Polymer-Based Electrolytes for Organic Batteries

电解质 材料科学 纳米技术 电池(电) 灵活性(工程) 离子液体 离子电导率 有机自由基电池 可燃性 电化学储能 快离子导体 储能 工艺工程 电化学 危险废物 环境科学 聚合物 聚合物电解质 热稳定性 电导率 计算机科学 电极 可持续能源 泄漏(经济)
作者
Chetna Tewari,Kundan Singh Rawat,Somi Yoon,Yong Chae Jung
出处
期刊:Energies [Multidisciplinary Digital Publishing Institute]
卷期号:18 (19): 5168-5168 被引量:2
标识
DOI:10.3390/en18195168
摘要

The pursuit of sustainable and environmentally benign energy storage solutions has propelled significant interest in organic batteries, which utilize redox-active organic compounds as electrode materials. A pivotal component in determining their electrochemical performance, safety, and long-term stability is the electrolyte. Polymer-based electrolytes (PBEs) have emerged as promising candidates owing to their intrinsic advantages, such as enhanced thermal stability, mechanical integrity, and the mitigation of leakage and flammability risks associated with conventional liquid electrolytes. Unlike previous reviews that broadly cover solid electrolytes, this review specifically focuses on the unique developments of polymer-based electrolytes tailored for organic batteries over the past few years. This review presents a comprehensive overview of the recent progress in PBEs specifically designed for organic battery systems. It systematically examines various categories, including solid polymer electrolytes (SPEs), valued for their structural simplicity and stability; gel polymer electrolytes (GPEs), noted for their high ionic conductivity and processability; and polymer-inorganic composite electrolytes, which synergistically integrate the mechanical flexibility of polymers with the ionic conductivity of inorganic fillers. Additionally, the review delves into the latest advancements in ionogels and poly(ionic liquid) electrolytes, highlighting their potential to overcome existing limitations and enable next-generation battery performance. The article concludes with a critical discussion on prevailing challenges and prospective research directions, emphasizing the importance of advanced material design, interfacial engineering, and sustainable synthesis approaches to facilitate the practical realization of high-performance organic batteries.
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