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Bi2Te3/Te/C纳米线
MATERIALS & DESIGN · 2023 · IF 8.4

Synergistic organic dye degradation and hydrogen production using Bi2Te3/Te/C single-catalyst nanowires

Chenchen Zhao,Dongbo Wang,Zhi Zeng,Bingke Zhang,Jingwen Pan,Donghao Liu,Sihang Liu,Shujie Jiao,Gang Liu,Zhikun Xu,Liancheng Zhao,Jinzhong Wang

Over-consumption of limited fossil fuels has caused serious environmental pollution and a global energy crisis, threatening human life and biodiversity. As an ideal, environmentally friendly renewable energy, hydrogen can satisfy human clean energy requirements. Therefore, whether hydrogen can be catalytically generated in the wastewater treatment process is a highly meaningful investigation. Herein, Bi 2 Te 3 /Te/C heterojunction nanowires with high specific surface area and rich pore structure were successfully synthesized. The efficient catalytic degradation process is accompanied by the generation of hydrogen. The catalytic degradation of methylene blue and methyl orange was achieved in less than 20 s and 150 s, respectively. Meanwhile, in scaled-up degradation/hydrogen production experiments, fast and efficient H 2 production from NaBH 4 can be realized in the presence of Bi 2 Te 3 /Te/C nanowires. The mechanism of efficient synergistic organic dye degradation and hydrogen production is due to the efficient carrier transfers and accumulation at the hetero-interface. In contrast to previous work, rapid degradation of organic dyes and hydrogen production by decomposition of NaBH 4 were achieved without the help of high-cost catalysts such as precious metals. This work could provide an alternative pathway for the future degradation of organic matter in synergistic heterogeneous catalytic wastewater and recovery of by-products including hydrogen.

研究领域: 环境科学 · 催化化学 · 材料科学
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