Radiation effects on materials for electrochemical energy storage systems

• Published in: Physical chemistry chemical physics : PCCP 2023-11, Vol.25 (45), p.3761-3784
• Main Authors: Olsen, Tristan, Koroni, Cyrus, Liu, Yuzi, Russell, Joshua A, Wharry, Janelle P, Xiong, Hui
• Format: Article
• Language: English
• Subjects: Aerospace industry; Automobile industry; Automobiles; Defects; Electric power grids; Electric vehicles; Electrochemical analysis; Energy storage; Interfacial properties; Mechanical properties; Performance measurement; Radiation; Radiation damage; Radiation effects; Storage systems; Synthesis
• ISSN: 1463-9076; 1463-9084
• DOI: 10.1039/d3cp02697c

Batteries and electrochemical capacitors (ECs) are of critical importance for applications such as electric vehicles, electric grids, and mobile devices. However, the performance of existing battery and EC technologies falls short of meeting the requirements of high energy/high power and long durability for increasing markets such as the automotive industry, aerospace, and grid-storage utilizing renewable energies. Therefore, improving energy storage materials performance metrics is imperative. In the past two decades, radiation has emerged as a new means to modify functionalities in energy storage materials. There exists a common misconception that radiation with energetic ions and electrons will always cause radiation damage to target materials, which might potentially prevent its applications in electrochemical energy storage systems. But in this review, we summarize recent progress in radiation effects on materials for electrochemical energy storage systems to show that radiation can have both beneficial and detrimental effects on various types of energy materials. Prior work suggests that fundamental understanding toward the energy loss mechanisms that govern the resulting microstructure, defect generation, interfacial properties, mechanical properties, and eventual electrochemical properties is critical. We discuss radiation effects in the following categories: (1) defect engineering, (2) interface engineering, (3) radiation-induced degradation, and (4) radiation-assisted synthesis. We analyze the significant trends and provide our perspectives and outlook on current research and future directions in research seeking to harness radiation as a method for enhancing the synthesis and performance of battery materials. Batteries and electrochemical capacitors (ECs) are of critical importance for applications such as electric vehicles, electric grids, and mobile devices.