Low-code component template implementation method

Abstract

The invention discloses a low-code component template implementation method, relates to the technical field of low-code component templates, and aims to solve the technical problems of poor component reusability and high technical threshold caused by scene abstraction and deficiency of a current low-code platform. S200, abstracting and constructing a layout template; s300, abstracting and constructing a page template; s400, abstract modeling of a component template scene is carried out; and S500, page production is carried out. Components are summarized into three core scenes including lists, forms and details, a three-level asset library of a layout template, a page template and a component template is combined with a template matching decision function, accurate retrieval, reuse and precipitation of the template are achieved, repeated development is greatly reduced, meanwhile, a front-end interaction logic function is preset, and the template matching decision function is optimized. Core processes such as data refreshing, real-time verification and state retention are covered, developers do not need to manually write interaction codes, the development period is shortened, and the technical threshold is reduced.

Description

Technical Field

[0001] This invention relates to the field of low-code component template technology, and more specifically, to a method for implementing low-code component templates. Background Technology

[0002] Against the backdrop of deepening enterprise digital transformation, application development needs are showing a trend of large-scale and diversified growth. Low-code development platforms, with their core advantages of visual operation and component-based construction, have become a key technical solution for lowering the development threshold and shortening the development cycle. Among them, low-code development platforms based on the ali-lowcode engine are currently widely used technologies in the industry. Their core idea is to provide a basic component library, allowing developers to build application pages by dragging and dropping components and configuring parameters simply, thus reducing their dependence on pure code development to a certain extent.

[0003] Existing low-code platforms typically operate based on a visual development model, and their usage process mainly includes the following core steps: Developers can design page layouts by dragging and dropping basic components (such as buttons, input boxes, and tables) in the platform's visual interface, and then configure the display properties and basic interactive behaviors of the components through the property panel. For data interaction requirements, developers need to manually write the data interface call logic and implement the front-end and back-end data mapping relationship in the component event callback functions. Taking list page development as an example, developers need to set the table column definitions, pagination parameters, and filter conditions separately, and independently write the data request, state management, and event handling code.

[0004] This approach reveals significant flaws: a lack of systematic abstraction of front-end page scenarios leads to poor component reusability, forcing developers to repeatedly write similar code; furthermore, the rigid component template design makes it difficult to adapt to diverse business needs. For example, the interaction logic of lists, forms, and detail pages still requires manual handling, meaning non-technical users still need to understand front-end details when using the platform, severely limiting the adoption efficiency of low-code platforms. Therefore, we propose a low-code component template implementation method. Summary of the Invention

[0005] The purpose of this invention is to overcome the shortcomings of the prior art, adapt to the needs of reality, and provide a low-code component template implementation method to solve the technical problems of poor component reusability and high technical threshold caused by the lack of scene abstraction in the current low-code platform.

[0006] To solve the above technical problems, the present invention provides the following technical solution: a low-code component template implementation method, comprising the following steps: S100. Requirements Analysis: Conduct requirements analysis for the new and enhanced PaaS development, and clarify the specific requirements for business functions, page presentation, and interaction logic.

[0007] S200, Layout Template Abstraction and Construction: Standardized abstraction of basic page layout; S300, Page Template Abstraction and Construction: Based on the layout template, the overall structure of the page is abstracted to form a reusable page template; S400, Component Template Scene Abstraction Modeling: Constructed through standardized scene abstraction, layered architecture design, and template implementation mechanism; S401. Analyze the functional requirements of components within the page template, sort out the business scenario types of core components, and standardize the components into three core scenarios: list scenario, form scenario, and detail scenario. S402. The component template is designed with a layered architecture, dividing it into three independent modules: presentation layer, logic layer, and data layer, thereby decoupling the core capabilities. S403. Pre-define complete front-end interaction logic in component templates and define unified data service interaction interfaces; S404. A visual configuration interface for building component templates, supporting graphical parameter configuration; S405. Build a component template library and store the component templates for the three major scenarios in the library. S500, Page Generation: Based on the aforementioned three-level template assets of layout template library, page template library, and component template library, as well as core configuration mechanisms such as visual configuration interface, standardized data interface, and component extension mechanism, it realizes the rapid generation of low-code application pages.

[0008] Preferably, step S200 further includes the following step: S201. Determine whether the page layout corresponding to the current requirement needs to be abstracted. If layout abstraction is not required, proceed directly to step S300, page template abstraction and construction. S2011. If layout abstraction is required, check if there is a matching layout template in the layout template library. If there is a matching layout template, reuse the layout template directly and proceed to step S300, page template abstraction and construction. S2012: If the layout template does not exist, create the target layout template based on the requirements, classify and store it in the layout template library, and then proceed to step S300, the page template abstraction and construction stage.

[0009] Preferably, step S300 further includes the following step: S301: Determine whether the page corresponding to the current requirement needs to be abstracted into a page template. If page template abstraction is not required, proceed directly to step S500, the page production stage. S302. Perform production debugging on the page template, verify the integrity of the page structure and the consistency of interaction, generate a stable version of the page template, and store it in the page template library by category.

[0010] Preferably, step S500 further includes the following step: S501, Page Template Decision: Under the layout determined in step S200 or without layout, start the page template matching judgment process to determine whether there is a page template in the page template library that meets the business requirements. S502, Reusable templates exist: S5021. Select a template: Select a matching standardized page template from the visual search results of the page template library; S5022. Configuration and Generation: Through the visual configuration interface built in step S400, template parameters, data sources, fields, etc. are set, and the system automatically calls the mechanism from steps S200 to S400 to generate the target page. S503, No reusable template exists: S5031. Create a new template: perform secondary development based on the closest standard template, or create a completely new template; S5032, Deposited Assets: Save the newly created template to the page template library; S504, Page Setup and Delivery: Utilize the aPaaS engine to render the configured template into the final, runnable application page.

[0011] Preferably, the specific implementation of the component scene abstraction in step S401 includes: List scenarios support data collection display, filtering, sorting and pagination operations, and have built-in functions such as multi-condition combined filtering, ascending / descending sorting switching, and configurable page size; The form supports data creation and editing, with pre-defined validation rules for mobile phone numbers, email addresses, numbers, and non-empty fields, and also supports custom validation logic. The details section supports displaying detailed data for a single record, provides date formatting and amount precision control for data formatting, and supports displaying related data.

[0012] Preferably, the layered architecture of step S402 specifically includes: The presentation layer uses the Vue / React framework to implement the component UI layout, supporting drag-and-drop adjustment and visual style modification; The logic layer encapsulates form validation, state management, and event handling interaction logic to achieve real-time validation, state recording, and event response. The data layer provides a unified data service interface, supporting automatic data acquisition, submission, and format conversion.

[0013] Preferably, the pre-set front-end interaction logic in step S403 includes: In a list scenario, a complete process is implemented that automatically triggers data refresh and retains pagination status when filter conditions change. The form scenario implements a closed-loop logic that performs real-time validation of input content, allows submission after successful validation, displays a prompt message upon successful submission, and then returns to the list page.

[0014] Preferably, the visual configuration interface in step S404 provides: The basic parameter configuration area allows you to set component display properties using checkboxes and dropdown menus. The field configuration area allows you to drag and drop to adjust the field order and type; The style configuration area provides a color picker and a spacing slider for visually adjusting styles. The interface configuration area allows you to configure data interface parameters using key-value pairs in the form.

[0015] Preferably, the component template library in step S405 adopts a three-level storage structure: The first level is divided into list, form, and detail component libraries based on scenario type; The second level is further subdivided into basic list and editable list function categories based on function tags; The template is updated and iterated by version number in a three-level management system.

[0016] Preferably, the page template matching judgment process in step S501 includes: Double verification is performed using a tag matching system and a template structure preview. Set matching threshold standards based on the degree to which the integrity of core functions is satisfied; The system automatically performs layout adaptation checks on matching templates and provides adjustment solutions when conflicts exist.

[0017] Compared with the prior art, the beneficial effects of the present invention are: 1. This invention categorizes components into three core scenarios: lists, forms, and details. It combines a three-tiered asset library of layout templates, page templates, and component templates with a template matching decision function to achieve accurate template retrieval, reuse, and retention, significantly reducing redundant development. Simultaneously, it pre-defines front-end interaction logic functions, covering core processes such as data refresh, real-time validation, and state retention. Developers do not need to manually write interaction code, shortening the development cycle, lowering the technical threshold, and solving the problems of poor component reusability and high technical barriers caused by the lack of scenario abstraction in current low-code platforms.

[0018] 2. This invention also adopts a layered architecture design function with presentation layer, logic layer and data layer to decouple UI rendering, interaction logic and data processing. Each module iterates independently and does not affect each other, improving system maintainability. By using a unified data service interface adaptation function to standardize data request, submission and format conversion rules, it solves the compatibility problem of cross-component and cross-system integration, while supporting flexible adaptation to different backend systems and reducing integration difficulty.

[0019] 3. This invention also provides graphical configuration functions for parameters, fields, styles and interfaces, supports drag-and-drop adjustment and real-time preview, allowing non-technical personnel to quickly complete template customization. With the help of component extension interface functions, it supports adding custom validation logic and integrating special components based on standard templates, meeting personalized business needs without modifying the core code. Attached Figure Description

[0020] Figure 1 This is a flowchart of the method of the present invention. Detailed Implementation

[0021] Example: Figure 1 As shown, the present invention relates to a low-code component template implementation method, which includes the following methods: S100. Requirements Analysis: Conduct requirements analysis for the new and enhanced PaaS development, and clarify the specific requirements for business functions, page presentation, and interaction logic.

[0022] S200, Layout Template Abstraction and Construction: Standardized abstraction of basic page layout; S201. Determine whether the page layout corresponding to the current requirement needs to be abstracted. If layout abstraction is not required, proceed directly to step S300, page template abstraction and construction. S2011. If layout abstraction is required, such as the layout of "top navigation + sidebar + main content area" or "multi-column data display" commonly used in enterprise applications, check whether there is a matching layout template in the layout template library. You can search by scene tags and layout structure features. If there is a matching layout template, you can directly reuse the layout template and proceed to step S300, page template abstraction and construction. S2012: If the layout template does not exist, create a target layout template based on the requirements, perform production debugging on the newly created layout template, verify the layout compatibility and display effect, generate a stable version of the layout template, classify and store it in the layout template library, and then proceed to step S300, the page template abstraction and construction stage.

[0023] Specifically, define the layout structure: clearly define the area division of the layout, such as the height of the top navigation area, the width of the sidebar, the adaptation rules of the main content area, and the responsive adaptation logic, such as supporting display on multiple terminals such as PC and tablet; Production debugging: Conduct compatibility testing on the newly created layout template, adapt it to mainstream browsers such as Chrome, Firefox, and Edge, verify the display effect, and ensure that the area layout conforms to visual specifications and there are no layout errors; Version solidification: Generate stable versions of layout templates, categorize them by layout type (single-column / multi-column) and applicable scenarios (admin backend / mobile), and store them in the layout template library. Then proceed to step S300, page template abstraction and construction.

[0024] S300, Page Template Abstraction and Construction: Based on the layout template, the overall structure of the page is abstracted to form a reusable page template; S301: Determine whether the page corresponding to the current requirement needs to be abstracted into a page template. If page template abstraction is not required, such as a one-time temporary page with no subsequent reuse scenario, proceed directly to step S500 page production stage. S3011. If page template abstraction is required, build the basic structure of the target page template based on the layout template in step S200. Specifically, clarify the layout rules of components within the page, such as laying out form components vertically in the order of "label-input box", filling the width of the main content area for list components, and fixing the position of elements, such as placing the filter bar above the list and placing the submit button at the bottom right of the form.

[0025] S302. Perform production debugging on the page template to verify the integrity of the page structure, such as uniform component spacing, no missing fixed elements, and smooth interaction, such as no refresh or lag in the main content area when switching sidebar menus. Generate a stable version of the page template and store it in the page template library according to the categories of "business type (product management / user management) and scenario type (list page / form page / details page)".

[0026] S400, Component Template Scene Abstraction Modeling: Constructed through standardized scene abstraction, layered architecture design, and template implementation mechanism; S401. Analyze the functional requirements of components within the page template, sort out the business scenario types of core components, and standardize the components into three core scenarios: list scenario, form scenario, and detail scenario. S4011, Define the basic functions of each component scenario: List scenario: Supports data collection display, filtering, sorting and pagination operations. It is used to display data collections and supports multi-condition filtering, sorting (ascending / descending order switching), pagination (supports configuration of 10 / 20 / 50 / 100 items per page) and other operations. Form scenarios: Used for data creation and editing, supporting form validation (pre-set common validation rules such as mobile phone number, email, number, and not empty, and supports custom validation logic), data binding (automatic mapping with backend fields), and other functions; Detailed scenario: Supports detailed display of single data, data formatting, and related data display. Specifically, it is used to display detailed information of a single data item, and supports data formatting (date is displayed in "YYYY-MM-DD", amount is retained to two decimal places), related data display (such as displaying the category name when displaying product details), and other functions.

[0027] S402. The component template is designed with a layered architecture, dividing it into three independent modules: presentation layer, logic layer, and data layer, thereby decoupling the core capabilities. S4021. Configure the functions of each layer and clarify the responsibilities and interaction logic of each layer: Presentation layer: Responsible for UI rendering and visual presentation of user interaction. It uses mainstream front-end frameworks such as Vue and React to implement component UI layout, and supports drag-and-drop adjustment of component positions and visual modification of styles; Logic layer: Encapsulates front-end interaction logic such as form validation, state management, and event handling. Specifically, it encapsulates front-end interaction logic, including form validation logic (such as real-time format validation when entering a mobile phone number, and displaying an error message if it does not meet the requirements), state management (such as recording the selected status of filter conditions and the current page number of pagination), and event handling (such as triggering data refresh when clicking the filter button and switching data pages when clicking the pagination page number). All logic is built-in and does not require manual writing by the user. Data layer: Handles interaction with backend data services, supports data acquisition (requesting backend data according to the configured interface address), submission (uploading form data in a standardized format), and format adaptation (automatically converting the JSON / XML data returned by the backend into a format that the component can recognize). S403. Pre-define complete front-end interaction logic in component templates and define unified data service interaction interfaces; Specifically, the built-in interaction logic is as follows: complete front-end interaction logic is pre-defined in the component template. For example, in the list scenario, the complete process of "automatically triggering data refresh and retaining the current pagination number when the filter conditions change, and restoring the first page when the filter conditions are cleared" is provided. In the form scenario, the closed-loop logic of "performing real-time validation of input content, allowing submission after successful validation, and returning to the list page after displaying a prompt message upon successful submission" is provided. Standardized data service interfaces: Define a unified data service interaction interface. Interface parameters include "request address (URL), request method (GET / POST), request header, parameter mapping rules, and return data parsing rules". It supports flexible configuration of backend APIs. For example, in list scenarios, the interface address " / api / goods / list" and parameter mapping rules "product category=categoryId, price range=priceRange" can be configured to adapt to the data return format of different backend systems. Template configuration system: Provides a visual template configuration interface, allowing users to customize template parameters through graphical operations. For example, in list scenarios, users can configure whether to display a serial number column, whether to support batch selection, and the default page size. In form scenarios, users can configure whether fields are required, the maximum length of input boxes, and the data source for dropdown options, without writing any code. Component extension mechanism: Reserved function extension interfaces to support users to customize and extend based on standard templates. For example, if a financial scenario requires the addition of a risk level verification function before form submission, the custom verification logic can be accessed through the extension interface without modifying the core template code. If special components such as electronic signature components need to be added, they can be registered to the component library and seamlessly integrated with the standard template.

[0028] S404. A visual configuration interface for building component templates, supporting graphical parameter configuration; The graphical parameter configuration function is divided into basic parameter configuration, field configuration, style configuration, and interface configuration. Basic parameter configuration: Supports graphical adjustment of component basic properties. For example, in list scenarios, you can select whether to display the serial number column and whether to support batch selection through checkboxes, set the default page size (10 / 20 / 50 / 100 items) through drop-down boxes, and fill in the list title through input boxes; Field configuration: In form scenarios, you can adjust the field order by dragging and dropping, set the field type by drop-down selection (text box / drop-down list / date picker, etc.), set whether a field is required by checking boxes, and set the maximum input length by input box. Style configuration: Provides a visual style editor, which supports modifying component background color and font color through the color picker, adjusting component spacing and font size through the slider, and selecting layout style (compact / loose) through the radio button. Interface Configuration: The integrated data service interface configuration module supports filling in the interface URL through an input box, selecting the request method (GET / POST) through a drop-down list, and configuring parameter mapping rules through key-value pairs in the form, such as the front-end field "product name" corresponding to the back-end field "goodsName", without the need to write interface request code; Interaction optimization: The preview area effect is synchronized in real time during the configuration process. For example, after modifying the default value of list pagination, the preview area immediately displays the corresponding pagination style; it supports configuration saving, configuration resetting, and configuration export functions, making it easy to reuse configuration schemes.

[0029] S405. Build a component template library and store the component templates for the three major scenarios in the library. Specifically, the component template library is designed with a three-level storage structure based on scene type, function tag, and version number. The first level is divided into list scene component library, form scene component library, and detail scene component library. The second level is divided by function tag, such as basic list, editable list, and tree list under list scene; basic form, step-by-step form, and pop-up form under form scene. The third level is distinguished by version number. Template storage content: Each component template stores complete presentation layer UI code, logic layer interaction code, data layer interface adaptation code, default configuration parameters, and visual configuration interface configuration items, ensuring that the template can be called independently; Search and management functions: Supports searching templates by scenario type, function tag, and keyword. For example, entering a filterable list can quickly locate the basic list template in the list scenario; provides template version management, supports viewing version update logs, rolling back to historical versions, and template removal / re-uploading functions to ensure the standardization of the template library; S500, Page Generation: Based on the aforementioned three-level template assets of layout template library, page template library, and component template library, as well as core configuration mechanisms such as visual configuration interface, standardized data interface, and component extension mechanism, it realizes the rapid generation of low-code application pages; S501, Page Template Decision: Under the layout determined in step S200 or without layout, start the page template matching judgment process to determine whether there is a page template in the page template library that meets the business requirements. The specific judgment process is as follows: the decision-making basis is to search the page template library based on three core dimensions: the business functions, scenario types, and layout adaptation requirements that are defined in the requirements analysis phase. Search method: Double verification is performed by checking the component layout and fixed element positions within the template through the template library's tag matching system and template structure preview; Judgment criteria: If the search results contain a page template that is consistent with the scene type, adaptable to the layout, and has a core function coverage of ≥80%, it is determined that "a reusable template exists" and proceeds to step S502; if the search results do not contain a matching template, or the core function coverage is <80%, it is determined that "a reusable template does not exist" and proceeds to step S503.

[0030] S502, Reusable templates exist: S5021. Select a template: Select a matching standardized page template from the visual search results of the page template library; Operation process: In the template library interface, view the feature list, layout preview, reuse count, and stability score of the candidate templates. After confirming that there are no differences, complete the template selection. Compatibility check: The system automatically checks the compatibility between the selected page template and the layout template determined in step S200. If there is a compatibility conflict, it will automatically prompt for an adjustment plan to ensure that there are no technical obstacles to template reuse.

[0031] S5022. Configuration and Generation: Through the visual configuration interface built in step S400, template parameters, data sources, fields, etc. are set, and the system automatically calls the mechanism from steps S200 to S400 to generate the target page.

[0032] S503, No reusable template exists: S5031. Create a new template: perform secondary development based on the closest standard template, or create a completely new template; S50311, Secondary Development Mode: Select a standard template from the template library that has the same scene type and the closest core functions, and customize it through the component extension mechanism in step S403: New feature module: Add functionality through the component configuration interface, access the batch import component library, and configure its linkage logic with the form; Modify core logic: Add custom validation rules through extended interfaces without modifying the core template code; S50312, Completely New Mode: If there is no similar standard template in the template library, the page template will be built from scratch based on the layout template in step S200 or without a layout. Page structure setup: Using a visual drag-and-drop tool, arrange list / form / detail components, buttons, filter boxes, and other components from the component template library into the page frame as needed, and define component spacing and layout rules; Interaction logic configuration: Reuse the built-in interaction logic of step S403 and supplement special interactions through the configuration interface; Data interface adaptation: Configure the backend-specific interface according to the standardized interface specifications in step S403 to ensure data interaction compatibility; S5032, Accumulated Assets: Save newly created templates to the page template library to enrich platform assets for future reuse.

[0033] S504, Page Setup and Delivery: Whether using a reused or newly created template, the final stage will be page setup. The aPaaS engine will be used to render the configured template into the final runnable application page, completing this development task.

[0034] The embodiments disclosed in this invention are preferred embodiments, but are not limited thereto. Those skilled in the art can easily understand the spirit of this invention based on the above embodiments and make different extensions and variations, but as long as they do not depart from the spirit of this invention, they are all within the protection scope of this invention.

Claims

1. A low-code component template implementation method, characterized in that, Includes the following steps: S100. Requirements Analysis: Conduct requirements analysis for the new and enhanced PaaS development, and clarify the specific requirements for business functions, page presentation, and interaction logic. S200, Layout Template Abstraction and Construction: Standardized abstraction of basic page layout; S300, Page Template Abstraction and Construction: Based on the layout template, the overall structure of the page is abstracted to form a reusable page template; S400, Component Template Scene Abstraction Modeling: Constructed through standardized scene abstraction, layered architecture design, and template implementation mechanism; S401. Analyze the functional requirements of components within the page template, sort out the business scenario types of core components, and standardize the components into three core scenarios: list scenario, form scenario, and detail scenario. S402. The component template is designed with a layered architecture, dividing it into three independent modules: presentation layer, logic layer, and data layer, thereby decoupling the core capabilities. S403. Pre-define complete front-end interaction logic in component templates and define unified data service interaction interfaces; S404. A visual configuration interface for building component templates, supporting graphical parameter configuration; S405. Build a component template library and store the component templates for the three major scenarios in the library. S500, Page Generation: Based on the aforementioned three-level template assets of layout template library, page template library, and component template library, as well as the core configuration mechanism of visual configuration interface, standardized data interface, and component extension mechanism, it realizes the rapid generation of low-code application pages.

2. The low-code component template implementation method according to claim 1, characterized in that, Step S200 also includes the following steps: S201. Determine whether the page layout corresponding to the current requirement needs to be abstracted. If layout abstraction is not required, proceed directly to step S300, page template abstraction and construction. S2011. If layout abstraction is required, check if there is a matching layout template in the layout template library. If there is a matching layout template, reuse the layout template directly and proceed to step S300, page template abstraction and construction. S2012: If the layout template does not exist, create the target layout template based on the requirements, classify and store it in the layout template library, and then proceed to step S300, the page template abstraction and construction stage.

3. The low-code component template implementation method according to claim 1, characterized in that, Step S300 further includes the following steps: S301: Determine whether the page corresponding to the current requirement needs to be abstracted into a page template. If page template abstraction is not required, proceed directly to step S500, the page production stage. S302. Perform production debugging on the page template, verify the integrity of the page structure and the consistency of interaction, generate a stable version of the page template, and store it in the page template library by category.

4. The low-code component template implementation method according to claim 2, characterized in that, Step S500 also includes the following steps: S501, Page Template Decision: Under the layout determined in step S200 or without layout, start the page template matching judgment process to determine whether there is a page template in the page template library that meets the business requirements. S502, Reusable templates exist: S5021. Select a template: Select a matching standardized page template from the visual search results of the page template library; S5022, Configuration and Generation: Through the visual configuration interface built in step S400, template parameters, data source, and fields are set, and the system automatically calls the mechanism from steps S200 to S400 to generate the target page; S503, No reusable template exists: S5031. Create a new template: perform secondary development based on the closest standard template, or create a completely new template; S5032, Deposited Assets: Save the newly created template to the page template library; S504, Page Setup and Delivery: Utilize the aPaaS engine to render the configured template into the final, runnable application page.

5. The low-code component template implementation method according to claim 1, characterized in that, The specific implementation of the component scene abstraction in step S401 includes: List scenarios support data collection display, filtering, sorting and pagination operations, and have built-in functions such as multi-condition combined filtering, ascending / descending sorting switching, and configurable page size; The form supports data creation and editing, with pre-defined validation rules for mobile phone numbers, email addresses, numbers, and non-empty fields, and also supports custom validation logic. The details section supports displaying detailed data for a single record, provides date formatting and amount precision control for data formatting, and supports displaying related data.

6. The low-code component template implementation method according to claim 1, characterized in that, The layered architecture in step S402 specifically includes: The presentation layer uses the Vue / React framework to implement the component UI layout, supporting drag-and-drop adjustment and visual style modification; The logic layer encapsulates form validation, state management, and event handling interaction logic to achieve real-time validation, state recording, and event response. The data layer provides a unified data service interface, supporting automatic data acquisition, submission, and format conversion.

7. The low-code component template implementation method according to claim 1, characterized in that, The pre-set front-end interaction logic in step S403 includes: In a list scenario, a complete process is implemented that automatically triggers data refresh and retains pagination status when filter conditions change. The form scenario implements a closed-loop logic that performs real-time validation of input content, allows submission after successful validation, displays a prompt message upon successful submission, and then returns to the list page.

8. A low-code component template implementation method according to claim 1, characterized in that, The visual configuration interface in step S404 provides: The basic parameter configuration area allows you to set component display properties using checkboxes and dropdown menus. The field configuration area allows you to drag and drop to adjust the field order and type; The style configuration area provides a color picker and a spacing slider for visually adjusting styles. The interface configuration area allows you to configure data interface parameters using key-value pairs in the form.

9. A low-code component template implementation method according to claim 1, characterized in that, The component template library in step S405 adopts a three-level storage structure: The first level is divided into list, form, and detail component libraries based on scenario type; The second level is further subdivided into basic list and editable list function categories based on function tags; The template is updated and iterated by version number in a three-level management system.

10. A low-code component template implementation method according to claim 4, characterized in that, The page template matching judgment process in step S501 includes: Double verification is performed using a tag matching system and a template structure preview. Set matching threshold standards based on the degree to which the integrity of core functions is satisfied; The system automatically performs layout adaptation checks on matching templates and provides adjustment solutions when conflicts exist.

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