27 results about "Web graphics" patented technology

The invention discloses a meteorological service center data visualization and interaction platform, and particularly relates to the field of meteorological data visualization, which comprises a multi-source heterogeneous data acquisition and preprocessing module, a space-time fusion and data enhancement module, a distributed storage and intelligent index module, a dynamic visualization module, an intelligent decision and early warning module and an interaction module. According to the invention, multi-source meteorological data are collected through an API and a protocol, and wavelet transform noise reduction processing is carried out by using an edge computing node; carrying out space-time alignment and fusion, and filling missing data with LSTM; dynamic visualization and interaction are realized by using WebGL (Web Graphics Library) and ARCore / ARKit; the WRF and the Transform are integrated to generate early warning information, and decision suggestions are pushed through a natural language interface; according to the method, the WRF numerical model and the Transform algorithm are combined, accurate meteorological early warning is provided for the user, meanwhile, the geographic space index is constructed based on the GeoHash algorithm, efficient geographic space query and data retrieval are achieved, a real-time feedback mechanism and a multi-dimensional visual view are provided, and the operation process and experience of the user are optimized.

The invention relates to an intelligent machine room management and control method based on artificial intelligence. The method comprises the following steps: S1, creating a static three-dimensional model based on three-dimensional data of a machine room; s2, combining the machine room dynamic diagram and the environment cloud picture into the static three-dimensional model to obtain a dynamic three-dimensional model; s3, on the basis of the dynamic three-dimensional model, constructing a visual platform by adopting WebGL (Web Graphics Library); s4, detecting abnormal data nodes through an abnormal detection model based on the operation data of the equipment, and marking and reporting the abnormal data nodes in the dynamic three-dimensional model; s5, in combination with Wi-Fi and UWB tag technologies, realizing accurate positioning of machine room personnel, and performing refined authority management based on a dynamic three-dimensional model through role authorization and real-time position monitoring; and S6, based on personnel real-time positioning and abnormal data nodes, automatically generating an optimal path for the personnel, and assisting the personnel to efficiently arrive at a specified task area. According to the invention, while the reliability of machine room management is improved, the utilization efficiency of resources and the preciseness of data management are improved.

The invention discloses a Web application low-performance terminal adaptation method and system based on layered rendering, and belongs to the technical field of Web graphic rendering and cloud computing crossing. Performing layered rendering and publishing; and subscribing and synthesizing by a terminal. According to the method, a'one-step 'full-frame transmission mode is abandoned, the computing load is optimally distributed between the cloud and the terminal by performing structured layering on the rendering content at the cloud and dynamically adapting the transmission strategy according to the terminal performance and the network condition, and thus the dependence on the network bandwidth and the requirement on the terminal performance are greatly reduced.

graphic design for digital, print and web

The invention provides a rapid deployment method, a server and terminal equipment. The method is applied to a server, and comprises the following steps: receiving a deployment request sent by terminal equipment; based on hardware attribute information of the terminal equipment included in the deployment request, querying a target computing kernel corresponding to the hardware attribute information; the target computing kernel at least comprises a computing instruction which can be directly operated on the WebGPU network graphic processor; the calculation instruction is matched with the hardware attribute information, and the calculation instruction is an instruction written through a WebGPU shader language; and sending the queried target computing kernel to the terminal equipment, so that the terminal equipment runs the target computing kernel through the WebGPU.

1. The name of the product of this design: AI voice conversational intelligent configuration network graphical user interface for electronic devices. 2. Purpose of this design product: used to display AI voice conversational intelligent configuration network information. 3. The design highlights of this appearance design product lie in the interface content of the graphical user interface. 4. The picture or photo that best illustrates the key points of the design: Main view of Design 1. 5. It does not involve design points, so it is omitted. The rear view, left view, right view, top view and bottom view of Design 1 to Design 5 are omitted. 6. Designate Design 1 as the base design. 7. Purpose of the graphical user interface: The main view of Design 1 is the main interface of the AI ​​voice intelligent configuration network. This interface is monitoring the voice commands issued by the user. The IP image is displayed in the middle of the interface. When the voice command is monitored, the interface changes to Design 1 Change State Diagram 1, and the voice is replied. After the voice reply is completed, the interface automatically changes to Design 1 Change State Diagram 2, the thinking state interface, and after the thinking is completed, the interface changes to Design 1 Change State Diagram 3, and the configuration information interface is confirmed with the user. After receiving the command, the interface changes to Design 1 Change State Diagram 4, and a configuration plan is generated. After receiving the confirmation command, the interface changes to Design 1 Change State Diagram 5, informing the user to issue the result. The main view of Design 2 is the main interface of the AI ​​voice intelligent configuration network. This interface is monitoring the voice commands issued by the user. The IP image is displayed in the middle of the interface. When the voice command is monitored, the interface changes to Design 2 Change State Diagram 1, and a reply voice is made. After the reply voice is finished, the interface automatically changes to Design 2 Change State Diagram 2, the thinking state interface. After the thinking is completed, the interface changes to Design 2 Change State Diagram 3, and a configuration plan is generated. In this interface, voice commands can be issued to modify the configuration. When the confirmation command is received, the interface changes to Design 2 Change State Diagram 4 to inform the user of the issued result. The main view of Design 3 is the main interface of the AI ​​voice intelligent configuration network. This interface is monitoring the voice commands issued by the user, and the IP image is displayed in the middle of the interface. When the voice command is monitored, the interface changes to Design 3 Change State Diagram 1, and a voice reply is made. After the voice reply is completed, the interface automatically changes to Design 3 Change State Diagram 2, the thinking state interface. After the thinking is completed, the interface changes to Design 3 Change State Diagram 3, and the configuration information interface is confirmed with the user. After issuing a voice command, the interface changes to Design 3 Change State Diagram 4 to generate a configuration plan. In this interface, voice commands can be issued to modify the configuration. When the confirmation command is received, the interface changes to Design 3 Change State Diagram 5 to inform the user of the result. The main view of Design 4 is AI voice The main interface of the intelligent voice configuration network is the interface that is monitoring the voice commands issued by the user. The IP image is displayed in the middle of the interface. When the voice command is monitored, the interface changes to Design 4 Change State Diagram 1, and a voice reply is made. After the voice reply is completed, the interface automatically changes to Design 4 Change State Diagram 2, the thinking state interface, and after the thinking is completed, the interface changes to Design 4 Change State Diagram 3, the configuration information interface is confirmed with the user, and after the voice command is issued, the interface changes to Design 4 Change State Diagram 4, and a configuration plan is generated. In this interface, voice commands can be issued to modify the configuration. When the confirmation command is received, the interface changes to Design 4 Change State Diagram 5 to inform the user of the issued result;The main view of Design 5 is the main interface of AI voice intelligent configuration network. This interface is listening to the voice commands issued by the user. The IP image is displayed in the middle of the interface. When the voice command is finished, the interface changes to Design 5 change state diagram 1, and the voice is replied. After the voice reply is finished, the interface automatically changes to Design 5 change state diagram 2, the thinking state interface. After the thinking is completed, the interface changes to Design 5 change state diagram 3, and the configuration information interface is confirmed with the user. After issuing the voice command, the interface changes to Design 5 change state diagram 4, and the configuration plan is generated. In this interface, voice commands can be issued to modify the configuration. When the confirmation command is received, the interface changes to Design 5 change state diagram 5 to inform the user of the issued result. ;

This invention discloses a method for fusion display and output of a desktop map engine and a web graphics engine, comprising the following steps: S1, setting a target desktop application and loading web page content through the web application; S2, adjusting the web page size setting in the web application to match the window size in the desktop application, and determining the relative position and scaling ratio between the desktop content and the web page content; S3, overlaying the web application content onto the desktop application, thereby achieving fusion display of the desktop map engine and the web application; S4, according to user requirements, overlaying the custom content drawn on the desktop with the output file of the web page content, merging them into a single file, and outputting it.

The present invention provides a video monitoring method, device, electronic device and storage medium, including: based on the network graphics library drawing protocol, loading a three-dimensional virtual scene corresponding to a target monitoring area in a page; receiving a first input from a user, the first input being used to import multiple first monitoring videos in the target monitoring area; in response to the first input, displaying multiple first monitoring videos at multiple target positions in the three-dimensional virtual scene; multiple target positions correspond one to one with multiple first monitoring videos. The present invention can provide users with intuitive video images and simple view control, and at the same time, by adopting the network graphics library drawing technology, ensure that all monitoring video images integrated into the three-dimensional virtual scene can be played in parallel, with smooth images without lag, so that users can better perform global real-time video monitoring, greatly improving the efficiency of global real-time video monitoring.

graphic Design for digital, Print and Web

A medical system (100, 400) is disclosed that includes a memory (110) storing machine executable instructions (112) and network graphics (114, 114 '). The network graph comprises network nodes (300) and network edges (302). At least a portion of the network nodes includes node-specific object metadata. The network edge comprises configuration metadata, the configuration metadata comprising routing data for establishing a communication channel for communicating data between two network nodes of the network graph using a communication device. Execution of the machine executable instructions causes a computing system (104) to: create (200) a new node (116) including new object metadata (118) in the network graph; searching (202) a closest matching network node (122) selected from the network nodes; and constructing (204) a new network edge (126) for the new node in the network graph by replicating at least a portion of the network edges closest to the matching network node.

Graphic design for digital, print and web

A method for displaying a graphical user interface (GUI) for facilitating interactions with one or more entities may include receiving data associated with the one or more entities from one or more data sources, providing the data associated with the one or more entities to one or more machine learning models, receiving explainability data from the one or more machine learning models, wherein the explainability data indicates one or more recommendations for interacting with the one or more entities, and displaying the GUI for facilitating interactions with the one or more entities, wherein the GUI comprises one or more communication affordances generated using the explainability data, wherein a user selection of a communication affordance generates a communication data structure configured to facilitate a recommended interaction of the one or more recommended interactions via a communication medium.

Graphic design for digital, print and web

The invention provides an equipment screen copying method and system, a medium and electronic equipment, and relates to the field of streaming media processing.The method comprises the steps that after an Android debugging bridge is started, a TCP client is created locally to serve as a client of an Android debugging bridge server and used for receiving information of the Android debugging bridge server; establishing a communication connection between the Android debugging bridge server and a target device through the TCP client, so that the Android debugging bridge server pushes an scrcpy server file to the target device; starting an scrcpy service, and starting a socket service; creating a socket client according to the socket service; and creating a canvas, taking the video stream of the target equipment as a texture in a video frame form, and rendering the video stream on the canvas through a Web graphics processor so as to execute video stream copying of the target equipment. The canvas size can be adjusted according to the frame size of the video stream, the video processing performance is improved by using local hardware resources, a remote server is not needed to render the video, and the operation and maintenance cost is saved.

The invention discloses a digital twinborn real-time synchronization and rendering method and system based on a WebGPU, and belongs to the technical field of digital twinborn and high-performance Web graphic computing. Aiming at the problems of performance bottleneck and synchronization delay in the existing scheme, the invention constructs a layered decoupling architecture: establishing a heterogeneous multi-granularity space-time state descriptor to realize twin unified abstraction; an asynchronous differential synchronization protocol based on a calculation shader is designed, and low-overhead increment synchronization is achieved; a viewport-driven progressive detail rendering strategy is provided, and model resources are dynamically scheduled through rendering and calculation pipeline collaboration. The system comprises a descriptor generation module, a synchronization agent module, a resource scheduler and a collaborative rendering engine. According to the method, the parallel capability of the WebGPU is fully utilized, and the synchronization efficiency and the rendering performance of the digital twin system in the Web environment are improved.

This application provides a bitmap lighting rendering method, apparatus, and device. The method includes: acquiring bitmap data and current map view parameters; sending a request to a server to receive tile data, and drawing a Web map tile service base layer; when the current zoom level is higher than a threshold, performing a Web graphics library rendering step; the steps include: filtering bitmap data to obtain a set of visible points; drawing the set of visible points based on graphics processor instantiation technology; calculating brightness distribution data using fragment shaders; processing the brightness distribution data using additive blending; adjusting rendering parameters using multi-level detail technology to obtain a target rendering layer; adjusting the weights of the base layer and the target rendering layer to obtain a lighting rendering result; and outputting to the display canvas of the current map view. This application effectively solves the problems of poor visual quality of lighting effect rendering and insufficient dynamic interaction capabilities in existing Web-based visualization technologies for large-scale bitmap data.

The invention discloses a WebGL-based 3D model loading optimization method, and the method comprises the steps: carrying out the geometric compression and container compression of original 3D model data through employing a multistage compression algorithm, and generating a compressed ZIP format model file; carrying out parallel decompression and decryption operation on the model file in the ZIP format through a WebAssembly module, and transmitting decompressed model data to a WebGL (Web Graphics Library) rendering engine; dynamically adjusting rendering detail levels of the model based on a user view angle and equipment performance, and gradually adding key grid information of the model to a rendering queue by adopting a streaming loading and progressive rendering technology; and independently storing a form key compiling result and establishing a cache mechanism, and directly reading cache data to skip a form key compiling process when the same model is subsequently loaded. According to the embodiment of the invention, the data volume of the 3D model in network transmission is remarkably reduced, the model loading and first frame rendering speed is improved, and the overall rendering performance and the user experience are optimized through Wasm accelerated decompression and decryption, form key caching and dynamic LOD technologies.

This application discloses an online BIM model and design drawing review method, apparatus, equipment, and storage medium, relating to the field of engineering digital visualization technology. The method includes: classifying and version-managing BIM models and design drawings according to workspace to form a review asset management library; extracting data and converting it into triangular mesh review data; rendering a 3D model and 2D drawings using a network graphics library 3D engine; registering and linking the viewports of both to construct a 2D / 3D viewport system; performing model overlay, screenshot annotation, and online editing to generate review records and comments; and finally binding the records and comments to the corresponding model and drawing data to complete the review. This application can reduce the hardware and software operation threshold and improve the automation and online level of the review process in engineering BIM model and design drawing review.

The present invention discloses a digital twin irrigation district visualization method and browser based on network graphical processing, and belongs to the field of irrigation district visualization technology. The irrigation district visualization scheme in the prior art cannot effectively meet the requirements for data processing timeliness and irrigation district visualization display in complex irrigation district visualization scenes. The digital twin irrigation district visualization method based on network graphical processing of the present invention creates an irrigation district watershed visualization unit, an irrigation district coordinate construction unit, a hydrological change simulation unit, and a three-dimensional irrigation district generation unit, maps the hydrological change data of the irrigation district to simulation information in the geographic information system coordinate system, and then couples the simulation information with the geographic information map, and performs parallel rendering processing at the same time, so that large-scale or complex irrigation district data can be efficiently processed, and the processing timeliness requirements for geographic information data can be met. It can also provide more refined visual effects to meet the requirements for irrigation district visualization display.

Graphic design for print and digital, web

1. The name of the design product: topology network configuration graphical user interface for electronic device. 2. The use of the design product: an electronic device. 3. The design points of the design product: the graphical user interface content in the screen, the electronic device is the existing design. 4. The picture or photo that best shows the design points: front view. 5. The product hardware part is a conventional design, and the rear view, left view, right view, top view and bottom view are omitted. 6. The use of the graphical user interface: the design product is used to operate to show different types of topology networks. 7. The human-computer interaction mode of the graphical user interface: the user can interact and operate by clicking the corresponding function button of the interface or inputting the device name and port number to search for the upper and lower end devices connected by the port, to load the subsequent graphical user interface or run the application.

graphic design for digital, print and web

The invention provides a voice monitoring intercom system front-end interaction method compatible with H.265 and H.264, which needs to build a three-layer system framework in advance, and comprises a core component layer, a functional module layer and an external dependency layer. The core component layer comprises a Player component and a Video component, and the functional module layer comprises a WebRTC connection management module, a media stream processing module, a decoding and playing module and a decoding and playing module; the external dependency layer comprises a WebRTC API (Application Program Interface) used for signaling and media stream processing, WebCoodecs used for hard decoding, a WebGL (Web Graphics Library) used for video rendering and an external decoder used for soft decoding; the method comprises the following steps: creating a player instance, and initializing parameters; establishing connection; after receiving the audio or video track, selecting a corresponding decoding mode according to the coding format; creating a video interface; and calling a story method to clean a media track, a decoder, a data channel and connection, and releasing all resources. According to the invention, the native two-way communication is realized, the stability and reliability of the system are improved, the support for the H.265 / H.264 double-coding format is realized, and the transmission efficiency is improved.

A system and method takes a three-dimensional (3D) data file as input (e.g. protein databank, PDB) and: 1) creates an informative color portable network graphics (PNG) image representing the 3D data by calculating an adjacency matrix; 2) compresses the input data file to binary; 3) uses a reversible data hiding technique in all four image channels (red, green, blue, alpha) to hide / embed the complete compressed data file within the adjacency matrix image; 4) and allows for extracting the original data file from the image without loss of information.

Graphic design for digital, print and web

This application provides a method for determining the positions of key points on a display device and the human body. This method eliminates traditional dedicated hardware such as sensors / radar during user posture data acquisition and processing, collecting data solely through a camera and directly acquiring the video stream using WebRTC technology natively supported by the browser, without requiring additional equipment. The human posture recognition model is integrated into the user device using TensorFlow.js, enabling on-device inference and avoiding data uploads to the cloud, thus eliminating transmission latency at its source. Model inference is completed on the browser side, accelerated by a web graphics library to improve processing efficiency and ensure real-time performance. The approximate positions of key points are located using the maximum probability of a heatmap, and then corrected using offsets to improve the positioning accuracy of human key points, further optimizing transmission efficiency and solving the problem of data transmission latency and its impact on transmission efficiency in current user posture data acquisition and processing.