Jianxin Zou is a full professor at the School of Materials Science and Engineering, Shanghai Jiao Tong University. He received his Ph.D. degree from Dalian University of Technology and Université de Lorraine, France. He then worked at Université de Lorraine and University of British Columbia as a postdoctoral research associate. His major research interests include magnesium based complex hydride materials for hydrogen storage, preparation and characterization of nano-functional materials, and application of nano-materials in clean energy. Yanna NuLi received her Ph.D. degree from Fudan University in 2001. After completing her postdoctoral research at Fudan, she joined Shanghai Jiao Tong University in 2003. Her main research interests focus on rechargeable magnesium batteries with high energy densities, including Mg-S, Mg-air, aqueous Mg-ion batteries, and Mg2+-Li+ hybrid batteries. Zhigang Hu is an Associate Professor and Doctoral Supervisor at the Centre of Hydrogen Science, School of Materials Science and Engineering, Shanghai Jiao Tong University. His main research interests include advanced porous adsorbent materials, adsorptive & membrane separation, carbon capture and conversion, hydrogen and ammonia energy. Xi Lin, Research Associate, Shanghai Jiao Tong University, Shanghai, China. He was graduated from Shanghai University majoring in Materials Science at 2020. He is focused on the studies of hydrogen storage materials, and the numerical simulation and experiment of solid-state hydrogen storage tank. Qiuyu Zhang, Research Associate, Shanghai Jiao Tong University, Shanghai, China.
Inhaltsangabe
1 OVERVIEW 1.1 Introduction of Mg-based hydrogen and electric energy materials 1.2 Overview of Mg-based hydrogen storage materials and systems 1.3 Overview of Mg-ion batteries
2 HYDROGEN ABSORPTION/DESORPTION IN MG-BASED MATERIALS AND THEIR APPLICATIONS 2.1 The characterizations of Mg-based hydrogen storage materials 2.2 Methods for improving the hydrogen storage performance of Mg-based materials 2.3 Synthesis technologies for Mg-based hydrogen storage materials 2.4 Advanced characterization techniques 2.5 Fundamentals and applications of Mg-based hydrogen storage tanks
3 HYDROLYSIS OF MG-BASED HYDROGEN STORAGE MATERIALS 3.1 Hydrolysis processes of Mg/MgH2 3.2 Control of hydrolysis processes 3.3 Controllable hydrolysis systems
4 ELECTROLYTES FOR MG BATTERIES 4.1 Liquid electrolytes 4.2 Solid and quasi-solid state electrolytes
5 CATHODES AND ANODES FOR MG BATTERIES 5.1 Intercalation-type cathode materials 5.2 Conversion-type cathode materials 5.3 Organic cathodes 5.4 Anodes for Mg batteries
1 OVERVIEW 1.1 Introduction of Mg-based hydrogen and electric energy materials 1.2 Overview of Mg-based hydrogen storage materials and systems 1.3 Overview of Mg-ion batteries
2 HYDROGEN ABSORPTION/DESORPTION IN MG-BASED MATERIALS AND THEIR APPLICATIONS 2.1 The characterizations of Mg-based hydrogen storage materials 2.2 Methods for improving the hydrogen storage performance of Mg-based materials 2.3 Synthesis technologies for Mg-based hydrogen storage materials 2.4 Advanced characterization techniques 2.5 Fundamentals and applications of Mg-based hydrogen storage tanks
3 HYDROLYSIS OF MG-BASED HYDROGEN STORAGE MATERIALS 3.1 Hydrolysis processes of Mg/MgH2 3.2 Control of hydrolysis processes 3.3 Controllable hydrolysis systems
4 ELECTROLYTES FOR MG BATTERIES 4.1 Liquid electrolytes 4.2 Solid and quasi-solid state electrolytes
5 CATHODES AND ANODES FOR MG BATTERIES 5.1 Intercalation-type cathode materials 5.2 Conversion-type cathode materials 5.3 Organic cathodes 5.4 Anodes for Mg batteries
6 CONCLUSIONS AND OUTLOOK
7 ABBREVIATION LIST
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