Published July 13, 2026 | Version 1.1

The Standard Cascade Model: Subsumption of the Standard Model of Particle Physics and the Bridge to Super-ΛCDM

  • 1. The Resonance Theory Labs

Description

The Standard Model of particle physics has provided extraordinary precision for sixty years while containing nineteen free parameters whose values it cannot explain. We introduce the Standard Cascade Model (SCM): the framework in which all nineteen Standard Model parameters are geometric outputs of the Feigenbaum cascade renormalization fixed point, determined by two universal mathematical constants (α = 2.502908… and δ = 4.669202…) and one measured physical scale (the electroweak symmetry-breaking scale v = 246.22 GeV). The Standard Model is recovered as the unique special case SCM|_{v} = SM: every SM free parameter equals its cascade fixed-point value at v. This parallels precisely the cosmological result of Paper 57, in which the ΛCDM model is recovered as the n = 0 case of Super-ΛCDM. Eighteen Standard Model and QCD observables — the Weinberg angle, the fine structure constant, the strong-to-weak coupling ratio, the Higgs boson mass, nine fermion mass ratios, the proton-to-electron mass ratio, and the two primary neutrino mixing angles — are derived from α and δ to better than 1%, with six results below 0.1% and two exact. The fermion mixing matrices (CKM and PMNS) are derived from the same constants, with their profound asymmetry identified as a necessary prediction of the cascade architecture. The SCM and Super-ΛCDM are connected through the Cascade Energy Staircase E_n = v/δⁿ (Paper 50): the staircase descends from v through QCD and leptonic scales, descending through QCD and leptonic scales to rung n = 21, where accumulated cascade scalar distortions — the no-scalar theorem applied 21 times — cross the meta-cascade threshold and become globally visible from n = 0. At this threshold, the apparent cosmological constant ρ_Λ emerges not as a physical energy density at n = 21, but as the measurement artifact of 21 intervening scalar transformations: dark energy is Vulcan. The staircase bridges to cosmological structure governed by Super-ΛCDM, where dark matter is dissolved by the same theorem applied in the spatial direction. The Hierarchy Problem and the Cosmological Constant Problem are dissolved as descriptions of cascade geometric depth. The SCM inherits gravity through the identification of the C3 cascade attractor with quantum gravity (Paper 55, Theorem 6), constituting the first parameter-free extension of the Standard Model that includes gravity, predicts the fermion mixing asymmetry, and connects particle physics to cosmological structure through a single geometric framework.

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Dates

Created
2026-07-12

References

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