Literature DB >> 15708987

Recombinant modified vaccinia virus Ankara expressing the spike glycoprotein of severe acute respiratory syndrome coronavirus induces protective neutralizing antibodies primarily targeting the receptor binding region.

Zhiwei Chen1, Linqi Zhang, Chuan Qin, Lei Ba, Christopher E Yi, Fengwen Zhang, Qiang Wei, Tian He, Wenjie Yu, Jian Yu, Hong Gao, Xinming Tu, Agegnehu Gettie, Michael Farzan, Kwok-Yung Yuen, David D Ho.   

Abstract

Immunization with a killed or inactivated viral vaccine provides significant protection in animals against challenge with certain corresponding pathogenic coronaviruses (CoVs). However, the promise of this approach in humans is hampered by serious concerns over the risk of leaking live severe acute respiratory syndrome (SARS) viruses. In this study, we generated a SARS vaccine candidate by using the live-attenuated modified vaccinia virus Ankara (MVA) as a vector. The full-length SARS-CoV envelope Spike (S) glycoprotein gene was introduced into the deletion III region of the MVA genome. The newly generated recombinant MVA, ADS-MVA, is replication incompetent in mammalian cells and highly immunogenic in terms of inducing potent neutralizing antibodies in mice, rabbits, and monkeys. After two intramuscular vaccinations with ADS-MVA alone, the 50% inhibitory concentration in serum was achieved with reciprocal sera dilutions of more than 1,000- to 10,000-fold in these animals. Using fragmented S genes as immunogens, we also mapped a neutralizing epitope in the region of N-terminal 400 to 600 amino acids of the S glycoprotein (S400-600), which overlaps with the angiotensin-converting enzyme 2 (ACE2) receptor-binding region (RBR; S318-510). Moreover, using a recombinant soluble RBR-Fc protein, we were able to absorb and remove the majority of the neutralizing antibodies despite observing that the full S protein tends to induce a broader spectrum of neutralizing activities in comparison with fragmented S proteins. Our data suggest that a major mechanism for neutralizing SARS-CoV likely occurs through blocking the interaction between virus and the cellular receptor ACE2. In addition, ADS-MVA induced potent immune responses which very likely protected Chinese rhesus monkeys from pathogenic SARS-CoV challenge.

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Year:  2005        PMID: 15708987      PMCID: PMC548443          DOI: 10.1128/JVI.79.5.2678-2688.2005

Source DB:  PubMed          Journal:  J Virol        ISSN: 0022-538X            Impact factor:   5.103


  59 in total

1.  Immunogenicity of DNA vaccines expressing tuberculosis proteins fused to tissue plasminogen activator signal sequences.

Authors:  Z Li; A Howard; C Kelley; G Delogu; F Collins; S Morris
Journal:  Infect Immun       Date:  1999-09       Impact factor: 3.441

Review 2.  The complete genomic sequence of the modified vaccinia Ankara strain: comparison with other orthopoxviruses.

Authors:  G Antoine; F Scheiflinger; F Dorner; F G Falkner
Journal:  Virology       Date:  1998-05-10       Impact factor: 3.616

3.  Priming and boosting immunity to respiratory syncytial virus by recombinant replication-defective vaccinia virus MVA.

Authors:  L S Wyatt; S S Whitehead; K A Venanzi; B R Murphy; B Moss
Journal:  Vaccine       Date:  1999-10-14       Impact factor: 3.641

4.  Severe acute respiratory syndrome: radiographic evaluation and clinical outcome measures.

Authors:  Clara G C Ooi; Pek L Khong; James C M Ho; Bing Lam; Wai M Wong; Wai C Yiu; Poon C Wong; Chi F Wong; Kar N Lai; Kenneth W T Tsang
Journal:  Radiology       Date:  2003-11       Impact factor: 11.105

5.  Marker rescue of the host range restriction defects of modified vaccinia virus Ankara.

Authors:  L S Wyatt; M W Carroll; C P Czerny; M Merchlinsky; J R Sisler; B Moss
Journal:  Virology       Date:  1998-11-25       Impact factor: 3.616

6.  Mosaic evolution of the severe acute respiratory syndrome coronavirus.

Authors:  John Stavrinides; David S Guttman
Journal:  J Virol       Date:  2004-01       Impact factor: 5.103

7.  Molecular epidemiology of the novel coronavirus that causes severe acute respiratory syndrome.

Authors:  Y Guan; J S M Peiris; B Zheng; L L M Poon; K H Chan; F Y Zeng; C W M Chan; M N Chan; J D Chen; K Y C Chow; C C Hon; K H Hui; J Li; V Y Y Li; Y Wang; S W Leung; K Y Yuen; F C Leung
Journal:  Lancet       Date:  2004-01-10       Impact factor: 79.321

8.  A model of the ACE2 structure and function as a SARS-CoV receptor.

Authors:  Ponraj Prabakaran; Xiaodong Xiao; Dimiter S Dimitrov
Journal:  Biochem Biophys Res Commun       Date:  2004-01-30       Impact factor: 3.575

9.  Angiotensin-converting enzyme 2 is a functional receptor for the SARS coronavirus.

Authors:  Wenhui Li; Michael J Moore; Natalya Vasilieva; Jianhua Sui; Swee Kee Wong; Michael A Berne; Mohan Somasundaran; John L Sullivan; Katherine Luzuriaga; Thomas C Greenough; Hyeryun Choe; Michael Farzan
Journal:  Nature       Date:  2003-11-27       Impact factor: 49.962

10.  A 193-amino acid fragment of the SARS coronavirus S protein efficiently binds angiotensin-converting enzyme 2.

Authors:  Swee Kee Wong; Wenhui Li; Michael J Moore; Hyeryun Choe; Michael Farzan
Journal:  J Biol Chem       Date:  2003-12-11       Impact factor: 5.157

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  120 in total

Review 1.  Animal origins of the severe acute respiratory syndrome coronavirus: insight from ACE2-S-protein interactions.

Authors:  Wenhui Li; Swee-Kee Wong; Fang Li; Jens H Kuhn; I-Chueh Huang; Hyeryun Choe; Michael Farzan
Journal:  J Virol       Date:  2006-05       Impact factor: 5.103

2.  Epithelial cells lining salivary gland ducts are early target cells of severe acute respiratory syndrome coronavirus infection in the upper respiratory tracts of rhesus macaques.

Authors:  Li Liu; Qiang Wei; Xavier Alvarez; Haibo Wang; Yanhua Du; Hua Zhu; Hong Jiang; Jingying Zhou; Pokman Lam; Linqi Zhang; Andrew Lackner; Chuan Qin; Zhiwei Chen
Journal:  J Virol       Date:  2011-02-02       Impact factor: 5.103

3.  Protection of sheep against Rift Valley fever virus and sheep poxvirus with a recombinant capripoxvirus vaccine.

Authors:  Reuben K Soi; Fred R Rurangirwa; Travis C McGuire; Paul M Rwambo; James C DeMartini; Timothy B Crawford
Journal:  Clin Vaccine Immunol       Date:  2010-09-28

4.  Application of siRNA against SARS in the rhesus macaque model.

Authors:  Qingquan Tang; Baojian Li; Martin Woodle; Patrick Y Lu
Journal:  Methods Mol Biol       Date:  2008

Review 5.  Vaccinia virus vaccines: past, present and future.

Authors:  Bertram L Jacobs; Jeffrey O Langland; Karen V Kibler; Karen L Denzler; Stacy D White; Susan A Holechek; Shukmei Wong; Trung Huynh; Carole R Baskin
Journal:  Antiviral Res       Date:  2009-06-26       Impact factor: 5.970

6.  What We Need to Consider During and After the SARS-CoV-2 Pandemic.

Authors:  Willy A Valdivia-Granda; Jürgen A Richt
Journal:  Vector Borne Zoonotic Dis       Date:  2020-05-29       Impact factor: 2.133

Review 7.  Potent human monoclonal antibodies against SARS CoV, Nipah and Hendra viruses.

Authors:  Ponraj Prabakaran; Zhongyu Zhu; Xiaodong Xiao; Arya Biragyn; Antony S Dimitrov; Christopher C Broder; Dimiter S Dimitrov
Journal:  Expert Opin Biol Ther       Date:  2009-03       Impact factor: 4.388

8.  Mucosal priming with a replicating-vaccinia virus-based vaccine elicits protective immunity to simian immunodeficiency virus challenge in rhesus monkeys.

Authors:  Caijun Sun; Zhiwei Chen; Xian Tang; Yinfeng Zhang; Liqiang Feng; Yanhua Du; Lijun Xiao; Li Liu; Weijun Zhu; Ling Chen; Linqi Zhang
Journal:  J Virol       Date:  2013-03-13       Impact factor: 5.103

9.  Vaccines to prevent severe acute respiratory syndrome coronavirus-induced disease.

Authors:  Luis Enjuanes; Marta L Dediego; Enrique Alvarez; Damon Deming; Tim Sheahan; Ralph Baric
Journal:  Virus Res       Date:  2007-04-09       Impact factor: 3.303

Review 10.  The spike protein of SARS-CoV--a target for vaccine and therapeutic development.

Authors:  Lanying Du; Yuxian He; Yusen Zhou; Shuwen Liu; Bo-Jian Zheng; Shibo Jiang
Journal:  Nat Rev Microbiol       Date:  2009-02-09       Impact factor: 60.633

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