arXiv:2507.04053cond-mat.mtrl-scics.AI2025-07被引 8

用AI代理系统加速拓扑材料发现,自动生成结构并验证

TopoMAS: Large Language Model Driven Topological Materials Multiagent System

  • 构建多智能体系统,从用户提问到结构生成全流程自动化
  • 轻量模型达94.55%准确率,耗能仅大模型的83%左右
  • 适合材料科学家与AI协作,推动计算驱动的材料发现

拓扑材料因其独特的电子与量子性质处于凝聚态物理前沿,但跨尺度设计仍受限于低效的发现流程。本文提出TopoMAS(拓扑材料多智能体系统),一个交互式人机协同框架,无缝整合材料发现全链条:从用户查询、多源数据检索,到理论推断、晶格结构生成,再到第一性原理验证。关键在于,TopoMAS通过将计算结果自动融入动态知识图谱,实现知识持续优化。与专家合作中,已成功指导发现新型拓扑相SrSbO3,经第一性原理计算确认。综合基准测试表明,该系统对不同基础大语言模型具有强适应性,轻量版Qwen2.5-72B模型达到94.55%准确率,仅需Qwen3-235B 74.3–78.4%的词元消耗,且为DeepSeek-V3的83.0%,响应速度达Qwen3-235B的两倍。这一效率使TopoMAS成为计算驱动发现流程的加速器。通过理性智能体协调与自演化知识图谱的融合,本框架不仅推动拓扑材料研究,更建立可迁移、可扩展的材料科学新范式。

原文摘要 · Abstract (English)

Topological materials occupy a frontier in condensed-matter physics thanks to their remarkable electronic and quantum properties, yet their cross-scale design remains bottlenecked by inefficient discovery workflows. Here, we introduce TopoMAS (Topological materials Multi-Agent System), an interactive human-AI framework that seamlessly orchestrates the entire materials-discovery pipeline: from user-defined queries and multi-source data retrieval, through theoretical inference and crystal-structure generation, to first-principles validation. Crucially, TopoMAS closes the loop by autonomously integrating computational outcomes into a dynamic knowledge graph, enabling continuous knowledge refinement. In collaboration with human experts, it has already guided the identification of novel topological phases SrSbO3, confirmed by first-principles calculations. Comprehensive benchmarks demonstrate robust adaptability across base Large Language Model, with the lightweight Qwen2.5-72B model achieving 94.55% accuracy while consuming only 74.3-78.4% of tokens required by Qwen3-235B and 83.0% of DeepSeek-V3's usage--delivering responses twice as fast as Qwen3-235B. This efficiency establishes TopoMAS as an accelerator for computation-driven discovery pipelines. By harmonizing rational agent orchestration with a self-evolving knowledge graph, our framework not only delivers immediate advances in topological materials but also establishes a transferable, extensible paradigm for materials-science domain.

拓扑材料多智能体AI科研知识图谱

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