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在废水中归化以及细菌对水处理和抗生素耐药性的共同进化

Naturalized in Wastewater and the Co-evolution of Bacterial Resistance to Water Treatment and Antibiotics.

作者信息

Yu Daniel, Ryu Kanghee, Zhi Shuai, Otto Simon J G, Neumann Norman F

机构信息

School of Public Health, University of Alberta, Edmonton, AB, Canada.

Antimicrobial Resistance - One Health Consortium, Calgary, AB, Canada.

出版信息

Front Microbiol. 2022 May 30;13:810312. doi: 10.3389/fmicb.2022.810312. eCollection 2022.

Abstract

Antibiotic resistance represents one of the most pressing concerns facing public health today. While the current antibiotic resistance crisis has been driven primarily by the anthropogenic overuse of antibiotics in human and animal health, recent efforts have revealed several important environmental dimensions underlying this public health issue. Antibiotic resistant (AR) microbes, AR genes, and antibiotics have all been found widespread in natural environments, reflecting the ancient origins of this phenomenon. In addition, modern societal advancements in sanitation engineering (i.e., sewage treatment) have also contributed to the dissemination of resistance, and concerningly, may also be promoting the evolution of resistance to water treatment. This is reflected in the recent characterization of naturalized wastewater strains of -strains that appear to be adapted to live in wastewater (and meat packing plants). These strains carry a plethora of stress-resistance genes against common treatment processes, such as chlorination, heat, UV light, and advanced oxidation, mechanisms which potentially facilitate their survival during sewage treatment. These strains also carry an abundance of common antibiotic resistance genes, and evidence suggests that resistance to some antibiotics is linked to resistance to treatment (e.g., tetracycline resistance and chlorine resistance). As such, these naturalized populations may be co-evolving resistance against both antibiotics and water treatment. Recently, extraintestinal pathogenic strains of (ExPEC) have also been shown to exhibit phenotypic resistance to water treatment, seemingly associated with the presence of various shared genetic elements with naturalized wastewater . Consequently, some pathogenic microbes may also be evolving resistance to the two most important public health interventions for controlling infectious disease in modern society-antibiotic therapy and water treatment.

摘要

抗生素耐药性是当今公共卫生面临的最紧迫问题之一。虽然当前的抗生素耐药性危机主要是由人类和动物健康领域抗生素的人为过度使用所驱动,但最近的研究揭示了这一公共卫生问题背后的几个重要环境因素。抗生素耐药(AR)微生物、AR基因和抗生素在自然环境中均广泛存在,这反映了该现象由来已久。此外,现代社会在卫生工程(即污水处理)方面的进步也导致了耐药性的传播,令人担忧的是,这也可能在推动对水处理耐药性的演变。这体现在最近对归化废水菌株的特征描述中——这些菌株似乎适应在废水(和肉类加工厂)中生存。这些菌株携带大量针对常见处理工艺(如氯化、加热、紫外线照射和高级氧化)的抗逆基因,这些机制可能有助于它们在污水处理过程中存活。这些菌株还携带大量常见的抗生素耐药基因,有证据表明对某些抗生素的耐药性与对处理的耐药性有关(例如四环素耐药性和氯耐药性)。因此,这些归化种群可能正在共同进化出对抗生素和水处理的耐药性。最近,肠外致病性大肠杆菌(ExPEC)菌株也被证明对水处理表现出表型耐药性,这似乎与归化废水大肠杆菌中各种共享遗传元件的存在有关。因此,一些致病微生物可能也在进化出对现代社会控制传染病的两项最重要公共卫生干预措施——抗生素治疗和水处理的耐药性。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/d8a2/9189398/6b9547b74623/fmicb-13-810312-g001.jpg

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