Literature DB >> 32322614

Draft genome sequence data of a T7like phage 3A_8767 isolated from wastewater of a butcher house near Palar river.

Avtar Sain1, N S Jayaprakash1.   

Abstract

Phage 3A_8767 is a newly isolates phage from river water sample against Salmonella typhi 8767 (MTCC). The genome of the phage is linear, double stranded and 38,821 bp long in size. A total 49 functional ORF (open reading frame) were annotated and no tRNA was predicted. Phage 3A_8767 has icosahedral shaped head with stubby tail which comes under family Podoviridae, and genera T7 like virus.
© 2020 Published by Elsevier Inc.

Entities:  

Keywords:  Bacteriophage; Genome; Podoviridae; Salmonella; T7 like virus

Year:  2020        PMID: 32322614      PMCID: PMC7163073          DOI: 10.1016/j.dib.2020.105446

Source DB:  PubMed          Journal:  Data Brief        ISSN: 2352-3409


Specifications table

Value of the Data

Data provides information of genes and proteins encoded by those genes. Data ensures of no toxic gene carried by phage which, makes it a potent agent for applications. Data provides information about lytic enzymes which could be used as to design new antimicrobials to ease the burden of chemical antimicrobial pollution on environment. Data can be considered by researchers for the genomic, proteomic and pattern of evolutionary studies This study may assist researchers in sequence comparison.

Data description

Bacteriophage 3A_8767 was isolated from butcher house waste water sample near Palar river, Vellore district, Tamilnadu, India at geographical location (12.939196 N, 79.132771E). The Palar river collects waters from a vast geographical landscape of the Tamilnadu which makes it a thriving source of large and diverse number of organisms including phage battery. Transmission electron micrograph in figure-1[A] showed the morphology of phage 3A_8767 having icosahedral head (∼52 nm in diameter) and stubby tail which is a typical characteristic of Podoviridae [1]. The DNA polymerase gene was used to study the evolutionary pattern and found that the phage 3A_8767 comes in the clade of T7 like virus from Fig.1[B]. The blast result showed 92.84% identity to bacteriophage T7 (Accession no. V01146.1) with 92% query coverage and 0.0 E – value. The Table 1 represents the genome sequence and annotation summary comprising of size, G + C content, open reading frames and predicted functional genes. The average fragment size of the library was 449 bp. Data was generated on illumine platform which provided 7302,941 number of reads.
Fig. 1

[A] Phage morphology by transmission electron micrograph of bacteriophage 3A_8767. The icosahedral head with diameter 52 nm and size bar 50 nm is visible in image. [B] Phylogenetic tree was constructed based on phage DNA polymerase of selected bacteriophages with NCBI tools using neighbor joining method.

Table 1

Genome sequence characteristic of phage.

IndexValue
Genome size38821bp
GC content49.25%
ORF175
Predicted no. of genes49
Accession no.MH382198
[A] Phage morphology by transmission electron micrograph of bacteriophage 3A_8767. The icosahedral head with diameter 52 nm and size bar 50 nm is visible in image. [B] Phylogenetic tree was constructed based on phage DNA polymerase of selected bacteriophages with NCBI tools using neighbor joining method. Genome sequence characteristic of phage.

Experimental design, materials and methods

The phage isolation and enumeration was carried out against Salmonella typhi host strain 8767 MTCC [2]. Luria Bertani broth and agar were used for host strain propagation. Sample swabs collected from collection site were enriched in host strain culture, prior to isolation. DNA isolation was carried out as per the protocol mentioned in the DNA and RNA isolation kit (GeneJET viral DNA and RNA purification kit, Thermo Scientifics), after plaque purification and phage enumeration. The negative staining of the phage particles was performed using 2% w/v phosphotungstic acid [3]. QIAseq FX DNA library kit was used to generate the paired end DNA sequence library with initial concentration of 100 ng gDNA [4]. Smaller fragments were obtained by enzymatic shearing followed by continuous end repair to add adenosine nucleotide at 3′ end, which facilitates the adapter binding. A high fidelity amplification step was performed using HiFi PCR master to ensure the maximum yield.The amplified library was analyzed in Bioanalyzer 2100 (Agilent Technologies) using High Sensitivity (HS) DNA chip. The de novo assembly from the high quality reads was obtained using CLC genomics workbench v6.0 [5]. The assembled genome of bacteriophage 3A_8767 was annotated with the help of Rapid Annotation using Subsystem Technology (RAST) [4], [6] and verified by NCBI blast for each gene individually. Open reading frames were determined by ORF finding tool from NCBI. Each CDS was confirmed by BLASTn tool and each protein was determined for its function by BLASTp [7]. The tRNAscan-SE tool [8] was used to search tRNA in the genome sequence. The Salmoenlla phage 3A_8767 genome was analysed for the presence of tandem repeats as well as insert sequences by using the online tool Tandem Repeat Finder v-4.09 and Repeat Masker respectively [9]. Nucleotide sequence accession number – MH382198

Declaration of Competing Interest

The authors declare that they have no known competing financial interests or personal relationships which have, or could be perceived to have, influenced the work reported in this article.
SubjectBiology
Type of dataWhole genome sequence data
How data were acquiredNext generation sequencing (NGS) of bacteriophage genome was done on Illumina platform
Data formatRaw, Analyzed
Parameters for data collectionWater samples were collected for isolation of bacteriophage against multidrug resistant Salmonella and DNA was isolated for the sequencing
Description of data collectionGenome sequence of phage 3A_8767
Data source locationVellore, Tamilnadu, India (12.939196 N, 79.132771E)
Data accessibilityhttps://www.ncbi.nlm.nih.gov/nuccore/MH382198.1
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