Abstract: Techniques for establishing and controlling information sharing via a dynamic wireless mesh network for a group of vehicles comprise determining a set of communication parameters for the group of vehicles and, based on the set of communication parameters, establishing the dynamic wireless mesh network for the group of vehicles, wherein each vehicle in the group of vehicles is a node in the dynamic wireless mesh network, determining a set of routing rules for the dynamic wireless mesh network, controlling information sharing between the group of vehicles through the dynamic wireless mesh network using the set of routing rules, and selectively adjusting the set of routing rules in response to changes in the set of communication parameters.

Abstract: A system can include a first electrical device having a first sensor device, where the first sensor device is configured to measure a first parameter used in operating the first electrical device, where the first sensor device is further configured to detect a first condition that is unrelated to operating the first electrical device, where the first condition is created by a trigger device controlled by a user, where the first sensor device, upon detecting the first condition, broadcasts a first communication that includes a first identification of the first sensor device. The system can also include a gateway communicably coupled to the first electrical device, where the gateway receives the first communication from the first electrical device, where the gateway assigns the first electrical device to a first group based on the first identification of the first sensor device.

Abstract: A method of coordinating a communication network comprising a self-coordination network coordinator is provided, wherein the method comprises receiving dynamic context information at the self-coordination network coordinator and performing a coordination of at least one self-organising network function instance based on the received dynamic context information.

Abstract: Systems and methods are disclosed for facilitating communications in heterogeneous networks that include different data networks. A gateway device is configured to communicate with a first network using a TSCH protocol and with a second network using a channel hopping CSMA protocol. The gateway device can determine, during a first part of a TSCH timeslot, whether a message is received from the first network. If no message is received, the gateway device switches to the second network during a second part of the timeslot. If the gateway device receives a message from the second network, the gateway device may continue to receive the message. The receipt of the message in the second network may continue into a subsequent TSCH timeslot or may be interrupted if certain conditions are met.

Abstract: A mobile radio network node sends echo request messages to a defined end-point node via a link in a radio communications network. Based on return messages generated in response to the echo request messages a capacity of the link is estimated. The echo request messages contain standardized first and second test messages, where the first test message includes a first amount of data, and the second test message includes a second amount of data exceeding the first amount of data. The capacity of a link in terms of an amount of data communicated per unit time is estimated based on an amount of residue data corresponding to a difference between the second and first amounts of data, and a difference between first and second time intervals.

Abstract: Latency reduction by fast forward (FF) in multi-hop communication device and/or systems is disclosed. Packets may be received and forwarded using a codeword (CW)-based approach with and/or without per-CW CRC. A FF session may have a flow ID and packets may have sequence numbers. Packets targeted for FF may be divided into independently decodable CWs that may be transmitted in the next hop, for example, as soon as the destination is determined without waiting for an entire packet's arrival and/or for CRC verification. Low latency (e.g. FF) traffic may be indicated. CW-based FF may be extensible for an e2e RAN path from a WTRU to the last access node in a RAN. Intermediate metrics, a packet CRC and/or a per-CW CRC may be utilized for data integrity. HARQ and/or CW retransmission procedures may be implemented between network nodes for error handling.

Abstract: A network element includes multiple output ports and circuitry. The multiple output ports are configured to transmit packets over multiple respective network links of a communication network. The circuitry is configured to receive from the communication network, via one or more input ports of the network element, packets that are destined for transmission via the multiple output ports, to monitor multiple data-counts, each data-count corresponding to a respective output port, and is indicative of a respective data volume of the packets forwarded for transmission via the respective output port, to select for a given packet, based on the data-counts, an output port among the multiple output ports, and to forward the given packet for transmission via the selected output port.

Abstract: A satellite antenna ground station service includes a plurality of ground stations and associated data centers, wherein the data centers are part of a provider network. Clients may reserve satellite antenna access time-slots via a user interface of the satellite antenna ground station service and store data directly to a data center of the provider network or to the client's premises via a direct connection between the client and the provider network. In some embodiments, the provider network may offer a plurality of network-based services, such as a compute service, a data storage service, a machine learning service, or a data analytics service, and a client may utilize one or more of these services to analyze and process downlinked data received from a satellite of the client via a satellite antenna ground station of the satellite antenna ground station service of the provider network.

Abstract: A radio resource controller (RRC) is provided for use in a radio cell, in particular a base station, to preserve communication in an out-of-coverage (OOC) area. The RRC includes a processor configured to: determine an egress traffic of mobile communication devices and determine an ingress traffic of mobile communication devices, in particular vehicles, from the OOC area to the area covered by the radio cell. The processor is further configured to determine a demand of radio resources for services running on the mobile communication devices entering the OOC area, and to schedule radio resources for the admitted services based on an admission and scheduling metric with respect to the egress traffic, the ingress traffic, and the demand of radio resources.

Abstract: Computer-implemented systems and methods configured to generate a plurality of data packages based on a combination of data elements; add the plurality of data packages to a data package pool configured to store available data packages for assignment; receive an assignment request from a user device in communication with a management server; add the assignment request to a request pool configured to queue a plurality of assignment requests, wherein generating the plurality of data packages and receiving the assignment request occur asynchronously; retrieve a first group of one or more data packages from the data package pool; retrieve a second group of one or more assignment requests from the request pool; assign the one or more data packages of the first group to the one or more assignment requests of the second group; and transmit the one or more assignment requests to corresponding user devices with the assigned data packages.

Abstract: Methods for identifying in range endpoints in a network are provided. The methods includes providing a map including endpoints in the network, the endpoints including target endpoints, out of range endpoints and non-out of range endpoints; positioning a grid over the map including the endpoints in the network, the grid including a plurality of subsections each having a defined radius, locating a target endpoint on the map and in one of the subsections of the grid; and identifying a plurality of endpoints within subsections of the grid within a defined range of the target endpoint.

Abstract: Facilitating automatic latency discovery and dynamic network selection using data analytics in advanced networks (e.g., 4G, 5G, 6G, and beyond) is provided herein. Operations of a method can comprise inserting, by a system comprising a processor, first information indicative of a first identified time into a first field of a message. Also, the method can comprise transmitting, by the system, the message to a defined device. Further, the method can comprise determining, by the system, an end-to-end latency for the message based on a response received from the defined device in reply to the message. The response can comprise second information indicative of a second identified time that the message was received at the defined device.

Abstract: Embodiments disclose a multi-frequency transceiver and a base station. The multi-frequency transceiver is connected to an antenna, and includes: at least one transmit multiplexer, where each transmit multiplexer includes multiple transmit paths, and each transmit path is used to transmit one frequency band by using the antenna; and at least one receive multiplexer, where each receive multiplexer includes multiple receive paths, and each receive path is used to receive one frequency band by using the antenna.

Abstract: Provided are a method and an apparatus for performing device-to-device (D2D) relay communication according to various embodiments.

Abstract: Some embodiments of the invention provide a new networking data path framework that employs one or more dedicated kernel threads to process network traffic on a host computer executing multiple machines (such as virtual machines or containers). This new framework is referred to as an Enhanced Networking Stack (ENS) in this document. In some embodiments, the dedicated kernel threads execute on dedicated CPU cores (e.g., one kernel thread per CPU core) to proactively poll physical NICs (PNICs) of the host computer and virtual NICs (VNICs) of the machines (e.g., VMs), and to perform packet processing operations on packets received by the host and packets transmitted by the machines. In some embodiments, each PNIC or VNIC is associated with one dedicated kernel thread, in order to avoid synchronization issues between the kernel threads.

Abstract: A method for communication within a cooperative intelligent transport system. The method comprises receiving, in a first node, a first intelligent transport system message from another node of the cooperative intelligent transport system. In the first node, a technology status of that another node is identified. The technology status comprises information whether or not the first intelligent transport system message was transmitted configured according to a predetermined first intelligent transport system technology, and information whether or not the first intelligent transport system message comprises a dual technology indicator. The dual technology indicator is an information element identifying that the node transmitting the first intelligent transport system message is capable of communicating intelligent transport system messages according to the first intelligent transport system technology as well as according to a predetermined second technology.

Abstract: The present invention is designed so that communication can be carried out properly even when shortened TTIs are used. A user terminal communicates using a first transmission time interval (TTI) and a second TTI which has a shorter TTI duration than the first TTI, and this user terminal has a receiving section that receives first downlink control information which is transmitted from a radio base station per first TTI, and second downlink control information which is transmitted in the second TTI, and a control section that controls simultaneous reception of first downlink data which is based on the first downlink control information, and second downlink data which is based on the second downlink control information, in a same carrier, based on a given condition.

Abstract: Embodiments of the present invention provide a synchronization signal carrying method and an apparatus. The synchronization signal carrying method in the present invention includes: determining, by first user equipment, a priority parameter of a synchronization signal; determining, by the first user equipment according to the priority parameter, a resource for carrying the synchronization signal, where a configuration of the resource indicates the priority parameter; and sending, by the first user equipment, the synchronization signal to second user equipment by using the resource, so that the second user equipment determines a synchronization signal for the second user equipment. The embodiments of the present invention enable a more flexible synchronization signal determining manner in a D2D communications system.

Abstract: A station (STA) may receive, in a trigger frame in a multi-user wireless local area network (WLAN), control information for one or more sub-bands of a bandwidth available for overlapping basic service set (OBSS) spatial reuse (OBSS SR) and a transmission power parameter for the one or more sub-bands. The STA may generate a physical (PHY) layer preamble including a signal field that includes an indication of the one or more sub-bands for SR and a power threshold for the SR.

Abstract: Provided are a method of configuring resource block (RB) indexing information about a component carrier (CC) by a base station (BS). The method may include: configuring common RB indexing information about the CC; configuring one or more bandwidth parts (BWPs) based on the common RB indexing information; and transmitting the common RB indexing information and configuration information about the bandwidth parts to a terminal.