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JOURNAL OF MATERIALS SCIENCE · 2025 ·Vol. 60 ·期 6 ·2804-2817 · IF 3.9

Controlled growth of MoO2 nanowires and nanosheets by chemical vapor deposition: a comparative study of their electrochemical water splitting performance

Tang Kai,Chen Siyuan,Wang Xuchun,Zhang Xueru,Zhang Yong,Ke Xiang,Xu Xinru,Wu Tao,Wang Bingxin,Li Shasha

MoO 2 is a promising material for efficient and cost-effective electrocatalytic water splitting, particularly for the oxygen evolution reaction (OER) in alkaline media. Modifying the morphology, composition, or oxidation state of MoO 2 can enhance its active surface area and performance. In this study, Mo-coated carbon paper was used as a substrate to synthesize well-organized MoO 2 nanowires and nanosheets via a one-step CVD method without any catalyst. The nanosheets and nanowires grow perpendicularly to the substrate. MoO 2 nanowire arrays exhibit superior OER performance, characterized by a lower onset potential (1.54 V), a smaller Tafel slope, and enhanced durability compared to nanosheets. This improvement is likely attributed to the increased number of exposed active sites, reduced presence of oxidized Mo 4+ , and smaller crystalline size. Graphical abstract Here, well-organized MoO 2 nanowires and nanosheets have been fabricated on carbon paper using a one-step CVD method by reducing MoO 3 with Mo powder to investigate the intrinsic relationship between morphology, elemental composition and state, and their electrocatalytic properties. The obtained nanosheets presented as a flower-like structure, while nanowires formed into well-aligned arrays. MoO 2 nanowires contained higher amounts of Mo 4+ , were composed of smaller crystal grains, and possessed a lower onset potential for OER (oxygen evolution reaction) at about 1.54 V, a smaller Tafel slope at about 110 mV/dec, and better durability when compared to MoO 2 nanosheets.

研究领域: 材料科学 · 电催化
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ACS Sustainable Chemistry & Engineering · 2020 · IF 7.632

Industrially Promising Nanowire Heterostructure Catalyst for Enhancing Overall Water Splitting at Large Current Density

Guangfu Qian,Jinli Chen,Lin Luo,Tianqi Yu,Yamei Wang,Wenjie Jiang,Qinglian Xu,Shouquan Feng,Shibin Yin

Developing a highly effective and durable bifunctional non-noble catalyst is necessary for water electrolysis. In this work, we synthesize the N-doped carbon-coated Ni–MoO2 nanowire heterostructure catalyst anchored on nickel foam for boosting the hydrogen and oxygen evolution reaction (HER and OER). Electrochemical results indicate that it exhibits low overpotentials for HER (50 and 304 mV) and OER (240 and 400 mV) at ±10 and ±2000 mA cm–2. Furthermore, it can keep for 340 h under a multicurrent-process condition (10–1500 mA cm–2) as a cathode and anode without obvious attenuation. The outstanding performance could be ascribed to the heterostructure existing in Ni and MoO2, N-doped-carbon coating structure, and nanowire architecture anchored on nickel foam. This work could provide an industrially promising, cheap, and green method for hydrogen production.

研究领域: 材料科学 · 电化学 · 催化 · 能源材料
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