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生物膜电极反应器耦合锰矿基上向流微生物燃料电池-人工湿地系统:高效去除抗生素、锌(II)及其相应抗生素抗性基因。

Biofilm electrode reactor coupled manganese ore substrate up-flow microbial fuel cell-constructed wetland system: High removal efficiencies of antibiotic, zinc (II), and the corresponding antibiotic resistance genes.

机构信息

College of Urban Construction, Nanjing Tech University, Nanjing 211816, China.

Department of Environmental Engineering, Technical University of Denmark, Kgs Lyngby 2800, Denmark.

出版信息

J Hazard Mater. 2023 Oct 15;460:132394. doi: 10.1016/j.jhazmat.2023.132394. Epub 2023 Aug 24.

DOI:10.1016/j.jhazmat.2023.132394
PMID:37657329
Abstract

A coupled system comprised of a biofilm electrode reactor (BER) and a manganese ore substrate microbial fuel cell-constructed wetland (MFC-CW) system was used to remove co-exposed antibiotic and Zn (II), as well as simultaneously reduce copies of antibiotic resistance genes (ARGs) in the current study. In this system, BER primarily reduced the concentrations of antibiotics and Zn (II), and the effluent was used as the input to the MFC-CW, thereby providing electricity to BER. Co-exposure to a high concentration of Zn (II) decreased the relative abundances (RAs) of ARGs in the BER effluent, whereas the remaining sub-lethal concentration of Zn (II) increased the RAs of ARGs in the MFC-CW effluent. Even though the absolute copies of ARGs in the effluents increased during co-exposure, the total number of target ARG copies in the effluent of MFC-CW was significantly lower than that of BER. Moreover, BER pre-treatment eliminated most of Zn (II), which improved the electrical power generation characteristic of the MFC-CW unit. Correspondingly, the bacterial community and the ARGs hosts were analyzed to demonstrate the mechanism. In conclusion, the coupled system demonstrates significant potential to reduce antibiotics, Zn (II) and environmental risks posed by ARGs.

摘要

本研究构建了一个由生物膜电极反应器(BER)和锰矿石基质微生物燃料电池-人工湿地(MFC-CW)组成的偶联系统,以去除共暴露的抗生素和 Zn(II),同时降低抗生素抗性基因(ARGs)的拷贝数。在该系统中,BER 主要降低抗生素和 Zn(II)的浓度,而流出物则用作 MFC-CW 的输入,从而为 BER 提供电力。高浓度 Zn(II)的共暴露降低了 BER 流出物中 ARGs 的相对丰度(RAs),而剩余的亚致死浓度 Zn(II)则增加了 MFC-CW 流出物中 ARGs 的 RAs。尽管共暴露期间流出物中 ARGs 的绝对拷贝数增加,但 MFC-CW 流出物中目标 ARG 拷贝的总数明显低于 BER。此外,BER 预处理去除了大部分 Zn(II),这改善了 MFC-CW 单元的发电特性。相应地,对细菌群落和 ARGs 宿主进行了分析,以阐明其机制。总之,该偶联系统具有显著的潜力,可降低抗生素、Zn(II)和 ARGs 带来的环境风险。

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