IndisputableMonolith.Gravity.SevenGaps.Gap2LedgerGenerated
IndisputableMonolith/Gravity/SevenGaps/Gap2LedgerGenerated.lean · 471 lines · 72 declarations
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1import IndisputableMonolith.Gravity.SevenGaps.Gap2JDiamondRank
2import IndisputableMonolith.Gravity.SevenGaps.Gap2GluingDerivation
3
4/-!
5# Gap 2 / C14: the LedgerGenerated fork gate
6
7Pre-registered TRUE/FALSE measurement that decides the tilt fork for flag 8
8(`gap2_measure_derived`). A1.7 (`Gap2LetterCostDichotomy`) closed the bulk-
9cancelling fixed-kind-totals class; its escape class is where a nonzero
10history cost can still live. This module asks whether the canonical
11recognition cost `jCost` is ledger-generated in the sense frozen below. The
12enumeration harness and SJ spectra are those of C15
13(`Gap2JDiamondRank`, `scripts/qg/qg_j_diamond_rank_20260730.py`, receipt
14`scripts/qg/out/j_diamond_rank_20260730.json`: 437 classes at cap 4).
15
16## PRE-REGISTERED PREDICATE (MODEL, frozen before enumeration)
17
18**Definition (`LedgerGenerated`).** A letter cost `c` is *ledger-generated*
19iff there exist a vertex charge `fV : ℤ → ℝ` and constants `cE cT : ℝ` such
20that for every size cap `B`, every bounded complex `K`, and every letter of
21`K`:
22
23* a vertex letter `v` is charged `fV (vertexImbalance K v)`, where
24 `vertexImbalance K v = indeg K v - outdeg K v` is that letter's own
25 double-entry posting row (debits minus credits);
26* every edge letter is charged the constant `cE`;
27* every top-cell letter is charged the constant `cT`.
28
29In particular the charge of a letter is computed from that letter's own
30posting-row data alone. Forbidden inputs: orbit sums, isomorphism-class
31data, and any global census of `K` beyond the letter's own row. Edge and
32top-cell letters are not accounts; their posting row is empty and the charge
33is therefore a constant (the null-row value).
34
35This definition is a MODEL choice: it is the gate's admissibility class, not
36a derived theorem. The cap-1-3 decisions below are MEASURED /
37kernel-certified against it.
38
39## Decision procedure and outcomes
40
41Kernel-decide `LedgerGenerated (jCost κ)` (any `κ ≠ 0`) and the finite
42restrictions `LedgerGeneratedAt cap (jCost 1)` at caps 1, 2, 3. Tabulate
43`historyCost (jCost 1)` on the C15 isomorphism classes at those caps
44(exact rationals `SJ / 2`, since `historyCost = imbalanceSq / (2κ)` at
45`κ = 1`).
46
47Outcome reading (bank only; do not act beyond this module):
48
49* `FALSE`: `jCost` outside the ledger-conservation class; μ-form closure
50 lives; week-two primary becomes C18.
51* `TRUE` with `historyCost` identically zero at all three caps: conservation
52 forces numerator unity on the ledger class.
53* `TRUE` with nonzero `historyCost` at any cap: **C27 hard stop** (the fork
54 condition is measured true; the choice itself is reserved for Jon).
55 Escalate to Jon. No tilt construction, no flag move, no launch.
56
57Expected axiom footprint: `[propext, Classical.choice, Quot.sound]`, with
58`native_decide` certificates disclosed as carrying
59`Lean.ofReduceBool` / `Lean.trustCompiler`.
60-/
61
62namespace IndisputableMonolith
63namespace Gravity
64namespace SevenGaps
65namespace Gap2LedgerGenerated
66
67open PathSumMeasure GaugeHistoryMeasure Gap2PostingCostDerivation
68open Gap2JEhrhartSpan Gap2JDiamondRank Gap2GluingDerivation
69
70variable {B : ℕ}
71
72/-! ## §1. The pre-registered predicate -/
73
74/-- **PRE-REGISTERED (MODEL).** A letter cost is ledger-generated when each
75letter's charge is a fixed function of that letter's own double-entry posting
76row (debits minus credits on the letter's account), with edge and top-cell
77letters carrying constant null-row values. No orbit sums, no
78isomorphism-class data, no global census. -/
79def LedgerGenerated (c : LetterCost) : Prop :=
80 ∃ (fV : ℤ → ℝ) (cE cT : ℝ),
81 (∀ (B : ℕ) (K : BoundedComplex B) (v : Fin K.nV),
82 c B K (Sum.inl v) = fV (vertexImbalance K v))
83 ∧ (∀ (B : ℕ) (K : BoundedComplex B) (e : Fin K.nE),
84 c B K (Sum.inr (Sum.inl e)) = cE)
85 ∧ (∀ (B : ℕ) (K : BoundedComplex B) (t : Fin K.nT),
86 c B K (Sum.inr (Sum.inr t)) = cT)
87
88/-- Finite restriction of `LedgerGenerated` to complexes whose three counts
89are at most `cap`. This is the per-cap decision the gate asks for. -/
90def LedgerGeneratedAt (cap : ℕ) (c : LetterCost) : Prop :=
91 ∃ (fV : ℤ → ℝ) (cE cT : ℝ),
92 ∀ (B : ℕ) (K : BoundedComplex B),
93 K.nV ≤ cap → K.nE ≤ cap → K.nT ≤ cap →
94 (∀ v : Fin K.nV, c B K (Sum.inl v) = fV (vertexImbalance K v))
95 ∧ (∀ e : Fin K.nE, c B K (Sum.inr (Sum.inl e)) = cE)
96 ∧ (∀ t : Fin K.nT, c B K (Sum.inr (Sum.inr t)) = cT)
97
98theorem LedgerGenerated_implies_at {c : LetterCost} (h : LedgerGenerated c)
99 (cap : ℕ) : LedgerGeneratedAt cap c := by
100 obtain ⟨fV, cE, cT, hV, hE, hT⟩ := h
101 exact ⟨fV, cE, cT, fun B K _ _ _ => ⟨hV B K, hE B K, hT B K⟩⟩
102
103/-! ## §2. Kernel decision: `jCost` is ledger-generated -/
104
105noncomputable section
106
107/-- The vertex charge of `jCost κ`: square of the posting-row net over twice
108the Casimir. -/
109def jCostVertexCharge (kappa : ℝ) (m : ℤ) : ℝ :=
110 (m : ℝ) ^ 2 / (2 * kappa)
111
112/-- **MEASURED / kernel-certified: `LedgerGenerated (jCost κ)` is TRUE** for
113every nonzero Casimir. The witnessing `fV` is `m ↦ m² / (2κ)`; edge and
114top-cell null-row values are zero. -/
115theorem jCost_ledgerGenerated {kappa : ℝ} (_hk : kappa ≠ 0) :
116 LedgerGenerated (jCost kappa) :=
117 ⟨jCostVertexCharge kappa, 0, 0, by
118 refine ⟨?_, ?_, ?_⟩
119 · intro B K v
120 simp only [jCost_inl, jCostVertexCharge]
121 · intro B K e
122 simp only [jCost_edge]
123 · intro B K t
124 simp only [jCost_tet]⟩
125
126/-- Per-cap decisions at caps 1, 2, 3: all TRUE, by the global certificate. -/
127theorem jCost_ledgerGenerated_cap1 :
128 LedgerGeneratedAt 1 (jCost 1) :=
129 LedgerGenerated_implies_at (jCost_ledgerGenerated (by norm_num : (1 : ℝ) ≠ 0)) 1
130
131theorem jCost_ledgerGenerated_cap2 :
132 LedgerGeneratedAt 2 (jCost 1) :=
133 LedgerGenerated_implies_at (jCost_ledgerGenerated (by norm_num : (1 : ℝ) ≠ 0)) 2
134
135theorem jCost_ledgerGenerated_cap3 :
136 LedgerGeneratedAt 3 (jCost 1) :=
137 LedgerGenerated_implies_at (jCost_ledgerGenerated (by norm_num : (1 : ℝ) ≠ 0)) 3
138
139/-- Boolean mirrors of the per-cap decisions (TRUE at every named cap). -/
140def jCost_ledgerGenerated_decision_cap1 : Bool := true
141def jCost_ledgerGenerated_decision_cap2 : Bool := true
142def jCost_ledgerGenerated_decision_cap3 : Bool := true
143
144theorem jCost_ledgerGenerated_decision_cap1_eq :
145 jCost_ledgerGenerated_decision_cap1 = true := rfl
146theorem jCost_ledgerGenerated_decision_cap2_eq :
147 jCost_ledgerGenerated_decision_cap2 = true := rfl
148theorem jCost_ledgerGenerated_decision_cap3_eq :
149 jCost_ledgerGenerated_decision_cap3 = true := rfl
150
151/-! ## §3. Decoy: a global-census cost is not ledger-generated
152
153A gate that only ever returns TRUE has not been tested. Charging every vertex
154the ambient vertex count reads a global census, so equal posting rows at
155different sizes disagree. -/
156
157/-- Decoy cost: every vertex letter is charged the complex's vertex census. -/
158def censusVertexCost : LetterCost := fun _ K a =>
159 match a with
160 | Sum.inl _ => (K.nV : ℝ)
161 | Sum.inr _ => 0
162
163/-- **The predicate discriminates.** `censusVertexCost` is not ledger-generated:
164the point and the two-point dust both have imbalance zero at every vertex, but
165they charge 1 and 2 respectively. -/
166theorem censusVertexCost_not_ledgerGenerated :
167 ¬ LedgerGenerated censusVertexCost := by
168 rintro ⟨fV, cE, cT, hV, hE, hT⟩
169 have h1 := hV 1 (dust 1) ⟨0, by decide⟩
170 have h2 := hV 2 (dust 2) ⟨0, by decide⟩
171 have m1 : vertexImbalance (dust 1) (⟨0, by decide⟩ : Fin 1) = 0 := by decide
172 have m2 : vertexImbalance (dust 2) (⟨0, by decide⟩ : Fin 2) = 0 := by decide
173 simp only [censusVertexCost, dust_nV] at h1 h2
174 have eq1 : (1 : ℝ) = fV 0 := by simpa [m1] using h1
175 have eq2 : (2 : ℝ) = fV 0 := by simpa [m2] using h2
176 linarith
177
178/-! ## §4. historyCost table for `jCost 1` at caps 1–3
179
180`historyCost (jCost 1) B K = (imbalanceSq K : ℝ) / 2`, so the exact rational
181is `SJ / 2` with `SJ = imbalanceSq K ∈ ℤ`. Provenance of the class census:
182C15 receipt `scripts/qg/out/j_diamond_rank_20260730.json`. -/
183
184theorem historyCost_jCost_one (B : ℕ) (K : BoundedComplex B) :
185 historyCost (jCost 1) B K = (imbalanceSq K : ℝ) / 2 := by
186 rw [historyCost_jCost_eq]
187 norm_num
188
189/-- Cap-1 loop: the only edge is a self-loop on one vertex. -/
190def loop1Complex : BoundedComplex 1 where
191 nV := 1
192 nE := 1
193 nT := 0
194 hV := by decide
195 hE := by decide
196 hT := by decide
197 edgeVerts := fun _ => (0, 0)
198 tetVerts := fun t => t.elim0
199
200theorem imbalanceSq_point : imbalanceSq pointComplex = 0 := by decide
201theorem imbalanceSq_edge : imbalanceSq edgeComplex = 2 := by decide
202theorem imbalanceSq_path : imbalanceSq pathComplex = 2 := by decide
203theorem imbalanceSq_loop1 : imbalanceSq loop1Complex = 0 := by decide
204theorem imbalanceSq_empty_cap1 : imbalanceSq (emptyComplex 1) = 0 := by decide
205
206/-- Native-decide certificates for the integer charges used in the table.
207Disclosed axiom footprint on these: `Lean.ofReduceBool`, `Lean.trustCompiler`
208on top of the base triple. -/
209theorem imbalanceSq_edge_native : imbalanceSq edgeComplex = 2 := by native_decide
210theorem imbalanceSq_path_native : imbalanceSq pathComplex = 2 := by native_decide
211theorem imbalanceSq_loop1_native : imbalanceSq loop1Complex = 0 := by native_decide
212theorem imbalanceSq_loopPoint_native : imbalanceSq loopPointComplex = 0 := by
213 native_decide
214theorem imbalanceSq_fork_native : imbalanceSq forkComplex = 6 := by native_decide
215
216theorem historyCost_jCost_one_edge :
217 historyCost (jCost 1) 4 edgeComplex = (1 : ℝ) := by
218 rw [historyCost_edge (1 : ℝ) (by norm_num)]
219 norm_num
220
221theorem historyCost_jCost_one_point :
222 historyCost (jCost 1) 4 pointComplex = (0 : ℝ) :=
223 historyCost_point 1
224
225theorem historyCost_jCost_one_path :
226 historyCost (jCost 1) 4 pathComplex = (1 : ℝ) := by
227 rw [historyCost_path (1 : ℝ) (by norm_num)]
228 norm_num
229
230theorem historyCost_jCost_one_loopPoint :
231 historyCost (jCost 1) 4 loopPointComplex = (0 : ℝ) :=
232 historyCost_loopPoint 1
233
234theorem historyCost_jCost_one_fork :
235 historyCost (jCost 1) 4 forkComplex = (3 : ℝ) := by
236 rw [historyCost_fork (1 : ℝ) (by norm_num)]
237 norm_num
238
239theorem historyCost_loop1 :
240 historyCost (jCost 1) 1 loop1Complex = 0 := by
241 rw [historyCost_jCost_one, imbalanceSq_loop1]
242 norm_num
243
244theorem historyCost_empty_cap1 :
245 historyCost (jCost 1) 1 (emptyComplex 1) = 0 := by
246 rw [historyCost_jCost_one, imbalanceSq_empty_cap1]
247 norm_num
248
249/-- **Cap 1 historyCost table (exact rationals).** Every C15 class at cap 1
250has `SJ = 0`, hence `historyCost (jCost 1) = 0`. -/
251theorem historyCost_table_cap1 :
252 historyCost (jCost 1) 1 (emptyComplex 1) = 0
253 ∧ historyCost (jCost 1) 4 pointComplex = 0
254 ∧ historyCost (jCost 1) 1 loop1Complex = 0 :=
255 ⟨historyCost_empty_cap1, historyCost_jCost_one_point, historyCost_loop1⟩
256
257def historyCost_identically_zero_decision_cap1 : Bool := true
258theorem historyCost_identically_zero_decision_cap1_eq :
259 historyCost_identically_zero_decision_cap1 = true := rfl
260
261/-- **Cap 2: historyCost is NOT identically zero.** The proper edge has
262`historyCost (jCost 1) = 1`. -/
263theorem historyCost_not_identically_zero_cap2 :
264 historyCost (jCost 1) 4 edgeComplex ≠ 0 := by
265 rw [historyCost_jCost_one_edge]
266 norm_num
267
268def historyCost_identically_zero_decision_cap2 : Bool := false
269theorem historyCost_identically_zero_decision_cap2_eq :
270 historyCost_identically_zero_decision_cap2 = false := rfl
271
272/-- **Cap 3: historyCost is NOT identically zero.** -/
273theorem historyCost_not_identically_zero_cap3 :
274 historyCost (jCost 1) 4 edgeComplex ≠ 0
275 ∧ historyCost (jCost 1) 4 pathComplex ≠ 0
276 ∧ historyCost (jCost 1) 4 forkComplex ≠ 0 := by
277 refine ⟨?_, ?_, ?_⟩
278 · rw [historyCost_jCost_one_edge]; norm_num
279 · rw [historyCost_jCost_one_path]; norm_num
280 · rw [historyCost_jCost_one_fork]; norm_num
281
282def historyCost_identically_zero_decision_cap3 : Bool := false
283theorem historyCost_identically_zero_decision_cap3_eq :
284 historyCost_identically_zero_decision_cap3 = false := rfl
285
286/-! ## §5. Exact rational historyCost table (witness rows)
287
288Rows are `(nV, nE, SJ, historyCost = SJ/2)` for the named seed complexes that
289live at caps ≤ 3. Full per-class tables at caps 1–3 are MEASURED by
290`scripts/qg/qg_ledger_generated_20260730.py` and recorded in
291`scripts/qg/out/ledger_generated_20260730.json`. -/
292
293/-- Exact rational history cost of `jCost 1` as `SJ / 2`. -/
294def historyCostRational (sj : ℤ) : ℚ := (sj : ℚ) / 2
295
296theorem historyCostRational_edge : historyCostRational 2 = (1 : ℚ) := by
297 norm_num [historyCostRational]
298theorem historyCostRational_fork : historyCostRational 6 = (3 : ℚ) := by
299 norm_num [historyCostRational]
300theorem historyCostRational_zero : historyCostRational 0 = (0 : ℚ) := by
301 norm_num [historyCostRational]
302
303/-- Seed table: `(nV, nE, SJ, historyCostRational SJ)`. -/
304def historyCostSeedTable : List (ℕ × ℕ × ℤ × ℚ) :=
305 [(0, 0, 0, 0),
306 (1, 0, 0, 0),
307 (1, 1, 0, 0),
308 (2, 1, 2, 1),
309 (2, 1, 0, 0),
310 (3, 2, 2, 1),
311 (3, 2, 6, 3)]
312
313theorem historyCostSeedTable_length : historyCostSeedTable.length = 7 := rfl
314
315theorem historyCostSeedTable_edge_row :
316 (2, 1, 2, (1 : ℚ)) ∈ historyCostSeedTable := by decide
317
318theorem historyCostSeedTable_edge_row_native :
319 (2, 1, 2, (1 : ℚ)) ∈ historyCostSeedTable := by native_decide
320
321/-- MEASURED tallies (C15 harness, caps 1–3). Provenance:
322`scripts/qg/out/ledger_generated_20260730.json`. -/
323structure CapHistoryTally where
324 classes : ℕ
325 sjAllZero : Bool
326 maxAbsSJ : ℤ
327 ledgerGeneratedDecision : Bool
328
329def measuredHistoryCaps : Fin 3 → CapHistoryTally :=
330 ![{ classes := 3, sjAllZero := true, maxAbsSJ := 0,
331 ledgerGeneratedDecision := true },
332 { classes := 13, sjAllZero := false, maxAbsSJ := 8,
333 ledgerGeneratedDecision := true },
334 { classes := 68, sjAllZero := false, maxAbsSJ := 18,
335 ledgerGeneratedDecision := true }]
336
337theorem measured_cap1_zero :
338 (measuredHistoryCaps 0).sjAllZero = true
339 ∧ (measuredHistoryCaps 0).ledgerGeneratedDecision = true := ⟨rfl, rfl⟩
340
341theorem measured_cap2_nonzero :
342 (measuredHistoryCaps 1).sjAllZero = false
343 ∧ (measuredHistoryCaps 1).ledgerGeneratedDecision = true := ⟨rfl, rfl⟩
344
345theorem measured_cap3_nonzero :
346 (measuredHistoryCaps 2).sjAllZero = false
347 ∧ (measuredHistoryCaps 2).ledgerGeneratedDecision = true := ⟨rfl, rfl⟩
348
349/-! ## §6. C27 hard-stop trigger
350
351Pre-registered: TRUE with nonzero historyCost at any cap arms C27. -/
352
353/-- **C27 trigger predicate.** Ledger-generated at the cap, and history cost
354not identically zero there. -/
355def C27TriggerAt (cap : ℕ) (c : LetterCost) : Prop :=
356 LedgerGeneratedAt cap c
357 ∧ ∃ (B : ℕ) (K : BoundedComplex B),
358 K.nV ≤ cap ∧ K.nE ≤ cap ∧ K.nT ≤ cap ∧ historyCost c B K ≠ 0
359
360theorem edgeComplex_fits_cap2 :
361 edgeComplex.nV ≤ 2 ∧ edgeComplex.nE ≤ 2 ∧ edgeComplex.nT ≤ 2 := by
362 native_decide
363
364theorem edgeComplex_fits_cap3 :
365 edgeComplex.nV ≤ 3 ∧ edgeComplex.nE ≤ 3 ∧ edgeComplex.nT ≤ 3 := by
366 native_decide
367
368/-- **C27 trigger armed at cap 2.** -/
369theorem C27_trigger_armed_cap2 : C27TriggerAt 2 (jCost 1) := by
370 refine ⟨jCost_ledgerGenerated_cap2, ?_⟩
371 refine ⟨4, edgeComplex, edgeComplex_fits_cap2.1, edgeComplex_fits_cap2.2.1,
372 edgeComplex_fits_cap2.2.2, historyCost_not_identically_zero_cap2⟩
373
374/-- **C27 trigger armed at cap 3.** -/
375theorem C27_trigger_armed_cap3 : C27TriggerAt 3 (jCost 1) := by
376 refine ⟨jCost_ledgerGenerated_cap3, ?_⟩
377 refine ⟨4, edgeComplex, edgeComplex_fits_cap3.1, edgeComplex_fits_cap3.2.1,
378 edgeComplex_fits_cap3.2.2, historyCost_not_identically_zero_cap2⟩
379
380/-- Boolean: C27 hard stop is armed. -/
381def C27_hard_stop_armed : Bool := true
382theorem C27_hard_stop_armed_eq : C27_hard_stop_armed = true := rfl
383
384/-- Cap 1 seeds do not alone arm C27: ledger-generated, history zero. -/
385theorem C27_not_armed_by_cap1_seeds :
386 LedgerGeneratedAt 1 (jCost 1)
387 ∧ historyCost (jCost 1) 1 (emptyComplex 1) = 0
388 ∧ historyCost (jCost 1) 4 pointComplex = 0
389 ∧ historyCost (jCost 1) 1 loop1Complex = 0 :=
390 ⟨jCost_ledgerGenerated_cap1, historyCost_empty_cap1,
391 historyCost_jCost_one_point, historyCost_loop1⟩
392
393/-! ## §7. Verdict -/
394
395/-- **The C14 LedgerGenerated fork verdict.** -/
396structure LedgerGeneratedVerdict : Prop where
397 predicate_is_model : True
398 jCost_is_ledgerGenerated : ∀ kappa : ℝ, kappa ≠ 0 → LedgerGenerated (jCost kappa)
399 decisions_cap1_2_3 :
400 LedgerGeneratedAt 1 (jCost 1)
401 ∧ LedgerGeneratedAt 2 (jCost 1)
402 ∧ LedgerGeneratedAt 3 (jCost 1)
403 decoy_discriminates : ¬ LedgerGenerated censusVertexCost
404 history_cap1_zero :
405 historyCost (jCost 1) 1 (emptyComplex 1) = 0
406 ∧ historyCost (jCost 1) 4 pointComplex = 0
407 ∧ historyCost (jCost 1) 1 loop1Complex = 0
408 history_cap2_nonzero : historyCost (jCost 1) 4 edgeComplex ≠ 0
409 history_cap3_nonzero : historyCost (jCost 1) 4 forkComplex ≠ 0
410 c27_armed_cap2 : C27TriggerAt 2 (jCost 1)
411 c27_armed_cap3 : C27TriggerAt 3 (jCost 1)
412
413theorem ledgerGeneratedVerdict : LedgerGeneratedVerdict where
414 predicate_is_model := trivial
415 jCost_is_ledgerGenerated := fun _ hk => jCost_ledgerGenerated hk
416 decisions_cap1_2_3 :=
417 ⟨jCost_ledgerGenerated_cap1, jCost_ledgerGenerated_cap2, jCost_ledgerGenerated_cap3⟩
418 decoy_discriminates := censusVertexCost_not_ledgerGenerated
419 history_cap1_zero := historyCost_table_cap1
420 history_cap2_nonzero := historyCost_not_identically_zero_cap2
421 history_cap3_nonzero := (historyCost_not_identically_zero_cap3).2.2
422 c27_armed_cap2 := C27_trigger_armed_cap2
423 c27_armed_cap3 := C27_trigger_armed_cap3
424
425structure LedgerGeneratedIndex : Type where
426 ledgerGenerated_jCost : Bool
427 history_zero_cap1 : Bool
428 history_zero_cap2 : Bool
429 history_zero_cap3 : Bool
430 c27_hard_stop_armed : Bool
431 measure_flag_moved : Bool
432
433def ledgerGeneratedIndex : LedgerGeneratedIndex where
434 ledgerGenerated_jCost := true
435 history_zero_cap1 := true
436 history_zero_cap2 := false
437 history_zero_cap3 := false
438 c27_hard_stop_armed := true
439 measure_flag_moved := false
440
441theorem index_c27_armed : ledgerGeneratedIndex.c27_hard_stop_armed = true := rfl
442theorem index_flag_unmoved : ledgerGeneratedIndex.measure_flag_moved = false := rfl
443theorem index_jCost_true : ledgerGeneratedIndex.ledgerGenerated_jCost = true := rfl
444
445end
446
447/-! ## Axiom audit -/
448
449#print axioms jCost_ledgerGenerated
450#print axioms jCost_ledgerGenerated_cap1
451#print axioms jCost_ledgerGenerated_cap2
452#print axioms jCost_ledgerGenerated_cap3
453#print axioms censusVertexCost_not_ledgerGenerated
454#print axioms historyCost_jCost_one
455#print axioms imbalanceSq_edge
456#print axioms imbalanceSq_edge_native
457#print axioms imbalanceSq_loop1_native
458#print axioms historyCost_jCost_one_edge
459#print axioms historyCost_table_cap1
460#print axioms historyCost_not_identically_zero_cap2
461#print axioms historyCost_not_identically_zero_cap3
462#print axioms C27_trigger_armed_cap2
463#print axioms C27_trigger_armed_cap3
464#print axioms ledgerGeneratedVerdict
465#print axioms historyCostSeedTable_edge_row_native
466
467end Gap2LedgerGenerated
468end SevenGaps
469end Gravity
470end IndisputableMonolith
471