The Standard Model of particle physics and the ΛCDM model of cosmology are challenged by a growing sector of observational anomalies, including the Hubble Tension, the early maturation of galaxies observed by JWST (z >14), and the unexplained nature of the Dark Sector. This paper proposes Impedance Mechanics, a unified field framework that resolves these anomalies by treating the vacuum not as a passive geometric background, but as a physical dielectric substrate governed by electromagnetic impedance. It is postulated that the fundamental constants of nature – Planck’s constant (h), the Gravitational constant (G), and the speed of light (c) – are emergent properties of this substrate’s mechanical limits: its Characteristic Impedance (Z₀ ≈ 377 Ω), Vacuum Slowness (s₀ ≈ 3.33 ns/m), and Dielectric Stiffness. By reformulating the Lagrangian density in terms of Metric Slowness (s), it is demonstrated that gravity is a dielectric stress field where mass dilates the local refractive index of the substrate. Applying this framework, the paper presents rigorous derivations for key physical phenomena: Quantum Foundations: Planck’s constant is defined as the minimum phase volume of the substrate, and Elementary Charge as the torsional limit of the vacuum potential. Cosmological Resolution: The Hubble Tension is resolved as a refractive index artifact caused by the high optical density of the primordial vacuum. Furthermore, aligning the vacuum’s viscous drag with recent hybrid metric evolution models resolves the “Maturation Paradox,” yielding a cosmic age of T ≈ 26.7 Gyr. Empirical Validation: The model derives the equivalent 11.6 km/day ranging error observed in Global Positioning Systems (GPS) purely as a gradient in vacuum density, providing a first-order validation without invoking geometric time dilation. The conclusion is that the “Dark Sector” is not a collection of unseen particles but the mechanical manifestation of the vacuum’s viscoelastic evolution. Dark Energy is identified as Viscous Relaxation, and Dark Matter as the Self-Energy of Dielectric Stress. This framework unifies the gravitational and electromagnetic parameter space, reducing the complexity of the fundamental parameter space to two fundamental material properties.
Kenneth McGuire (Mon,) studied this question.