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典型文献
Nanoconfinement effect of nanoporous carbon electrodes for ionic liquid-based aluminum metal anode
文献摘要:
Rechargeable aluminum batteries(RABs),which use earth-abundant and high-volumetric-capacity metal anodes(8040 mAh cm-3),have great potential as next-generation power sources because they use cheaper resources to deliver higher energies,compared to current lithium ion batteries.However,the mechanism of charge delivery in the newly developed,ionic liquid-based electrolytic system for RABs dif-fers from that in conventional organic electrolytes.Thus,targeted research efforts are required to address the large overpotentials and cycling decay encountered in the ionic liquid-based electrolytic system.In this study,a nanoporous carbon(NPC)electrode with well-developed nanopores is used to develop a high-performance aluminum anode.The negatively charged nanopores can provide quenched dynamics of electrolyte molecules in the aluminum deposition process,resulting in an increased collision rate.The fast chemical equilibrium of anionic species induced by the facilitated anionic collisions leads to more favorable reduction reactions that form aluminum metals.The nanoconfinement effect causes separated nucleation and growth of aluminum nanoparticles in the multiple confined nanopores,leading to higher coulombic efficiencies and more stable cycling performance compared with macroporous carbon black and 2D stainless steel electrodes.
文献关键词:
作者姓名:
Juhee Yoon;Seongbak Moon;Son Ha;Hyung-Kyu Lim;Hyoung-Joon Jin;Young Soo Yun
作者机构:
Program in Environmental and Polymer Engineering,Inha University,Incheon 22212,South Korea;Department of Polymer Science and Engineering,Inha University,Incheon 22212,South Korea;KU-KIST Graduate School of Converging Science and Technology,Korea University,Seoul 02841,South Korea;Division of Chemical Engineering and Bioengineering,Kangwon National University,Gangwon-do 24341,South Korea;Department of Integrative Energy Engineering,Korea University,Seoul 02841,South Korea
文献出处:
引用格式:
[1]Juhee Yoon;Seongbak Moon;Son Ha;Hyung-Kyu Lim;Hyoung-Joon Jin;Young Soo Yun-.Nanoconfinement effect of nanoporous carbon electrodes for ionic liquid-based aluminum metal anode)[J].能源化学,2022(11):121-127
A类:
Nanoconfinement,RABs
B类:
effect,nanoporous,carbon,electrodes,liquid,aluminum,Rechargeable,batteries,which,earth,abundant,volumetric,capacity,anodes,mAh,have,great,next,generation,power,because,they,cheaper,resources,higher,energies,compared,current,lithium,However,mechanism,delivery,newly,developed,electrolytic,system,dif,fers,from,that,conventional,organic,electrolytes,Thus,targeted,research,efforts,required,address,large,overpotentials,cycling,decay,encountered,In,this,study,NPC,well,nanopores,used,performance,negatively,charged,can,provide,quenched,dynamics,molecules,deposition,process,resulting,increased,fast,chemical,equilibrium,anionic,species,induced,by,facilitated,collisions,leads,more,favorable,reduction,reactions,metals,nanoconfinement,causes,separated,nucleation,growth,nanoparticles,multiple,confined,leading,coulombic,efficiencies,stable,macroporous,black,2D,stainless,steel
AB值:
0.586177
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