A full-corpus source-locked reassessment of Higgs, electromagnetic, charged-lepton, gauge and quark-flavour numbers
This paper is an important step in the VERSF Standard Model programme because it asks a harder question than simply, “Do the numbers look close?” It goes back through the calculations and asks where each number actually came from, what assumptions were used, and whether the measured answer was allowed to influence the derivation. That matters because VERSF is ultimately trying to explain why the Standard Model has the particular parameters it does, rather than merely reproducing them after the fact. The audit finds several genuinely interesting numerical contacts: the Higgs ratio 32/63 is about 0.05% from the measured-inferred value, the electromagnetic candidate 7/960 is about 0.08% away, and the electron-to-muon mass ratio is about 0.17% away. Crucially, the paper also keeps the calculations that do not work well instead of hiding them.
The biggest advance is probably in the Higgs sector. Earlier VERSF work had produced the striking 32/63 Higgs ratio, but there was still a major question over whether the theory had identified a genuine microscopic Higgs degree of freedom and a way for it to propagate. This paper now separates those questions much more cleanly. It identifies the common Higgs/completion mode, a stable broken vacuum and fact-to-fact propagation, while also showing that the spatial propagation problem is not yet completely solved. One candidate mechanism produces the required p2 behaviour, while another fully relaxed formulation begins at p4. That is why the Higgs mechanism is graded Stage 3S rather than full Stage 3: the underlying structure is now substantially identified, but the primitive action still has to decide which spatial transport mechanism is physically real.
The paper also advances the strong-force and quark-mixing sectors, although in a more cautious way. For QCD, VERSF still does not claim to have derived the physical strong coupling, but it now has a non-trivial source-side colour-response precursor, K3=3744/2201≈1.701045, built from two earlier VERSF constructions rather than fitted to the measured value. In the CKM sector, the audit makes an equally important distinction between the genuinely returned RRHF matrix—which performs poorly—and the much more successful axle-corrected branch, which remains only a diagnostic because the physical phase and readout have not yet been selected by the theory. Keeping the bad result as the controlling result is a strength of the paper, because it prevents a promising branch from being mistaken for a completed derivation.
So the real progress here is not that VERSF can suddenly claim to have derived the Standard Model. It cannot. The advance is that the programme now has a much clearer map of what is genuinely derived, what is conditional, what has failed, and exactly what calculation comes next. In particular, the next Higgs step is no longer a vague search for “the right propagator”; it is a very specific test of whether the primitive history action contains an independent reversible neighbour stiffness, and if so what coefficient and physical normalisation it gives. That makes the Standard Model programme more falsifiable, more disciplined and, importantly, much harder to rescue after the fact by choosing whichever branch happens to agree best with experiment.