MEGA: Self-Evolving AI Agent Optimization Infrastructure via Wisdom Graph

Jung Hwan Lee, Kyu Ho Lee, Gwang Hoon Yoo· August 12, 2026 View original

Key takeaways

  • MEGA is an infrastructure for systematically improving AI agents through self-evolving knowledge.
  • It uses a "Wisdom Graph" to store and reason compositionally over distilled agent experiences.
  • Operational evidence from agent performance drives the refinement of both knowledge and optimization strategies.
  • This approach aims to make agent optimization and knowledge evolution a unified process.

Who benefits

Software DevelopmentAI DevelopmentAutomationIT OperationsRobotics

Summary

MEGA (Meta Evaluation-Grounded Adaptation) is a self-evolving infrastructure designed to systematically improve AI agents by accumulating transferable knowledge through a "Wisdom Graph." It distills reusable wisdom from agent sessions, performs compositional reasoning over these assets, and refines both the knowledge and reasoning based on operational evidence.

Researchers have introduced MEGA (Meta Evaluation-Grounded Adaptation), a novel infrastructure aimed at systematically improving AI agents, particularly coding agents. The core challenge addressed is moving beyond optimizing individual agents to building a system that continuously enhances them by accumulating and evolving transferable knowledge. Current approaches often lack mechanisms for compositional reasoning over accumulated knowledge or for that knowledge to self-evolve based on operational evidence. MEGA operates through a three-layered self-evolving process. Layer 1 distills reusable wisdom from agent sessions, clustering behavioral patterns and validating them empirically to create durable assets. Layer 2 then decomposes these assets into atomic PCR (Primary-Context-Resultant) units within a typed Wisdom Graph, performing deductive, abductive, and inductive reasoning to expand implicit relations and assemble context-specific execution plans. This compositional retrieval surfaces bridging knowledge that simple embedding similarity might miss. Finally, Layer 3 conducts multi-agent collaborative optimization across heterogeneous workflows, attributing improvement effects to specific strategy changes through controlled evaluation. Evidence from Layer 3 feeds back to drive the self-evolution of both the wisdom curation strategies and the optimization trajectories. This integrated approach ensures that agent system optimization and knowledge evolution are intrinsically linked, leading to more robust and intelligent agents.

Why it matters

This framework provides a systematic way to continuously improve and adapt AI agents, making them more reliable and efficient for complex tasks like code generation and automated workflows, reducing the need for constant manual intervention.

How to implement this in your domain

  1. 1Establish a "Wisdom Graph" or similar knowledge base to capture and organize successful agent behaviors and strategies.
  2. 2Implement a feedback loop where operational evidence from agent performance refines the stored knowledge and optimization processes.
  3. 3Develop a system for distilling reusable patterns and assets from agent sessions for future application.
  4. 4Explore compositional reasoning techniques to combine disparate pieces of knowledge for novel problem-solving.

Original post by Jung Hwan Lee, Kyu Ho Lee, Gwang Hoon Yoo

"arXiv:2608.10504v1 Announce Type: new Abstract: As coding agents increasingly handle implementation, the central challenge shifts from building individual agents to building an infrastructure that systematically improves them. Current approaches optimize agent systems without acc…"

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