๐ค AI Summary
This study addresses the challenge of enabling computational systems to autonomously discover mathematical concepts, with a focus on recovering homological theory from polyhedral data. To this end, it proposes the first multi-agent collaborative framework for mathematical discovery, in which agents dynamically cooperate through localized processes such as conjecture generation, attempts at formal proof, and counterexample analysis. The approach integrates linear algebraic knowledge and incorporates a mechanism for evolving data distributions. Ablation studies demonstrate that the combination of these local processes gives rise to emergent judgments of โinterestingnessโ aligned with human intuition. The framework successfully reconstructs homological invariants directly from raw polyhedral data, thereby validating its effectiveness and potential for autonomous mathematical concept discovery.
๐ Abstract
Mathematical concepts emerge through an interplay of processes, including experimentation, efforts at proof, and counterexamples. In this paper, we present a new multi-agent model for computational mathematical discovery based on this observation. Our system, conceived with research in mind, poses its own conjectures and then attempts to prove them, making decisions informed by this feedback and an evolving data distribution. Inspired by the history of Euler's conjecture for polyhedra and an open challenge in the literature, we benchmark with the task of autonomously recovering the concept of homology from polyhedral data and knowledge of linear algebra. Our system completes this learning problem. Most importantly, the experiments are ablations, statistically testing the value of the complete dynamic and controlling for experimental setup. They support our main claim: that the optimisation of the right combination of local processes can lead to surprisingly well-aligned notions of mathematical interestingness.