About this asset

This parametric timber plank floor Substance material for Substance 3D offers a versatile wood finish with a running bond pattern. This procedural timber floor material features a classic running bond layout, defined by narrow, elongated planks that emphasize linear directionality. The surface texture exhibits a subtle, realistic wood grain with varying levels of warmth, ranging from a pale, natural finish to a rich, deep walnut-brown tone. Each plank is rendered with precise edge definition, allowing for natural light interaction across the surface. The procedural nature of the file ensures that the grain and plank distribution remain consistent across large floor plates, avoiding repetitive tiling patterns often found in static bitmap textures.

The download is a 266 KB file containing a Substance (.sbsar) material that opens in Substance 3D Player, Sampler and Painter and in renderers with Substance support.

Designed for use in Substance 3D, this.sbsar file allows users to adjust parameters such as colour, grain intensity, and surface roughness directly within the software. By loading the material into a graph, designers can generate unique variations or export specific map outputs for use in external rendering engines. This workflow provides significant flexibility, enabling the user to tune the material's appearance to match specific project lighting conditions or interior design requirements without needing to source new image maps.

Ideal for residential, hospitality, and high-end office projects, this wood floor material provides a clean, professional finish for interior visualisations. It pairs effectively with minimalist, contemporary, and Scandinavian design palettes, serving as a neutral foundation for furniture and lighting. Professionals looking for high-quality timber floors, plank flooring, or procedural wood textures will find this asset essential for creating realistic floor surfaces. It is well-suited for both broad-scale architectural renders and detailed close-up shots requiring high visual fidelity and non-repetitive surface detail.