Literature DB >> 29118127

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

Elizabeth R Wonderlich1,2, Amy L Caroline1,2, Cynthia M McMillen1,2, Aaron W Walters1, Douglas S Reed1,3, Simon M Barratt-Boyes1,2,3, Amy L Hartman4,2.   

Abstract

Rift Valley Fever (RVF) is an emerging arboviral disease of livestock and humans. Although the disease is caused by a mosquito-borne virus, humans are infected through contact with, or inhalation of, virus-laden particles from contaminated animal carcasses. Some individuals infected with RVF virus (RVFV) develop meningoencephalitis, resulting in morbidity and mortality. Little is known about the pathogenic mechanisms that lead to neurologic sequelae, and thus, animal models that represent human disease are needed. African green monkeys (AGM) exposed to aerosols containing RVFV develop a reproducibly lethal neurological disease that resembles human illness. To understand the disease process and identify biomarkers of lethality, two groups of 5 AGM were infected by inhalation with either a lethal or a sublethal dose of RVFV. Divergence between lethal and sublethal infections occurred as early as 2 days postinfection (dpi), at which point CD8+ T cells from lethally infected AGM expressed activated caspase-3 and simultaneously failed to increase levels of major histocompatibility complex (MHC) class II molecules, in contrast to surviving animals. At 4 dpi, lethally infected animals failed to demonstrate proliferation of total CD4+ and CD8+ T cells, in contrast to survivors. These marked changes in peripheral blood cells occur much earlier than more-established indicators of severe RVF disease, such as granulocytosis and fever. In addition, an early proinflammatory (gamma interferon [IFN-γ], interleukin 6 [IL-6], IL-8, monocyte chemoattractant protein 1 [MCP-1]) and antiviral (IFN-α) response was seen in survivors, while very late cytokine expression was found in animals with lethal infections. By characterizing immunological markers of lethal disease, this study furthers our understanding of RVF pathogenesis and will allow the testing of therapeutics and vaccines in the AGM model.IMPORTANCE Rift Valley Fever (RVF) is an important emerging viral disease for which we lack both an effective human vaccine and treatment. Encephalitis and neurological disease resulting from RVF lead to death or significant long-term disability for infected people. African green monkeys (AGM) develop lethal neurological disease when infected with RVF virus by inhalation. Here we report the similarities in disease course between infected AGM and humans. For the first time, we examine the peripheral immune response during the course of infection in AGM and show that there are very early differences in the immune response between animals that survive infection and those that succumb. We conclude that AGM are a novel and suitable monkey model for studying the neuropathogenesis of RVF and for testing vaccines and therapeutics against this emerging viral pathogen.
Copyright © 2018 American Society for Microbiology.

Entities:  

Keywords:  African green monkey; Rift Valley fever virus; aerosols; bunyavirus; caspases; cytokines; encephalitis; viral pathogenesis

Mesh:

Substances:

Year:  2018        PMID: 29118127      PMCID: PMC5774883          DOI: 10.1128/JVI.01662-17

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


  62 in total

1.  Epidemiologic and clinical aspects of a Rift Valley fever outbreak in humans in Tanzania, 2007.

Authors:  Mohamed Mohamed; Fausta Mosha; Janeth Mghamba; Sherif R Zaki; Wun-Ju Shieh; Janusz Paweska; Sylvia Omulo; Solomon Gikundi; Peter Mmbuji; Peter Bloland; Nordin Zeidner; Raphael Kalinga; Robert F Breiman; M Kariuki Njenga
Journal:  Am J Trop Med Hyg       Date:  2010-08       Impact factor: 2.345

2.  The genetic basis for susceptibility to Rift Valley fever disease in MBT/Pas mice.

Authors:  S Tokuda; T Z Do Valle; L Batista; D Simon-Chazottes; L Guillemot; M Bouloy; M Flamand; X Montagutelli; J-J Panthier
Journal:  Genes Immun       Date:  2015-01-08       Impact factor: 2.676

3.  Aerosolized rift valley fever virus causes fatal encephalitis in african green monkeys and common marmosets.

Authors:  Amy L Hartman; Diana S Powell; Laura M Bethel; Amy L Caroline; Richard J Schmid; Tim Oury; Douglas S Reed
Journal:  J Virol       Date:  2013-12-11       Impact factor: 5.103

4.  The Rift Valley fever epizootic in Egypt 1977-78. 2. Ecological and entomological studies.

Authors:  H Hoogstraal; J M Meegan; G M Khalil; F K Adham
Journal:  Trans R Soc Trop Med Hyg       Date:  1979       Impact factor: 2.184

5.  Pathogenicity and neurovirulence of a mutagen-attenuated Rift Valley fever vaccine in rhesus monkeys.

Authors:  J C Morrill; C J Peters
Journal:  Vaccine       Date:  2003-06-20       Impact factor: 3.641

6.  Testing of novel dengue virus 2 vaccines in African green monkeys: safety, immunogenicity, and efficacy.

Authors:  Katherine M Smith; Kavita Nanda; Carla J Spears; Amanda Piper; Mariana Ribeiro; Michelle Quiles; Caitlin M Briggs; Gwynneth S Thomas; Malcolm E Thomas; Dennis T Brown; Raquel Hernandez; Victoria McCarl
Journal:  Am J Trop Med Hyg       Date:  2012-08-13       Impact factor: 2.345

7.  Anti-nucleocapsid protein immune responses counteract pathogenic effects of Rift Valley fever virus infection in mice.

Authors:  Petrus Jansen van Vuren; Caroline T Tiemessen; Janusz T Paweska
Journal:  PLoS One       Date:  2011-09-16       Impact factor: 3.240

8.  Serum levels of inflammatory cytokines in Rift Valley fever patients are indicative of severe disease.

Authors:  Petrus Jansen van Vuren; Sharon Shalekoff; Antoinette A Grobbelaar; Brett N Archer; Juno Thomas; Caroline T Tiemessen; Janusz T Paweska
Journal:  Virol J       Date:  2015-10-06       Impact factor: 4.099

9.  RIFT VALLEY FEVER : A REPORT OF THREE CASES OF LABORATORY INFECTION AND THE EXPERIMENTAL TRANSMISSION OF THE DISEASE TO FERRETS.

Authors:  T Francis; T P Magill
Journal:  J Exp Med       Date:  1935-08-31       Impact factor: 14.307

10.  Factors associated with severe human Rift Valley fever in Sangailu, Garissa County, Kenya.

Authors:  A Desirée LaBeaud; Sarah Pfeil; Samuel Muiruri; Saidi Dahir; Laura J Sutherland; Zachary Traylor; Ginny Gildengorin; Eric M Muchiri; John Morrill; C J Peters; Amy G Hise; James W Kazura; Charles H King
Journal:  PLoS Negl Trop Dis       Date:  2015-03-12
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  12 in total

1.  Genetic diversity of collaborative cross mice enables identification of novel rift valley fever virus encephalitis model.

Authors:  Haley N Cartwright; Dominique J Barbeau; Joshua D Doyle; Ed Klein; Mark T Heise; Martin T Ferris; Anita K McElroy
Journal:  PLoS Pathog       Date:  2022-07-14       Impact factor: 7.464

2.  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

3.  Development of Rift valley fever encephalitis in rats is mediated by early infection of olfactory epithelium and neuroinvasion across the cribriform plate.

Authors:  Devin A Boyles; Madeline M Schwarz; Joseph R Albe; Cynthia M McMillen; Katherine J O'Malley; Douglas S Reed; Amy L Hartman
Journal:  J Gen Virol       Date:  2021-02       Impact factor: 3.891

Review 4.  Rift Valley fever: biology and epidemiology.

Authors:  Daniel Wright; Jeroen Kortekaas; Thomas A Bowden; George M Warimwe
Journal:  J Gen Virol       Date:  2019-07-16       Impact factor: 5.141

5.  Pathogenesis of Rift Valley Fever Virus Aerosol Infection in STAT2 Knockout Hamsters.

Authors:  Brady T Hickerson; Jonna B Westover; Arnaud J Van Wettere; Johanna D Rigas; Jinxin Miao; Bettina L Conrad; Neil E Motter; Zhongde Wang; Brian B Gowen
Journal:  Viruses       Date:  2018-11-19       Impact factor: 5.048

6.  Transcriptome profiling in Rift Valley fever virus infected cells reveals modified transcriptional and alternative splicing programs.

Authors:  Katherine E Havranek; Luke Adam White; Jean-Marc Lanchy; J Stephen Lodmell
Journal:  PLoS One       Date:  2019-05-28       Impact factor: 3.240

7.  Neutrophil and macrophage influx into the central nervous system are inflammatory components of lethal Rift Valley fever encephalitis in rats.

Authors:  Joseph R Albe; Devin A Boyles; Aaron W Walters; Michael R Kujawa; Cynthia M McMillen; Douglas S Reed; Amy L Hartman
Journal:  PLoS Pathog       Date:  2019-06-20       Impact factor: 6.823

Review 8.  The challenging management of Rift Valley Fever in humans: literature review of the clinical disease and algorithm proposal.

Authors:  Emilie Javelle; Alexandre Lesueur; Vincent Pommier de Santi; Franck de Laval; Thibault Lefebvre; Guillaume Holweck; Guillaume André Durand; Isabelle Leparc-Goffart; Gaëtan Texier; Fabrice Simon
Journal:  Ann Clin Microbiol Antimicrob       Date:  2020-01-22       Impact factor: 3.944

9.  Attenuation and efficacy of live-attenuated Rift Valley fever virus vaccine candidates in non-human primates.

Authors:  Darci R Smith; Sara C Johnston; Ashley Piper; Miriam Botto; Ginger Donnelly; Joshua Shamblin; César G Albariño; Lisa E Hensley; Connie Schmaljohn; Stuart T Nichol; Brian H Bird
Journal:  PLoS Negl Trop Dis       Date:  2018-05-09

10.  Rift Valley Fever Virus Infection Causes Acute Encephalitis in the Ferret.

Authors:  Dominique J Barbeau; Joseph R Albe; Sham Nambulli; Natasha L Tilston-Lunel; Amy L Hartman; Seema S Lakdawala; Ed Klein; W Paul Duprex; Anita K McElroy
Journal:  mSphere       Date:  2020-10-28       Impact factor: 4.389

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