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典型文献
Multilayer Strategy for Photoelectrochemical Hydrogen Generation:New Electrode Architecture that Alleviates Multiple Bottlenecks
文献摘要:
Years of research have demon-strated that the use of multiple components is essential to the develop-ment of a commercial photoelectrode to address specific bottlenecks,such as low charge separation and injection efficiency,low carrier diffusion length and lifetime,and poor durability.A facile strategy for the synthesis of multilayered photoanodes from atomic-layer-deposited ultrathin films has enabled a new type of electrode architecture with a total multilayer thickness of 15-17 nm.We illustrate the advantages of this electrode architecture by using nanolayers to address different bottlenecks,thus producing a multilayer photoelectrode with improved interface kinetics and shorter electron transport path,as determined by interface analyses.The photocurrent density was twice that of the bare structure and reached a maximum of 33.3±2.1 mA cm-2 at 1.23VRHE.An integrated overall water-splitting cell consisting of an electrocatalytic NiS cathode and Bi2S3/NiS/NiFeO/TiO2 photoanode was used for precious-metal-free seawater splitting at a cell voltage of 1.23 V without degradation.The results and root analyses suggest that the distinctive advantages of the electrode architecture,which are superior to those of bulk bottom-up core-shell and hierarchical architectures,originate from the high density of active sites and nanometer-scale layer thickness,which enhance the suitability for interface-oriented energy conversion processes.
文献关键词:
作者姓名:
Selvaraj Seenivasan;Hee Moon;Do-Heyoung Kim
作者机构:
School of Chemical Engineering,Chonnam National University,77 Yongbong-ro,Gwangju 61186,Republic of Korea
引用格式:
[1]Selvaraj Seenivasan;Hee Moon;Do-Heyoung Kim-.Multilayer Strategy for Photoelectrochemical Hydrogen Generation:New Electrode Architecture that Alleviates Multiple Bottlenecks)[J].纳微快报(英文),2022(05):155-172
A类:
Bottlenecks,23VRHE,NiFeO
B类:
Multilayer,Strategy,Photoelectrochemical,Hydrogen,Generation,New,Electrode,Architecture,that,Alleviates,Multiple,Years,research,have,demon,strated,multiple,components,essential,develop,ment,commercial,photoelectrode,address,specific,bottlenecks,such,low,charge,separation,injection,efficiency,carrier,diffusion,length,lifetime,poor,durability,facile,strategy,synthesis,multilayered,photoanodes,from,atomic,deposited,ultrathin,films,has,enabled,new,type,total,thickness,We,illustrate,advantages,this,by,using,nanolayers,different,thus,producing,improved,interface,kinetics,shorter,electron,transport,path,determined,analyses,photocurrent,density,was,twice,bare,structure,reached,maximum,mA,An,integrated,overall,splitting,cell,consisting,electrocatalytic,NiS,cathode,Bi2S3,TiO2,used,precious,metal,free,seawater,voltage,without,degradation,results,root,suggest,distinctive,which,superior,those,bulk,bottom,core,shell,hierarchical,architectures,originate,high,active,sites,nanometer,scale,enhance,suitability,oriented,energy,conversion,processes
AB值:
0.669921
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