碱性膜电解水制氢技术现状与展望

被引:55
作者
王培灿
万磊
徐子昂
许琴
王保国
机构
[1] 清华大学化学工程系
基金
国家重点研发计划;
关键词
制氢; 催化剂; 膜; 电解; 膜电极;
D O I
暂无
中图分类号
TQ116.2 [氢气];
学科分类号
082801 [农业机械化工程];
摘要
开发清洁高效的可再生能源是未来能源转型的必然趋势。氢能作为一种绿色无污染的能源载体,可通过电解水技术实现氢能与电能的高效转化,有望作为风力、光伏发电的重要调节手段。碱性膜电解水制氢能够提高电流密度,增加能量转化效率,优于碱性水溶液电解水制氢;与此同时,可采用铁、镍等非贵金属制备催化剂,克服质子交换膜电解水制氢使用贵金属催化剂带来的设备昂贵、资源受限问题。本文综述了碱性膜电解制氢技术发展现状,重点围绕自支撑催化电极、耐碱腐蚀离子膜、有序结构膜电极开展讨论,包括催化剂制备策略,耐碱离子膜发展现状,以及有序化膜电极的应用优势,阐释电化学工程中的传质与反应耦合原理。本文为进一步研究开发高性能电化学关键材料提供了指导思路,推动电解水制氢技术的发展。
引用
收藏
页码:6161 / 6175
页数:15
相关论文
共 66 条
[1]
高稳定碱性离子膜分子设计研究进展 [J].
徐子昂 ;
万磊 ;
刘凯 ;
王保国 .
化工学报, 2021, 72 (08) :3891-3906
[2]
In situ growth of 3D walnut-like nano-architecture Mo-Ni_2PNiFeLDH/NF arrays for synergistically enhanced overall water splitting.[J].Zhi Yang;Yu Lin;Feixiang Jiao;Jinhui Li;Jinlei Wang;Yaqiong Gong;.Journal of Energy Chemistry.2020, 10@
[3]
A Superaerophobic Bimetallic Selenides Heterostructure for Efficient Industrial-Level Oxygen Evolution at Ultra-High Current Densities [J].
Jiaxin Yuan ;
Xiaodi Cheng ;
Hanqing Wang ;
Chaojun Lei ;
Sameer Pardiwala ;
Bin Yang ;
Zhongjian Li ;
Qinghua Zhang ;
Lecheng Lei ;
Shaobin Wang ;
Yang Hou .
Nano-Micro Letters, 2020, 12 (08) :217-228
[4]
Self-Supported Electrocatalysts for Practical Water Electrolysis [J].
Yang, Hongyuan ;
Driess, Matthias ;
Menezes, Prashanth W. .
ADVANCED ENERGY MATERIALS, 2021, 11 (39)
[5]
Cu-Co-P electrodeposited on carbon paper as an efficient electrocatalyst for hydrogen evolution reaction in anion exchange membrane water electrolyzers [J].
Guo, Wenwu ;
Kim, Junhyeong ;
Kim, Hyunki ;
Ahn, Sang Hyun .
INTERNATIONAL JOURNAL OF HYDROGEN ENERGY, 2021, 46 (38) :19789-19801
[6]
Low-Loading and Highly Stable Membrane Electrode Based on an IrWO<sub>x</sub>NR Ordered Array for PEM Water Electrolysis..[J].Jiang Guang;Yu Hongmei;Li Yonghuan;Yao Dewei;Chi Jun;Sun Shucheng;Shao Zhigang.ACS applied materials & interfaces.2021, 13@
[7]
H 2 SO 4 -doped polybenzimidazole membranes for hydrogen production with acid-alkaline amphoteric water electrolysis.[J].Lei Wan;Ziang Xu;Peican Wang;Yuqun Lin;Baoguo Wang.Journal of Membrane Science.2021,
[8]
Superior performance of anion exchange membrane water electrolyzer: Ensemble of producing oxygen vacancies and controlling mass transfer resistance.[J].Yoo Sei Park;Juchan Yang;Jongmin Lee;Myeong Je Jang;Jaehoon Jeong;Woo-Sung Choi;Yangdo Kim;Yadong Yin;Min Ho Seo;Zhongwei Chen;Sung Mook Choi.Applied Catalysis B: Environmental.2020,
[9]
Activity and stability of Ir-based gas diffusion electrode for proton exchange membrane water electrolyzer.[J].Oh Jeong Hyun;Han Gyeong Ho;Kim Hyunki;Jang Ho Won;Park Hyun S.;Kim Soo Young;Ahn Sang Hyun.Chemical Engineering Journal.2020, P2
[10]
Corrosion-engineered bimetallic oxide electrode as anode for high-efficiency anion exchange membrane water electrolyzer.[J].Lee Jooyoung;Jung Hyeonjung;Park Yoo Sei;Woo Seongwon;Kwon Nayoung;Xing Yaolong;Oh Sang Ho;Choi Sung Mook;Han Jeong Woo;Lim Byungkwon.Chemical Engineering Journal.2020, P2