Front Cover -- Advanced Graphics Programming Using OpenGL -- Copyright Page -- Contents -- Preface -- Acknowledgments -- Biographies -- Part I: Concepts -- Chapter 1. Geometry Representation and Modeling -- 1.1 Polygonal Representation -- 1.2 Decomposition and Tessellation -- 1.3 Shading Normals -- 1.4 Triangle Stripping -- 1.5 Vertices and Vertex Arrays -- 1.6 Modeling vs. Rendering Revisited -- Chapter 2. 3D Transformations -- 2.1 Data Representation -- 2.2 Overview of the Transformation Pipeline -- 2.3 Normal Transformation -- 2.4 Texture Coordinate Generation and Transformation -- 2.5 Modeling Transforms -- 2.6 Visualizing Transform Sequences -- 2.7 Projection Transform -- 2.8 The Z Coordinate and Perspective Projection -- 2.9 Vertex Programs -- 2.10 Summary -- Chapter 3. Color, Shading, and Lighting -- 3.1 Representing Color -- 3.2 Shading -- 3.3 Lighting -- 3.4 Fixed-Point and Floating-Point Arithmetic -- 3.5 Summary -- Chapter 4.Digital Images and Image Manipulation -- 4.1 Image Representation -- 4.2 Digital Filtering -- 4.3 Convolution -- 4.4 Images in OpenGL -- 4.5 Positioning Images -- 4.6 Pixel Store Operations -- 4.7 Pixel Transfer Operations -- 4.8 ARB Imaging Subset -- 4.9 Off-Screen Processing -- 4.10 Summary -- Chapter 5. Texture Mapping -- 5.1 Loading Texture Images -- 5.2 Texture Coordinates -- 5.3 Loading Texture Images from the Frame Buffer -- 5.4 Environment Mapping -- 5.5 3D Texture -- 5.6 Filtering -- 5.7 Additional Control of Texture Level of Detail -- 5.8 Texture Objects -- 5.9 Multitexture -- 5.10 Texture Environment -- 5.11 Summary -- Chapter 6. Rasterization and Fragment Processing -- 6.1 Rasterization -- 6.2 Fragment Operations -- 6.3 Framebuffer Operations -- 6.4 Summary -- Chapter 7. Window System and Platform Integration -- 7.1 Renderer and Window State -- 7.2 Address Space and Threads -- 7.3 Anatomy of a Window.

7.4 Off-Screen Rendering -- 7.5 Rendering to Texture Maps -- 7.6 Direct and Indirect Rendering -- Chapter 8. OpenGL Implementations -- 8.1 OpenGL Versions -- 8.2 OpenGL Extensions -- 8.3 OpenGL ES for Embedded Systems -- 8.4 OpenGL Pipeline Evolution -- 8.5 Hardware Implementations of the Pipeline -- 8.6 The Future -- Part II: Basic Techniques -- Chapter 9. Multiple Rendering Passes -- 9.1 Invariance -- 9.2 Multipass Overview -- 9.3 The Multipass Toolbox -- 9.4 Multipass Limitations -- 9.5 Multipass vs. Micropass -- 9.6 Deferred Shading -- 9.7 Summary -- Chapter 10. Antialiasing -- 10.1 Full-Scene Antialiasing -- 10.2 Supersampling -- 10.3 Area Sampling -- 10.4 Line and Point Antialiasing -- 10.5 Antialiasing with Textures -- 10.6 Polygon Antialiasing -- 10.7 Temporal Antialiasing -- 10.8 Summary -- Chapter 11. Compositing, Blending, and Transparency -- 11.1 Combining Two Images -- 11.2 Other Compositing Operators -- 11.3 Keying and Matting -- 11.4 Blending Artifacts -- 11.5 Compositing Images with Depth -- 11.6 Other Blending Operations -- 11.7 Dissolves -- 11.8 Transparency -- 11.9 Alpha-Blended Transparency -- 11.10 Screen-Door Transparency -- 11.11 Summary -- Chapter 12. Image Processing Techniques -- 12.1 OpenGL Imaging Support -- 12.2 Image Storage -- 12.3 Point Operations -- 12.4 Region-based Operations -- 12.5 Reduction Operations -- 12.6 Convolution -- 12.7 Geometric Operations -- 12.8 Image-Based Depth of Field -- 12.9 High Dynamic Range Imaging -- 12.10 Summary -- Chapter 13. Basic Transform Techniques -- 13.1 Computing Inverse Transforms Efficiently -- 13.2 Stereo Viewing -- 13.3 Depth of Field -- 13.4 Image Tiling -- 13.5 Billboarding Geometry -- 13.6 Texture Coordinate vs. Geometric Transformations -- 13.7 Interpolating Vertex Components through a Perspective Transformation -- 13.8 Summary -- Chapter 14. Texture Mapping Techniques.

14.1 Loading Texture Images into a Framebuffer -- 14.2 Optimizing Texture Coordinate Assignment -- 14.3 3D Textures -- 14.4 Texture Mosaics -- 14.5 Texture Tiling -- 14.6 Texture Paging -- 14.7 Prefiltered Textures -- 14.8 Dual-Paraboloid Environment Mapping -- 14.9 Texture Projection -- 14.10 Texture Color Coding and Contouring -- 14.11 2D Image Warping -- 14.12 Texture Animation -- 14.13 Detail Textures -- 14.14 Texture Sharpening -- 14.15 Mipmap Generation -- 14.16 Texture Map Limits -- 14.17 Summary -- Chapter 15. Lighting Techniques -- 15.1 Limitations in Vertex Lighting -- 15.2 Fragment Lighting Using Texture Mapping -- 15.3 Spotlight Effects Using Projective Textures -- 15.4 Specular Lighting Using Environment Maps -- 15.5 Light Maps -- 15.6 BRDF-based Lighting -- 15.7 Reflectance Maps -- 15.8 Per-fragment Lighting Computations -- 15.9 Other Lighting Models -- 15.10 Bump Mapping with Textures -- 15.11 Normal Maps -- 15.12 Bump-mapped Reflections -- 15.13 High Dynamic Range Lighting -- 15.14 Global Illumination -- 15.15 Summary -- Part III: Advanced Techniques -- Chapter 16. CAD and Modeling Techniques -- 16.1 Picking and Highlighting -- 16.2 Culling Techniques -- 16.3 Occlusion Culling -- 16.4 Geometric Level of Detail -- 16.5 Visualizing Surface Orientation -- 16.7 Line Rendering Techniques -- 16.8 Coplanar Polygons and Decaling -- 16.9 Capping Clipped Solids -- 16.10 Constructive Solid Geometry -- Chapter 17. Scene Realism -- 17.1 Reflections -- 17.2 Refraction -- 17.3 Creating Environment Maps -- 17.4 Shadows -- 17.5 Summary -- Chapter 18. Natural Detail -- 18.1 Particle Systems -- 18.2 Dynamic Meshes -- 18.3 Procedural Texture Generation -- 18.4 Summary -- Chapter 19. Illustration and Artistic Techniques -- 19.1 Projections for Illustration -- 19.2 Nonphotorealistic Lighting Models -- 19.3 Edge Lines -- 19.4 Cutaway Views.

19.5 Depth Cuing -- 19.6 Patterns and Hatching -- 19.7 2D Drawing Techniques -- 19.8 Text Rendering -- 19.9 Drawing and Painting -- 19.10 Summary -- Chapter 20. Scientific Visualization -- 20.1 Mapping Numbers to Pictures -- 20.2 Visual Cues and Perception -- 20.3 Data Characterization -- 20.4 Point Data Visualization -- 20.5 Scalar Field Visualization -- 20.6 Vector Field Visualization -- 20.7 Tensor Field Visualization -- 20.8 Summary -- Chapter 21. Structuring Applications for Performance -- 21.1 Structuring Graphics Processing -- 21.2 Managing Frame Time -- 21.3 Application Performance Tuning -- 21.4 Summary -- Appendix A. Using OpenGL Extensions -- A.1 How OpenGL Extensions are Documented -- A.2 Finding OpenGL Extension Specifications -- A.3 How to Read an OpenGL Extension Specification -- A.4 Portable Use of OpenGL Extensions -- A.5 Using Extension Function Pointers -- Appendix B Equations -- B.1 3D Vectors -- B.2 Projection Matrices -- B.3 Viewing Transforms -- B.4 Modeling Transforms -- B.5 Parallel and Perpendicular Vectors -- B.6 Reflection Vector -- B.7 Lighting Equations -- B.8 Function Approximations -- Bibliography -- Subject Index.