火山土壤和层状圈中先锋细菌对CO和H2的代谢

Nicola Fantom, Robin A Dawson, Edina Prondvai, Philippe Constant, Gary M King, Hendrik Schäfer, Marcela Hernández
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引用次数: 0

摘要

微量气体降解在微生物群落中是一种广泛的代谢适应,它驱动化学合成并提供辅助能量,增强营养缺乏时的持久性。特别是,一氧化碳和氢气的降解对于开拓微生物群落在新的、寡营养环境生态位(如新鲜的火山沉积物或层层圈的空中界面)上定居至关重要。火山爆发后,微量气体的代谢有助于拓荒者在火山灰沉积物和最近凝固的熔岩中开始土壤形成,这是一项至关重要的生态系统服务。同样,在层圈中,细菌在新出现的叶片和芽上定植,和/或在植物的寡营养表面持续存在,也受益于微量气体的氧化,考虑到这一栖息地的全球规模,可能构成这些影响大气化学的微量气体的重要汇。在此,我们回顾了关于一氧化碳和氢气的微生物氧化的知识现状,并讨论了这如何有助于在少营养生态系统中的生态位定植。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Metabolism of CO and H2 by pioneer bacteria in volcanic soils and the phyllosphere
Trace gas degradation is a widespread metabolic adaptation in microbial communities, driving chemosynthesis and providing auxiliary energy that enhances persistence during nutrient starvation. In particular, carbon monoxide and hydrogen degradation can be of crucial importance for pioneering microbial communities colonising new, oligotrophic environmental niches, such as fresh volcanic deposits or the aerial interface of the phyllosphere. After volcanic eruptions, trace gas metabolism helps pioneer colonisers to initiate soil formation in ash deposits and on recently solidified lava, a vital ecosystem service. Similarly, in the phyllosphere, bacteria colonising newly emerging leaves and shoots, and/or persisting on the oligotrophic surface of plants, also benefit from trace gas oxidation and, given the global size of this habitat, likely constitute a significant sink for these trace gases affecting atmospheric chemistry. Herein, we review the current state of knowledge surrounding microbial oxidation of carbon monoxide and hydrogen and discuss how this may contribute to niche colonisation in oligotrophic ecosystems.
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