IndisputableMonolith.Masses.SMVerification
This module applies the master mass law to Standard Model fermions by assigning each particle a sector, rung, charge, and Z value on the φ-ladder. It supplies concrete definitions for the electron, muon, tau, up, charm, and top that map directly onto the coherence-energy scaling. Researchers modeling mass hierarchies or testing Recognition Science predictions against collider data would cite these assignments. The module is built entirely from definitions that instantiate the abstract mass formula for the six fermions.
claimThe module supplies the assignments fermionSector(f), fermionRung(f), fermionCharge(f), fermionZ(f) and the resulting fermionMass(f) = y \cdot \phi^{r-8+g(Z)} for each Standard Model fermion f, where y is the sector yardstick, r the rung index, and g(Z) the gap function.
background
The module imports the Master Mass Law, which states that every stable recognition state occupies a rung on the φ-ladder and that mass is proportional to coherence energy E_coh scaled by sector yardstick and rung position. It therefore inherits the φ-ladder structure and the yardstick scaling already formalized in MassLaw. The local setting is the Masses domain, where the general mass formula is specialized to the six fermions of the Standard Model via explicit rung and sector data.
proof idea
This is a definition module, no proofs. It consists of type and function definitions (Fermion, fermionSector, fermionRung, fermionCharge, fermionZ, fermionMass) together with the six concrete mass_pos lemmas that record the rung assignments for each fermion.
why it matters in Recognition Science
The module supplies the concrete SM instances required by the master mass law, thereby linking the abstract φ-ladder construction to the observed fermion spectrum. It sits directly downstream of the MassLaw module and provides the data that any later verification of mass ratios or coupling constants would invoke.
scope and limits
- Does not derive the φ-ladder or the master mass formula.
- Does not treat gauge bosons or the Higgs sector.
- Does not compute numerical mass values, only rung positions.
- Does not address mixing angles or CP phases.
depends on (1)
declarations in this module (27)
-
inductive
Fermion -
def
fermionSector -
def
fermionRung -
def
fermionCharge -
def
fermionZ -
def
fermionMass -
theorem
electron_mass_pos -
theorem
muon_mass_pos -
theorem
tauon_mass_pos -
theorem
up_mass_pos -
theorem
charm_mass_pos -
theorem
top_mass_pos -
theorem
down_mass_pos -
theorem
strange_mass_pos -
theorem
bottom_mass_pos -
theorem
all_fermion_masses_pos -
theorem
muon_rung_minus_electron_rung -
theorem
tauon_rung_minus_electron_rung -
def
pdg_electron_MeV -
def
pdg_muon_MeV -
def
pdg_tauon_MeV -
def
pdg_mu_e_ratio -
theorem
pdg_mu_e_ratio_approx -
theorem
fermion_count -
theorem
charged_fermion_generations -
structure
SMVerificationCert -
def
sm_verification_cert