1319 results about "Interface design" patented technology

A server computer system comprises a communications module; at least one processor coupled with the communications module; and a memory coupled to the processor and storing processor-executable instructions which, when executed by the at least one processor, configure the at least one processor to provide a plug-in to an interface design software application executing on a computing device, the plug-in allowing the server computer system to communicate with the computing device to monitor design of an interface within the interface design software application; generate at least one recommendation for tagging at least one element of the interface; and send, for display on a display screen of the computing device within the interface design software application, the at least one recommendation for tagging the at least one element.

The invention discloses an AI-based digital media interface design optimization method, and relates to the technical field of interface design, and the method comprises the following steps: collecting multi-modal interaction input data of a user in real time, and constructing a user behavior sequence tensor with multiple time steps and multi-modal interaction dimensions; carrying out joint modeling on the user focus state vector, the user behavior sequence tensor and the user real-time feedback vector; generating a recommended new layout scheme based on an output result of the interactive intention weight model; when the probability is higher than a preset threshold value, triggering an interface pushing mechanism; after the interface is rearranged, data are fed back according to subsequent interaction behaviors and feedback data of the user; the technical problem that the layout or position of the interface element cannot be dynamically adjusted according to the behavior of the user in the traditional interface design is solved.

The embodiment of the invention discloses a terminal application behavior data analysis method and computer equipment, and the method comprises the steps: obtaining an interaction behavior data set of an RPA terminal application in a preset time window, the interaction behavior data set comprising a plurality of interaction behavior sequences, each interactive behavior sequence comprises at least one user interface operation event and a corresponding system response event; performing behavior track analysis processing on the interactive behavior data set, and extracting an interface circulation feature and an operation intention feature of each interactive behavior sequence; generating an interface optimization strategy according to the relevance between the interface circulation feature and the operation intention feature, wherein the interface optimization strategy comprises an interface layout adjustment rule and an interface response logic optimization rule; and feeding back the interface optimization strategy to a background management system of the RPA terminal application. Therefore, the problem that an existing RPA application interaction interface is insufficient in design and optimization can be effectively solved, and the usability of the interface and the response capability of the system are improved.

1. Name of the product of this design: Environmental monitoring site-focused graphical user interface for electronic equipment. 2. Purpose of this design product: used to display and run programs. 3. The key design point of this design product lies in the graphical user interface on the screen. 4. The picture or photo that best illustrates the key points of the design: main view. 5. Purpose of the graphical user interface: It is used to monitor and analyze environmental monitoring sites. Through the novel focus interface design, it is convenient for users to quickly lock on the target object. Click "Close" in the main view to get the change state diagram 1. Click any map icon in the change state diagram 1 to get the change state diagram 2. Click the "Close" button in the change state diagram 2 and check "Outlet Water Quality" in the legend below to get the change state diagram 3. Click any water quality station in the change state diagram 3 to get the change state diagram 4.

The invention discloses an SATA (Serial Advanced Technology Attachment) bus system based on an FPGA (Field Programmable Gate Array) and an implementation method thereof, and the SATA bus system comprises a hierarchical protocol processing unit which is used for realizing command analysis, data encapsulation, channel coding and signal conversion functions; the control module is used for receiving a read-write command and read-write parameters sent by the host, and then controlling the hierarchical protocol processing unit to read target data of the storage device according to the read-write command and the read-write parameters, or controlling the hierarchical protocol processing unit to write the target data into the storage device; the command and data processing module is used for caching read-write commands, read-write parameters and upper computer data in FIFO (First In First Out) in a layered manner; and the test data processing module is used for testing whether the storage equipment reads and writes the data normally to obtain a test result. According to the method, the interface design is simple and clear, the delay is low, the data reading and writing function of the storage medium can be tested without intervention of a host or a CPU, and the method can be widely applied to the technical field of serial advanced technology accessory interface control.

The invention discloses a video acquisition method and device based on modular low coupling, and relates to the technical field of video processing. The method comprises the following steps: initializing a video processing system, creating a unified system resource management interface, and realizing centralized management of video acquisition, encoding, decoding, OSD control and NPU push modules; based on a modular design principle, video acquisition, coding, decoding, OSD control and NPU push functions are packaged into independent modules, and data interaction between the modules is realized through a standardized interface. The video processing system is modularly designed, and a unified standardized interface is provided, so that the effect of greatly reducing project code coupling is achieved, a developer does not need to pay attention to underlying logic when calling the interface, and module function independence is guaranteed; by means of the modular interface design, developers can rapidly integrate platform functions, development work can be completed without deeply knowing the whole code library, and therefore the project development efficiency is improved.

The invention provides an interactive interface design parameterization method guided by tactile feedback. The method comprises the following steps: acquiring physiological features, use habits and use scene information of a user, and presetting basic tactile feedback parameters according to a scene-parameter mapping rule; during interaction, touch parameters such as vibration frequency and amplitude are dynamically adjusted based on user operation behaviors, physiological reactions and scenes by using a deep learning model; and meanwhile, a multi-modal parameter fusion model is established, so that tactile, visual and auditory parameters have a synergistic effect, for example, when a button is clicked, the three parameters are mutually associated to enhance a feedback effect. After the operation is completed, the feedback effect is evaluated through objective indexes such as the subjective score of the user and the operation accuracy, and the user personalized model and the parameter adjustment model are optimized. According to the method, the problems that traditional parameters are fixed, and multi-modal fusion is insufficient are solved, accurate and personalized man-machine interaction is achieved, and the user experience is improved.

The invention discloses an interface design and implementation method of a BMC (Baseboard Management Controller) remote management system based on Redfish. According to the method, a multi-module resource model conforming to Redfish specifications is constructed in a baseboard management controller (BMC), management modules including Systems, Chassis, Managers, Account Service, Session Service, TaskService, Update Service, FRU and the like are integrated, and a unified RESTful interface architecture is formed. The method supports standardized access to management functions such as a server system state, hardware assets, a user account, remote control and firmware upgrading, and meanwhile, a unified authentication mechanism and an asynchronous task mechanism are introduced, so that an efficient and safe out-of-band management process is realized. The system has the advantages of uniform interface, clear structure, safety, controllability, high expandability and the like, and is suitable for various data center and server remote management scenes.

The invention relates to a reconfigurable equipment simulation system based on software radio, and the system achieves the high-integration, user-friendly and efficient-management reconfigurable equipment simulation system through the modularization and seamless integration of a radio waveform design function, an equipment simulation user operation interface design, a business logic function design and a project management function. Therefore, even if a user does not have a deep programming capability, the user can quickly construct, test, manage and deploy the equipment simulator with complete functions. The system is rich in waveform component and UI component library, customizable in function and good in flexibility, software radio waveform design and equipment simulation are innovatively and seamlessly integrated, automatic non-inductive or manual upgrading can be achieved, the universality is good, various equipment simulators can be designed, the designed equipment simulators have open function expansion, and the system is suitable for popularization and application. And a complete project management process is provided.

The invention discloses a cross-platform visualization system, method and device, a medium and a program product, and relates to the technical field of computers.The cross-platform visualization method includes the steps that a point-to-point channel is established through a distributed cooperation module to transmit a multi-user operation data packet, operation adopted by an interface is determined when it is judged that operation conflicts occur, the conflict rate is reduced, and writing efficiency is improved; a cross-platform rendering adaptation module is used for obtaining and analyzing device characteristic parameters and recognizing device types to determine the code generation direction, multi-terminal adaptation codes are generated, layout optimization is carried out at the same time, interface cross-device display is achieved, and the code generation efficiency and accuracy are improved; the versions are recorded by the directed acyclic graph through the version management module, branch operation differences are quantified and merging is executed, so that the time consumption of version merging is shortened, and the management complexity is reduced. Therefore, high-precision cooperation, low-code cross-platform development and traceable version control are realized, the interface design efficiency and quality are greatly improved, and the development cost is reduced.

The invention discloses a natural language driven front-end and back-end application automatic development method and system, and belongs to the technical field of computer software, and the method comprises the following steps: S1, receiving an original request input by a user; s2, performing semantic analysis and intention recognition on the original request based on a large language model, and converting the original request into structured intermediate structure modeling information; s3, after the structured intermediate structure modeling information is optimized through an artificial intelligence model and interacts with a user to confirm a demand, a Figma UI design drawing is generated; s4, metadata of the Figma UI design drawing is analyzed, and a front-end code is automatically generated; s5, synchronously generating back-end interface design and implementation logic; s6, performing automatic joint debugging binding on the front-end code and the rear-end interface; and S7, outputting a complete project file structure and a document. Full-link automation of processes of design, development, joint debugging and the like is realized, and particularly, closed-loop automatic generation from language to interface and then to code is realized through a linkage mechanism of'text-to-graph 'and'graph-to-code'.

The detachable ear-worn supporting leg is used for being detachably connected to a pluggable external connector assembly, the detachable ear-worn supporting leg comprises a shell and an interface assembly, a first opening part is formed in the first end of the shell, and the interface assembly comprises a positioning part and a limiting part; the positioning part and the limiting part are both arranged in a first cavity, communicated with the first opening part, in the shell, and the limiting part is arranged on the side, away from the first opening part, of the positioning part. The first end of the pluggable external connector assembly can be matched with the positioning part and the limiting part at the same time after being inserted from the first opening part; and the electronic module is arranged in a second cavity at one end, far away from the first opening part, in the shell. According to the detachable ear-worn supporting leg and the head-worn intelligent equipment, the detachable standardized interface design of the ear-worn supporting leg and the intelligent equipment is realized, the interchangeability can be improved, and the respective production complexity of the ear-worn supporting leg and the intelligent equipment is reduced.

1. The name of the product of this design: A status bar of a graphical user interface for displaying energy storage system information for a mobile phone. 2. Purpose of the product of this design: a mobile phone. 3. The key design points of this design product are the contents shown in solid lines in the graphical user interface. 4. The picture or photo that best illustrates the key points of the design: Main view of Design 1. 5. Designate Design 1 as the base design. 6. Purpose of the graphical user interface: The graphical user interface of this design product is used to display information about the energy storage system of the mobile phone, and the status bar is used to display information about the different states of the energy storage system. 7. Human-computer interaction method of the graphical user interface: The main view of Design 1 is the display interface when the user enters the energy storage system of the mobile phone. When the power of the mobile phone is gradually consumed, the interface jumps to Design 1 interface change state diagram 1 and Design 1 interface change state diagram 2 in sequence. The main view of Design 2 is the display interface when the user enters the energy storage system of the mobile phone. Design 2 interface change state diagram 1 and Design 2 interface change state diagram 2 show the different operating states of the energy source of the mobile phone energy storage system. When the energy source of the mobile phone changes, the interface automatically jumps from the Design 2 main view to the Design 2 interface change state diagram 1. When the energy source changes again, the interface automatically jumps from the Design 2 interface change state diagram 1 to the Design 2 interface change state diagram 2.

The invention relates to the technical field of video monitoring, in particular to an efficient and rapid development and data optimization configuration method for a PC client in the video monitoring industry. A system architecture comprising a public bottom layer, a business data layer and an interface layer is constructed. The public bottom layer provides a bottom layer business data interface to guarantee a data source; the business data layer is responsible for data processing and management, and a business data agent of the business data layer can flexibly synchronously or asynchronously acquire data and monitor updating; the interface layer is based on an MVC framework and generates a configuration file through an interface designer, the interface management module effectively manages layout and interaction of the interface unit, and the interface unit obtains data from the business data layer to achieve dynamic display. According to the system and the method, rapid interface configuration in which non-developers can participate is realized, the development efficiency is improved, data management is optimized, the user experience is enhanced, good expandability and maintainability of the system are ensured by virtue of layered and modular design, and diversified requirements of PC client development in the video monitoring industry are effectively met.

The invention discloses an interface design specification evaluation-oriented image-text large model fine tuning method and a related device, and relates to the technical field of man-machine interaction. According to the method, a software interface design specification list oriented to an image-text large model is formulated by researching existing software interface design specifications; based on this, a comprehensive image-text pair data set on an interface design specification evaluation task is constructed, and an image-text large model for software interface design specification evaluation is established through fine tuning of a general image-text large model, so that intelligent evaluation of software interface static design specifications is realized. The intelligent evaluation result output by the model can provide intelligent auxiliary decision making for software interface developers, the optimization of software interface design specifications is promoted, and the user interaction experience is improved.

1. Name of the Design Product: Graphical User Interface for Recruitment Management of Electronic Devices. 2. Use of the Design Product: This design product is used for an electronic device. 3. Design Key Points of the Design Product: Lies in the graphical user interface. 4. Picture or Photo Most Illustrating the Design Key Points: The front view of Design 1. 5. Design 1 is designated as the basic design. 6. Use of the Graphical User Interface: The interface is mainly used for the interactive interface of recruitment operations management such as recruitment information query, screening, and resume submission. The front view interface of Design 1 is displayed as the initial interface, and more relevant information can be queried by swiping the interface up and down. Click on a recruitment information module in the middle of the front view interface of Design 1, and the interface will be presented as Figure 1 of the interface change state of Design 1. Click on the "Submit" function key below Figure 1 of the interface change state of Design 1, and the interface will be presented as Figure 2 of the interface change state of Design 1. After filling in the relevant information in Figure 2 of the interface change state of Design 1 and clicking on the "Expand" option below, the interface will be presented as Figure 3 of the interface change state of Design 1. Click on the "Submit Immediately" function key below Figure 3 of the interface change state of Design 1, and the interface will be presented as Figure 4 of the interface change state of Design 1. The front view interface of Design 2 is displayed as the initial interface, and more relevant information can be queried by swiping the interface up and down. Click on a recruitment announcement module in the middle of the front view interface of Design 2, and the interface will be presented as Figure 1 of the interface change state of Design 2. Swipe up Figure 1 of the interface change state of Design 2, and the interface will be presented as Figure 2 of the interface change state of Design 2. Swipe up Figure 2 of the interface change state of Design 2, and the interface will be presented as Figure 3 of the interface change state of Design 2. Click on a recruitment information module in the "Available Positions" module in Figure 3 of the interface change state of Design 2, and the interface will be presented as Figure 4 of the interface change state of Design 2. Click on the "Submit" function key below Figure 4 of the interface change state of Design 2, and the interface will be presented as Figure 5 of the interface change state of Design 2. After filling in the relevant information in Figure 5 of the interface change state of Design 2 and clicking on the "Expand" option below, the interface will be presented as Figure 6 of the interface change state of Design 2. Click on the "Submit Immediately" function key below Figure 6 of the interface change state of Design 2, and the interface will be presented as Figure 7 of the interface change state of Design 2. The front view interface of Design 3 is displayed as the initial interface, and more relevant information can be queried by swiping the interface up and down. Click on the "All Rows" option above the front view interface of Design 3, and the interface will be presented as Figure 1 of the Design 3 interface change state. You can query the relevant information of a certain option by clicking on that option in the drop-down window. After clicking on the icon to the right of the "Filter" option in Figure 1 of the Design 3 interface change state and selecting one of the options, the interface will be presented as Figure 2 of the Design 3 interface change state. The front view interface of Design 4 is displayed as the initial interface, and you can query more relevant information by swiping the interface up and down. Click on the "All Rows" option above the front view interface of Design 4, and the interface will be presented as Figure 1 of the Design 4 interface change state. You can query the relevant information of a certain option by clicking on that option in the drop-down window. After clicking on the icon to the right of the "Filter" option in Figure 1 of the Design 4 interface change state and selecting multiple options, the interface will be presented as Figure 2 of the Design 4 interface change state. The front view interface of Design 5 is displayed as the initial interface, and you can query more relevant information by swiping the interface up and down. Click on the icon at the far right of the information classification bar (including "Basic Information", "Organizational Assignment", etc.) above the front view interface of Design 5, and the interface will be presented as the Design 5 interface change state diagram. The front view interface of Design 6 is displayed as the initial interface, and you can query more relevant information by swiping the interface up and down. Swipe up the front view interface of Design 6, and the interface will be presented as Figures 1-10 of the Design 6 interface change state in sequence.

The invention discloses a process industry process modeling method under a cross-platform interaction condition. The process industry process modeling method under the cross-platform interaction condition covers standardized algorithm development logic, a fault injection mechanism and a unified API interface design. Specifically, a universal mechanism model base class is constructed based on the digital twinning characteristic of the technological process, and flexible development and application of the model are supported through inheriting and expanding; two fault injection mechanisms based on performance failure and environmental disturbance are designed, and dynamic behaviors of the system under different working conditions are simulated; and through the design based on a unified API interface, the consistency of data interaction and function calling among different platforms is ensured, and cross-platform efficient cooperation and data sharing are realized.

The invention discloses a depressive emotion intervention method and system. The method comprises the following steps: displaying a system interface with blue sky and white cloud as a background to a user, and confirming login information; performing stimulation presentation according to the presentation strategy; training the user according to the intervention rule; training data of the user is collected and analyzed; and adjusting the presentation condition of the stimulation according to the collected data so as to improve the depressive emotion of the user. According to the method, the psychological defense of the user is reduced by simulating the interface design of the natural landscape, the randomly presented positive, neutral and negative pictures and the user name are used as stimulation, and positive feedback and personalized difficulty adjustment are combined, so that the user is effectively guided to pay attention to the positive emotion, and the implicit self-esteem of an individual is improved, thereby improving the depressive emotion.

The invention discloses a chip IP interface information automatic analysis and connection modeling method, and relates to the technical field of integrated circuit verification, and the method comprises the steps: multi-source interface information collection: docking a design server through an FTP / SFTP protocol, automatically retrieving and capturing a target file, carrying out format preprocessing, and storing the collected original information through a database; heterogeneous information fusion analysis: extracting port physical attributes and generating machine executable rules by constructing a grammar analyzer and a semantic analyzer respectively, and automatically judging multi-source information contradictions by adopting a three-level judgment mechanism; structuring modeling of the connection relation: constructing a directed graph model of the IP nodes, the signal nodes and the constraint nodes, and automatically executing directed graph model verification; and through a standardized API interface docking verification tool, outputting a model file and a report file in standardized JSON-LD and DOT formats. Through cooperative work of cross-format acquisition, double-engine analysis, structured modeling and standardized output, full-automatic processing of IP interface information is realized.

The invention discloses an adjustable interactive interface design method and system fusing group eye movement information. The method comprises the steps that firstly, a plurality of eye movement feature values of an individual in the interaction process with an interactive interface are collected; aggregating the individual eye movement feature values and demographic information to represent an individual feature set; obtaining preference degrees of individuals for different interface design elements to form a preference set; collecting eye movement characteristic values associated with the individual for different interface design elements, and forming a relationship network in combination with individual weight values; forming a group database capable of configuring individual weight distribution by aggregating individual data; and establishing a group decision model, calculating the recommendation degree of each interface design element according to the eye movement characteristic value of the user and the demographic information, and sorting the attraction of the interface design elements to the user according to the recommendation degree. The method can adapt to the change of different user behavior modes and preferences, and improves the user experience and decision-making efficiency.

The invention provides a menu item dynamic adjustment method of a human-computer interface and a human-computer interaction system, and belongs to the technical field of human-computer interface design, and the method comprises the following steps: obtaining historical use frequencies and necessity scores of a plurality of menu items; performing comprehensive evaluation on each menu item based on the historical use frequency and the necessity score to obtain the priority of each menu item; and dynamically adjusting the arrangement sequence of the menu items based on the priorities to obtain optimized menu items. According to the method and the device, the menu items with relatively high historical use frequency and necessity are moved forward, and a complicated search process is not needed, so that the misoperation probability of a user is reduced, and the operation accuracy is improved.

The invention discloses a machine learning Pipeline generation and deployment method and system based on a graph structure, and relates to the technical field of machine learning automatic modeling. The method comprises the steps that a machine learning flow chart designed by a user through a graphical interface is obtained, nodes in the flow chart represent operation, and edges in the flow chart represent data streams; mapping each node in the flow chart to a corresponding algorithm, and generating an executable machine learning Pipeline; executing the Pipeline, completing feature engineering, model training and evaluation, and obtaining an evaluation index; and if the evaluation index meets a preset threshold value, deploying the Pipeline as a model service. The method is used for solving the problems that in the prior art, node interface semantic conflicts are difficult to automatically and efficiently adapt, and model reasoning deployment lacks compilation level optimization for heterogeneous hardware characteristics.

The invention relates to the technical field of applet interface design, and discloses an adaptive design method and system based on an applet interface. The method comprises the following steps: acquiring screen parameters, image resolution, pixel density and screen size of the terminal equipment, and user operation habit data, such as touch frequency and interface staying duration; and generating equipment adaptive feature vectors according to the data so as to describe terminal equipment display characteristics and user interaction preferences. And constructing an interface element dynamic layout model, and calculating the relative position and the size proportion of the interface component through the model according to the equipment adaptive feature vector. And monitoring a transverse and vertical screen switching event of the terminal equipment in real time, and once the event is monitored, triggering the interface element dynamic layout model to recalculate. And sending the recalculated interface component layout data to a rendering engine to complete the adaptive updating of the applet interface. According to the method, the user experience of the applet on different devices can be effectively improved, and the adaptability and flexibility of the applet to various terminal devices are enhanced.

Systems and methods for generating UI designs using deep learning and automated front-end code generation includes training a deep learning model on a dataset of existing UI designs; receiving user parameters and constraints for generating a quick UI design; generating a quick UI design using the trained deep learning model and user-provided parameters and constraints; providing a visual editor for the user to edit the quick UI design into a finished UI design; and generating human-readable front-end code from the finished UI design.

1. Name of this design product: Graphical user interface for office efficiency query management of electronic devices. 2. Purpose of this design product: This design product is used for an electronic device. 3. Key points of this design product: Graphical user interface. 4. Picture or photo that best illustrates the key points of the design: Main view of design 1. 5. The carrier of this design product is a conventional design, and other views are omitted. 6. Design 1 is designated as the basic design. 7. Purpose of the graphical user interface: The interface is mainly used as an interactive interface for visual data query management of office efficiency. The main view of design 1 is an initial interface, and the corresponding information can be queried by clicking on the relevant modules in the interface. Click the "Chat Message Quick Operation" option at the bottom of the main view interface of design 1, and the interface will be presented as the interface change state diagram of design 1. The main view of design 2 is an initial interface, and the corresponding information can be queried by clicking on the relevant modules in the interface. Click the "Chat Message Quick Operation" option at the bottom of the main view interface of design 2, and the interface will be presented as the interface change state diagram of design 2. The main view of design 3 is an initial interface, and the corresponding information can be queried by clicking on the relevant modules in the interface. Click the "Chat Message Quick Operation" option at the bottom of the main view interface of Design 3, and the interface will be displayed as the interface change status diagram of Design 3. The main view of Design 4 is an initial interface, and the corresponding information can be queried by clicking on the relevant modules in the interface. Click the "Chat Message Quick Operation" option at the bottom of the main view interface of Design 4, and the interface will be displayed as the interface change status diagram of Design 4. The main view of Design 5 is an initial interface, and the corresponding information can be queried by clicking on the relevant modules in the interface. The main view of Design 6 is an initial interface, and the corresponding information can be queried by clicking on the relevant modules in the interface.

1. The name of the product of this design: Graphical user interface for intelligent driving assistance settings of electronic equipment. 2. Purpose of this design product: for use in an electronic device. 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. Designate Design 1 as the base design. 6. Purpose of the graphical user interface: The graphical user interface of this design is used for the setting of intelligent driving assistance items. Click "Driver assistance" on the left to set up intelligent driving assistance. The card in the middle of the interface displays different setting option information. The main view of Design 1 is the display interface of the intelligent cruise assist function; the main view of Design 2 is the display interface of the adaptive cruise function; the main view of Design 3 is the display interface of the emergency lane keeping function; the main view of Design 4 is the display interface of the automatic emergency braking function; the main view of Design 5 is the display interface of the door opening warning function; the main view of Design 6 is the display interface of the reversing lateral assist function; the main view of Design 7 is the display interface of the parking assist function.

The invention relates to the technical field of nuclear thermal coupling, in particular to a general multi-physical coupling method, device and equipment for a nuclear reactor and a computer storage medium. According to the method, Monte Carlo transport software, a computing environment of a thermotechnical solver and a preCICE communication interface are initialized through a predefined configuration file, Monte Carlo transport calculation is directly completed according to an initial material in first iteration, body power density data are obtained, and the body power density data are transmitted to the thermotechnical solver through preCICE to serve as a heat source to be mapped to a finite element grid. Further obtaining an updated temperature and density field and feeding back the updated temperature and density field to Monte Carlo transportation software; and controlling an iteration process through a convergence criterion until the requirement is met. According to the method, full-process automation and memory-level data exchange in the multi-physical coupling process are achieved, the calculation efficiency and precision are remarkably improved, manual intervention and file read-write bottlenecks are eliminated, and meanwhile, the strong adaptability and good expansibility of the method to different geometric models and physical solvers are guaranteed by relying on the universal interface design and modular architecture of preCICE.

The invention discloses a multi-strategy fusion file data desensitization management and control system, and relates to the technical field of information security and data processing, a system architecture adopts a hierarchical design and comprises a presentation layer, a business logic layer and a data access layer, the interface design of the presentation layer is simple, and a user can easily operate the presentation layer; the business logic layer is responsible for processing various rules and ensuring that data can be correctly processed; the data access layer is responsible for interacting with a database to realize secure storage and quick reading of data, and the architecture design ensures the expandability and maintainability of the data desensitization file security management system; system functions are realized in two ways: a common user can perform desensitization operation on sensitive data and download a file; an administrator can modify configuration and manage the desensitization rule besides the functions of a common user; the system can effectively protect sensitive data and reduce the risk of data leakage, and has high practical value.

1. Name of the Design Product: Graphical User Interface for Data Analysis of Electronic Devices. 2. Use of the Design Product: For an electronic device. 3. Design Key Points of the Design Product: Lies in the content of the graphical user interface in the electronic device. 4. Picture or Photograph that Best Illustrates the Design Key Points: The front view of Design 1. 5. This design product involves a graphical user interface, and the electronic device is of a conventional design. The rear view, left view, right view, top view, and bottom view of the electronic device are omitted. 6. Design 1 is designated as the basic design. 7. Use of the Graphical User Interface: For parameter adjustment of a laser processing machine, 3D additive monitor, laser welding machine, or laser cutting machine. 8. Area of the Graphical User Interface in the Product: Inside the display screen of the electronic device. 9. Human-Computer Interaction Method of the Graphical User Interface: After loading the detection parameters, enter the "Front View of Design 1" interface; the Front View of Design 1 interface is used for automatic parameter adjustment of the detection parameters during laser processing to facilitate the user to set the automatic parameter adjustment algorithm parameters, view the sample distribution of each selected area, and the parameter adjustment results; right-click on "Data Sample" under "Data Selection" above the Front View of Design 1 interface to enter the "State Diagram 1 of Design 1 Interface Change" interface; then click on "Load Data" in the drop-down menu of "Data Selection" above the State Diagram 1 of Design 1 Interface Change interface to enter the "State Diagram 2 of Design 1 Interface Change" interface; select the data to be detected in the State Diagram 2 of Design 1 Interface Change interface to enter the "State Diagram 3 of Design 1 Interface Change" interface; click on the "Load" button below the State Diagram 3 of Design 1 Interface Change interface to enter the "State Diagram 4 of Design 1 Interface Change" interface; click on the first button (counting from top to bottom) under "Parameter Adjustment" in the left menu bar of the State Diagram 4 of Design 1 Interface Change interface, and the system starts parameter adjustment, and finally enters the "State Diagram 5 of Design 1 Interface Change" interface, and the State Diagram 5 of Design 1 Interface Change interface displays the results of this parameter adjustment; the human-computer interaction methods of Design 2, Design 3, and Design 4 are the same as that of Design 1, and will not be elaborated here. 10. Other Situations Requiring Explanation: Other Explanation: Design 2 and Design 4 claimed contain colors; the text and numerical content in each design interface do not limit the protection scope of this design.

1. Name of the product of this design: Graphical user interface for querying vehicle position for electronic equipment. 2. Purpose of this design product: This design product is used for an electronic equipment. 3. Key points of this design product: The graphical user interface. 4. The picture or photo that best illustrates the key points of the design: Design 1 change state diagram 1. 5. Designate Design 1 as the basic design. 6. Purpose of the graphical user interface: The graphical user interface of the product is a user interaction interface for querying vehicle parking information. The main view of Design 1 is a control panel page. Long press the component that records parking on the main view of Design 1 to enter the change state diagram 1 of Design 1, which displays the parking position and time of the target vehicle and other information. The user moves in the correct direction close to the target vehicle and enters the change state diagram 2 of Design 1, which displays the distance to the target vehicle in real time. The user arrives near the target vehicle and enters the change state diagram 3 of Design 1, which displays that the target vehicle has been found. The main view of Design 2 is a control panel page. Long press the component that records parking on the main view of Design 2 to enter the change state diagram 1 of Design 2, which displays the parking position and time of the target vehicle and other information. The user moves in the direction away from the target vehicle and enters the change state diagram 2 of Design 2. The main view of Design 3 is the control panel page. Long press the parking record component on the main view of Design 3 to enter the Design 3 change state diagram 1, which displays the parking location and time of the target vehicle. Users can find the vehicle by honking and flashing lights. Click the honking icon on the Design 3 change state diagram 1 to enter the Design 3 change state diagram 2. Click the flashing light icon on the Design 3 change state diagram 2 to enter the Design 3 change state diagram 3.