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用于电化学能源系统的原位凝胶化或聚合表征的凝胶/固体聚合物电解质

Gel/Solid Polymer Electrolytes Characterized by In Situ Gelation or Polymerization for Electrochemical Energy Systems.

作者信息

Cho Yoon-Gyo, Hwang Chihyun, Cheong Do Sol, Kim Young-Soo, Song Hyun-Kon

机构信息

School of Energy and Chemical Engineering, UNIST, Ulsan, 44919, Korea.

出版信息

Adv Mater. 2019 May;31(20):e1804909. doi: 10.1002/adma.201804909. Epub 2018 Nov 2.

DOI:10.1002/adma.201804909
PMID:30387233
Abstract

A gel polymer electrolyte (GPE) is a liquid electrolyte (LE) entrapped by a small amount of polymer network less than several wt%, which is characterized by properties between those of liquid and solid electrolytes in terms of the ionic conductivity and physical phase. Electrolyte leakage and flammability, demerits of liquid electrolytes, can be mitigated by using GPEs in electrochemical cells. However, the contact problems between GPEs and porous electrodes are challenging because it is difficult to incorporate GPEs into the pores and voids of electrodes. Herein, the focus is on GPEs that are gelated in situ within cells instead of covering comprehensive studies of GPEs. A mixture of LE and monomer or polymer in a liquid phase is introduced into a pre-assembled cell without electrolyte, followed by thermal gelation based on physical gelation, monomer polymerization, or polymer cross-linking. Therefore, GPEs are formed omnipresent in cells, covering the pores of electrode material particles, and even the pores of separators. As a result, different from ex situ formed GPEs, the in situ GPEs have no electrode/electrolyte contact problems. Functional GPEs are introduced as a more advanced form of GPEs, improving lithium-ion transference number or capturing transition metals released from electrode materials.

摘要

凝胶聚合物电解质(GPE)是一种被含量小于几重量百分比的少量聚合物网络所包裹的液体电解质(LE),其在离子电导率和物理相方面具有介于液体电解质和固体电解质之间的特性。液体电解质的缺点,即电解质泄漏和易燃性,可以通过在电化学电池中使用GPE来缓解。然而,GPE与多孔电极之间的接触问题具有挑战性,因为难以将GPE纳入电极的孔隙和空隙中。在此,重点是在电池内部原位凝胶化的GPE,而不是对GPE进行全面研究。将处于液相的LE与单体或聚合物的混合物引入预先组装好的无电解质电池中,然后基于物理凝胶化、单体聚合或聚合物交联进行热凝胶化。因此,GPE在电池中无处不在地形成,覆盖电极材料颗粒的孔隙,甚至隔膜的孔隙。结果,与异位形成的GPE不同,原位GPE不存在电极/电解质接触问题。功能性GPE作为GPE的一种更先进形式被引入,可提高锂离子迁移数或捕获从电极材料中释放的过渡金属。

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