Substance Designer Course

Lesson 1 • Overview of Substance Designer

Covers the software's purpose, history, and position in the game/film pipeline. Establishes context for why node-based texturing outperforms traditional methods.

Lesson 2 • Project Setup and File Management

Covers creating packages, organizing resources, and saving projects correctly. Proper file hygiene prevents pipeline errors downstream.

Lesson 3 • Interface and Workspace Setup

Introduces all major UI panels, viewport controls, and preference settings. Students configure a productive workspace before building any graph.

Lesson 1 • Filters and Adjustments

Covers Blur, Sharpen, Warp, and color-correction filter nodes. These nodes refine raw generator output into polished texture data.

Lesson 2 • Atomic Nodes Explained

Details Blend, Levels, Gradient Map, and Transform nodes as the building blocks of all graphs. Understanding these unlocks control over any procedural result.

Lesson 3 • Building Reusable Node Groups

Teaches grouping nodes into subgraphs for modularity and reuse. Reusable groups reduce graph complexity and speed up iteration.

Lesson 1 • Base Color and Albedo Design

Constructs realistic base color maps using gradients, masks, and color variation. Proper albedo values ensure physically accurate lighting responses.

Lesson 2 • Exporting a Complete Texture Set

Configures output nodes and export presets for common renderers and game engines. Students deliver correctly formatted texture files for any target pipeline.

Lesson 3 • Ambient Occlusion and Emissive

Generates AO from height data and builds emissive channels for glowing surfaces. Both channels add depth and visual interest to final renders.

Lesson 4 • Height and Normal Map Generation

Builds height data procedurally and converts it to tangent-space normal maps. Height-driven normals form the structural foundation of any material.

Lesson 1 • Procedural Mask Fundamentals

Introduces edge, cavity, and curvature masks derived from height data. These masks drive realistic material transitions without manual painting.

Lesson 2 • Grunge and Variation Maps

Uses grunge maps and randomized tiling to break up repetition across large surfaces. Variation prevents the tiling artifacts common in procedural textures.

Lesson 3 • Wear, Damage, and Aging Effects

Creates scratches, rust, chipping, and grime using procedural noise and masks. These effects communicate material history and increase realism.

Lesson 1 • Geometric and Architectural Patterns

Builds brick, tile, weave, and parquet patterns using shape generators and math nodes. Architectural patterns require precise alignment and consistent grout lines.

Lesson 2 • Organic and Natural Tiling Textures

Creates rock, soil, bark, and skin-like surfaces using noise stacking and warp techniques. Organic textures demand controlled randomness to appear natural.

Lesson 3 • Seamless Tiling Principles

Explains wrap modes, offset tiling, and how to verify seamlessness in the 3D viewport. Seamless textures are a baseline requirement for most production pipelines.

Lesson 1 • FX-Map Node Mastery

Builds iterative and recursive patterns using the FX-Map node's quadrant system. FX-Map unlocks procedural complexity impossible with standard tiling nodes.

Lesson 2 • Math and Function Nodes

Uses arithmetic, trigonometric, and logical function nodes to drive procedural behavior mathematically. Math nodes enable precise, parameter-driven control over any output.

Lesson 3 • Pixel Processor Fundamentals

Writes per-pixel operations using the Pixel Processor's function graph. Custom pixel logic enables effects that no built-in node can replicate.

Lesson 4 • Exposing and Animating Parameters

Exposes graph parameters for external control in engines and animates them over time. Dynamic parameters make materials responsive to game logic and cinematics.

Lesson 1 • Stone, Concrete, and Plaster

Creates stone, poured concrete, and layered plaster using noise stacking and height-driven normals. These materials rely on macro and micro surface detail working together.

Lesson 2 • Plastic, Glass, and Translucent Materials

Builds matte plastic, glossy plastic, and frosted glass using roughness and opacity channels. Translucent materials require special channel handling for accurate rendering.

Lesson 3 • Wood and Organic Materials

Generates wood grain, knots, and end-grain patterns procedurally using directional noise. Organic materials require careful control of grain direction and color variation.

Lesson 4 • Fabric and Woven Surfaces

Constructs woven fabric, leather, and stitched surfaces using Tile Sampler and normal baking. Fabric normals must capture thread-level micro-geometry accurately.

Lesson 1 • Quality Review and Delivery Checklist

Establishes a systematic review process covering PBR correctness, tiling, and export validation. A repeatable checklist ensures every asset meets studio quality gates before delivery.

Lesson 2 • Collaborative Material Libraries

Builds shared material libraries and custom shelf presets for team-wide reuse. Standardized libraries accelerate production and enforce visual consistency.

Lesson 3 • Version Control for Substance Assets

Applies version control practices to SBS files, packages, and exported textures. Versioned assets enable team collaboration and safe iteration without data loss.

Lesson 4 • Engine Integration Fundamentals

Connects Substance Designer exports to real-time engine material systems via SBSAR and texture maps. Correct channel packing and naming conventions prevent integration errors.