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基于共生起源的交替终端电子受体:氧气如何点燃真核生物进化。

Alternating terminal electron-acceptors at the basis of symbiogenesis: How oxygen ignited eukaryotic evolution.

作者信息

Speijer Dave

机构信息

Department of Medical Biochemistry, Academic Medical Centre (AMC), University of Amsterdam, Amsterdam, The Netherlands.

出版信息

Bioessays. 2017 Feb;39(2). doi: 10.1002/bies.201600174. Epub 2017 Jan 5.

DOI:10.1002/bies.201600174
PMID:28054713
Abstract

What kind of symbiosis between archaeon and bacterium gave rise to their eventual merger at the origin of the eukaryotes? I hypothesize that conditions favouring bacterial uptake were based on exchange of intermediate carbohydrate metabolites required by recurring changes in availability and use of the two different terminal electron chain acceptors, the bacterial one being oxygen. Oxygen won, and definitive loss of the archaeal membrane potential allowed permanent establishment of the bacterial partner as the proto-mitochondrion, further metabolic integration and highly efficient ATP production. This represents initial symbiogenesis, when crucial eukaryotic traits arose in response to the archaeon-bacterium merger. The attendant generation of internal reactive oxygen species (ROS) gave rise to a myriad of further eukaryotic adaptations, such as extreme mitochondrial genome reduction, nuclei, peroxisomes and meiotic sex. Eukaryotic origins could have started with shuffling intermediate metabolites as is still essential today.

摘要

古菌和细菌之间是何种共生关系导致了它们在真核生物起源时最终合并?我推测,有利于细菌摄取的条件基于两种不同末端电子链受体的可用性和使用的反复变化所需要的中间碳水化合物代谢物的交换,细菌的末端电子链受体是氧气。氧气胜出,古菌膜电位的最终丧失使得细菌伙伴作为原始线粒体得以永久确立,进一步的代谢整合以及高效的ATP产生。这代表了最初的共生起源,即关键的真核生物特征在古菌与细菌合并时出现。随之产生的内源性活性氧(ROS)引发了众多进一步的真核生物适应性变化,如线粒体基因组的极度缩减、细胞核、过氧化物酶体和减数分裂性征。真核生物的起源可能始于中间代谢物的交换,如今这一点仍然至关重要。

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