the Proximity Model: A Mechanical Unification. The 1D Temporal Underlayment, the 17-Field Manifest, and the Saturation Epoch
Abstract
This publication formalizes the Proximity Model, a mechanical unification of General Relativity and the Standard Model of particle physics. Following an axiomatic, Metric-Affine framework, the model rejects the 100-year canonical assumption of a geometric void in favor of a 1-Dimensional Temporal Underlayment characterized by a finite stiffness: the Temporal Elastic Modulus ( YT≈1.22×1044YT≈1.22×1044 N). Core Postulates: Time as the Substance: Time is identified as the primary underlayment of reality, with its natural state being Absolute Simultaneity ( t=0t=0 ). The 17-Field Manifest: The fundamental fields of the Standard Model are derived as emergent ripples/gradients of time stimulated by the phenomenon of simultaneity. Solidity via Transection: Physical solidity is derived from the friction created by the 1D temporal underlayment transecting 3D space at every intersection. Unification of Mass and Gravity: Both phenomena are identified as manifestations of local Time Compression. Empirical Interrogations: The Saturation Epoch: The model provides a mechanical cause for the 2025 DESI observation of weakening dark energy ( wa→−0.6wa→−0.6 ), identifying it as the restorative limit of the underlayment's elastic stretch. Black Hole Reclamation: The model resolves the Information Paradox and the Singularity problem through a "Reclamation Protocol," where matter is resolved back to its lowest terms at the t=0t=0 Origin. This is supported by the absence of gravitational echoes in recent LIGO ringdown data. The Proximity Model serves as an extension to modern cosmology, replacing "mathematical ghosts" with the mechanical properties of time, tension, and proximity.
Fields of Study & Subjects
Relativity and Gravitational Theory
Cosmology and Gravitation Theories
Noncommutative and Quantum Gravity Theories
Publication details
- Journal / source
- Zenodo (CERN European Organization for Nuclear Research)
- Publication date
- 29 January 2026
- Document type
- Preprint