Literature DB >> 27151800

Genome Sequence of Riemerella anatipestifer Strain RCAD0122, a Multidrug-Resistant Isolate from Ducks.

Xiao-Heng Song1, Wang-Shu Zhou1, Jiang-Bo Wang1, Ma-Feng Liu2, Ming-Shu Wang2, An-Chun Cheng1, Ren-Yong Jia1, Shun Chen2, Kun-Feng Sun2, Qiao Yang2, Ying Wu2, Xiao-Yue Chen1, De-Kang Zhu3.   

Abstract

Riemerella anatipestifer is an important pathogenic bacterium in waterfowl and other avian species. We present here the genome sequence of R. anatipestifer RCAD0122, a multidrug-resistant strain isolated from infected ducks. The isolate contains at least nine types of antibiotic resistance-associated genes.
Copyright © 2016 Song et al.

Entities:  

Year:  2016        PMID: 27151800      PMCID: PMC4859182          DOI: 10.1128/genomeA.00332-16

Source DB:  PubMed          Journal:  Genome Announc


GENOME ANNOUNCEMENT

Riemerella anatipestifer is a Gram-negative, non-spore-forming, and rod-shaped bacterium, which can infect domestic ducks, turkeys, and various other birds (1). To date, only one genome sequence of multidrug-resistant R. anatipestifer strains has been reported (2). RCAD0122, a strain isolated from the livers of ducks in China, has been proven to be resistant to multiple antibiotics; these antibiotics include β-lactamases, fluoroquinolones, chloramphenicol, lincosamide, sulfonamides, aminoglycosides, tetracyclines, glycopeptide antibiotics, and erythrocin. Because of this, the genome of RCAD0122 was sequenced. We think the genome sequence of RCAD0122 may facilitate a better understanding of the resistance mechanism of R. anatipestifer compared to that of the sequenced resistance strains (2, 3). R. anatipestifer has a very wide drug resistance spectrum and is resistant to many of the antibiotics mentioned in a previous report (4). The strain RCAD0122 was sequenced using Illumina HiSeq 2500. De novo assembly was performed using Velvet version 1.2.09 (5). The genome was annotated by the NCBI Prokaryotic Genome Annotation Pipeline (PGAP) (http://www.ncbi.nlm.nih.gov/genome/annotation_prok). The potential of each connection between the scaffolds was analyzed. Annotated features include putative coding sequences (CDSs), coding genes, rRNAs, tRNAs, and noncoding RNAs (ncRNAs). Resistance gene identification was performed using the Comprehensive Antibiotic Resistance Database (6). The results indicated that the genome has 2,021 genes, 2,021 CDSs, 36 tRNAs, 6 rRNAs, and 3 ncRNAs. The sequencing depth was 1 Gb, the total length was 2,202,920 bp, the G+C content was 35.01%, and the genome coverage was 78.64%. To date, four families of active efflux systems have been elucidated (7, 8). In one previous study, the small multidrug resistance protein (SMR) family and major facilitator superfamily (MFS) were found in ATCC 11845 (2). MFS, a tetracycline resistance efflux pump; lasE, conferring resistance to lincosamide (9); MdIB, which is an ABC-type multidrug transport system; and AcrAB-TolC, which is related to fluoroquinolone, chloramphenicol, β-lactam, and rifampin resistance, were found in RCAD0122 (10, 11). Nine types of resistance-associated genes were found in the strain RCAD0122: aph, an aminoglycoside resistance gene; dhfR, which confers resistance to trimethoprim; folP and folB, which are sulfonamide resistance genes; parE, the fluoroquinolone resistance gene; vanC, a vancomycin resistance gene; TLA-2, a class A β-lactamase; OXA-209, a class D β-lactamase (12); cat, a chloramphenicol acetyltransferase resistance gene; tet(X), a tetracycline inactivation gene; and ereB, a macrolide esterase gene (13). RCAD0122 was found to have many drug resistance genes and multidrug efflux pumps, which is probably why it has such a wide range of drug resistance; in addition, the results showed RCAD0122 to have transposase and integrase genes, which can explain the existence of so many resistance genes in this strain. Overall, the genome sequence of RCAD0122 can provide a genetic background for understanding the resistance mechanism of R. anatipestifer using comparative genomics.

Nucleotide sequence accession numbers.

This whole-genome shotgun project has been deposited in DDBJ/ENA/GenBank under the accession no. LUDU00000000. The version described in this paper is the first version, LUDU01000000.
  12 in total

1.  Sequential mechanism of assembly of multidrug efflux pump AcrAB-TolC.

Authors:  Elena B Tikhonova; Yoichi Yamada; Helen I Zgurskaya
Journal:  Chem Biol       Date:  2011-04-22

2.  Mechanism and diversity of the erythromycin esterase family of enzymes.

Authors:  Mariya Morar; Kate Pengelly; Kalinka Koteva; Gerard D Wright
Journal:  Biochemistry       Date:  2012-02-10       Impact factor: 3.162

3.  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

4.  Clinical implications of multiple drug resistance efflux pumps of pathogenic bacteria.

Authors:  B Rouveix
Journal:  J Antimicrob Chemother       Date:  2007-06       Impact factor: 5.790

5.  The comprehensive antibiotic resistance database.

Authors:  Andrew G McArthur; Nicholas Waglechner; Fazmin Nizam; Austin Yan; Marisa A Azad; Alison J Baylay; Kirandeep Bhullar; Marc J Canova; Gianfranco De Pascale; Linda Ejim; Lindsay Kalan; Andrew M King; Kalinka Koteva; Mariya Morar; Michael R Mulvey; Jonathan S O'Brien; Andrew C Pawlowski; Laura J V Piddock; Peter Spanogiannopoulos; Arlene D Sutherland; Irene Tang; Patricia L Taylor; Maulik Thaker; Wenliang Wang; Marie Yan; Tennison Yu; Gerard D Wright
Journal:  Antimicrob Agents Chemother       Date:  2013-05-06       Impact factor: 5.191

6.  AcrAB efflux pump plays a major role in the antibiotic resistance phenotype of Escherichia coli multiple-antibiotic-resistance (Mar) mutants.

Authors:  H Okusu; D Ma; H Nikaido
Journal:  J Bacteriol       Date:  1996-01       Impact factor: 3.490

7.  Detection and new genetic environment of the pleuromutilin-lincosamide-streptogramin A resistance gene lsa(E) in methicillin-resistant Staphylococcus aureus of swine origin.

Authors:  Beibei Li; Sarah Wendlandt; Jiannan Yao; Yiqiu Liu; Qing Zhang; Zixue Shi; Jianchao Wei; Donghua Shao; Stefan Schwarz; Shaohui Wang; Zhiyong Ma
Journal:  J Antimicrob Chemother       Date:  2013-02-05       Impact factor: 5.790

8.  Antibiotic susceptibility of Riemerella anatipestifer field isolates.

Authors:  Chong Yue Zhong; An Chun Cheng; Ming Shu Wang; De Kang Zhu; Qi Hui Luo; Chuan De Zhong; Ling Li; Ze Duan
Journal:  Avian Dis       Date:  2009-12       Impact factor: 1.577

9.  Two distinct major facilitator superfamily drug efflux pumps mediate chloramphenicol resistance in Streptomyces coelicolor.

Authors:  James J Vecchione; Blair Alexander; Jason K Sello
Journal:  Antimicrob Agents Chemother       Date:  2009-08-17       Impact factor: 5.191

10.  Comparative genomics of Riemerella anatipestifer reveals genetic diversity.

Authors:  Xiaojia Wang; Wenbin Liu; Dekang Zhu; LinFeng Yang; MaFeng Liu; Sanjun Yin; MingShu Wang; RenYong Jia; Shun Chen; KunFeng Sun; Anchun Cheng; Xiaoyue Chen
Journal:  BMC Genomics       Date:  2014-06-17       Impact factor: 3.969

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1.  RAA Enzyme Is a New Family of Class A Extended-Spectrum β-Lactamase from Riemerella anatipestifer Strain RCAD0122.

Authors:  Hongyan Luo; Dekang Zhu; Mengru Li; Yunhan Tang; Wenyu Zhang; Haoju Wang; Pei Li
Journal:  Antimicrob Agents Chemother       Date:  2022-01-03       Impact factor: 5.938

2.  Pan-genome analysis of Riemerella anatipestifer reveals its genomic diversity and acquired antibiotic resistance associated with genomic islands.

Authors:  Dekang Zhu; Zhishuang Yang; Jinge Xu; Mingshu Wang; Renyong Jia; Shun Chen; Mafeng Liu; Xinxin Zhao; Qiao Yang; Ying Wu; Shaqiu Zhang; Yunya Liu; Ling Zhang; Yanling Yu; Xiaoyue Chen; Anchun Cheng
Journal:  Funct Integr Genomics       Date:  2019-10-25       Impact factor: 3.410

3.  A Novel RAYM_RS09735/RAYM_RS09740 Two-Component Signaling System Regulates Gene Expression and Virulence in Riemerella anatipestifer.

Authors:  Ying Wang; Ti Lu; Xuehuan Yin; Zutao Zhou; Shaowen Li; Mei Liu; Sishun Hu; Dingren Bi; Zili Li
Journal:  Front Microbiol       Date:  2017-04-21       Impact factor: 5.640

4.  Interplay Between the Phenotype and Genotype, and Efflux Pumps in Drug-Resistant Strains of Riemerella anatipestifer.

Authors:  Qiwei Chen; Xiaowei Gong; Fuying Zheng; Guo Ji; Shengdou Li; Laszlo Stipkovits; Susan Szathmary; Yongsheng Liu
Journal:  Front Microbiol       Date:  2018-10-01       Impact factor: 5.640

5.  Cas1 and Cas2 From the Type II-C CRISPR-Cas System of Riemerella anatipestifer Are Required for Spacer Acquisition.

Authors:  Yang He; Mingshu Wang; Mafeng Liu; Li Huang; Chaoyue Liu; Xin Zhang; Haibo Yi; Anchun Cheng; Dekang Zhu; Qiao Yang; Ying Wu; Xinxin Zhao; Shun Chen; Renyong Jia; Shaqiu Zhang; Yunya Liu; Yanling Yu; Ling Zhang
Journal:  Front Cell Infect Microbiol       Date:  2018-06-12       Impact factor: 5.293

6.  Genome-Wide Analysis of the Synonymous Codon Usage Patterns in Riemerella anatipestifer.

Authors:  Jibin Liu; Dekang Zhu; Guangpeng Ma; Mafeng Liu; Mingshu Wang; Renyong Jia; Shun Chen; Kunfeng Sun; Qiao Yang; Ying Wu; Xiaoyue Chen; Anchun Cheng
Journal:  Int J Mol Sci       Date:  2016-08-10       Impact factor: 5.923

7.  Draft Genome Sequence of Riemerella anatipestifer Isolate 17CS0503.

Authors:  Anne Busch; Martin Ryll; Alexander Immel; Sabin Kornell; Ben Krause-Kyora; Herbert Tomaso; Helmut Hotzel
Journal:  Genome Announc       Date:  2018-05-17
  7 in total

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