The Unified Field of Time-Driven Dynamics: A Dynamic Extension of General Relativity with an Endogenous Time Scalar (DAG)
We present a \emph{complete} (no-omission) unification that: (i) couples optical refractivestructure to gravitational mass via a flux-certified field equation; (ii) endogenizes time througha scalar clock \(U\) with source weighting \(W(U)\), yielding dynamic time--energy exchange andexact total conservation; and (iii) stitches arithmetic microstructure to geometry via a zeta--\(U\)bridge with reciprocity \(g=1/K\) (Eqs.\ (4$'$), (6)). \textbf{Strong-field evidence (from \(\kappa\)-maps).}Lensing reconstructions of Abell2744, MACS0416, and Abell370 \emph{strongly favor}a nonlinear refractive correction \( \beta\,N(|\nabla\phi|^2) \) (Eq.\ (16$'$)), decisively exceedingthe GR weak-field Poisson limit (\(\beta=0\)). Two clusters prefer a soft-saturation kernel with afinite threshold \(\Lambda\), and cross-validation / multi-scale scans / phase-scramble controlsconfirm robustness. These results are established under the \(\kappa\)-only approximationwith \(W(U)\!=\!1\); flux consistency is compatible with the three-term certificate (Eq.\ (19))in this setting. \textbf{Temporal algebra (SCI) outlook.}The temporal sector predicts windowed Structure--Complexity indices \(K\!\sim\!0.6\!-\!0.7\)(\(g=1/K\!\sim\!1.4\!-\!1.7\)), consistent with the zeta-phase reciprocity and enabling falsifiablePhase--Poisson morphology tests. The pure-theory core operates without Einstein--Hilbert terms and requires no zeta prior; acovariant EH toggle restores GR compatibility. The present \(\kappa\)-based tests thus support theunified field framework ((4$'$), (6), (16$'$), (19)) and the UTH variational sector, with fullsource-weighted validations (X-ray/SZ/dynamics for \(\rho\) and \(W(U)\)) left to future work.
Publication Details
- Journal
- Zenodo (CERN European Organization for Nuclear Research)
- Published
- 2025-10-03
- DOI
- https://doi.org/10.5281/zenodo.17270297
- Primary Topic
- Pregnancy and preeclampsia studies
- Type
- article
- Field-Weighted Citation Impact
- 0.00