Grey Stone Fish-Scale Roofing Tiles, Fish-Scale Pattern

This PBR seamless texture features grey stone fish-scale roofing tiles, ideal for realistic exterior cladding and roof surfaces. This material presents a classic fish-scale roofing pattern, characterised by overlapping, rounded stone tiles. The surface displays subtle natural variations in tone and texture, typical of weathered slate or similar stone materials. Each tile is rendered with precise geometry to ensure a realistic appearance when applied across large surfaces. The grey palette is neutral, allowing it to integrate well with both traditional and contemporary architectural styles. The texture includes detailed displacement and roughness maps, providing depth and authentic light interaction that mimics the physical characteristics of layered stone roofing units.

The download is a 23.3 MB compressed archive with the texture set at 2K with colour, normal, roughness and displacement maps, ready for any metal/roughness PBR workflow in Blender, 3ds Max, SketchUp, Unreal Engine or D5.

To implement this material, load the albedo, displacement, and normal maps into your render engine's shader node setup. Adjust the displacement map intensity to achieve the desired depth of the overlapping tile edges. Because this is a tileable asset, you can map it across extensive roof planes or building facades without visible seams. Ensure your UV mapping is set to a consistent scale to maintain the intended proportions of the individual fish-scale units throughout your scene.

Professionals will find this texture useful for residential architecture, particularly for heritage restoration projects or modern homes seeking a textured, organic roof finish. It pairs effectively with natural timber, exposed brick, or rendered plaster wall finishes. Search for this asset when drafting exterior visualisations, concept renders for pitched roofs, or detailed cladding studies. It is an essential component for environmental artists and architects looking to add tactile, high-quality material depth to their exterior site models and building elevations.