|
| 1 | +-- GIFT Hierarchy: Gauge Bundle Data on K7 |
| 2 | +-- ========================================== |
| 3 | +-- |
| 4 | +-- Physical gauge bundle data extracted from the TCS G2 manifold K7. |
| 5 | +-- |
| 6 | +-- Key results: |
| 7 | +-- 1. Gauge kinetic matrix f_IJ = G_K7(22): cond = 1.047 < 1.05 |
| 8 | +-- 2. Yukawa cubic form: 3 positive (SD) eigenvalues = 3 generations |
| 9 | +-- 3. Mass hierarchy: m1 > m2 > m3 > 0 |
| 10 | +-- 4. 57 associative 3-cycles (35 constant + 22 mixed) |
| 11 | +-- 5. All instanton volumes positive (suppressed) |
| 12 | +-- |
| 13 | +-- All results are Category F (numerically verified definitions) with |
| 14 | +-- native_decide proofs. Zero new axioms. |
| 15 | +-- |
| 16 | +-- Source: gauge_bundle_data_results.json (S22) |
| 17 | +-- Cross-refs: S19 (orthonormality), S20 (TCS gauge breaking) |
| 18 | + |
| 19 | +import GIFT.Core |
| 20 | +import GIFT.Hierarchy.TCSGaugeBreaking |
| 21 | + |
| 22 | +namespace GIFT.Hierarchy.GaugeBundleData |
| 23 | + |
| 24 | +open GIFT.Core |
| 25 | +open GIFT.Hierarchy.TCSGaugeBreaking |
| 26 | + |
| 27 | +-- ============================================================================= |
| 28 | +-- SECTION 1: GAUGE KINETIC MATRIX |
| 29 | +-- ============================================================================= |
| 30 | + |
| 31 | +/-! |
| 32 | +## Gauge Kinetic Matrix |
| 33 | +
|
| 34 | +The gauge kinetic matrix f_IJ = G_K7(22) from the L2 inner product |
| 35 | +of harmonic 2-forms on K7. Its condition number measures gauge |
| 36 | +coupling universality. |
| 37 | +
|
| 38 | +Source: `k7_orthonormality_results.json` (S19), reinterpreted in S22. |
| 39 | +-/ |
| 40 | + |
| 41 | +/-- Gauge kinetic condition number numerator: cond = 1.047 = 1047/1000 |
| 42 | +
|
| 43 | +**Axiom Category: F (Numerically verified)** |
| 44 | +Source: gauge_bundle_data_results.json -/ |
| 45 | +def gauge_kinetic_cond_num : ℕ := 1047 |
| 46 | + |
| 47 | +/-- Gauge kinetic condition number denominator -/ |
| 48 | +def gauge_kinetic_cond_den : ℕ := 1000 |
| 49 | + |
| 50 | +/-- Gauge universality: cond(f_IJ) < 1.05 = 105/100. |
| 51 | + Expressed as: 1047 * 100 < 105 * 1000, i.e. 104700 < 105000 -/ |
| 52 | +theorem gauge_universality : |
| 53 | + gauge_kinetic_cond_num * 100 < 105 * gauge_kinetic_cond_den := by native_decide |
| 54 | + |
| 55 | +/-- Gauge kinetic condition number > 1 (positive definite) -/ |
| 56 | +theorem gauge_cond_gt_one : |
| 57 | + gauge_kinetic_cond_num > gauge_kinetic_cond_den := by native_decide |
| 58 | + |
| 59 | +-- ============================================================================= |
| 60 | +-- SECTION 2: YUKAWA CUBIC FORM |
| 61 | +-- ============================================================================= |
| 62 | + |
| 63 | +/-! |
| 64 | +## Yukawa Cubic Form |
| 65 | +
|
| 66 | +The Yukawa coupling Y_{IJα} = ∫_{K7} ω_I ∧ ω_J ∧ ψ_α factorizes |
| 67 | +in the adiabatic TCS approximation as: |
| 68 | + Y_{IJα} = R_cubic × Q22[I,J] |
| 69 | +
|
| 70 | +The mass matrix is proportional to Q22, whose signature (3,19) gives |
| 71 | +exactly 3 positive eigenvalues = 3 fermion generations. |
| 72 | +
|
| 73 | +Source: `gauge_bundle_data_results.json` (S22). |
| 74 | +-/ |
| 75 | + |
| 76 | +/-- Number of self-dual (positive) Yukawa eigenvalues = N_gen |
| 77 | +
|
| 78 | +**Axiom Category: F (Numerically verified)** |
| 79 | +Source: gauge_bundle_data_results.json -/ |
| 80 | +def yukawa_rank : ℕ := 3 |
| 81 | + |
| 82 | +/-- Yukawa Frobenius norm numerator: ||Y|| = 8.969 = 8969024/1000000 |
| 83 | +
|
| 84 | +**Axiom Category: F (Numerically verified)** |
| 85 | +Source: gauge_bundle_data_results.json -/ |
| 86 | +def yukawa_norm_num : ℕ := 8969024 |
| 87 | + |
| 88 | +/-- Yukawa Frobenius norm denominator -/ |
| 89 | +def yukawa_norm_den : ℕ := 1000000 |
| 90 | + |
| 91 | +/-- Yukawa SD count = N_gen = 3 -/ |
| 92 | +theorem yukawa_rank_eq_ngen : yukawa_rank = N_gen := by native_decide |
| 93 | + |
| 94 | +/-- Yukawa norm is positive -/ |
| 95 | +theorem yukawa_norm_positive : yukawa_norm_num > 0 := by native_decide |
| 96 | + |
| 97 | +-- ============================================================================= |
| 98 | +-- SECTION 3: MASS HIERARCHY |
| 99 | +-- ============================================================================= |
| 100 | + |
| 101 | +/-! |
| 102 | +## Mass Hierarchy |
| 103 | +
|
| 104 | +The 3 positive eigenvalues of the Yukawa matrix give the mass hierarchy: |
| 105 | + m1 = 6.529 > m2 = 4.606 > m3 = 4.074 |
| 106 | +
|
| 107 | +The ratio m1/m3 = 1.60 is the geometric hierarchy from the Q22 |
| 108 | +intersection form. The large observed hierarchy (m_tau/m_e = 3403) |
| 109 | +requires the non-adiabatic Wilson-line coupling from S10. |
| 110 | +
|
| 111 | +Source: `gauge_bundle_data_results.json` (S22). |
| 112 | +-/ |
| 113 | + |
| 114 | +/-- Mass eigenvalue 1 (numerator, units of 1000): m1 = 6.529 -/ |
| 115 | +def mass_ev1_num : ℕ := 6529 |
| 116 | + |
| 117 | +/-- Mass eigenvalue 2 (numerator): m2 = 4.606 -/ |
| 118 | +def mass_ev2_num : ℕ := 4606 |
| 119 | + |
| 120 | +/-- Mass eigenvalue 3 (numerator): m3 = 4.074 -/ |
| 121 | +def mass_ev3_num : ℕ := 4074 |
| 122 | + |
| 123 | +/-- Common denominator for mass eigenvalues -/ |
| 124 | +def mass_ev_den : ℕ := 1000 |
| 125 | + |
| 126 | +/-- Mass hierarchy: m1 > m2 -/ |
| 127 | +theorem mass_hierarchy_12 : mass_ev1_num > mass_ev2_num := by native_decide |
| 128 | + |
| 129 | +/-- Mass hierarchy: m2 > m3 -/ |
| 130 | +theorem mass_hierarchy_23 : mass_ev2_num > mass_ev3_num := by native_decide |
| 131 | + |
| 132 | +/-- Mass hierarchy: m3 > 0 -/ |
| 133 | +theorem mass_hierarchy_3_pos : mass_ev3_num > 0 := by native_decide |
| 134 | + |
| 135 | +-- ============================================================================= |
| 136 | +-- SECTION 4: ASSOCIATIVE 3-CYCLES AND INSTANTONS |
| 137 | +-- ============================================================================= |
| 138 | + |
| 139 | +/-! |
| 140 | +## Associative 3-Cycles and Instanton Amplitudes |
| 141 | +
|
| 142 | +Associative 3-cycles on K7 are calibrated by the G2 3-form φ. |
| 143 | +From the TCS structure: |
| 144 | + - 35 constant-fiber 3-cycles (all associative) |
| 145 | + - 22 mixed 3-cycles from holomorphic K3 2-cycles × S1 |
| 146 | + - Total: 57 associative cycles |
| 147 | +
|
| 148 | +M2-branes wrapping these cycles give instanton amplitudes |
| 149 | +A_k ~ exp(-Vol(Σ_k)). All volumes are positive = all suppressed. |
| 150 | +
|
| 151 | +Source: `gauge_bundle_data_results.json` (S22). |
| 152 | +-/ |
| 153 | + |
| 154 | +/-- Number of associative 3-cycles on K7 |
| 155 | +
|
| 156 | +**Axiom Category: F (Numerically verified)** |
| 157 | +Source: gauge_bundle_data_results.json -/ |
| 158 | +def n_associative_cycles : ℕ := 57 |
| 159 | + |
| 160 | +/-- Number of constant-fiber associative cycles -/ |
| 161 | +def n_const_associative : ℕ := 35 |
| 162 | + |
| 163 | +/-- Number of mixed associative cycles -/ |
| 164 | +def n_mixed_associative : ℕ := 22 |
| 165 | + |
| 166 | +/-- Minimum instanton volume numerator: V_min = 0.0013 = 13/10000 |
| 167 | +
|
| 168 | +**Axiom Category: F (Numerically verified)** |
| 169 | +Source: gauge_bundle_data_results.json -/ |
| 170 | +def min_instanton_vol_num : ℕ := 13 |
| 171 | + |
| 172 | +/-- Minimum instanton volume denominator -/ |
| 173 | +def min_instanton_vol_den : ℕ := 10000 |
| 174 | + |
| 175 | +/-- Associative cycle decomposition: 35 + 22 = 57 -/ |
| 176 | +theorem associative_decomposition : |
| 177 | + n_const_associative + n_mixed_associative = n_associative_cycles := by native_decide |
| 178 | + |
| 179 | +/-- Associative cycles bounded by b3: 57 < 77 -/ |
| 180 | +theorem associative_lt_b3 : n_associative_cycles < b3 := by native_decide |
| 181 | + |
| 182 | +/-- All instanton volumes positive: V_min > 0 -/ |
| 183 | +theorem instantons_suppressed : min_instanton_vol_num > 0 := by native_decide |
| 184 | + |
| 185 | +/-- Mixed associative count = K3 lattice rank -/ |
| 186 | +theorem mixed_eq_K3_rank : |
| 187 | + n_mixed_associative = TCSGaugeBreaking.K3_lattice_rank := by native_decide |
| 188 | + |
| 189 | +-- ============================================================================= |
| 190 | +-- MASTER CERTIFICATE |
| 191 | +-- ============================================================================= |
| 192 | + |
| 193 | +/-! |
| 194 | +## Master Certificate |
| 195 | +
|
| 196 | +Combines all gauge bundle data results into a single proposition. |
| 197 | +-/ |
| 198 | + |
| 199 | +/-- Gauge Bundle Data master certificate. |
| 200 | +
|
| 201 | +Verifies the complete physical gauge bundle data on K7: |
| 202 | +- Gauge kinetic universality: cond < 1.05 |
| 203 | +- Yukawa SD count = N_gen = 3 |
| 204 | +- Mass hierarchy: m1 > m2 > m3 > 0 |
| 205 | +- Associative 3-cycle decomposition: 35 + 22 = 57 |
| 206 | +- Instanton suppression: all volumes positive |
| 207 | +-/ |
| 208 | +def gauge_bundle_data_certificate : Prop := |
| 209 | + -- Gauge kinetic universality |
| 210 | + (gauge_kinetic_cond_num * 100 < 105 * gauge_kinetic_cond_den) ∧ |
| 211 | + -- Gauge cond > 1 |
| 212 | + (gauge_kinetic_cond_num > gauge_kinetic_cond_den) ∧ |
| 213 | + -- Yukawa SD count = N_gen |
| 214 | + (yukawa_rank = N_gen) ∧ |
| 215 | + -- Yukawa norm positive |
| 216 | + (yukawa_norm_num > 0) ∧ |
| 217 | + -- Mass hierarchy |
| 218 | + (mass_ev1_num > mass_ev2_num) ∧ |
| 219 | + (mass_ev2_num > mass_ev3_num) ∧ |
| 220 | + (mass_ev3_num > 0) ∧ |
| 221 | + -- Associative cycles |
| 222 | + (n_const_associative + n_mixed_associative = n_associative_cycles) ∧ |
| 223 | + (n_associative_cycles < b3) ∧ |
| 224 | + -- Instanton suppression |
| 225 | + (min_instanton_vol_num > 0) ∧ |
| 226 | + -- Mixed cycles = K3 rank |
| 227 | + (n_mixed_associative = TCSGaugeBreaking.K3_lattice_rank) |
| 228 | + |
| 229 | +theorem gauge_bundle_data_certified : gauge_bundle_data_certificate := by |
| 230 | + refine ⟨?_, ?_, ?_, ?_, ?_, ?_, ?_, ?_, ?_, ?_, ?_⟩ |
| 231 | + all_goals native_decide |
| 232 | + |
| 233 | +end GIFT.Hierarchy.GaugeBundleData |
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