推荐引用推荐引用James,Winervil,“制造压力和NMC阴极组成对LPSCL电解质的影响,以改善固态电池性能”(2023年)。论文。罗切斯特技术学院。从
硫化物电解质通常具有高离子电导率(> 1 ms/cm)LI6 PS 5 Cl(LPSCL; LPSC)是研究最多的硫化物电解质,并且大量可用(〜$ 10/g)
抽象的全稳态电池(ASSB)被认为是提高电池安全性和能量密度的最有希望的候选者。硫化物电解质具有狭窄的电化学窗口,该窗口阻碍了其应用与高压阴极。具有高压耐力的卤化物电解质可以帮助解决此问题。在此,采用喷涂和污染方法的组合用作处理自由的LI 6 PS 5 Cl(LPSCL)不对称的电解质膜(19.23Ωcm2,75μm),用10μmLi3包含6(Licl)层装饰。LICL-LPSCL不对称的电解质膜增强了高压稳定性,使LINI 0.83 CO 0.83 CO 0.11 Mn 0.06 O 2(NCM811)和LI 1.2 Ni 0.13 CO 0.13 CO 0.13 CO 0.13 Mn 0.54 0.54 O 2(LRMO)Cathodes。NCM811 | LICL-LPSCL | NSI ASSB的初始库仑效率(ICE)为85.13%,在200个周期后的容量保留率为77.16%。Compared with the LPSCl membrane, the LICl-LPSCl membrane displayed high stability with the LRMO cathode as the charging cut-off voltage increased to 4.7 V, which improved the initial charge capacity from 143 to 270 mAh g −1 and achieved stable cycling of 160 mAh g −1 at 0.5 C. Additionally, we attempted continuous LICl-LPSCl membrane production and utilized the product to fabricate a基于LRMO的小袋型ASSB。LICL-LPSCL电解质膜的制造证明了其在Assbs中的可控和行业适应应用的潜力。
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