This comprehensive 4-hour workshop by Vincent Dérozier focuses on creating realistic cliff surfaces in Substance Designer, with a strong emphasis on balancing high levels of detail with clear visual readability. Creating believable natural materials is not only about adding more information to a texture, but also about understanding how shapes, forms, and details work together to create surfaces that are both realistic and visually appealing. Throughout this workshop, artists will learn how to build a polished, production-ready cliff material from the ground up and transform it into a complete collection with cohesive variations suitable for use in games, cinematics, and real-time environments.
This series of lessons relies on using standard Substance Designer nodes and tools. No advanced technical knowledge is required, although a basic understanding of the software’s interface and core concepts is recommended. Whether you are new to Substance Designer, interested in creating realistic natural environments, or looking to improve your procedural texturing workflow, this workshop will provide valuable techniques and practical insights.
During the workshop, artists will explore the fundamental building blocks of creating a convincing cliff material, including primary shapes and large-scale forms, secondary breakups, erosion patterns, and fine surface detailing. Learn how to identify these different layers of information, construct them procedurally, and organize them efficiently within a clean and readable graph structure. The workshop will also cover color development, roughness creation, texture balancing, and graph optimization techniques to ensure materials remain both visually rich and production-friendly.
By the end of the series, artists will have developed a solid understanding of how to create professional-quality cliff materials ready for real-world production. Discover how to push detail across multiple texture maps while maintaining readability and strong visual hierarchy. Artists will learn how to leverage an existing material graph to generate meaningful variations, resulting in an entire set of related materials that work together as a cohesive collection.
