About this asset

This 2K PBR seamless stone paving texture features a grey natural ashlar pattern, designed for professional 3D visualisations. The material presents a realistic grey natural stone surface arranged in a random ashlar pattern. The texture captures the subtle, weathered striations and porous character of cut stone blocks, with irregular joint widths and slightly chipped edges that suggest an aged, organic finish. Each block displays unique grain variations, ensuring a non-repetitive aesthetic when mapped across large areas. The included PBR maps provide depth through displacement and normal data, while roughness and ambient occlusion channels define the material's light interaction, making it suitable for high-fidelity architectural rendering applications.

The download is a 30.7 MB compressed archive with the texture set at 2K with colour, normal, roughness, ambient occlusion and displacement maps, ready for any metal/roughness PBR workflow in Blender, 3ds Max, SketchUp, Unreal Engine or D5.

To implement this texture, apply the albedo map to the diffuse or base colour channel of your material editor. Link the normal and displacement maps to the corresponding bump or displacement slots to achieve surface relief without adding geometry. Adjust the UV tiling to maintain the 3500mm scale for accurate physical representation. The tileable nature of these maps ensures that the pattern repeats seamlessly across expansive floor plates or exterior facade surfaces without visible seams.

This stone texture is ideal for exterior landscape design, including patio paving, garden paths, and public plaza surfaces. It provides a authentic, rustic foundation for residential and hospitality projects, pairing effectively with modern building materials to create a balanced aesthetic. Professionals should search for this asset when detailing pedestrian walkways, courtyard flooring, or natural stone wall cladding. Its weathered, neutral appearance makes it a versatile choice for both contemporary and traditional architectural visualisations requiring high-quality, realistic surface materials.