A web-based mineral exploration platform static demonstration system

Abstract

This invention relates to the field of graphics processing technology and discloses a web-based static demonstration system for a mineral exploration platform. The system includes: a data processing module that constructs an overlay display interface of a 3D geological model and a 2D data layer; a target area analysis module that renders the range of high-potential target areas on the 3D geological model or 2D data layer; a task planning module that marks associated equipment locations and exploration paths on the 3D geological model; an equipment management module that displays static equipment ledger information and, in conjunction with an equipment monitoring panel, displays preset equipment operating parameter change trend curves; and an access control module that loads preset role permission data and configures the rendered interface menu and operation buttons according to the permissions of three roles: administrator, technician, and visitor. These modules are integrated into a single web-based page in a component-based manner, sharing a unified geographic coordinate system and display container, and responding to user operations. This reduces development costs and improves user experience and information expression capabilities.

Description

Technical Field

[0001] This invention relates to the field of graphics processing technology, and more specifically, to a static demonstration system for a web-based mineral exploration platform. Background Technology

[0002] The development of mineral exploration platforms typically requires multiple supports, including backend services, databases, and algorithm models. This results in long development cycles and high trial-and-error costs during the product prototype stage. This is especially true for core functional modules such as AI target area analysis, where data training and model optimization are required before front-end interactive verification can proceed. Rework costs are extremely high when requirements change. Existing exploration demonstration solutions often consist of static image displays or patchwork functional modules, lacking the ability to integrate and display multiple modules. Users struggle to simultaneously experience the combined effects of geological visualization, equipment monitoring, task planning, and target area analysis on a single interface. Furthermore, the visualization methods for different types of data (including 3D terrain raster data, stratigraphic structure vector data, equipment location coordinate data, and target area prediction spatial data) are relatively limited, making it difficult to achieve the integrated display of 3D models and 2D annotation information, thus restricting information expression capabilities.

[0003] To address the aforementioned issues, no effective solutions have been proposed in the existing technology. Therefore, how to build a static demonstration system that can integrate multi-module displays, support multi-type data visualization, and be used for product prototype verification while reducing development costs has become an urgent technical problem to be solved in this field. Summary of the Invention

[0004] This application provides a web-based static demonstration system for a mineral exploration platform. It features a data processing module that overlays a 3D geological model with 2D data layers, a target area analysis module that simulates and renders high-potential target areas based on static prediction data, a task planning module that links exploration tasks with spatial markers, an equipment management module that displays ledger information and operational parameter curves, and an access control module that simulates role-based hierarchical access. This system achieves a complete visual demonstration of the core functions of a mineral exploration platform without requiring backend services or real data support. This effectively reduces product prototype development costs and enhances the user experience of multi-module integrated displays and the visualization capabilities of various data types.

[0005] To achieve the above objectives, the present invention provides a web-based static demonstration system for a mineral exploration platform, comprising: The data processing module loads static geological sample data and equipment simulation data, and constructs an interface for overlaying and displaying three-dimensional geological models and two-dimensional data layers. The target area analysis module reads the built-in static target area prediction data and renders the range of high-potential target areas on a three-dimensional geological model or two-dimensional data layer. The task planning module stores a list of preset exploration tasks and marks the locations of associated equipment and exploration paths on the 3D geological model. The equipment management module displays static equipment ledger information, and in conjunction with the equipment monitoring panel, it displays preset trend curves of equipment operating parameters. The access control module loads preset role permission data and renders the interface menu and operation buttons according to the permission configuration of three types of roles: administrator, technical personnel and visitor. The modules are integrated into the same page in a component-based manner on the web platform, sharing a unified geographic coordinate system and display container, and responding to user operations.

[0006] Furthermore, an interface for overlaying and displaying the three-dimensional geological model and the two-dimensional data layers is constructed, specifically including: The WebGL graphics engine is used to parse the topographic elevation data, stratigraphic structure data and mineralization alteration zone distribution data in static geological sample data to generate a three-dimensional geological model with spatial coordinate information. The Canvas or SVG technology is used to parse the equipment point coordinates and operating status parameters in the equipment simulation data, and generate a two-dimensional data layer containing equipment icons, status indicators and real-time data labels; The three-dimensional geological model and the two-dimensional data layer are spatially registered using a unified geographic coordinate system and rendered in the same display container.

[0007] Furthermore, the high-potential target area is rendered using a heatmap on a three-dimensional geological model or two-dimensional data layer, specifically including: Read the built-in static target area prediction data, which includes an array of polygon coordinates for each target area boundary and the corresponding simulated confidence level. Based on the coordinate array of the boundary polygons of each target area, the coordinate array is mapped to the corresponding spatial location of the three-dimensional geological model or two-dimensional data layer through geographic coordinate system transformation; Based on the simulated confidence level of each target area, the corresponding color value and transparency parameter are dynamically assigned according to the preset color mapping rules, where the confidence level value and the color value are positively correlated. A gradient fill effect is generated within the target area boundary using a heatmap rendering method to form a visual representation of the high-potential target area, and an outline is superimposed at the target area boundary to enhance boundary recognition.

[0008] Furthermore, the corresponding color values ​​and transparency parameters are dynamically assigned according to preset color mapping rules, specifically including: A preset color mapping table is provided, which contains the correspondence between multiple confidence intervals and color values ​​and transparency parameters. Read the simulated confidence level of each target region, determine the confidence level interval to which the simulated confidence level belongs, and extract the corresponding color value and transparency parameter as the target region allocation result; For a target area with a simulated confidence level equal to the interval boundary value, the color values ​​of two adjacent intervals are weighted and mixed to generate transition color values ​​and transparency parameters. The assigned color values ​​and transparency parameters are used as fill parameters within the boundary range of each target area, so that target areas with different confidence levels present differentiated color and transparency display effects.

[0009] Furthermore, the locations of associated equipment and exploration routes are marked on the three-dimensional geological model, specifically including: The associated equipment identifiers in the exploration task list are obtained and their location coordinates are mapped to the three-dimensional geological model to generate equipment markers containing equipment icons and status identifiers, wherein equipment with different operating statuses corresponds to equipment icons of different colors. Map the exploration path coordinate array in the exploration task list to the three-dimensional geological model, render the path connection with different colors according to the task status, connect each coordinate point in sequence to generate the exploration path connection, and generate node markers at the path start, end and turning points. The equipment markers, exploration path lines, and node markers are overlaid on the 3D geological model, and a pop-up window displaying equipment information, node location information, or task information appears in response to click operations.

[0010] Furthermore, the device management module specifically includes: The ledger display unit is used to display static equipment ledger information. The static equipment ledger information includes equipment identifier, equipment name, equipment type, operating status and real-time location coordinate fields, wherein the operating status includes three states: online, offline and maintenance. The ledger editing unit is used to respond to user editing operations on equipment ledger information, locate the target equipment based on the equipment identifier, update the corresponding fields and refresh the interface display synchronously. The monitoring panel unit is used to extract preset equipment operating parameter data based on the equipment identifier, generate operating parameter change trend curves, and dynamically update the curve display in response to user switching operations on the time range.

[0011] Furthermore, the access control module specifically includes: Stores preset role permission data, including role identifiers for three types of roles and their corresponding permission configuration information; Listen for front-end route redirection events, obtain the current user's role before the user accesses the page, determine whether the target page is within the authorized scope, and if not, intercept the redirection and display an "no permission" message; Based on the current user role, obtain the corresponding permission configuration information, dynamically render the interface menu and operation buttons, and only display the menu items and operation buttons that the current role has the right to access.

[0012] Furthermore, it shares a unified geographic coordinate system and display container and responds to user actions, specifically including: The visualization content generated by the data processing module, target area analysis module, task planning module, and equipment management module is all displayed in the same display container in the demonstration system. It is overlaid and rendered based on a unified geographic coordinate system to demonstrate the spatial fusion display effect of multiple types of data. The demonstration system responds to user operations by synchronously updating the display positions of the visual elements generated by each module. Each module's response to user actions is limited to updating the visual effects of the front-end interface, without involving back-end data interaction or actual business logic processing. All interactive data comes from pre-set static sample data on the front end.

[0013] Furthermore, the demonstration system responds to user operations on the demonstration system, specifically including: Responding to user clicks on the legend, it controls the visibility of the 3D geological model, equipment markers, exploration paths, and target area, and is used to demonstrate the classification and viewing of multi-module data; In response to user operations of adding, deleting, modifying, and querying task items, the task list in the front-end status management is updated, and the display status of equipment markers and exploration paths on the 3D geological model is updated synchronously to demonstrate the linkage between the task planning module and the visualization module. In response to user editing of equipment ledger information, update the display of equipment fields and the status of equipment markers to demonstrate the linkage between the equipment management module and the visualization module; In response to user clicks on equipment markers, exploration path nodes, or target area ranges, preset equipment information, location information, or target area simulation confidence information are displayed in a floating window to demonstrate cross-module data retrieval and display. In response to the switching operation of the current role, the interface menu and operation buttons are re-rendered to demonstrate the integrated management of the access control module for multiple module function entry points.

[0014] Furthermore, the demonstration showcases the spatial fusion and display effects of multiple data types, specifically including: The various data types are displayed in the same display container as data layers, and the data layers include: A 3D geological model layer used to display topography and stratigraphic structure; The mineralization alteration zone layer is used to show the spatial distribution of mineralization alteration zones; The equipment marker layer is used to display the location and operating status of the equipment; The exploration path layer is used to display the path connections planned for the mission. The target area layer is used to display the distribution and confidence level of high-potential target areas; Simultaneously, in response to a user's click on any data layer, the system generates a floating window displaying preset information corresponding to the layer.

[0015] Compared with existing technologies, the beneficial effects of this invention are as follows: by setting up a data processing module, target area analysis module, task planning module, equipment management module, and access control module, and integrating them into the same page in a component-based manner on the Web terminal, sharing a unified geographic coordinate system and display container, it achieves a complete visualization of the core functions of the mineral exploration platform in a purely front-end static manner without the need for back-end services and real data support. This significantly reduces the product prototype development cost, shortens the requirements communication cycle, and provides efficient and low-cost technical support for the product form verification of the mineral exploration platform. Attached Figure Description

[0016] Various other advantages and benefits will become apparent to those skilled in the art upon reading the following detailed description of preferred embodiments. The accompanying drawings are for illustrative purposes only and are not intended to limit the invention. Furthermore, the same reference numerals denote the same parts throughout the drawings. In the drawings: Figure 1 The diagram shows a structural schematic of a web-based mineral exploration platform static demonstration system according to an embodiment of the present invention. Detailed Implementation

[0017] The specific embodiments of the present invention will be described in further detail below with reference to the accompanying drawings and examples. The following examples are for illustrative purposes only and are not intended to limit the scope of the invention.

[0018] In the description of this application, it should be understood that the terms "center", "upper", "lower", "front", "rear", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer", etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are only for the convenience of describing this application and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on this application.

[0019] The terms "first" and "second" are used for descriptive purposes only and should not be construed as indicating or implying relative importance or implicitly specifying the number of technical features indicated. Therefore, a feature defined as "first" or "second" may explicitly or implicitly include one or more of that feature. In the description of this application, unless otherwise stated, "a plurality of" means two or more.

[0020] In the description of this application, it should be noted that, unless otherwise expressly specified and limited, the terms "installation," "connection," and "linking" should be interpreted broadly. For example, they can refer to a fixed connection, a detachable connection, or an integral connection; they can refer to a mechanical connection or an electrical connection; they can refer to a direct connection or an indirect connection through an intermediate medium; and they can refer to the internal connection between two components. Those skilled in the art can understand the specific meaning of the above terms in this application based on the specific circumstances.

[0021] The following is a description of preferred embodiments of the present invention in conjunction with the accompanying drawings.

[0022] This invention is implemented on a web-based platform. Specifically, the web-based static demonstration system for mineral exploration platforms is deployed and run using a pure front-end architecture. The system is deployed on a web server, and users can load and run it simply by accessing the system address through a browser, without needing to install any client software or plugins. All demonstration data is pre-installed in the front-end code in JSON format. This demonstration data includes static geological sample data, equipment simulation data, static target area prediction data, a preset exploration task list, static equipment ledger information, and preset role permission data. Each module stores and shares data based on a front-end state management library. During system runtime, the demonstration data is loaded via HTTP requests or direct import. Various user operations on the system, including clicking legends, adding, deleting, modifying, and querying tasks, editing equipment information, clicking markers, and switching roles, only update the data in the front-end state management, synchronously triggering changes to the interface visual effects, without involving any back-end data interaction or persistent database storage. After the user refreshes the page, all data is restored to the preset initial state, ensuring that each demonstration starts from a unified baseline state.

[0023] like Figure 1 As shown, an embodiment of the present invention discloses a static demonstration system for a web-based mineral exploration platform, comprising: 1. Data processing module: Utilizes a front-end graphics engine to load static geological sample data and equipment simulation data, and constructs an interface for overlaying and displaying three-dimensional geological models and two-dimensional data layers. In this embodiment, the construction of an overlay display interface between a three-dimensional geological model and a two-dimensional data layer specifically includes: The WebGL graphics engine is used to parse the topographic elevation data, stratigraphic structure data and mineralization alteration zone distribution data in static geological sample data to generate a three-dimensional geological model with spatial coordinate information. The Canvas or SVG technology is used to parse the equipment point coordinates and operating status parameters in the equipment simulation data, and generate a two-dimensional data layer containing equipment icons, status indicators and real-time data labels; The three-dimensional geological model and the two-dimensional data layer are spatially registered using a unified geographic coordinate system and rendered in the same display container.

[0024] 2. Target area analysis module: Reads built-in static target area prediction data and renders the range of high-potential target areas on a 3D geological model or 2D data layer. In this embodiment, the high-potential target area is rendered using a heatmap on a three-dimensional geological model or two-dimensional data layer, specifically including: Read the built-in static target area prediction data, which includes an array of polygon coordinates for each target area boundary and the corresponding simulated confidence level. Based on the coordinate array of the boundary polygons of each target area, the coordinate array is mapped to the corresponding spatial location of the three-dimensional geological model or two-dimensional data layer through geographic coordinate system transformation; Based on the simulated confidence level of each target area, the corresponding color value and transparency parameter are dynamically assigned according to the preset color mapping rules, where the confidence level value and the color value are positively correlated. A gradient fill effect is generated within the target area boundary using a heatmap rendering method to form a visual representation of the high-potential target area, and an outline is superimposed at the target area boundary to enhance boundary recognition.

[0025] In this embodiment, the corresponding color values ​​and transparency parameters are dynamically allocated according to a preset color mapping rule, specifically including: A preset color mapping table is provided, which contains the correspondence between multiple confidence intervals and color values ​​and transparency parameters. Read the simulated confidence level of each target region, determine the confidence level interval to which the simulated confidence level belongs, and extract the corresponding color value and transparency parameter as the target region allocation result; For a target area with a simulated confidence level equal to the interval boundary value, the color values ​​of two adjacent intervals are weighted and mixed to generate transition color values ​​and transparency parameters. The assigned color values ​​and transparency parameters are used as fill parameters within the boundary range of each target area, so that target areas with different confidence levels present differentiated color and transparency display effects.

[0026] The beneficial effects of the above technical solution are as follows: by rendering the target area prediction data as a heatmap, dynamically allocating color values ​​and transparency according to the simulated confidence level, and using a gradient fill effect to form a visual representation of high-potential target areas, while overlaying outlines to enhance boundary recognition, users can intuitively distinguish the distribution of target areas at different confidence levels; for target areas with confidence levels at the boundary values ​​of the interval, a transition color is generated by weighted mixing with reference to the color values ​​of adjacent intervals, which effectively avoids color abrupt changes at the boundary of the target area, improves the continuity and naturalness of the visualization, and provides a clear and intuitive display effect of target area analysis results for product prototype demonstration.

[0027] 3. Task planning module: Based on the front-end status management, it stores a list of preset exploration tasks, responds to user operations of adding, deleting, modifying and querying task items, and marks the locations of related equipment and exploration paths on the 3D geological model. In this embodiment, the locations of associated equipment and exploration paths are marked on the three-dimensional geological model, specifically including: The associated equipment identifiers in the exploration task list are obtained and their location coordinates are mapped to the three-dimensional geological model to generate equipment markers containing equipment icons and status identifiers, wherein equipment with different operating statuses corresponds to equipment icons of different colors. Map the exploration path coordinate array in the exploration task list to the three-dimensional geological model, render the path connection with different colors according to the task status, connect each coordinate point in sequence to generate the exploration path connection, and generate node markers at the path start, end and turning points. The equipment markers, exploration path lines, and node markers are overlaid on the 3D geological model, and a pop-up window displaying equipment information, node location information, or task information appears in response to click operations.

[0028] 4. Equipment Management Module: Displays static equipment ledger information, responds to user editing operations, and displays preset equipment operating parameter change trend curves in conjunction with the equipment monitoring panel; In this embodiment, the device management module specifically includes: The ledger display unit is used to display static equipment ledger information. The static equipment ledger information includes equipment identifier, equipment name, equipment type, operating status and real-time location coordinate fields, wherein the operating status includes three states: online, offline and maintenance. The ledger editing unit is used to respond to user editing operations on equipment ledger information, locate the target equipment based on the equipment identifier, update the corresponding fields and refresh the interface display synchronously. The monitoring panel unit is used to extract preset equipment operating parameter data based on the equipment identifier, generate operating parameter change trend curves, and dynamically update the curve display in response to user switching operations on the time range.

[0029] In this embodiment, each device corresponds to a set of time-series data, including timestamps and corresponding operating parameter values. These operating parameter values ​​include device temperature, vibration frequency, and power consumption. The monitoring panel unit extracts the time-series data of the device selected by the user from preset data. It initializes a line chart component using the ECharts chart library, setting the horizontal axis to time and the vertical axis to parameter values. The extracted data points are then plotted sequentially on the coordinate system to form a trend curve of operating parameter changes. The curve supports mouse hover to display specific values ​​and zoom for detailed viewing. The monitoring panel unit also provides a time range switching button, including options for the last hour, last day, last week, and all time ranges. Responding to the user's time range switching operation, it filters the time-series data according to the selected time range, extracts data points within that time range, and re-renders the curve to achieve dynamic updates.

[0030] The beneficial effects of the above technical solution are: it realizes centralized management of equipment information and real-time simulation of operating status, enabling users to quickly grasp the changing patterns of equipment operating status and providing data support for equipment monitoring and maintenance decisions.

[0031] 5. Access control module: Loads preset role permission data through front-end route guards, and renders interface menus and operation buttons according to the permission configuration of three types of roles: administrator, technical personnel and visitor.

[0032] In this embodiment, the access control module specifically includes: Stores preset role permission data, including role identifiers for three types of roles and their corresponding permission configuration information; Listen for front-end route redirection events, obtain the current user's role before the user accesses the page, determine whether the target page is within the authorized scope, and if not, intercept the redirection and display an "no permission" message; Based on the current user role, obtain the corresponding permission configuration information, dynamically render the interface menu and operation buttons, and only display the menu items and operation buttons that the current role has the right to access.

[0033] 6. The modules are integrated into the same page in a component-based manner on the Web platform, sharing a unified geographic coordinate system and display container, and responding to user operations.

[0034] In this embodiment, a unified geographic coordinate system and display container are shared and user actions are responded to, specifically including: The visualization content generated by the data processing module, target area analysis module, task planning module, and equipment management module is all displayed in the same display container in the demonstration system. It is overlaid and rendered based on a unified geographic coordinate system to demonstrate the spatial fusion display effect of multiple types of data. The demonstration system responds to user operations by synchronously updating the display positions of the visual elements generated by each module. Each module's response to user actions is limited to updating the visual effects of the front-end interface, without involving back-end data interaction or actual business logic processing. All interactive data comes from pre-set static sample data on the front end.

[0035] In this embodiment, the demonstration system responds to user operations on the demonstration system, specifically including: Responding to user clicks on the legend, it controls the visibility of the 3D geological model, equipment markers, exploration paths, and target area, and is used to demonstrate the classification and viewing of multi-module data; In response to user operations of adding, deleting, modifying, and querying task items, the task list in the front-end status management is updated, and the display status of equipment markers and exploration paths on the 3D geological model is updated synchronously to demonstrate the linkage between the task planning module and the visualization module. In response to user editing of equipment ledger information, update the display of equipment fields and the status of equipment markers to demonstrate the linkage between the equipment management module and the visualization module; In response to user clicks on equipment markers, exploration path nodes, or target area ranges, preset equipment information, location information, or target area simulation confidence information are displayed in a floating window to demonstrate cross-module data retrieval and display. In response to the switching operation of the current role, the interface menu and operation buttons are re-rendered to demonstrate the integrated management of the access control module for multiple module function entry points.

[0036] This embodiment demonstrates the spatial fusion and display effect of multiple types of data, specifically including: The various data types are displayed in the same display container as data layers, and the data layers include: A 3D geological model layer used to display topography and stratigraphic structure; The mineralization alteration zone layer is used to show the spatial distribution of mineralization alteration zones; The equipment marker layer is used to display the location and operating status of the equipment; The exploration path layer is used to display the path connections planned for the mission. The target area layer is used to display the distribution and confidence level of high-potential target areas; Simultaneously, in response to a user's click on any data layer, the system generates a floating window displaying preset information corresponding to the layer.

[0037] The beneficial effects of the above technical solution are as follows: By overlaying the content of the rendering module, the spatial fusion display of multiple data layers, such as 3D geological models, mineralization alteration zones, equipment markers, exploration paths, and target area ranges, is realized. Users can independently control the visibility of each layer by clicking on the legend, making it easy to view different data by category. The system responds to the simulated operations of users on task items, equipment ledger information, and role permissions, synchronously updating the display status of equipment markers and exploration paths on the 3D geological model, as well as the interface menu buttons. It also displays preset equipment information, location information, or target area confidence information in the form of a floating window. All operation responses are limited to the visual effect update of the front-end interface and do not involve back-end data interaction or actual business logic processing, effectively demonstrating the data linkage and integrated management effect between multiple modules.

[0038] In the description of the above embodiments, specific features, structures, materials, or characteristics may be combined in any suitable manner in one or more embodiments or examples.

[0039] Although the invention has been described above with reference to embodiments, various modifications can be made and components can be replaced with equivalents without departing from the scope of the invention. In particular, as long as there is no structural conflict, the features in the embodiments disclosed in this invention can be combined with each other in any way. The fact that not all of these combinations are described in this specification is merely for the sake of brevity and resource conservation.

[0040] It will be understood by those skilled in the art that the above are merely preferred embodiments of the present invention and are not intended to limit the present invention. Although the present invention has been described in detail with reference to the foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing embodiments or make equivalent substitutions for some of the technical features. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. A static demonstration system for a web-based mineral exploration platform, characterized in that, include: The data processing module loads static geological sample data and equipment simulation data, and constructs an interface for overlaying and displaying three-dimensional geological models and two-dimensional data layers. The target area analysis module reads the built-in static target area prediction data and renders the range of high-potential target areas on a three-dimensional geological model or two-dimensional data layer. The task planning module stores a list of preset exploration tasks and marks the locations of associated equipment and exploration paths on the 3D geological model. The equipment management module displays static equipment ledger information, and in conjunction with the equipment monitoring panel, it displays preset trend curves of equipment operating parameters. The access control module loads preset role permission data and renders the interface menu and operation buttons according to the permission configuration of three types of roles: administrator, technical personnel and visitor. The modules are integrated into the same page in a component-based manner on the web platform, sharing a unified geographic coordinate system and display container, and responding to user operations.

2. The static demonstration system for a web-based mineral exploration platform according to claim 1, characterized in that, Constructing an interface for overlaying and displaying 3D geological models and 2D data layers, specifically including: The WebGL graphics engine is used to parse the topographic elevation data, stratigraphic structure data and mineralization alteration zone distribution data in static geological sample data to generate a three-dimensional geological model with spatial coordinate information. The Canvas or SVG technology is used to parse the equipment point coordinates and operating status parameters in the equipment simulation data, and generate a two-dimensional data layer containing equipment icons, status indicators and real-time data labels; The three-dimensional geological model and the two-dimensional data layer are spatially registered using a unified geographic coordinate system and rendered in the same display container.

3. The static demonstration system for a web-based mineral exploration platform according to claim 1, characterized in that, High-potential target areas are rendered using heatmaps on 3D geological models or 2D data layers, specifically including: Read the built-in static target area prediction data, which includes an array of polygon coordinates for each target area boundary and the corresponding simulated confidence level. Based on the coordinate array of the boundary polygons of each target area, the coordinate array is mapped to the corresponding spatial location of the three-dimensional geological model or two-dimensional data layer through geographic coordinate system transformation; Based on the simulated confidence level of each target area, the corresponding color value and transparency parameter are dynamically assigned according to the preset color mapping rules, where the confidence level value and the color value are positively correlated. A gradient fill effect is generated within the target area boundary using a heatmap rendering method to form a visual representation of the high-potential target area, and an outline is superimposed at the target area boundary to enhance boundary recognition.

4. The static demonstration system for a web-based mineral exploration platform according to claim 3, characterized in that, Dynamically assign corresponding color values ​​and transparency parameters according to preset color mapping rules, specifically including: A preset color mapping table is provided, which contains the correspondence between multiple confidence intervals and color values ​​and transparency parameters. Read the simulated confidence level of each target region, determine the confidence level interval to which the simulated confidence level belongs, and extract the corresponding color value and transparency parameter as the target region allocation result; For a target area with a simulated confidence level equal to the interval boundary value, the color values ​​of two adjacent intervals are weighted and mixed to generate transition color values ​​and transparency parameters. The assigned color values ​​and transparency parameters are used as fill parameters within the boundary range of each target area, so that target areas with different confidence levels present differentiated color and transparency display effects.

5. The static demonstration system for a web-based mineral exploration platform according to claim 1, characterized in that, Mark the locations of associated equipment and exploration routes on the 3D geological model, specifically including: The associated equipment identifiers in the exploration task list are obtained and their location coordinates are mapped to the three-dimensional geological model to generate equipment markers containing equipment icons and status identifiers, wherein equipment with different operating statuses corresponds to equipment icons of different colors. Map the exploration path coordinate array in the exploration task list to the three-dimensional geological model, render the path connection with different colors according to the task status, connect each coordinate point in sequence to generate the exploration path connection, and generate node markers at the path start, end and turning points. The equipment markers, exploration path lines, and node markers are overlaid on the 3D geological model, and a pop-up window displaying equipment information, node location information, or task information appears in response to click operations.

6. The static demonstration system for a web-based mineral exploration platform according to claim 1, characterized in that, The device management module specifically includes: The ledger display unit is used to display static equipment ledger information. The static equipment ledger information includes equipment identifier, equipment name, equipment type, operating status and real-time location coordinate fields, wherein the operating status includes three states: online, offline and maintenance. The ledger editing unit is used to respond to user editing operations on equipment ledger information, locate the target equipment based on the equipment identifier, update the corresponding fields and refresh the interface display synchronously. The monitoring panel unit is used to extract preset equipment operating parameter data based on the equipment identifier, generate operating parameter change trend curves, and dynamically update the curve display in response to user switching operations on the time range.

7. A static demonstration system for a web-based mineral exploration platform according to claim 1, characterized in that, The access control module specifically includes: Stores preset role permission data, including role identifiers for three types of roles and their corresponding permission configuration information; Listen for front-end route redirection events, obtain the current user's role before the user accesses the page, determine whether the target page is within the authorized scope, and if not, intercept the redirection and display an "no permission" message; Based on the current user role, obtain the corresponding permission configuration information, dynamically render the interface menu and operation buttons, and only display the menu items and operation buttons that the current role has the right to access.

8. The static demonstration system for a web-based mineral exploration platform according to claim 1, characterized in that, Sharing a unified geographic coordinate system and display container and responding to user actions, specifically including: The visualization content generated by the data processing module, target area analysis module, task planning module, and equipment management module is all displayed in the same display container in the demonstration system. It is overlaid and rendered based on a unified geographic coordinate system to demonstrate the spatial fusion display effect of multiple types of data. The demonstration system responds to user operations by synchronously updating the display positions of the visual elements generated by each module. Each module's response to user actions is limited to updating the visual effects of the front-end interface, without involving back-end data interaction or actual business logic processing. All interactive data comes from pre-set static sample data on the front end.

9. A static demonstration system for a web-based mineral exploration platform according to claim 8, characterized in that, The demonstration system responds to user operations on the demonstration system, specifically including: Responding to user clicks on the legend, it controls the visibility of the 3D geological model, equipment markers, exploration paths, and target area, and is used to demonstrate the classification and viewing of multi-module data; In response to user operations of adding, deleting, modifying, and querying task items, the task list in the front-end status management is updated, and the display status of equipment markers and exploration paths on the 3D geological model is updated synchronously to demonstrate the linkage between the task planning module and the visualization module. In response to user editing of equipment ledger information, update the display of equipment fields and the status of equipment markers to demonstrate the linkage between the equipment management module and the visualization module; In response to user clicks on equipment markers, exploration path nodes, or target area ranges, preset equipment information, location information, or target area simulation confidence information are displayed in a floating window to demonstrate cross-module data retrieval and display. In response to the switching operation of the current role, the interface menu and operation buttons are re-rendered to demonstrate the integrated management of the access control module for multiple module function entry points.

10. A static demonstration system for a web-based mineral exploration platform according to claim 8, characterized in that, Demonstrates the spatial integration and display of multiple data types, specifically including: The various data types are displayed in the same display container as data layers, and the data layers include: A 3D geological model layer used to display topography and stratigraphic structure; The mineralization alteration zone layer is used to show the spatial distribution of mineralization alteration zones; The equipment marker layer is used to display the location and operating status of the equipment; The exploration path layer is used to display the path connections planned for the mission. The target area layer is used to display the distribution and confidence level of high-potential target areas; Simultaneously, in response to a user's click on any data layer, the system generates a floating window displaying preset information corresponding to the layer.

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