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古雅玛斯盆地深海热液羽流的微生物多样性和生物地球化学。

Microbial diversity and biogeochemistry of the Guaymas Basin deep-sea hydrothermal plume.

机构信息

Marine Biology Research Division, Scripps Institution of Oceanography, University of California San Diego, La Jolla, CA 92093-0202, USA.

出版信息

Environ Microbiol. 2010 May;12(5):1334-47. doi: 10.1111/j.1462-2920.2010.02177.x. Epub 2010 Feb 25.

DOI:10.1111/j.1462-2920.2010.02177.x
PMID:20192971
Abstract

Hydrothermal plumes are hot spots of microbial biogeochemistry in the deep ocean, yet little is known about the diversity or ecology of microorganisms inhabiting plumes. Recent biogeochemical evidence shows that Mn(II) oxidation in the Guaymas Basin (GB) hydrothermal plume is microbially mediated and suggests that the plume microbial community is distinct from deep-sea communities. Here we use a molecular approach to compare microbial diversity in the GB plume and in background deep seawater communities, and cultivation to identify Mn(II)-oxidizing bacteria from plumes and sediments. Despite dramatic differences in Mn(II) oxidation rates between plumes and background seawater, microbial diversity and membership were remarkably similar. All bacterial clone libraries were dominated by Gammaproteobacteria and archaeal clone libraries were dominated by Crenarchaeota. Two lineages, both phylogenetically related to methanotrophs and/or methylotrophs, were consistently over-represented in the plume. Eight Mn(II)-oxidizing bacteria were isolated, but none of these or previously identified Mn(II) oxidizers were abundant in clone libraries. Taken together with Mn(II) oxidation rates measured in laboratory cultures and in the field, these results suggest that Mn(II) oxidation in the GB hydrothermal plume is mediated by genome-level dynamics (gene content and/or expression) of microorganisms that are indigenous and abundant in the deep sea but have yet to be unidentified as Mn(II) oxidizers.

摘要

热液羽流是深海微生物地球化学的热点,但对于栖息在羽流中的微生物的多样性或生态学知之甚少。最近的生物地球化学证据表明,古马雅斯盆地(GB)热液羽流中的 Mn(II)氧化是微生物介导的,并表明羽流微生物群落与深海群落明显不同。在这里,我们使用分子方法比较了 GB 羽流和背景深海海水群落中的微生物多样性,并通过培养从羽流和沉积物中鉴定出 Mn(II)氧化细菌。尽管羽流和背景海水之间的 Mn(II)氧化速率存在显著差异,但微生物多样性和组成却非常相似。所有细菌克隆文库均以γ变形菌门为主,古菌克隆文库则以泉古菌门为主。有两个谱系,它们在系统发育上与甲烷营养菌和/或甲基营养菌有关,在羽流中一直过度表达。分离出了 8 株 Mn(II)氧化细菌,但这些细菌或以前鉴定出的 Mn(II)氧化菌在克隆文库中都不丰富。与实验室培养和野外测量的 Mn(II)氧化速率相结合,这些结果表明,GB 热液羽流中的 Mn(II)氧化是由微生物的基因组水平动态(基因含量和/或表达)介导的,这些微生物在深海中是本土的和丰富的,但尚未被鉴定为 Mn(II)氧化菌。

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