IndisputableMonolith.Gravity.Analysis.ReggeTTContinuumCloser
IndisputableMonolith/Gravity/Analysis/ReggeTTContinuumCloser.lean · 111 lines · 3 declarations
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1import IndisputableMonolith.Gravity.Analysis.ReggeTTAlgebraicCloser
2
3/-!
4# Regge TT continuum closer: `ReggeTTContinuumIsotropyTarget` is closed
5
6QG full-theory campaign, Paper C / Pillar 1, production stage C-DAG4, the
7final stage of the panel-locked D-dag order (`ReggeTTBlochAssembly →
8ReggeTTContinuumLimit → ReggeTTAlgebraicCloser → ReggeTTContinuumCloser`).
9
10## The verbatim target
11
12`ReggeTTSymbolPreflight.ReggeTTContinuumIsotropyTarget` (the named OPEN
13target of the preflight, status flag `false` there): for every nonzero
14integer wave vector `m` and every TT polarization `E`
15(`IsTTPolarization`: symmetric, traceless, transverse, Frobenius-
16normalized), the continuum TT Bloch symbol of the TRUE nonlinear Regge
17action exists and equals `reggeTTContinuumCoefficient = -(1/4)`, the
18linearized Einstein-Hilbert TT coefficient in these conventions.
19
20`reggeTTContinuumIsotropyTarget_closed` below proves it. The witness
21sequence for `ReggeTTContinuumSymbolIs` is the actual reduced finite
22symbol `canonicalFiniteH (j+3) E m`:
23
24* fixed-`N` symbol existence: `planeWave_TTBlochSymbolIs_reduced` (Gate
25 A1 + A2(b), the Schläfli-reduced second variation of the true action);
26* normalized convergence to `-(1/4)`: the algebraic closer's composed
27 headline `canonicalFiniteH_div_momentumNormSq_tendsto_isotropy`
28 (P1.1a continuum limit + the C8 closed form
29 `(1/2)·xᵀ·adj(E)·x` + the TT adjugate step).
30
31## Scope disclosures (inherited, binding)
32
33* This closes the 3D isotropy target. It does NOT flip
34 `gap_action_recovery`: the ledger names the 4D pair
35 `edge_tt_decomposition` + `S_RS_converges_EH_4d` as that flag's closing
36 theorems, and neither is proved here.
37* Aliasing non-repair (inherited from the assembly stage): the finite
38 assembly identity holds only at non-aliased side lengths and is
39 consumed in eventual-filter form; no repair at aliased small `N` is
40 attempted or needed for the limit.
41
42No `sorry`, no `admit`, no new axioms, no `native_decide` in this file.
43No `: True` or `Nonempty`-only headline.
44
45## Inherited axiom footprint (disclosure, Elmo receipt 2026-07-17)
46
47The convergence side is clean: the algebraic closer's composed headline
48`canonicalFiniteH_div_momentumNormSq_tendsto_isotropy` and the P1.1a
49limit carry exactly `[propext, Classical.choice, Quot.sound]`. The
50existence side (`planeWave_TTBlochSymbolIs_reduced`, Gate A1 + A2(b))
51rides the certified periodic angle-sum chain and therefore ALSO carries
52`Lean.ofReduceBool` and `Lean.trustCompiler` (inherited compiler-trust
53disclosure, same as `ReggeTTHingeAwareZeroMode`; not new axioms). All
54three theorems below inherit that footprint through the existence
55component. `#print axioms` receipts at end of file.
56-/
57
58namespace IndisputableMonolith
59namespace Gravity
60namespace Analysis
61namespace ReggeTTContinuumCloser
62
63open ReggeTTSymbolPreflight
64open ReggeTTBlochInterfaceAudit
65
66noncomputable section
67
68/-- The reduced finite symbol IS a fixed-`N` TT Bloch symbol value: the
69Gate A1 + A2(b) existence theorem restated on `canonicalFiniteH`. -/
70theorem canonicalFiniteH_TTBlochSymbolIs (N : ℕ) [NeZero N]
71 (E : Fin 3 → Fin 3 → ℝ) (m : Fin 3 → ℤ) :
72 TTBlochSymbolIs N E m (canonicalFiniteH N E m) :=
73 ReggeTTFlatSecondVariation.planeWave_TTBlochSymbolIs_reduced N E m
74
75/-- **THE VERBATIM 3D CLOSER (THEOREM): `ReggeTTContinuumIsotropyTarget`
76holds.** For every nonzero integer wave vector and every TT polarization,
77the continuum TT Bloch symbol of the true Regge action exists and equals
78`-(1/4)` — the symbol is isotropic with exactly the linearized
79Einstein-Hilbert TT coefficient. The preflight's OPEN target is closed;
80the C10/C8 numerics are hereby superseded by kernel proof at 3D action
81strength. -/
82theorem reggeTTContinuumIsotropyTarget_closed :
83 ReggeTTContinuumIsotropyTarget := by
84 intro m E hm hTT
85 have hm' : ∃ i : Fin 3, m i ≠ 0 := Function.ne_iff.mp hm
86 refine ⟨fun j => @canonicalFiniteH (j + 3) (instNeZeroAddThree j) E m,
87 fun j => canonicalFiniteH_TTBlochSymbolIs (j + 3) E m, ?_⟩
88 exact
89 ReggeTTAlgebraicCloser.canonicalFiniteH_div_momentumNormSq_tendsto_isotropy
90 m E hm' hTT
91
92/-- The closed target instantiated at the preflight's own non-vacuity
93witnesses (axis wave vector, `+` polarization): the continuum symbol at
94that concrete instance is `-(1/4)`. Non-vacuity receipt. -/
95theorem axis_plus_continuum_symbol :
96 ReggeTTContinuumSymbolIs axisTTPolarizationPlus axisWaveVector
97 reggeTTContinuumCoefficient :=
98 reggeTTContinuumIsotropyTarget_closed axisWaveVector axisTTPolarizationPlus
99 axisWaveVector_ne_zero axisTTPolarizationPlus_isTT
100
101end
102
103end ReggeTTContinuumCloser
104end Analysis
105end Gravity
106end IndisputableMonolith
107
108#print axioms IndisputableMonolith.Gravity.Analysis.ReggeTTContinuumCloser.canonicalFiniteH_TTBlochSymbolIs
109#print axioms IndisputableMonolith.Gravity.Analysis.ReggeTTContinuumCloser.reggeTTContinuumIsotropyTarget_closed
110#print axioms IndisputableMonolith.Gravity.Analysis.ReggeTTContinuumCloser.axis_plus_continuum_symbol
111