:Lotus-stalk Bi4Ge3O12 as binder-free anode for lithium and sodium ion batteries论文

:Lotus-stalk Bi4Ge3O12 as binder-free anode for lithium and sodium ion batteries论文

本文主要研究内容

作者(2019)在《Lotus-stalk Bi4Ge3O12 as binder-free anode for lithium and sodium ion batteries》一文中研究指出:Alloyed-type anode materials with high-energy density for lithium and sodium ion batteries attracted much attention of the researchers.However,substantial volume expansion of these materials in the devices during repeated electrochemical process leads to fast capacity fading and hinders their further practical application.Nanotechnology could act as a useful tool to effectively address the issue.Herein,lotus-stalk Bi4Ge3O12 nanosheets vertically grown on the nickel foam(denoted as Bi4Ge3O12 NSs@NF)were p repa red via a straight-forward solvothermal method.Bene fiting from their three dimensional(3 D)conductive framework and two dimensional(2 D)lotus-stalk Bi4Ge3O12 nanosheet structure,as anode materials of lithium-ion batteries(LIBs)and sodium-ion batteries(NIBs),the electrochemical performances of Bi4Ge3O12 NSs@NF were greatly enhanced as a result of mitigating the huge volume variations during cycles.The Bi4Ge3O12 NSs@NF electrodes delive red a high reve rsible capacity of 1033.1 mAh/g for the first cycle and exhibited 68.6%capacity rete ntion of after 88 cycles at 0.10 A/g in the voltage window of 0.01~3.0 V versus Li/Li+.In the test of NIBs,the lotus-stalk Bi4Ge3O12 composite electrodes still stored Na+as high as 332.3 mAh/g at 0.10 A/g over 100 sodiation/desodiation repeating cycles.

Abstract

Alloyed-type anode materials with high-energy density for lithium and sodium ion batteries attracted much attention of the researchers.However,substantial volume expansion of these materials in the devices during repeated electrochemical process leads to fast capacity fading and hinders their further practical application.Nanotechnology could act as a useful tool to effectively address the issue.Herein,lotus-stalk Bi4Ge3O12 nanosheets vertically grown on the nickel foam(denoted as Bi4Ge3O12 NSs@NF)were p repa red via a straight-forward solvothermal method.Bene fiting from their three dimensional(3 D)conductive framework and two dimensional(2 D)lotus-stalk Bi4Ge3O12 nanosheet structure,as anode materials of lithium-ion batteries(LIBs)and sodium-ion batteries(NIBs),the electrochemical performances of Bi4Ge3O12 NSs@NF were greatly enhanced as a result of mitigating the huge volume variations during cycles.The Bi4Ge3O12 NSs@NF electrodes delive red a high reve rsible capacity of 1033.1 mAh/g for the first cycle and exhibited 68.6%capacity rete ntion of after 88 cycles at 0.10 A/g in the voltage window of 0.01~3.0 V versus Li/Li+.In the test of NIBs,the lotus-stalk Bi4Ge3O12 composite electrodes still stored Na+as high as 332.3 mAh/g at 0.10 A/g over 100 sodiation/desodiation repeating cycles.

论文参考文献

  • [1].Electrochemical properties of CoFe3Sb12 as potential anode material for lithium-ion batteries[J]. 赵新兵,钟耀东,曹高劭.  Journal of Zhejiang University Science.2004(04)
  • [2].Si-doped composite carbon as anode of lithium ion batteries[J]. 郭华军,李新海,王志兴,彭文杰,郭永兴.  Transactions of Nonferrous Metals Society of China.2003(05)
  • [3].FeP nanoparticles derived from metal-organic frameworks/GO as high-performance anode material for lithium ion batteries[J]. Man Gao,Xiaowu Liu,Hai Yang,Yan Yu.  Science China(Chemistry).2018(09)
  • [4].Influence of graphene oxide on electrochemical performance of Si anode material for lithium-ion batteries[J]. Wenjing Liu,Jinjin Jiang,Hao Wang,Chunxiao Deng,Feng Wang,Gongchang Peng.  Journal of Energy Chemistry.2016(05)
  • [5].Influence of structure and atom sites on Sn-based anode materials for lithium ion batteries: a first-principle study[J]. Zhaowen Huang,Shejun Hu,Xianhua Hou,Qiang Ru,Lingzhi Zhao.  Chinese Science Bulletin.2014(13)
  • [6].Recent progress in cobalt-based compounds as high-performance anode materials for lithium ion batteries[J]. Jian Wu,Woon-Ming Lau,Dong-Sheng Geng.  Rare Metals.2017(05)
  • [7].Porous nanostructured ZnCo2O4 derived from MOF-74:High-performance anode materials for lithium ion batteries[J]. Mengjuan Du,Dan He,Yongbing Lou,Jinxi Chen.  Journal of Energy Chemistry.2017(04)
  • [8].Failure mechanism of bulk silicon anode electrodes for lithium-ion batteries[J]. Tao Li,Juan-Yu Yang,Shi-Gang Lu,Han Wang,Hai-Yang Ding.  Rare Metals.2013(03)
  • [9].Three-dimensional matrix for lithium metal anode for next-generation rechargeable batteries: Structure design and interface engineering[J]. Long Kong,Qiang Zhang.  Journal of Energy Chemistry.2019(06)
  • [10].Carbonaceous mesophase spherule/activated carbon composite as anode materials for super lithium ion capacitors[J]. 杨娟,周向阳,李劼,娄世菊.  Journal of Central South University of Technology.2011(04)
  • 论文详细介绍

    论文作者分别是来自Chinese Chemical Letters的,发表于刊物Chinese Chemical Letters2019年06期论文,是一篇关于,Chinese Chemical Letters2019年06期论文的文章。本文可供学术参考使用,各位学者可以免费参考阅读下载,文章观点不代表本站观点,资料来自Chinese Chemical Letters2019年06期论文网站,若本站收录的文献无意侵犯了您的著作版权,请联系我们删除。

    标签:;  

    :Lotus-stalk Bi4Ge3O12 as binder-free anode for lithium and sodium ion batteries论文
    下载Doc文档

    猜你喜欢