AI Agents Discover Tighter Convex Relaxations for Optimization Problems.

Sungyoon Kim, Mert Pilanci· July 1, 2026 View original

Summary

This research introduces an AI autoresearch paradigm using dual agents to discover and verify tighter convex relaxations for non-convex optimization problems. It improves certified lower bounds for two specific optimization constants, demonstrating enhanced precision in mathematical problem-solving.

Researchers have developed an AI-driven approach to enhance the discovery of convex relaxations, which are crucial for finding lower bounds in non-convex optimization problems. This new paradigm employs a system of "dual agents": a coding agent proposes potential tightening constraints, while a theory agent rigorously verifies these proposals and searches for counterexamples. All discovered bounds are then certified using explicit dual-feasible points, checked with interval arithmetic for mathematical rigor. The method was applied to two specific optimization constants, the first autocorrelation inequality ($C_{6.2}$) and the Erdős minimum-overlap constant ($C_{6.5}$). The AI system successfully improved the certified lower bounds for both, moving from 1.28 to 1.2937 for the former and from 0.379005 to 0.37912 for the latter. This demonstrates the potential of AI agents to push the boundaries of mathematical discovery and optimization.

Why it matters

Professionals in fields relying on complex optimization can leverage AI to find more precise solutions and tighter bounds for intractable problems, leading to more efficient algorithms and better decision-making.

How to implement this in your domain

  1. 1Explore integrating AI agent frameworks into existing optimization pipelines for complex problem-solving.
  2. 2Pilot the use of dual-agent systems for verifying mathematical proofs or discovering new constraints in your domain.
  3. 3Investigate the application of interval arithmetic for rigorous certification of AI-generated mathematical results.
  4. 4Collaborate with AI researchers to adapt this autoresearch paradigm to specific industry optimization challenges.

Who benefits

EngineeringFinanceLogisticsScientific ResearchManufacturing

Key takeaways

  • AI agents can autonomously discover and verify complex mathematical relaxations.
  • The dual-agent paradigm enhances the precision of optimization problem bounds.
  • Rigorous verification using interval arithmetic ensures the reliability of AI-generated mathematical results.
  • This approach has improved certified lower bounds for known optimization constants.

Original post by Sungyoon Kim, Mert Pilanci

"arXiv:2606.31182v1 Announce Type: new Abstract: Recent work shows that LLM agents can improve sharp-constant inequalities by searching for extremal constructions, which yield upper bounds. We address the complementary side: a lower bound holds for every admissible function and fo…"

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Originally posted by Sungyoon Kim, Mert Pilanci on X · view source

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