4.6 Article

The YNP metagenome project: environmental parameters responsible for microbial distribution in the Yellowstone geothermal ecosystem

Journal

FRONTIERS IN MICROBIOLOGY
Volume 4, Issue -, Pages -

Publisher

FRONTIERS MEDIA SA
DOI: 10.3389/fmicb.2013.00067

Keywords

thermophiles; geochemistry; microbial interactions; microbial mats; functional genomics

Categories

Funding

  1. National Science Foundation Research Coordination Network Program [MCB 0342269]
  2. DOE-Joint Genome Institute Community Sequencing Program [CSP 787081]
  3. Office of Science of the U.S. Department of Energy [DE-AC02-05CH11231]
  4. Novo Nordisk Fonden [NNF10CC1016517] Funding Source: researchfish
  5. Direct For Biological Sciences
  6. Emerging Frontiers [0801999] Funding Source: National Science Foundation

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The Yellowstone geothermal complex contains over 10,000 diverse geothermal features that host numerous phylogenetically deeply rooted and poorly understood archaea, bacteria, and viruses. Microbial communities in high-temperature environments are generally less diverse than soil, marine, sediment, or lake habitats and therefore offer a tremendous opportunity for studying the structure and function of different model microbial communities using environmental metagenomics. One of the broader goals of this study was to establish linkages among microbial distribution, metabolic potential, and environmental variables. Twenty geochemically distinct geothermal ecosystems representing a broad spectrum of Yellowstone hot-spring environments were used for metagenomic and geochemical analysis and included approximately equal numbers of: (1) phototrophic mats, (2) filamentous streamer communities, and (3) archaeal-dominated sediments. The metagenomes were analyzed using a suite of complementary and integrative bioinformatic tools, including phylogenetic and functional analysis of both individual sequence reads and assemblies of predominant phylotypes. This volume identifies major environmental determinants of a large number of thermophilic microbial lineages, many of which have not been fully described in the literature nor previously cultivated to enable functional and genomic analyses. Moreover, protein family abundance comparisons and in-depth analyses of specific genes and metabolic pathways relevant to these hot-spring environments reveal hallmark signatures of metabolic capabilities that parallel the distribution of phylotypes across specific types of geochemical environments.

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