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February 14, 20260 citationsOpen Access

Observable-Only AI Safety from Public Data: Robust Bottleneck Diagnosis with Auditable No-Meta Dynamic Programming, Anytime Confidence Sequences, and Dynamic IQC

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KTK Takahashi

Key Points

  • The research aims to establish a safety framework for diagnosing bottlenecks in AI systems using only publicly available data.
  • Developed a no-meta governance model using replay-visible evidence.
  • Implemented robust dynamic programming with partial identification methods.
  • Utilized anytime-valid confidence sequences and dynamic IQC analysis for diagnostics.
  • Integrated machine-checkable certificate schemas for online auditing.
  • Produced reproducible interval diagnostics with explicit uncertainty cushions.
  • Established formal guarantees for measurable selector construction and identification limits.
  • Defined fail-closed declaration rules and time-consistent ambiguity recursion.

Abstract

Observable-Only AI Safety from Public Data presents an auditable safety framework for robust bottleneck diagnosis in coupled dynamical systems under strict public-data constraints. The method enforces no-meta governance: decisions may use only replay-visible evidence and authenticated exogenous governance updates, with no hidden evaluators or privileged latent access. The framework combines robust dynamic programming, partial identification, model-indexed e-processes / anytime-valid confidence sequences, and dynamic IQC analysis. It produces reproducible interval diagnostics with explicit uncertainty cushions (optimization, implementation, contamination, dependence, interaction, and rectangularization), fail-closed declaration rules, time-consistent ambiguity recursion, and deterministic replay contracts suitable for third-party verification. The manuscript includes formal guarantees for well-posedness, measurable selector construction, identification limits, branchwise behavior (in-class statistical guarantees versus out-of-class safety behavior), and non-circular lag-one IQC tightening. It also provides machine-checkable certificate schemas, cross-field replay invariants, and operational pseudocode for online deployment and auditing. This work is designed as an accountability and best-effort safety protocol, not a truth oracle. It does not guarantee recovery of latent ground truth beyond what is identifiable from observable data under explicit assumptions.

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Cite This Study

K Takahashi (2026) studied this question.

synapsesocial.com/papers/699011812ccff479cfe58490https://doi.org/10.5281/zenodo.18615875
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Also Consider

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  1. 1A Control-Theoretic Framework for AI Safety: Stability, Robustness, and Assurance2021
  2. 2Orthogonal Axiomatic CI/CD for Safety-Critical AI Systems: Considering ISO-26262, DO-178C, EU AI Act for Audit readiness, Deployment Velocity, Incident Resolution, Liability Reduction. V-2.02026
  3. 3Observable-Only Structural-Risk Institutions Without Central Arbitration2026 · 2 citations
  4. 4A Safe and Reliable Artificial Intelligence Production Deployment System2026
  5. 5Observable-Only Proof-Carrying Autonomy (OOPCA): Audit Compression and Hybrid Proof/Replay Gating for No-Meta Agents2026