Pith. sign in
theorem

gap_12

proved
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module
IndisputableMonolith.StandardModel.CKMFromCube
domain
StandardModel
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plain-language theorem explainer

The torsion gap between the first and second quark generations equals 11. Anyone deriving CKM mixing angles from Q₃ mass-basis torsion cites this exact integer difference. The proof is a one-line native decision on the definition τ₂ − τ₁ with the fixed values {0, 11, 17}.

Claim. The generation torsion gap between indices $0$ and $1$ equals $11$: $\tau(1) - \tau(0) = 11$, where the mass-basis torsions are $\tau \in \{0, 11, 17\}$ on $\mathrm{Fin}\,3$.

background

In the CKM-from-cube module, mass eigenstates on the three-generation space are labeled by CW torsion levels: generation 1 has torsion 0 (ground state), generation 2 has torsion 11 (edge-dressed), and generation 3 has torsion 17 (edge plus face). Off-diagonal mass-basis overlaps are suppressed by $\varphi^{-|\Delta\tau|}$, so the integer gaps control the mixing hierarchy.

The local definition torsionGap i j is simply $\tau j - \tau i$ as an integer. The present statement records the first adjacent gap. Upstream, the torsion triple itself is fixed by the Q₃ geometry and the Recognition torsion-forcing chain; the module then feeds these gaps into suppression exponents and flip-weight factors that build $\sin^2\theta_{ij}$.

proof idea

One-line computational discharge: native_decide evaluates torsionGap 0 1, which expands to $\tau,1 - \tau,0$, against the concrete assignment of generation torsions, and checks equality with 11. No lemmas beyond the definition are required.

why it matters

This pins the Cabibbo-sector torsion difference that enters the mass-basis overlap $\langle\mathrm{mass}1|\mathrm{mass}2\rangle \propto \varphi^{-11}$. Together with the sibling gaps (13 and 23 channels) and the Gray-code flip weights, it supplies the integer skeleton for the CKM angles under the module's rule $\sin^2\theta{ij} \propto (\mathrm{flip_count_ratio})\times\varphi^{-|\Delta\tau{ij}|}$.

In the broader Recognition chain the torsion values {0, 11, 17} sit on the $\varphi$-ladder mass formula and the eight-tick / cube geometry (T7–T8 landmarks). No downstream theorems currently depend on this name alone, but the hierarchy lemmas and suppression exponents in the same file consume the same gap data.

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