Continual Graph Memory for Mathematical Research Agents

πŸ“… 2026-10-02
πŸ“ˆ Citations: 0
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πŸ€– AI Summary
This study addresses the challenges of organizing intermediate results and reusing knowledge during extended proof searches by mathematical research agents. To this end, we propose the Ansatz agent, centered on an evolvable unified graph memory architecture. This architecture employs graph neural networks to explicitly model dependencies among facts, plans, and counterexamples, while integrating dependency-aware retrieval, evidence-sensitive curation, and scoped recall mechanisms to optimize long-horizon reasoning. Furthermore, the system incorporates multi-agent parallel search and dynamic context management techniques. Empirically, Ansatz successfully closes ten frontier benchmark tasks and independently resolves several well-known conjectures alongside open problems posed by ErdΕ‘s, demonstrating robust capabilities in autonomous mathematical discovery.
πŸ“ Abstract
Using frontier agent harnesses to tackle mathematical research problems has emerged as an effective means of advancing mathematics. However, solving frontier problems in mathematics may require a massive number of agents working in parallel for extended periods to construct proofs, thereby generating an enormous volume of intermediate proof results. Organizing these intermediate results throughout a long-horizon proof-search process and reusing knowledge gained from prior explorations remain major challenges. We present Ansatz, a mathematical research agent built around Continual Graph Memory, a graph-based, evolvable, cross-problem mathematical research memory system that explicitly organizes the entire proof search process and reuses information from exploration trajectories of previous problems. Specifically, we develop a unified graph memory that represents all intermediate exploration results, including facts, plans, and counterexamples, together with edges that explicitly represent the relationships among them; dependency-aware retrieval supplies precisely targeted local context; an evidence-sensitive curator updates the research frontier and distills lessons from prior attempts; and scoped recall surfaces earlier statements and negative findings for local re-proving rather than uncritical reuse. Experiments cover runs across all ten First Proof Second Batch problems, together with four component studies. Ansatz reports closure on all ten research tasks, demonstrating its ability to sustain and resume long-horizon mathematical search. Beyond these problems, Ansatz also produces solutions to the Jamison caterpillar conjecture and ErdΕ‘s Problems 289, 348, and 488 without human intervention, and makes partial progress on several open problems, illustrating its strong ability to solve open mathematical research problems.
Problem

Research questions and friction points this paper is trying to address.

mathematical research agents
continual graph memory
long-horizon proof search
intermediate proof results
knowledge reuse
Innovation

Methods, ideas, or system contributions that make the work stand out.

Continual Graph Memory
Mathematical Research Agent
Dependency-aware Retrieval
Graph-based Memory
Proof Search
Junyi Zhang
Junyi Zhang
Ph.D. Student, UC Berkeley
Computer VisionDeep LearningRobotics
J
Jinxi Yu
University of California, Los Angeles
E
Eric Hanchen Jiang
University of California, Los Angeles
J
Jiachen Lu
University of California, Los Angeles
Z
Zhi Zhang
University of California, Los Angeles
X
Xinjie He
University of California, Los Angeles
H
Hyunsik Chae
University of California, Los Angeles
E
Ethan Ji
University of California, Los Angeles
A
Alexander K Taylor
University of California, Los Angeles
V
Vigyan Sahai
University of California, Los Angeles
Y
Yiwen Kou
University of California, Los Angeles
K
Kai-Wei Chang
University of California, Los Angeles
Raghu Meka
Raghu Meka
University of California, Los Angeles
Theoretical computer science
N
Nanyun Peng
University of California, Los Angeles
Amit Sahai
Amit Sahai
Symantec Chair Professor of Computer Science; Professor of Mathematics (by courtesy), UCLA
CryptographyTheoretical Computer ScienceComputational ComplexitySecure Computation
Terence Tao
Terence Tao
Professor of Mathematics, UCLA
AnalysisCombinatoricsRandom Matrix TheoryPDE
W
Wei Wang
University of California, Los Angeles