罗丹明B
降级(电信)
催化作用
微塑料
吸附
化学工程
材料科学
光催化
污染物
热液循环
复合数
比表面积
化学
环境化学
复合材料
有机化学
电信
计算机科学
工程类
作者
Fangfang Yang,Jialu Li,Jun Dong,Siyu Chen,Wenyu Hu,Yufan Zhang,Huiqi Wang,Zhanfeng Li,Zonghua Wang
标识
DOI:10.1016/j.seppur.2024.126488
摘要
Organic pollution has attracted global attention for the threat to the biota. In this study, the catalyst-mediated sono-degradation was purposefully employed to remove the organic pollutants including dyes and microplastics (MPs) because it could provide a green and sustainable strategy in industrial production. Herein, the Ti-based MOFs (Ti-MOFs) was successfully prepared on the Ti3C2 MXene by the hydrothermal method, forming new plicated MX@MIL-125(Ti). The as-prepared composite had lower specific surface area than the MIL-125(Ti), but it remained porous structure, and the presence of O-Ti-O species and graphitic carbon could help to enhance the photosensitive and catalytic activity. Significantly, the MX@MIL-125(Ti) showed good catalytic removal performances under ultrasound irradiation, and could clear away over 90 % Rhodamine B (RhB) within 60 min or over 75.0 % micro-polyethylene (micro-PE) within 4 h, where the removal process obeyed the pseudo first-order kinetic reaction model and the sonocatalytic degradation was superior to the adsorption. Moreover, a degradation-dominant mechanism was proposed to administrate the MX@MIL-125(Ti)/ultrasound treatment of organic molecules. Thus, the sonocatalysis of Ti-MOFs will be attractive to apply in the degradation of organic contaminants.
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