AI System Verifies Partial Progress on Riemann Hypothesis

Zhixin Hu, Tao Xu, Xiaodian Sun, Li Jin, Momiao Xiong· June 16, 2026 View original

Summary

A verifiable AI-assisted reasoning system, VGPT-RSI, is applied to Riemann Hypothesis-adjacent certification tasks. It constructs and verifies finite boundary certificates and initiates a formal Lagarias-route certificate, explicitly identifying remaining mathematical obstructions.

This research explores the capability of a verifiable AI-assisted reasoning system, named Verifiable Growing Physical Transformer with Recursive Self-Improvement (VGPT-RSI), to make reliable and formally checked partial progress on complex mathematical problems, specifically those related to the Riemann Hypothesis (RH). The system aims to explicitly identify the unresolved mathematical challenges rather than claiming a full proof. The VGPT-RSI system was applied to two RH-adjacent certification tasks. First, it successfully constructed and formally verified a finite RH-boundary certificate for an inequality over a specific region. This involved converting a numerical boundary curve into a certificate-backed lower curve, which was then audited using advanced interval arithmetic and formally checked in proof assistants like Rocq/CoqInterval. Second, the system initiated a formal Lagarias-route certificate, which is based on a criterion stating that the Riemann Hypothesis is equivalent to a global inequality. The VGPT-RSI formalized a finite quantity of this criterion and produced a Coq-checked finite certificate. Crucially, the system precisely pinpoints the remaining mathematical bottlenecks, such as formalizing the Lagarias equivalence globally and proving tail theorems beyond finite cutoffs, demonstrating its ability to contribute certified progress while clearly delineating the limits of its current capabilities.

Why it matters

This demonstrates the growing potential of AI in advanced mathematical research and formal verification, offering a pathway to accelerate scientific discovery by assisting human mathematicians with complex proof tasks and ensuring their reliability. It highlights AI's role in identifying and structuring mathematical challenges.

How to implement this in your domain

  1. 1Explore integrating AI-assisted formal verification tools into mathematical research workflows to accelerate proof development.
  2. 2Utilize AI systems like VGPT-RSI to generate and verify boundary certificates for complex mathematical inequalities.
  3. 3Apply AI to formalize specific criteria or components of major unsolved mathematical problems.
  4. 4Collaborate with AI researchers to adapt these verifiable reasoning systems for domain-specific proof challenges.
  5. 5Develop training for mathematicians on using AI tools for proof assistance and formal verification.

Who benefits

AcademiaResearch & DevelopmentSoftware EngineeringCybersecurity

Key takeaways

  • AI systems can make verifiable, formally checked partial progress on complex mathematical problems.
  • VGPT-RSI can construct and verify finite certificates for mathematical inequalities.
  • The system effectively identifies and organizes remaining mathematical obstructions in proof development.
  • AI-assisted formal reasoning enhances the reliability and trustworthiness of mathematical progress.

Original post by Zhixin Hu, Tao Xu, Xiaodian Sun, Li Jin, Momiao Xiong

"arXiv:2606.15096v1 Announce Type: new Abstract: The Riemann Hypothesis remains one of the central unsolved problems in mathematics. Rather than claiming proof, we investigate whether a verifiable AI-assisted reasoning system can produce reliable, formally checked partial progress…"

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Originally posted by Zhixin Hu, Tao Xu, Xiaodian Sun, Li Jin, Momiao Xiong on X · view source

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