Monte Terminillo is a massif in the Monti Reatini, part of the Abruzzi Apennine range in central Italy. It is located some 20 km from Rieti and 100 km from Rome and has a highest altitude of 2,217 metres (7,274 ft).

It is a typical Apennine massif, both for its morphology, articulated but not exceedingly sharp, and for the fauna and vegetation. Its slopes are separated by the neighbouring smaller massifs by deep valleys, including the Valle Leonina, leading to Leonessa, and the Ravara and Capo Scura valleys leading to that of the Velino River. On the opposite sides are the Valle dell’Inferno (“Hell’s Valley”) and Valle degli Angeli (“Angels’ Valley”) leading to Rieti’s plain and the mounts of Cantalice. Wikipedia

4k Texture+Normal map+Occlusion

coordinates: 42.464212, 13.021658

photogrammetry: 160 photos

Monte Terminillo - Rock 02

Mars Planet Model (PBR Textured)
A detailed 3D model of Mars featuring high-quality surface textures for realistic rendering. This model includes carefully generated normal and ambient occlusion maps to enhance depth, bringing out craters, valleys, and terrain variations across the planet’s surface.

Optimized for real-time use, this model is ideal for space games, sci-fi environments, simulations, or educational projects. The textures are mapped for seamless spherical projection, ensuring a clean and realistic planetary look from any angle.

Features:

High-resolution Mars surface texture
Normal map for enhanced surface detail
Ambient occlusion map for realistic shading
Clean UV mapping for spherical models
Ready for use in engines like Roblox, Unity, Unreal, and Blender

Perfect for:

Space exploration games
Planetary systems and skyboxes
Sci-fi scenes and animations
Educational visualizations

Bring the Red Planet into your project with realistic detail and performance-friendly design.

Mars (PBR TEXTURES)

Li — Experiment A: Voronoi Hopf (PAPP V5) is a watertight high-relief disc where 4D polychoron vertices, projected through Hopf (S³→S²), become Voronoi seeds on the disc. 

A furthest-point subsampling selects 150 seeds from the full 42,852 projected vertices (7 Li polychora), producing a hard, binary tessellation: every surface point belongs to exactly one cell. 

Height is built from (1) cell plateau driven by the source polychoron’s β* (normalized to ~0.5–0.9), (2) surface roughness from the Pythagorean ratio a/c, (3) geological cell tilt, and (4) sharp broken valleys at boundaries using a sigmoid transition (depth 0.35, width 0.06). 

Adds Pythagorean frequency modulation and Hopf fiber rings (n=1–5).

Mesh: 57,170 verts / 114,336 faces, closed manifold χ=2. Z range [−0.110, 1.051]. Unique colors (3dp): 22,344.

Generated by Papp Framework

Li — Experiment A: Voronoi Hopf | PAPP

This 3D model represents the mountain Åreskutan in Åre, Sweden. The terrain has been generated from a digital elevation model and converted into a printable/visual 3D mesh that highlights the natural topography of the mountain, including its ridges, slopes, and valleys.

The model was created using elevation data from Markhöjdmodell Nedladdning, Grid 50+ provided by Lantmäteriet (the Swedish Mapping, Cadastral and Land Registration Authority). The dataset is available under the Creative Commons license, which allows reuse with attribution.

The purpose of this model is to visualize the terrain of Åreskutan in a simplified physical form, suitable for 3D printing, visualization, or educational use.

Data source:
Markhöjdmodell Nedladdning, Grid 50+ — Lantmäteriet
License: Creative Commons (with attribution)

Location: Åre, Jämtland County, Sweden
Type: Terrain / Digital Elevation Model (DEM) converted to 3D mesh

Åreskutan

Experiment G is a “fiber-aware” Hopf visualization: instead of projecting 4D vertices point-to-point, it reconstructs the full Hopf fiber circle for each sampled point on S², then measures how many 4D vertices lie near that circle and how evenly they populate it. 

Using 7 PAPP-generated polychora (total 42,852 S³ vertices), the model probes 288 fibers (radius 0.15) and builds a disc heightfield where dense + uniform fibers become peaks, sparse fibers become valleys, and clumped occupation produces ridges (uniformity mean 0.315, count range 12–472). 

The surface is then extruded into a watertight manifold (χ=2). Mesh: 57,170 verts / 114,336 faces, per-vertex color + normals. 

Color key: gold/amber = populated fibers, blue/violet = sparse, red tint = clumped.

Generated by PAPP Framework.

LI Exp G - Hopf Fiber Density | PAPP 6-Stage

This is a highly-detailed 3D model of the moon, created using Blender 3D software. The model features a realistic surface texture that accurately depicts the craters, valleys, and mountains that can be observed on the lunar surface. The model is based on data gathered from various space missions and is suitable for educational, scientific, or artistic purposes.

The model includes a realistic 3D representation of the lunar surface, complete with various features such as impact craters, lava flows, and mountains. The surface texture has been carefully crafted to showcase the unique features of the moon's surface in high detail. The model is suitable for use in educational materials, documentaries, and artistic renderings.

Whether you're a space enthusiast, educator, or artist, this highly-detailed 3D moon model is perfect for your needs. It is compatible with a variety of 3D software and can be easily integrated into your project.

moon

11 — Tear of Kolam

Parametric teardrop revolution body. Single-stroke Kolam serpentine routing on a 6×8 dot lattice — one continuous path, never crossing itself. Celadon glaze pooling terrain accumulates color in routing valleys. Node bosses at dot centers. Interlaced ribbon crosshatch from MIT seed. Hopf fiber-recovery shimmer. Faience blue body with botanical green glaze and gold routing ridges. 72,002 vertices, 144,000 faces, χ=2, closed manifold. 

Generated by PAPP Framework.

Prototype 11/12 Tear Of Kolam | PAPP

Asanoha Spherical Kumiko Shell is a true 360° sculpture: the traditional Asanoha (麻の葉) star lattice is grown as a triple-scale fractal directly on a perfect sphere (no “front/back”). 

The pattern is mapped via a dual Lambert azimuthal equal-area projection: one star core anchors the north pole, one anchors the south pole, with a seamless ±15° equatorial blend. 

Relief is created by radial displacement along surface normals (0.0–0.9, up to 30% of radius), forming structural ribs and deep shadow valleys. 

A PAPP substrate (S³ sampling + Hopf modulation) subtly tunes ridge sharpness and flow.

Mesh: 57,122 verts / 114,240 faces, closed manifold (χ=2), per-vertex color

Tech: wallpaper group p6m; triple-scale s=0.850/0.525/0.325; canyon_depth=0.5; seed [6,12,60,16]→β=23.5→CF[23,2]→(p,q)=(2,23)→triple(525,92,533)→V4d=2529*; edges 171,360; vertex colors 32,149; r=3.0–3.9.

Generated by Papp|Polytopic Archetypal Projection Protocol

WAGARA 01 — Asanoha v3 | Papp Framework

The white walls ([Weisse Wand](https://www.almenrausch.at/touren/detail/weisse-wand-2517-m-aus-dem-knuttental/) ) is a  2517 meter peek on the Durrek group ridge. The tour up is around 3 hours, along a very steep path. Once on the top, you get a gorgeous paranomic view, of the both valleys surrounding it. We did this tour unfortantly on a rainy day (it was raining during the flight too), but usually you can see further than here. The walls themselves have a dominating white stone, which stands out in the valley, and feels like it is out of lord of the rings. 

Captured with DJI Mavic pro 2, total of 50 images.

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