生物
古细菌
生物地理学
生态学
氧化剂
营养物
氨
细菌
生物化学
遗传学
有机化学
化学
作者
Wei Qin,Yue Zheng,Feng Zhao,Yulin Wang,Hidetoshi Urakawa,Willm Martens‐Habbena,Haodong Liu,Xiaowu Huang,Xinxu Zhang,Tatsunori Nakagawa,Daniel R. Mende,Annette Bollmann,Baozhan Wang,Yao Zhang,Shady A. Amin,Jeppe Lund Nielsen,Koji Mori,Reiji Takahashi,E. Virginia Armbrust,Mari-K H Winkler
出处
期刊:The ISME Journal
[Springer Nature]
日期:2020-07-07
卷期号:14 (10): 2595-2609
被引量:97
标识
DOI:10.1038/s41396-020-0710-7
摘要
Ammonia-oxidizing archaea (AOA) are among the most abundant and ubiquitous microorganisms in the ocean, exerting primary control on nitrification and nitrogen oxides emission. Although united by a common physiology of chemoautotrophic growth on ammonia, a corresponding high genomic and habitat variability suggests tremendous adaptive capacity. Here, we compared 44 diverse AOA genomes, 37 from species cultivated from samples collected across diverse geographic locations and seven assembled from metagenomic sequences from the mesopelagic to hadopelagic zones of the deep ocean. Comparative analysis identified seven major marine AOA genotypic groups having gene content correlated with their distinctive biogeographies. Phosphorus and ammonia availabilities as well as hydrostatic pressure were identified as selective forces driving marine AOA genotypic and gene content variability in different oceanic regions. Notably, AOA methylphosphonate biosynthetic genes span diverse oceanic provinces, reinforcing their importance for methane production in the ocean. Together, our combined comparative physiological, genomic, and metagenomic analyses provide a comprehensive view of the biogeography of globally abundant AOA and their adaptive radiation into a vast range of marine and terrestrial habitats.
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