A Break by Axiom: Forced Momentary Gravitational Decoupling as Ignition of the Big Bang (PPKBH-4DFC)
Year: 2026
Type: preprint
Abstract: Standard CDM cosmology is currently facing compounded serious observational predicaments: the Hubble Tension, the multi-decade absence of observed particulate Dark Matter and the illusion of an accelerating (but varying) cosmic expansion (DESI) (Dark Energy), James Webb Space Telescope (JWST) observations of highly-mature, halo-free early galaxies, oddly undisturbed early spiral galaxies, lack of Population III stars and early metallicity, early SMBHs, the angular size anomaly (micro to “puffy” galaxies), the “crowded closet” problem, and the Cosmological Lithium Problem. To natively resolve these anomalies without patching the Standard Model with unobservable particles and fields, this paper proposes a foundational geometric “Axiom” trade: replacing the classical infinite singularity with a transient decoupling of macroscopic gravity at the core boundary limit (). This "Axiom Break" initializes a stalled fractal collapse, modeling the universe not as an expanding coordinate system, but as a Kerr-bounded, thermodynamically active, geometrically linked engine. Driven by the violent geometric reversal of the Axiom Break, the progeny universe emerges not as a hot primordial plasma, but as a vast, cold spatially flat Newtonian void. Primordial mass is forged via Point-Source Hadronization—the instant, localized quantum decay of progeny-scaled massive, heavy quarks precipitating from the newly established Quantum Vacuum Energy (QVE) floor. This isolated nanosecond shattering natively generates the 75/25 Hydrogen-to-Helium ratio and the trace geometric remainders of Deuterium and Helium-3, while geometrically starving the formation of complex isotopes like Lithium-7. These newly forged nucleons settle into the three-dimensional interference nodes of the metric's Quasinormal Ringdown, establishing Super GravoMetric Oscillations (SGMO). SGMO is this framework’s speed of light driven replacement for the BAO. This Chladni-like precipitation pattern natively maps the massive blueprint of the Cosmic Web—establishing the nodes, filaments, and voids from Day One. To maintain structural confinement against the void, baryonic matter acts as a quantized entropic “mechanical ratchet”, continuously pulling the local spacetime fabric tighter and increasing the local Vacuum Energy Tension (VET). In the geometrically instantly cold early universe, this active QVE ratcheting acts as a structural accelerant unhindered by thermal plasma. The concentrated dust smoothly funnels down the VET entropic gradients in a frictionless "Cold Avalanche," natively organizing the mature morphology of high-redshift JWST galaxies and providing the optimal Quasi-Star shielding environments required to breed Supermassive Black Holes (SMBHs) within 300 million years. Then, over billions of years, this localized tightening flattens the gravitational wells into the broad entropically geometric basins historically misidentified as particulate Dark Matter. Simultaneously, as matter condenses, the Vacuum Energy Tension in the massive cosmic voids physically relaxes. This creates a severe temporal entropic gradient between dense filaments and sparse voids. Transiting photons traversing this actively relaxing “Timescape” are optically stretched, generating the illusion of Dark Energy and natively resolving the Hubble Tension. Crucially, by avoiding unobservable theoretical patches, this framework yields strictly falsifiable, near-term empirical predictions. Cosmologically, it predicts a strict "kinematic gap"—a hard redshift ceiling for primordial galaxies and neutral gas in the to range. Unlike standard models, which predict a continuum of redshifted galaxies and gas up to the limit of the CMB, this framework isolates the CMB as the distinct optical flash of the Axiom Break. Galactic redshift is instead strictly capped by the maximum temporal distortion achievable across the fixed 13.8-billion-light-year radius. Furthermore, strict thermodynamic limits dictate the nucleonic QVE engine must vent exhaust in a balanced entropic system. The internal relativistic asymmetry of the 3-quark nucleon continuously vents quantized High-Frequency Gravitational Waves (HFGWs). Through the Gertsenshtein effect, these HFGWs resonantly convert into electromagnetic energy when traversing strong transverse magnetic fields, establishing a directly testable mechanical source for a portion of the anomalous coronal heating observed by the Parker Solar Probe.
Author: Shearson, Edward Rawdon
Language: English
Subfield: Astronomy and Astrophysics
Field: Physics and Astronomy
Domain: Physical Sciences
Open Access status: green
OpenAlex ID: W7225203324