Physics & Spacepreprint2026-09-07

The Heresy of Absolute Time: A Theoretical Manifesto of Relativity of Matter (RM — Pillar III)

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Abstract

Canonical Synthesis of Relativity of Matter RM — Pillar III is the theoretical manifesto and canonical synthesis of the Relativity of Matter (RM) research programme. It is not the primary technical source for every derivation. Pillar I records the epistemological genesis of RM, the discipline of non-repair and the rejection of false closures; Pillar II carries the detailed gravitational action, weak-field calculations, Pure Cadence closure, nonlinear Dirac audit and strong-field stellar programme. Pillar III states the architecture that remains after those audits and records, in one place, what RM postulates, what it derives, what remains conditional, what has been withdrawn and what can still falsify it. The framework is built around a universal open time line, the distinction between physical time and the local cadence of physical processes, and State Æ as the postulated physical relational continuum of the manifested Universe. Gravity remains fundamental. RM seeks a physical description of how gravitational manifestations are carried through the relational state rather than treating geometrical representation as the final explanatory level. The retained local gravitational synthesis incorporates CLG-1, its single Newtonian matching, the conditional weak-field PPN closure, the Pure Cadence Principle, and the nonlinear local Dirac audit. On the regular non-homogeneous branch, the retained gravitational sector carries two local tensor degrees of freedom, subject to the explicitly stated microscopic-matter and regularity debts inherited from Pillar II. Constitutive Length and Exclusion Interaction Version 7.2.0 incorporates the post-v28 interpretation that RM geometry contains its own constitutive length ℓ⋆\ell_\star. The nonlinear curvature sector is organised through the dimensionless invariant XR=ℓ⋆4 RijRij,0≤XR<1,X_{\mathcal R} = \ell_\star^4\,\mathcal R_{ij}\mathcal R^{ij}, \qquad 0\le X_{\mathcal R}<1, and the retained CNL-BI1 constitutive function F(X)=1−1−X−X2.F(X) = 1-\sqrt{1-X}-\frac{X}{2}. Its response stiffens without introducing a new fitted coefficient, F′(X)→∞asX→1−.F'(X)\rightarrow\infty \qquad \text{as} \qquad X\rightarrow1^-. The canonical name Exclusion Interaction now designates this increasingly restrictive constitutive response. The term is unrelated to the Pauli exclusion principle, does not denote a new fifth force and introduces no additional coupling. The earlier expression Principle of Saturation is retained only where required by the historical audit trail. In compact form: The matter loads; the geometry answers. The Stellar Fold Pillar III now incorporates the constructive N-EMPR strong-field sequence developed under Pillar II authority. The minimal matter interface leads to the TOV-RM hydrostatic system and recovers standard TOV exactly when the RM sectors are switched off. For the frozen reduced parameter set and the previously declared toy equation of state, the v28 calculation exhibits two converged hydrostatic solutions at the same central pressure pc=0.5028p_c=0.5028, on opposite sides of Qc=0Q_c=0. Returning to the undivided Euler–Lagrange equation shows that division by QQ had turned a fold of the constraint into an artificial numerical singularity. The reconstructed stellar fold lies near Xc,⋆≃0.905249,εc,⋆/u⋆≃1.212032.X_{c,\star}\simeq0.905249, \qquad \varepsilon_{c,\star}/u_\star\simeq1.212032. Continuation reaches the accepted point Xc=0.9715X_c=0.9715 with extreme compactness while remaining within the stated admissible domain. No horizon, X=1X=1 state, radial-stability result or RM maximum mass is claimed. These results remain reduced-unit calculations with a toy equation of state. They are not neutron-star predictions in kilometres or solar masses and do not constitute observational confirmation of State Æ. A separately implemented shooting pre-audit supports the regularity of the internal Q=0Q=0 crossing and identifies a candidate exclusion-dominated core, but presently differs from the frozen v28 collocation result by approximately two percent in the global radius of the Qc<0Q_c<0 branch. The discrepancy is not averaged away or silently repaired. It remains an explicit numerical audit frontier. The associated CA-1 certification protocol records the quantities required for future independent numerical reproduction: surface values, global positivity of the relational branch, separate surface and asymptotic masses, equation closures, and the internal anatomy of the solution. Black Cores and Cosmology The stellar fold is not identified with the separate double-scale Black-Core architecture. The latter remains a conditional strong-field programme in which the optical/transport scale and the proposed inner mechanical curvature scale obey different mass scalings. Its finite-wall junction, complete regular spherical solution and microscopic phase dynamics remain open. The homogeneous cosmological sector is likewise kept separate from local gravitational dynamics. The published radiative–constitutive numerical history remains a reproducible viability checkpoint rather than a derived microscopic law. The active ontology uses boundary production rather than the retired language of local continuum swelling. Audit Discipline Version 7.2.0 retains the withdrawals already made in v7.1.0: the former active viscoelastic, autonomous-vector, exponential-metric, continuum-swelling and clock-front branches remain part of the historical audit trail but are not restored to the active RM architecture. The former “Æther D” nomenclature likewise remains withdrawn from canonical use. RM does not present Pillar III as proof of a completed physical theory. The Manifesto distinguishes postulates, derived results, conditional closures and open programmes, and treats unresolved debts and rejection conditions as part of the public scientific statement rather than as material to be hidden. Version 7.2.0 — Constitutive-Length / Exclusion-Interaction Canonical Synthesis Edition.

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View paper (DOI)Open access versionOpenAlexZenodo (CERN European Organization for Nuclear Research)Published 2026-09-07

Authors: PIERRE BENAROS