大学化学

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基于NO3-/CO32-插层NiFe-LDH的电解海水析氧性能研究——推荐一个大学化学综合实验

吕燕   

  1. 新疆大学化学学院, 新疆 乌鲁木齐 830017
  • 收稿日期:2026-04-07 录用日期:2026-05-14
  • 通讯作者: 吕燕 E-mail:lvyan2014@xju.edu.cn Yan Lü
  • 基金资助:
    新疆大学研究生精品示范课程《现代分析测试方法》(XJDX2024YJPK04)

Study on the oxygen evolution performance of seawater electrolysis using NO3-/CO32- intercalated NiFe-LDH: recommendation for a comprehensive university chemistry experiment

Yan Lü   

  1. College of Chemistry, Xinjiang University, Urumqi 830017, Xinjiang Uygur Autonomous Region, China
  • Received:2026-04-07 Accepted:2026-05-14
  • Contact: Yan Lü E-mail:lvyan2014@xju.edu.cn

摘要: 立足电解水制氢领域研究热点,本文推荐大学化学综合实验“基于NO3-/CO32-插层NiFe-LDH的电解海水析氧性能研究”。实验采用电化学沉积法和离子交换法依次制备NO3-/CO32-插层的NiFe-LDH催化剂;通过X射线衍射、红外光谱和扫描电子显微镜对其物相和形貌结构进行表征;系统研究其在碱性模拟海水中的析氧反应(OER)活性、选择性、抗氯腐蚀性及稳定性,对比NO3-与CO32-插层NiFe-LDH的性能差异并结合文献分析其构效关系。该综合实验实现了前沿科研与教学的深度融合,涵盖了科学研究的一般思路,实验内容涉及物理化学、分析化学、材料化学等多学科知识,既能巩固学生基础理论知识,又能搭建理论服务实践的桥梁,有效培养学生的综合实验技能和科研创新能力,建议纳入化学专业高年级综合实验课程。

关键词: 科教融合, 电解海水制氢, 析氧反应, 抗氯腐蚀, 阴离子排斥

Abstract: Focusing on current research hotspots in hydrogen production via water electrolysis, this paper recommends a comprehensive university chemistry experiment titled “Study on the Oxygen Evolution Performance of Seawater Electrolysis Using NO3-/CO32- Intercalated NiFe-LDH”. In this experiment, NO3-/CO32- intercalated NiFe-LDH catalysts are prepared sequentially using electrochemical deposition and ion exchange methods. Their phase and morphological structures are characterized by X-ray diffraction, infrared spectroscopy, and scanning electron microscopy. The oxygen evolution reaction (OER) activity, selectivity, chlorine corrosion resistance, and stability of the catalysts are systematically investigated in alkaline simulated seawater. The performance differences between NO3- and CO32- intercalated NiFe-LDH are compared, and the structure–activity relationship is analyzed with reference to the literature. This comprehensive experiment achieves a deep integration of cutting-edge research with teaching. It follows the general paradigm of scientific inquiry and involves multidisciplinary knowledge from physical chemistry, analytical chemistry, and materials chemistry. The experiment not only consolidates students’ fundamental theoretical knowledge but also bridges the gap between theory and practice, effectively cultivating students’ comprehensive experimental skills and research innovation capabilities. It is recommended for inclusion in the comprehensive experimental curriculum for senior chemistry majors.

Key words: Integration of science and education, Seawater electrolysis for hydrogen production, Oxygen evolution reaction, Chlorine corrosion resistance, Anion exclusion