About this asset

This seamless 2K PBR rope netting material provides a realistic knotted grid texture for architectural visualisations and rendering. This PBR material set features a classic knotted rope netting pattern in a neutral tan finish. The design consists of a consistent, square-grid weave with visible knot detailing at every intersection, replicating the appearance of traditional natural fibre cordage. With a high-fidelity 2K resolution, the texture captures the fine fibrous quality of the rope, ensuring a tactile look in close-up renders. The material is fully tileable, allowing for seamless application across large surface areas such as safety barriers, decorative partitions, or nautical-themed interior design elements without visible repetition or distracting alignment artefacts.

The download is a 15.5 MB compressed archive with the texture set at 2K with colour, normal, roughness, displacement and opacity maps, ready for any metal/roughness PBR workflow in Blender, 3ds Max, SketchUp, Unreal Engine or D5.

Apply this material to geometry using standard PBR shader workflows. The included maps—albedo, displacement, normal, roughness, and opacity—should be assigned to their corresponding slots in your rendering engine to achieve depth and realistic light interaction. Because the texture is designed for a 1.30 by 1.30 metre scale, ensure your UV mapping is set to real-world coordinates to maintain the intended proportions of the rope knots and grid spacing across your architectural model surfaces.

Ideal for projects requiring a coastal, maritime, or rustic aesthetic, this rope netting texture is well-suited for residential balcony safety screens, hospitality lounge partitions, or themed landscape design. Architects and visualisers can use it to add detail to outdoor stair railings, mezzanine barriers, or decorative wall features in commercial spaces. It pairs effectively with natural timber, weathered concrete, and maritime interior palettes, providing a versatile solution for adding texture to complex 3D scenes without the overhead of high-poly geometry.