Electrochemical tuning of layered lithium transition metal oxides for improvement of oxygen evolution reaction

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作者
Zhiyi Lu
Haotian Wang
Desheng Kong
Kai Yan
Po-Chun Hsu
Guangyuan Zheng
Hongbin Yao
Zheng Liang
Xiaoming Sun
Yi Cui
机构
[1] Stanford University,Department of Material Science and Engineering
[2] State Key Laboratory of Chemical Resource Engineering,Department of Applied Physics
[3] Beijing University of Chemical Technology,Department of Chemical Engineering
[4] Stanford University,undefined
[5] Stanford University,undefined
[6] Stanford Institute for Materials and Energy Science,undefined
[7] SLAC National Accelerator Laboratory,undefined
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Searching for low-cost and efficient catalysts for the oxygen evolution reaction has been actively pursued owing to its importance in clean energy generation and storage. While developing new catalysts is important, tuning the electronic structure of existing catalysts over a wide electrochemical potential range can also offer a new direction. Here we demonstrate a method for electrochemical lithium tuning of catalytic materials in organic electrolyte for subsequent enhancement of the catalytic activity in aqueous solution. By continuously extracting lithium ions out of LiCoO2, a popular cathode material in lithium ion batteries, to Li0.5CoO2 in organic electrolyte, the catalytic activity is significantly improved. This enhancement is ascribed to the unique electronic structure after the delithiation process. The general efficacy of this methodology is demonstrated in several mixed metal oxides with similar improvements. The electrochemically delithiated LiCo0.33Ni0.33Fe0.33O2 exhibits a notable performance, better than the benchmark iridium/carbon catalyst.
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