大学化学

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能源化学专业“纳米能源材料与器件”课程体系重构与实践

赵逸, 相国磊, 杨文胜   

  1. 北京化工大学化学学院, 北京 100029
  • 收稿日期:2026-07-24 录用日期:2026-08-24
  • 通讯作者: 赵逸 E-mail:zybattery@buct.edu.cn Yi Zhao
  • 基金资助:
    北京化工大学化学学院2024年本科教育教学改革研究项目(2026HXJG10,2024HXJG11,2025HXJG11)

Reconstruction and practice of the “nano energy materials and devices” curriculum for energy chemistry major

Yi Zhao, Guolei Xiang, Wensheng Yang   

  1. College of Chemistry, Beijing University of Chemical Technology, Beijing 100029, China
  • Received:2026-07-24 Accepted:2026-08-24
  • Contact: Yi Zhao E-mail:zybattery@buct.edu.cn

摘要: “纳米能源材料与器件”是面向北京化工大学化学学院能源化学专业以及相关交叉学科开设的本科生重点理论课。本文系统介绍该课程在纳米能源相关知识体系重构、教学模式改革创新、实践环节设计及考核评价闭环等方面的探索与实践经验。课程围绕可再生能源转换与存储核心需求,构建氢能技术、电化学储能、纳米电催化、理论模拟与前沿融合等核心知识模块,为能源化学专业学生搭建“材料设计-器件构建-产业应用”的全链条认知桥梁。教学采用“前沿需求牵引、师生研讨驱动”的协同教学模式,以新能源领域技术瓶颈为导引,结合纳米能源材料研究实例,引导学生在文献调研、方案论证与课堂研讨中自主搭建知识体系。本课程建设经验可为新能源材料与器件、氢能科学与工程以及新能源科学与工程等“四新”相关能源化学课程建设和教学改革提供范例。

关键词: 能源化学, 纳米能源材料与器件, 新能源技术, 课程体系重构, 协同教学模式

Abstract: “Nano Energy Materials and Devices” is a key undergraduate theoretical course offered for the Energy Chemistry major and related interdisciplinary programs in the College of Chemistry at Beijing University of Chemical Technology. This paper systematically presents the exploration and practical experience in reconstructing the nano-energy knowledge system, innovating the teaching mode, designing practical teaching sessions, and establishing a closed-loop assessment mechanism. Centered on the core demand for renewable energy conversion and storage, the course establishes essential knowledge modules covering hydrogen energy technology, electrochemical energy storage, nano-electrocatalysis, theoretical simulation, and cutting-edge integration, thereby building a full-chain cognitive framework of “material design–device construction–industrial application” for students in the Energy Chemistry major. A collaborative teaching paradigm of “frontier demand-guided and teacher–student discussion-driven” is adopted. Guided by technical bottlenecks in the new energy field and combined with research cases of nanoenergy materials, students are encouraged to independently construct their knowledge system through literature research, scheme demonstration, and classroom discussion. The experience gained from this course can serve as a valuable reference for the development and teaching reform of energy chemistry-related courses under the “Four New” majors, such as New Energy Materials and Devices, Hydrogen Science and Engineering, and New Energy Science and Engineering.

Key words: Energy chemistry, Nano energy materials and devices, New energy technology, Reconstruction of curriculum system, Collaborative teaching model