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解析水库和泻湖中浮游细菌的系统发育和代谢对溶原性的相对影响。

Disentangling the relative influence of bacterioplankton phylogeny and metabolism on lysogeny in reservoirs and lagoons.

机构信息

Laboratoire Ecosystèmes Lagunaires, Université de Montpellier 2, CNRS-Ifremer-IRD-UMR5119, Montpellier cedex 5, France.

出版信息

ISME J. 2011 May;5(5):831-42. doi: 10.1038/ismej.2010.181. Epub 2010 Dec 2.

DOI:10.1038/ismej.2010.181
PMID:21124489
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC3105773/
Abstract

Previous studies indicate that lysogeny is preponderant when environmental conditions are challenging for the bacterial communities and when their metabolism is reduced. Furthermore, it appears that lysogeny is more frequent within certain bacterial phylogenetic groups. In this comparative study from 10 freshwater reservoirs and 10 coastal lagoons, we aim to disentangle the influence of these different factors. In eight reservoirs and four lagoons, lysogeny was detected by induction assays with mitomycin C, and induction significantly modified the bacterial community composition (BCC), whereas community composition remained constant in ecosystems in which lysogeny was not observed. Among the phylogenetic groups studied, the most abundant ones were Bacteroidetes and α-proteobacteria in lagoons, and β-proteobacteria and Bacteroidetes in reservoirs. These dominant groups comprised the highest proportions of inducible lysogens. In order to unravel the effects of bacterial metabolism from phylogeny on lysogeny, we measured bacterial community physiology and the specific activities of selected phylogenetic groups. The proportion of inducible lysogens within the α- and the β-proteobacteria decreased with increasing group-specific metabolism in lagoons and reservoirs, respectively. In contrast, this relationship was not observed for the other lysogen-containing groups. Hence, both host physiology and phylogeny are critical for the establishment of lysogeny. This study illustrates the importance of lysogeny among the most abundant phylogenetic groups, and further suggests its strong structuring impact on BCC.

摘要

先前的研究表明,当环境条件对细菌群落具有挑战性,且其新陈代谢受到抑制时,溶原性占主导地位。此外,溶原性似乎在某些细菌系统发育群中更为常见。在这项来自 10 个淡水水库和 10 个沿海泻湖的比较研究中,我们旨在阐明这些不同因素的影响。在 8 个水库和 4 个泻湖中,通过丝裂霉素 C的诱导实验检测到溶原性,诱导显著改变了细菌群落组成(BCC),而在未观察到溶原性的生态系统中,群落组成保持不变。在所研究的系统发育组中,丰度最高的是泻湖中的拟杆菌门和α-变形菌门,以及水库中的β-变形菌门和拟杆菌门。这些优势组包含最高比例的可诱导溶原菌。为了解细菌代谢和系统发育对溶原性的影响,我们测量了细菌群落生理学和选定系统发育组的特定活性。在泻湖和水库中,α-和β-变形菌门中的可诱导溶原菌比例随着组特异性代谢的增加而降低。相比之下,对于其他包含溶原菌的组,未观察到这种关系。因此,宿主生理学和系统发育都是溶原性建立的关键。本研究说明了在最丰富的系统发育组中溶原性的重要性,并进一步表明其对 BCC 的强烈结构影响。