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典型文献
ZrO2 and Nitrogen-doped Carbon Co-coated LiFePO4 Cathode with Improved Cycling Stability and Rate Performance for Lithium Batteries
文献摘要:
LiFePO4 cathode was successfully co-coated by ZrO2 and N-doped carbon layer based on the coprecipitation of Zr species and polydopamine on the LiFePO4 surfaces. The mutual promotion between the hydrolyzation of ZrO2 precursor and the self-polymerization of dopamine was realized in the one-step synthesis. After being used in the coin battery as cathode material, the ZrO2 and N-doped carbon co-coated LiFePO4 displayed improved cycling stability (97.0% retention at 0.2 C after 200 cycles) and enhanced rate performance (130.7 mAh·g?1 at 1 C) due to its higher electrochemical reactivity and reversibility compared with those of commercial LiFePO4.
文献关键词:
作者姓名:
SHI Jiayuan;WANG Qingjie;XU Xusheng;YANG Qinghua;CHEN Xiaotao;LIU Fuliang;SHI Bin
作者机构:
State Key Laboratory of Advanced Chemical Power Sources(SKL-ACPS),Guizhou Meiling Power Sources Co.,Ltd,Zunyi 563003,China
引用格式:
[1]SHI Jiayuan;WANG Qingjie;XU Xusheng;YANG Qinghua;CHEN Xiaotao;LIU Fuliang;SHI Bin-.ZrO2 and Nitrogen-doped Carbon Co-coated LiFePO4 Cathode with Improved Cycling Stability and Rate Performance for Lithium Batteries)[J].武汉理工大学学报(材料科学版)(英文版),2022(06):1073-1079
A类:
B类:
ZrO2,Nitrogen,doped,Carbon,Co,coated,LiFePO4,Cathode,Improved,Cycling,Stability,Rate,Performance,Lithium,Batteries,cathode,was,successfully,by,carbon,layer,coprecipitation,species,polydopamine,surfaces,mutual,promotion,between,hydrolyzation,precursor,self,polymerization,realized,one,step,synthesis,After,being,used,coin,battery,material,displayed,improved,cycling,stability,retention,after,cycles,enhanced,rate,performance,mAh,due,its,higher,electrochemical,reactivity,reversibility,compared,those,commercial
AB值:
0.65479
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