Enhancing Electrocatalytic NO Reduction to NH3 by the CoS Nanosheet with Sulfur Vacancies

Electrochemical reduction of NO to NH3 is of great significance for mitigating the accumulation of nitrogen oxides and producing valuable NH3. Here, we demonstrate that the CoS nanosheet with sulfur vacancies (CoS1–x ) behaves as an efficient catalyst toward electrochemical NO-to-NH3 conversion. In...

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Veröffentlicht in:Inorganic chemistry 2022-05, Vol.61 (20), p.8096-8102
Hauptverfasser: Zhang, Longcheng, Zhou, Qiang, Liang, Jie, Yue, Luchao, Li, Tingshuai, Luo, Yongsong, Liu, Qian, Li, Na, Tang, Bo, Gong, Feng, Guo, Xiaodong, Sun, Xuping
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container_end_page 8102
container_issue 20
container_start_page 8096
container_title Inorganic chemistry
container_volume 61
creator Zhang, Longcheng
Zhou, Qiang
Liang, Jie
Yue, Luchao
Li, Tingshuai
Luo, Yongsong
Liu, Qian
Li, Na
Tang, Bo
Gong, Feng
Guo, Xiaodong
Sun, Xuping
description Electrochemical reduction of NO to NH3 is of great significance for mitigating the accumulation of nitrogen oxides and producing valuable NH3. Here, we demonstrate that the CoS nanosheet with sulfur vacancies (CoS1–x ) behaves as an efficient catalyst toward electrochemical NO-to-NH3 conversion. In 0.2 M Na2SO4 electrolyte, such CoS1–x displays a large NH3 yield rate (44.67 μmol cm–2 h–1) and a high Faradaic efficiency (53.62%) at −0.4 V versus the reversible hydrogen electrode, outperforming the CoS counterpart (27.02 μmol cm–2 h–1; 36.68%). Moreover, the Zn–NO battery with CoS1–x shows excellent performance with a power density of 2.06 mW cm–2 and a large NH3 yield rate of 1492.41 μg h–1 mgcat. –1. Density functional theory was performed to obtain mechanistic insights into the NO reduction over CoS1–x .
doi_str_mv 10.1021/acs.inorgchem.2c01112
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Chem</addtitle><date>2022-05-23</date><risdate>2022</risdate><volume>61</volume><issue>20</issue><spage>8096</spage><epage>8102</epage><pages>8096-8102</pages><issn>0020-1669</issn><eissn>1520-510X</eissn><abstract>Electrochemical reduction of NO to NH3 is of great significance for mitigating the accumulation of nitrogen oxides and producing valuable NH3. Here, we demonstrate that the CoS nanosheet with sulfur vacancies (CoS1–x ) behaves as an efficient catalyst toward electrochemical NO-to-NH3 conversion. In 0.2 M Na2SO4 electrolyte, such CoS1–x displays a large NH3 yield rate (44.67 μmol cm–2 h–1) and a high Faradaic efficiency (53.62%) at −0.4 V versus the reversible hydrogen electrode, outperforming the CoS counterpart (27.02 μmol cm–2 h–1; 36.68%). Moreover, the Zn–NO battery with CoS1–x shows excellent performance with a power density of 2.06 mW cm–2 and a large NH3 yield rate of 1492.41 μg h–1 mgcat. –1. 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