Literature DB >> 30533693

Complete Genome Sequences of 18 Paenibacillus larvae Phages from the Western United States.

Bryan D Merrill1, Christopher P Fajardo1, Jared A Hilton1, Ashley M Payne1, Andy T Ward1, Jamison K Walker1, Aziza Dhalai2, Cameron Imahara2, James Mangohig2, Josh Monk2, Cristian Pascacio2, Padmani Rai2, Alicia Salisbury2, Kathie Velez2, Travis J Bloomfield1, Brett Buhler1, Steven G Duncan1, David A Fuhriman1, Josil George2, Kiel Graves1, Karli Heaton1, Hunter L Hill1, Michelle Kim2, Bradley K Knabe1, Devin B Ririe1, Spencer L Rogers1, Casey Stamereilers2, Michael B Stephenson1, Brittian K Usher1, Colton S Ward1, Jacob M Withers1, Cole K Wright1, Donald P Breakwell1, Julianne H Grose1, Sandra Hope1, Philippos K Tsourkas2.   

Abstract

We present here the complete genomes of 18 phages that infect Paenibacillus larvae, the causative agent of American foulbrood in honeybees. The phages were isolated between 2014 and 2016 as part of an undergraduate phage discovery course at Brigham Young University. The phages were isolated primarily from bee debris and lysogens.

Entities:  

Year:  2018        PMID: 30533693      PMCID: PMC6256562          DOI: 10.1128/MRA.00966-18

Source DB:  PubMed          Journal:  Microbiol Resour Announc        ISSN: 2576-098X


ANNOUNCEMENT

Paenibacillus larvae is a Gram-positive bacterium that is the causative agent of American foulbrood, the most destructive bacterial disease affecting the honeybee, Apis mellifera (1). As antibiotic-resistant strains are now widespread (2), there is growing interest in phages that infect P. larvae. There are currently 26 complete P. larvae phage genomes in the literature (3–8). Here, we present 18 complete P. larvae phage genomes isolated over the period 2014 to 2016 by students in the Phage Hunters course at Brigham Young University (BYU). Each phage's GenBank accession number, isolation source, geographical provenance, and assembly results are shown in Table 1.
TABLE 1

P. larvae phages, GenBank accession numbers, and genome assembly results

Phage nameGenBank accession no.Isolation sourceLocationGenome assembly results
Genome length (bp)DNA-packaging strategyAvg coverage (×)
ArcticfreezeMH431932Bee sampleIdaho38,5183′ cos1,388
AshMH454076ProphageProvo, UT56,468DTR54
BloomMH454077Bee debrisSpanish Bottom, UT38,5193′ cos101
C7CdeltaMH431938Bee sampleCedar City, UT55,774DTR336
DevRiMH431933Bee debrisSpanish Fork, UT38,5203′ cos1,286
EltigreMH454078Bee debrisSouth Jordan, UT38,6753′ cos1,390
HoneybearMH431935Feral beesFarmington, UT40,0543′ cos77
GenkiMH454082Bee debrisOrem, UT38,5403′ cos190
GryphonianMH431934Bee debrisOrem, UT38,5413′ cos932
JacopoMH454079Infected hivePortland, OR38,5263′ cos396
KawikaMH431936Bee debrisProvo, UT40,7683′ cos126
LeyMH454080ProphageProvo, UT56,465DTR760
LincolnBMH454081Bee debrisBrigham City, UT40,4373′ cos300
LucielleMH431937Dead beeIdaho37,9473′ cos178
SaudageMH454083Bee debrisLehi, UT37,9623′ cos211
ToothlessMH454084Bee debrisWest Jordan, UT38,8323′ cos240
WandererMH431930Bee debrisWisconsin40,4483′ cos1,712
YerffejMH431931Bee debrisWisconsin43,1263′ cos964
P. larvae phages, GenBank accession numbers, and genome assembly results All phages were amplified using P. larvae strain ATCC 9545. Phage DNA was isolated from high-titer lysates using DNA isolation kits (Norgen Biotek, Thorold, ON, Canada). Libraries were prepped with TruSeq Nano DNA HT sample preparation kits (Illumina, Inc., Hayward, CA, USA) and then run on a single lane in parallel and barcoded. Genomes were sequenced in the BYU DNA Sequencing Center using the Illumina HiSeq 2500 platform with 250-bp paired-end reads and assembled using Geneious 8 (Biomatters, Inc., Auckland, New Zealand) with medium-low sensitivity/fast and checking for contig circularization. Only genomes that produced circularized contigs were considered complete and published. Genomes were manually annotated by students at the University of Nevada Las Vegas (UNLV) with DNA Master, as previously described (9). Scanning electron micrographs show that all 18 phages are members of the family Siphoviridae. All the genomes are linear double-stranded DNA molecules. Phages Ash, C7Cdelta, and Ley use the direct terminal repeat (DTR) DNA-packaging strategy, while the other 15 phages use the “cohesive ends with 3′ overhangs” (cos) DNA-packaging strategy (10, 11). The 3′ overhangs were identified by sequence similarity with previously published phages (3–8). The overhangs are CGACTGCCC for Arcticfreeze, Bloom, DevRi, Eltigre, Genki, Gryphonian, Honeybear, Jacopo, Kawika, Lucielle, Saudage, and Toothless and CGACGGCCC for LincolnB and Wanderer. The genome ends of Yerffej are still under investigation. For the DTR phages, the DTR sequence was visually identified using Pile-up Analysis Using Starts & Ends (PAUSE) (http://cpt.tamu.edu/computer-resources/pause) and Geneious by looking for a sharply delimited region with double coverage depth (11). Genome length is bimodal, with the cohesive end phages having genomes in the 37- to 43-kb range and the DTR phages having genomes in the 55- to 56-kb range, which is consistent with previously published P. larvae phages (3–8). All phages encode a large terminase, a portal protein, a major capsid protein, two tail assembly proteins, a tail tape measure protein, several tail proteins, and an N-acetylmuramoyl-l-alanine amidase. The tail assembly proteins appear to have a predicted translational frameshift similar to that of the G and G-T genes in phage lambda (12, 13) located in the 3′ region of the upstream tail assembly protein (gp12 in the phages with cohesive ends, gp14 in the DTR phages). We tentatively identify the heptanucleotide slippery sequence as AAAAAAA in Arcticfreeze, Bloom, DevRi, Eltigre, Genki, Gryphonian, Honeybear, Jacopo, Kawika, Lucielle, Saudage, Toothless, and Yerffej, GGAAAAA in LincolnB and Wanderer, and TAAAAAA in Ash, C7Cdelta, and Ley.

Data availability.

GenBank accession numbers are listed in Table 1.
  12 in total

1.  Conserved translational frameshift in dsDNA bacteriophage tail assembly genes.

Authors:  Jun Xu; Roger W Hendrix; Robert L Duda
Journal:  Mol Cell       Date:  2004-10-08       Impact factor: 17.970

2.  Paenibacillus larvae-Directed Bacteriophage HB10c2 and Its Application in American Foulbrood-Affected Honey Bee Larvae.

Authors:  Hannes Beims; Johannes Wittmann; Boyke Bunk; Cathrin Spröer; Christine Rohde; Gabi Günther; Manfred Rohde; Werner von der Ohe; Michael Steinert
Journal:  Appl Environ Microbiol       Date:  2015-06-05       Impact factor: 4.792

3.  Annotation of Bacteriophage Genome Sequences Using DNA Master: An Overview.

Authors:  Welkin H Pope; Deborah Jacobs-Sera
Journal:  Methods Mol Biol       Date:  2018

4.  A balanced ratio of proteins from gene G and frameshift-extended gene GT is required for phage lambda tail assembly.

Authors:  Jun Xu; Roger W Hendrix; Robert L Duda
Journal:  J Mol Biol       Date:  2013-07-12       Impact factor: 5.469

5.  Determining DNA packaging strategy by analysis of the termini of the chromosomes in tailed-bacteriophage virions.

Authors:  Sherwood R Casjens; Eddie B Gilcrease
Journal:  Methods Mol Biol       Date:  2009

6.  Complete Genome Sequence of the Broad-Host-Range Paenibacillus larvae Phage phiIBB_Pl23.

Authors:  Ana Oliveira; Luís D R Melo; Andrew M Kropinski; Joana Azeredo
Journal:  Genome Announc       Date:  2013-09-05

7.  Complete Genome Sequences of Nine Phages Capable of Infecting Paenibacillus larvae, the Causative Agent of American Foulbrood Disease in Honeybees.

Authors:  Philippos K Tsourkas; Diane G Yost; Andrew Krohn; Lucy LeBlanc; Anna Zhang; Casey Stamereilers; Penny S Amy
Journal:  Genome Announc       Date:  2015-10-15

8.  Paenibacillus larvae Phage Tripp Genome Has 378-Base-Pair Terminal Repeats.

Authors:  J Abraham; A-C Bousquet; E Bruff; N Carson; A Clark; A Connell; Z Davis; J Dums; C Everington; A Groth; N Hawes; N McArthur; C McKenney; A Oufkir; B Pearce; S Rampal; H Rozier; J Schaff; T Slehria; S Carson; E S Miller
Journal:  Genome Announc       Date:  2016-01-07

9.  Software-based analysis of bacteriophage genomes, physical ends, and packaging strategies.

Authors:  Bryan D Merrill; Andy T Ward; Julianne H Grose; Sandra Hope
Journal:  BMC Genomics       Date:  2016-08-26       Impact factor: 3.969

10.  Complete Genome Sequences of Paenibacillus larvae Phages BN12, Dragolir, Kiel007, Leyra, Likha, Pagassa, PBL1c, and Tadhana.

Authors:  Jamison K Walker; Bryan D Merrill; Jordan A Berg; Aziza Dhalai; Douglas W Dingman; Chris P Fajardo; Kiel Graves; Hunter L Hill; Jared A Hilton; Cameron Imahara; Bradley K Knabe; James Mangohig; Josh Monk; Heejin Mun; Ashley M Payne; Alicia Salisbury; Casey Stamereilers; Kathie Velez; Andy T Ward; Donald P Breakwell; Julianne H Grose; Sandra Hope; Philippos K Tsourkas
Journal:  Genome Announc       Date:  2018-06-14
View more
  1 in total

1.  Analysis of intact prophages in genomes of Paenibacillus larvae: An important pathogen for bees.

Authors:  Henrique G Ribeiro; Anna Nilsson; Luís D R Melo; Ana Oliveira
Journal:  Front Microbiol       Date:  2022-07-15       Impact factor: 6.064

  1 in total

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