Literature DB >> 23689886

Current status and future needs in diagnostics and vaccines for high pathogenicity avian influenza.

D E Swayne1, E Spackman.   

Abstract

Since 1959, 32 epizootics of high pathogenicity avian influenza (HPAI) have occurred in birds. Rapid detection and accurate identification of HPAI has been critical to controlling such epizootics in poultry. Specific paradigms for the detection and diagnosis of avian influenza virus (AIV) in poultry vary somewhat among different countries and industry compartments depending on specific needs and resources. Importantly, since HPAI and low pathogenicity (LP) AI of the H5 and H7 subtypes are reportable to the World Organization for Animal Health (OIE), diagnostic procedures are implemented for regulatory purposes and are harmonized to some degree. Most current tests are adequate and have been in use for some time, therefore they have been well validated and presently there is no reported new technology that will completely replace the current tests. However, some modifications, updates or additional tests could be beneficial. The element of AIV diagnostics that is most in need of improvement is in determining the hemagglutinin and neuraminidase subtype specificity of antibody to AIV. Most HPAI epizootics have been eradicated using traditional stamping-out programs, but beginning in 1995, five epizootics have added vaccination as an additional, interim control tool. From 2002-2010, >113 billion doses of AI vaccine have been used in poultry; 95.5% as oil-emulsified, inactivated whole AIV vaccines and 4.5% as live vectored vaccines. The majority of vaccine has been used in the four H5N1 HPAI enzootic countries (China [91%], Egypt [4.7%], Indonesia [2.3%], and Vietnam [1.4%]) where vaccination programs are directed to all poultry. The 10 other countries/regions have used less than 1% of the vaccine, administered in a focused, risk- based approach. Some vaccine "failures" have resulted from antigenic drift of field viruses away from the vaccine viruses, but most have resulted from failures in the vaccination process; i.e. failure to adequately administer the vaccine to at risk poultry resulting in lack of population immunity. China, as the major AIV vaccine user, will drive innovation and commercialization of new vaccine technologies, but because of the low-cost to manufacture the current high quality inactivated whole AIV vaccines, such vaccines will continue to dominate the market for the next 10 years.

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Year:  2013        PMID: 23689886     DOI: 10.1159/000325276

Source DB:  PubMed          Journal:  Dev Biol (Basel)        ISSN: 1424-6074


  18 in total

Review 1.  Success factors for avian influenza vaccine use in poultry and potential impact at the wild bird-agricultural interface.

Authors:  David E Swayne; Erica Spackman; Mary Pantin-Jackwood
Journal:  Ecohealth       Date:  2013-09-12       Impact factor: 3.184

2.  Antibody titer has positive predictive value for vaccine protection against challenge with natural antigenic-drift variants of H5N1 high-pathogenicity avian influenza viruses from Indonesia.

Authors:  David E Swayne; David L Suarez; Erica Spackman; Samadhan Jadhao; Gwenaelle Dauphin; Mia Kim-Torchetti; James McGrane; John Weaver; Peter Daniels; Frank Wong; Paul Selleck; Agus Wiyono; Risa Indriani; Yuni Yupiana; Elly Sawitri Siregar; Teguh Prajitno; Derek Smith; Ron Fouchier
Journal:  J Virol       Date:  2015-01-21       Impact factor: 5.103

Review 3.  Vaccines against Major Poultry Viral Diseases: Strategies to Improve the Breadth and Protective Efficacy.

Authors:  Rajamanonmani Ravikumar; Janlin Chan; Mookkan Prabakaran
Journal:  Viruses       Date:  2022-05-31       Impact factor: 5.818

4.  Structures of the MHC-I molecule BF2*1501 disclose the preferred presentation of an H5N1 virus-derived epitope.

Authors:  Xiaoying Li; Lijie Zhang; Yanjie Liu; Lizhen Ma; Nianzhi Zhang; Chun Xia
Journal:  J Biol Chem       Date:  2020-03-09       Impact factor: 5.157

5.  Characterization of Immune Response towards Generation of Universal Anti-HA-Stalk Antibodies after Immunization of Broiler Hens with Triple H5N1/NA-HA-M1 VLPs.

Authors:  Beata Gromadzka; Milena Chraniuk; Lilit Hovhannisyan; Karolina Uranowska; Bogusław Szewczyk; Magdalena Narajczyk; Mirosława Panasiuk
Journal:  Viruses       Date:  2022-03-30       Impact factor: 5.818

6.  Prospective comparison of RT-PCR/ESI-MS to Prodesse ProFlu Plus and Cepheid GenXpert for the detection of Influenza A and B viruses.

Authors:  Justin Hardick; Andrea Dugas; Joshua Goheen; Richard Rothman; Charlotte Gaydos
Journal:  J Virol Methods       Date:  2015-02-11       Impact factor: 2.014

7.  A case-control study evaluating RT-PCR/ESI-MS technology compared to direct fluorescent antibody and xTAG RVP PCR.

Authors:  Justin Hardick; Sufyan Sadiq; Elizabeth Perelstein; Stephen Peterson; Richard Rothman; Charlotte A Gaydos
Journal:  Diagn Microbiol Infect Dis       Date:  2014-02-24       Impact factor: 2.803

Review 8.  Challenge for One Health: Co-Circulation of Zoonotic H5N1 and H9N2 Avian Influenza Viruses in Egypt.

Authors:  Shin-Hee Kim
Journal:  Viruses       Date:  2018-03-09       Impact factor: 5.048

Review 9.  Pandemic potential of highly pathogenic avian influenza clade 2.3.4.4 A(H5) viruses.

Authors:  Reina Yamaji; Magdi D Saad; Charles T Davis; David E Swayne; Dayan Wang; Frank Y K Wong; John W McCauley; J S Malik Peiris; Richard J Webby; Ron A M Fouchier; Yoshihiro Kawaoka; Wenqing Zhang
Journal:  Rev Med Virol       Date:  2020-03-05       Impact factor: 11.043

Review 10.  Progress and hurdles in the development of influenza virus-like particle vaccines for veterinary use.

Authors:  Dong-Hun Lee; Jae-Keun Park; Chang-Seon Song
Journal:  Clin Exp Vaccine Res       Date:  2014-06-20
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