Homogeneous deposition of lithium ions enabled by BN coated separator for high-performance lithium-metal batteries

被引:4
|
作者
Zhang, Qingyu [1 ]
Wang, Zekun [1 ]
Liu, Yan-Gai [1 ]
Zhu, Bing [1 ]
Wu, Liming [1 ]
Mi, Ruiyu [1 ]
Huang, Zhaohui [1 ]
机构
[1] China Univ Geosci, Sch Mat Sci & Technol, Beijing Key Lab Mat Utilizat Nonmet Minerals & Sol, Natl Lab Mineral Mat, Beijing 100083, Peoples R China
关键词
Lithium metal anode; Modified separator; BN coating; Lithium dendrites; ELECTROLYTE; NANOSHEETS; DENSITY; ANODES;
D O I
10.1016/j.surfin.2023.103568
中图分类号
O64 [物理化学(理论化学)、化学物理学];
学科分类号
070304 ; 081704 ;
摘要
Lithium metal has become one of the most promising anode materials in the field of energy storage due to its ultra-high theoretical capacity, low density and low negative potential. Unfortunately, the uncontrollable growth of lithium dendrites on the surface of lithium metal anodes can cause serious deterioration of battery performance and even cause serious safety problems, which greatly limits the further practical application of lithium metal batteries. In order to regulate the uniform deposition of lithium ions and inhibit the growth of lithium dendrites, we modified the surface of commercial Celgard (R) 2325 battery separator by coated BN nanosheets and compared it with Celgard (R) 2325 and Al2O3 coated separator (Al2O3-Separator). It is found that the structure of the inorganic coating on the surface of the separator affects the morphology of the lithium dendrites. The layered BN coated separator (BN-Separator) has the function of regulating the uniform deposition of lithium ions, which delivers the coulombic efficiency of 84.8% for Li|Cu half-cell after stabilize cycling 80 cycles (Celgard (R) 2325 remains coulombic efficiency of approximately 66.2% after 38 cycles.). In addition, BN coating increases the ionic conductivity of commercial separator from 0.53 mS & sdot;cm- 1 to 1.03 mS & sdot;cm- 1, enabling an excellent cyclability of lithium metal batteries with a superior capacity of 159.4 mAh g-1 after 500 cycles at 1C rate and 119.0 mAh g-1 after 200 cycles at 5C rate. This work provides a feasible strategy for the design of separators with dendrite suppression function in lithium metal batteries.
引用
收藏
页数:9
相关论文
共 50 条
  • [31] High Performance Lithium Metal Batteries Enabled by Surface Tailoring of Polypropylene Separator with a Polydopamine/Graphene Layer
    Kim, Patrick J.
    Pol, Vilas G.
    ADVANCED ENERGY MATERIALS, 2018, 8 (36)
  • [32] High-performance lithium metal batteries enabled by a nano-sized garnet solid-state electrolyte modified separator
    Yu, Kai
    Zeng, Huipeng
    Ma, Jun
    Jiang, Yidong
    Li, Huiyun
    Zhang, Ludan
    Zhang, Qiangqiang
    Shan, Xuyi
    Li, Tingting
    Wu, Xiaoqi
    Xu, Hongli
    Huang, Wei
    Wang, Chaoyang
    Chi, Shang-Sen
    Wang, Jun
    Gong, Qing
    Deng, Yonghong
    CHEMICAL ENGINEERING JOURNAL, 2024, 480
  • [33] Lithium metal protection enabled by in-situ olefin polymerization for high-performance secondary lithium sulfur batteries
    An, Yongling
    Zhang, Zhen
    Fei, Huifang
    Xu, Xiaoyan
    Xiong, Shenglin
    Feng, Jinkui
    Ci, Lijie
    JOURNAL OF POWER SOURCES, 2017, 363 : 193 - 198
  • [34] Stable lithium anode enabled by biphasic hybrid SEI layer toward high-performance lithium metal batteries
    Cui, Can
    Zhang, Rupeng
    Fu, Chuankai
    Xiao, Rang
    Li, Renlong
    Ma, Yulin
    Wang, Jiajun
    Gao, Yunzhi
    Yin, Geping
    Zuo, Pengjian
    CHEMICAL ENGINEERING JOURNAL, 2022, 433
  • [35] Lithium-Metal Foil Surface Modification: An Effective Method to Improve the Cycling Performance of Lithium-Metal Batteries
    Becking, Jens
    Groebmeyer, Albert
    Kolek, Martin
    Rodehorst, Uta
    Schulze, Susanne
    Winter, Martin
    Bieker, Peter
    Stan, Marian Cristian
    ADVANCED MATERIALS INTERFACES, 2017, 4 (16):
  • [36] Mechanistics of Lithium-Metal Battery Performance by Separator Architecture Design
    Wang, Wenxiu
    Hao, Feng
    Mukherjee, Partha P.
    ACS APPLIED MATERIALS & INTERFACES, 2020, 12 (01) : 556 - 566
  • [37] Electrolyte Engineering via Fluorinated Siloxane Solvent for Achieving High-Performance Lithium-Metal Batteries
    Huang, Gaoxu
    Liao, Yaqi
    Liu, Honghao
    Jin, Xiaopan
    Guan, Mengjia
    Yu, Feng
    Dai, Bin
    Li, Yongsheng
    ACS NANO, 2024, 18 (24) : 15802 - 15814
  • [38] Hybrid polyion complex micelles enabling high-performance lithium-metal batteries with universal carbonates
    Lee, Jung-In
    Cho, Sungjin
    Vu, Tai Thai
    Kim, Sujin
    Ryu, Sunmin
    Moon, Janghyuk
    Park, Soojin
    Energy Storage Materials, 2021, 38 : 509 - 519
  • [39] Hybrid polyion complex micelles enabling high-performance lithium-metal batteries with universal carbonates
    Lee, Jung-In
    Cho, Sungjin
    Tai Thai Vu
    Kim, Sujin
    Ryu, Sunmin
    Moon, Janghyuk
    Park, Soojin
    ENERGY STORAGE MATERIALS, 2021, 38 : 509 - 519
  • [40] High-Performance PE-BN/PVDF-HFP Bilayer Separator for Lithium-Ion Batteries
    Waqas, Muhammad
    Ali, Shamshad
    Lv, Weiqiang
    Chen, Dongjiang
    Boateng, Bismark
    He, Weidong
    ADVANCED MATERIALS INTERFACES, 2019, 6 (01):