Infinity Twist Ring - Quad Mesh 3D Jewelry Print Model 55 3D print model

The Infinity Twist Ring is a meticulously crafted 3D jewelry model designed to merge timeless elegance with modern craftsmanship. This design features two interwoven bands that twist seamlessly around each other, symbolizing eternal love, infinite connection, and perfect balance. Its clean quad-based topology and professional-scale accuracy make it an ideal choice for jewelers, product designers, 3D artists, and manufacturers looking for a ready-to-use, production-quality model.

This model has been developed in Blender v4.2.2, rendered with the Cycles engine, and optimized for both realistic visualization and physical production. The mesh is fully manifold, error-free, and ready for 3D printing across multiple technologies, including SLA, SLS, and resin casting. Whether for high-end jewelry marketing visuals or direct manufacturing, this ring delivers unmatched versatility and precision.

• Quad-based, clean topology ensures distortion-free, smooth curvature and high surface quality.
• Designed using a non-destructive subdivision workflow for maximum control and future editing flexibility.
• Watertight mesh – no loose edges, holes, or non-manifold geometry, ensuring flawless 3D print compatibility.
• Edge flow optimized for metallic surface highlights and realistic reflections in rendering.
• Accurate real-world scale for instant production without re-scaling errors.
• Vertices: 27,452
• Polygons: 27,420

• Crafted with a procedural ambient occlusion-based metallic material in Blender.
• Fully customizable base color, roughness, and reflectivity to achieve gold, silver, platinum, titanium, or mixed finishes.
• Highly PBR-optimized for compatibility with industry-standard rendering engines.
• Supports HDRI lighting setups for physically accurate reflections and shadows.

• Modeled to US size 10 with an inner diameter of approx. 19.8 mm.
• Scaled proportionally for realistic jewelry fitting and comfort.
• Ready for size adjustments to meet customer requirements without topology distortion.
• Balanced geometry ensures ergonomic physical production while maintaining visual elegance.

• Fully manifold geometry meeting industry-standard tolerances for 3D printing.
• Normals oriented correctly for accurate slicing and print preparation.
• Supports a wide range of manufacturing processes including metal casting, SLA, and resin printing.
• Tested for artifact-free mesh flow to prevent manufacturing errors.

• .blend – includes procedural materials, lighting setup, and HDRI-ready environment.
• .fbx / .obj / .stl – universal formats for easy import into jewelry CAD/CAM, 3D printing software, and rendering pipelines.

• Jewelry Production: Perfect for direct casting or 3D printing in gold, silver, or platinum.
• Marketing & Advertising: Ideal for promotional renders, e-commerce product showcases, and branding visuals.
• Fashion Design & Styling: Adds an iconic accessory to virtual or real collections.
• Educational Use: Demonstrates professional topology, procedural texturing, and PBR rendering workflows.

• Production-Ready: Built using industry-standard jewelry modeling techniques.
• Highly Symbolic Design: Represents eternity, unity, and spiritual balance.
• Procedural Material Flexibility: Allows instant material customization without texture replacement.
• Cross-Platform Compatibility: Works seamlessly in over 30+ major 3D software and printing systems.
• Optimized for Performance: Lightweight yet high-quality mesh suitable for animation, AR/VR, and gaming.

The Infinity Twist Ring is not just a visual centerpiece but also a functional, production-ready model built to meet the demands of jewelers, 3D artists, and manufacturers. From romantic symbolism to digital precision, this ring offers a perfect blend of emotional appeal and technical excellence. Whether you’re creating a jewelry prototype, launching a luxury product line, or adding an elegant 3D asset to your portfolio, this model ensures a flawless result in both digital rendering and physical form.