Power pipeline SVG optimization export tool software and optimization method thereof

Abstract

The invention relates to the technical field of computer graphic processing, and discloses power pipeline SVG optimization export tool software and an optimization method thereof.The power pipeline SVG optimization export tool software comprises an SVG file reading module, an SVG primary processing module, an SVG file optimization processing module and an SVG file export module; the SVG file reading module is used for reading the SVG file to be optimized; the SVG primary processing module is used for performing efficient processing and error processing on the SVG file; the SVG file optimization processing module is used for carrying out optimization processing on an internal structure and data of the SVG file; and the SVG file export module is used for exporting the SVG file subjected to optimization processing for subsequent use. An SVG optimization processing module is used for identifying and removing redundant information, and by optimizing arrangement of elements and attributes, using short identifiers and abbreviations and combining repeated styles, the total length of codes is reduced, the codes are simplified, the size of SVG files is reduced, and storage and transmission burdens are reduced.

Description

Technical Field

[0001] The present invention relates to the technical field of computer graphics processing, in particular to power pipeline SVG optimization export tool software and an optimization method thereof. Background Art

[0002] SVG files have been widely used in the field of power pipelines due to their vector characteristics and high definition. However, with the increasing complexity of projects, the size and loading efficiency of SVG files have become key factors restricting their further application.

[0003] Due to their vector characteristics and high definition, SVG files usually contain a large amount of graphic data and complex structures. In complex power pipeline projects, SVG files may contain hundreds or thousands of graphic elements and paths, making the file size large. Due to the large size of SVG files, it takes a long time to load them into the device, which not only affects the operating experience, but also affects the feasibility and efficiency of power projects. Large SVG files require more storage space, which increases storage costs. In the process of project cooperation and data transmission, large files also mean higher transmission costs and time costs. Due to the complexity of the SVG file structure, editing and modifying SVG files usually requires professional graphics processing software, which increases the difficulty of editing and modifying graphic data in power pipeline projects. Summary of the invention

[0004] The present invention provides power pipeline SVG optimization export tool software and an optimization method thereof to solve the problems raised by the above background technology.

[0005] The present invention provides the following technical solutions: power pipeline SVG optimization export tool software and optimization method thereof, power pipeline SVG optimization export tool software, including the following modules: SVG file reading module, SVG preliminary processing module, SVG file optimization processing module, SVG file export module; SVG file reading module: reads the SVG file to be optimized; SVG preliminary processing module: efficient processing of SVG files and error handling; SVG file optimization processing module: optimizes the internal structure and data of SVG files; SVG file export module: exports the optimized SVG file for subsequent use.

[0006] As a preferred technical solution of the present invention, the main responsibility of the SVG file reading module is to accurately and efficiently read the SVG file to be optimized. The SVG file reading module can support reading of SVG files of different versions, and the SVG file reading module can correctly parse and present graphic content. Under different circumstances, the SVG file reading module reads the SVG file to be optimized and transmits it to the SVG preliminary processing module.

[0007] As a preferred technical solution of the present invention, the SVG preliminary processing module includes a file format compatibility processing module, a data accuracy processing module, an efficiency processing module, and an error handling mechanism module; the file format compatibility processing module can identify and process various elements and attributes in the SVG file, including shapes, paths, texts, images, and gradients; the SVG preliminary processing module can support common SVG extensions and features, and SVG extensions and features can further enrich the expressiveness and interactivity of the SVG file.

[0008] As a preferred technical solution of the present invention, the data accuracy processing module can ensure that no data is lost during the reading process while maintaining the accuracy of the data, and the data accuracy processing module can comprehensively capture each graphic element and attribute information in the SVG file. The data accuracy processing module can ensure data accuracy when capturing data, and data accuracy includes correct data format, precise numerical values ​​and logical consistency.

[0009] As a preferred technical solution of the present invention, the data accuracy processing module has a parsing module and a verification mechanism, and the parsing module can accurately parse the grammatical structure of the SVG file, identify and extract all graphic elements and attribute information, and the verification mechanism can verify the extracted data to ensure the integrity and accuracy of the data. The data accuracy processing module transmits the SVG file to the high efficiency processing module.

[0010] As a preferred technical solution of the present invention, the high-efficiency processing module can efficiently process large and complex SVG files, thereby avoiding affecting the performance of the entire system due to slow reading speed. The high-efficiency processing module has a highly scalable module and a lossless compression module, and the high-efficiency processing module is applied to web graphics, icon design and data visualization fields through the highly scalable module and the lossless compression module. The high-efficiency processing module processes the SVG file and transmits it to the error handling mechanism module.

[0011] As a preferred technical solution of the present invention, the error handling mechanism module can deal with various potential errors and abnormal situations. The error handling mechanism module can identify and process errors in the file structure, and includes checking whether the file follows the correct SVG syntax, whether the tags are closed, whether the attributes are valid, and when the error handling mechanism module identifies a file structure error, it stops further processing and returns the identified clear error information, so that the user or system administrator can quickly locate and solve the problem. When the error handling mechanism module does not identify a file structure error, it transfers the SVG file to the SVG optimization processing module.

[0012] As a preferred technical solution of the present invention, the SVG optimization processing module adopts an SVG optimization algorithm, which can optimize the internal structure and data of the SVG file, including removing redundant information and streamlining the code. When the SVG file is read and prepared for rendering or further processing, the optimization of the internal structure and data of the SVG optimization processing module can significantly improve the loading speed of the SVG file, reduce the file size, and optimize the rendering performance. The SVG optimization algorithm can analyze the internal structure and data of the SVG file, identify and remove redundant information in the SVG file, and significantly reduce the size of the SVG file and speed up the transmission speed of the SVG file in the network. The SVG optimization processing module can further streamline the SVG code and reduce the overall length of the code by optimizing the arrangement of elements and attributes, using short identifiers and abbreviations, and merging repeated styles. The SVG optimization processing module can optimize the SVG file according to actual needs, and the SVG optimization processing module can transfer the optimized SVG file to the SVG file export module.

[0013] As a preferred technical solution of the present invention, the SVG file export module can convert the processed SVG data into a standard SVG file format and ensure the integrity and accuracy of the SVG file. The SVG file export module can self-check the structure of the SVG file to ensure that all elements, attributes and styles are correctly converted and saved. The SVG file export module can perform necessary formatting and verification on the exported file and ensure that the file can be correctly parsed and rendered when used subsequently. The SVG file export module has multiple export options and settings, including the quality level of the exported SVG file and the name of the exported SVG file, the save location, and whether metadata is included.

[0014] As a preferred technical solution of the present invention, the following steps are included: S1: First, different versions of the to-be-optimized SVG files are transferred to the SVG file reading module, and the SVG file reading module is used to read and transfer the to-be-optimized SVG files to the file format compatibility processing module. Then, the file format compatibility processing module identifies and processes various elements and attributes in the SVG file, and then the data accuracy processing module is used to ensure that no data is lost during the reading process while maintaining data accuracy. The parsing module accurately parses the syntax structure of the SVG file, identifies and extracts all graphic elements and attribute information, and then the verification mechanism verifies the extracted data; S2: After that, the SVG file is efficiently processed by the high-efficiency processing module, and the SVG file is highly scaled and losslessly compressed by the high-efficiency processing module. Then, the error handling mechanism module is used to identify and process errors in the file structure in the SVG file, and to check whether the file follows the correct SVG syntax, whether the tags are closed, and whether the attributes are valid. When a file structure error is identified, further processing is stopped, and the identified clear error information is returned, so that the user or system administrator can quickly locate and solve the problem; S3: Finally, the SVG optimization processing module optimizes the internal structure and data of the SVG file through the SVG optimization algorithm, improves the loading speed of the SVG file, reduces the file size, and optimizes the rendering performance. It also analyzes the internal structure and data of the SVG file, identifies and removes redundant information in the SVG file, and further streamlines the SVG code. The SVG optimization processing module transfers the SVG file to the SVG file export module, and the SVG file export module converts the processed SVG data into a standard SVG file format. The SVG file export module checks the SVG file structure to ensure that all elements, attributes, and styles are correctly converted and saved, and then selects the SVG file information to be exported through the SVG file export module.

[0015] The present invention has the following beneficial effects: 1. The power pipeline SVG optimization export tool software uses the SVG optimization processing module to identify and remove redundant information. By optimizing the arrangement of elements and attributes, using short identifiers and abbreviations, and merging repeated styles, it reduces the overall length of the code, streamlines the code, reduces the size of the SVG file, and reduces the burden of storage and transmission.

[0016] 2. The power pipeline SVG optimization export tool software uses the data accuracy processing module to ensure data accuracy when capturing data, ensuring that the image quality of the optimized SVG file is not lost, meeting the needs of the power pipeline project.

[0017] 3. The power pipeline SVG optimization export tool software uses the SVG optimization processing module to improve the loading speed and rendering efficiency of SVG files, thereby improving the work efficiency of power pipeline projects. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1 It is a schematic diagram of the system flow structure of the present invention; Figure 2 This is a schematic diagram of the internal flow of the SVG preliminary processing module of the present invention; Figure 3 This is a schematic diagram of the internal flow of the file format compatibility processing module of the present invention; Figure 4 This is a schematic diagram of the error handling mechanism module flow of the present invention; Figure 5 It is a flow chart of the SVG file export module of the present invention. DETAILED DESCRIPTION

[0019] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0020] See also Figure 1-Figure 5 , the power pipeline SVG optimization export tool software and the optimization method thereof, including the following modules: SVG file reading module, SVG preliminary processing module, SVG file optimization processing module, SVG file export module; SVG file reading module: reads the SVG file to be optimized; SVG preliminary processing module: efficient processing of SVG files and error handling; SVG file optimization processing module: optimizes the internal structure and data of SVG files; SVG file export module: exports the optimized SVG file for subsequent use.

[0021] In a preferred embodiment, the main responsibility of the SVG file reading module is to accurately and efficiently read the SVG file to be optimized. The SVG file reading module can support reading of different versions of SVG files, and the SVG file reading module can correctly parse and present the graphic content. In different situations, the SVG file reading module reads the SVG file to be optimized and transmits it to the SVG preliminary processing module. The SVG file reading module provides the necessary data basis for subsequent processing and analysis. The sources of SVG files are diverse. They can be generated by professional graphic design software or created through online tools or code editors. There may be slight differences in the formats of different versions of SVG files. Therefore, the SVG reading module can support these different versions of SVG files to ensure that the graphic content can be correctly parsed and presented in various situations.

[0022] In a preferred embodiment, the SVG preliminary processing module includes a file format compatibility processing module, a data accuracy processing module, an efficiency processing module, and an error handling mechanism module; the file format compatibility processing module can identify and process various elements and attributes in the SVG file, including shapes, paths, text, images, and gradients. The SVG preliminary processing module can support some common SVG extensions and features, such as SVGZ (compressed SVG) files and SMIL (Synchronized Multimedia Integration Language) animations, and SVG extensions and features can further enrich the expressiveness and interactivity of SVG files. The file format compatibility processing module can identify and process various abnormal situations that may exist in SVG files, such as incorrect syntax and incomplete tags.

[0023] In a preferred embodiment, the data accuracy processing module can ensure that no data is lost during the reading process while maintaining the accuracy of the data, and the data accuracy processing module can comprehensively capture every graphic element and attribute information in the SVG file. The data accuracy processing module can ensure data accuracy when capturing data, and data accuracy includes correct format of the data, precise numerical values, and logical consistency.

[0024] In a preferred embodiment, the data accuracy processing module has a parsing module and a verification mechanism, and the parsing module can accurately parse the grammatical structure of the SVG file, identify and extract all graphic elements and attribute information, and the verification mechanism can verify the extracted data to ensure the integrity and accuracy of the data. The data accuracy processing module transfers the SVG file to the efficiency processing module.

[0025] In a preferred embodiment, the high-efficiency processing module can efficiently process large and complex SVG files, thereby avoiding affecting the performance of the entire system due to slow reading speed. The high-efficiency processing module has a highly scalable module and a lossless compression module, and the high-efficiency processing module is applied to web graphics, icon design and data visualization fields through the highly scalable module and the lossless compression module. The high-efficiency processing module processes the SVG file and transmits it to the error handling mechanism module. For the reading module, high efficiency means that it can accurately parse and load the SVG file in a short time. When the reading speed is too slow, it will cause the performance of the entire system to decline, and even cause the system to crash. Therefore, the high-efficiency processing module has powerful processing capabilities and optimized algorithms, and can respond quickly when processing large or complex SVG files to ensure the stability and smoothness of the system. In order to improve the efficiency of reading, some technical means are used for optimization, and multi-threading or asynchronous processing is used to parallelly process the reading tasks of SVG files, thereby improving the overall processing speed. At the same time, the SVG file is pre-processed and optimized to reduce unnecessary calculations and resource consumption, further improving the performance of the reading module.

[0026] In a preferred embodiment, the error handling mechanism module can deal with various potential errors and abnormal situations. The error handling mechanism module can identify and handle errors in the file structure, and includes checking whether the file follows the correct SVG syntax, whether the tags are closed, and whether the attributes are valid. When the error handling mechanism module identifies a file structure error, it stops further processing and returns the identified clear error information, so that the user or system administrator can quickly locate and solve the problem. When the error handling mechanism module does not identify a file structure error, the SVG file is transferred to the SVG optimization processing module. The error handling mechanism module can also handle data errors that may exist in the SVG file, attributes contain invalid values, or path data may contain erroneous instructions. For these situations, the module can identify and ignore erroneous data, or replace it with reasonable default values ​​to ensure that the entire file can be correctly read and rendered. The error handling mechanism module also has the ability to handle damaged or incomplete files. When the SVG file is truncated or damaged during transmission, resulting in an incomplete file or inability to parse correctly, the error handling mechanism module detects the integrity of the file and gives corresponding prompts when the file is found to be damaged, so that the user can retrieve or repair the file.

[0027] In a preferred embodiment, the SVG optimization processing module adopts an SVG optimization algorithm, which can optimize the internal structure and data of the SVG file, including removing redundant information and streamlining the code. When the SVG file is read and prepared for rendering or further processing, the optimization of the internal structure and data of the SVG optimization processing module can significantly improve the loading speed of the SVG file, reduce the file size, and optimize the rendering performance. The SVG optimization algorithm can analyze the internal structure and data of the SVG file, identify and remove redundant information in the SVG file, and the SVG optimization algorithm can significantly reduce the size of the SVG file and speed up the transmission speed of the SVG file in the network. The SVG optimization processing module can further streamline the SVG code and reduce the overall length of the code by optimizing the arrangement of elements and attributes, using short identifiers and abbreviations, and merging repeated styles. The streamlined code is not only easy to read and maintain, but also improves the parsing and rendering efficiency of the SVG file. The SVG optimization processing module can optimize the SVG file according to actual needs. For elements with a single background color, they can be converted into simple graphic shapes to reduce the amount of calculation during rendering. For SVG files containing a large number of repeated patterns, you can use SVG's symbol and reference (use) functions to reduce duplicate code and simplify the file structure. During the optimization process, the SVG optimization module needs to consider the compatibility and accessibility of the file to ensure that the optimized SVG file can be correctly rendered on various browsers and devices, and for applications that rely on SVG files, the optimization will not destroy their original functions and appearance. The SVG optimization module can transfer the optimized SVG file to the SVG file export module.

[0028] In a preferred embodiment, the SVG file export module can convert the processed SVG data into a standard SVG file format and ensure the integrity and accuracy of the SVG file. The SVG file export module can self-check the structure of the SVG file to ensure that all elements, attributes and styles are correctly converted and saved, and the SVG file export module can perform necessary formatting and verification on the exported file, and ensure that the file can be correctly parsed and rendered when used subsequently. The SVG file export module has a variety of export options and settings, including the quality level of the exported SVG file and the information specifying the name, save location and whether metadata of the exported SVG file is included. During the export process, the SVG file export module considers the security and stability of the file. The SVG file export module ensures that the exported file does not contain any potential malicious code or virus, and can run stably on various operating systems and browsers, thereby protecting the user's data security and improving the user experience. The SVG file export module is an important link in the graphic design and development process. The SVG file export module can correctly export the optimized SVG file to the standard SVG file format, and provide a variety of export options and settings to meet the needs of different users. At the same time, the SVG file export module also considers the security and stability of the file, and provides a friendly user interface and interactive mode, so that users can easily operate and manage the exported SVG file.

[0029] In a preferred embodiment, the steps include: S1: First, different versions of the to-be-optimized SVG files are transferred to the SVG file reading module, and the SVG file reading module is used to read and transfer the to-be-optimized SVG files to the file format compatibility processing module. Then, the file format compatibility processing module identifies and processes various elements and attributes in the SVG file, and then the data accuracy processing module is used to ensure that no data is lost during the reading process while maintaining data accuracy. The parsing module accurately parses the syntax structure of the SVG file, identifies and extracts all graphic elements and attribute information, and then the verification mechanism verifies the extracted data; S2: After that, the SVG file is efficiently processed by the high-efficiency processing module, and the SVG file is highly scaled and losslessly compressed by the high-efficiency processing module. Then, the error handling mechanism module is used to identify and process errors in the file structure in the SVG file, and to check whether the file follows the correct SVG syntax, whether the tags are closed, and whether the attributes are valid. When a file structure error is identified, further processing is stopped, and the identified clear error information is returned, so that the user or system administrator can quickly locate and solve the problem; S3: Finally, the SVG optimization processing module optimizes the internal structure and data of the SVG file through the SVG optimization algorithm, improves the loading speed of the SVG file, reduces the file size, and optimizes the rendering performance. It also analyzes the internal structure and data of the SVG file, identifies and removes redundant information in the SVG file, and further streamlines the SVG code. The SVG optimization processing module transfers the SVG file to the SVG file export module, and the SVG file export module converts the processed SVG data into a standard SVG file format. The SVG file export module checks the SVG file structure to ensure that all elements, attributes, and styles are correctly converted and saved, and then selects the SVG file information to be exported through the SVG file export module.

[0030] It should be noted that, in this article, relational terms such as first and second, etc. are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Moreover, the terms "include", "comprise" or any other variants thereof are intended to cover non-exclusive inclusion, so that a process, method, article or device including a series of elements includes not only those elements, but also other elements not explicitly listed, or also includes elements inherent to such process, method, article or device.

[0031] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. Power pipeline SVG optimization export tool software, characterized by: It includes the following modules: SVG file reading module, SVG preliminary processing module, SVG file optimization processing module, and SVG file export module; SVG file reading module: reads the SVG file to be optimized; SVG preliminary processing module: efficient processing of SVG files and error handling; SVG file optimization processing module: optimizes the internal structure and data of SVG files; SVG file export module: exports the optimized SVG file for subsequent use.

2. The power pipeline SVG optimization export tool software according to claim 1 is characterized by: The main responsibility of the SVG file reading module is to accurately and efficiently read the SVG file to be optimized. The SVG file reading module can support reading of SVG files of different versions, and the SVG file reading module can correctly parse and present graphic content. Under different circumstances, the SVG file reading module reads the SVG file to be optimized and transmits it to the SVG preliminary processing module.

3. The power pipeline SVG optimization export tool software according to claim 2 is characterized by: The SVG preliminary processing module includes a file format compatibility processing module, a data accuracy processing module, an efficiency processing module, and an error handling mechanism module; the file format compatibility processing module can identify and process various elements and attributes in the SVG file, including shapes, paths, texts, images, and gradients; the SVG preliminary processing module can support common SVG extensions and features, and SVG extensions and features can further enrich the expressiveness and interactivity of the SVG file.

4. The power pipeline SVG optimization export tool software according to claim 3 is characterized by: The data accuracy processing module can ensure that no data is lost during the reading process while maintaining the accuracy of the data, and the data accuracy processing module can comprehensively capture every graphic element and attribute information in the SVG file. The data accuracy processing module can ensure data accuracy when capturing data, and data accuracy includes correct data format, precise numerical values, and logical consistency.

5. The power pipeline SVG optimization export tool software according to claim 4 is characterized by: The data accuracy processing module has a parsing module and a verification mechanism, and the parsing module can accurately parse the grammatical structure of the SVG file, identify and extract all graphic elements and attribute information, and the verification mechanism can verify the extracted data to ensure the integrity and accuracy of the data. The data accuracy processing module transmits the SVG file to the efficiency processing module.

6. The power pipeline SVG optimization export tool software according to claim 5, characterized in that: The high-efficiency processing module can efficiently process large and complex SVG files, thereby avoiding affecting the performance of the entire system due to slow reading speed. The high-efficiency processing module has a highly scalable module and a lossless compression module, and the high-efficiency processing module is applied to web graphics, icon design and data visualization fields through the highly scalable module and the lossless compression module. The high-efficiency processing module processes the SVG file and then transmits it to the error handling mechanism module.

7. The power pipeline SVG optimization export tool software according to claim 6, characterized in that: The error handling mechanism module can deal with various potential errors and abnormal situations. The error handling mechanism module can identify and process errors in the file structure, and includes checking whether the file follows the correct SVG syntax, whether the tags are closed, whether the attributes are valid, and when the error handling mechanism module identifies a file structure error, it stops further processing and returns the identified clear error information, so that the user or system administrator can quickly locate and solve the problem. When the error handling mechanism module does not identify a file structure error, it transfers the SVG file to the SVG optimization processing module.

8. The power pipeline SVG optimization export tool software according to claim 7, characterized in that: The SVG optimization processing module adopts an SVG optimization algorithm, which can optimize the internal structure and data of the SVG file, including removing redundant information and streamlining the code. When the SVG file is read and prepared for rendering or further processing, the optimization of the internal structure and data of the SVG optimization processing module can significantly improve the loading speed of the SVG file, reduce the file size, and optimize the rendering performance. The SVG optimization algorithm can analyze the internal structure and data of the SVG file, identify and remove redundant information in the SVG file, and significantly reduce the size of the SVG file and speed up the transmission speed of the SVG file in the network. The SVG optimization processing module can further streamline the SVG code and reduce the overall length of the code by optimizing the arrangement of elements and attributes, using short identifiers and abbreviations, and merging repeated styles. The SVG optimization processing module can optimize the SVG file according to actual needs, and the SVG optimization processing module can transfer the optimized SVG file to the SVG file export module.

9. The power pipeline SVG optimization export tool software according to claim 8, characterized in that: The SVG file export module can convert the processed SVG data into a standard SVG file format and ensure the integrity and accuracy of the SVG file. The SVG file export module can self-check the structure of the SVG file to ensure that all elements, attributes and styles are correctly converted and saved. The SVG file export module can perform necessary formatting and verification on the exported file and ensure that the file can be correctly parsed and rendered when used subsequently. The SVG file export module has multiple export options and settings, including the quality level of the exported SVG file and the name of the exported SVG file, the save location, and whether metadata is included.

10. The optimization method of the power pipeline SVG optimization export tool software according to claim 9, characterized in that: The following steps are involved: S1: First, different versions of the to-be-optimized SVG files are transferred to the SVG file reading module, and the SVG file reading module is used to read and transfer the to-be-optimized SVG files to the file format compatibility processing module. Then, the file format compatibility processing module identifies and processes various elements and attributes in the SVG file, and then the data accuracy processing module is used to ensure that no data is lost during the reading process while maintaining data accuracy. The parsing module accurately parses the syntax structure of the SVG file, identifies and extracts all graphic elements and attribute information, and then the verification mechanism verifies the extracted data; S2: After that, the SVG file is efficiently processed by the high-efficiency processing module, and the SVG file is highly scaled and losslessly compressed by the high-efficiency processing module. Then, the error handling mechanism module is used to identify and process errors in the file structure in the SVG file, and to check whether the file follows the correct SVG syntax, whether the tags are closed, and whether the attributes are valid. When a file structure error is identified, further processing is stopped, and the identified clear error information is returned, so that the user or system administrator can quickly locate and solve the problem; S3: Finally, the SVG optimization processing module optimizes the internal structure and data of the SVG file through the SVG optimization algorithm, improves the loading speed of the SVG file, reduces the file size, and optimizes the rendering performance. It also analyzes the internal structure and data of the SVG file, identifies and removes redundant information in the SVG file, and further streamlines the SVG code. The SVG optimization processing module transfers the SVG file to the SVG file export module, and the SVG file export module converts the processed SVG data into a standard SVG file format. The SVG file export module checks the SVG file structure to ensure that all elements, attributes, and styles are correctly converted and saved, and then selects the SVG file information to be exported through the SVG file export module.

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