吸附磷后 0.1Bi-MIL-101-NH2 的光催化性能增强:吸附与光催化的协同效应

Yinghao Li, Ying Li, Qinglong Meng, Ke Jing, Jingyi Zhang, Qingyu Guan
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引用次数: 0

摘要

实现废水中磷的高效回收和再利用是一项艰巨的挑战。本研究成功构建了一种协同吸附光催化工艺。0.1Bi-MIL-101-NH 的磷吸附性能最高,达到 112 mg/g。磷吸附后,光电化学测量证实,0.1Bi-MIL-101-NH-P 样品的光电特性得到改善,在 120 分钟内,SMX 的降解效率提高了 20%。同时,矿化率达到 91%。Bi 的加入大大提高了 0.1Bi-MIL-101-NH 样品的吸附能。值得注意的是,0.1Bi-MIL-101-NH-P 表面磷的存在增强了材料对水分子的吸附,从而增加了 -OH 的生成。-O和-OH在 SMX 的光降解过程中发挥了主导作用。最后,通过密度泛函理论(DFT)计算和 LC-MS 分析进一步研究了中间产物的降解途径。这项研究为磷回收和有机污染物降解提供了一条新途径。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Enhanced photocatalytic performance of 0.1Bi-MIL-101-NH2 after phosphorus adsorption: Synergistic effect of adsorption and photocatalysis
Achieving efficient phosphorus recovery and reuse from wastewater presents formidable challenges. In this study, a synergistic adsorption photocatalysis process was successfully constructed. 0.1Bi-MIL-101-NH showed the maximum phosphorus adsorption performance of 112 mg/g. After phosphorus adsorption, photoelectrochemical measurements confirmed that the photoelectric properties of the 0.1Bi-MIL-101-NH-P sample was improved, and the degradation efficiency of SMX was increased by 20 % within 120 min. Meanwhile, the mineralization rate reached 91 %. The incorporation of Bi significantly enhanced the adsorption energy of the 0.1Bi-MIL-101-NH sample. Notably, the presence of phosphorus on the surface of 0.1Bi-MIL-101-NH-P enhanced the adsorption of water molecules by the material, thereby augmenting the generation of •OH. •O and •OH played dominant roles in the photodegradation of SMX. Finally, the degradation pathways of intermediates were further studied by Density functional theory (DFT) calculations and LC-MS analysis. This study provides a new avenue for phosphorus recovery and organic pollutant degradation.
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