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Genomic Analysis of the Yet-Uncultured Binatota Reveals Broad Methylotrophic, Alkane-Degradation, and Pigment Production Capacities

Chelsea L. Murphy, Andriy Sheremet, Peter F. Dunfield, John R. Spear, Ramūnas Stepanauskas, Tanja Woyke, Mostafa S. Elshahed, Noha H. Youssef

2021mBio33 citationsDOIOpen Access PDF

Abstract

) compounds in Binatota genomes. The occurrence of multiple alkane hydroxylases and monooxygenases in these genomes was also identified, potentially enabling growth on a wide range of alkanes and fatty acids. Pigmentation is inferred from a complete pathway for carotenoids production. We also report on the presence of incomplete chlorophyll biosynthetic pathways in all genomes and propose several evolutionary-grounded scenarios that could explain such a pattern. Assessment of the ecological distribution patterns of the Binatota indicates preference of its members to terrestrial and freshwater ecosystems characterized by high methane and methanol emissions, as well as multiple hydrocarbon-rich habitats and marine sponges.

Topics & Concepts

PhylumBiologyGenomeEvolutionary biologyEcosystemRange (aeronautics)Computational biologyGeneEcologyGeneticsComposite materialMaterials scienceMicrobial Community Ecology and PhysiologyMicrobial Metabolic Engineering and BioproductionGenomics and Phylogenetic Studies
Genomic Analysis of the Yet-Uncultured Binatota Reveals Broad Methylotrophic, Alkane-Degradation, and Pigment Production Capacities | Litcius