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金属稳态基因进化的新发现:来自细菌和古菌比较基因组分析的证据

New findings on evolution of metal homeostasis genes: evidence from comparative genome analysis of bacteria and archaea.

作者信息

Coombs J M, Barkay T

机构信息

Department of Biochemistry and Microbiology, Cook College, Rutgers University, New Brunswick, New Jersey 08901, USA.

出版信息

Appl Environ Microbiol. 2005 Nov;71(11):7083-91. doi: 10.1128/AEM.71.11.7083-7091.2005.

Abstract

In order to examine the natural history of metal homeostasis genes in prokaryotes, open reading frames with homology to characterized P(IB)-type ATPases from the genomes of 188 bacteria and 22 archaea were investigated. Major findings were as follows. First, a high diversity in N-terminal metal binding motifs was observed. These motifs were distributed throughout bacterial and archaeal lineages, suggesting multiple loss and acquisition events. Second, the CopA locus separated into two distinct phylogenetic clusters, CopA1, which contained ATPases with documented Cu(I) influx activity, and CopA2, which contained both efflux and influx transporters and spanned the entire diversity of the bacterial domain, suggesting that CopA2 is the ancestral locus. Finally, phylogentic incongruences between 16S rRNA and P(IB)-type ATPase gene trees identified at least 14 instances of lateral gene transfer (LGT) that had occurred among diverse microbes. Results from bootstrapped supported nodes indicated that (i) a majority of the transfers occurred among proteobacteria, most likely due to the phylogenetic relatedness of these organisms, and (ii) gram-positive bacteria with low moles percent G+C were often involved in instances of LGT. These results, together with our earlier work on the occurrence of LGT in subsurface bacteria (J. M. Coombs and T. Barkay, Appl. Environ. Microbiol. 70:1698-1707, 2004), indicate that LGT has had a minor role in the evolution of P(IB)-type ATPases, unlike other genes that specify survival in metal-stressed environments. This study demonstrates how examination of a specific locus across microbial genomes can contribute to the understanding of phenotypes that are critical to the interactions of microbes with their environment.

摘要

为了研究原核生物中金属稳态基因的自然史,我们对来自188种细菌和22种古生菌基因组中与已鉴定的P(IB)型ATP酶具有同源性的开放阅读框进行了研究。主要发现如下。首先,观察到N端金属结合基序具有高度多样性。这些基序分布于细菌和古生菌的各个谱系中,表明存在多次丢失和获得事件。其次,CopA基因座分为两个不同的系统发育簇,CopA1包含具有已记录的Cu(I)内流活性的ATP酶,CopA2包含外排和内流转运体,涵盖了细菌域的整个多样性,这表明CopA2是祖先基因座。最后,16S rRNA和P(IB)型ATP酶基因树之间的系统发育不一致性确定了在不同微生物中至少发生了14次横向基因转移(LGT)事件。自展支持节点的结果表明:(i)大多数转移发生在变形菌之间,很可能是由于这些生物体的系统发育相关性;(ii)低G+C摩尔百分比的革兰氏阳性菌经常参与LGT事件。这些结果,连同我们早期关于地下细菌中LGT发生情况的研究(J. M. Coombs和T. Barkay,应用环境微生物学,70:1698 - 1707,2004),表明与其他指定在金属胁迫环境中生存的基因不同,LGT在P(IB)型ATP酶的进化中作用较小。这项研究证明了对微生物基因组中特定基因座的研究如何有助于理解对微生物与其环境相互作用至关重要的表型。

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