Crystal lattice distortion in ultrathin Co(OH)<sub>2</sub>nanosheets inducing elongated Co–O<sub>OH</sub>bonds for highly efficient oxygen evolution reaction

Haidong Yang; Yu Long; Yan Zhu; Ziming Zhao; Ping Ma; Jun Jin; Jiantai Ma

doi:10.1039/c7gc02543b

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Crystal lattice distortion in ultrathin Co(OH)₂nanosheets inducing elongated Co–O_OHbonds for highly efficient oxygen evolution reaction

Haidong Yang Yu Long Yan Zhu Ziming Zhao Ping Ma Jun Jin Jiantai Ma

Year: 2017 Journal: Green Chemistry Vol: 19 (24)Pages: 5809-5817 Publisher: Royal Society of Chemistry

DOI: 10.1039/c7gc02543b

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Abstract

The highly efficient OER performance of the ultrathin cobalt hydroxides nanosheets is due to the elongated Co–O_OHbonds generated from crystal lattice distortion, which can serve as the efficiently catalytic active sites.

Keywords:

Cobalt Catalysis Oxygen evolution Crystal structure Crystal (programming language) Materials science Lattice (music) Distortion (music) Oxygen Crystallography Chemistry Inorganic chemistry Chemical engineering Physical chemistry Electrochemistry Optoelectronics Organic chemistry Physics Computer science Electrode

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Crystal lattice distortion in ultrathin Co(OH)₂nanosheets inducing elongated Co–O_OHbonds for highly efficient oxygen evolution reaction

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