Computational No-Coincidence
Neyman's CNCC in Lean 4
Extended Research — Eric Neyman (ARC, 2025) | Formalized March 15, 2026
Overview
Eric Neyman (ARC, 2025) conjectures that for reversible circuits on exhibiting a “non-coincidental” zero-suffix property, there exist short advice strings that serve as polynomial-time verifiable structural explanations. This formalization does not prove CNCC itself — it builds a candidate verifier architecture that makes the conjecture's structure explicit.
The key insight: advice strings are naturally modeled as nucleus operators (closed, idempotent, order-preserving maps) on the lattice of circuit properties. This turns the informal notion of “structural explanation” into a formally tractable fixed-point condition. The core theorem () proves a genuine biconditional: gap = 0 iff all accepted circuits have the target property.
Modules
20
16 source + 4 test
Theorems
56
Machine-verified
Lines
1,037
Proof code
Sorry
0
Zero gaps
Audits
2
Adversarial
Formal Verification Certificate
Every theorem in this project has been machine-checked by the Lean 4 kernel. No axiom is assumed without proof. No gap exists in the verification chain.
No-Coincidence CNCC • Lean 4 + Mathlib • Apoth3osis Labs
Formal Modules (5 packages, 13 theorems, 941 lines)
Neyman ↔ HeytingLean Correspondence
| Neyman Concept | Lean 4 Formalization | Module |
|---|---|---|
| Basic.RevCircuit n | Basic/Circuit.lean | |
| Basic.PropertyP n C | Basic/Property.lean | |
| nucleus selector (size, involution, property) | Nucleus/AdviceAsNucleus.lean | |
| CircuitNucleus.explains | Nucleus/CircuitNucleus.lean | |
| candidateScreen n C \pi | Nucleus/AdviceAsNucleus.lean | |
| candidateVerifier n C \pi | Nucleus/AdviceAsNucleus.lean | |
| circuitHeytingGap R P | Nucleus/HeytingGapSoundness.lean | |
| three canonical lenses | Structure/DimensionalBound.lean | |
| adviceWeight via WeightSystem.weight | Structure/HierarchicalAdvice.lean | |
| circuit\_heyting\_gap\_and\_non\_boolean | Bridge/UnificationTheorem.lean | |
| NeuralNetAsCircuit + explainedByStructure | Bridge/NeuralNetBridge.lean | |
| wolfram\_independence\_parallel | Bridge/UnificationTheorem.lean |
“Once men turned their thinking over to machines in the hope that this would set them free. But that only permitted other men with machines to enslave them.”
Frank Herbert, Dune
A janitor who proves a theorem outranks a tenured professor who publishes noise.
Not as a slogan. As a structural fact of how the network operates. The only currency that matters is the quality of your contribution, measured not by committee but by mathematics.
A valid, original framing or conjecture
Formal argument with paper-level rigor
Connecting theory to observable outcomes
Working software the project depends on
Reproducible research with methodology and data
Machine-verified claim checked by a proof assistant
Foundational, load-bearing implementation
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Every accepted contribution receives a MENTAT Contribution Record — cryptographically signed, IPFS-pinned, permanently yours. No committee decides your worth. The type checker does.
Module Dependency Graph
Provenance Chain
Eric Neyman, “Computational No-Coincidence Conjecture,” ARC (Alignment Research Center), 2025
Lean 4 formalization by Apoth3osis Labs — 56 theorems, 20 modules, 1,037 lines, 0 sorry
Kernel-checked, twice adversarially audited (initial + remediation re-audit)
Connected to HeytingLean infrastructure: Hossenfelder no-go boundary, Wolfram confluence-causal invariance, sheaf-neural semantics, Hybrid-Zeckendorf weight system
