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Open Access SIGGRAPH 2016 Conference Content (for a limited time) Recordings Courses: Physically Based Shading in Theory and Practice Talks: Brain & Brawn Live Streaming Sessions (free registration required) Courses A Practical Introduction to Frequency Analysis of Light Transport Advances in Real-Time Rendering An Elementary Introduction to Matrix Exponential for CG An Introduction to Graphics Pr

© Disney/Pixar 2016. Course Description Physically based shading has transformed the way we approach production rendering and simplified the lives of artists in the process. By adhering to physically based, energy-conserving models, one can easily create realistic materials that maintain their properties under a variety of lighting conditions. In contrast, traditional ad hoc models have required e

© Disney 2014. Course Description Physically based shading is transforming the way we approach production rendering, and simplifying the lives of artists in the process. By adhering to physically based, energy-conserving models, one can easily create realistic materials that maintain their properties under a variety of lighting conditions. In contrast, traditional ad hoc models have required exten

Course Description Physically based shading is transforming the way we approach production rendering, and simplifying the lives of artists in the process. By adhering to physically based, energy-conserving models, one can easily create realistic materials that maintain their properties under a variety of lighting conditions. In contrast, traditional ad hoc models have required extensive tweaking t

Once again, I’m collecting links to SIGGRAPH content: courses, talks, posters, etc. I’ll continue to update the post as new stuff appears. Courses An Introduction to OpenGL Programming Advances in Real-Time Rendering in 3D Graphics and Games Combining GPU Data-Parallel Computing With OpenGL Dynamic 2D/3D Registration for the Kinect Efficient Real-Time Shadows Lights! Speed! Action! Fundamentals of

© Disney/Pixar 2013. Course Description Physically based shading is increasingly important in both film and game production. By adhering to physically based, energy-conserving shading models, one can easily create high-quality, realistic materials that maintain their quality in a variety of lighting environments. Traditional ad hoc models have required extensive tweaking to achieve the same result

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As with last year, I’m gathering links to SIGGRAPH content, to complement Ke-Sen Huang’s invaluable Technical Papers list. Please let me know if you have anything to add to the list. Birds of a Feather COLLADA (video) OpenCL (video) OpenGL (video) (via @jbaert) OpenGL ES (video) OpenSceneGraph (starting to appear) Teaching OpenGL in a Post-Deprecation World WebGL (video) Courses Advanced (Quasi-)

Course Description Physically based shading is becoming of increasing importance to both film and game production. By adhering to physically based, energy-conserving shading models, one can easily create high quality, realistic materials that maintain that quality under a variety of lighting environments. Traditional ad hoc models have required extensive tweaking to achieve the same result, thus i

The x, why, z It’s a seemly simple problem: given two normal maps, how do you combine them? In particular, how do you add detail to a base normal map in a consistent way? We’ll be examining several popular methods as well as covering a new approach, Reoriented Normal Mapping, that does things a little differently. This isn’t an exhaustive survey with all the answers, but hopefully we’ll encourage