This framework demonstrates a geometric approach to derive fundamental constants in particle physics, suggesting new insights into dark energy.
This paper does not intend to replace the established Standard Model of particle physics (SM), but rather to complement its phenomenal success by providing a geometric derivation of its fundamental free parameters. While the Standard Model excellently describes the interactions of matter, its approximately 26 constants of nature remain without a theoretical foundation. We introduce the Emergent Resonance Brane (ERB) Framework as a formal decipherment of these constants, demonstrating that masses, mixing angles, and coupling constants are the inevitable stationary solutions of a 3/2-brane collision. By anchoring the vacuum to a Hexagonal Seed (ξ = 1.5), we derive the particle spectrum as the eigenvalues of a resonant S² × S² manifold. The framework replaces the empirical Yukawa couplings of the SM with topological Bessel resonances and identifies the Top Quark mass precisely as the entropic saturation limit (Λ/e) of the resonant cavity. Furthermore, the Jarlskog Invariant is identified not as a mere empirical value, but as the primordial mechanical torsion of the brane collision, which clocks the flow of time via 'Hessian Friction'. Finally, we resolve the 'Vacuum Catastrophe' (10¹²⁰ discrepancy) by defining Dark Energy as a 10-dimensional transverse leak within the 12 holonomic degrees of freedom. Achieving a global mean consistency of 99.4% compared to CODATA values, this model demonstrates that the Standard Model is the highly effective description of a geometrically sealed machine, whose numerical constants are strictly dictated by the topology of a 3/2-resonance.
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Daniel Speckmann (2026) studied this question.
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