Anil Kumar Yedluri, Roy Nipa, Ramachandran Tholkappiyan, Assiri Mohammed A, Srinivasa Rao Sunkara, Moniruzzaman Md, Joo Sang Woo
Saveetha School of Engineering, Saveetha Institute of Medical and Technical Sciences, Saveetha University, Chennai 602105, Tamil Nadu, India.
Department of Physics, Yeungnam University, Gyeongsan 38541, Republic of Korea.
Dalton Trans. 2024 Jul 30;53(30):12410-12433. doi: 10.1039/d4dt01133c.
Due to their distinctive security characteristics, all-solid-state batteries are seen as a potential technology for the upcoming era of energy storage. The flexibility of nanomaterials shows enormous potential for the advancement of all-solid-state batteries' exceptional power and energy storage capacities. These batteries might be applied in many areas such as large-scale energy storage for power grids, as well as in the creation of foldable and flexible electronics, and portable gadgets. The most difficult aspect of creating a comprehensive nanoscale all-solid-state battery assembly is the task of decreasing the particle size of the solid electrolyte while maintaining its excellent ionic conductivity. Materials possessing nanoscale structural features and a substantial electrochemically active surface area have the potential to significantly enhance power characteristics and the cycle life. This might bring about substantial changes to existing energy storage models. The primary objective of this research is to summarize the latest advancements in utilizing nanomaterials for energy harvesting in various all-solid-state battery assemblies. This study examines the most complex solid-solid interfaces of all-solid-state batteries, as well as feasible methods for implementing nanomaterials in such interfaces. Currently, there is significant attention on the necessity to develop electrode-solid electrolyte interfaces that exhibit nanoscale particle articulation and other characteristics related to the behavior of lithium ions.
由于其独特的安全特性，全固态电池被视为即将到来的储能时代的一项潜在技术。纳米材料的灵活性在提升全固态电池卓越的功率和储能能力方面显示出巨大潜力。这些电池可应用于许多领域，如电网的大规模储能，以及可折叠和柔性电子产品及便携式设备的制造。创建一个全面的纳米级全固态电池组件最困难的方面是在保持固体电解质优异离子电导率的同时减小其粒径的任务。具有纳米级结构特征和大量电化学活性表面积的材料有潜力显著提高功率特性和循环寿命。这可能给现有的储能模式带来重大变革。本研究的主要目的是总结在各种全固态电池组件中利用纳米材料进行能量收集的最新进展。本研究考察了全固态电池最复杂的固-固界面，以及在这种界面中应用纳米材料的可行方法。目前，人们非常关注开发具有纳米级颗粒结构及与锂离子行为相关的其他特性的电极-固体电解质界面的必要性。
