Tag: webxr

Rotating the camera in a 360-degree environment is a common feature in immersive experiences like virtual tours, games, and XR applications. However, poorly implemented camera rotation can cause jittering, stuttering, or performance degradation, especially when rendering high-resolution environments or complex geometry. This article covers best practices and techniques for achieving smooth and optimized 360° camera… Continue reading Optimizing 360° Camera Rotation for Smooth Rendering in Three.js

This article outlines a scalable and maintainable code architecture for building WebXR experiences using Three.js. Proper structuring enhances team collaboration, improves performance, simplifies debugging, and allows smooth expansion of features and scenes over time. Why Code Structuring Matters Unstructured or monolithic code can quickly become unmanageable, especially in complex XR projects. By modularizing and organizing… Continue reading Code Structuring Best Practices for Three.js and WebXR Projects

Three.js provides built-in geometries, materials, lights, cameras, and other essential 3D components to create interactive 3D applications. These native components allow you to build complex scenes without needing external libraries or extensive custom shaders. In this guide, we’ll explore how to use native Three.js components, such as: Geometries (Box, Sphere, Plane, etc.) Materials (Basic, Standard,… Continue reading Using Native Components in Three.js

Arduino is a popular open-source electronics platform that allows developers to create interactive projects using sensors, motors, and more. Three.js, a JavaScript library, enables the creation of 3D graphics in the browser. Integrating Arduino with Three.js can allow real-time visualization of sensor data, robotics control, and interactive web experiences. In this article, we’ll explore how… Continue reading Integrating Arduino with Three.js: Real-time 3D Visualization

Physics simulations in WebXR enable realistic interactions with objects, improving immersion in virtual environments. Using efficient physics engines is essential to prevent performance issues. Key Techniques for Physics Interactions in Three.js Cannon.js for Rigid Body Dynamics Use Cannon.js to apply realistic physics forces, collisions, and interactions. Optimize performance by disabling physics calculations for objects at… Continue reading Interactive Physics-Based Objects and Ragdolls in Three.js

Water and particle simulations add realism and engagement to WebXR experiences. Achieving high-quality effects requires efficient rendering techniques to avoid performance bottlenecks. Key Techniques for Water and Particle Effects Shader-Based Water Simulation Use GLSL shaders to simulate real-time reflections, refractions, and animated waves. Implement Fresnel reflections for realistic water surfaces. Combine Normal Maps and Perlin… Continue reading Implementing Realistic Water and Particle Effects in Three.js

Managing large and complex 3D models efficiently is crucial for maintaining a smooth WebXR experience, especially on VR devices with limited GPU resources. Key Techniques for Optimizing Large Models in Three.js GLTF and Draco Compression GLTF models support Draco compression, reducing file sizes while preserving quality. Use GLTF-Binary (.glb) for faster loading and compact asset… Continue reading Efficient Handling of Large 3D Models in Three.js

Lighting and shadows play a crucial role in enhancing realism and immersion in WebXR applications. Three.js offers various lighting methods, but achieving high-quality visuals while maintaining performance requires optimization techniques. Key Techniques for Shadows and Lighting in Three.js Shadow Mapping in Three.js Three.js provides shadow mapping techniques, including: BasicShadowMap – Fast but lacks soft shadows.… Continue reading Advanced Shadows and Lighting Techniques in Three.js