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AI · 8 min read · May 2, 2026

Formal Proofs Verify Machine Governance in AI Systems

McCann's mechanized theory establishes mathematical foundations for controlling intelligent systems through coinductive safety predicates and verified interpreter specifications.

Source: arxiv/cs.AI · Alan L. McCann · open original ↗ ↗
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McCann proves five theorems about structural governance for intelligent systems, with three mechanized in Coq and two on paper, plus a verified runtime specification.

  • Coinductive Safety Predicate (gov_safe) captures governance safety for infinite program behaviors using boolean permission flags.
  • Governance Invariance Theorem shows governance properties hold uniformly across meta-recursive levels by definitional equality.
  • Four atomic primitives (code, reason, memory, call) are expressively complete for any discrete intelligent system.
  • Alternating Normal Form decomposes machines into canonical alternating code and effect layers with confluent rewriting.
  • Necessity Theorem proves the reason primitive is mathematically required for semantic judgment problems via Rice's theorem reduction.
  • Verified Interpreter Specification formalizes BEAM runtime trust and capability logic, tested against 70,000+ generated sequences with zero disagreements.
  • Mechanization spans 12,000 lines across 36 Coq modules with 454 theorems and zero admitted lemmas.

Frequently asked

  • The Coinductive Safety Predicate (gov_safe) is a mathematical property that captures whether an intelligent system's behavior remains governed across infinite execution. It uses a boolean permission flag that is provably false for ungoverned input/output and true for governed interpretations. This matters because it provides a formal, machine-checkable definition of governance that holds for systems that run indefinitely, not just finite programs.

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