Skill UI

Master the creation and manipulation of 3D geometry within the Three.js framework. This guide covers built-in primitive shapes (Box, Sphere, Cylinder), advanced procedural geometries (Extrude, Tube, TorusKnot), and text visualization. Crucially, it details the use of BufferGeometry, allowing developers to store vertex, normal, UV, and color data in optimized typed arrays for high-performance rendering and custom mesh construction.

Master the art of deterministic procedural generation for game content. This skill covers core algorithms like seeded RNG, Perlin/Simplex noise for heightmaps and terrain, weighted loot table selection, and dungeon layout generation (BSP, random walk). It allows developers to create vast, complex, and reproducible worlds from simple rules and a single seed, perfect for roguelike or survival genres.

A comprehensive playbook for building roguelike or roguelite games. This skill covers essential systems like turn-based combat, procedural dungeon generation, permadeath mechanics, and dynamic resource management. It provides the blueprint for creating compelling, grid-based dungeon crawlers and survival games.

Build and script 2D tilemaps in Unity using Grid and Tilemap components. Includes Tile Palette, colliders, rule tiles, and runtime painting via SetTile/GetTile. Ideal for creating 2D levels, collision layers, and procedural generation within Unity 6.3 LTS.

Build coherent procedural scalar and vector fields for Three.js materials and geometry. This skill enables creating terrain, planets, biomes, and water masks by deriving multiple visual channels from shared causes. It emphasizes structured workflows, stable coordinates, and frequency bands to avoid visual soup.

Author procedural planetary bodies in Three.js with coupled fields for terrain, biomes, materials, and atmosphere handoff. Supports spherical terrain, continents, craters, biome masks, analytic normals, and altitude LOD for bodies that hold up from orbit to close approach.

This skill enables creating procedural vegetation such as trees, grass, and flowers within Three.js or WebGPU environments. It focuses on growth hierarchies, surface-following vines, and deterministic geometry generation. Techniques include GPU culling, wind simulation, and optimized rendering for virtual fields, ensuring high performance and visual fidelity in 3D scenes.