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1.
Data Brief ; 37: 107240, 2021 Aug.
Article in English | MEDLINE | ID: mdl-34235237

ABSTRACT

Bacillus genus members are dominant in the Eastern Arabian Sea and are known for producing many industrial enzymes. Bacillus australimaris B28A, isolated from seawater, had an enzymatic activity. Here, the whole genome sequence of Bacillus australimaris B28A is reported. The 3,766,107-bp genome, with a GC content of 41.6%, comprised 3936 protein-coding genes, seven ribosomal RNA, and 75 transfer RNA. Several bioactive secondary metabolite genes in the genome, including surfactin, lichenysin, bacillibactin, bacilysin, paenilamicin, fengycin, and carotenoid, were identified using antiSMASH. The 1396 proteins were predicted using RAST, including asparaginase enzyme: an anticancer enzyme. Sequence data have been deposited in the DDBJ/ENA/GenBank database under the accession number JAGQFH000000000. The version described in this paper is JAGQFH000000000.1. The BioProject ID in the GenBank database is PRJNA670955. The raw data is publicly available at "https://www.ncbi.nlm.nih.gov/sra/SRR14203888".

2.
J Mar Bio Assoc India ; 63(2): 43-48, 2021.
Article in English | MEDLINE | ID: mdl-35903758

ABSTRACT

L-asparaginase is a target for many researchers as its properties against cancer, especially leukaemia, and protective agents reduce acrylamide in fried food. In this study, the water samples from Thumba Arattuvazhi Beach in Kerala were screened for l-asparaginase producing microorganisms. This was followed by colourimetric screening using modified M9 media with 0.009% Phenol red dye and using l-asparagine as a sole nitrogen source. Then, the Nessler assay was performed to quantify the enzyme. Molecular identification was made by 16SrRNA sequencing and aligned the sequence with GeneBank for phylogenetic tree construction using BLAST. Seawater was serially diluted for 10-1 to 10-6 using nutrient agar plates. A total of 19 bacterial colonies were isolated. The colonies were evaluated to produce l-asparaginase according to the pink zone around the colonies on the modified M9 medium using a red phenol indicator. The KB1 sample was selected for further studies according to plate colour assay. Nessler assay of L-asparaginase quantified as 2.537 IU/ml. Molecular characterisation showed the sequence association with Bacillus altitudinis the sequence submitted in Genebank as B. altitudinis KB1 strain. The l-asparaginase II gene (AnsB) was amplified based on the entire length of the hypothetical protein of annotated genome with accession number CP022319.2. The l-asparaginase activity in this study was 57% higher than the reference organism B. altitudinis BITHSP010. The l-asparaginase producing bacterium B. altitudinis KB1 from a marine source in Kerala can produce asparaginase, which can be utilised for biotechnology applications.

3.
Bioinformatics ; 21(6): 811-6, 2005 Mar.
Article in English | MEDLINE | ID: mdl-15479712

ABSTRACT

MOTIVATION: Tandem repeats are associated with disease genes, play an important role in evolution and are important in genomic organization and function. Although much research has been done on short perfect patterns of repeats, there has been less focus on imperfect repeats. Thus, there is an acute need for a tandem repeats database that provides reliable and up to date information on both perfect and imperfect tandem repeats in the human genome and relates these to disease genes. RESULTS: This paper presents a web-accessible relational tandem repeats database that relates tandem repeats to gene locations and disease genes of the human genome. In contrast to other available databases, this database identifies both perfect and imperfect repeats of 1-2000 bp unit lengths. The utility of this database has been illustrated by analysing these repeats for their distribution and frequencies across chromosomes and genomic locations and between protein-coding and non-coding regions. The applicability of this database to identify diseases associated with previously uncharacterized tandem repeats is demonstrated.


Subject(s)
Chromosome Mapping/methods , Databases, Genetic , Genetic Predisposition to Disease/genetics , Genetic Testing/methods , Genome, Human , Quantitative Trait Loci/genetics , Tandem Repeat Sequences/genetics , Humans
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