大学化学

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物理化学课程中电化学知识体系重构与教学实施建议

胡吉明   

  1. 浙江大学化学系, 浙江 杭州 310058
  • 收稿日期:2026-08-05 录用日期:2026-09-16
  • 通讯作者: 胡吉明 E-mail:kejmhu@zju.edu.cn Jiming Hu
  • 基金资助:
    2025年度浙江大学本科智慧慕课建设项目;浙江省2025年本科教育省级教学改革项目(JGCG2025484)

Suggestions for reconstruction of the electrochemistry knowledge system and teaching implementation in physical chemistry courses

Jiming Hu   

  1. Department of Chemistry, Zhejiang University, Hangzhou 310058, Zhejiang Province, China
  • Received:2026-08-05 Accepted:2026-09-16
  • Contact: Jiming Hu E-mail:kejmhu@zju.edu.cn

摘要: 电化学是支撑新能源、新材料、环境治理等国家战略领域的基础学科,也是物理化学课程的核心教学内容。当前国内多数高校在物理化学课程中对电化学内容存在体系弱化、概念溯源不足、理论与前沿脱节等问题,难以满足基础学科拔尖人才和新工科人才培养需求。本文系统梳理我国电化学教育发展脉络,对比国内外物理化学教材电化学内容编排差异,提出以基础溯源、逻辑重构、前沿融入为导向的电化学知识体系新框架;并以电化学热力学为例,给出基于电化学势、从单电极本质出发的课堂教学设计与实施路径。实践表明,该教学体系有助于学生建立清晰的电化学概念框架、理解电极电势与能斯特方程的物理本质,可为高校物理化学课程电化学教学改革提供参考。

关键词: 电化学, 物理化学, 知识框架, 教学改革

Abstract: Electrochemistry is a fundamental discipline that supports strategic national fields such as new energy, new materials, and environmental governance, and it is also a core component of physical chemistry courses. At present, most domestic universities face problems in the electrochemistry content of physical chemistry courses, including weakened systematic structure, insufficient tracing of conceptual origins, and a disconnect between theory and frontiers, making it difficult to meet the training needs of top-notch foundational talents and emerging engineering talents. This paper systematically reviews the development trajectory of electrochemistry education in China, compares differences in the organization of electrochemistry content in domestic and international physical chemistry textbooks, and proposes a new framework for the electrochemistry knowledge system guided by foundational tracing, logical reconstruction, and frontier integration. Taking electrochemical thermodynamics as an example, it provides a classroom teaching design and implementation pathway based on electrochemical potential and starting from the intrinsic nature of single electrodes. Practice shows that this teaching system helps students establish a clear conceptual framework of electrochemistry and understand the physical essence of electrode potential and the Nernst equation, and it can provide a reference for electrochemistry teaching reform in physical chemistry courses at universities.

Key words: Electrochemistry, Physical chemistry, Knowledge framework, Teaching reforms