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Genomics and Proteomics

Complete Genome Sequence of the Genetically Tractable Hydrogenotrophic Methanogen Methanococcus maripaludis

E. L. Hendrickson, R. Kaul, Y. Zhou, D. Bovee, P. Chapman, J. Chung, E. Conway de Macario, J. A. Dodsworth, W. Gillett, D. E. Graham, M. Hackett, A. K. Haydock, A. Kang, M. L. Land, R. Levy, T. J. Lie, T. A. Major, B. C. Moore, I. Porat, A. Palmeiri, G. Rouse, C. Saenphimmachak, D. Söll, S. Van Dien, T. Wang, W. B. Whitman, Q. Xia, Y. Zhang, F. W. Larimer, M. V. Olson, J. A. Leigh
E. L. Hendrickson
1Departments of Microbiology
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R. Kaul
2Department of Medicine, Division of Medical Genetics
3University of Washington Genome Center
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Y. Zhou
3University of Washington Genome Center
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D. Bovee
3University of Washington Genome Center
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P. Chapman
3University of Washington Genome Center
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J. Chung
3University of Washington Genome Center
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E. Conway de Macario
4Wadsworth Center, New York State Department of Health, Division of Molecular Medicine, The University at Albany (SUNY), Albany, New York
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J. A. Dodsworth
1Departments of Microbiology
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W. Gillett
3University of Washington Genome Center
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D. E. Graham
5Department of Chemistry and Biochemistry, The University of Texas at Austin, Austin, Texas
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M. Hackett
6Chemical Engineering
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A. K. Haydock
1Departments of Microbiology
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A. Kang
3University of Washington Genome Center
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M. L. Land
7Genome Analysis and Systems Modeling, Oak Ridge National Laboratory, Oak Ridge, Tennessee
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R. Levy
3University of Washington Genome Center
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T. J. Lie
1Departments of Microbiology
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T. A. Major
8Department of Microbiology, University of Georgia, Athens, Georgia
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B. C. Moore
1Departments of Microbiology
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I. Porat
8Department of Microbiology, University of Georgia, Athens, Georgia
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A. Palmeiri
3University of Washington Genome Center
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G. Rouse
3University of Washington Genome Center
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C. Saenphimmachak
3University of Washington Genome Center
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D. Söll
9Department of Molecular Biophysics and Biochemistry, Yale University, New Haven, Connecticut
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S. Van Dien
10United Metabolics, Seattle, Washington
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T. Wang
1Departments of Microbiology
6Chemical Engineering
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W. B. Whitman
8Department of Microbiology, University of Georgia, Athens, Georgia
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Q. Xia
1Departments of Microbiology
6Chemical Engineering
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Y. Zhang
1Departments of Microbiology
6Chemical Engineering
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F. W. Larimer
7Genome Analysis and Systems Modeling, Oak Ridge National Laboratory, Oak Ridge, Tennessee
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M. V. Olson
2Department of Medicine, Division of Medical Genetics
3University of Washington Genome Center
11Genome Sciences, University of Washington
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J. A. Leigh
1Departments of Microbiology
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  • For correspondence: leighj@u.washington.edu
DOI: 10.1128/JB.186.20.6956-6969.2004
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ABSTRACT

The genome sequence of the genetically tractable, mesophilic, hydrogenotrophic methanogen Methanococcus maripaludis contains 1,722 protein-coding genes in a single circular chromosome of 1,661,137 bp. Of the protein-coding genes (open reading frames [ORFs]), 44% were assigned a function, 48% were conserved but had unknown or uncertain functions, and 7.5% (129 ORFs) were unique to M. maripaludis. Of the unique ORFs, 27 were confirmed to encode proteins by the mass spectrometric identification of unique peptides. Genes for most known functions and pathways were identified. For example, a full complement of hydrogenases and methanogenesis enzymes was identified, including eight selenocysteine-containing proteins, with each being paralogous to a cysteine-containing counterpart. At least 59 proteins were predicted to contain iron-sulfur centers, including ferredoxins, polyferredoxins, and subunits of enzymes with various redox functions. Unusual features included the absence of a Cdc6 homolog, implying a variation in replication initiation, and the presence of a bacterial-like RNase HI as well as an RNase HII typical of the Archaea. The presence of alanine dehydrogenase and alanine racemase, which are uniquely present among the Archaea, explained the ability of the organism to use l- and d-alanine as nitrogen sources. Features that contrasted with the related organism Methanocaldococcus jannaschii included the absence of inteins, even though close homologs of most intein-containing proteins were encoded. Although two-thirds of the ORFs had their highest Blastp hits in Methanocaldococcus jannaschii, lateral gene transfer or gene loss has apparently resulted in genes, which are often clustered, with top Blastp hits in more distantly related groups.

  • Copyright © 2004 American Society for Microbiology
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Complete Genome Sequence of the Genetically Tractable Hydrogenotrophic Methanogen Methanococcus maripaludis
E. L. Hendrickson, R. Kaul, Y. Zhou, D. Bovee, P. Chapman, J. Chung, E. Conway de Macario, J. A. Dodsworth, W. Gillett, D. E. Graham, M. Hackett, A. K. Haydock, A. Kang, M. L. Land, R. Levy, T. J. Lie, T. A. Major, B. C. Moore, I. Porat, A. Palmeiri, G. Rouse, C. Saenphimmachak, D. Söll, S. Van Dien, T. Wang, W. B. Whitman, Q. Xia, Y. Zhang, F. W. Larimer, M. V. Olson, J. A. Leigh
Journal of Bacteriology Oct 2004, 186 (20) 6956-6969; DOI: 10.1128/JB.186.20.6956-6969.2004

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Complete Genome Sequence of the Genetically Tractable Hydrogenotrophic Methanogen Methanococcus maripaludis
E. L. Hendrickson, R. Kaul, Y. Zhou, D. Bovee, P. Chapman, J. Chung, E. Conway de Macario, J. A. Dodsworth, W. Gillett, D. E. Graham, M. Hackett, A. K. Haydock, A. Kang, M. L. Land, R. Levy, T. J. Lie, T. A. Major, B. C. Moore, I. Porat, A. Palmeiri, G. Rouse, C. Saenphimmachak, D. Söll, S. Van Dien, T. Wang, W. B. Whitman, Q. Xia, Y. Zhang, F. W. Larimer, M. V. Olson, J. A. Leigh
Journal of Bacteriology Oct 2004, 186 (20) 6956-6969; DOI: 10.1128/JB.186.20.6956-6969.2004
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KEYWORDS

Archaeal Proteins
Genome, Archaeal
hydrogen
methane
Methanococcus
Sequence Analysis, DNA

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