Geothermal energy development information management system

Abstract

The invention relates to a geothermal energy development information management system, relates to the technical field of geothermal energy development, and realizes real-time sharing and seamless joint of information among different departments by establishing a unified information standard and a data interface. Through an integrated platform, all departments can conveniently obtain and use required information, and the efficiency and accuracy of information exchange are improved; according to the invention, integration and centralized management of geothermal information are realized, the problem of information dispersion in traditional geothermal resource management is solved, a user can conveniently obtain various required geothermal information in a one-stop manner, and the utilization efficiency of the information is improved. The geothermal resource management method is beneficial to improving the management efficiency and the utilization level of geothermal resources, promotes reasonable development and sustainable utilization of the geothermal resources through comprehensive mastering and scientific analysis of geothermal resource information, and has important economic and environmental benefits. Meanwhile, based on advanced technologies such as Vue3, ECharts and JavaScript, the performance and interactivity of the system are improved, the fluency of the animation effect and the response speed of the system are ensured, and the user experience is improved.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of geothermal energy development, in particular, especially relates to a geothermal energy development information management system. BACKGROUND

[0002] Geothermal resources are a clean and renewable energy source, with characteristics of abundant reserves, wide distribution, and various utilization forms. In the context of energy structure transformation and sustainable development, its development and utilization has been highly valued worldwide. By developing geothermal resources, we can reduce dependence on traditional fossil fuels and reduce greenhouse gas emissions, which is of great significance to alleviate environmental pressure and optimize energy structure.

[0003] However, there are many problems to be solved in the management and development and utilization of geothermal resources. On the one hand, geothermal resource-related information is scattered, including regional division information, hot spring well information, geothermal structure information, development and utilization status and planning information, etc. These information is often held by different departments or institutions, lacking effective integration and sharing mechanism, making it difficult for managers to fully and systematically understand the overall situation of geothermal resources. For example, underground geological information collected by geological exploration departments cannot be timely and accurately transmitted to engineering construction departments, affecting the design and implementation of development plans.

[0004] On the other hand, the existing geothermal information display method is single and poor in intuitiveness. Traditional tables, text descriptions and other methods cannot vividly and visually present the spatial distribution, hierarchical relationship and various attribute characteristics of geothermal resources, making it difficult for managers to analyze the distribution pattern, trend of change and make development and utilization decisions. At the same time, due to the difference in screen size and resolution on different display devices, there are often problems such as incomplete information display and layout disorder, affecting the effective transmission and use of information.

[0005] In addition, in terms of technical implementation, some existing management systems have poor performance, poor interactivity, and difficulty in maintenance and expansion. The technology framework used may be outdated, resulting in slow system response, which cannot meet the user's demand for real-time data update and smooth operation. Moreover, the dynamic display and animation effect of geothermal information are insufficient, which is difficult to bring good visual experience and intuitive information perception to users. There is a lack of unified information standards and specifications among different departments, and they are independent in system construction and data management, without establishing an effective information sharing mechanism. In addition, the compatibility between different systems within the department is poor, which also increases the difficulty of information exchange.

[0006] In summary, there is an urgent need for a geothermal energy development information management system to solve the above problems. SUMMARY

[0007] In view of the deficiencies of the prior art, the present application provides a geothermal energy development information management system, which solves the problems of information dispersion, low visualization degree and poor display effect in the prior art.

[0008] To achieve the above-mentioned purpose, the present application provides the following technical scheme: a geothermal energy development information management system, which comprises the following modules: a regional division module, a hot spring well labeling module and a visual animation rendering module; each module works cooperatively to realize the integration, management and visual display of geothermal resource information.

[0009] Specifically, a modular development mode is adopted, and the regional division module based on geographic information, the hot spring well labeling module and the visual animation rendering module are developed respectively and then integrated.

[0010] In terms of development environment, appropriate development tools and technology stacks are selected, the Vue3 framework is used for front-end development, and the ECharts library and JavaScript language are used for code writing. A relational database is used to store structured data such as hot spring well information and geothermal structure parameters, and a geographic information database is used to store geographic spatial data such as provincial, municipal and county map data, spatial coordinates of geothermal resource distribution, etc.

[0011] After the system development is completed, it is deployed. Considering that the system needs to support large-screen display and multi-user access, the system is deployed on a high-performance server, appropriate hardware resources and network environment are configured to ensure that the system can run stably and respond to multiple users' concurrent access.

[0012] The regional division module is established based on geographic information and has the ability to expand hierarchical maps; it has the visualization of provincial, city, county heat control structure (including regional heat control structure, fault structure, hot spring well and hot spring information map marking and line display), geothermal enrichment zoning (supporting division based on regional structure analysis, geothermal gradient, geothermal resource modulus, terrestrial heat flow value, hot spring well density, etc.), heat reservoir type, heat reservoir profile and development and utilization status and planning, etc.

[0013] This module is one of the core modules for the system to realize regional hierarchical division and visual display of geothermal information, and has powerful geographic information processing and display capabilities.

[0014] In the hierarchical map expansion capability, the development is completed with the expansion function of multi-level maps of provinces, cities and counties with hierarchy. Through in-depth processing and structured organization of geographic data, a perfect geographical hierarchy relationship of provinces, cities and counties is established. When the user operates, for example, clicks on the province map, the system can quickly respond and expand the maps of each city under the jurisdiction of the province; click on the city map, further expand the maps of each county under the jurisdiction of the city, and vice versa, the folding operation of multi-level maps can be realized. This hierarchical expansion method uses an efficient geographic data index and loading mechanism to ensure smooth and fast map expansion process, without obvious delay or lag phenomenon, providing users with a convenient geographical hierarchical navigation experience.

[0015] In the aspect of geothermal information visualization, this module can realize the intuitive display of various geothermal information, as follows: Provincial, urban and county heat control structure display: including regional heat control structure, fault structure, geothermal well and hot spring information, etc., presented through map marking and line drawing. For regional heat control structure and fault structure, according to geological exploration data, lines of different colors and styles are drawn on the map to clearly show their trend, distribution range and mutual relationship. For geothermal well and hot spring information, specific icons are used as markers to mark the corresponding positions on the map, and different types of geothermal wells and hot springs are distinguished by the difference in icon color or shape, such as hot springs can be represented by icons with wavy lines, and geothermal wells can be represented by icons with drill bit patterns. At the same time, when the user clicks on these markers or lines, a detailed attribute information window will pop up to display the specific parameters of the structure or geothermal well, hot spring, such as the formation age, scale of the structure, depth, temperature of the geothermal well, water temperature, water quality of the hot spring, etc.

[0016] Geothermal enrichment zoning display: supports division based on regional structure analysis, geothermal gradient, geothermal resource modulus, terrestrial heat flow value, hot spring and geothermal well density, etc. The system first standardizes and fuses these multi-source data, and establishes a geothermal enrichment evaluation model. Then, according to the evaluation results, different color gradients or color blocks are used on the map to divide and render different enrichment levels of the region. For example, regions with high geothermal resource enrichment are represented by deep red, medium level regions are represented by yellow, and low level regions are represented by light blue. Users can switch different division bases to view the geothermal enrichment zoning based on different data, and thus fully understand the distribution regularity of geothermal resources. In addition, the system also supports superimposed display of zoning results, which facilitates users to compare and analyze the influence of different factors on geothermal enrichment.

[0017] Hot reservoir type and hot reservoir profile display: Hot reservoir types are classified into different categories according to geological data, such as porous hot reservoirs, fractured hot reservoirs, and karst hot reservoirs. Different patterns are used to fill in the map to distinguish and display different types of hot reservoirs. Users can intuitively see the spatial distribution of different types of hot reservoirs. The hot reservoir profile is displayed in the form of a profile graph. Combined with the location information on the map, when the user selects a specific area, the system will generate a vertical profile graph of the hot reservoir in that area, clearly showing the depth, thickness, and lithology of the hot reservoir, helping users to better understand the structure of the underground hot reservoir.

[0018] Development and utilization status and planning display: The development and utilization status includes the location, scale, and utilization methods (such as heating, power generation, tourism, etc.) of developed geothermal projects, which are displayed on the map with corresponding icons and text annotations. Planning information includes plans for future development of geothermal projects, marked with dashed lines or icons of specific colors, and can display information such as project planning time and expected benefits. In this way, users can clearly understand the development progress and future planning layout of geothermal resources.

[0019] Hot spring well labeling module: The module builds an integrated and easy-to-add, delete, modify, and query hot spring well information and map adding function, and develops and visualizes the distribution of hot spring wells in provinces, cities, and counties.

[0020] The module includes hot spring well information management and map labeling display, and builds an integrated information management system with easy-to-operate add, delete, modify, and query functions and flexible map adding functions.

[0021] In terms of hot spring well information management, the system establishes a complete hot spring well information database, storing information such as basic attributes (such as well number, name, location coordinates), geological parameters (such as well depth, formation lithology), hydrological parameters (such as water temperature, water level, water yield, water quality composition), development and utilization (such as extraction amount, use, operation status), etc. Users can add, delete, modify, and query these information through a friendly interactive interface. When adding information, the system provides a standardized form to guide users to input parameters and perform data validity verification to ensure the accuracy of input information. The delete and modify operations have a permission control mechanism, only authorized users can perform them to ensure the security and integrity of the data. The query function supports multi-condition combined query, users can quickly filter the required hot spring well information according to well number, location, water temperature, etc.

[0022] In terms of map addition and distribution visualization, the system has developed display functions for hot spring well distribution at the provincial, city, and county levels. When users add hot spring well information and confirm it, the system will automatically mark it on the corresponding level map based on its location coordinates. The marker icon is designed in relation to the characteristics of the hot spring well and can be displayed differently based on the importance of the hot spring well or certain key parameters. On the provincial map, the overall distribution of hot spring wells in the province can be displayed, allowing users to roughly understand the dense and sparse areas of hot spring wells. On the city map, the specific distribution of hot spring wells in the city can be displayed, facilitating comparative analysis within the region. On the county map, the location information of hot spring wells can be displayed in more detail, meeting the needs of fine management. In addition, the system supports statistical analysis of hot spring well distribution and generates hot spring well density heat maps, further reflecting the distribution characteristics of hot spring wells.

[0023] The visual animation rendering module provides a variety of friendly and smooth visual animation effects.

[0024] This module is committed to providing a variety of friendly and smooth visual animation effects, enhancing the user's visual experience and information perception ability, and using advanced technologies such as Vue3, ECharts, and JavaScript.

[0025] Vue3, as a lightweight and efficient front-end framework, provides a solid foundation for the development of the module. Its responsive system is optimized to accurately track data changes and efficiently update DOM, ensuring the real-time and smoothness of animation effects. Faster rendering speed allows animations to start and run quickly, reducing user waiting time. Smaller package size reduces system loading time and improves overall system performance. Vue3's combined API makes the code structure clearer, modularizing animation rendering-related logic by function, making it easier for developers to maintain and extend. Developers can more flexibly combine and reuse code, improving development efficiency and making it easier to add new animation effects as needed in the future.

[0026] ECharts, as a powerful visualization chart library, plays an important role in visual animation rendering. It provides a wide variety of chart types, such as line charts, bar charts, and maps, especially in geographic information display, which can present the distribution of geothermal resources, temperature, and other information in a visual and beautiful way. Combined with ECharts' animation functions, when geothermal data changes, the chart can update with smooth animation transitions, such as color gradient of geothermal enrichment zoning and dynamic growth of hot spring well quantity statistical bar chart. These animation effects not only make data display more lively, but also help users better understand the change process and trends of the data.

[0027] JavaScript has high flexibility and cross-platform compatibility, and can be seamlessly integrated with Vue3 and ECharts to realize various complex interactive animation functions. For example, when the map is switched between levels, JavaScript can control the zooming, panning and other animation effects of the map to make the switching process natural and smooth; when the user interacts with the chart, JavaScript can respond to these operations and trigger corresponding animation feedback, such as highlighting the selected data, popping up a detailed information window, etc. Through the programming control of JavaScript, custom animation effects can be realized to meet the diversified needs of the system for visual performance.

[0028] The system adopts a modular development mode to build an adaptive large-screen layout, which can automatically adjust the layout structure and element size according to different screen sizes and resolutions. The implementation principle is to define layout rules for different screen sizes through CSS media queries and flexible layout, grid layout, etc. When the system detects changes in screen size or resolution, it will automatically apply the corresponding layout rules to adjust the position, size and display ratio of each module, ensuring that maps, charts, text and other information can be displayed completely and clearly on various large-screen devices, avoiding information overflow or incomplete display. Whether it is a report display on a large screen in a conference room or real-time monitoring in a multi-screen display system in a monitoring center, users can obtain consistent and good visual experience.

[0029] Through the geothermal energy development information management system, users can obtain significant application value. Managers can intuitively understand the distribution and development and utilization of geothermal resources in the province, and real-time data and visual charts provided by the system can help them quickly analyze the trend of geothermal resources. For example, by observing the dynamic changes of geothermal enrichment zoning and statistical analysis of hot spring well development and utilization data, managers can timely find problems in geothermal resource development, make scientific and reasonable decisions, optimize the development layout of geothermal resources, improve the management efficiency and utilization level of geothermal resources, and promote the sustainable development and utilization of geothermal resources.

[0030] Based on Vue3+ECharts+JavaScript development language, the code is implemented on the VSCode development platform to build the overall framework of the display system, geographic information modeling based on ECharts, and hot spring well marker repository. Distributed development based on Git is adopted, and branch code is submitted through pull request to improve development efficiency. Modular development mode is used to build adaptive large-screen layout to realize information exchange and management processing in the process of geothermal energy development.

[0031] Compared with the prior art, the technical scheme of the present application has the following advantages: 1.The geothermal energy development information management system provided by the present application realizes real-time sharing and seamless docking of information between different departments by establishing unified information standards and data interfaces. Through the integrated platform, each department can conveniently obtain and use the required information, improving the efficiency and accuracy of information exchange; the integration and centralized management of geothermal information are realized, solving the problem of information dispersion in traditional geothermal resource management, facilitating users to obtain various types of geothermal information in one-stop mode, and improving the utilization efficiency of information. It helps to improve the management efficiency and utilization level of geothermal resources, promotes the rational development and sustainable utilization of geothermal resources through comprehensive mastery and scientific analysis of geothermal resource information, and has important economic and environmental benefits.

[0032] 2.The geothermal energy development information management system provided by the present application directly and vividly displays various attributes and distribution characteristics of geothermal resources through the use of various visualization means and animation effects, enhances the understanding and perception ability of users for geothermal information, and provides a more intuitive basis for decision-making.

[0033] 3.The geothermal energy development information management system provided by the present application is based on advanced technologies such as Vue3, ECharts and JavaScript, improves the performance and interactivity of the system, ensures the smoothness of the animation effect and the response speed of the system, and improves the user experience.

[0034] 4.The geothermal energy development information management system provided by the present application has the ability of adaptive large-screen layout, can perfectly display information on different display devices, meets the use requirements in different scenes, and enhances the applicability of the system. DETAILED DESCRIPTION

[0035] In order to make the technical means, creative features, purposes and effects realized by the present application easy to understand, the present application is further described below in combination with specific embodiments.

[0036] The geothermal energy development information management system in an embodiment of the present application can include the following modules: a regional division module, a hot spring well labeling module and a visual animation rendering module; the modules work cooperatively to realize the integration, management and visualization display of geothermal resource information.

[0037] Firstly, the development and construction of the system are carried out. The modular development mode is adopted, and the regional division module, the hot spring well labeling module and the visual animation rendering module based on geographic information are developed respectively, and then integrated.

[0038] In terms of development environment, appropriate development tools and technology stack are selected. For front-end development, Vue3 framework is used, combined with ECharts library and JavaScript language for code writing. A relational database is used to store structured data such as hot spring well information and geothermal structure parameters, while a geographic information database is used to store geographic spatial data such as provincial, municipal, and county map data, and spatial coordinates of geothermal resource distribution.

[0039] After the system development is completed, deployment is carried out. Considering that the system needs to support large-screen display and multi-user access, the system is deployed on a high-performance server, with appropriate hardware resources and network environment configured to ensure stable operation and response to multiple user concurrent access.

[0040] Secondly, the regional division module based on geographic information is implemented Geographic data acquisition and processing: Collect provincial and subordinate city and county geographic map data, including administrative boundary, topography and other information. Format conversion, coordinate correction and other processing are performed on these data to meet the requirements of the system, and a provincial, municipal and county level geographic hierarchy database is established.

[0041] Geothermal information integration and visualization configuration: Collect various types of geothermal information within the province, such as regional heat control structure, fault structure data from geological exploration reports; geothermal gradient, terrestrial heat flow values from geothermal resource exploration results; geothermal well and hot spring information, development and utilization status and planning information from relevant management departments and enterprises. Associate these information with geographic data to determine their location on the map.

[0042] For the visualization of heat control structure, different line styles and colors are configured on the ECharts map according to the type and parameters of the structure, such as thick line, red for main fault structure, thin line, orange for secondary fault structure. When the geothermal well and hot spring information is associated with the map, set specific icons as markers, hot spring icon uses blue wave line style, geothermal well uses black drill bit style, and configure click pop-up window to display detailed information such as "XX hot spring, water temperature 55℃, daily water yield 1000 tons, mainly used for tourism and vacation".

[0043] Geothermal enrichment zoning is calculated using the built-in evaluation model based on collected regional structure analysis, geothermal gradient and other data, dividing it into high, medium and low enrichment levels. On the map, use red, yellow and blue color blocks for rendering, and set color gradient animation effect, when the user switches different division basis, the color blocks will smoothly transition to the corresponding color distribution.

[0044] The thermal reservoir type is divided into porosity type, fissure type and karst type according to geological data, and is represented by dot, diagonal line and square pattern filling on the map respectively. The thermal reservoir profile is realized through the self-defined chart function of ECharts. When the user frames a certain area on the map, the system automatically retrieves the thermal reservoir data of the area from the database, generates a vertical profile graph, and adds animation effects to make the profile graph display clearly.

[0045] The development and utilization status and planning information are marked on the map. The developed projects are represented by green icons, and the project names and utilization methods are marked. The planning projects are represented by dashed boxes and yellow icons, and the planning period and expected capacity are marked. At the same time, a dynamic display animation of project information is set. When the mouse hovers over the icon, a smooth animation effect will display the brief introduction of the project.

[0046] The hierarchical map expansion function is realized: through the component-based development of Vue3, the province, city and county maps are packaged as independent components. On the user interface, set the level switching button. When the user clicks on a certain city on the "in-province" map, trigger the click event, update the responsive data through Vue3, control the display of the city map component, and hide the province map component. At the same time, add map zoom and pan animation to make the switching process natural and smooth. Similarly, the expansion and folding functions of city to county maps and all levels of maps are realized.

[0047] Then, the hot spring well marking module is implemented Hot spring well information database establishment: design the hot spring well information data table, including well number, name, longitude, latitude, well depth, water temperature, water quality composition, production capacity, purpose and other fields. Through the data entry interface, enter the hot spring well information of each place in the province into the database. During the data entry process, perform data verification, such as checking whether the longitude and latitude are within the province range and whether the water temperature is a reasonable value, to ensure the accuracy of the data.

[0048] Add, delete, modify and query functions are realized: develop the information management interface based on Vue3, add functions through pop-up forms, users fill in the information and submit, the system stores the data into the database and synchronously adds annotations on the map. The delete function is realized by selecting the hot spring well information and clicking the delete button. The system prompts for confirmation before deleting the record in the database and removing the annotation on the map. The modification function allows users to select existing hot spring well information for editing, and updates the database and map annotations after saving. The query function provides a search box and filtering conditions. Users input well number, name or select water temperature range, and the system queries the hot spring well information that meets the conditions from the database and highlights it on the list and map.

[0049] Map distribution visualization: On the provincial map, the system automatically labels the locations of all hot spring wells based on their coordinate data, with moderate-sized icons for easy macroscopic viewing of the distribution. On the city map, the icons are appropriately enlarged to display clearer location information. On the county map, the icons are further enlarged, and the brief names of the hot spring wells can be displayed. At the same time, the system supports the generation of hot spring well density heat maps, which use different color depths to represent the distribution density of hot spring wells through the heat map function of ECharts. Red represents high density, and blue represents low density, providing an intuitive display of the distribution and concentration of hot spring wells.

[0050] Next, the visual animation rendering module implements Animation effect design and implementation: Using the animation transition function of Vue3 and the animation configuration of ECharts, various animation effects are designed. For example, when the map is switched between levels, a zoom animation is set to smoothly transition the map from one level to another. When geothermal data is updated, such as changes in the water temperature of geothermal wells, the relevant data points in the ECharts chart are updated with a bounce animation. When displaying geothermal enrichment zoning, a color gradient animation is set to gradually transition the zoning color from the initial state to the target color.

[0051] Interactive animation implementation: JavaScript is used to listen to user interactions such as mouse clicks and drags, triggering corresponding animation effects. When the user clicks on a hot spring well label on the map, the label is highlighted with an enlargement animation, and an information window pops up with a fade-in effect. When the user drags the map, the map moves smoothly with the mouse, and stops moving when the mouse is released.

[0052] Finally, adaptive large-screen layout implementation CSS media queries are used to define layout rules for different screen sizes. For example, when the screen width is greater than 1920px, a three-column layout is used, with the left side for the function menu, the middle for the map display area, and the right side for the data statistics chart area. When the screen width is between 1200px and 1920px, the proportions of the various areas are adjusted. When the screen width is less than 1200px, a two-column layout or a stacked layout is used. At the same time, flexible layout and grid layout are used to automatically adjust the size and position of each module element according to the screen size, ensuring that the map, charts, and other content are fully displayed on different large-screen devices. For example, on a 27-inch large screen in a conference room, the system uses a three-column layout, with the map area occupying a large space for easy viewing by multiple people. On a multi-screen tiling system in a monitoring center, the system can adapt to the size of the tiled large screen, achieving seamless display across screens.

[0053] The technical effects of the present invention compared to the prior art are: In the management of geothermal resources within the province, the system has achieved remarkable results after being put into use. Managers can intuitively view the distribution of geothermal resources in the province through the system, quickly understand the concentration of hot spring wells and geothermal enrichment areas in each city on the provincial map; on the city and county map, they can master the specific area's heat control structure, hot reservoir characteristics and the current development and utilization status of hot spring wells.

[0054] The real-time data update function provided by the system enables managers to promptly understand the production capacity of geothermal wells, water temperature changes and other information. Dynamic charts generated by ECharts, such as annual growth line charts of hot spring well numbers and column charts of geothermal resource development and utilization rates, can help managers analyze the development trend of geothermal resources. For example, by analyzing the geothermal enrichment zoning and development and utilization status of a certain area, it is found that the area is rich in geothermal resources but has a low degree of development. Based on this, managers can develop appropriate development plans to promote the rational utilization of local geothermal resources.

[0055] The smooth animation effect provided by the visual animation rendering module enhances the attractiveness and ease of understanding of information display, enabling non-professionals to quickly understand relevant information about geothermal resources. The adaptive large-screen layout ensures that the system can be perfectly displayed in various conference and monitoring scenarios, improving work efficiency and decision-making accuracy.

[0056] The above shows and describes the basic principles and main features of the present application and the advantages of the present application. Those skilled in the art should understand that the present application is not limited to the above examples, and the above examples and descriptions in the specification are only to illustrate the principles of the present application. Without departing from the spirit and scope of the present application, various changes and improvements can be made to the present application, and these changes and improvements all fall within the scope of the claimed present application. The scope of protection of the present application is defined by the appended claims and their equivalents.

Claims

1. A geothermal energy development information management system, characterized in that, It includes the following modules: regional division module, hot spring well labeling module, and visual animation rendering module; these modules work together to achieve the integration, management, and visualization of geothermal resource information. A modular development approach was adopted, in which the geographic information-based regional division module, hot spring well labeling module, and visual animation rendering module were developed separately and then integrated.

2. The geothermal energy development information management system according to claim 1, characterized in that: The geothermal energy development information management system selects appropriate development tools and technology stacks. The front-end development uses the Vue3 framework, combined with the ECharts library and JavaScript language for code writing.

3. The geothermal energy development information management system according to claim 2, characterized in that: The regional division module is based on geographic information and has the ability to unfold hierarchical maps and visualize geothermal information.

4. The geothermal energy development information management system according to claim 3, characterized in that: The hierarchical map unfolding capability has been developed, enabling the unfolding of multi-level maps at the provincial, municipal, and county levels. Through in-depth processing and structured organization of geographic data, a complete hierarchical relationship between provinces, cities, and counties has been established.

5. The geothermal energy development information management system according to claim 3, characterized in that: The visualization of geothermal information is implemented as follows: Provincial, city, and county-level display of heat-controlling structures, including regional heat-controlling structures, fault structures, geothermal wells, and hot springs, presented through map markers and lines. For regional heat-controlling structures and fault structures, based on geological exploration data, they are drawn on the map with lines of different colors and styles, clearly showing their direction, distribution range, and interrelationships. For geothermal wells and hot springs, specific icons are used as markers at corresponding locations on the map, and different types of geothermal wells and hot springs are distinguished by differences in icon color or shape. Furthermore, when a user clicks on these markers or lines, a detailed attribute information window pops up, displaying the specific parameters of the structure, geothermal well, or hot spring.

6. The geothermal energy development information management system according to claim 3, characterized in that: The hot spring well labeling module includes the management of hot spring well information and map labeling display, constructing an integrated information management system with easy-to-operate add, delete, modify, and query functions and flexible map addition functions.

7. The geothermal energy development information management system according to claim 6, characterized in that: The specific implementation methods of the visual animation rendering module include: animation effect design and implementation and interactive animation implementation.

8. The geothermal energy development information management system according to claim 7, characterized in that: The specific implementation method of the animation effect design and implementation is as follows: using Vue3's animation transition function and ECharts' animation configuration, a variety of animation effects are designed.

9. A geothermal energy development information management system according to claim 7, characterized in that: The interactive animation is implemented by listening to user interaction events using JavaScript and triggering corresponding animation effects.

10. A geothermal energy development information management system according to claim 7, characterized in that: The geothermal energy development information management system adopts a modular development model to build an adaptive large-screen layout, which can automatically adjust the layout structure and element size according to different screen sizes and resolutions.