Three.js Development for your business.

Yes. Three.js uses WebGL supported on all modern mobile browsers. We optimise with LOD, texture compression, and adaptive quality.

Yes. R3F is our default for React projects — declarative Three.js with React component patterns and hooks.

Yes. We use glTF with DRACO compression, LOD, instancing, and progressive loading for complex scenes.

Yes. Three.js supports WebXR for browser-based VR and AR — Quest, Vision Pro, or AR on mobile.

We optimize memory by aggressively utilizing geometry instancing, proper disposal of unused textures and materials, and implementing Level of Detail (LOD) techniques to keep the polygon count low on mobile devices.

Yes, our developers specialize in building highly interactive 3D product configurators that allow users to change materials, colors, and components in real-time directly within their browser.

We utilize Draco compression on glTF/glb files, bake high-resolution details into normal maps, and reduce mesh topology to drastically decrease load times without sacrificing visual quality.

Real-time dynamic shadows are computationally expensive. We often bake lighting and shadows directly into the textures using tools like Blender before exporting to Three.js for optimal performance.

Absolutely. We export skeletal animations and shape keys via glTF format from Blender and utilize the Three.js AnimationMixer to trigger and blend animations programmatically in the browser.

Since WebGL renders to a single canvas element, we overlay invisible, semantically structured HTML DOM elements that mirror the 3D scene, ensuring screen readers can interact with the 3D experience.

We optimize memory by aggressively utilizing geometry instancing, proper disposal of unused textures and materials, and implementing Level of Detail (LOD) techniques to keep the polygon count low on mobile devices.

Yes, our developers specialize in building highly interactive 3D product configurators that allow users to change materials, colors, and components in real-time directly within their browser.

We utilize Draco compression on glTF/glb files, bake high-resolution details into normal maps, and reduce mesh topology to drastically decrease load times without sacrificing visual quality.

Real-time dynamic shadows are computationally expensive. We often bake lighting and shadows directly into the textures using tools like Blender before exporting to Three.js for optimal performance.

Absolutely. We export skeletal animations and shape keys via glTF format from Blender and utilize the Three.js AnimationMixer to trigger and blend animations programmatically in the browser.

Since WebGL renders to a single canvas element, we overlay invisible, semantically structured HTML DOM elements that mirror the 3D scene, ensuring screen readers can interact with the 3D experience.