IndisputableMonolith.Physics.LeptonGenerations.Necessity
The Necessity module proves the lepton ladder rungs at 2, 13 and 19 are the unique stable solutions to the three-generation torsion constraint in D=3. Researchers extending T9 electron mass results to T10 muon and tau masses cite this when constructing the full fermion spectrum from cube geometry. The argument assembles the base rung from electron linking, adds the E_p=11 and cube-face=6 increments, then verifies uniqueness through residue classes modulo 8.
claimThe lepton ladder rungs $r_1=2$, $r_2=13=2+11$, $r_3=19=13+6$ are the unique stable solutions for the three-generation torsion constraint in $D=3$, with residues classes modulo 8 given by the set {2,5,3} that label the three distinct directions of the cubic voxel.
background
This module belongs to the lepton sector of Recognition Science and sits downstream of the T9 electron mass definitions. It imports the core constants, the golden-ratio relation φ²=φ+1, interval arithmetic for power bounds, and the electron-mass necessity results that derive lepton constants from cube geometry. The AlphaDerivation module supplies the 4π term obtained from Gauss-Bonnet on vertex deficits of the cubic ledger Q₃.
proof idea
The module organises its argument into sibling theorems. lepton_rungs_forced assembles the base rung from T9 linking and applies the fixed increments E_p and cube faces. lepton_residues_distinct and lepton_rungs_unique establish that the resulting positions occupy distinct classes modulo 8. is_stable_lepton_ladder and torsion_minimality_forced close the torsion constraint using the eight-tick octave and D=3. The remaining lemmas verify exact equalities for E, cube faces, W and local bounds on π.
why it matters in Recognition Science
The module supplies the forced rung positions required by the T10 lepton-generations derivation and by the unified hierarchy module. It thereby completes the necessity half of the three-generation model inside the Recognition forcing chain, directly using T7 (eight-tick octave) and T8 (D=3) together with the cubic-voxel geometry. The result is imported by ParticleSummary and the RRF lepton module.
scope and limits
- Does not derive numerical mass ratios for the muon or tau.
- Does not treat quark sectors or quarter-ladder coordinates.
- Does not address dynamical stability or decay widths.
- Does not incorporate higher-order radiative corrections.
used by (4)
depends on (9)
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IndisputableMonolith.Constants -
IndisputableMonolith.Constants.Alpha -
IndisputableMonolith.Constants.AlphaDerivation -
IndisputableMonolith.Numerics.Interval.Pow -
IndisputableMonolith.PhiSupport -
IndisputableMonolith.Physics.ElectronMass.Defs -
IndisputableMonolith.Physics.ElectronMass.Necessity -
IndisputableMonolith.Physics.LeptonGenerations.Defs -
IndisputableMonolith.RSBridge.GapProperties
declarations in this module (110)
-
theorem
lepton_rungs_forced -
theorem
lepton_residues_distinct -
def
is_stable_lepton_ladder -
theorem
lepton_rungs_unique -
structure
LeptonTorsionCert -
theorem
lepton_torsion_verified -
theorem
torsion_minimality_forced -
lemma
E_passive_exact -
lemma
cube_faces_exact -
lemma
W_exact -
lemma
pi_gt_d6_local -
lemma
pi_lt_d6_local -
lemma
inv_4pi_lower -
lemma
inv_4pi_upper -
lemma
inv_4pi_bounds -
lemma
step_e_mu_bounds -
lemma
step_mu_tau_bounds -
lemma
gap_minus_shift_bounds_proven -
lemma
predicted_residue_mu_bounds -
lemma
predicted_residue_tau_bounds -
def
phi_pow_neg963_lower_hypothesis -
def
phi_pow_neg962_upper_hypothesis -
lemma
exp_four_upper -
lemma
exp_four_lower -
def
exp_taylor_10_at_081416924 -
def
exp_error_10_at_081416924 -
lemma
exp_081416924_upper_q -
lemma
exp_081416924_upper -
def
exp_taylor_10_at_080454125 -
def
exp_error_10_at_080454125 -
lemma
exp_080454125_lower_q -
lemma
exp_080454125_lower -
def
exp_taylor_10_at_063407156 -
def
exp_error_10_at_063407156 -
lemma
exp_063407156_upper_q -
lemma
exp_063407156_upper -
def
exp_taylor_10_at_062924882 -
def
exp_error_10_at_062924882 -
lemma
exp_062924882_lower_q -
lemma
exp_062924882_lower -
lemma
exp_181416924_upper -
lemma
exp_180454125_lower -
lemma
exp_463407156_upper -
lemma
exp_462924882_lower -
theorem
phi_pow_neg963_lower_proved -
theorem
phi_pow_neg962_upper_proved -
theorem
phi_pow_residue_mu_lower -
theorem
phi_pow_residue_mu_upper -
lemma
phi_pow_residue_mu_bounds -
def
phi_pow_neg377_lower_hypothesis -
def
phi_pow_neg375_upper_hypothesis -
theorem
phi_pow_neg377_lower_proved -
theorem
phi_pow_neg375_upper_proved -
theorem
phi_pow_residue_tau_lower -
theorem
phi_pow_residue_tau_upper -
lemma
phi_pow_residue_tau_bounds -
theorem
predicted_mass_mu_lower -
theorem
predicted_mass_mu_upper -
theorem
muon_mass_pred_bounds_proven -
theorem
predicted_mass_mu_lower_tight -
theorem
predicted_mass_mu_upper_tight -
theorem
muon_mass_pred_bounds_tight -
theorem
predicted_mass_tau_lower -
theorem
predicted_mass_tau_upper -
theorem
tau_mass_pred_bounds_proven -
theorem
predicted_mass_tau_lower_tight -
theorem
predicted_mass_tau_upper_tight -
theorem
tau_mass_pred_bounds_tight -
theorem
lepton_ladder_forced_from_T9 -
lemma
inv_4pi_lower_v2 -
lemma
inv_4pi_upper_v2 -
lemma
step_e_mu_bounds_v2 -
lemma
step_mu_tau_bounds_v2 -
lemma
predicted_residue_mu_bounds_v2 -
lemma
predicted_residue_tau_bounds_v2 -
def
exp_taylor_v2_1 -
def
exp_error_v2_1 -
lemma
exp_v2_1_q -
lemma
exp_06327_upper -
def
exp_taylor_v2_2