IndisputableMonolith.Physics.LeptonGenerations.TauStepExclusivity
The TauStepExclusivity module presents D/2 as the candidate formula for the dimension-dependent correction in the tau step of lepton generations. Researchers deriving lepton masses from cube geometry would cite it when selecting among correction candidates. The module structures its case through definitions of multiple correction terms evaluated at D=3 together with equality and exclusion lemmas.
claimThe dimension-dependent correction takes the form $\Delta(D) = D/2$.
background
The module imports Constants, where $\tau_0 = 1$ tick is the fundamental RS time quantum, and AlphaDerivation, which derives $\alpha^{-1}$ from the geometry of the cubic ledger with the main result that $4\pi$ follows from Gauss-Bonnet via vertex deficits of $Q_3$. It introduces correction terms (D/2, F/4, E/8 and quadratic variants) together with their evaluations at $D=3$ and algebraic relations among them.
proof idea
The module is built from a collection of definitions (correction_D_half and siblings) plus lemmas that establish equalities such as F_quarter_eq_D_half and exclusions such as F_quarter_not_alternative. These relations are obtained by direct algebraic comparison of the correction expressions at $D=3$.
why it matters in Recognition Science
This module supplies the D/2 candidate that feeds the downstream TauStepDeltaDerivation, whose stated goal is to derive $\Delta(D) = D/2$ from cube geometry without calibration to observed masses and to show that $\Delta(3) = 3/2$ is forced. It therefore occupies the position of the claimed formula inside the lepton-generation correction chain.
scope and limits
- Does not calibrate any correction coefficient to experimental lepton masses.
- Does not derive the full three-generation mass spectrum.
- Does not incorporate electromagnetic or weak interaction corrections.
- Does not address steps beyond the tau generation.
used by (1)
depends on (2)
declarations in this module (22)
-
def
correction_D_half -
def
correction_F_quarter -
def
correction_E_eighth -
def
correction_D_quad1 -
def
correction_D_quad2 -
theorem
D_half_at_3 -
theorem
F_quarter_at_3 -
theorem
E_eighth_at_3 -
theorem
D_quad1_at_3 -
theorem
D_quad2_at_3 -
theorem
F_quarter_eq_D_half -
theorem
F_quarter_not_alternative -
def
AxisAdditive -
theorem
axisAdditive_linear -
structure
AdmissibleCorrection -
theorem
admissible_unique -
theorem
D_half_admissible -
theorem
F_quarter_admissible -
theorem
E_eighth_not_axisAdditive -
theorem
D_quad1_not_axisAdditive -
theorem
D_quad2_not_axisAdditive -
theorem
tau_correction_unique_admissible