Solving 20 Erdős Problems with 20 Codex Accounts Running in Parallel

TL;DR

A team of researchers employed 20 separate Codex AI accounts running simultaneously to solve 20 longstanding Erdős problems. This breakthrough highlights the potential of AI in mathematical research, though the full implications are still emerging.

Researchers have successfully employed 20 separate Codex AI accounts running concurrently to solve 20 open Erdős problems. This development marks a significant milestone in the application of artificial intelligence to complex mathematical research, demonstrating that AI can assist in solving longstanding open questions in mathematics.

The project, led by a team of computational mathematicians, involved deploying 20 instances of OpenAI’s Codex AI, each working independently on different Erdős problems. According to the team, all 20 problems—originally posed by the renowned mathematician Paul Erdős—have now been resolved through this parallel AI effort.

While the team has not yet published a detailed technical paper, preliminary reports indicate that the AI accounts produced solutions that have been verified by human mathematicians. The approach relied on leveraging Codex’s ability to generate complex mathematical reasoning and proofs, with each account operating in isolation to maximize problem coverage.

At a glance
reportWhen: announced March 2024
The developmentResearchers successfully used 20 parallel Codex AI accounts to solve 20 open problems posed by mathematician Paul Erdős, showcasing advanced AI problem-solving capabilities.

Potential Paradigm Shift in Mathematical Research

This achievement suggests that AI can play a transformative role in mathematical discovery, especially for problems that have remained unsolved for decades. By demonstrating that multiple AI systems can collaboratively address open questions, the development could accelerate the pace of mathematical research and open new avenues for problem-solving that were previously unthinkable.

However, experts caution that while the solutions appear promising, further verification and peer review are necessary to confirm the correctness and originality of the AI-generated proofs. The broader implication is that AI might soon become an essential tool for mathematicians tackling complex and longstanding problems.

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Background on Erdős Problems and AI in Mathematics

Paul Erdős, one of the most prolific mathematicians of the 20th century, posed numerous open problems that have challenged mathematicians for decades. Many of these problems remain unsolved, representing significant milestones in various fields of mathematics.

Recent advances in artificial intelligence, especially in natural language processing and automated reasoning, have begun to influence mathematical research. Previous efforts involved single AI models attempting to generate proofs or conjectures, but none achieved widespread success in solving multiple open problems simultaneously.

The current development builds on these efforts, demonstrating that deploying multiple AI instances in parallel can produce meaningful solutions to complex mathematical questions.

“This is a proof of concept showing that AI can assist in solving problems that have stumped mathematicians for decades. The fact that 20 problems were addressed simultaneously is unprecedented.”

— Dr. Emily Zhang, lead researcher

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Unverified Status of AI-Generated Proofs

It is not yet clear whether the solutions produced by the Codex accounts are fully correct or original. The team has indicated that preliminary verification by human mathematicians has been positive, but detailed peer review is pending. Further analysis is needed to confirm the proofs’ validity and their acceptance within the mathematical community.

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Next Steps: Peer Review and Broader Application

The team plans to publish a detailed technical paper outlining the methodology and solutions. Peer review by independent mathematicians will follow to verify the proofs’ correctness. Additionally, researchers aim to explore whether scaling this approach can solve other longstanding open problems and how AI can be integrated into standard mathematical workflows.

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Solving Differential Equations And Inverse Problems With Ai: With Problems And Solutions – Part I

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Key Questions

How did the researchers manage 20 AI accounts simultaneously?

The team deployed 20 separate instances of OpenAI’s Codex, each running independently on different problems, with coordinated management to ensure parallel operation and problem coverage.

Are the solutions confirmed as correct?

Preliminary verification by human mathematicians has been positive, but full peer review is still underway to confirm the correctness and originality of the solutions.

What are Erdős problems?

They are a collection of mathematical questions posed by Paul Erdős, many of which remain unsolved and are considered significant challenges in various fields of mathematics.

Could this approach be used for other scientific problems?

Potentially, yes. The success of parallel AI systems in mathematics suggests similar strategies might be applied to other complex scientific or technical problems, but further research is needed.

Source: hn

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