Highly active ruthenium sites stabilized by modulating electron-feeding for sustainable acidic oxygen-evolution electrocatalysis

Wang, Kexin; Wang, Yali; Yang, Bin; Li, Zhongjian; Qin, Xuetao; Zhang, Qinghua; Lei, Lecheng; Qiu, Ming; Wu, Gang; Hou, Yang

doi:10.1039/d1ee03610f

articleEnergy & Environmental ScienceJan 1, 2022Closed access

Highly active ruthenium sites stabilized by modulating electron-feeding for sustainable acidic oxygen-evolution electrocatalysis

KWKexin Wang YWYali Wang BYBin Yang ZLZhongjian Li XQXuetao Qin

Zhejiang University · Central China Normal University · +3 more institutions

Indexed incrossref

Abstract

An electron-feeding modulation strategy is developed to stabilize the highly active ruthenium site and strengthen the adsorption of the OH* intermediate toward sustainable acidic water electrolysis.

Citation impact

289

total citations

FWCI: 12.72
Percentile: 100%
References: 54

Citations per year

Authors

KW
Kexin Wang
Zhejiang University
YW
Yali Wang
Central China Normal University
BY
Bin Yang
Quzhou University, Zhejiang University
ZL
Zhongjian Li
Quzhou University, Zhejiang University
XQ
Xuetao Qin
Beijing National Laboratory for Molecular Sciences

Topics & keywords

Topics

Electrocatalysts for Energy Conversion100%
Advanced battery technologies research100%
Electrochemical Analysis and Applications100%

Keywords

Ruthenium
Electrocatalyst
Electrolysis of water
Oxygen evolution
Adsorption
Electrolysis
Chemistry
Oxygen

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Funding

NN
National Natural Science Foundation of China
Awards: 21878270, 21961160742, 21922811, U20A20246
CA
Chinese Academy of Sciences
ZU
Zhejiang University
CU
Central University Basic Research Fund of China
Award: 2020XZZX002-09
UA
University at Buffalo
NS
Natural Science Foundation of Zhejiang Province
Award: LR19B060002