Validation of Universe OS V10-B (Exponent-Only) Specifications: Absolute Value Junction of Physical Anomalies via Proof Core v1.2
Abstract
[Validation Report for Proof Core v1.2] This paper numerically validates the efficacy of Universe OS (UOS) V10-B (Exponent-Only), a theoretical framework that describes the universe not as a system of physical interactions, but as a computational specification of an information processing architecture. By applying the fixed master constants (N_proj, Phi_B, Delta_Res) defined in "Proof Core v1.2", we demonstrate that major "anomalies" in modern physics are merely specification-compliant behaviors of the OS. Key Verification Results: Using strictly non-rounded calculations based on geometric logic, this paper achieves absolute value junctions with existing observational data for the following phenomena: Hubble Tension Resolution: Proved as a throughput difference caused by the synchronization lag (Delta_Res) between the Computation Priority Layer (CMB: 67.35 km/s/Mpc) and the Rendering Priority Layer (Local: 72.66 km/s/Mpc). SN 1987A Time Lag: The neutrino-photon arrival gap is identified as the OS "Write Penalty" (3.05 hours) and "Pre-fetch Phase" (4.79 hours), matching Kamiokande and LSD data perfectly. Flyby Anomalies (NEAR, Rosetta, etc.): Velocity jumps are derived as synchronization slips (K_UOS) at coordinate sector boundaries, achieving high-precision matches with mission data. GPS Clock Drift: The 45 microsecond/day relativistic effect is redefined as computational load reduction in low-impedance lattice sectors. Conclusion: The empirical data presented herein suggests that "mass," "gravity," and "time" are interchangeable with "latency," "lattice impedance," and "clock cycles," respectively. This paper serves as the definitive debugging report confirming that the universe operates according to the Universe OS specifications.
Fields of Study & Subjects
Cosmology and Gravitation Theories
Advanced Frequency and Time Standards
Pulsars and Gravitational Waves Research
Publication details
- Journal / source
- Zenodo (CERN European Organization for Nuclear Research)
- Publication date
- 22 January 2026
- Document type
- Preprint