Literature DB >> 25931590

Thirty-Two Complete Genome Assemblies of Nine Yersinia Species, Including Y. pestis, Y. pseudotuberculosis, and Y. enterocolitica.

Shannon L Johnson1, Hajnalka E Daligault2, Karen W Davenport2, James Jaissle3, Kenneth G Frey, Jason T Ladner4, Stacey M Broomall5, Kimberly A Bishop-Lilly, David C Bruce2, Susan R Coyne3, Henry S Gibbons5, Chien-Chi Lo2, A Christine Munk2, C Nicole Rosenzweig5, Galina I Koroleva4, Gustavo F Palacios4, Cassie L Redden, Yan Xu2, Timothy D Minogue3, Patrick S Chain2.   

Abstract

The genus Yersinia includes three human pathogens, of which Yersinia pestis is responsible for >2,000 illnesses each year. To aid in the development of detection assays and aid further phylogenetic elucidation, we sequenced and assembled the complete genomes of 32 strains (across 9 Yersinia species).
Copyright © 2015 Johnson et al.

Entities:  

Year:  2015        PMID: 25931590      PMCID: PMC4417686          DOI: 10.1128/genomeA.00148-15

Source DB:  PubMed          Journal:  Genome Announc


GENOME ANNOUNCEMENT

The genus Yersinia contains 11 species, with three human pathogens, Y. pestis, Y. pseudotuberculosis, and Y. enterocolitica. Of these, Y. pestis is the most virulent, causing >2,000 global cases of plague annually, along with three global pandemics (1, 2). Y. pestis is a category A pathogen and potential biowarfare agent (3, 4), while Y. pseudotuberculosis and Y. enterocolitica cause food-borne self-limiting enteric diseases with low mortality rates (5). Recently, the list of strains for consideration in diagnostic assay development was released by the Association of Analytical Communities (AOAC) International, including strains that should be recognized (inclusivity) and ignored (exclusivity) by the assays (6). Here, we present the completed genome assemblies for 32 (see Table 1) of the 33 listed Yersinia strains (YPNN7 Y. pseudotuberculosis IB was not included due to technical issues).
TABLE 1

List of strains included in the data set, their accession numbers, and plasmids

Strain nameAOACPanelaAccession no.Size (Mb)No. of indicated plasmid
pPCPpCD/pYVpMTOther
Y. aldovae
    670-83YPNN17ECP0097814.47
Y. enterocolitica
    2516-87YPNN13ECP009837, CP0098384.601
    8081YPNN12ECP009845, CP0098464.681
    WAYPNN11ECP009366, CP0093674.611
Y. frederiksenii
    Y225bYPNN15ECP009363, CP0093644.551
Y. intermedia
    Y228YPNN16ECP0098014.85
Y. kristensenii
    Y231YPNN14ECP0099974.49
Y. pestis
    A1122YP12ICP009839CP0098414.6711
    AngolaYP7ICP009934CP0099374.67111
    AntiquaYP3ICP009903CP0099064.88111
    CO92 pgm-YP1ICP009971CP0099734.7211
    DodsonYP15ICP009842CP0098444.7711
    El DoradoYP16ICP009782CP0097854.83111
    Harbin35YP9ICP009701CP0097044.70111
    Java9cYP11ICP009992CP0099964.82112
    KIM5YP2ICP009833CP0098364.78111
    NairobiYP8ICP010293, CP0102944.471
    Nicholisk 41YP13ICP009988CP0099914.70111
    PBM19YP10ICP009489CP0094924.86111
    Pestoides BYP4ICP010020CP0100234.79111
    Pestoides FYP5ICP009713CP0097154.7211
    Pestoides GYP6ICP010246CP0102484.7311
    ShastaYP14ICP009721CP0097244.83111
Y. pseudotuberculosis
    1YPNN10ECP0097864.72
    EP2/+YPNN8ECP009758, CP0097594.771
    IP32953YPNN4ECP009710CP0097124.8311
    MD67YPNN9ECP0097574.72
    Pa3606YPNN6ECP010067CP0100694.8311
    PB1/+YPNN3ECP009779, CP0097804.761
    YPIIIYPNN5ECP0097924.68
Y. rohdei
    ATCC 43380YPNN2ECP0097874.37
Y. ruckeri
    YRBYPNN1ECP0095393.60

Refers to the AOAC listing (6) of either inclusivity (I) or exclusivity (E) strains.

The plasmid in Y. frederiksenii is cryptic.

The two plasmids listed as “other” for Y. pestis JAVA9 are pJARS35 and pJARS36.

List of strains included in the data set, their accession numbers, and plasmids Refers to the AOAC listing (6) of either inclusivity (I) or exclusivity (E) strains. The plasmid in Y. frederiksenii is cryptic. The two plasmids listed as “other” for Y. pestis JAVA9 are pJARS35 and pJARS36. Each genome was assembled using at least two data sets (specific data types and coverages are listed in the NCBI records), from Illumina (short- and/or long-insert paired data), Roche 454 (long-insert paired data), and/or PacBio long reads. The short- and long-insert paired data were assembled together in both Newbler and Velvet and computationally shredded into 1.5-kbp overlapping shreds. If the PacBio coverage was ≥100×, the data were assembled using the PacBio Hierarchical Genome Assembly Process (HGAP) (7). All data were additionally assembled in AllPaths (8). The consensus sequences from both HGAP and AllPaths were computationally shredded into 10-kbp overlapping pieces. All shreds were integrated using Phrap. Possible misassemblies were corrected and repeat regions verified using in-house scripts and manual editing in Consed (9–11). All genomes were assembled to finished-quality completion (12), and each assembly was annotated using an Ergatis-based (13) workflow, with minor manual curation. The genome sizes averaged 4.68 ± 0.04 Mb (Table 1; the smallest is Yersinia ruckeri YRB, at 3.6 Mb, and the largest is Y. pestis Antiqua, at 4.9 Mb), with up to 4 plasmids (average, 1.6 ± 0.2). Each genome contains 3,161 to 4,419 coding sequences (average, 4,155 ± 39.9) and a G+C content of 47 to 48%. As many of the virulence genes are located on plasmids, it is interesting to note that of the 16 Y. pestis strains, only 9 had all three “traditional” plasmids (pYV/pCD1 [virulence/calcium dependence], pPCP [plasminogen activator], and pMT [murine toxin]), with one strain (Y. pestis Nairobi) containing the pPCP plasmid only.

Nucleotide sequence accession numbers.

The GenBank accession numbers for all 32 genomes are listed in Table 1.
  12 in total

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Journal:  Clin Microbiol Rev       Date:  1997-01       Impact factor: 26.132

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6.  Comparative bioinformatic and proteomic approaches to evaluate the outer membrane proteome of the fish pathogen Yersinia ruckeri.

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10.  Appendix Q: Recommendations for Developing Molecular Assays for Microbial Pathogen Detection Using Modern In Silico Approaches.

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