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Math Foundation Formalization Agent: A General-Purpose Approach to Formalizing Mathematical Foundations

The paper introduces MFF-Agent, a general-purpose intelligent agent that combines large language models with the Rocq proof assistant to automate the formalization of mathematical theories. It handles task classification, tool-assisted execution, verification feedback, and state-based task management for generating and verifying formal proofs. Case studies across Morse-Kelley set theory, real numbers, propositional logic, and axiom of choice equivalences demonstrate its applicability to diverse foundational domains. The results show the feasibility of a unified operational framework while clarifying the gap toward a fully integrated mathematical foundation.

AI Brief

Offers a concrete, novel approach to automating mathematical formalization across multiple foundational domains, with practical case studies and clear insights into current limitations.

arXiv:2611.02843v1 Announce Type: cross Abstract: Mathematical formalization plays an important role in establishing rigorous and machine-verifiable foundations for mathematical reasoning. With the development of large language models (LLMs) and interactive theorem provers, intelligent agents offer a promising approach to automating the formalization of mathematical theories. This paper presents the Math Foundation Formalization Agent (MFF-Agent), a general-purpose intelligent agent designed to support formalization tasks across multiple mathematical domains. The agent integrates the reasoning capabilities of large language models with the formal verification capabilities of the Rocq proof assistant. It incorporates task classification, tool-assisted execution, verification feedback, and state-based task management to support the generation, refinement, and verification of formal proofs. Unlike an approach focused on a single mathematical theory, the agent is examined through case studies involving Morse--Kelley axiomatic set theory (MK), real numbers, propositional logic, and equivalences of the axiom of choice. These cases investigate its applicability across mathematical foundations and distinguish source-level completion, interactive verification, and reproducible compilation. The results demonstrate the feasibility of a unified operational framework for heterogeneous foundation-level tasks and clarify the gap between such a framework and a fully integrated mathematical foundation.
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