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With the introduction of the GIF image decoder and animation support (#40) contributed by @ndsl7109256, it is now time to move forward with implementing TinyVG -- a compact vector graphics format designed as a lightweight alternative to SVG. The TinyVG specification is only 14 pages long, in stark contrast to the SVG 1.1 spec, which spans 260 pages (not including dependencies like CSS, XML, and ECMAScript). TinyVG achieves simplicity without sacrificing core vector graphics capabilities, making it ideal for embedded systems with limited resources.
Integrating TinyVG support into Mado could offer efficient vector graphics rendering with lower memory and computational overhead than SVG. Here are key areas to address:
File Parsing: Implement a TinyVG file parser to read the binary format efficiently, ensuring the parsing adheres to TinyVG’s specification.
Rendering Engine: Adapt Mado’s rendering pipeline to handle TinyVG graphics primitives (paths, lines, polygons, etc.) and basic fills.
Performance Considerations: Ensure smooth performance on resource-constrained devices.
Testing: Prepare sample TinyVG files and conduct visual tests to verify rendering accuracy and performance benefits.
The article An Introduction to TinyVG in C uses PlutoVG to render TinyVG, and since the vector graphics operations in PlutoVG closely align with those in Mado, it should be feasible to port the sample C-based TinyVG decoder to Mado as a new image loader.
Supporting TinyVG in Mado aligns well with the project’s goals by delivering essential vector graphics with minimal overhead.
With the introduction of the GIF image decoder and animation support (#40) contributed by @ndsl7109256, it is now time to move forward with implementing TinyVG -- a compact vector graphics format designed as a lightweight alternative to SVG. The TinyVG specification is only 14 pages long, in stark contrast to the SVG 1.1 spec, which spans 260 pages (not including dependencies like CSS, XML, and ECMAScript). TinyVG achieves simplicity without sacrificing core vector graphics capabilities, making it ideal for embedded systems with limited resources.
Integrating TinyVG support into Mado could offer efficient vector graphics rendering with lower memory and computational overhead than SVG. Here are key areas to address:
The article An Introduction to TinyVG in C uses PlutoVG to render TinyVG, and since the vector graphics operations in PlutoVG closely align with those in Mado, it should be feasible to port the sample C-based TinyVG decoder to Mado as a new image loader.
Supporting TinyVG in Mado aligns well with the project’s goals by delivering essential vector graphics with minimal overhead.
Reference:
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