verification

The article discusses the challenge of verifying AI agent actions and advocates for immutable receipts to ensure trust and distinguish between bad decisions and non-existent ones.

The article outlines a rule for autonomous agents where the maker and verifier are separate agents, with a workflow that includes human escalation after verification failures.

This paper introduces a contract-grade verifier of twelve adversarial gates for checking LLM-generated GPU kernels, finding that 39.5% of kernels accepted by standard loose tests are broken. It also presents the first native Blackwell training backward kernel for the GDN (gated-linear-recurrence) family.

The article argues that the 'AI slop' debate conflates authorship, productivity, and engineering quality, and proposes treating generative coding systems as high-throughput, error-prone producers within an engineering control loop, shifting scarce skills toward specification, verification, and accountability.

The article argues that the real divide in AI-assisted development is not AI vs human coding, but unsupervised generation vs verified engineering, and that engineers should build verification and control systems around AI generators.

The author describes how they make their AI growth agent Alice trustworthy by using deterministic code, fact-set verification, and scoped number matching, rather than relying on prompt rules. They share practical lessons for any agent that reports numbers to users.

This paper proves that local verification in agentic AI is structurally incomplete, using cohomology theory to show that harmonic evidence conflicts (non-transportability) are undetectable by any local checks. It proposes Ksetra, a method that gates abstention on harmonic energy, and provides a statistical test for global claims.

The article argues that the main constraint on AI agent adoption is not capability but verification, including how companies define quality, evaluate ongoing performance, and compound feedback. It explores challenges like tacit standards, company-specific evals, feedback ownership, and self-improving loops.

IBM and collaborators demonstrated three techniques for verifiable quantum advantage on noisy hardware, tackling the challenge of validating results that cannot be classically simulated.

The tutorial introduces a low-cost method for obtaining a US phone number using Talkatone with eSIM, covering registration, number retention, configuration, and usage steps.

This paper proposes a blockchain-based commit-reveal protocol to decentralize trust in LLM benchmarking, using anonymous multi-model verifiers to address identity-aware bias and manipulation in benchmark claims.

A conceptual essay arguing that recursive self-improvement in AI is limited by verification, not computation, using the metaphor of an epistemically closed prompt matrix and the data-processing inequality.

The author built a deterministic verification layer that recalculates financial numbers produced by AI copilots to catch errors, and is seeking feedback from finance and AI practitioners.

This preprint challenges aggregate independence metrics for LLM judge panels, showing that verification signals only improve accuracy on pivotal 'one-vote-margin' queries, and proposing a margin-stratified call-reduction rule.

The author reflects on AI dependency and argues that human verification of AI outputs may be the ultimate limit on progress. They suggest transhumanism and neural augmentation could keep humans meaningfully in the loop, making the future one of human augmentation rather than obsolescence.

SymDiag is a neuro-symbolic framework that translates chain-of-thought reasoning into symbolic constraints and performs step-level satisfiability checks to localize failures in LLM reasoning, disentangling translation errors from reasoning errors.

The author describes spending seven days straight using the AI models GPT 5.6 Sol and Fable 5 to solve a 25-year-old open problem in wireless communication theory, noting that verification was the biggest bottleneck.

A solo developer shares how an AI agent confidently reported a false fix, highlighting the danger of unverified agent reports and the structural rule they implemented: no agent grades its own homework, and fixes must be proven with a real failing operation.

A developer describes building a Claude Code skill that verifies AI-generated CAD geometry before export, catching silent OpenCASCADE failures like un-shelled parts and misplaced cuts using volume, bounding box, and point classification checks.

The author raises concerns about the lack of audit trails and verification layers for AI agents that move money, comparing it to the aviation industry's black box and calling for a hashed, regulator-proof evidence trail.