13 Best Computer Graphics Books

Tomas Akenine-Möller and his coauthors examine techniques for producing interactive three-dimensional graphics. Discussions of rendering pipelines, geometry, lighting, textures, and shadows connect visual effects with computational costs, helping readers compare approaches when designing graphics systems that must respond quickly.

Steve Marschner, Peter Shirley and contributors introduce the mathematics and algorithms behind computer-generated images. Coverage includes transformations, ray tracing, rasterization, sampling, texture mapping and geometric representation, connecting the core ideas taught in an introductory graphics course.

John Hughes and his coauthors develop the mathematical and computational principles behind computer graphics. Algorithms, examples, and programming projects connect image creation, geometric representation, and rendering with implementation choices, giving readers tools for reasoning about graphics systems and their tradeoffs.

Matt Pharr, Wenzel Jakob and Greg Humphreys explain the theory and implementation of a photorealistic rendering system. Mathematical discussions and source code develop light transport, sampling and related algorithms, with the fourth edition adding GPU ray tracing coverage.

Sumanta Guha introduces computer graphics through explanations and interactive programming exercises. Geometry, animation, modeling, lighting and texturing connect with OpenGL implementation, while later chapters explore curves, surfaces, transformations and the structure of graphics pipelines.

Jason Gregory's third edition explains the theory and practice behind game engine software, drawing on development experience at major studios. The book examines how engine systems fit together and the technical foundations needed to understand their architecture.

Eric Lengyel's third edition develops mathematics for game graphics, starting with vector geometry and linear algebra before advancing to illumination and visibility. Detailed derivations connect theoretical results with programming applications, supported by reviews of relevant calculus and trigonometry.

Graham Sellers and his coauthors introduce OpenGL programming through tutorials and worked examples. Graphics pipelines, shaders, and rendering techniques connect the interface's capabilities with practical applications, while reference material and performance discussions support readers developing their own graphics programs.

Fletcher Dunn and Ian Parberry explain the mathematics used in three-dimensional graphics and games. Coordinate systems, vectors, matrices, rotations, and quaternions connect geometric ideas with practical programming problems, supported by examples that show how mathematical tools shape graphics applications.

James Van Verth and Lars Bishop explain mathematical representations and algorithms used in interactive graphics. Geometry, transformations, color, randomness, intersections and physical simulation connect theoretical foundations with the practical tasks of animating, rendering and simulating virtual worlds.

Sergey Kosarevsky and Viktor Latypov develop a rendering framework through C++ recipes using OpenGL and Vulkan. Projects connect graphics techniques with engine construction, including physically based rendering, geometry handling, culling, large datasets and performance optimization.

Gabriel Gambetta guides readers through building a ray tracer and a rasterizer, introducing the principles that turn three-dimensional scenes into images. The explanations use basic coding knowledge and high-school mathematics to develop shadows, reflections and viewpoint transformations.

David Wolff presents recipes for implementing graphics techniques with OpenGL and GLSL. Examples develop shader programs, lighting, textures, shadows, particles and compute shaders, combining background explanations with code for building real-time visual effects and rendering features.