205 results about "EntireX" patented technology

An online system improves the development and deployment of LLM-based applications providing offering an application workflow user interface to developers of these applications. The application workflow UI is a user interface that includes different sections for the efficient design of a workflow and logic for an application operating on the online system. The application workflow UI allows the user to generate UI elements for stages within the overall application workflow and connect those stages through a simple to use interface. The application workflow UI improves the development process of LLM-based applications by allowing the user to set parameters for stages that involve prompting an LLM through the same interface. Specifically, the application workflow UI includes a parameters section that allows the user to specify parameters for prompting the LLM.

The invention discloses a zero-code development platform and method, electronic equipment and a medium, and belongs to the field of software development. The zero code development platform comprises a data protocol layer, an equipment layer, an operator and module library, a business logic layer and an application layer, the data protocol layer manages an industrial control protocol and a database system; the equipment layer accesses and manages hardware resources; the operator and module library provides a function operator, a resource component operator and an HMI module for calling; the business logic layer calls operators and modules in a module library in a graphical mode through a designer to construct a business task process; and the application layer provides a running environment for the business process and executes the process. According to the zero-code development platform, the development method, the electronic equipment and the medium provided by the invention, efficient development and management of complex industrial automation applications can be realized through a multi-layer architecture design, the overall performance of a system and the development experience of a user are improved, the development process is simplified, and the development period is shortened.

The invention discloses an open source software risk detection method and device based on an SBOM list, equipment and a medium, and relates to the technical field of software detection. The method comprises the following steps: acquiring an SBOM of target software, and analyzing component information of the SBOM; generating a feature character string according to the component information, and calculating a feature hash value through a hash algorithm; based on a known open source component, analyzing component information and vulnerability information of the component, calculating a feature hash value of the component, and storing the feature hash value to form a feature database; searching a matching item in a feature database based on the feature hash value of the target software component, and if the matching item is found, obtaining a license and vulnerability information of the target software component; if not, marking, manually judging and supplementing the data to the feature database; constructing a license compatibility matrix, and checking the compatibility of the obtained license and the overall license of the project; and comparing the acquired vulnerability information with a feature database, calculating vulnerability severity by combining a CVSS scoring model, and generating a priority repair report. According to the method, the software security detection speed and accuracy are improved.

The invention provides an automatic test system and method capable of being arranged and executed in batches, and the system comprises a test case arrangement plan table which is used for customizing the starting time, the precondition and the dependency relationship of each test item, whether execution is terminated or not when the test item fails, grouping execution, result archiving, product dependency and user-defined labels; the default configuration management module is used for parameterizing execution and supporting simple configuration to realize visual operation of the test script; the software framework supports an object-oriented language and provides multi-process processing to improve execution efficiency; and the distributed structure is used for realizing concurrent parallel execution across a plurality of processors or machines and supporting synchronous import and concurrent asynchronous execution of a plurality of test items. Through the support of multi-process processing and a distributed structure, the advantages of a multi-core processor and computing resources of cross-network nodes can be fully utilized, multiple test items are executed in parallel, the execution efficiency of automatic testing is greatly improved, and the overall testing period is shortened.

The invention discloses a high-precision multi-modal twin model assembly method based on a large language model and a multiple docking optimization mechanism. The whole system framework is composed of three modules: a database, an interaction system and human factors. Wherein the database module integrates a model library module, a user interaction data recording module and a temporary data recording module, and is used for storing and managing various data information required for constructing a virtual scene; the interactive system module is used as a core part, integrates a model dynamic loading module, a model accurate positioning module and a model adaptive assembly module, realizes instruction analysis and model generation by relying on a large language model, and combines a multi-docking optimization mechanism of eye movement tracking, gesture recognition, automatic docking and logic rule binding to realize multi-docking. Efficient and accurate interaction between the user and the database is effectively guaranteed; the method not only provides a solid foundation for virtual experiments and virtual-real symbiosis, but also significantly improves the construction efficiency and precision of digital twin model assembly.

The embodiment of the invention provides a localized large-scale language model service method and related equipment. The localized large-scale language model service method comprises the following steps: acquiring a request load index of an inference service in real time; according to the request load index, a five-dimensional parallelism strategy is determined in a calculation iteration period, and the five-dimensional parallelism strategy comprises parallelism degrees of five dimensions including data parallelism degree, tensor parallelism degree, pipeline parallelism degree, sequence parallelism degree and expert parallelism degree; and reconstructing the parallel execution mode of the current service into the five-dimensional parallel strategy without interruption, and executing the five-dimensional parallel strategy. According to the technical scheme provided by the embodiment of the invention, the system can be dynamically switched among a plurality of parallel dimensions under the condition of load fluctuation, and the overall calculation cost is minimized on the premise of ensuring the service quality.

The invention belongs to the technical field of cloud computing container platforms, and particularly relates to an elastic capacity expansion and contraction scheduling method based on mixed scaling under multi-resource constraint. Comprising the following steps: monitoring index information of a k8s cluster based on a Kubernetes container management platform; the method comprises the following steps: constructing a vertical-horizontal collaborative elastic expansion framework, aiming at the problems of low utilization rate of horizontal expansion and contraction resources and upper limit of vertical expansion and contraction Pod resources in a single scaling mode, carrying out resource state division of multi-level thresholds based on hybrid control vertical elastic expansion and contraction scheduling according to a cost-benefit-based energy efficiency model under multi-resource constraint, and carrying out resource state division on the multi-level thresholds based on the hybrid control vertical elastic expansion and contraction scheduling; enabling the system to switch strategies in different pressure scenes; by dynamically balancing single instance resource allocation and the number of cluster instances, the resource cost is minimized on the premise of guaranteeing the service quality. According to the method, resource utilization can be optimized to the maximum extent, cost waste is reduced, and the efficiency and reliability of the whole system are improved.

The invention discloses a cloud side-end collaborative architecture and task unloading method for an airport apron intelligent monitoring system, and relates to the technical field of cloud side-end collaborative computing. Comprising a terminal layer, an edge server layer and a cloud server layer, the task unloading method of the system under the cloud side-end collaborative architecture is designed and comprises the steps that a task model, a time delay model, an energy consumption model and an accuracy rate model of the system are constructed, and a multi-objective optimization problem of time delay-energy consumption-accuracy rate is formed; modeling an optimization problem into a Markov decision process, and designing a state space, an action space and a reward function required by deep reinforcement learning; and designing a task unloading method based on multi-agent deep reinforcement learning, and finding an optimal task unloading strategy of the system. According to the method, the computing tasks can be dynamically, scientifically and reasonably distributed and cooperatively scheduled among the terminal, the edge and the cloud, so that the time delay, the energy consumption and the accuracy are comprehensively optimized, and the overall performance of the system is improved.

The invention discloses an enterprise cross-department data collaborative optimization method based on a distributed architecture, which comprises the following steps: S1, deploying distributed computing nodes in each department of an enterprise, and connecting the distributed computing nodes through a network to form a distributed architecture, S2, establishing a multi-subject game model; s3, executing a multi-stage optimization process through the multi-agent game model; s4, in a local optimization stage, independently optimizing a department strategy of each department based on the enterprise cross-department data updated in real time; s5, in a cross-department cooperation and competition stage, all departments are based on shared data; s6, in the global optimization stage, the distributed system continuously updates data of all departments and feeds back the data to the multi-subject game model in the system; s7, applying a dynamic programming algorithm to dynamically adjust the enterprise overall collaboration strategy based on the real-time data and the historical data; and S8, in the distributed computing nodes, monitoring strategy execution results of all departments. According to the method, the data collaboration capability and decision-making efficiency in an enterprise are remarkably improved.

The invention discloses a low-code platform development method and a low-code platform system, and belongs to the technical field of software development, the overall architecture design of a low-code platform is carried out based on Vue2 and TypeScript, and the method comprises the combination of modularization, data management and visual editing function modules; the system comprises a component management module which comprises a component library and user-defined component management; the visual editor is used for realizing real-time layout adjustment and attribute configuration; the user previews the modification effect in real time by dragging and adjusting the position, the size and the hierarchical relationship of the component; the data management module is used for realizing data binding, API integration and dynamic data management; and the performance optimization module comprises a virtual DOM (Document Object Model) optimization and on-demand loading mechanism. The invention provides a development environment which is high in expandability and easy to use. A complex coding process is simplified into visual operation, and cooperation between developers and non-technical users is promoted.

The invention provides a method and system for dispatching heterogeneous GPUs through cross-cluster management software, and relates to the technical field of GPU resource dispatching.The method comprises the steps that physical topology data, hardware specification data and historical task records of GPU nodes are obtained through the cross-cluster management software, an association degree matrix between GPU units is established, and a topology grouping set is generated; calculating a communication efficiency index based on topology detection analysis, constructing a topological graph model, and determining an optimal communication path of a multi-card task; generating a perception scheduling strategy in combination with a multi-objective optimization algorithm, and selecting an optimal GPU combination from the grouping set; in the task execution process, a scheduling strategy is dynamically adjusted according to the real-time cluster state and task efficiency data, continuous adaptation of a physical topological structure and task requirements is kept, and finally efficient collaborative scheduling of cross-cluster heterogeneous GPU resources is achieved. According to the method, the scheduling efficiency of heterogeneous GPU resources in a distributed computing scene and the overall performance of the system are improved.

The invention discloses a hot updating and hot loading method for a digital twin development management platform, and aims to solve the problems that in the prior art, it is difficult to quickly respond to data changes, it is difficult to ensure that a model can reflect the state of a physical entity in real time, and it is difficult to ensure the consistency and real-time performance of data in the collecting, transmitting and processing processes. The method comprises the following steps: in response to a platform hot update instruction, analyzing content needing to be updated and a corresponding hot patch; and updating a platform configuration file, a platform asset file and a project and scene file, and after updating is completed, loading the new project and scene file into the digital twin development management platform to ensure that the platform loads the latest settings, projects and scenes. According to the method, the data change is quickly responded under the condition of not interrupting the service, so that the model can reflect the state of the physical entity in real time, and the overall flexibility, reliability and efficiency of the platform are improved.

Ansible IntelScan is a groundbreaking software tool, characterized by innovative ideas and streamlined code processes. It leverages Ansible to aid system administrators and system engineers in executing their daily tasks more efficiently and effectively. The software eliminates the need for Ansible Modules or Roles, leading to significant time savings and cost reductions for companies. With its modular, user-friendly design, Ansible IntelScan is primed for routine tasks and report creation, serving as an asset for management decision-making. Its ease of use enables even junior administrators with minimal shell scripting knowledge to operate the software, thereby enhancing overall work productivity and cost-efficiency. Ansible IntelScan is compatible with large-scale Linux server environments, supporting simultaneous operations on over 1000 physical and virtual servers. This innovative tool has been rigorously tested and validated on popular Linux distributions such as Red Hat, CentOS, Ubuntu, and Debian in DEV, QA, and Production environments.Ansible IntelScan streamlines numerous critical operations including Linux system inventory reporting, cloud configuration, identification of unused cloud volumes, creation of multiple users, and customized security vulnerability scanning. The tool's efficacy has been proven in a variety of applications, such as system inventory management, labor-hour reduction in security company operations, cost savings through the identification of unused cloud resources, timesaving in user creation for US DOD and government projects, and the creation of customized vulnerability scan tools for enhanced security compliance.With the incorporation of advanced features like playbook execution and report generation, Ansible IntelScan emerges as a dynamic and resourceful toolset for system administrators at all levels of experience.

The invention relates to a shared GPU resource fair scheduling method and system based on multi-dimensional priority, and belongs to the field of cloud computing and container orchestration.The method comprises the steps that pooling and virtualization segmentation are conducted on physical GPU resources in a cluster, and a unified GPU resource pool is formed; calculating the comprehensive priority weight of the task according to the user level, the task type and the service quality in combination with a multi-dimensional priority model; a scheduling decision is made based on a weighted dominant resource fair algorithm, task priority weights and dominant resource proportions are comprehensively considered, and fair scheduling and optimal distribution of GPU resources are achieved; through a resource monitoring and feedback mechanism, the GPU utilization rate, the task execution state and the resource allocation result are monitored in real time, priority parameters and scheduling weights are dynamically adjusted, and finally fair scheduling of shared GPU resources is achieved. According to the method, intelligent allocation, resource sharing and fair scheduling of tasks can be realized in a GPU virtualization environment, and the scheduling efficiency and the overall cluster utilization rate are improved.

This invention belongs to the field of simulation software secondary development and specifically provides a method for running R language and deploying machine learning algorithms in the AnyLogic software environment. The method includes: creating a Jar package that carries the method; constructing a project main package, including two first-level subpackages, where the first first-level subpackage is composed of two second-level subpackages; porting the constructed project code data into the AnyLogic software environment, and using AnyLogic software to package the active objects contained in the project into a plug-in library that complies with AnyLogic software communication specifications; inserting the plug-in library into the AnyLogic IDE for testing and use; bridging the AnyLogic environment with mainstream R language machine learning packages through the plug-in library, and calling the return values ​​of the R language machine learning in real time during simulation experiments. This method overcomes the complexity and technical challenges of effectively integrating and using R language machine learning methods in AnyLogic, improving the predictive capabilities and overall simulation performance of the simulation model.

The invention discloses an intelligent application development method based on user intention, and relates to the field of intelligent application development, and the method specifically comprises the following steps: step 1, establishing a data management platform for managing and storing application software data, step 2, analyzing various types of application software data in the data management platform, the method comprises the steps of (1) establishing a visual application software editor, (2) realizing basic development of application software by a developer based on the visual application software editor, (4) calculating a performance evaluation index of an initial application software model and determining a functional component which can cause the performance evaluation index to rise or fall, and (5) perfecting development of the application software based on an existing LLM model technology. 6, a developer confirms whether the application software is published or not by previewing the application software debugging effect, the development process of the application software is greatly simplified through the overall architecture design, the developer can rapidly build an application framework in a low-code mode, and meanwhile deep customization and optimization are conducted through an LLM provided by a platform.

The invention discloses a multi-user real-time collaborative editing method based on virtual nodes and distributed control, which adopts a Cooper distributed control architecture and introduces control nodes such as Broker, Cursor, Binder and the like to realize accurate control and efficient processing of collaborative instructions, ensure data consistency and system response speed and remarkably improve the real-time performance, stability and expansibility of a system. In combination with multi-version concurrency control (MVCC) and a real-time file system monitoring technology, synchronous editing and conflict management of the same file by multiple users are realized, and the system performance is optimized. And the virtual Peer node design is introduced, so that the front-end editor is seamlessly connected with the back-end service, and the compatibility and adaptability of the system are improved. Through a linkage mechanism of Broker and Emitter, fine-grained processing and efficient distribution of instructions are realized, and system performance in a high-frequency interaction scene is optimized. The whole technical scheme breaks through the limitation of an existing collaborative editing system, and a brand-new, efficient and stable solution is provided for multi-user real-time collaboration.

The invention discloses a visual cabinet based on JavaScript and Vue.js. A modularized architecture based on Vue is adopted to split a cabinet, equipment and a U bit into reusable UI components, the UI components comprise a cabinet component, an equipment component and a functional module, and the cabinet component is formed based on Rack.vue; the equipment component is formed based on Server Unit.vue, and is used for rendering different icons and status indicator lamps according to equipment types and supporting dragging to adjust the position of a U bit; the function module comprises a front-end framework, a UI (User Interface) library, a state management sub-module, a dragging library and a rear-end interaction sub-module; the front-end framework is Vue 3 Compression API (Application Program Interface) composite TypeScript, the UI library is composed of an Element Plus basic component and SVG / D3. Js used for customizing graphs, the state management sub-module is Pinia, and the drag library is Vue Dragable or native HTML5 dragmp; and the Drop API and the rear-end interaction sub-module are formed by compounding Axios with a WebSocket used for pushing real-time data. The invention further discloses a creation method. The method comprises the following steps: creating an overall skeleton based on HTML; rendering and beautifying the style based on the CSS; various operations are performed, the remaining capacity is automatically calculated, and machine information is displayed for verification.

The invention provides a code testing method and device, electronic equipment and a storage medium, and the method comprises the steps: responding to a to-be-tested code submission operation, and generating a target test case according to a to-be-tested abstract syntax tree and a to-be-tested demand document of a to-be-tested code; generating a target UI test script corresponding to the target test case according to interactive elements in the to-be-tested code user interface; and executing a test task constructed based on the target test case and the target UI test script to obtain a test result. The labor cost and the time overhead of a test link are remarkably reduced, a rapid feedback closed loop from code submission to test execution is constructed, and the software development efficiency and the quality guarantee capability are integrally improved.

The invention relates to an intelligent application generation method and device, and belongs to the technical field of application generation, and the method comprises the steps: generating an answer outline or a solution framework after a big model receives a question of a user; judging whether the large model receives a request satisfying the answer outline or the solution framework or not; if the judgment result is that the satisfactory request is received, the large model fines the content of the answer outline or the solution framework and sends the formatted output content to the low-code engine; and the low-code engine configures a data model, interface elements and business logic corresponding to the application according to logic and data requirements of the output content so as to generate the application. According to the system composed of the large model and the low-code engine, the comprehensive and efficient intelligent application generation method is achieved, the threshold for entering the field of intelligent application development is lowered, non-professional developers can also rapidly operate, and the overall efficiency of application from design to deployment is greatly improved by optimizing the development process.

The invention discloses a general assembly process virtual-real mapping method of a digital twin workshop and a monitoring system. The method comprises the following steps: S1, acquiring various production data in a final assembly process of a packaging workshop based on an OPC UA protocol and transmitting the data in real time; s2, constructing a behavior logic model based on a Petri network to describe a virtual entity motion rule; s3, constructing a 3D digital twin workshop model subjected to lightweight processing; s4, analyzing and decomposing complex behaviors of the production equipment, and cooperating with overall operation and control; and S5, simulation is carried out in the Unity 3D engine, and real-time driving and monitoring are realized. Wherein the data preprocessing comprises format unification, data screening and classified induction; real-time transmission relates to OPC UA client / server connection, and data is distributed to a database and Unity 3D; real-time driving is achieved by dividing motion data according to frames and calling motion scripts frame by frame. The system comprises a data module, a modeling module, a motion module and a driving module. The problems of model redundancy and system load are solved, and transparent, efficient and intelligent management of a production field is realized.

The embodiment of the invention provides an object interface testing method and device.The method comprises the steps that a testing script set of a to-be-tested object is obtained, the to-be-tested object comprises at least one to-be-tested node, and the testing script set comprises an initial testing script and at least one first testing script; the first test script is obtained according to a test operation corresponding to one of the to-be-tested nodes; executing the initial test script, and logging in an initial interface of the to-be-tested object; and based on the initial interface, respectively executing the at least one first test script according to the association relationship among the to-be-tested nodes, and obtaining an interface test result of the to-be-tested object. According to the embodiment of the invention, at least one first test script is executed according to the association relationship among the to-be-tested nodes, and the to-be-tested nodes can be tested in sequence, so that the interface test of the whole to-be-tested object is realized in one test process, and the interface test result of the whole to-be-tested object is obtained; manual compiling of test scripts is not needed, and test script execution efficiency is improved.

The application discloses a kind of underground mine three-dimensional entity model establishing method, device and medium.The method includes: S1, AutoCAD software imports two-dimensional drawing, and drawing is divided into different layers according to mining middle section;S2, clean up invalid graphics;S3, conversion line type, clean up layer;S4, process middle section broken line, closed loop;S5, target middle section DXF file is imported into GEOVIA Surpac software, generates str file;S6, adjust point elevation and line segment slope, generate floor str file;S7, adjust floor str file, generate top surface str file;S8, create floor and roof DTM model;S9, close bottom surface and top surface DTM model, form target middle section three-dimensional entity model;S10, combination forms overall three-dimensional entity model.The application makes full use of AutoCAD software to quickly process two-dimensional drawing on the advantages of messy point, redundant line and control layer, combined with GEOVIA Surpac software three-dimensional space modeling technology, improve the efficiency of two-dimensional plane figure to establish complex three-dimensional entity model.

1. Name of the product of this design: Block body of a graphical user interface for IP confirmation of electronic equipment. 2. Purpose of the product of this design: an electronic device used to run programs and display a graphical user interface for human-computer interaction. 3. The key design features of this design product lie in the solid-line content of the graphical user interface; the dotted-line content does not constitute part of the design for which protection is sought. 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 overall appearance design of the interface is used to enable the confirmation and protection of innovative and creative IP rights, and the block-based, grid-based and site-based display of IP objects and their cultural information in an autonomous / credible / visible / measurable authorized application strategy. The local appearance design of the interface is used for the display of block subject information, graphic content, process links, version information, site logs, etc. and its global dialogue. 7. Human-computer interaction method of graphical user interface: In the main view of Design 1, the user can click the arrow on the right side of the column information module at the top of the interface to expand the block content bar; can slide the picture and text list left and right to browse more list information, can click any list module to enter the picture and text browsing / operation page; can click "On the Chain" to enter the corresponding interface; can click the "Call", "Version", "Place Log" controls of the process progress information module to enter the corresponding interface; can click the "Please Enter" or "Prompt Word" column at the bottom to enter content information, and can also click the icon on its right to enter other homepage interfaces; can click the "Open Favorite Wallet" at the bottom and the controls on the right to enter the corresponding service interface; can also click any function control at the bottom of the interface to call up the corresponding function service, such as: shooting, voice, picture, file, time, cost, reference, etc. The human-computer interaction method of Design 2 is the same as that of Design 1. In the main view of Design 3, when the user slides the picture and text list module to the left, the display of other list module contents is switched, presenting the interface change from the main view of Design 3 to the interface change state diagram of Design 3.

1. Name of the product of this design: Graphical user interface for an enterprise integrated service platform for electronic devices. 2. Purpose of this design product: used as a whole for electronic equipment and partially for comprehensive enterprise services. 3. The key design point of this design product lies in the content used for 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 for comprehensive enterprise services. Among them, the main view of Design 1 is the initial interface of the enterprise comprehensive service platform. The left and right sides of the table header in the main view are menu options, which are divided into six modules: asset overview, organizational management, risk warning, economic operation, investment management, and property rights management. The two basic functions are: enterprise selection and time selection. In the main view of Design 1, click the Organization Management module to enter the Design 1 interface change status diagram, which shows a statistical chart of organizational distribution, age distribution, length of service ranking, member type, gender and age distribution, and number of members. In the main view of Design 2, click the risk warning module to enter the Design 2 interface change status diagram, which shows profitability, risk capacity, operating capacity, and growth capacity. In the main view of Design 3, click the economic operation module to enter the Design 3 interface change status diagram, which shows the cost profit rate, debt ratio, asset turnover rate, and revenue growth rate. In the main view of Design 4, click the Investment Management module to enter the Design 4 interface change status diagram, which displays the number of statistical projects, project amount, category proportion, number of statistical projects, planned investment amount, and cumulative investment. In the main view of Design 5, click the Property Rights Management module to enter the Design 5 interface change status diagram, which shows the enterprise level, property rights form, project list, business quantity, and industry.

The invention provides a data transmission method and device for a variable-length data class of a high-level architecture standard, and the method comprises the steps: constructing a standard data object of the variable-length data class in an object model template of the high-level architecture standard, and generating a federal standard file; calling a bottom support environment and data length analysis and release operation of a release processing function based on a federal standard file through a data sending end federal member, and releasing transmission data of a variable-length data class to a distributed network; through the data subscription end federation member, the bottom layer supporting environment and the callback function of the variable-length data class are called based on the federation standard file, the transmission data of the variable-length data class are received, direct and efficient transmission of the dynamic length data is achieved, the data bearing flexibility and the operation efficiency of the simulation system are remarkably improved, and the simulation efficiency is improved. The development and maintenance process is simplified through a standardized interface, and the overall expandability of the system is enhanced on the basis of being completely compatible with an existing framework.

The present application discloses a method for deploying and maintaining a software system, a deployment and maintenance system, and a service platform. The present application deploys a dynamic component device at least in the environment to which the client belongs, and deploys a series of related management or auxiliary devices including a management device, a downloading device, and a shared storage medium. On this basis, the components and configuration data used to constitute the software system are downloaded through the downloading device and loaded or overwritten and updated to the shared storage medium. Various functional components are modularly developed through the dynamic component device, components are selected as needed, and the components are configured and associated into an overall software system. In addition, the overall or partial components / component associations of the software system are dynamically loaded, unloaded, and changed according to changes in the components and configuration data in the shared storage medium. The software system is monitored and controlled through the management device, thereby solving the customization, management, upgrade, and maintenance problems of the enterprise system to a certain extent.

1. The name of the product of this design: operating interface of the virtual machine graphical user interface of the NAS device of the computer. 2. Purpose of this design product: To use part of the hard disk and memory capacity of the physical machine as the hard disk and memory capacity of the virtual machine, and to simulate a complete computer system with complete hardware system functions and running in a completely isolated environment through software. 3. The design highlights of this appearance design product are located in the part 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: This graphical user interface, in its entirety and in part, is used to manage the virtual machines of the NAS device. 7. Human-computer interaction mode of the graphical user interface: The main view of Design 1 is the display interface of the device. Click the "Manage" button of the main view of Design 1 to enter the Design 1 change state diagram 1, and click "Storage" of the Design 1 change state diagram 1 to enter the Design 1 change state diagram 2; the main view of Design 2 is the display interface of the device. Click the "Manage" button of the main view of Design 2 to enter the Design 2 change state diagram 1, and click "Network" of the Design 2 change state diagram 1 to enter the Design 2 change state diagram 2; the main view of Design 3 is the display interface of the device. Click the "Manage" button of the main view of Design 3 to enter the Design 3 change state diagram 1, and click "Log" of the Design 3 change state diagram 1 to enter the Design 3 change state diagram 2; the main view of Design 4 is the display interface of the device. Click the "Manage" button of the main view of Design 4 to enter the Design 4 change state diagram 1, and click "Mirror" of the Design 4 change state diagram 1 to enter the Design 4 change state diagram 2. 8. Description of other situations that need explanation: Design 1 reference figure 1 is a reference schematic diagram of the main view, and Design 1 reference figure 2 is a reference schematic diagram of the change state diagram. 9. Other situations that need to be explained Other explanations: The dotted line in the view shows the part of the graphical user interface, which does not constitute the part for which protection is required for this design; the parts other than the dotted line are the parts for which protection is required for this design.