IndisputableMonolith.Physics.LeptonGenerations.TauStepExclusivity
This module defines the tau step correction candidates in the Recognition Science lepton model, centering on the D/2 formula as the exclusive choice. It supplies half, quarter, and eighth order corrections derived from cubic ledger geometry and evaluates them at D=3. Physicists constructing first-principles lepton mass hierarchies cite it to fix the dimension-dependent adjustment without empirical fitting. The module consists of sequential correction definitions that establish exclusivity by direct comparison.
claim$Delta(D) = D/2$ is the exclusive tau-step correction, with auxiliary terms $D/2$, $F/4$, $E/8$ and their evaluations at $D=3$.
background
The Recognition Science framework sets the fundamental time quantum as $tau_0 = 1$ tick. The fine-structure constant $alpha^{-1}$ is derived from the geometry of the cubic ledger, with $4pi$ obtained via the Gauss-Bonnet theorem on vertex deficits. This module resides in the lepton generations section and introduces the correction functions for the tau step that depend on spatial dimension $D$.
proof idea
This is a definition module, no proofs. It declares the correction candidates and their specific values at three dimensions, establishing the formulas that support the subsequent delta derivation.
why it matters in Recognition Science
This module supplies the correction definitions that feed the TauStepDeltaDerivation. The downstream module derives $Delta(D) = D/2$ from cube geometry without calibration to observed masses and shows that $Delta(3) = 3/2$ is forced by the framework. It advances the first-principles lepton mass chain in Recognition Science.
scope and limits
- Does not calibrate any correction to experimental mass values.
- Does not address electron or muon generation steps.
- Does not incorporate electromagnetic or quantum corrections beyond the cubic ledger.
- Does not derive the complete lepton mass spectrum.
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