4 results about "Signaling process" patented technology

This application provides a method for batch handover of user terminals in a low-Earth orbit satellite network, comprising: a source satellite-borne base station sending measurement indicators of multiple user terminals entering its edge radii to multiple neighboring satellites to a satellite-borne decision center; the satellite-borne decision center inputting the measurement indicators into a packet handover decision model, outputting packet handover decision results, and returning the packet handover decision results to the source satellite-borne base station; the source satellite-borne base station determining the target neighboring satellites to which the multiple user terminals should handover based on the packet handover decision results and initiating batch handover request messages; and each target neighboring satellite, based on the batch handover request messages, cooperating with the source satellite-borne base station and each user terminal to complete the service handover. The dedicated signaling process for batch handover and the accompanying signaling compression method designed above can significantly reduce the transmission pressure of inter-satellite links. Furthermore, by using a deep learning model to consider the complex states and constraints of multiple users and multiple satellites for joint decision-making, it can more accurately select the satellites for handover.

A first network entity sends a first message to a second network entity as part of a signalling procedure of Xn application protocol or NG application protocol. The second network entity receives the

The present disclosure relates to an apparatus for a user equipment and a base station. An apparatus, system and method of a base station are disclosed. The apparatus comprises: a memory; and processing circuitry configured to: determine a physical downlink control channel (PDCCH) on a first component carrier; encode a first signal to be transmitted on the PDCCH, the first signal comprising downlink control information (DCI) about resources for a second signal to be transmitted on a second component carrier, wherein the DCI is based on a predetermined numerology, and wherein respective numerologies of the first component carrier and the second component carrier are different from each other. The processing circuitry is further configured to cause the first signal to be transmitted on the PDCCH, wherein a receiver of the second signal processes the second signal based on the control information in the first signal.

This application discloses a method, apparatus, equipment, and medium for dynamic measurement and calibration of electronic remote differential pressure liquid level, belonging to the field of liquid level data processing technology. The method includes: acquiring differential pressure signals through a secondary board to generate a raw differential pressure data stream; determining whether the current liquid level environment is in a steady state or a fluctuating state based on the statistical variance of the main board within a preset time window; if determined to be in a steady state, the main board sends a digital command to the secondary board to initiate bidirectional handshake communication, calculating the zero-point correction amount by obtaining the standard reference signal fed back by the secondary board; if determined to be in a fluctuating state, prohibiting the calculation of the zero-point correction amount and activating an adaptive fluctuation suppression algorithm; and calculating the final effective differential pressure value based on the zero-point correction amount and / or the signal processed by the adaptive fluctuation suppression algorithm, and converting it into a standard current signal output. This technical solution can output stable and accurate liquid level signals under different operating conditions, significantly improving the stability of industrial process control.