### **WORK DESCRIPTION** **Title: ** The Computational Ontology of the Universe: A Unified Field Theory **Author: ** Jeferson Monção Brasil This research paper provides a comprehensive theoretical framework for the **Computational Ontology of the Universe (TUC) **. The work is structured into six major thematic parts, bridging the gap between fundamental physics and theoretical computer science: 1. **Macro-Scale Cosmology: ** A formal derivation of Milgrom’s acceleration (a₀) as a function of the Hubble horizon’s surface gravity, distributed across a 2D=6 orthogonal lattice. It addresses the "Hubble Tension" by treating the expansion as a network clock-speed variable. 2. **Information Thermodynamics: ** An analysis of Dark Energy as the thermal cost of vacuum information processing, utilizing Landauer’s Principle to correlate energy density with the bit-erasure limit (2). 3. **Galactic Dynamics: ** A redefinition of Dark Matter as "Computational Viscosity" (), explaining the Radial Acceleration Relation (RAR) without the need for non-baryonic particles. 4. **Stellar and Relativistic Mechanics: ** A reinterpretation of the Einstein Tensor as a Data Flux Tensor, identifying Mercury’s perihelion precession as a byproduct of the 6-neighbor coordination overhead in the spatial mesh. 5. **Microscopic Quantum Logic: ** A proposal for atomic stability based on Quantum Error Correction Codes (QECC). This section redefines radioactive half-life as a Hardware Reliability Rating (MTBF) caused by background noise interference. 6. **Solid State Engineering: ** A roadmap for Room-Temperature Superconductivity (RTSC) through the application of dimensional filtering (2D=2) in twisted bilayer lattices to eliminate lattice-induced latency. The work concludes with a set of falsifiable predictions, including the finitude of at the Planck scale and the expected observations from the James Webb Space Telescope (JWST) regarding early galaxy formation. ---
Jeferson Monção (Tue,) studied this question.