Literature DB >> 28523915

Wide-Temperature Electrolytes for Lithium-Ion Batteries.

Qiuyan Li1, Shuhong Jiao1, Langli Luo2, Michael S Ding3, Jianming Zheng1, Samuel S Cartmell1, Chong-Min Wang2, Kang Xu3, Ji-Guang Zhang1, Wu Xu1.   

Abstract

Formulating electrolytes with solvents of low freezing points and high dielectric constants is a direct approach to extend the service-temperature range of lithium (Li)-ion batteries (LIBs). In this study, we report such wide-temperature electrolyte formulations by optimizing the ethylene carbonate (EC) content in the ternary solvent system of EC, propylene carbonate (PC), and ethyl methyl carbonate (EMC) with LiPF6 salt and CsPF6 additive. An extended service-temperature range from -40 to 60 °C was obtained in LIBs with lithium nickel cobalt aluminum oxide (LiNi0.80Co0.15Al0.05O2, NCA) as cathode and graphite as anode. The discharge capacities at low temperatures and the cycle life at room temperature and elevated temperatures were systematically investigated together with the ionic conductivity and phase-transition behaviors. The most promising electrolyte formulation was identified as 1.0 M LiPF6 in EC-PC-EMC (1:1:8 by wt) with 0.05 M CsPF6, which was demonstrated in both coin cells of graphiteNCA and 1 Ah pouch cells of graphite∥LiNi1/3Mn1/3Co1/3O2. This optimized electrolyte enables excellent wide-temperature performances, as evidenced by the high capacity retention (68%) at -40 °C and C/5 rate, significantly higher than that (20%) of the conventional LIB electrolyte, and the nearly identical stable cycle life as the conventional LIB electrolyte at room temperature and elevated temperatures up to 60 °C.

Entities:  

Keywords:  cesium cation; electrolyte; lithium-ion battery; low-temperature discharge; wide-temperature performance

Year:  2017        PMID: 28523915     DOI: 10.1021/acsami.7b04099

Source DB:  PubMed          Journal:  ACS Appl Mater Interfaces        ISSN: 1944-8244            Impact factor:   9.229


  7 in total

1.  Designing Advanced Lithium-based Batteries for Low-temperature Conditions.

Authors:  Abhay Gupta; Arumugam Manthiram
Journal:  Adv Energy Mater       Date:  2020-08-12       Impact factor: 29.368

2.  Low-Temperature Charge/Discharge of Rechargeable Battery Realized by Intercalation Pseudocapacitive Behavior.

Authors:  Xiaoli Dong; Yang Yang; Bingliang Wang; Yongjie Cao; Nan Wang; Panlong Li; Yonggang Wang; Yongyao Xia
Journal:  Adv Sci (Weinh)       Date:  2020-06-10       Impact factor: 16.806

3.  Tailoring Electrolyte Solvation for Li Metal Batteries Cycled at Ultra-Low Temperature.

Authors:  John Holoubek; Haodong Liu; Zhaohui Wu; Yijie Yin; Xing Xing; Guorui Cai; Sicen Yu; Hongyao Zhou; Tod A Pascal; Zheng Chen; Ping Liu
Journal:  Nat Energy       Date:  2021-02-25       Impact factor: 60.858

Review 4.  From room temperature to harsh temperature applications: Fundamentals and perspectives on electrolytes in zinc metal batteries.

Authors:  Sailin Liu; Ruizhi Zhang; Jianfeng Mao; Yunlong Zhao; Qiong Cai; Zaiping Guo
Journal:  Sci Adv       Date:  2022-03-23       Impact factor: 14.136

5.  Influence of low temperature conditions on lithium-ion batteries and the application of an insulation material.

Authors:  Dongxu Ouyang; Yaping He; Jingwen Weng; Jiahao Liu; Mingyi Chen; Jian Wang
Journal:  RSC Adv       Date:  2019-03-19       Impact factor: 3.361

6.  Alloying Germanium Nanowire Anodes Dramatically Outperform Graphite Anodes in Full-Cell Chemistries over a Wide Temperature Range.

Authors:  Gearoid A Collins; Karrina McNamara; Seamus Kilian; Hugh Geaney; Kevin M Ryan
Journal:  ACS Appl Energy Mater       Date:  2021-02-02

7.  Low Temperature Characteristics of Hydrogen Storage Alloy LaMm-Ni4.1Al0.3Mn0.4Co0.45 for Ni-MH Batteries.

Authors:  Malgorzata Karwowska; Karol J Fijalkowski; Andrzej A Czerwiński
Journal:  Materials (Basel)       Date:  2019-12-16       Impact factor: 3.623

  7 in total

北京卡尤迪生物科技股份有限公司 © 2022-2023.