About this asset

This 2K PBR seamless texture features a natural scatter of autumn leaves in warm yellow, brown, and red tones for site plans. This PBR material asset provides a realistic, high-resolution rendering of scattered autumn foliage. The texture captures a varied mix of deciduous leaves, showcasing organic shapes and a seasonal colour palette ranging from pale yellow to deep russet and brown. Designed for versatility, the material includes essential maps for albedo, displacement, normal, roughness, and opacity, allowing for depth and realistic light interaction on surfaces. The distribution is carefully balanced to avoid obvious repetition, ensuring that when applied to large ground planes or landscape elements, the surface appears natural and authentic to real-world forest floors.

The download is a 21.6 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.

Professionals can implement this texture by loading the provided map set into a standard PBR material node within their rendering software. The opacity map is critical for correctly rendering the gaps between individual leaves, ensuring the underlying ground material remains visible. For best results, use the displacement map at a low intensity to add physical dimension to the leaf surfaces, while the normal map handles fine-scale surface detail and light interaction across the rendered scene.

Ideal for architectural visualisations, this texture is essential for detailing exterior landscaping, park designs, and residential garden scenes. It pairs effectively with grass or soil textures to create realistic autumnal environments, particularly for late-season project presentations. Practitioners can use this asset to add seasonal character to site plans, entrance paths, or wooded areas in masterplan renders. It is an effective solution for designers seeking to introduce natural, organic debris into their environments without the overhead of heavy 3D geometry.