About this asset

This procedural timber plank Substance material for Substance 3D features weathered wood textures with visible nail details. This procedural material reproduces the aesthetic of aged, weathered timber planks. The surface configuration features a linear plank layout punctuated by visible nail heads, adding a realistic construction detail. The texture exhibits subtle organic variations, including moss-like deposits in the crevices and grain patterns typical of reclaimed or exterior wood decking. The colour palette ranges from light natural wood tones to deep, sun-bleached brown hues, providing a weathered, rustic appearance. As a parametric graph, the material allows for consistent surface coverage without the visual repetition typically found in static bitmap textures.

The download is a 369 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 within the Substance 3D ecosystem, this.sbsar file functions as a fully parametric graph. Users can import the file directly into their rendering engine or host software to adjust parameters such as weathering intensity, plank colour, or nail placement in real-time. This dynamic approach ensures high-fidelity PBR results without the need for manual map blending, streamlining the process of applying realistic wood finishes to complex architectural surfaces or expansive landscape environments.

Ideal for exterior architectural visualisations, this material is well-suited for decking, boardwalks, or rustic cladding in residential and hospitality projects. It pairs effectively with stone, concrete, or raw metal elements to enhance a natural, worn aesthetic. Professionals looking to achieve high-quality, non-repeating wood surfaces will find this asset useful for both close-up architectural details and large-scale site masterplans. The procedural nature makes it a versatile choice for scenes requiring varied, realistic weathering effects on timber-based surfaces.