Fork of ThreeJS Starter

ThreeJS Starter

A Three.js scene displays a single blue cube rotating automatically in 3D space. The cube uses a `MeshPhongMaterial` that responds to both ambient and directional lighting, showcasing interactive orbit controls for drag-to-rotate and scroll-to-zoom. The animation runs via `requestAnimationFrame` with WebGL rendering on a canvas element. The code imports Three.js and its `OrbitControls` addon through import maps, with a responsive resize handler updating camera aspect and renderer size.

CCurran Kelleher

89% match

Fork of HTML Starter

This example demonstrates a minimal Three.js scene featuring a rotating green cube rendered with WebGL. The code sets up a perspective camera, a box geometry with basic mesh material, and an animation loop that updates the cube’s rotation each frame. It uses Three.js’s `Scene`, `PerspectiveCamera`, `WebGLRenderer`, and `requestAnimationFrame` to create the 3D visualization. The page also includes a static HTML message styled with CSS, while the JavaScript for the cube is embedded directly in the document.

RRomersims

85% match

Fork of 3D Cube of Spheres

This example shows a rotating 3D cube constructed from 64 colored spheres, with each sphere’s hue determined by its position along the x, y, and z axes. The entire structure slowly rotates around two axes, while the user can orbit and zoom the camera using OrbitControls. Built with Three.js, the visualization uses MeshPhongMaterial for shading, a directional and ambient light, and a WebGL renderer. An animation loop updates the rotation and controls each frame.

224cs082@kpriet.ac.in

Fork of 3D Cube of Spheres

A rotating cube constructed from 64 colored spheres demonstrates Three.js's 3D rendering capabilities. Each sphere's hue is derived from its grid position using HSL color mapping, creating a gradient across the cube's volume. The scene uses `THREE.Scene`, `THREE.DirectionalLight`, and `THREE.AmbientLight` for illumination, while `OrbitControls` enables user interaction. The animation continuously rotates the sphere group, and the WebGL renderer displays the result in a black background.

Fork of 3D Cube of Spheres

A rotating cube constructed from 64 colored spheres demonstrates Three.js's 3D rendering capabilities. Each sphere's hue is derived from its grid position using HSL color mapping, creating a gradient across the cube's volume. The scene uses `THREE.Scene`, `THREE.DirectionalLight`, and `THREE.AmbientLight` for illumination, while `OrbitControls` enables user interaction. The animation continuously rotates the sphere group, and the WebGL renderer displays the result in a black background.

Fork of 3D Cube of Spheres

A rotating cube constructed from 64 colored spheres demonstrates Three.js's 3D rendering capabilities. Each sphere's hue is derived from its grid position using HSL color mapping, creating a gradient across the cube's volume. The scene uses `THREE.Scene`, `THREE.DirectionalLight`, and `THREE.AmbientLight` for illumination, while `OrbitControls` enables user interaction. The animation continuously rotates the sphere group, and the WebGL renderer displays the result in a black background.

Fork of 3D Cube of Spheres

A rotating cube constructed from 64 colored spheres demonstrates Three.js's 3D rendering capabilities. Each sphere's hue is derived from its grid position using HSL color mapping, creating a gradient across the cube's volume. The scene uses `THREE.Scene`, `THREE.DirectionalLight`, and `THREE.AmbientLight` for illumination, while `OrbitControls` enables user interaction. The animation continuously rotates the sphere group, and the WebGL renderer displays the result in a black background.