IndisputableMonolith.Constants.AlphaGenesis.LoopCertificate
IndisputableMonolith/Constants/AlphaGenesis/LoopCertificate.lean · 171 lines · 12 declarations
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1import Mathlib
2import IndisputableMonolith.Constants
3import IndisputableMonolith.Constants.Alpha
4import IndisputableMonolith.Constants.AlphaDerivation
5import IndisputableMonolith.Constants.AlphaGenesis.ResummationForcing
6import IndisputableMonolith.Constants.AlphaGenesis.PatternForcing
7import IndisputableMonolith.Foundation.MeasureForcing
8import IndisputableMonolith.Numerics.Interval.AlphaBounds
9
10/-!
11# Alpha Genesis M3: The EM Recognition Loop and the Genesis Certificate
12
13**THE OBJECT.** α⁻¹ is defined forward, as a property of a physical process,
14before any comparison with measurement:
15
16* **Channel budget** — the EM recognition loop spreads one active edge
17 transition over the passive dressing field of the voxel. The budget is
18 `Ω(∂Q₃) × E_passive = 4π × 11`: the discrete Gauss-Bonnet total curvature
19 of the voxel boundary times the passive edge count. Both factors are cube
20 theorems (`AlphaDerivation.gauss_bonnet_Q3`, `passive_edges_at_D3`); the
21 cube is the D = 3 voxel and D = 3 is forced (T8).
22* **Spectral load per channel** — the gap weight w₈ (the Parseval-normalized
23 DFT-8 projection of the forced φ-pattern; M2) distributed over the channel
24 budget, in rung units.
25* **Dressing** — the unique factorizing recognition weight (T9 forced
26 measure; M1) evaluated at the spectral load.
27
28`alphaInvGenesis := channelBudget · contWeight(spectralLoad)` and the theorem
29`alphaInvGenesis_eq_alphaInv` proves this forward object coincides with the
30certified pipeline value. The proved band `(137.030, 137.039)` transfers.
31
32## Status of the four discrete choices (the no-fit proposition)
33
34| Choice | Status after Alpha Genesis |
35|---|---|
36| (i) resummation form (E) vs (A) | FORCED (M1: `response_forced`; (A) excluded by `no_additive_response`) |
37| (ii) canonical φ-pattern | FORCED (M2: `pattern_forced` from T6 self-similarity on the T7 carrier) |
38| (iii) cube reading of the seed | STRUCTURAL (Gauss-Bonnet + passive-edge theorems on the D=3 voxel; the remaining input is the channel-budget reading itself, named below) |
39| (iv) D = 3 | FORCED upstream (T8) |
40
41The honest remaining input is the **channel-budget bridge**: the reading
42"inverse coupling = angular budget × passive channels." It is a physical
43identification (BRIDGE), not a fit: both numbers are cube theorems and no
44continuous freedom exists. It is named here exactly once, as
45`ChannelBudgetBridge`.
46
47STATUS: THEOREM for all numbered clauses; BRIDGE for the channel-budget
48reading. No CODATA reference anywhere in this file.
49-/
50
51namespace IndisputableMonolith
52namespace Constants
53namespace AlphaGenesis
54
55noncomputable section
56
57open Constants.AlphaDerivation
58
59/-- **The channel budget** of the EM recognition loop: the total angular
60budget of the voxel boundary spread over the passive dressing edges.
61`Ω(∂Q₃) × E_passive`, both factors cube theorems. -/
62def channelBudget : ℝ := AlphaDerivation.geometric_seed
63
64/-- The channel budget evaluates to `4π·11` (Gauss-Bonnet × passive edges). -/
65theorem channelBudget_eq : channelBudget = 4 * Real.pi * 11 :=
66 AlphaDerivation.geometric_seed_eq
67
68/-- The channel budget is the certified pipeline seed. -/
69theorem channelBudget_eq_alpha_seed : channelBudget = Constants.alpha_seed := by
70 rw [channelBudget_eq]
71 simp [Constants.alpha_seed]
72
73/-- The channel budget is positive. -/
74theorem channelBudget_pos : 0 < channelBudget := by
75 rw [channelBudget_eq]
76 positivity
77
78/-- **The spectral load per channel**: the gap weight w₈ (projection of the
79forced φ-pattern; M2) per unit of channel budget, in rung units. -/
80def spectralLoad : ℝ := Constants.w8_from_eight_tick / channelBudget
81
82/-- The spectral load is positive. -/
83theorem spectralLoad_pos : 0 < spectralLoad :=
84 div_pos Constants.w8_pos channelBudget_pos
85
86/-- **THE FORWARD DEFINITION.** α⁻¹ as a property of the EM recognition
87loop: channel budget attenuated by the T9 forced measure at the spectral
88load. Defined with no reference to the legacy pipeline or to measurement. -/
89def alphaInvGenesis : ℝ :=
90 channelBudget * Foundation.MeasureForcing.contWeight spectralLoad
91
92/-- **THE GENESIS IDENTITY.** The forward object coincides with the
93certified pipeline value: `alphaInvGenesis = alphaInv`. The legacy formula
94is the display of the forward derivation, exactly as the `RSBridge.rung`
95table is the display of the mass-derivation program. -/
96theorem alphaInvGenesis_eq_alphaInv : alphaInvGenesis = Constants.alphaInv := by
97 unfold alphaInvGenesis spectralLoad
98 rw [channelBudget_eq_alpha_seed]
99 exact (alphaInv_eq_seed_mul_forced_weight).symm
100
101/-- The proved band transfers to the forward object:
102`137.030 < alphaInvGenesis < 137.039`. -/
103theorem alphaInvGenesis_band :
104 (137.030 : ℝ) < alphaInvGenesis ∧ alphaInvGenesis < (137.039 : ℝ) := by
105 rw [alphaInvGenesis_eq_alphaInv]
106 exact ⟨Numerics.alphaInv_gt, Numerics.alphaInv_lt⟩
107
108/-- **The channel-budget bridge** (the one named physical input): the
109inverse EM coupling at leading order is the angular budget of the voxel
110boundary spread over the passive dressing channels. This is a BRIDGE-grade
111identification: both numbers are cube theorems, no continuous freedom
112exists, and the same `11` is consumed by Ω_Λ = 11/16, the η_B arithmetic,
113and the lepton torsion ladder (cross-application rigidity). -/
114structure ChannelBudgetBridge where
115 /-- The seed reading: inverse coupling budget = solid angle × passive channels. -/
116 seed_reading :
117 channelBudget = AlphaDerivation.solid_angle_Q3 * (AlphaDerivation.passive_field_edges AlphaDerivation.D : ℝ)
118
119/-- The bridge is realized by the cube theorems (non-vacuity). -/
120def channelBudgetBridge : ChannelBudgetBridge where
121 seed_reading := AlphaDerivation.alpha_seed_structural
122
123/-- **THE ALPHA GENESIS CERTIFICATE.** Bundles the forward derivation:
124
1251. channel budget = 4π·11 via Gauss-Bonnet × passive edges (cube theorems);
1262. the pattern is forced: every admissible ladder is `φᵗ` (M2);
1273. the spectral envelope is the forced measure (M2);
1284. the dressing response is forced to `exp(−ε)`; the additive display is
129 excluded (M1);
1305. the forward object equals the certified pipeline value;
1316. the proved band `(137.030, 137.039)` holds for the forward object.
132
133No clause references measurement. -/
134structure AlphaGenesisCert where
135 deriving Inhabited
136
137@[simp] def AlphaGenesisCert.verified (_c : AlphaGenesisCert) : Prop :=
138 -- 1. seed structure
139 (channelBudget = 4 * Real.pi * 11) ∧
140 -- 2. pattern forced
141 (∀ (L : EightTickLadder) (n : ℕ), L.u n = Constants.phi ^ n) ∧
142 -- 3. envelope is the forced measure
143 (∀ k : Fin 8, ¬ k.val = 0 →
144 GapWeight.geometricWeight k =
145 (Real.sin ((k.val : ℝ) * Real.pi / 8)) ^ 2 *
146 Foundation.MeasureForcing.latticeWeight k.val) ∧
147 -- 4. response forced; additive excluded
148 (∀ (R : DressingResponse) (ε : ℝ), R.g ε = Real.exp (-ε)) ∧
149 (∀ R : DressingResponse, R.g ≠ fun ε => 1 - ε) ∧
150 -- 5. forward object = certified pipeline
151 (alphaInvGenesis = Constants.alphaInv) ∧
152 -- 6. proved band
153 ((137.030 : ℝ) < alphaInvGenesis ∧ alphaInvGenesis < (137.039 : ℝ))
154
155theorem AlphaGenesisCert.verified_any (c : AlphaGenesisCert) :
156 AlphaGenesisCert.verified c := by
157 refine ⟨channelBudget_eq, ?_, ?_, ?_, ?_, alphaInvGenesis_eq_alphaInv, alphaInvGenesis_band⟩
158 · intro L n
159 exact L.pattern_forced n
160 · exact geometricWeight_eq_sin_mul_forced_measure
161 · intro R ε
162 exact R.response_forced ε
163 · intro R
164 exact R.no_additive_response
165
166end
167
168end AlphaGenesis
169end Constants
170end IndisputableMonolith
171