A distributed radio frequency communication system includes a remote radio unit (RRU and a baseband unit (BBU) and facilitates communication between a wireless terminal and a core network. The RRU receives a radio frequency signal from a wireless terminal and convert the radio frequency signal to digital baseband samples using receiver circuitry and an analog-to-digital converter. The RRU then adaptively compresses the digital baseband samples, using adaptive compression circuitry, to create fronthaul uplink information, and sends the fronthaul uplink information over a fronthaul link to the BBU using an adaptive fronthaul protocol. The RRU also receives fronthaul downlink information over a fronthaul link from the BBU using an adaptive fronthaul protocol and generates frequency-domain samples, based on the fronthaul downlink information received. It then creates time-domain baseband samples from the frequency-domain samples and converts the time-domain baseband samples into a radio frequency signal to send to the wireless terminal.

Attractive services are provided by freely interconnecting IoTs via the Internet.

An IoT connection system includes an IoT hub and an IoT router. The IoT hub includes at least one of a first driver and a second driver, the first driver being used to connect the IoT hub to a private cloud to which a first device is connectable, and the second driver being used to connect a second device and the IoT hub, the IoT router includes a third driver for connecting a third device and the IoT router, and the IoT hub executes a continuous connection function for continuously connecting the first device, the second device, the third device, and an IoT service that is usable via the IoT hub to each other, and a directory function for associating the first device, the second device, the third device, and the IoT service with each other.

A method for using a common control plane to control a plurality of access networks includes (1) supporting a first communication link of a first access network using a control plane of the first access network, and (2) supporting a second communication link of a second access network using the control plane of the first access network. A communication system includes the first access network and the second access network.

The invention relates to a method for establishing a virtual private network between local area networks, each local area network comprising at least one access gateway to a public network and a unit comprising a VPN client, the method comprising the following steps carried out each time a unit is powered on: sending, by the unit, of at least one connection message to an infrastructure connected to the public network and comprising at least one intermediate server, each connection message passing through a respective gateway of the local area network; reception, by the infrastructure, of each connection message; and determination of topology data identifying each bridge of the local area network in which the unit is placed, the method further comprising the following steps carried out for a plurality of units: instancing, by a predetermined intermediate server of the infrastructure, of a VPN server associated with the plurality of units; establishing an encryption tunnel between the VPN server and the VPN client of each unit from the corresponding topology data; and creating and storing routing data representative of a data routing rule between the established encryption tunnels.

A data distribution system in comprises software application nodes that utilize a publish-subscribe communication mechanism for distribution of data in real-time or near real-time within a personal area network (PAN), local area network (LAN), or wide-area network (WAN) configuration. The distributed system communication software application nodes reside in medical devices, such as monitoring devices and cardiac defibrillators, and associated patient information delivery systems and patient data management systems comprising medical software installed on servers and end-user computing devices, including mobile devices.

The present disclosure generally relates to the support of optical connection setup. More specifically, the present disclosure relates to a technique of supporting provision of a connection via a data communication network of an optical network between packet network islands. A method embodiment comprises establishing a Border Gateway Protocol-Link State, BGP-LS, connection via the DCN between a first edge node of the first packet network island and a BGP-LS node in the optical network.

An apparatus is provided for control of a plurality of forwarding switches using a network controller. The network controller executes a routing configuration application that analyzes interconnections between the forwarding switches to identify a topology of the network, determine label switched paths (LSPs) between the forwarding switches, and transmits the next hop routes to the forwarding switches. The forwarding switches use the next hop routes to route packets through the network according to a multiprotocol label switching (MPLS) protocol. Each LSP includes one or more next hop routes defining a forwarding address associated with one forwarding switch to an adjacent forwarding switch.

A wireless communication device (alternatively, device, WDEV, etc.) includes at least one processing circuitry configured to support communications with other WDEV(s) and to generate and process signals for such communications. In some examples, the device includes a communication interface and a processing circuitry, among other possible circuitries, components, elements, etc. to support communications with other WDEV(s) and to generate and process signals for such communications. The WDEV receives a null data packet (NDP) announcement frame that specifies a sub-carrier (SC) or tone grouping factor, a communication channel bandwidth, and other WDEV(s) to respond with beamforming feedback. The WDEV process the NDP announcement frame to determine it is to respond, and if so, then receives a NDP sounding frame that includes long training fields (LTFs) and pilots at predetermined locations and generates beamforming feedback of communication channel estimates at SCs as determined based on a sub-carrier roster look up table (LUT).

Techniques for operating a network device are provided. In some embodiments, a method may comprise: forwarding multicast data packets from a source in a first customer network to a receiver in a second customer network; detecting that another PE device is forwarding the multicast data packets, wherein: Protocol Independent Multicast (PIM) is enabled on supplemental bridge domain (SBD) logical interfaces of the PE device and the another PE device, the PE device and the another PE device are PIM neighbors, and the PE device and the another PE device communicate with each other and with the receiver using the PIM protocol through an Ethernet virtual private network (EVPN). The method may further comprise determining the another PE device is an assert winner from among the PE device and the another PE device based on at least one PIM assert message, the another PE device forwarding the multicast data packets.

The present disclosure relates to a method of a first radio equipment device (10) of configuring a fronthaul communication link (30) established with a second radio equipment device (20), and a first radio equipment device (10) performing the method. In an aspect, a method of a first radio equipment device (10) of configuring a fronthaul communication link (30) established with a second radio equipment device (20) is provided. The method comprises configuring (S101a) the first radio equipment device (10) to receive data over the fronthaul communication link (30) at a selected bitrate with a selected communication protocol type, detecting (S103) if bitrate of, and communication protocol type used for, data received over the fronthaul communication link (30) match the selected bitrate and the selected communication protocol type for which the first radio equipment device (10) is configured to receive data, wherein at least one of the selected bitrate and the selected communication protocol type for which the first radio equipment device (10) is configured (S101b-S101e) to receive data is adjusted (S101b-S101e) until a match is detected, and selecting (S105) the bitrate and communication protocol type for which there is a match as the bitrate and communication protocol type with which data is communicated over the fronthaul communication link (30).