Literature DB >> 27516497

Genome Sequence of Gordonia Phage BetterKatz.

Welkin H Pope1, Emily N Berryman2, Kaitlyn M Forrest2, Lilliana McHale2, Anthony T Wertz2, Zenas Zhuang2, Naomi S Kasturiarachi2, Catherine A Pressimone2, Johnathon G Schiebel2, Emily C Furbee2, Sarah R Grubb2, Marcie H Warner2, Matthew T Montgomery2, Rebecca A Garlena2, Daniel A Russell2, Deborah Jacobs-Sera2, Graham F Hatfull2.   

Abstract

BetterKatz is a bacteriophage isolated from a soil sample collected in Pittsburgh, Pennsylvania using the host Gordonia terrae 3612. BetterKatz's genome is 50,636 bp long and contains 75 predicted protein-coding genes, 35 of which have been assigned putative functions. BetterKatz is not closely related to other sequenced Gordonia phages.
Copyright © 2016 Pope et al.

Entities:  

Year:  2016        PMID: 27516497      PMCID: PMC4982276          DOI: 10.1128/genomeA.00590-16

Source DB:  PubMed          Journal:  Genome Announc


GENOME ANNOUNCEMENT

Gordonia spp. are common environmental inhabitants (1) and several bacteriophages have been isolated using Gordonia hosts (2–6). To understand the genetic diversity of Gordonia phages, the integrated research-education Science Education Alliance-Phage Hunters Advancing Genomic and Evolutionary Science (SEA-PHAGES) program is using Gordonia terrae 3612 to isolate and genomically characterize bacteriophages (7). Phage BetterKatz was recovered from a soil sample from Pittsburgh, PA by direct plating of filtered soil extract on a lawn of G. terrae; it was plaque purified, amplified, and viral dsDNA was extracted. BetterKatz virions have a siphoviral morphology with an isometric head, and a flexible tail 220 nm in length. BetterKatz was sequenced using the Illumina MiSeq platform using 140 bp single-end reads and assembled using Newbler to yield a single major contig of 50,636 bp with an average coverage of 247-fold. The genome has defined ends with 10 base 3′ single stranded DNA extensions (5′-TGCCGCGGTA) and is 67.1% G+C, similar to its host (67.8%). BetterKatz does not share extensive nucleotide sequence similarity to other sequenced phages or prophages, although there are two segments spanning approximately 10 kbp—corresponding to virion structural genes—with similarity to a putative prophage in Gordonia sp. KTR9 (8) that is integrated at an attB site overlapping a tRNAala gene (KTR9_RS07590). Seventy-five BetterKatz protein-coding genes were predicted using Glimmer and Genemark (9, 10) and putative functions were assigned using BLASTP, HHpred, and Phamerator (11, 12); no tRNA genes are predicted using Aragorn (13). All are transcribed rightwards with the exception of five genes—including a tyrosine-integrase and the immunity repressor—near the center of the genome. The attachment site (attP) is located immediately downstream of int (39) and BetterKatz is predicted to integrate into the same attB site overlapping a tRNAala gene, where prophages lie in both Gordonia sp. KTR9 and Gordonia bronchialis DSM 43427 (14). The genes in the left arm are predominantly virion structure and assembly genes, and several genes in the right arm encode putative DNA metabolism functions including a DNA primase, a DNA methylase, and an exonuclease. We note that 31 of the predicted genes have no amino acid sequence similarity to other actinobacteriophage-encoded proteins in a data set of over 150,000 genes. The lysis cassette in BetterKatz is located immediately downstream of the virion tail genes and there are two genes with predicted endolysin functions, gp29 that encodes a cysteine protease-like protein and gp30 encoding a glycoside hydrolase. The product of gene 31 has three predicted transmembrane domains and is the likely holin, although gp32 is also a putative membrane protein with four transmembrane domains and may also play a role in lysis. Immediately to the right of the lysis cassette is a leftwards-transcribed HicAB-like toxin-antitoxin system (15). A putative transcription promoter is located upstream of the toxin gene (35) and a region of dyad symmetry overlaps the putative −10 motif to which the antitoxin (gp34) may bind to regulate TA transcription.

Accession number(s).

The BetterKatz genome sequence is available from GenBank under accession number KU963261.
  14 in total

1.  ARAGORN, a program to detect tRNA genes and tmRNA genes in nucleotide sequences.

Authors:  Dean Laslett; Bjorn Canback
Journal:  Nucleic Acids Res       Date:  2004-01-02       Impact factor: 16.971

2.  Improved microbial gene identification with GLIMMER.

Authors:  A L Delcher; D Harmon; S Kasif; O White; S L Salzberg
Journal:  Nucleic Acids Res       Date:  1999-12-01       Impact factor: 16.971

3.  Characterization of the genome of the polyvalent lytic bacteriophage GTE2, which has potential for biocontrol of Gordonia-, Rhodococcus-, and Nocardia-stabilized foams in activated sludge plants.

Authors:  Steve Petrovski; Robert J Seviour; Daniel Tillett
Journal:  Appl Environ Microbiol       Date:  2011-04-15       Impact factor: 4.792

4.  Prevention of Gordonia and Nocardia stabilized foam formation by using bacteriophage GTE7.

Authors:  Steve Petrovski; Robert J Seviour; Daniel Tillett
Journal:  Appl Environ Microbiol       Date:  2011-09-16       Impact factor: 4.792

5.  Genome sequences and characterization of the related Gordonia phages GTE5 and GRU1 and their use as potential biocontrol agents.

Authors:  Steve Petrovski; Daniel Tillett; Robert J Seviour
Journal:  Appl Environ Microbiol       Date:  2011-10-28       Impact factor: 4.792

6.  Phamerator: a bioinformatic tool for comparative bacteriophage genomics.

Authors:  Steven G Cresawn; Matt Bogel; Nathan Day; Deborah Jacobs-Sera; Roger W Hendrix; Graham F Hatfull
Journal:  BMC Bioinformatics       Date:  2011-10-12       Impact factor: 3.169

7.  Genomic and transcriptomic studies of an RDX (hexahydro-1,3,5-trinitro-1,3,5-triazine)-degrading actinobacterium.

Authors:  Hao-Ping Chen; Song-Hua Zhu; Israël Casabon; Steven J Hallam; Fiona H Crocker; William W Mohn; Karl J Indest; Lindsay D Eltis
Journal:  Appl Environ Microbiol       Date:  2012-08-24       Impact factor: 4.792

8.  Complete genome sequence of Gordonia bronchialis type strain (3410).

Authors:  Natalia Ivanova; Johannes Sikorski; Marlen Jando; Alla Lapidus; Matt Nolan; Susan Lucas; Tijana Glavina Del Rio; Hope Tice; Alex Copeland; Jan-Fang Cheng; Feng Chen; David Bruce; Lynne Goodwin; Sam Pitluck; Konstantinos Mavromatis; Galina Ovchinnikova; Amrita Pati; Amy Chen; Krishna Palaniappan; Miriam Land; Loren Hauser; Yun-Juan Chang; Cynthia D Jeffries; Patrick Chain; Elizabeth Saunders; Cliff Han; John C Detter; Thomas Brettin; Manfred Rohde; Markus Göker; Jim Bristow; Jonathan A Eisen; Victor Markowitz; Philip Hugenholtz; Hans-Peter Klenk; Nikos C Kyrpides
Journal:  Stand Genomic Sci       Date:  2010-01-28

9.  Bacteriophages of wastewater foaming-associated filamentous Gordonia reduce host levels in raw activated sludge.

Authors:  Mei Liu; Jason J Gill; Ry Young; Elizabeth J Summer
Journal:  Sci Rep       Date:  2015-09-09       Impact factor: 4.379

10.  Lysis to Kill: Evaluation of the Lytic Abilities, and Genomics of Nine Bacteriophages Infective for Gordonia spp. and Their Potential Use in Activated Sludge Foam Biocontrol.

Authors:  Zoe A Dyson; Joseph Tucci; Robert J Seviour; Steve Petrovski
Journal:  PLoS One       Date:  2015-08-04       Impact factor: 3.240

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  1 in total

1.  Bacteriophages of Gordonia spp. Display a Spectrum of Diversity and Genetic Relationships.

Authors:  Welkin H Pope; Travis N Mavrich; Rebecca A Garlena; Carlos A Guerrero-Bustamante; Deborah Jacobs-Sera; Matthew T Montgomery; Daniel A Russell; Marcie H Warner; Graham F Hatfull
Journal:  mBio       Date:  2017-08-15       Impact factor: 7.867

  1 in total

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