A Phenomenological Model Where Vacuum Energy Tracks Local Proper Time Rate — Core Equation ρ_vac(x) = ρ₀ [1 + k (Φ(x)/c²)] — Implications for Evolving Dark Energy and a Null Test with Casimir Cavities (v0.2.2 explicit equation)
Phenomenological Model Where Vacuum Energy Tracks Local Proper Time Rate: Implications for Evolving Dark Energy and a Null Test with Casimir Cavities Core Equation:rho_vac(x) = rho_0 * [1 + k * (Phi(x) / c^2)] Abstract:We propose a phenomenological model where vacuum energy density tracks the local proper time rate (d_tau/dt ~ 1 + Phi/c^2). Phi is the local Newtonian potential (Phi=0 in void, Phi<0 in clusters). The motivation is twofold: (i) recent DESI hints that dark energy may be evolving, and (ii) the observed difference between the proper time rate in voids versus clusters. [1] If vacuum energy tracks proper time, voids (fast time, Phi~0) have slightly more vacuum energy than clusters (slow time, Phi<0) for k>0. Viewed from inside a cluster, this mimics evolving dark energy without a new fundamental field. BBN constrains the integrated effect to |epsilon| = |k * /c^2| < 4%. [1] The model predicts a concrete null test via annual modulation of Casimir pressure in the solar potential with a fractional amplitude of ~3.3e-10, testable with CANNEX data. Explicit Seasonal Prediction (for k>0): Jan 3 (Perihelion): Earth is deepest in the Sun's potential -> Proper time runs slowest -> Casimir Pressure Minimum (P_min) July 4 (Aphelion): Earth is farthest from the Sun -> Proper time runs fastest -> Casimir Pressure Maximum (P_max) Fractional Modulation: |Delta P| / P = |k| * (Delta Phi_sun / c^2) ~ |k| * 3.3e-10 [1, 2, 3] Draft v0.2.1 fixes the seasonal phasing sign from v0.2 to be consistent with "weaker where slower." This work is licensed under CC-BY 4.
Authors
- Robert John Mills
Publication Details
- Journal
- Zenodo (CERN European Organization for Nuclear Research)
- Published
- 2026-08-21
- DOI
- https://doi.org/10.5281/zenodo.22036765
- Primary Topic
- Quantum Electrodynamics and Casimir Effect
- Type
- preprint