About this asset

This parametric Substance material generates realistic engineered oak timber planks for Substance 3D and compatible rendering workflows. This procedural material captures the aesthetic of engineered oak timber planks, featuring a refined grain structure and subtle variations in tone. The surface exhibits a natural, matte-to-satin finish consistent with high-quality interior flooring or wall cladding. By utilising a parametric graph, the texture avoids repetitive tiling artifacts, providing a clean and authentic appearance across large surfaces. The material includes multiple colour variations ranging from warm natural-wood tones to cooler grey-brown hues, allowing for precise customisation within a scene to match specific project requirements for flooring, joinery, or feature wall applications.

The download is a 4.3 MB file containing a Substance (.sbsar) material that opens in Substance 3D Player, Sampler and Painter and in renderers with Substance support.

As an.sbsar file, this material is designed for seamless integration into Substance 3D and compatible host applications. Users can dynamically adjust parameters such as grain density, colour tint, and surface roughness directly within their render engine or software environment. This flexibility allows for non-destructive editing, enabling designers to iterate on wood finishes without needing to swap out entire texture sets or re-map UVs, ensuring consistent PBR output across complex interior visualisations.

Ideal for architectural visualisations in residential, hospitality, and office projects, this material is well-suited for high-end flooring, custom cabinetry, and feature wall panels. It pairs effectively with minimalist, contemporary, and japandi interior styles, providing a versatile foundation for both light-filled spaces and darker, moody environments. Professionals looking for realistic wood textures will find this asset essential for creating tactile, high-fidelity surfaces that stand up to close-up camera angles while maintaining efficient performance in demanding 3D rendering pipelines.