5results about How to "Implement multiplexing" patented technology

The invention discloses a dual-polarization multiplexing microwave perfect vortex metasurface and a construction method thereof, and the metasurface comprises a substrate which is of a regular polyhedron structure and has a certain thickness. The floor is arranged on the lower surface of the substrate. The patch is arranged on the upper surface of the substrate and comprises a cross-shaped structure which is orthogonally arranged in the center of the substrate and long-strip patches which are arranged on the four sides of the cross-shaped structure, and the four long-strip patches are not in contact with one another; the four vertexes of the cross-shaped patch are provided with short-strip patches perpendicular to the direction of the cross-shaped patch. The microwave perfect vortex is used for orbital angular momentum multiplexing communication, so that the divergence problem of traditional vortex waves can be effectively relieved, concentrated distribution of electromagnetic energy near an annular area with a fixed size on a receiving plane is achieved, the design of a receiving antenna is simplified, the receiving efficiency and the space utilization rate of the antenna are improved, and the cost is reduced. And the generation and multiplexing of the microwave perfect vortex are realized.

A streaming media distribution method includes: a SIP signaling server controls a camera device to initiate an active connection to a Darwin streaming media server, and sends a video stream to the Darwin streaming media server; the Darwin streaming media server receives the SDP information sent by the SIP signaling server, uses the key information y value and the device ID in the SDP information to establish an association relationship with the SSRC value in the video stream, and uniquely identifies a video stream through the device ID; the Darwin streaming media server adds a QTSSGB28181Module forwarding module to receive the RTSP request of the client and realize the forwarding of the video stream. The present invention adds support for the GB28181 protocol on the basis of the Darwin streaming media server, so that the streaming media server can be better applied to the video monitoring subsystem of the visualization of the power transmission channel.

The present invention relates to the field of computer technology, and in particular to a cloud-native monitoring system. The system includes: a master application and multiple slave applications; the multiple slave applications are respectively deployed in each node of the cluster, and each slave application is used to collect the resource usage data of the node based on concurrent queries, and the resource usage data includes Pod granularity data, namespace granularity data, and graphics card granularity data; the master application is used to obtain the resource usage data collected by each slave application based on a preset communication protocol, and perform node resource usage analysis and task resource usage analysis based on the resource usage data. The present invention reduces the time required for querying by concurrently querying resource usage data, significantly reduces data collection time, and improves the real-time performance of the monitoring system. At the same time, in terms of resource monitoring granularity, it can more comprehensively understand the resource usage at different levels in the cluster, provide users with more accurate data, and bring more flexibility to the monitoring system.

This application relates to a multi-DNN inference scheduling method and system for in-memory computing-accelerated edge servers. The method involves receiving inference requests; reading the model parameters of a target DNN model from a cached DNN model file based on the inference request; and generating scheduling parameters based on these parameters. The scheduling parameters include the number of copies of the target DNN model, the batch size for processing the target DNN model per run, and a model packaging strategy for splitting the target DNN model. Based on the scheduling parameters, the inference request is constructed into a task. A PIM accelerator is invoked to process the task according to a runtime function pre-compiled for the target DNN model, generating the corresponding inference result. This application overcomes the limitation of current PIM accelerators that only optimize single DNN models, enabling concurrent scheduling of multiple types of DNN inference tasks to meet the diverse needs of edge IoT devices.

The invention discloses a high-density stretchable organic opto-transistor array and a preparation method and application thereof. The high-density stretchable organic opto-transistor array is an organic opto-transistor based on a polymer film under a nanometer confinement. The organic opto-transistor adopts a top gate top contact structure, a top gate bottom contact structure, a bottom gate top contact structure or a bottom gate bottom contact structure, and comprises a stretchable substrate, a stretchable insulating layer, a stretchable polymer semiconductor layer, a stretchable gate electrode, a stretchable source microelectrode layer and a stretchable drain microelectrode layer. Wherein the stretchable polymer semiconductor layer is a nano-confinement polymer film, and the nano-confinement polymer film serves as a photosensitive layer and a semiconductor layer at the same time and directly participates in carrier transport while inducing photons. The high-density organic opto-transistor array has high-sensitivity, low-voltage and low-dose X-ray detection capability, high stretchability and device uniformity, can be directly attached to the surface or the interior of a complex object, and can obtain a high-definition detection result in a relatively low radiation dose and extremely short time.