Recent Progression and Opportunities of Polysaccharide Assisted Bio-Electrolyte Membranes for Rechargeable Charge Storage and Conversion Devices

Perumal Pandurangan
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Abstract

Polysaccharide-based natural polymer electrolyte membranes have had tremendous consideration for the various energy storage operations including wearable electronic and hybrid vehicle industries, due to their unique and predominant qualities. Furthermore, they have fascinating oxygen functionality results of a higher flexible nature and help to form easier coordination of metal ions thus improving the conducting profiles of polymer electrolytes. Mixed operations of the various alkali and alkaline metal–salt-incorporated biopolymer electrolytes based on different polysaccharide materials and their charge transportation mechanisms are detailly explained in the review. Furthermore, recent developments in polysaccharide electrolyte separators and their important electrochemical findings are discussed and highlighted. Notably, the characteristics and ion-conducting mechanisms of different biopolymer electrolytes are reviewed in depth here. Finally, the overall conclusion and mandatory conditions that are required to implement biopolymer electrolytes as a potential candidate for the next generation of clean/green flexible bio-energy devices with enhanced safety; several future perspectives are also discussed and suggested.
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多糖辅助生物电解质膜用于可充电电荷存储和转换装置的最新进展和机遇
基于多糖的天然聚合物电解质膜由于其独特而突出的品质,在包括可穿戴电子和混合动力汽车行业在内的各种能量存储操作中受到了极大的关注。此外,它们具有更高柔韧性的迷人氧官能团结果,有助于形成更容易的金属离子配位,从而改善聚合物电解质的导电特性。本文详细阐述了基于不同多糖材料的碱性和碱性金属盐生物聚合物电解质的混合操作及其电荷传输机制。此外,还讨论了多糖电解质分离器的最新进展及其重要的电化学发现。值得注意的是,本文对不同生物聚合物电解质的特性和离子传导机制进行了深入的综述。最后,提出了将生物聚合物电解质作为下一代清洁/绿色柔性生物能源装置的潜在候选材料所需的总体结论和强制性条件;讨论并提出了未来的发展方向。
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