一种新型甲烷养甲虫有可能将甲烷氧化与碘酸盐还原结合起来。

IF 4.5 Q1 MICROBIOLOGY mLife Pub Date : 2022-08-09 eCollection Date: 2022-09-01 DOI:10.1002/mlf2.12033
Baoli Zhu, Clemens Karwautz, Stefan Andrei, Andreas Klingl, Jakob Pernthaler, Tillmann Lueders
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引用次数: 0

摘要

甲烷氧化微生物在减少这种强效温室气体向大气排放方面发挥着关键作用。最近发现的厌氧型甲烷滋养微生物的多功能性是有限的。在这里,我们报告了一种新的未培养的甲氧甲烷菌--Candidatus Methylomirabilis iodofontis,它具有从富含碘的岩洞泉水生物膜中进行碘酸盐呼吸的遗传潜力。从生物膜中直接观察到了类似于Methylomirabilis oxyfera的星状细胞,并获得了Ca.M. iodofontis的高质量元基因组(MAG)。M. iodofontis 的高质量元基因组(MAG)。除了含氧反硝化和需氧甲烷氧化途径外,M. iodofontis 的 MAG 还显示了其碘酸盐还原潜力,这种能力使该细菌能够使用亚硝酸盐以外的碘酸盐作为电子受体,这是迄今为止尚未认识到的 Methylomirabilota 甲烷营养菌的代谢潜力。这些结果加深了人们目前对厌氧甲烷菌生态生理学的了解,并可能为甲烷的吸收提供了新的途径,尤其是在富含碘酸盐的生态系统中。
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A novel Methylomirabilota methanotroph potentially couples methane oxidation to iodate reduction.

Methane oxidizing microbes play a key role in reducing the emission of this potent greenhouse gas to the atmosphere. The known versatility of the recently discovered anaerobic Methylomirabilota methanotrophs is limited. Here, we report a novel uncultured Methylomirabilis species, Candidatus Methylomirabilis iodofontis, with the genetic potential of iodate respiration from biofilm in iodine-rich cavern spring water. Star-like cells resembling Methylomirabilis oxyfera were directly observed from the biofilm and a high-quality metagenome-assembled genome (MAG) of Ca. M. iodofontis was assembled. In addition to oxygenic denitrification and aerobic methane oxidation pathways, the M. iodofontis MAG also indicated its iodate-reducing potential, a capability that would enable the bacterium to use iodate other than nitrite as an electron acceptor, a hitherto unrecognized metabolic potential of Methylomirabilota methanotrophs. The results advance the current understanding of the ecophysiology of anaerobic Methylomirabilota methanotrophs and may suggest an additional methane sink, especially in iodate-rich ecosystems.

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