Literature DB >> 23536675

Rift Valley fever virus clearance and protection from neurologic disease are dependent on CD4+ T cell and virus-specific antibody responses.

Kimberly A Dodd1, Anita K McElroy, Megan E B Jones, Stuart T Nichol, Christina F Spiropoulou.   

Abstract

Rift Valley fever virus (RVFV) causes outbreaks of severe disease in people and livestock throughout Africa and the Arabian Peninsula. Human RVFV infections generally manifest as a self-limiting febrile illness, but in some individuals, the disease can progress to a fatal encephalitis or hemorrhagic syndrome. Little is known about the host characteristics that predispose development of more severe disease. Early in infection, interferon-mediated antiviral responses are critical for controlling RVFV replication, but the roles of downstream adaptive immune responses in determining clinical outcome have not been examined. Here, using a C57BL/6 mouse disease model, we evaluated the roles of B cells and T cells in RVFV pathogenesis. Given the profound inhibition of the innate response by the viral NSs protein and rapid course of wild-type infection, we utilized an attenuated RVFV lacking NSs to examine host responses following primary infection. Experiments utilizing B-cell-deficient mice or targeted T cell depletions of wild-type mice demonstrated that B cells and CD4(+) T cells, but not CD8(+) T cells, were critical for mediating viral clearance, even in the presence of a functional innate response. One-third of CD4-depleted mice developed severe neurologic disease following infection, in contrast to virus-infected mock-depleted mice that showed no clinical signs. CD4(+) T cells were required for robust IgG and neutralizing antibody responses that correlated with RVFV clearance from peripheral tissues. Furthermore, CD4-depleted mice demonstrated significantly stronger proinflammatory responses relative to controls, suggesting CD4(+) T cells regulate immune responses to RVFV infection. Together, these results indicate CD4(+) T cells are critical determinants of RVFV pathogenesis and play an important role in preventing onset of neurologic disease.

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Year:  2013        PMID: 23536675      PMCID: PMC3648110          DOI: 10.1128/JVI.00337-13

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


  45 in total

1.  The S segment of rift valley fever phlebovirus (Bunyaviridae) carries determinants for attenuation and virulence in mice.

Authors:  P Vialat; A Billecocq; A Kohl; M Bouloy
Journal:  J Virol       Date:  2000-02       Impact factor: 5.103

2.  The C-terminal region of Rift Valley fever virus NSm protein targets the protein to the mitochondrial outer membrane and exerts antiapoptotic function.

Authors:  Kaori Terasaki; Sungyong Won; Shinji Makino
Journal:  J Virol       Date:  2012-10-24       Impact factor: 5.103

3.  Characterization of clone 13, a naturally attenuated avirulent isolate of Rift Valley fever virus, which is altered in the small segment.

Authors:  R Muller; J F Saluzzo; N Lopez; T Dreier; M Turell; J Smith; M Bouloy
Journal:  Am J Trop Med Hyg       Date:  1995-10       Impact factor: 2.345

4.  Experimental Rift Valley fever in rhesus macaques.

Authors:  C J Peters; D Jones; R Trotter; J Donaldson; J White; E Stephen; T W Slone
Journal:  Arch Virol       Date:  1988       Impact factor: 2.574

5.  Pathogenesis of Rift Valley fever in rhesus monkeys: role of interferon response.

Authors:  J C Morrill; G B Jennings; A J Johnson; T M Cosgriff; P H Gibbs; C J Peters
Journal:  Arch Virol       Date:  1990       Impact factor: 2.574

6.  Prevention of Rift Valley fever in rhesus monkeys with interferon-alpha.

Authors:  J C Morrill; G B Jennings; T M Cosgriff; P H Gibbs; C J Peters
Journal:  Rev Infect Dis       Date:  1989 May-Jun

7.  Viral determinants of virulence for Rift Valley fever (RVF) in rats.

Authors:  G W Anderson; C J Peters
Journal:  Microb Pathog       Date:  1988-10       Impact factor: 3.738

8.  NSs protein of Rift Valley fever virus blocks interferon production by inhibiting host gene transcription.

Authors:  Agnès Billecocq; Martin Spiegel; Pierre Vialat; Alain Kohl; Friedemann Weber; Michèle Bouloy; Otto Haller
Journal:  J Virol       Date:  2004-09       Impact factor: 5.103

9.  Role of CD8+ T cells in control of West Nile virus infection.

Authors:  Bimmi Shrestha; Michael S Diamond
Journal:  J Virol       Date:  2004-08       Impact factor: 5.103

10.  TFIIH transcription factor, a target for the Rift Valley hemorrhagic fever virus.

Authors:  Nicolas Le May; Sandy Dubaele; Luca Proietti De Santis; Agnès Billecocq; Michèle Bouloy; Jean-Marc Egly
Journal:  Cell       Date:  2004-02-20       Impact factor: 41.582

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  22 in total

1.  Identification and Characterization of Rift Valley Fever Virus-Specific T Cells Reveals a Dependence on CD40/CD40L Interactions for Prevention of Encephalitis.

Authors:  Dominique J Barbeau; Haley N Cartwright; Jessica R Harmon; Jessica R Spengler; Christina F Spiropoulou; John Sidney; Alessandro Sette; Anita K McElroy
Journal:  J Virol       Date:  2021-09-08       Impact factor: 5.103

2.  Interplay between the Virus and Host in Rift Valley Fever Pathogenesis.

Authors:  Kaori Terasaki; Shinji Makino
Journal:  J Innate Immun       Date:  2015-02-27       Impact factor: 7.349

3.  Peripheral Blood Biomarkers of Disease Outcome in a Monkey Model of Rift Valley Fever Encephalitis.

Authors:  Elizabeth R Wonderlich; Amy L Caroline; Cynthia M McMillen; Aaron W Walters; Douglas S Reed; Simon M Barratt-Boyes; Amy L Hartman
Journal:  J Virol       Date:  2018-01-17       Impact factor: 5.103

4.  Countermeasure development for Rift Valley fever: deletion, modification or targeting of major virulence factor NSs.

Authors:  Olga Lihoradova; Tetsuro Ikegami
Journal:  Future Virol       Date:  2014-01-01       Impact factor: 1.831

5.  CD4 T Cells, CD8 T Cells, and Monocytes Coordinate To Prevent Rift Valley Fever Virus Encephalitis.

Authors:  Jessica R Harmon; Jessica R Spengler; Joann D Coleman-McCray; Stuart T Nichol; Christina F Spiropoulou; Anita K McElroy
Journal:  J Virol       Date:  2018-11-27       Impact factor: 5.103

6.  Serological and genomic evidence of Rift Valley fever virus during inter-epidemic periods in Mauritania.

Authors:  M Rissmann; M Eiden; B O El Mamy; K Isselmou; B Doumbia; U Ziegler; T Homeier-Bachmann; B Yahya; M H Groschup
Journal:  Epidemiol Infect       Date:  2016-12-28       Impact factor: 4.434

7.  Rift valley Fever virus encephalitis is associated with an ineffective systemic immune response and activated T cell infiltration into the CNS in an immunocompetent mouse model.

Authors:  Kimberly A Dodd; Anita K McElroy; Tara L Jones; Sherif R Zaki; Stuart T Nichol; Christina F Spiropoulou
Journal:  PLoS Negl Trop Dis       Date:  2014-06-12

8.  Immunogenicity and efficacy of a chimpanzee adenovirus-vectored Rift Valley fever vaccine in mice.

Authors:  George M Warimwe; Gema Lorenzo; Elena Lopez-Gil; Arturo Reyes-Sandoval; Matthew G Cottingham; Alexandra J Spencer; Katharine A Collins; Matthew D J Dicks; Anita Milicic; Amar Lall; Julie Furze; Alison V Turner; Adrian V S Hill; Alejandro Brun; Sarah C Gilbert
Journal:  Virol J       Date:  2013-12-05       Impact factor: 4.099

9.  Inflammatory Biomarkers Associated with Lethal Rift Valley Fever Encephalitis in the Lewis Rat Model.

Authors:  Amy L Caroline; Michael R Kujawa; Tim D Oury; Douglas S Reed; Amy L Hartman
Journal:  Front Microbiol       Date:  2016-01-07       Impact factor: 5.640

Review 10.  Encephalitic Arboviruses: Emergence, Clinical Presentation, and Neuropathogenesis.

Authors:  Hamid Salimi; Matthew D Cain; Robyn S Klein
Journal:  Neurotherapeutics       Date:  2016-07       Impact factor: 7.620

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