IndisputableMonolith.Gravity.Analysis.ReggeTTBlochConventionAudit
IndisputableMonolith/Gravity/Analysis/ReggeTTBlochConventionAudit.lean · 106 lines · 4 declarations
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1import IndisputableMonolith.Gravity.Analysis.ReggeTTBlochInterfaceAudit
2import IndisputableMonolith.Gravity.Analysis.ReggeTTContinuumCertificateSpike
3
4/-!
5# Regge TT Bloch convention sidecar, attempt 2
6
7This sidecar is intentionally not imported by production modules. It imports
8the committed spike transcription only here, as required by the panel
9protocol.
10
11Attempt 2 does not prove Gate B. The interface moment is now a stencil fold,
12not a definition wired to the spike blocks, so the equality to
13`tetBlock0 + ... + tetBlock5` remains an honest convention bridge target.
14-/
15
16namespace IndisputableMonolith
17namespace Gravity
18namespace Analysis
19namespace ReggeTTBlochConventionAudit
20
21open ReggeTTBlochInterfaceAudit
22
23noncomputable section
24
25/-- Scalar packet passed to the committed spike transcription. -/
26structure SpikeInput where
27 E00 : ℝ
28 E01 : ℝ
29 E02 : ℝ
30 E10 : ℝ
31 E11 : ℝ
32 E12 : ℝ
33 E20 : ℝ
34 E21 : ℝ
35 E22 : ℝ
36 x0 : ℝ
37 x1 : ℝ
38 x2 : ℝ
39
40/-- Matrix/vector marshalling into the scalar language of the spike file. -/
41def spikeInput (E : Fin 3 → Fin 3 → ℝ) (x : Fin 3 → ℝ) : SpikeInput where
42 E00 := E 0 0
43 E01 := E 0 1
44 E02 := E 0 2
45 E10 := E 1 0
46 E11 := E 1 1
47 E12 := E 1 2
48 E20 := E 2 0
49 E21 := E 2 1
50 E22 := E 2 2
51 x0 := x 0
52 x1 := x 1
53 x2 := x 2
54
55/-- The literal committed spike LHS, with `s2 = sqrt 2`, `s3 = sqrt 3`, and
56`p = pi` as required by attempt 2. -/
57def committedSpikeLHS (input : SpikeInput) : ℝ :=
58 ReggeTTContinuumCertificateSpike.tetBlock0
59 input.E00 input.E01 input.E02 input.E10 input.E11 input.E12
60 input.E20 input.E21 input.E22 input.x0 input.x1 input.x2
61 (Real.sqrt 2) (Real.sqrt 3) Real.pi
62 + ReggeTTContinuumCertificateSpike.tetBlock1
63 input.E00 input.E01 input.E02 input.E10 input.E11 input.E12
64 input.E20 input.E21 input.E22 input.x0 input.x1 input.x2
65 (Real.sqrt 2) (Real.sqrt 3) Real.pi
66 + ReggeTTContinuumCertificateSpike.tetBlock2
67 input.E00 input.E01 input.E02 input.E10 input.E11 input.E12
68 input.E20 input.E21 input.E22 input.x0 input.x1 input.x2
69 (Real.sqrt 2) (Real.sqrt 3) Real.pi
70 + ReggeTTContinuumCertificateSpike.tetBlock3
71 input.E00 input.E01 input.E02 input.E10 input.E11 input.E12
72 input.E20 input.E21 input.E22 input.x0 input.x1 input.x2
73 (Real.sqrt 2) (Real.sqrt 3) Real.pi
74 + ReggeTTContinuumCertificateSpike.tetBlock4
75 input.E00 input.E01 input.E02 input.E10 input.E11 input.E12
76 input.E20 input.E21 input.E22 input.x0 input.x1 input.x2
77 (Real.sqrt 2) (Real.sqrt 3) Real.pi
78 + ReggeTTContinuumCertificateSpike.tetBlock5
79 input.E00 input.E01 input.E02 input.E10 input.E11 input.E12
80 input.E20 input.E21 input.E22 input.x0 input.x1 input.x2
81 (Real.sqrt 2) (Real.sqrt 3) Real.pi
82
83/-- Gate B target proposition, left open as a definition rather than stated as
84a theorem. A future proof must instantiate `support`, `phaseQuadratic`, and
85`amplitude` from the actual raw stencil and show that the moment fold matches
86the committed spike LHS under the seven TT equations, without using
87`tt_continuum_certificate`. -/
88def GateBConventionTarget (support : Finset Bucket) (phaseQuadratic : Bucket → ℝ)
89 (amplitude : Bucket → ℝ) (E : Fin 3 → Fin 3 → ℝ) (x : Fin 3 → ℝ) : Prop :=
90 E 0 1 = E 1 0 →
91 E 0 2 = E 2 0 →
92 E 1 2 = E 2 1 →
93 E 0 0 + E 1 1 + E 2 2 = 0 →
94 x 0 * E 0 0 + x 1 * E 1 0 + x 2 * E 2 0 = 0 →
95 x 0 * E 0 1 + x 1 * E 1 1 + x 2 * E 2 1 = 0 →
96 x 0 * E 0 2 + x 1 * E 1 2 + x 2 * E 2 2 = 0 →
97 reggeTTMoment support phaseQuadratic amplitude =
98 committedSpikeLHS (spikeInput E x)
99
100end
101
102end ReggeTTBlochConventionAudit
103end Analysis
104end Gravity
105end IndisputableMonolith
106