Hydrogen Production, Storage, and Utilization
Editat de Siyu Yeen Limba Engleză Hardback – 2 dec 2026
Bridging laboratory-scale catalyst development and industrial-scale membrane electrode assembly manufacturing remains a central challenge in hydrogen energy research. Hydrogen Production, Storage, and Utilization: From Materials to Systems Design and Commercialization, edited by Siyu Ye, a Fellow of the Canadian Academy of Engineering, provides a rigorous treatment of advanced materials for HOR, HER, ORR, and OER reactions alongside electrochemical cell design for both low-temperature and high-temperature operation.
The book reviews fundamentals, current bottlenecks, and future perspectives for key electrocatalytic materials used in fuel cells and water electrolysis. It details state-of-the-art characterization methods including synchrotron radiation and in-situ FTIR, examines artificial intelligence applications in materials and device development, and analyzes industrial production data to map commercialization progress in large-scale membrane electrode assembly manufacturing.
Readers will also find:
- Systematic coverage of catalyst layer and MEA design principles for protonic exchange membrane fuel cells and electrolysis cells
- Detailed analysis of research advancements, technical bottlenecks, and remaining challenges across hydrogen energy material classes
- State-of-the-art characterization techniques including synchrotron radiation and in-situ FTIR applied to hydrogen energy systems
- Exploration of artificial intelligence methods accelerating the discovery and optimization of electrocatalytic materials and devices
- Industrial production data analysis presenting current developments in large-scale commercialization of hydrogen energy technologies
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Specificații
ISBN-10: 3527354697
Pagini: 496
Dimensiuni: 170 x 244 mm
Greutate: 0.96 kg
Editura: Wiley-VCH GmbH
Notă biografică
Ning Wang is an associate professor at Guangzhou University. She obtained her Ph.D. at Hokkaido University, Japan. She is a recipient of the Pearl River Talents Overseas Young Talents Program and the Yangfan Plan Project (provincial-level talent programs). Her research focuses on the interdisciplinary intersection of AI with key materials and devices for hydrogen energy and fuel cells. Over the past five years, she has published more than 20 papers as first/corresponding author in high-impact journals including Adv. Mater., eScience, Nano-Micro Lett., Adv. Energy Mater., Adv. Funct. Mater., and so on. She has received the China Energy Catalysis Rising Star Award and the First Prize in the Guangzhou University Young Teacher Teaching Competition. She serves as a Young Editorial Board Member for journals such as eScience and Nano-Micro Lett., and as a reviewer for Nature Communications, Advanced Energy Materials, and other journals.
Lei Du is an Associate Professor at Guangzhou University. Before moving to Guangzhou, he was a postdoctoral fellow at Institut National de la Recherche Scientifique (Canada) and a lecturer at Harbin Institute of Technology (China). He received Ph.D. degree in 2017 from Harbin Institute of Technology. His main research interests include electrocatalysis in energy conversion and storage - new materials and new mechanisms, electrochemical device integration. He is the recipient of the Outstanding Youth Project of Natural Science Foundation of Guangdong Province, and is named to the Elsevier/Stanford University's Top 2% Scientist list (2023-2025).
Cuprins
Preface xv
1 Production and Application of Hydrogen and Oxygen 1
Zhanhong Chen and Lei Du
1.1 Hydrogen Production Technologies 2
1.2 Oxygen Production Technologies 11
1.3 Effective Utilization of Hydrogen and Oxygen 14
1.4 Key Support Systems for Hydrogen and Oxygen Technologies 16
1.5 Future Outlook and Challenges of Hydrogen and Oxygen Technologies 21
1.6 Cross-Domain Integrated Application Cases of Hydrogen and Oxygen Technologies 24
1.7 Summary and Connection 26
2 Storage Technology of Hydrogen Energy 29
Xiaohua Yang, Xuan Sun, Hao Chen, and Qian Li
2.1 Physical Storage 31
2.2 Chemical Storage 36
2.3 Conclusion and Prospects 51
3 Advanced Materials for Hydrogen Evolution Reaction 59
Zonghua Pu and Tingting Liu
3.1 Noble Metal-Based Materials 59
3.2 Transition-Metal-Based Materials 65
3.3 Metal-Free Materials 77
3.4 Molecular Catalysts 79
4 Advanced Materials for the Hydrogen Oxidation Reaction 89
Ruiwen Qi and Zhongxin Song
4.1 Reaction Mechanism of HOR 89
4.2 Noble Metal Catalysts 92
4.3 Non-Noble Metal Catalysts 102
4.4 Long-Term Stability of HOR Catalysts 105
4.5 Summary and Prospect 111
5 Advanced Electrocatalysts for Oxygen Reduction Reaction 119
Siyuan Wang, Liang Xie, Wei Zhou, and Fanpeng Kong
5.1 Introduction 119
5.2 Fundamental Mechanism of the 2e¿ ORR Pathway 120
5.3 Catalyst Materials for 2e¿ ORR 122
5.4 GDEs for H2O2 Production 126
5.5 Pulsed 2e¿ ORR 128
5.6 Fundamentals and Challenges of the 4e¿ ORR 128
5.7 Key Challenges in Low-Pt 4e¿ ORR Catalysts 130
5.8 Strategies for Enhancing Intrinsic Activity 134
5.9 Strategies for Improving Catalyst Stability 147
5.10 Strategies for Optimizing Mass Transport 154
5.11 Conclusion 165
6 Advanced Materials for Oxygen Evolution Reaction 183
Jiawen Cheng, Fusheng Huang, Boqiu Luo, Jiayang Li, and Lixin Xing
6.1 Introduction 183
6.2 The Basic Principle of OER 185
6.3 Advanced Materials for OERs 188
6.4 Strategies for Improving the OER Performance of Materials 204
6.5 Characterization and Testing Methods of Material Properties 210
6.6 Selection of OER Materials in Different Application Scenarios 210
6.7 Challenges and Prospects 213
7 Advances and Challenges in PEMFC/WE 219
Hushan Liu and Ling Meng
7.1 Introduction 219
7.2 Proton Exchange Membranes 220
7.3 Electrocatalysts 222
7.4 Gas Diffusion Layers 225
7.5 Bipolar Plates 228
7.6 Integrated Material Challenges and System-Level Considerations 231
7.7 Future Directions and Conclusion 233
8 Advances and Challenges in P-SOFC/EC 237
Chunmei Tang, Baoyin Yuan, and Ning Wang
8.1 Introduction 237
8.2 Fundamentals of P-SOFC/EC 238
8.3 Materials and Components of P-SOFC/EC 248
8.4 Advances of P-SOFC 261
8.5 Advances of P-SOEC 270
8.6 Challenges of P-SOFC/EC 285
8.7 Summary and Perspectives of P-SOFC/EC 288
9 Advances and Challenges in O-SOFC/EC 299
Xuepeng Xiang and Yan Chen
9.1 Research Background 299
9.2 Key Components for High Temperature Electrochemistry 299
9.3 Conclusion 311
10 Advanced Characterization Techniques in Hydrogen Energy Research 321
Shuru Huang and Dongxiang Luo
10.1 Electrochemical Testing Methods 321
10.2 Universal Characterization Methods 333
10.3 Microscopic Characterization Methods 351
11 Machine Learning Guided Research and Development of Key Materials for Water Electrolysis and Fuel Cells 363
Baoyin Yuan, Chunmei Tang, and Ning Wang
11.1 Introduction 363
11.2 ML Processes for Materials Development 365
11.3 Advanced Electrolyte Materials Developed by ML 367
11.4 Advanced Electrode Materials Developed by ML 369
11.5 Challenges and Solutions of ML in Developing Materials 380
11.6 Perspectives in Developing Key Materials 382
11.7 Conclusions 383
12 Large-Scale Manufacturing of Membrane Electrode Assembly 389
Pinqing Li, Rongfu Hong, Fusheng Huang, Jie Huang, and Ruyi Zhong
12.1 Introduction 389
12.2 Structure and Function of MEA 390
12.3 Manufacturing Process of MEA 395
12.4 Coating of MEA 396
12.5 Long-Term Stability of Electrocatalysts 407
12.6 Large-Scale Manufacturing of MEA 412
12.7 Summary and Prospect 414
13 Theoretical Mechanism and Practice of Water Electrolysis and Fuel Cells: Heat and Power Cogeneration 427
Bin Gao and Yuekuan Zhou
13.1 Introduction 427
13.2 Water Electrolysis-Based Hydrogen Production 428
13.3 Fuel Cell Combined Heat and Power Cogeneration 435
13.4 Hybrid Renewable Energy System 441
13.5 Challenges and Prospects 444
References 445
Index 449