arXiv:2601.07635cond-mat.dis-nncs.AI2026-01

用自旋玻璃启发的霍普菲尔德模型,打通物理与人工智能教学的桥梁。

Learning About Learning: A Path from Spin Glasses to Artificial Intelligence

  • 以能量函数和动态演化为核心,构建物理与神经网络的统一框架。
  • 通过模拟代码与习题设计,实现从理论到实践的完整教学闭环。
  • 适合物理、计算机交叉学科的本科生课程,提升跨领域理解力。

霍普菲尔德模型最初源于自旋玻璃研究,在统计力学、神经网络与人工智能交界处占据核心地位。尽管概念简洁且应用广泛,却很少进入本科物理课程。本文将其作为教学丰富的框架,自然融合本科物理核心内容,基于能量函数、动力学与模式稳定性等概念,提供简明易懂的入门介绍。文中讨论了模拟实现的实用细节,并提供可运行代码。同时提出贴近科研实践的问题,可直接用于本科教学。

原文摘要 · Abstract (English)

The Hopfield model, originally inspired by spin glasses, occupies a central place at the intersection of statistical mechanics, neural networks, and artificial intelligence. Despite its conceptual simplicity and broad applicability, it is rarely integrated into the undergraduate physics curriculum. We present the Hopfield model as a pedagogically rich framework that naturally unifies core topics from the undergraduate physics curriculum and that provides a concise introduction based on concepts such as a model's energy function, dynamics, and pattern stability. We discuss practical aspects of its simulation and provide simulation codes. We also propose problems designed to mirror research practice, which can be included in undergraduate classes.

神经网络物理教学模型仿真

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