5 results about "Net-centric" patented technology

Various aspects of the present disclosure relate to a UE for wireless communication, comprising: at least one memory configured for storing first configuration information which is not associated with a network slice of a network, the first configuration information comprising a service descriptor; and at least one processor coupled with the at least one memory and configured to cause the UE to: transmit a connectivity request message to the network to request a data session, the connectivity request message comprising the service descriptor; and receive a connectivity response message from the network, the connectivity response message including a first network slice identifier in association with the service descriptor, wherein the first network slice identifier identifies a first network slice of the network.

A distributed network includes a first group of computing devices. Each computing device is to be coupled to two neighbor computing devices of the first group of computing device and is to: (i) aggregate gradient values received from a first neighbor computing device with local gradient values to generate a partial aggregate of gradient values that are to train a neural network model; (ii) transfer the partial aggregate of gradient values to a second neighbor computing device; and repeat (i) and (ii) until a first aggregate of gradient values from the first group of computing devices is buffered at a first computing device of the first group of computing devices. The first computing device is to transfer the first aggregate of gradient values to a second group of computing devices of the distributed network for further aggregation.

Methods and processes are described herein to enhance a 3GPP system with XRM server functionality to assist a VAL server in creating and managing spatial anchors. For example, an XRM server may send a spatial anchor ranging request to one or more other services. The one or more other services may determine a ranging distance and orientation between the spatial anchor and the user equipment and send the ranging distance and orientation to the XRM server. The XRM server may receive the ranging distance and orientation, compare the received ranging distance and orientation to predetermined ranging distance and orientation limits for the spatial anchor, and perform one or more spatial anchor operations based on the ranging distance and orientation limits being greater than the received ranging distance and orientation.

Various embodiments relate to network capabilities. Devices of a network can have different capabilities. The network can provide artificial intelligence (AI) enabled, machine learning (ML) enabled, deep learning (DL) enabled networked access to these capabilities. The capabilities can share a common AI / ML / DL-enabled open layer-based net-centric logical protocol architecture. Also, different features can be achieved through different layers. As an example, AI enabled access can be achieved through the application layer, ML enabled access and DL enabled access can be achieved through the presentation layer and the session layer, and network access is achieved through the transport layer, the network layer, the link layer, and the physical layer.

The invention relates to the technical field of helicopter simulation, and discloses a helicopter simulation system. The system takes a network as a center, is deployed in a ground control station simulation test environment, adopts a multi-helicopter task command simulation core module, a command interaction module and a communication module architecture, and supports multi-helicopter formation simulation deduction; the situation display module renders a geographical environment, a target and a track in real time based on a digital map with the resolution of less than or equal to 1m, and the refresh frequency is greater than or equal to 10Hz; the command post information simulation module generates comprehensive information, and the state and load detection information of the helicopter are displayed through a pop-up window; the multi-machine deduction module supports more than five formation selections, task allocation and collaborative processes; the command interaction module realizes command closed-loop control through a UDP multicast protocol; the system solves the problems that in the prior art, the multi-machine cooperation scale is smaller than or equal to 5 frames, the instruction delay is larger than 500 ms, and the situation refreshing is smaller than 15 fps, data excitation and simulation verification support is provided for helicopter single-machine or formation task allocation and command guide research, and the system is suitable for the field of training and equipment research and development.