Update

3d_rendering.md

@@ -48,7 +48,7 @@ With this said, let's not take a look at possible **classifications** of 3D rend
   - **[photorealistic](photorealism.md)**
   - **stylized**, flat [shaded](shading.md), [wireframe](wireframe.md), ...
   - ...
-- **[hybrids](hybrid.md)**: Methods may be combined and/or lie in between different extremes, for example we may see a rasterizer 3D renderer that uses ray tracing to add detail (shadows, reflections, ...) to the scene, we may see renderers that allow triangle meshes as well as voxels etc.
+- **[hybrids](hybrid.md)**: Methods may be combined and/or lie in between different extremes, for example we may see a rasterizer 3D renderer that uses ray tracing to add detail (shadows, reflections, ...) to the scene, we may see renderers that allow triangle meshes as well as voxels etc. { One nice hybrid looking engine is e.g. [Chasm: The Rift](chasm_the_rift.md). ~drummyfish }
 - ...
 
 Finally a table of some common 3D rendering methods follows, including the most simple, most advanced and some unconventional ones. Note that here we talk about methods and techniques rather than algorithms, i.e. general approaches that are often modified and combined into a specific rendering algorithm. For example the traditional triangle rasterization is sometimes combined with raytracing to add e.g. realistic reflections. The methods may also be further enriched with features such as [texturing](texture.md), [antialiasing](antialiasing.md) and so on. The table below should help you choose the base 3D rendering method for your specific program.
@@ -273,4 +273,8 @@ Let's see what a typical pipeline might look like, similarly to something we mig
 6. **Stage: pixel/fragment processing**: Each pixel (fragment) produced by rasterization is processed here by a [pixel/fragment shader](fragment_shader.md). The shader is passed the pixel/fragment along with its coordinates, depth and possibly other attributes, and outputs a processed pixel/fragment with a specific color. Typically here we perform [shading](shading.md) and [texturing](texture.md) (pixel/fragment shaders can access texture data which are again stored in texture buffers on the GPU).
 7. Now the pixels are written to the output buffer which will be shown on screen. This can potentially be preceded by other operations such as depth tests, as mentioned above. 
 
-TODO: example of specific data going through the pipeline
+TODO: example of specific data going through the pipeline
+
+## See Also
+
+- [software rendering](sw_rendering.md)