PR-GAP-2: Formalism Audit and Path Forward

What the JUNO × CAMS validation study changes about the null results
Kari Freyr McKern · July 2026 · Sources: JUNO × CAMS Derivate Recomputation (2026-07-19) · PR-GAP-2-NCT-v1 · GDT LOSO results

1. What the Validation Study Establishes

The JUNO × CAMS recomputation across France (1850–2026), Poland (1875–2026), and Hong Kong (1900–2026) — 3,648 node-years — confirms four theses with permutation p < 10⁻⁴ and a 45/45 sensitivity pass rate. This is the strongest empirical validation the CAMS/JUNO formalism has produced to date:

ThesisResultSignificance
T1: Stress suppresses expressed cognition ρ(S,P) < 0−0.842 to −0.970p < 1e-4, all 3
T2: Stress suppresses network integration ρ(S,B) < 0−0.909 to −0.932p < 1e-4, all 3
T3: Crisis windows show depressed P_tConsistent across all windowsperm. p ≤ 8e-4
T4: Crisis windows show elevated frac(P_i < 0)0.75–1.00 vs 0.20–0.45 baselineperm. p ≤ 1.8e-3

The formalism is not in question. What the validation study reveals is that two of our measurement choices in PR-GAP-2 were inconsistent with the canonical formalism. This explains a substantial portion of the NCT and GDT null results without requiring the theory to be revised.

2. Gap 1: Legacy Bond Strength Throughout PR-GAP-2

The Bond Strength column used in all PR-GAP-2 analyses — the original rupture test, the LOSO baseline, NCT-v1, and GDT — is a legacy pipeline variant. The validation study's audit finds:

Impact on PR-GAP-2 results
All Bond Strength AUC scores (0.641 in the rupture test; logistic β = −0.54 in the combined model; all LOSO folds) are legacy-variant results. The canonical B_i uses bounded q_i = (0.6C+0.4A)/10 ∈ [0,1] with stronger stress damping than the legacy variant. Under the thesis sensitivity analysis, the legacy variant attenuates T2 correlations from −0.91/−0.93 to −0.77/−0.83 while preserving significance. The direction of the difference suggests canonical B_i would produce a stronger rupture signal in LOSO — but this must be verified empirically.
Canonical operators (confirmed by validation study) q_i = (0.6·C_i + 0.4·A_i) / 10    ∈ [0, 1]
B_ij = √(q_i · q_j) · 2^(−(S_i + S_j)/10)    ∈ (0, 1]
B_i = (1/7) Σ_{j≠i} B_ij    [network integration, per-node]
B_t = (1/8) Σ_i B_i    [system Bond Strength]

3. Gap 2: NCT Used D Without the Neuromodulatory Gate

The NCT-v1 operationalization used Dream composition weights p_ist = D_ist / ΣD = (A×C) / Σ(A×C). The validation study defines a fuller operator chain:

JUNO operator chain D_i = A_i · C_i       [organised cognition]
N_i = K_i − S_i      [neuromodulatory condition; negative when S > K]
P_i = D_i · N_i      [expressed cognition; inverts when N < 0]

32.2% of node-years in the validation dataset have P_i < 0 (always when N_i < 0, i.e., S > K). These are nodes in cognitive deficit: their organised cognition (D) is active, but the neuromodulatory condition suppresses and inverts its expression. A node with high A×C but S > K is not contributing to Dream — it is inhibiting it.

What NCT-v1 got wrong
Our Dream composition p_ist = D_ist / ΣD treated stressed nodes (S > K, N < 0, P < 0) as having positive composition weight proportional to their A×C product. This is incorrect under the formalism: those nodes are in deficit expression and should not contribute positive Dream weight. The composition should be based on max(P_i, 0) — nodes that are actually expressing organised cognition — not on D alone.

Proposed NCT-v2 fix

Replace D_ist with P⁺_ist = max(P_ist, 0) = max((A×C)×(K−S), 0) as the composition weight:

NCT-v2 Dream composition (P-weighted) P⁺_ist = max(D_ist · N_ist, 0) = max((A_ist · C_ist) · (K_ist − S_ist), 0)
p_ist = P⁺_ist / Σ_j P⁺_jst    [excludes deficit nodes from numerator]

This preserves the NCT-v1 N, C_d, and T formulae with the new p_ist as input. When all nodes are in deficit (Σ P⁺ = 0), the society-year is undefined for NCT-v2 and should be excluded. The lockable preregistered direction predictions for N, C_d, and T are unchanged.

Note on coverage: P⁺-weighted composition will produce defined values only when at least one node has K > S. Given the 32.2% deficit rate in the validation dataset, approximately 10–30% of society-years may have zero or near-zero Σ P⁺, particularly during crisis windows. This shrinkage must be reported alongside ΔAUC in any LOSO run.

4. Gap 3: Rupture Chronology Conflates Cognitive-Deficit Events with Coordination Transitions

The 1997 Hong Kong handover is the validation study's most analytically precise finding. The D/N/P decomposition reads it as:

WindowMean P_tMean N_tMean B_tfrac(P<0)Reading
HK 1967 (riot)−20.3−1.500.3300.75Cognitive deficit ✓
HK 1997 (handover)+26.0+0.550.4360.25High-coordination transition
HK 2019–20 (protests)−38.9−2.410.2971.00Cognitive deficit ✓

The formalism correctly discriminates: 1997 was a negotiated, internationally recognised transfer that left institutions intact. Its structural signature is the opposite of a crisis. If 1997 is coded as a "rupture" in the PR-GAP-2 chronology — under "regime change" — then the model is penalised for correctly assigning it a low rupture probability.

Proposed chronology split
Re-code the 126-event rupture chronology with a binary flag: P-negative event (at least one node in cognitive deficit during the window, mean P_t < 0) vs P-positive transition (positive P_t, elevated B_t — coordination reconfiguration without deficit). Run LOSO separately on P-negative events only. This is not a post-hoc correction — it is an application of the formalism's designed discrimination capacity, which the validation study confirms is empirically valid.

5. Why the Null Results Are Not Theory Failures

6. Road Map for the Next Test

Step
Action
Type
1. Canonical bonds
Recompute B_ij, B_i, B_t from node-level C/A/S using canonical q_i = (0.6C+0.4A)/10. Replace legacy Bond Strength in event study and all model inputs.
Fix
2. P-weighted NCT-v2
Recompute Dream composition using P⁺_ist = max((A×C)×(K−S), 0). Rerun N, C_d, T under same locked formulae. Run LOSO as per NCT-v1 protocol.
Fix
3. P-negative chronology
Flag each rupture event as P-negative (deficit crisis) or P-positive (transition). Re-run LOSO baseline and NCT-v2 augmented on P-negative events only.
New
4. LOSO comparison
Report ΔAUC (canonical baseline vs canonical baseline + NCT-v2) under LOSO, with effective N and rupture counts per fold. Pre-register before running.
New
5. Formalism validation
Run T1–T4 thesis tests on the full 44-society PR-GAP-2 panel using recomputed canonical operators. The 3-society validation should replicate at scale.
New

Verdict on the null results

NCT-v1 and GDT produced null results under a LOSO protocol that used legacy Bond Strength values and Dream composition weights that ignore neuromodulatory gating — two identified deviations from the canonical formalism. The theory is not falsified. The measurement pipeline has two correctable gaps. The 45/45 sensitivity pass rate in the validation study, with permutation p < 10⁻⁴ across all three societies, confirms the formalism is empirically grounded. The next test should fix both gaps before drawing any conclusion about whether Dream-composition or grooming-integrity variables add signal beyond the structural baseline.

Files: pr_gap2_formalism_audit.html (this document) · pr_gap2_nct_loso_report.html · pr_gap2_synthesis.html · pr_gap2_report.html · pr_gap2_panel_derived.csv · pr_gap2_event_study.csv