所有微生物都具有电活性吗?

IF 7.9 2区 综合性期刊 Q1 CHEMISTRY, MULTIDISCIPLINARY
Leonid Digel, Robin Bonné, Kartik Aiyer
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引用次数: 0

摘要

微生物电活性使微生物能够与细胞外电子供体和受体交换电子。微生物电活性最初是在革兰氏菌(Geobacter)和雪旺菌(Shewanella)中发现的,现在已经证明,微生物电活性在各种环境中都很普遍,它有助于获得遥远而稀缺的电子供体和受体。这种现象并不局限于少数几种微生物,而是横跨三个生命领域,即古生菌、细菌和真核生物。在这一视角中,我们讨论了电活性这一统一的代谢特征,它横跨不同的微生物类群,包括光养菌、硫氧化细菌、铁氧化细菌、固氮菌,甚至是强制性需氧菌。我们重点介绍了有关通过水平基因转移传播电活性的可能机制的最新发现。重要的是,不同微生物群之间细胞外电子传递(EET)结构上的一致机制强调了其进化意义。考虑到厌氧代谢在早期地球上占主导地位,我们认为电活性是所有现存微生物都能利用的一种祖先适应性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Are all microbes electroactive?

Are all microbes electroactive?

Microbial electroactivity enables microorganisms to exchange electrons with extracellular electron donors and acceptors. Initially identified in Geobacter and Shewanella, it has now become evident that microbial electroactivity is prevalent in a variety of environments, facilitating access to distant and scarce electron donors and acceptors. This phenomenon is not confined to a few select microbes but spans across the three domains of life, viz. archaea, bacteria, and eukaryotes. In this perspective, we discuss electroactivity as a unifying metabolic trait across diverse microbial taxa, including phototrophs, sulfur-oxidizing bacteria, iron-oxidizing bacteria, nitrogen fixers, and even obligate aerobes. We highlight recent findings regarding possible mechanisms for the spread of electroactivity via horizontal gene transfer. Importantly, structurally conserved mechanisms of extracellular electron transfer (EET) across different microbial groups underscore its evolutionary significance. Considering the dominance of anaerobic metabolisms on early Earth, we propose that electroactivity is an ancestral adaptation available to all extant microorganisms.

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来源期刊
Cell Reports Physical Science
Cell Reports Physical Science Energy-Energy (all)
CiteScore
11.40
自引率
2.20%
发文量
388
审稿时长
62 days
期刊介绍: Cell Reports Physical Science, a premium open-access journal from Cell Press, features high-quality, cutting-edge research spanning the physical sciences. It serves as an open forum fostering collaboration among physical scientists while championing open science principles. Published works must signify significant advancements in fundamental insight or technological applications within fields such as chemistry, physics, materials science, energy science, engineering, and related interdisciplinary studies. In addition to longer articles, the journal considers impactful short-form reports and short reviews covering recent literature in emerging fields. Continually adapting to the evolving open science landscape, the journal reviews its policies to align with community consensus and best practices.
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