IndisputableMonolith.Physics.LeptonGenerations.TauStepDeltaDerivation
This module supplies the D=3 specializations of hypercube face counts and the resulting structural deltas for the tau lepton generation step. Researchers constructing lepton masses on the phi-ladder would cite these identities to fix the tau coefficient. The module consists of direct algebraic definitions and equalities that follow from the base relation F = 2D.
claim$F = 2D$ for the face count of the D-hypercube. For D = 3 the structural delta satisfies $deltaStructural_{D3} = 1/2$ with the additive form $deltaAxisAdditive_{D3}$ obtained by direct substitution into the tau step coefficient.
background
Recognition Science fixes D = 3 via the eight-tick octave (T7-T8) and places lepton generations on the phi-ladder with mass steps governed by the tau coefficient (W + D/2). The module imports the time quantum tau_0 = 1 tick from Constants, the 4 pi derivation via vertex deficits of Q_3 from AlphaDerivation, and the uniqueness of the tau coefficient from TauStepExclusivity. It introduces faceCount as the hypercube face count F = 2D together with the D = 3 variants deltaStructural_D3, deltaAxisAdditive_D3 and delta_D3_derived.
proof idea
This is a definition module, no proofs. The listed siblings are obtained by direct substitution of D = 3 into the face-count identity and the structural delta expressions already established in the imported TauStepExclusivity module.
why it matters in Recognition Science
The D = 3 identities complete the structural half of the tau step delta derivation begun in TauStepExclusivity and supply the concrete coefficients needed for the lepton mass formula. They sit downstream of the alpha derivation via the cubic ledger and upstream of any numerical mass-ladder calculations.
scope and limits
- Does not compute the numerical tau mass.
- Does not treat electron or muon steps.
- Does not incorporate loop corrections or running couplings.
- Does not address non-cubic lattices.
depends on (3)
declarations in this module (34)
-
def
faceCount -
def
faceVertexCount -
theorem
faceVertexCount_D3 -
theorem
faceCount_D3 -
def
deltaStructural -
def
deltaAxisAdditive -
theorem
deltaStructural_D3 -
theorem
deltaAxisAdditive_D3 -
theorem
delta_D3_derived -
theorem
deltaStructural_alt_D3 -
theorem
deltaStructural_eq_half_D3 -
theorem
faceVertexRatio_D3 -
theorem
D3_has_2D_faces -
def
continuousMeasure3D -
def
discreteMeasure2DFace -
theorem
discreteMeasure_eq_4 -
def
eMuContribution -
def
muTauContribution -
theorem
muTauContribution_eq -
theorem
discrete_continuous_duality -
theorem
vertices_are_anchors -
inductive
CellDim -
def
cellCount -
def
anchorsPerCell -
def
localCoeff -
theorem
localCoeff_vertex -
theorem
localCoeff_edge -
theorem
localCoeff_face -
theorem
localCoeff_cube -
theorem
localCoeff_eq_three_halves_iff -
theorem
localCoeff_face_ne_edge -
theorem
localCoeff_face_ne_cube -
theorem
edge_over_cube_vertices_eq_face_over_face_vertices -
theorem
delta_derived_not_calibrated