Three-dimensional heterogeneous electro-Fenton system with reduced graphene oxide based particle electrode for Acyclovir removal

石墨烯 蒙脱石 氧化物 电极 化学工程 降级(电信) 材料科学 纳米颗粒 可重用性 电化学 粒子(生态学) 催化作用 甲醇 化学 纳米技术 复合材料 有机化学 冶金 软件 电信 海洋学 物理化学 地质学 计算机科学 工程类 程序设计语言
作者
Nan Cai,Ge Bai,Ting Zhang,Yongqian Lei,Pengran Guo,Zhiliang Chen,Jing‐Wei Xu
出处
期刊:Chinese Chemical Letters [Elsevier]
卷期号:35 (1): 108514-108514 被引量:16
标识
DOI:10.1016/j.cclet.2023.108514
摘要

New pollutant pharmaceutical and personal care products (PPCPs), especially antiviral drugs, have received increasing attention not only due to their increase in usage after the outbreak of COVID-19 epidemics but also due to their adverse impacts on water ecological environment. Electro-Fenton technology is an effective method to remove PPCPs from water. Novel particle electrodes (MMT/rGO/Fe3O4) were synthesized by depositing Fe3O4 nanoparticles on reduced graphene oxide modified montmorillonite and acted as catalysts to promote oxidation performance in a three-dimensional Electro-Fenton (3D-EF) system. The electrodes combined the catalytic property of Fe3O4, hydrophilicity of montmorillonite and electrical conductivity of graphene oxides, and applied for the degradation of Acyclovir (ACV) with high efficiency and ease of operation. At optimal condition, the degradation rate of ACV reached 100% within 120 min, and the applicable pH range could be 3 to 11 in the 3D-EF system. The stability and reusability of MMT/rGO/Fe3O4 particle electrodes were also studied, the removal rate of ACV remained at 92% after 10 cycles, which was just slightly lower than that of the first cycle. Potential degradation mechanisms were also proposed by methanol quenching tests and FT-ICR-MS.
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