directed to a mechanism for optimized application performance in SD-WAN, and includes the steps of receiving initial traffic packets at a first site for transmission to a second site; determining whether a direct tunnel is established between the first site and the second site based on a state of the second site, the state comprising an active state indicating that a direct tunnel is established between the first and second sites or an inactive state indicating that the direct tunnel is not established between the first and second sites; and in response to determining that the direct tunnel is not established, determining that the initial packets satisfy a configured trigger; forwarding the initial packets to the second site via a backup path; establishing the direct tunnel between the first and second sites; and forwarding subsequent traffic packets to the second site via the established direct tunnel.

Abstract: The present application relates to communications between a partner network and a wide area network (WAN) via the Internet. The WAN advertises unicast border gateway protocol (BGP) address prefixes for a plurality of front-end devices in the WAN. An agent in the partner network measures a plurality of paths to a service within the WAN. Each of the plurality of paths is associated with one of the plurality of front-end devices and a respective unicast BGP address prefix. The agent provides measurements of the plurality of paths to the WAN. The WAN selects a path within the WAN for the service. The agent receives a routing rule specifying a unicast address prefix for a selected device of the plurality of front-end devices of the WAN. The agent forwards data packets for the service to the respective border gateway protocol address prefix of the selected device via the Internet.

Abstract: A network node and a wireless device as well as respective method performed thereby for communication with each other are provided. The method performed by the network node comprises receiving, from the wireless device, a measurement report indicating a channel quality of the channel between the network node and the wireless device; and determining whether the channel quality is acceptable or unacceptable. The method further comprises transmitting, to the wireless device, an indication of which RBG(s) to report channel quality measurements for, when the channel quality is unacceptable.

Abstract: A resource indication method, a base station and a terminal are provided. The method includes that: the base station generates a resource indication channel, the resource indication channel indicating a first time-frequency resource and a communication parameters for using the first time-frequency resource, the resource indication channel occupying a second time-frequency resource and at least one first time-frequency resource corresponding to at least one resource indication channel forming a cell; and the base station sends the resource indication channel to the terminal. The method can improve resource allocation and indication flexibility, and improve performance and applicability of a wireless communication system.

Abstract: Examples disclosed herein relate to a method comprising receiving a data packet originating from a first device and intended for a second device, wherein the first device and the first access device belong to a first branch of a Wide Area Network (WAN) using a MPLS overlay and the second device belongs to a second branch of the WAN. The method includes encapsulating the data packet in VXLAN including a VXLAN label identifying a role type and transmitting the data packet to a first core device. The method includes determining an MPLS label corresponding to the role type and transmitting the data packet over the MPLS overlay to a second core device belonging to the second branch of the WAN. The method includes translating the MPLS label into the VXLAN label and transmitting the data packet including the VXLAN label to a second access device for an enforcement action.

Abstract: In one embodiment, an apparatus of a wireless communication device includes control circuitry to cause receiver circuitry of the wireless communication device to switch between an on-mode and an off-mode. The apparatus also includes synchronizing circuitry to: perform a correlation on signals of a packet received by the receiver circuitry when in the on-mode to detect a pattern in the received signals, and cause the control circuitry to hold the receiver circuitry in the on-mode based on detection of the pattern in the received signals. The apparatus further includes demodulation circuitry to process additional signals of the packet received by the receiver circuitry when held in the on-mode.

Abstract: An example network infrastructure device of a software defined wide area network (SD-WAN) comprises processing circuitry and a memory including instructions that cause the network infrastructure device to advertise a set of SD-WAN overlay tunnels terminating at the network infrastructure device, receive a network connectivity graph including a categorized set of network infrastructure devices that are members of an advertisement area and links between the set of network infrastructure devices, receive data traffic intended for a destination device of the set of network infrastructure devices, determine, based on the network connectivity graph, a preferred path to the destination device, and transmit the data traffic via an interface associated with the preferred path.

Abstract: A method, an apparatus, and a computer program product for wireless communication are provided. The apparatus may determine channel state information (CSI) feedback based at least in part on a channel quality information (CQI) table and a CSI reference resource size of the apparatus, wherein at least one of the CSI feedback or the CQI table is modified based at least in part on a modulation configuration of the apparatus; and report the CSI feedback. Numerous other aspects are provided.

Abstract: Disaggregated border gateway protocol (BGP) enables an eBGP session between an internal node an external node to continue despite failover of a perimeter through which the eBGP session is established. eBGP control traffic is trapped by a perimeter router and forwarded to a BGP speaker on the internal node through an IP tunnel. Failover is detected in response to a change in a source address of the IP tunnel over which eBGP control traffic is received. The BGP speaker announces routes to the external node that include a reference to an internal address of an active perimeter router. In response to failover, the BGP speaker announces updated routes referencing the standby router for the perimeter router.

Abstract: A method of operating a terminal in a wireless communication system is provided. The method includes receiving, from a base station, information associated with a measurement gap for performing measurement of the terminal, the information associated with the measurement gap includes information for a frequency range that the measurement gap is applied to, and performing measurement, during the measurement gap in the frequency range.

Abstract: A network configuration apparatus configures a closed network constructed independently for each user in an open network as a cloud LAN, generates an access point for accessing the cloud LAN assigned to each of a plurality of terminals that belong to a user using the cloud LAN. A user information management apparatus selects an access point assigned to a connection terminal accessing the cloud LAN via a mobile data transfer network, and notifies the connection terminal of the access point selected. An address management apparatus delivers an address for the connection terminal to access the cloud LAN in response to a request from the connection terminal.

Abstract: Various embodiments provide an example method in which a first measurement packet can be generated. The first measurement packet includes link resource indication information, and the link resource indication information in the first measurement packet is configured to indicate each node on a forwarding path of the first measurement packet to perform local link resource measurement. In those embodiment, the first measurement packet can be sent to a next device on the forwarding path, where the first measurement packet includes local link resource information measured by the first device. Still in those embodiments, until the first measurement packet is forwarded to a third device by each node on the forwarding path of the first measurement packet, the third device receives the first measurement packets sent on different forwarding paths, and determines a path meeting the link resource indication information.

Abstract: Methods, systems, and devices for wireless communications are described. According to one or more aspects, a user equipment (UE) may receive a configuration message from a base station. The configuration message may configure the UE based on one or more identifiers associated with a group of UEs. The UE may determine at least one identifier based on receiving the configuration message, and may monitor a signal based on the at least one identifier. In some cases, the signal may indicate whether the UE should skip an upcoming duration associated with a discontinuous reception. The UE may then communicate with the base station, based on monitoring the signal.

Abstract: Example methods and computer systems for packet handling for active-active stateful service insertion are disclosed. One example may involve a computer system detecting a packet addressed from a source address to a service endpoint address. Based on configuration information associated with the service endpoint address, the computer system may identify a first active logical service router (SR) and a second active logical SR that are both associated with the service endpoint address and configured to operate in an active-active mode. The first active logical SR may be selected over the second active logical SR by mapping tuple information to the first active logical SR. The computer system may generate an encapsulated packet by encapsulating the packet with an outer header addressed to an outer destination address associated with the first active logical SR and send the encapsulated packet towards the first active logical SR for processing according to a stateful service.

Abstract: An example method may include identifying upload packets at a VPN client operating on a client device, which include a header with a destination server as the destination field and the client device as the source field, adding, via the VPN client, an additional header identifying the client device in an additional source field and identifying an interconnect server center (ISC) device in an additional destination field, to create modified upload packets, receiving the modified upload packets from the client device at the ISC device, replacing, via the ISC device, the additional source field of the modified upload packets with a new additional source field identifying the ISC device and replacing the additional destination field of the modified upload packets with a new additional destination field identifying a VPN server to create further modified upload packets, and forwarding the further modified upload packets to the VPN server for routing to the destination server.

Abstract: In one embodiment, a method is performed. A spine node in communication with a network may determine a subtree of a shadow cone of the spine node. The subtree may comprise a plurality of nodes and a plurality of links connecting pairs of the nodes. The spine node may determine a disaggregated route to a first leaf node to which a disaggregated prefix may be attached. The disaggregated route may be propagated to the plurality of the nodes of the subtree.

Abstract: A beam management method is performed by a UE. Related host computers, network devices, and communications systems are disclosed. In one embodiment the method includes: the UE receiving a first scheduling message regarding a first scheduled downlink transmission for the UE, wherein the first scheduling message comprises pointer information pointing to an object configured in the UE. As a result of receiving the first scheduling message: the UE obtains the pointer information from the first scheduling message; the UE determines a preferred receiver configuration that is currently associated with the obtained pointer information; and the UE uses the determined preferred receiver configuration to receive the first scheduled downlink transmission.

Abstract: In one embodiment, a gateway label edge router (G-LER) receives a packet destined for a mobile domain that comprises a vehicle label edge router. The G-LER identifies, from among a plurality of primary domains, a particular primary domain that currently has a label switched connection with the mobile domain. The label switched connection connects the vehicle label edge router of the mobile domain and a cluster label edge router of the particular primary domain. The G-LER sends the packet to the cluster label edge router of the particular primary domain for transmission to the vehicle label edge router via the label switched connection. The G-LER tracks when the vehicle label edge router of the mobile domain establishes a new label switched connection with a second cluster label edge router of a different primary domain in the plurality of primary domains than that of the particular primary domain.