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[2] ai.viXra.org:2607.0058 [pdf] submitted on 2026-07-23 06:20:48
Authors: Jason Merwin
Comments: 8 Pages. Links to the repository are locked Zenodo releases are provided
We present pre-registered, cryptographically frozen structural predictions for CMS Run-3 dijet angular distributions (1/σ) dσ/dχ at 13.6 TeV, derived from the Discrete Emergent Universe (DEU) computational framework. Under a single published energy anchor (E24 ↔ 6.14 TeV) and a two-stage pre-registration protocol frozen before any profiling simulation existed, the model predicts: a pre-boundary excess accumulating at 1 < χ < 2 with a soft-wall deficit immediately above χ = 2 in the 7—8 TeV dijet mass bin; and, above 8 TeV, an inversion of the post-boundary deficit to a weak excess as the boundary softens and leaks, with the negative step S∗ and edge-log-drop ∆∗ persisting in both bins. All prediction values trace through SHA-256 hashes to simulation instruments certified row-exact against the archived output of the original DEU collision campaign. We additionally report the profiling ladder beyond the scored range, which exhibits a previously uncharacterized regime of simultaneous channel extinction, and an exploratory analysis of collision phenomenology versus foam age whose central qualitative claims are shown to be robust across a declared band of instrument-reconstruction uncertainties. Negative results obtained during the campaign are documented with the same prominence as positive findings.
Category: High Energy Particle Physics
[1] ai.viXra.org:2607.0053 [pdf] submitted on 2026-07-21 23:30:13
Authors: Rüdiger Giesel
Comments: 47 Pages.
The Standard Model accounts for fermion masses through Yukawa couplings, but thenumerical values and hierarchical pattern of these couplings remain external inputs. Thisarticle develops a geometric octonionic framework in which fermion-mass hierarchies areencoded in the spectrum of a projected non-associative vacuum operator. The constructionstarts from three octonion-valued fields, whose associator is promoted to a dynamicalvacuum quantity. A master action is formulated, its non-associative vacuum equationsare reduced in a canonical sector, and an algebraically motivated symmetry-breakingterm is introduced through a preferred associative quaternionic subalgebra and a Fanooriented vacuum direction. The resulting structure defines a self-adjoint associator numberoperator and a geometric spectral mass operator. Four closure statements are formulated:vacuum-scale closure, associator spectral closure, projector normalization closure, andRG reconstruction closure. The main result is not a claim of experimentally proven exactfermion masses, but a mathematically explicit framework in which exact masses wouldfollow once four closure blocks are solved without additional phenomenological input: theabsolute octonionic vacuum scale, the exact associator Hessian spectrum, the projectornormalization of the fermion sectors, and the renormalization-group matching to measuredmass conventions. In the minimal Fano-plane vacuum, the linearized associator matrix isevaluated explicitly and yields the non-zero spectral levels 4,8,12, i.e. the normalizedgeneration skeleton N1 : N2 : N3 = 1 : 2 : 3. A charged-lepton benchmark then shows howthe same spectral template can reproduce the measured e,µ,τ hierarchy once the sectorinvariants are fixed. The paper therefore provides a controlled route from octonionicnon-associativity to fermion mass hierarchies and identifies the remaining mathematicalrequirements for a parameter-free mass prediction. In its final form the closure programis strengthened by an explicit full-Hessian decomposition, a projector-uniqueness theoremmodulo the vacuum stabilizer, a finite charged-lepton trace test, and a component-levelcontraction formula for the lepton Hessian moments that makes the no-fit criterionoperational before comparison with observed masses.
Category: High Energy Particle Physics