IndisputableMonolith.Gravity.SevenGaps.HKTDynamicTarget
IndisputableMonolith/Gravity/SevenGaps/HKTDynamicTarget.lean · 128 lines · 8 declarations
show as:
view math explainer →
1import IndisputableMonolith.Gravity.SevenGaps.HypersurfaceDeformation
2import IndisputableMonolith.Gravity.SevenGaps.DynamicStructureFunctionBlocker
3
4/-!
5# Wave C2 R5/R6 groundwork: widened HKT target with dynamic structure function
6
7Definition module (no hard proofs). Codex adjudication rejected folding g into
8momDensity and selling frozen unit structure as GR. Widened target carries an
9explicit structureFunction slot with structure_nonconstant.
10
11HKTRigidityStatementDyn is DEFINED, neither proved nor assumed. Original
12HKTRigidityStatement is false as stated at n=1
13(HKTOneSiteCounterexample.not_HKTRigidityStatement_one).
14
15**Unsplit `mom_ham` is uninhabitable for honest nearest-neighbor local
16profiles against the frozen quadratic Hamiltonian.** The field below keeps the
17classical unsplit advection form as a falsification-adjacent record. The scoped
18no-go
19`HKTPointSplitTarget.unsplit_mom_ham_no_smooth_nearestNeighbor_witness_frozenHam`
20shows that at `n = 2` no Frechet-smooth local momentum profile
21`f(d, π_j, π_{j+1})` can satisfy it against the frozen quadratic Hamiltonian
22(forced singular relation `(π₀+π₁)∂_d f = π₀²+d²`). The HamDyn-level analogue is
23the open Prop `UnsplitMomHamNoSmoothNearestNeighborWitnessHamDyn`. The
24schema-only weak sibling is `HKTPointSplitTarget.HKTPointSplitTargetDyn`; the
25load-bearing class is `HKTPointSplitStrong.HKTPointSplitTargetDynStrong` with
26binding Prop `HKTRigidityStatementPointSplitDynN2Strong`.
27-/
28
29namespace IndisputableMonolith
30namespace Gravity
31namespace SevenGaps
32namespace HKTDynamicTarget
33
34open HypersurfaceDeformation DynamicStructureFunctionBlocker
35
36noncomputable section
37
38variable {n : ℕ} [NeZero n]
39
40/-- OPEN TARGET (deliberately uninhabited). HKT hypotheses with explicit dynamic
41structure function. structure_nonconstant excludes the frozen/background decoy. -/
42structure HojmanKucharTeitelboimTargetDyn (n : ℕ) [NeZero n] where
43 hamDensity : PhaseSpace n → ZMod n → ℝ
44 momDensity : PhaseSpace n → ZMod n → ℝ
45 structureFunction : PhaseSpace n → ZMod n → ℝ
46 ham_differentiable : ∀ N : ZMod n → ℝ,
47 Differentiable ℝ (fun x : PhaseSpace n => ∑ j : ZMod n, N j * hamDensity x j)
48 mom_differentiable : ∀ w : ZMod n → ℝ,
49 Differentiable ℝ (fun x : PhaseSpace n => ∑ j : ZMod n, w j * momDensity x j)
50 structure_nonconstant : ¬ PhaseSpaceConstant structureFunction
51 ham_local : ∀ (x y : PhaseSpace n) (j : ZMod n),
52 x.1 j = y.1 j → x.1 (j + 1) = y.1 (j + 1) → x.2 j = y.2 j →
53 hamDensity x j = hamDensity y j
54 ham_covariant : ∀ (x : PhaseSpace n) (a j : ZMod n),
55 hamDensity (fun i => x.1 (i + a), fun i => x.2 (i + a)) j = hamDensity x (j + a)
56 structure_local : ∀ (x y : PhaseSpace n) (j : ZMod n),
57 x.1 j = y.1 j → structureFunction x j = structureFunction y j
58 mom_mom : ∀ (v w : ZMod n → ℝ) (x : PhaseSpace n),
59 bracket (fun y => ∑ j : ZMod n, v j * momDensity y j)
60 (fun y => ∑ j : ZMod n, w j * momDensity y j) x = 0
61 mom_ham : ∀ (w N : ZMod n → ℝ) (x : PhaseSpace n),
62 bracket (fun y => ∑ j : ZMod n, w j * momDensity y j)
63 (fun y => ∑ j : ZMod n, N j * hamDensity y j) x
64 = ∑ j : ZMod n, (w j * (N (j + 1) - N j)) * hamDensity x j
65 ham_ham : ∀ (N M : ZMod n → ℝ) (x : PhaseSpace n),
66 bracket (fun y => ∑ j : ZMod n, N j * hamDensity y j)
67 (fun y => ∑ j : ZMod n, M j * hamDensity y j) x
68 = ∑ j : ZMod n,
69 (N j * M (j + 1) - M j * N (j + 1)) *
70 (structureFunction x j * momDensity x j)
71
72/-- DEFINED, neither proved nor assumed. Repaired GR-strength rigidity target. -/
73def HKTRigidityStatementDyn (n : ℕ) [NeZero n] : Prop :=
74 ∀ T : HojmanKucharTeitelboimTargetDyn n,
75 ∃ cKin cGrad cVac : ℝ, ∀ (x : PhaseSpace n) (j : ZMod n),
76 T.hamDensity x j
77 = cKin * (x.2 j * x.2 j)
78 + cGrad *
79 (T.structureFunction x j *
80 ((x.1 (j + 1) - x.1 j) * (x.1 (j + 1) - x.1 j)))
81 + cVac
82
83def unitStructureHamHamRHS (momDensity : PhaseSpace n → ZMod n → ℝ)
84 (N M : ZMod n → ℝ) (x : PhaseSpace n) : ℝ :=
85 ∑ j : ZMod n, (N j * M (j + 1) - M j * N (j + 1)) * ((1 : ℝ) * momDensity x j)
86
87theorem unitStructure_recovers_original_ham_ham_RHS
88 (momDensity : PhaseSpace n → ZMod n → ℝ) (N M : ZMod n → ℝ)
89 (x : PhaseSpace n) :
90 unitStructureHamHamRHS momDensity N M x
91 = ∑ j : ZMod n, (N j * M (j + 1) - M j * N (j + 1)) * momDensity x j := by
92 unfold unitStructureHamHamRHS
93 refine Finset.sum_congr rfl fun j _ => ?_
94 ring
95
96theorem unitStructure_is_phaseSpaceConstant :
97 PhaseSpaceConstant (fun (_x : PhaseSpace n) (_j : ZMod n) => (1 : ℝ)) := by
98 intro x y j
99 rfl
100
101structure HKTDynamicTargetStatus where
102 dynTargetDefined : Bool
103 dynRigidityDefined : Bool
104 unitStructureDecoyExcluded : Bool
105 dynInhabitantBanked : Bool
106 gap5ConstraintRecovery : Bool
107
108def hktDynamicTargetStatus : HKTDynamicTargetStatus where
109 dynTargetDefined := true
110 dynRigidityDefined := true
111 unitStructureDecoyExcluded := true
112 dynInhabitantBanked := false
113 gap5ConstraintRecovery := false
114
115theorem hktDynamicTargetStatus_flags :
116 hktDynamicTargetStatus.dynTargetDefined = true ∧
117 hktDynamicTargetStatus.dynRigidityDefined = true ∧
118 hktDynamicTargetStatus.unitStructureDecoyExcluded = true ∧
119 hktDynamicTargetStatus.dynInhabitantBanked = false ∧
120 hktDynamicTargetStatus.gap5ConstraintRecovery = false := by
121 decide
122
123end
124end HKTDynamicTarget
125end SevenGaps
126end Gravity
127end IndisputableMonolith
128