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对海洋古菌第三组的新见解:从黑暗到光明

New insights into marine group III Euryarchaeota, from dark to light.

作者信息

Haro-Moreno Jose M, Rodriguez-Valera Francisco, López-García Purificación, Moreira David, Martin-Cuadrado Ana-Belen

机构信息

Evolutionary Genomics Group, Departamento de Producción Vegetal y Microbiología, Universidad Miguel Hernández, Alicante, Spain.

Unité d'Ecologie, Systématique et Evolution, UMR CNRS 8079, Université Paris-Sud, Orsay Cedex, France.

出版信息

ISME J. 2017 May;11(5):1102-1117. doi: 10.1038/ismej.2016.188. Epub 2017 Jan 13.

DOI:10.1038/ismej.2016.188
PMID:28085158
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC5437922/
Abstract

Marine Euryarchaeota remain among the least understood major components of marine microbial communities. Marine group II Euryarchaeota (MG-II) are more abundant in surface waters (4-20% of the total prokaryotic community), whereas marine group III Euryarchaeota (MG-III) are generally considered low-abundance members of deep mesopelagic and bathypelagic communities. Using genome assembly from direct metagenome reads and metagenomic fosmid clones, we have identified six novel MG-III genome sequence bins from the photic zone (Epi1-6) and two novel bins from deep-sea samples (Bathy1-2). Genome completeness in those genome bins varies from 44% to 85%. Photic-zone MG-III bins corresponded to novel groups with no similarity, and significantly lower GC content, when compared with previously described deep-MG-III genome bins. As found in many other epipelagic microorganisms, photic-zone MG-III bins contained numerous photolyase and rhodopsin genes, as well as genes for peptide and lipid uptake and degradation, suggesting a photoheterotrophic lifestyle. Phylogenetic analysis of these photolyases and rhodopsins as well as their genomic context suggests that these genes are of bacterial origin, supporting the hypothesis of an MG-III ancestor that lived in the dark ocean. Epipelagic MG-III occur sporadically and in relatively small proportions in marine plankton, representing only up to 0.6% of the total microbial community reads in metagenomes. None of the reconstructed epipelagic MG-III genomes were present in metagenomes from aphotic zone depths or from high latitude regions. Most low-GC bins were highly enriched at the deep chlorophyll maximum zones, with the exception of Epi1, which appeared evenly distributed throughout the photic zone worldwide.

摘要

海洋广古菌门仍然是海洋微生物群落中了解最少的主要组成部分。海洋第二组广古菌门(MG-II)在表层水体中更为丰富(占原核生物群落总数的4%-20%),而海洋第三组广古菌门(MG-III)通常被认为是深层中层和深层远洋群落中的低丰度成员。通过直接宏基因组读数和宏基因组fosmid克隆进行基因组组装,我们从光合带(Epi1-6)中鉴定出6个新的MG-III基因组序列片段,从深海样本(Bathy1-2)中鉴定出2个新的片段。这些基因组片段中的基因组完整性从44%到85%不等。与先前描述的深层MG-III基因组片段相比,光合带MG-III片段对应于没有相似性且GC含量显著更低的新类群。正如在许多其他上层海洋微生物中发现的那样,光合带MG-III片段包含大量的光解酶和视紫红质基因,以及肽和脂质摄取与降解的基因,这表明其具有光异养的生活方式。对这些光解酶和视紫红质及其基因组背景的系统发育分析表明,这些基因起源于细菌,支持了MG-III祖先生活在黑暗海洋中的假说。上层海洋MG-III在海洋浮游生物中偶尔出现且比例相对较小,在宏基因组中仅占微生物群落读数总数的0.6%。在无光带深度或高纬度地区的宏基因组中,没有一个重建的上层海洋MG-III基因组。除了Epi1在全球光合带中分布均匀外,大多数低GC片段在深层叶绿素最大值区域高度富集。

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