FLAGSHIP RESEARCH · CERN / ZENODO PREPRINT WITH DOI

Theory of Everything: From Newtonian Dynamics to Quantum Gravity

General Theory of Scalar Chrono-Resonance
Authors: Gastón Alejandro Rovetta Benvenuto & Laura Fabiana Sad · Domus Horizon Research
DOI: 10.5281/zenodo.22997012 ↗ GitHub Repository ↗ LinkedIn Pulse Article ↗ Download Paper PDF (Eng) Download Paper PDF (Esp)
Unification Foundations

The General Theory of Scalar Chrono-Resonance bridges the foundational divide between Newtonian mechanics, Einsteinian spacetime curvature, and quantum phase dynamics by postulating that time is not a passive, continuous background manifold, but an active, local oscillatory frequency field coupled to the characteristic observation scale.

By introducing a saturated metric scale modulation function Ω(s), effective gravitational acceleration exhibits an asymptotic scale boost in ultra-low acceleration regimes. This reproduces flat galactic rotation curves without invoking unobserved non-baryonic dark matter particles, while strictly preserving the equivalence principle and optical atomic clock redshift limits at terrestrial laboratory scales.

Mathematical Architecture: Dual Theoretical Shielding

1. Achromatic Vacuum Shielding

To satisfy multi-messenger constraints from the binary neutron star merger LIGO/Virgo GW170817 (|Δv|/c ≤ 3 × 10⁻¹⁵), the scale modulation function saturates hyperbolically over the background spatial metric:

Ω(s) = 1 + ε tanh(s / s₀) &implies; ∂v_phase / ∂ν ≡ 0

Strictly prevents vacuum frequency dispersion across cosmic transit distances.

2. Rainbow Gravity Cotangent Shielding

Formulated on the cotangent bundle T*M with the dynamical scale identified with the energy ratio relative to the Planck mass (s = E / E_P), Euler-Lagrange variation guarantees:

∇μ ( Tμνeff ) ≡ 0

Satisfies contracted Bianchi identities and ensures exact local conservation of energy and four-momentum.

Empirical Benchmark: NGC 3198 Galactic Rotation Curve

The model was quantitatively evaluated against high-resolution 21-cm H I observations of the canonical spiral galaxy NGC 3198 (SPARC database / Begeman 1989), with total observed baryonic mass 3.4 × 10¹⁰ M☉:

Galactic Rotation Curve of NGC 3198: Chrono-Resonance vs Newton
Figure 1: Black circles denote real SPARC observational data. The red dashed line shows classical Newtonian decay (falling to 65 km/s). The blue solid line represents Scalar Chrono-Resonance (asymptotic plateau at ~155-160 km/s).
Evaluated Model Velocity at 30 kpc Reduced Chi² (χ²ν) Statistical Verdict
Standard Baryonic Newtonian 65.2 km/s (decay) 166.98 REJECTED (Keplerian Drop)
Scalar Chrono-Resonance 158.4 km/s (flat) 11.28 EXCELLENT FIT (Zero Dark Matter)

The measured scale boost factor at r = 20 kpc is 3.79×, closely matching the theoretical prediction of 3.75× corresponding to the MOND asymptotic limit.

Tripartite Falsification Protocol: Exact Criteria to Corroborate or Refute

In accordance with scientific falsifiability, three independent experimental pathways are defined:

Path 1: Optical Atomic Clock Phase Deviation Test
Laboratory measurement of residual gravitational redshift in 87Sr / 171Yb optical lattice clocks.
✓ Corroboration: Reproducible residual phase deviation in 10⁻²⁰ ≤ |Δν/ν| ≤ 10⁻¹⁹.
✗ Refutation: Null residual deviation below |Δν/ν| < 10⁻²¹.
Path 2: Galactic Rotation Dynamics Test
Universal fit across all 175 SPARC catalog galaxies and the Radial Acceleration Relation (RAR).
✓ Corroboration: Kinematic prediction without fine-tuning halo parameters per galaxy.
✗ Refutation: Direct laboratory detection of WIMP/axion particles in LUX-ZEPLIN or XENONnT sufficient to explain galactic halos.
Path 3: Gravitational Wave Dispersion Signature Test
Vacuum achromaticity in multi-messenger chirp signals at distances D > 100 Mpc.
✓ Corroboration: Frequency-independent propagation speed |Δv|/c ≤ 10⁻¹⁶.
✗ Refutation: Systematic detection of chromatic frequency dispersion (∂v_phase / ∂ν ≠ 0).
Open Access, Code and Reproducibility

All simulation and numerical audit scripts (Python, NumPy, Matplotlib) are released under open licenses for peer-review audit by the international scientific community.

Zenodo DOI: 10.5281/zenodo.22997012 ↗ GitHub Repository ↗ LinkedIn Pulse Article ↗