Three-Dimensional Permanent Optical Storage Cube: A Novel Architecture for Millennial-Scale Information Preservation Through Layer-by-Layer Optical Reading and Software Decoding

The article describes a new way to store information permanently, completely different from any current technology (such as hard drives, SSDs, or optical discs).The idea is to create a cube made of ultra-pure glass (fused silica) — a transparent solid block containing thousands of invisible internal layers. Each layer works like a microscopic digital photograph, where every point (or “pixel”) stores a tiny piece of information — such as text, images, sounds, or videos.These layers are so thin that they can only be read using light and precision lenses, which adjust focus to see one layer at a time.Then, a special software translates that optical image back into digital data. With this technique, the cube can contain from 20,000 up to 1 million layers, and each layer can reach 4K resolution or far higher, depending on physical optical limits. This means the cube can store trillions of times more data than today’s disks, and last for millions of years without needing electricity, cables, or electronics.Even if all modern technology disappeared, the cube could still be read with simple optical instruments — such as a microscope and a computer. Table of Scales, Resolution, and Capacity Technological Level Pixel Size (approx.) Number of Layers Layer Resolution Total Capacity (10 cm Cube) Simplified Description Current (2025–2035) 0.2 micrometer (200 nm) ~100,000 4K (≈8 million pixels) ≈ 25 PB (25,000 TB) Present-day optical technology, already achievable in labs. Next Generation (2035–2050) 50 nm ~1 million 16K (≈130 million pixels) ≈ 400 PB Uses more precise lasers and thinner layers. Super-Resolution Era (2050–2100) 10 nm ~10 million 64K (≈500 million pixels) ≈ 1 ZB (1 billion TB) Combines quantum optics and AI for ultra-dense recording. Atomic Limit (Physical Maximum) 0.1 nm ~1 billion 1,000K+ ≈ 1 YB (1 trillion TB) The ultimate physical limit before atomic instability. Pixel File Storage — Encode/Decode Link: https://doi.org/10.5281/zenodo.17427696 Software link:: https://matematico10.pages.dev/projetos/PixelsEncodeImageArquivos