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在家庭用莲蓬头的生物膜内和生物膜之间,细菌会发生共聚。

Coaggregation occurs amongst bacteria within and between biofilms in domestic showerheads.

机构信息

Department of Epidemiology, School of Public Health, University of Michigan, Ann Arbor, MI, USA.

出版信息

Biofouling. 2013;29(1):53-68. doi: 10.1080/08927014.2012.744395.

Abstract

Showerheads support the development of multi-species biofilms that can be unsightly, produce malodor, and may harbor pathogens. The outer-surface spray-plates of many showerheads support visible biofilms that likely contain a mixture of bacteria from freshwater and potentially from human users. Coaggregation, a mechanism by which genetically distinct bacteria specifically recognize one another, may contribute to the retention and enrichment of different species within these biofilms. The aim of this work was to describe the bacterial composition of outer spray-plate biofilms of three domestic showerheads and to determine the intra- and inter-biofilm coaggregation ability of each culturable isolate. The bacterial composition of the three biofilms was determined by using bacterial tag-encoded FLX amplicon pyrosequencing (bTEFAP) and by culturing on R2A medium. An average of 31 genera per biofilm were identified using bTEFAP and a total of 30 isolates were cultured. Even though the microbial diversity of each showerhead biofilm differed, every cultured isolate was able to coaggregate with at least one other isolate from the same or different showerhead biofilm. Promiscuous coaggregating isolates belonged to the genera Brevundimonas, Micrococcus, and Lysobacter. This work suggests that coaggregation may be a common feature of showerhead biofilms. Characterization of the mechanisms mediating coaggregation, and the inter-species interactions they facilitate, may allow for novel strategies to inhibit biofilm development.

摘要

淋浴喷头支持多种微生物生物膜的形成,这些生物膜可能不美观、产生异味,并可能藏匿病原体。许多淋浴喷头的外表面喷雾板支持可见的生物膜,这些生物膜可能含有来自淡水和潜在的人类使用者的细菌混合物。共聚,一种基因上不同的细菌专门识别彼此的机制,可能有助于这些生物膜中不同物种的保留和富集。这项工作的目的是描述三个家用淋浴喷头外喷雾板生物膜的细菌组成,并确定每个可培养分离株的内和生物膜间共聚能力。使用细菌标签编码 FLX 扩增子焦磷酸测序(bTEFAP)和在 R2A 培养基上培养来确定三个生物膜的细菌组成。bTEFAP 平均每个生物膜识别出 31 个属,总共培养出 30 个分离株。尽管每个淋浴喷头生物膜的微生物多样性不同,但每个培养的分离株都能够与来自同一或不同淋浴喷头生物膜的至少另一个分离株共聚。混杂的共聚分离株属于短小杆菌属、微球菌属和黄色杆菌属。这项工作表明共聚可能是淋浴喷头生物膜的一个共同特征。对介导共聚的机制以及它们促进的种间相互作用进行表征,可能为抑制生物膜形成提供新的策略。

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