webgpu-threejs-tsl_skill

This skill helps you build WebGPU-enabled Three.js apps using TSL shaders, node materials, and compute pipelines for GPU acceleration.
  • JavaScript

249

GitHub Stars

2

Bundled Files

2 months ago

Catalog Refreshed

4 months ago

First Indexed

Readme & install

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Installation

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npx veilstrat add skill dgreenheck/webgpu-claude-skill --skill webgpu-threejs-tsl

  • REFERENCE.md6.3 KB
  • SKILL.md3.0 KB

Overview

This skill is a practical guide for building Three.js applications that target WebGPU and use TSL (Three.js Shading Language). It bundles setup patterns, node material techniques, compute shader templates, post-processing pipelines, and WGSL integration tips. The content is focused on actionable code patterns and ready-to-use examples to accelerate WebGPU development with Three.js.

How this skill works

The skill inspects common WebGPU renderer setup patterns and shows the required import path and initialization steps for three/webgpu. It demonstrates how to replace standard materials with TSL node materials, compose shader logic via method chaining and Fn() helpers, and connect compute shaders and post-processing stages. Included templates and examples illustrate GPU particle systems, custom materials, and WGSL interop for lower-level shader code.

When to use it

  • Starting a new Three.js project that targets WebGPU
  • Replacing GLSL string shaders with TSL node materials
  • Implementing GPU-based particle systems or compute pipelines
  • Building custom post-processing effect chains for WebGPU
  • Migrating existing Three.js shaders to WGSL or TSL

Best practices

  • Always import from 'three/webgpu' and import TSL helpers from 'three/tsl' to avoid runtime mismatches
  • Prefer node materials for modular, reusable shader logic and use Fn() for shared functions
  • Keep time, oscillators, and common inputs as uniform nodes to enable live updates and reusability
  • Use provided templates for compute shaders and post-processing as starting points to avoid boilerplate
  • Test WGSL snippets independently before integrating them into TSL node graphs to simplify debugging

Example use cases

  • Minimal WebGPU scene with MeshStandardNodeMaterial and animated color driven by time
  • GPU particle system using compute shader template and instanced rendering
  • Custom terrain or water shader built from TSL nodes with vertex displacement
  • Post-processing pipeline combining built-in and custom effects for bloom, tone mapping, or color grading
  • Earth shader example with atmosphere, lights, and layered node materials

FAQ

You can cover most use cases with TSL node materials, but WGSL is useful for low-level control or advanced compute and can be integrated where necessary.

How do I debug TSL shaders?

Break complex nodes into smaller Fn() units, validate WGSL snippets separately, and use simple scenes or render targets to inspect intermediate outputs.

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