Unified Information Lattice Theory (UILT): A Discrete Spacetime Framework for Quantum Gravity
Abstract
We present the Unified Information Lattice Theory (UILT), a novel framework proposing that spacetime is fundamentally discrete at the Planck scale, forming a quantum information-processing lattice. This model derives fundamental physical constants from lattice topology and unifies quantum mechanics with general relativity. Update (Version 5 - 2026): Empirical Evidence This updated version presents, for the first time, observational evidence supporting the lattice hypothesis based on regression analysis of open-source astrophysical data: High-Energy Astrophysics (GRB 190114C): Analysis of TeV-scale photons reveals a strong quadratic correlation (\approx -0.99) with energy-dependent arrival times. The results suggest a "Quantum Shortcut" mechanism (E^2 scaling) rather than simple resistive delay, consistent with lattice-assisted tunneling at high energies. Cosmology (SDSS DR12): Analysis of the Galaxy Power Spectrum P(k) from the BOSS survey identifies a persistent periodic modulation with an amplitude of 1.16%. This finding supports the prediction of discrete spacetime growth nodes imprinting on the large-scale structure of the universe. These findings transition the UILT framework from a theoretical hypothesis to an empirically supported model with testable predictions for future experiments.
Fields of Study & Subjects
Statistical Mechanics and Entropy
Quantum Mechanics and Applications
Cold Fusion and Nuclear Reactions
Publication details
- Journal / source
- Zenodo (CERN European Organization for Nuclear Research)
- Publication date
- 7 February 2026
- Document type
- Preprint