Sheng Lin, Feng Junrun, Gong Manxi, Zhang Lun, Harding Jonathan, Hao Zhangxiang, Wang Feng Ryan
School of Mechanical and Electronic Engineering, Suzhou University, Suzhou 234000, China.
School of Science, School of Chip Industry, Hubei University of Technology, Wuhan 430068, China.
Molecules. 2024 Mar 11;29(6):1234. doi: 10.3390/molecules29061234.
Magnesium-sulfur batteries are an emerging technology. With their elevated theoretical energy density, enhanced safety, and cost-efficiency, they have the ability to transform the energy storage market. This review investigates the obstacles and progress made in the field of electrolytes which are especially designed for magnesium-sulfur batteries. The primary focus of the review lies in identifying electrolytes that can facilitate the reversible electroplating and stripping of Mg ions whilst maintaining compatibility with sulfur cathodes and other battery components. The review also addresses the critical issue of managing the shuttle effect on soluble magnesium polysulfide by looking at the innovative engineering methods used at the sulfur cathode's interface and in the microstructure design, both of which can enhance the reaction kinetics and overall battery efficiency. This review emphasizes the significance of reaction mechanism analysis from the recent studies on magnesium-sulfur batteries. Through analysis of the insights proposed in the latest literature, this review identifies the gaps in the current research and suggests future directions which can enhance the electrochemical performance of Mg-S batteries. Our analysis highlights the importance of innovative electrolyte solutions and provides a deeper understanding of the reaction mechanisms in order to overcome the existing barriers and pave the way for the practical application of Mg-S battery technology.
镁硫电池是一项新兴技术。凭借其较高的理论能量密度、更高的安全性和成本效益,它们有能力改变储能市场。本综述研究了专门为镁硫电池设计的电解质领域所面临的障碍和取得的进展。综述的主要重点在于确定能够促进镁离子可逆电镀和脱镀同时与硫阴极及其他电池组件保持兼容性的电解质。该综述还通过研究在硫阴极界面和微观结构设计中使用的创新工程方法来解决管理可溶性多硫化镁穿梭效应这一关键问题,这两种方法都可以提高反应动力学和整体电池效率。本综述强调了从近期镁硫电池研究中进行反应机理分析的重要性。通过分析最新文献中提出的见解,本综述确定了当前研究中的差距,并提出了可以提高镁硫电池电化学性能的未来方向。我们的分析突出了创新电解质溶液的重要性,并提供了对反应机理的更深入理解,以克服现有障碍并为镁硫电池技术的实际应用铺平道路。