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Euclid-Omni:面向平面几何的统一神经符号框架

Euclid-Omni : A Unified Neuro-Symbolic Framework for Plane Geometry

Zhaoyu Li, Hangrui Bi, Youyuan Zhang, Wenjie Ma, Zenan Li, Zhaolei Zhang, Xujie Si, Kaiyu Yang

arXiv 2608.14585首次发表:更新:

发表机构

Apodex; University of Toronto; UC Berkeley; ETH Zürich; Meta FAIR(Apodex; 多伦多大学; 加州大学伯克利分校; 苏黎世联邦理工学院; Meta FAIR)

机构由 AI 辅助整理,请以论文原文为准。

AI 中文总结

本文提出Euclid-Omni统一神经符号框架,结合形式几何系统与LLMs、VLMs,核心为符号几何求解器Euclidea,生成合成数据训练模型,在竞赛级几何问题上性能优异且成本更低。

AI 中文摘要

欧氏几何是AI推理的重要测试平台,因其要求结合直观的图形理解、公理演绎与代数计算能力。然而现有方法通常仅能处理部分能力,或难以应对竞赛级问题。本文提出Euclid-Omni,这是一个将形式几何系统与大语言模型(LLMs)、视觉语言模型(VLMs)相结合的统一神经符号框架,可处理形式语言与自然语言中的计算类和证明类问题,难度达到奥林匹克竞赛级别。其核心是开发了通用符号几何求解器Euclidea,该求解器通过演绎推理与代数计算自动生成推理步骤。在此基础上,本文开发了数据生成流水线,可合成符号问题与解答、渲染图形并将其转换为自然语言,生成大规模、多样化的数据集,用于在多种推理场景下训练LLMs与VLMs。实验表明,在本文合成数据上训练的VLMs在计算任务上表现优异;结合Euclidea的LLMs在奥林匹克竞赛级证明问题上的性能可与最先进系统相媲美,且使用的计算资源与训练数据量仅为后者的几个数量级。代码与脚本已公开于此httpsURL。

英文摘要

Euclidean geometry is a compelling testbed for AI reasoning, as it demands the combination of intuitive diagram understanding, axiomatic deduction, and algebraic computation. Yet, existing approaches typically address only a subset of these abilities or struggle with competition-level problems. We introduce \textit{Euclid-Omni}, a unified neuro-symbolic framework that couples a formal geometry system with Large Language Models (LLMs) and Vision-Language Models (VLMs) to tackle both calculation- and proving-style problems, in formal and natural languages, up to Olympiad-level difficulty. At its core, we develop \textit{Euclidea}, a versatile symbolic geometry solver that automatically generates reasoning steps through deductive inference and algebraic computation. Building on this, we develop a data-generation pipeline that synthesizes symbolic problems and solutions, renders diagrams, and translates them into natural language, producing large-scale, diverse datasets for training LLMs and VLMs across a wide range of reasoning settings. Experiments show that VLMs trained on our synthetic data achieve superior performance on calculation tasks, and that LLMs combined with \textit{Euclidea} are competitive with state-of-the-art systems on Olympiad-level proving problems, despite using orders of magnitude less compute and training data. Code and scripts are publicly available at https://github.com/20171130/Euclid-Omni

论文原文

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