Literature DB >> 25745010

Draft Genome Sequence of Methyloferula stellata AR4, an Obligate Methanotroph Possessing Only a Soluble Methane Monooxygenase.

Svetlana N Dedysh1, Daniil G Naumoff2, Alexey V Vorobev3, Nikos Kyrpides4, Tanja Woyke4, Nicole Shapiro4, Andrew T Crombie5, J Colin Murrell5, Marina G Kalyuzhnaya6, Angela V Smirnova7, Peter F Dunfield7.   

Abstract

Methyloferula stellata AR4 is an aerobic acidophilic methanotroph, which, in contrast to most known methanotrophs but similar to Methylocella spp., possesses only a soluble methane monooxygenase. However, it differs from Methylocella spp. by its inability to grow on multicarbon substrates. Here, we report the draft genome sequence of this bacterium.
Copyright © 2015 Dedysh et al.

Entities:  

Year:  2015        PMID: 25745010      PMCID: PMC4358397          DOI: 10.1128/genomeA.01555-14

Source DB:  PubMed          Journal:  Genome Announc


GENOME ANNOUNCEMENT

Methyloferula stellata AR4 is a methanotroph of the Alphaproteobacteria family Beijerinckiaceae. It is a typical inhabitant of acidic wetlands and soils (1). It represents only the second known genus of methanotrophs (after Methylocella) lacking a particulate methane monooxygenase (pMMO) and an extensive intracytoplasmic membrane system. Methyloferula spp. and Methylocella spp. possess only a soluble methane monooxygenase (sMMO) and share some phenotypic characteristics, such as tolerance to low pH and the ability to fix dinitrogen. However, they differ with regard to their substrate utilization patterns. Methylocella species are facultative methanotrophs, which, in addition to C1 compounds, utilize acetate and several other organic acids, ethanol, and some short-chain alkanes (2–4). In contrast, M. stellata grows only on methane and methanol (1). The draft genome sequence was generated at the Department of Energy (DOE) Joint Genome Institute (JGI) using Illumina technology (5). The combination of short-insert (insert size, ~250 bp) and long-insert (~9,500 bp) paired-end libraries produced 3,088 Mb of data (see http://www.jgi.doe.gov/). These were assembled with AllPaths version r41554 and computationally shredded into 10-kb overlapping fake reads (6). The Illumina data were also assembled with Velvet version 1.1.05 (7), computationally shredded into 1.5-kb overlapping fake reads, reassembled with Velvet, and shredded into 1.5-kb overlapping fake reads. The fake reads from the AllPaths and two Velvet assemblies, as well as a subset of the Illumina cross-linking and immunoprecipitation sequencing (CLIP) paired-end reads, were assembled using parallel Phrap version 4.24 (High Performance Software, LLC). Possible misassemblies were corrected with manual editing in Consed (8–10). The total estimated size of the M. stellata AR4 genome is 4.24 Mb (coverage, 735×), with an average G+C content of 59.5%. A single rRNA operon, 46 tRNAs, and 3,967 predicted protein-coding genes were identified. The absence of pMMO-encoding genes and the presence of an operon encoding sMMO (mmoXYBZDC) are unique features shared only by Methyloferula stellata and Methylocella species (11). An additional soluble diiron monooxygenase, i.e., propane monooxygenase, which is present in Methylocella silvestris BL2 (3, 11), is lacking in M. stellata. Strain AR4 contains a large array of genes encoding various alcohol dehydrogenase quinoproteins, i.e., one MxaFI- methanol dehydrogenase (MDH), five XoxF-MDHs, and one alcohol dehydrogenase type 6a quinoprotein (12). Genes involved in tetrahydromethanopterin-linked C1 transfer and formate oxidation were also identified. Similarly to other Beijerinckiaceae methanotrophs (13), the genome of M. stellata contains the complete set of genes for the function of the Calvin-Benson-Bassham cycle and the serine pathway for carbon assimilation, as well as genes encoding enzymes of the tricarboxylic acid cycle. It lacks the ethylmalonyl-coenzyme A (CoA) pathway for glyoxylate regeneration but possesses a glyoxylate bypass. The number of membrane transporters in Methyloferula stellata AR4 is nearly the same as in Methylocella silvestris BL2 (13); M. silvestris BL2 however, possesses an acetate/glycolate transporter that is lacking in strain AR4. The genes involved in N2 fixation are organized as in Beijerinckia indica (14) into two genomic islands, with one additional nifK gene homologue located outside these islands.

Nucleotide sequence accession number.

The M. stellata AR4 genome sequence was deposited in GenBank/EMBL under the accession no. ARWA00000000.
  14 in total

1.  Complete genome sequence of the aerobic facultative methanotroph Methylocella silvestris BL2.

Authors:  Yin Chen; Andrew Crombie; M Tanvir Rahman; Svetlana N Dedysh; Werner Liesack; Matthew B Stott; Maqsudul Alam; Andreas R Theisen; J Colin Murrell; Peter F Dunfield
Journal:  J Bacteriol       Date:  2010-05-14       Impact factor: 3.490

2.  Methylocella species are facultatively methanotrophic.

Authors:  Svetlana N Dedysh; Claudia Knief; Peter F Dunfield
Journal:  J Bacteriol       Date:  2005-07       Impact factor: 3.490

3.  Methyloferula stellata gen. nov., sp. nov., an acidophilic, obligately methanotrophic bacterium that possesses only a soluble methane monooxygenase.

Authors:  Alexey V Vorobev; Mohamed Baani; Nina V Doronina; Allyson L Brady; Werner Liesack; Peter F Dunfield; Svetlana N Dedysh
Journal:  Int J Syst Evol Microbiol       Date:  2010-11-19       Impact factor: 2.747

4.  Velvet: algorithms for de novo short read assembly using de Bruijn graphs.

Authors:  Daniel R Zerbino; Ewan Birney
Journal:  Genome Res       Date:  2008-03-18       Impact factor: 9.043

5.  Base-calling of automated sequencer traces using phred. II. Error probabilities.

Authors:  B Ewing; P Green
Journal:  Genome Res       Date:  1998-03       Impact factor: 9.043

6.  Consed: a graphical tool for sequence finishing.

Authors:  D Gordon; C Abajian; P Green
Journal:  Genome Res       Date:  1998-03       Impact factor: 9.043

7.  Trace-gas metabolic versatility of the facultative methanotroph Methylocella silvestris.

Authors:  Andrew T Crombie; J Colin Murrell
Journal:  Nature       Date:  2014-04-28       Impact factor: 49.962

Review 8.  PQQ-dependent methanol dehydrogenases: rare-earth elements make a difference.

Authors:  Jan T Keltjens; Arjan Pol; Joachim Reimann; Huub J M Op den Camp
Journal:  Appl Microbiol Biotechnol       Date:  2014-05-13       Impact factor: 4.813

9.  ALLPATHS: de novo assembly of whole-genome shotgun microreads.

Authors:  Jonathan Butler; Iain MacCallum; Michael Kleber; Ilya A Shlyakhter; Matthew K Belmonte; Eric S Lander; Chad Nusbaum; David B Jaffe
Journal:  Genome Res       Date:  2008-03-13       Impact factor: 9.043

10.  The (d)evolution of methanotrophy in the Beijerinckiaceae--a comparative genomics analysis.

Authors:  Ivica Tamas; Angela V Smirnova; Zhiguo He; Peter F Dunfield
Journal:  ISME J       Date:  2013-08-29       Impact factor: 10.302

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Review 1.  Metals and Methanotrophy.

Authors:  Jeremy D Semrau; Alan A DiSpirito; Wenyu Gu; Sukhwan Yoon
Journal:  Appl Environ Microbiol       Date:  2018-03-01       Impact factor: 4.792

2.  Response of Methylocystis sp. Strain SC2 to Salt Stress: Physiology, Global Transcriptome, and Amino Acid Profiles.

Authors:  Dongfei Han; Hannes Link; Werner Liesack
Journal:  Appl Environ Microbiol       Date:  2017-09-29       Impact factor: 4.792

Review 3.  Diversity and Habitat Preferences of Cultivated and Uncultivated Aerobic Methanotrophic Bacteria Evaluated Based on pmoA as Molecular Marker.

Authors:  Claudia Knief
Journal:  Front Microbiol       Date:  2015-12-15       Impact factor: 5.640

4.  Survey of methanotrophic diversity in various ecosystems by degenerate methane monooxygenase gene primers.

Authors:  Mohammad Ghashghavi; Mike S M Jetten; Claudia Lüke
Journal:  AMB Express       Date:  2017-08-23       Impact factor: 3.298

5.  Relative Abundance and Diversity of Bacterial Methanotrophs at the Oxic-Anoxic Interface of the Congo Deep-Sea Fan.

Authors:  Sandrine Bessette; Yann Moalic; Sébastien Gautey; Françoise Lesongeur; Anne Godfroy; Laurent Toffin
Journal:  Front Microbiol       Date:  2017-04-25       Impact factor: 5.640

6.  Differential Transcriptional Activation of Genes Encoding Soluble Methane Monooxygenase in a Facultative Versus an Obligate Methanotroph.

Authors:  Angela V Smirnova; Peter F Dunfield
Journal:  Microorganisms       Date:  2018-03-06

7.  Methanotrophy across a natural permafrost thaw environment.

Authors:  Caitlin M Singleton; Carmody K McCalley; Ben J Woodcroft; Joel A Boyd; Paul N Evans; Suzanne B Hodgkins; Jeffrey P Chanton; Steve Frolking; Patrick M Crill; Scott R Saleska; Virginia I Rich; Gene W Tyson
Journal:  ISME J       Date:  2018-06-28       Impact factor: 10.302

8.  Facultative methanotrophs are abundant at terrestrial natural gas seeps.

Authors:  Muhammad Farhan Ul Haque; Andrew T Crombie; Scott A Ensminger; Calin Baciu; J Colin Murrell
Journal:  Microbiome       Date:  2018-06-28       Impact factor: 14.650

9.  Widespread soil bacterium that oxidizes atmospheric methane.

Authors:  Alexander T Tveit; Anne Grethe Hestnes; Serina L Robinson; Arno Schintlmeister; Svetlana N Dedysh; Nico Jehmlich; Martin von Bergen; Craig Herbold; Michael Wagner; Andreas Richter; Mette M Svenning
Journal:  Proc Natl Acad Sci U S A       Date:  2019-04-08       Impact factor: 11.205

10.  Novel facultative Methylocella strains are active methane consumers at terrestrial natural gas seeps.

Authors:  Muhammad Farhan Ul Haque; Andrew T Crombie; J Colin Murrell
Journal:  Microbiome       Date:  2019-10-04       Impact factor: 14.650

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