VALG: An Agentic System for ML Theory Research.

Dechen Zhang, Xuan Tang, Xinxiang Yin, Xingwu Chen, Jian Qian, Difan Zou· August 14, 2026 View original

Key takeaways

  • VALG is an agentic system for automating aspects of ML theory research.
  • It combines verification, adaptive problem formulation, and graph-structured proof development.
  • The system can diagnose proof failures and adapt problem formulations.
  • Initial results show promise in generating theorem candidates and accelerating theoretical work.

Who benefits

AI ResearchAcademiaSoftware DevelopmentDeep Tech

Summary

VALG is an autonomous agentic system designed to assist with machine learning theory research by combining multi-level verification, adaptive problem formulation, and graph-structured proof development. It can formulate hypotheses, test them, and refine assumptions and proofs, even identifying where proof attempts fail.

Researchers have developed VALG, an innovative agentic system aimed at automating and streamlining machine learning theory research. This system integrates several advanced capabilities: multi-level verification ensures the rigor of mathematical statements, adaptive problem formulation allows for dynamic adjustment of research questions, and a graph-structured approach facilitates the development and organization of proofs. VALG is designed to mimic the iterative process of human researchers, formulating hypotheses, conducting preliminary analyses, and refining both assumptions and proofs. VALG's sophisticated architecture enables it to maintain fixed mathematical specifications within theorem branches, verify the composition of proof-dependency graphs, and construct or review local proofs in a structured order. A key feature is its ability to diagnose proof failures, determining whether the issue lies in a derivation, the proof structure, or the initial theorem formulation. Depending on the obstruction, VALG can then initiate related variants or relaxations of the problem, preserving the mathematical relationship to the original challenge. Initial evaluations on subproblems from COLT 2026 open problems show VALG producing internally finalized theorem candidates and various restricted or conditional results, demonstrating its potential to significantly accelerate theoretical ML advancements.

Why it matters

Automating aspects of theoretical research can accelerate the discovery of new machine learning principles, leading to more robust, efficient, and explainable AI systems. This could free up human researchers for higher-level conceptual work.

How to implement this in your domain

  1. 1Explore: Investigate the open-source VALG system to understand its architecture and capabilities.
  2. 2Experiment: Apply VALG to a specific, well-defined theoretical ML problem within your research team.
  3. 3Collaborate: Use VALG as a tool to assist human researchers in proof development and hypothesis testing.
  4. 4Contribute: Provide feedback or contribute to the VALG project to enhance its utility for the broader ML theory community.

Original post by Dechen Zhang, Xuan Tang, Xinxiang Yin, Xingwu Chen, Jian Qian, Difan Zou

"arXiv:2608.13060v1 Announce Type: new Abstract: Machine learning theory studies learning procedures through mathematical setups in which the data model, training protocol, oracle access, loss, metric, and randomness define the phenomenon that a theorem is meant to explain. Solvin…"

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Originally posted by Dechen Zhang, Xuan Tang, Xinxiang Yin, Xingwu Chen, Jian Qian, Difan Zou on X · view source

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