Renormalizable, Testable Quantum Gravity Foundation from Chiral Neutrino Masses in a Standard Model Two-Higgs Minimal Extension
Year: 2025
Type: article
Abstract: Using the single postulate of a standard model two-Higgs minimal extension informed by current empirical neutrino mass data—from which a gravitational and chiral neutrino mass hierarchy equivalence, and a Type-I neutrino mass seesaw, emerge as corollaries—we derive Newton’s gravitational constant as a function of the left-chiral neutrino mass sum, the Fermi vev, a Dirac mass seesaw fulcrum, and a neutrino mass variance constant. Used in the Einstein equation via κ=8πGN/c^4, and analyzed with the Newtonian linear approximation, this reveals an effective foundation for renormalizable quantum gravity mediated by a composite of strength-weakening neutrino loops and spin 3/2 gravitinos, in addition to expected spin 2 gravitons (Figure 2). The Higgs mechanism for neutrino masses suggests a proposed experiment using hydride collisions at LHC/FCC to produce and detect evidence of predicted ~PeV right-chiral neutrino masses (Tables 2 and 3). Aside from the minimal two-Higgs extension informed by empirical neutrino mass data, we arrive at quantum gravity making no alterations whatsoever to the standard model or to general relativity.
Author: Yablon, Jay R.
Language: English
Subfield: Nuclear and High Energy Physics
Field: Physics and Astronomy
Domain: Physical Sciences
Open Access status: green
OpenAlex ID: W7080171745
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