IndisputableMonolith.StandardModel.HiggsYukawaBridge
Defines the Standard-Model Yukawa extraction y_f = √2 m_f / v from φ-ladder masses. Supplies positivity, φ-scaling, and v-independence lemmas, plus a normalization hypothesis and a bridge certificate. Cited by Higgs EFT low-energy and observable-skeleton modules. Mostly definitional with short algebraic proofs from the mass law.
claimFor each fermion $f$ with $\phi$-ladder mass $m_f = \mathrm{predict\_mass}(\mathrm{sector}, r, Z)$, the SM Yukawa is $y_f = \sqrt{2}\, m_f / v$. The module records $y_f > 0$, $\phi$-power scaling of $y_f$, adjacent-rung ratios independent of the Higgs vev $v$, and a certificate packaging these facts under an optional normalization hypothesis.
background
Recognition Science places every stable particle on a $\phi$-ladder rung. The master mass law (Masses.MassLaw) writes $m$ as a sector yardstick times $\phi$ to a power fixed by rung and atomic number gap; Anchor centralises the parameter-free constants used in that formula. Constants supplies the RS time quantum and related units.
In the Standard Model the fermion mass is $m_f = y_f v / \sqrt{2}$, so inverting gives the extraction convention $y_f = \sqrt{2}, m_f / v$. This module takes $m_f$ from the $\phi$-ladder predictor and treats $v$ as an external electroweak scale, thereby translating RS masses into SM Yukawa couplings without introducing new free parameters beyond the ladder data.
The local setting is the Model layer: no claim of experimental agreement is made here; the goal is a clean bridge from ladder masses to Yukawa numbers usable by Higgs EFT and collider-observable skeletons.
proof idea
Definitional core: yukawa_SM is the literal map $(\mathrm{sector},r,Z,v)\mapsto \sqrt{2},\mathrm{predict_mass}/v$. Positivity follows from positivity of the mass law and $v>0$. Scaling lemmas are algebraic rewrites of the $\phi$-power in the mass formula, so ratios of adjacent Yukawas cancel $v$ and the overall yardstick. The normalization hypothesis is a Prop interface; a short lemma derives positivity from it when assumed. The bridge certificate is an inhabited structure bundling the main lemmas for downstream import.
why it matters in Recognition Science
Feeds the Higgs EFT low-energy limit master certificate, which chains RS cost geometry through an effective scalar coordinate to a canonical Higgs EFT, and the Higgs observable skeleton that parametrises partial widths, branching ratios, and signal-strength modifiers. Without a uniform Yukawa extraction, those modules cannot attach ladder masses to SM-like couplings. The construction sits downstream of the mass law and Anchor constants; it does not itself force $\phi$ or the eight-tick structure (those live in the T5–T7 forcing chain). It closes the Model-layer gap between $\phi$-ladder masses and the Yukawa inputs expected by Higgs phenomenology modules.
scope and limits
- Does not derive the Higgs vev $v$ from first principles; $v$ remains an external input.
- Does not claim numerical agreement of $y_f$ with measured Yukawas.
- Does not prove the YukawaNormalizationHypothesis; it is an optional Prop interface.
- Does not compute loop-level or running Yukawas; only tree-level extraction from ladder masses.
- Does not address CKM/PMNS mixing or complex phases.
used by (2)
depends on (3)
declarations in this module (11)
-
def
yukawa_SM -
theorem
yukawa_SM_pos -
theorem
yukawa_SM_phi_scaling -
theorem
yukawa_SM_ratio_adjacent -
theorem
yukawa_SM_ratio_independent_of_v -
theorem
yukawa_SM_phi_pow_scaling -
def
YukawaNormalizationHypothesis -
theorem
yukawa_SM_pos_of_hypothesis -
structure
HiggsYukawaBridgeCert -
def
higgsYukawaBridgeCert -
theorem
higgsYukawaBridgeCert_inhabited