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Microbial community distribution and dominant bacterial species analysis in the bio-electrochemical system treating low concentration cefuroxime

机译:低浓度头孢呋辛生物电化学系统中微生物群落分布及优势菌种分析

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In a previous study, the authors found that a bio-electrochemical system could increase the antibiotic removal efficiency by approximately 60%. Researchers desired to examine how the microbial community changed. Thus, Illumina high-throughput sequencing was used to explore the community structures in the bio-electrochemical system and a conventional sequencing batch biofilm reactor. Through establishing operational taxonomic units, rank-abundance distribution curves, Venn diagrams, bacterial community structures, and heatmaps, the result showed that the microbial richness and diversity were reduced in the bio-electrochemical system and that Xanthomonadaceae was dominant species. In addition, copies of three types of beta-lactam antibiotic resistance genes were detected, and the bio-electrochemical system showed the smallest number. Overall, this research implied that Xanthomonadaceae plays a role in removing cefuroxime and that the bio-electrochemical system has the potential to remove organisms' antibiotic resistance genes. (C) 2016 Elsevier B.V. All rights reserved.
机译:在先前的研究中,作者发现生物电化学系统可以将抗生素去除效率提高约60%。研究人员希望研究微生物群落如何变化。因此,Illumina高通量测序被用于探索生物电化学系统和常规测序批处理生物膜反应器中的群落结构。通过建立操作分类单位,等级-丰度分布曲线,维恩图,细菌群落结构和热图,结果表明,生物电化学系统中微生物的丰富度和多样性降低,黄单胞菌科为优势种。另外,检测到三种类型的β-内酰胺抗生素抗性基因的拷贝,并且生物电化学系统显示出最小的数目。总的来说,这项研究表明黄腐杆菌科在去除头孢呋辛中起着重要作用,并且生物电化学系统具有去除生物体的抗生素抗性基因的潜力。 (C)2016 Elsevier B.V.保留所有权利。

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