Literature DB >> 32367941

High-resolution melting curve analysis for infectious bronchitis virus strain differentiation.

Mustafa Ababneh1, Ola Ababneh1, Mohammad Borhan Al-Zghoul1.   

Abstract

BACKGROUND AND AIM: Belonging to the Coronaviridae family, avian infectious bronchitis virus (IBV) causes respiratory, reproductive, and renal diseases in poultry. Preventative measures lie mainly in vaccination, while the gold standard for IBV classification and differentiation is based on the sequence analysis of the spike 1 (S1) gene. In this study, we tested a new assay for IBV strain classification that is less expensive and requires reduced time and effort to perform. We carried out a quantitative real-time polymerase chain reaction followed by high-resolution melting (qRT-PCR/HRM) curve analysis.
MATERIALS AND METHODS: In this study, qRT-PCR was conducted on a partial fragment S1 gene followed by a high resolution melting curve analysis (qRT-PCR/HRM) on 23 IBV-positive samples in Jordan. For this assay, we utilized the most common IBV vaccine strains (Mass and 4/91) as a reference in the HRM assay. To evaluate the discrimination power of the qRT-PCR/HRM, we did the sequencing of the partial S1 gene.
RESULTS: It was shown that HRM was able to classify IBV samples into four clusters based on the degree of similarity between their melting points: The first cluster exhibited the highest similarity to the 4/91 strain, while the second was similar to the Mass-related IBV strain. Although the third cluster contained the highest number of samples, it displayed no similarity to any of the reference vaccine strains, and, after comparing them with the sequencing results, we found that the samples in the third cluster were similar to the variant II-like (IS-1494-06) IBV field strain. Finally, the fourth cluster comprised one unique sample that was found to belong to the Q1 IBV strain.
CONCLUSION: Our developed qRT-PCR/HRM curve analysis was able to detect and rapidly identify novel and vaccine-related IBV strains as confirmed by S1 gene nucleotide sequences, making it a rapid and cost-effective tool. Copyright: © Ababneh, et al.

Entities:  

Keywords:  high-resolution melting curve analysis; infectious bronchitis virus; spike 1 gene

Year:  2020        PMID: 32367941      PMCID: PMC7183480          DOI: 10.14202/vetworld.2020.400-406

Source DB:  PubMed          Journal:  Vet World        ISSN: 0972-8988


  27 in total

Review 1.  Global distributions and strain diversity of avian infectious bronchitis virus: a review.

Authors:  Faruku Bande; Siti Suri Arshad; Abdul Rahman Omar; Mohd Hair-Bejo; Aliyu Mahmuda; Venugopal Nair
Journal:  Anim Health Res Rev       Date:  2017-06       Impact factor: 2.615

Review 2.  High-resolution melting: applications in genetic disorders.

Authors:  Tze-Kiong Er; Jan-Gowth Chang
Journal:  Clin Chim Acta       Date:  2012-09-18       Impact factor: 3.786

3.  Infectious bronchitis virus S1 gene sequence comparison is a better predictor of challenge of immunity in chickens than serotyping by virus neutralization.

Authors:  Brian S Ladman; Alison B Loupos; Jack Gelb
Journal:  Avian Pathol       Date:  2006-04       Impact factor: 3.378

4.  Diagnostic and clinical observation on the infectious bronchitis virus strain Q1 in Italy.

Authors:  Anna Toffan; Michela Bonci; Luca Bano; Luca Bano; Viviana Valastro; Marta Vascellari; Ilaria Capua; Calogero Terregino
Journal:  Vet Ital       Date:  2013 Oct-Dec       Impact factor: 1.101

5.  Genotypes of infectious bronchitis viruses circulating in the Middle East between 2009 and 2014.

Authors:  Kannan Ganapathy; Christopher Ball; Anne Forrester
Journal:  Virus Res       Date:  2015-07-28       Impact factor: 3.303

6.  Relationship between sequence variation in the S1 spike protein of infectious bronchitis virus and the extent of cross-protection in vivo.

Authors:  D Cavanagh; M M Elus; J K Cook
Journal:  Avian Pathol       Date:  1997       Impact factor: 3.378

7.  Classification of fowl adenovirus serotypes by use of high-resolution melting-curve analysis of the hexon gene region.

Authors:  Penelope A Steer; Naomi C Kirkpatrick; Denise O'Rourke; Amir H Noormohammadi
Journal:  J Clin Microbiol       Date:  2008-11-26       Impact factor: 5.948

8.  Recombination in avian gamma-coronavirus infectious bronchitis virus.

Authors:  Sharmi W Thor; Deborah A Hilt; Jessica C Kissinger; Andrew H Paterson; Mark W Jackwood
Journal:  Viruses       Date:  2011-09-23       Impact factor: 5.048

9.  Successive occurrence of recombinant infectious bronchitis virus strains in restricted area of Middle East.

Authors:  István Kiss; Tamás Mató; Zalán Homonnay; Tímea Tatár-Kis; Vilmos Palya
Journal:  Virus Evol       Date:  2016-08-03

Review 10.  Severe acute respiratory syndrome vaccine development: experiences of vaccination against avian infectious bronchitis coronavirus.

Authors:  Dave Cavanagh
Journal:  Avian Pathol       Date:  2003-12       Impact factor: 3.378

View more
  2 in total

1.  Detection of SARS-CoV-2 spike protein D614G mutation by qPCR-HRM analysis.

Authors:  Faris Muhammad Gazali; Matin Nuhamunada; Rahma Nabilla; Endah Supriyati; Mohamad Saifudin Hakim; Eggi Arguni; Edwin Widyanto Daniwijaya; Titik Nuryastuti; Sofia Mubarika Haryana; Tri Wibawa; Nastiti Wijayanti
Journal:  Heliyon       Date:  2021-09-06

2.  The use of high resolution melting analysis of ITS-1 for rapid differentiation of parasitic nematodes Haemonchus contortus and Ashworthius sidemi.

Authors:  Lucie Skorpikova; Nikol Reslova; Jan Magdalek; Jaroslav Vadlejch; Martin Kasny
Journal:  Sci Rep       Date:  2020-09-29       Impact factor: 4.379

  2 in total

北京卡尤迪生物科技股份有限公司 © 2022-2023.