15results about "Answer-back mechanisms" patented technology

A server device configured to communicate, via a communication network, with at least one device including a learner configured to perform processing by using a learned model, includes processor, a transmitter, and a storage configured to store a plurality of shared models pre-learned in accordance with environments and conditions of various devices. The processor is configured to acquire device data including information on an environment and conditions from the at least one device, and select an optimum shared model for the at least one device based on the acquired device data. The transmitter is configured to transmit a selected shared model to the at least one device.

The embodiments of the present disclosure relate to the technical field of network communications. Provided is a session establishment method applied to an access network device, comprising: receiving a session request of a UE, and sending the session request to a core network device; receiving a request response message returned by the core network device, wherein the request response message carries a session resource; initiating security activation of an access stratum to the UE; and after it is confirmed that the security activation is successful, sending the session resource to the UE for the UE to establish a session based on the session resource.

Approaches presented herein provide for the real-time backhauling of data streams direct to memory. In at least one embodiment, a host device can initiate a Remote Direct Memory Access (RDMA) transmission with a remote device for sensor data streams. Initialization data for the RDMA transmission can be sent from the host to the remote device, such as over an existing physical Ethernet or InfiniBand (IB) connection. The host device can enter a Ready-to-Receive (RTR) state and send instructions to the remote device to enter a Ready-to-Send (RTS) state. The RDMA transmission can be initialized between the host device and the remote device to transfer streaming data. Using a remote data manager, the streaming data can be sent over the existing Ethernet connection as a RDMA transmission and written directly to allocated memory. The system may be scaled to include higher throughput sensors, additional sensors, and multiple remote transmission devices.

Method and apparatus for managing device usage time SOLUTION: The method includes receiving a time-based restriction on use by the first user with respect to the application, website, or device-level function 802, receiving encrypted data indicating use by the first user on the second device with respect to the application, website, or device-level function 804, determining that at least one of the use by the first user on the second device or the use by the first user at the device with respect to the application, website, or device-level function violates the time-based restriction 808, and in response to the determination: A notification that the time-based restriction has been violated by the first user is provided 810.SELECTED DRAWING: Figure 8

A device may include a processor configured to receive a request to establish a Multimedia Priority Service (MPS) session for a user equipment (UE) device. The processor may be further configured to generate a General Packet Radio Service (GPRS) Tunnelling Protocol (GTP) tunnel in a core network from the device to a gateway associated with a packet data network (PDN); map an MPS priority to data units associated with the MPS session sent via the generated GTP tunnel; generate an Internet Protocol Security (IPSec) tunnel from the device to the UE device through a wireless local area network (WLAN); and prioritize data units associated with the MPS session through the IPSec tunnel based on the MPS priority.

The application provides a data transmission device and equipment, the data transmission device comprises an interface module, a network module, a first circuit, a second circuit and a wireless communication module, wherein the network module receives Ethernet data through the interface module, and converts the Ethernet data into TTL signals and then transmits the TTL signals to the first circuit and the second circuit respectively; the first circuit converts the TTL signals output by the network module into RS232 data and then transmits the RS232 data to the wireless communication module, the wireless communication module converts the RS232 data into wireless signals and then transmits the wireless signals to a wireless terminal; and the second circuit converts the received TTL signals into RS485 data and then transmits the RS485 data to a wired terminal. Through the data transmission device, the host call data of a queuing calling system can be sent to a wireless calling device and a wired calling device, one host can cover a larger environment area, and the host is no longer limited in engineering deployment and use, so that flexibility is improved and application scenarios are enriched.

Approaches presented herein provide for the real-time backhauling of data streams direct to memory. In at least one embodiment, a host device can initiate a Remote Direct Memory Access (RDMA) transmission with a remote device for sensor data streams. Initialization data for the RDMA transmission can be sent from the host to the remote device, such as over an existing physical Ethernet or InfiniBand (IB) connection. The host device can enter a Ready-to-Receive (RTR) state and send instructions to the remote device to enter a Ready-to-Send (RTS) state. The RDMA transmission can be initialized between the host device and the remote device to transfer streaming data. Using a remote data manager, the streaming data can be sent over the existing Ethernet connection as a RDMA transmission and written directly to allocated memory. The system may be scaled to include higher throughput sensors, additional sensors, and multiple remote transmission devices.

Disclosed embodiments include identity verification and management services in which users authenticate their identities during an enrollment process, and may access and modify their identity information via a secure portal. The enrollment process includes collecting various identifying data and biometric data of a user. A live interview portion during the enrollment process is used to check the liveness and verify the collected identifying data and biometric data. Once the user is enrolled, the user's identity can be verified for multiple entities using the same enrolled identity, and the user can manage the specific data used to verify their identity with different entities. This provides users with the ability to use their authenticated / verified identity across various industries, markets, locations, and the like, while keeping their identifying data private. Other embodiments may be described and / or claimed.

A method and device for managing device usage time is provided. A method for managing device usage time includes receiving a time-based limit on a first user's use of an application, website, or device-level feature. The device receives encrypted data indicating the first user's use of the application, website, or device-level feature on a second device. The device determines that at least one of the first user's use of the application, website, or device-level feature on the second device or the first user's use of the application, website, or device-level feature on the device violates the time-based limit. In response to the determination, the device provides a notification that the first user is violating the time-based limit.

This invention discloses an indoor WiFi signal tracking and enhancement system based on an active RIS (Radio Reflector Array), comprising a controllable directional antenna array and a router. The router is placed in the center of the controllable directional antenna array, and the controllable directional antenna array beamforms the electromagnetic waves emitted by the router. The method for enhancing indoor WiFi signals using this system includes the following steps: (1) a mobile terminal emits a signal; (2) sensing units on the RIS in each room receive the signal and perform positioning; (3) the communication status is judged and classified; (4) the signal is amplified and accurately tracked to the communication equipment in the room, performing secondary beamforming of the WiFi signal. The active RIS of this invention can reflect and amplify the incoming wave signal, providing a certain gain effect on the signal emitted by the WiFi router, thus better ensuring the strength of the communication signal.

A first solid state drive (SSD) includes a first built-in network interface device configured to communicate via a network fabric, and a second SSD includes a second built-in network interface device configured to communicate via the network fabric. A connection is opened between the first SSD and the second SSD over the network fabric. Based on a non-volatile memory over fabric (NVMe-oF) communication protocol, an NVMe command to transfer data between the first SSD and the second SSD over the connection is encapsulated in a capsule. The capsule is sent from the first SSD to the second SSD over the connection via the network fabric. The second SSD executes the NVMe command in the capsule to transfer the data between the first SSD and the second SSD over the connection.

The invention relates to network transmission of destination-initiated data streams. The method presented herein provides real-time backhaul of a data stream directly to memory. In at least one embodiment, a host device may initiate a remote direct memory access (RDMA) transfer of a sensor data stream with a remote device. Initialization data of the RDMA transmission may be sent from a host device to a remote device, such as over an existing physical Ethernet or InfiniBand (IB) connection. A host device may enter a'ready to receive (RTR) 'state and send an instruction to a remote device to enter a'ready to send (RTS)' state. RDMA transmissions may be initialized between a host device and a remote device to transport streaming data. Using a remote data manager, streaming data can be sent in the form of RDMA transmissions over existing Ethernet connections and written directly to allocated memories. The system may be extended to include a higher throughput sensor, additional sensors, and a plurality of remote transmission devices.