Literature DB >> 26141449

A Comparison of the Pathogenesis of Marburg Virus Disease in Humans and Nonhuman Primates and Evaluation of the Suitability of These Animal Models for Predicting Clinical Efficacy under the 'Animal Rule'.

Elizabeth R Glaze1, Michael J Roy2, Lonnie W Dalrymple2, Lynda L Lanning3.   

Abstract

Marburg virus outbreaks are sporadic, infrequent, brief, and relatively small in terms of numbers of subjects affected. In addition, outbreaks most likely will occur in remote regions where clinical trials are not feasible; therefore, definitive, well-controlled human efficacy studies to test the effectiveness of a drug or biologic product are not feasible. Healthy human volunteers cannot ethically be deliberately exposed to a lethal agent such as Marburg virus in order to test the efficacy of a therapy or preventive prior to licensure. When human efficacy studies are neither ethical nor feasible, the US Food and Drug Administration may grant marketing approval of a drug or biologic product under the 'Animal Rule,' through which demonstration of the efficacy of a product can be 'based on adequate and well-controlled animal efficacy studies when the results of those studies establish that the drug is reasonably likely to produce clinical benefit in humans.' This process requires that the pathogenic determinants of the disease in the animal model are similar to those that have been identified in humans. After reviewing primarily English-language, peer-reviewed journal articles, we here summarize the clinical manifestations of Marburg virus disease and the results of studies in NHP showing the characteristics and progression of the disease. We also include a detailed comparison of the characteristics of the human disease relative to those for NHP. This review reveals that the disease characteristics of Marburg virus disease are generally similar for humans and 3 NHP species: cynomolgus macaques (Macaca fascicularis), rhesus macaques (Macaca mulatta), and African green monkeys (Chlorocebus aethiops).

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Year:  2015        PMID: 26141449      PMCID: PMC4485633     

Source DB:  PubMed          Journal:  Comp Med        ISSN: 1532-0820            Impact factor:   0.982


  88 in total

1.  The use of interferon for emergency prophylaxis of marburg hemorrhagic fever in monkeys.

Authors:  A A Kolokol'tsov; I A Davidovich; M A Strel'tsova; A E Nesterov; O A Agafonova; A P Agafonov
Journal:  Bull Exp Biol Med       Date:  2001-07       Impact factor: 0.804

2.  Marburg hemorrhagic fever associated with multiple genetic lineages of virus.

Authors:  Daniel G Bausch; Stuart T Nichol; Jean Jacques Muyembe-Tamfum; Matthias Borchert; Pierre E Rollin; Hilde Sleurs; Patricia Campbell; Florimund K Tshioko; Catherine Roth; Robert Colebunders; Patricia Pirard; Simon Mardel; Loku A Olinda; Hervé Zeller; Antoine Tshomba; Amayo Kulidri; Modeste L Libande; Sabue Mulangu; Pierre Formenty; Thomas Grein; Herwig Leirs; Leo Braack; Tom Ksiazek; Sherif Zaki; Michael D Bowen; Sheilagh B Smit; Patricia A Leman; Felicity J Burt; Alan Kemp; Robert Swanepoel
Journal:  N Engl J Med       Date:  2006-08-31       Impact factor: 91.245

3.  In the field, Canadians diagnose Marburg.

Authors:  Laura Eggertson
Journal:  CMAJ       Date:  2005-05-24       Impact factor: 8.262

Review 4.  Marburg and Ebola viruses.

Authors:  H Feldmann; H D Klenk
Journal:  Adv Virus Res       Date:  1996       Impact factor: 9.937

5.  Marburg agent disease: in monkeys.

Authors:  D I Simpson
Journal:  Trans R Soc Trop Med Hyg       Date:  1969       Impact factor: 2.184

6.  Isolation and handling of patients with dangerous infectious disease.

Authors:  L Clausen; T H Bothwell; M Isaäcson; H J Koornhof; J H Gear; J McMurdo; E M Payn; G B Miller; R Sher
Journal:  S Afr Med J       Date:  1978-02-18

7.  Marburg virus disease.

Authors:  G A Martini
Journal:  Postgrad Med J       Date:  1973-08       Impact factor: 2.401

8.  Imported case of Marburg hemorrhagic fever - Colorado, 2008.

Authors: 
Journal:  MMWR Morb Mortal Wkly Rep       Date:  2009-12-18       Impact factor: 17.586

9.  Outbreake of Marburg virus disease in Johannesburg.

Authors:  J S Gear; G A Cassel; A J Gear; B Trappler; L Clausen; A M Meyers; M C Kew; T H Bothwell; R Sher; G B Miller; J Schneider; H J Koornhof; E D Gomperts; M Isaäcson; J H Gear
Journal:  Br Med J       Date:  1975-11-29

10.  Vesicular stomatitis virus-based vaccines protect nonhuman primates against aerosol challenge with Ebola and Marburg viruses.

Authors:  Thomas W Geisbert; Kathleen M Daddario-Dicaprio; Joan B Geisbert; Douglas S Reed; Friederike Feldmann; Allen Grolla; Ute Ströher; Elizabeth A Fritz; Lisa E Hensley; Steven M Jones; Heinz Feldmann
Journal:  Vaccine       Date:  2008-10-18       Impact factor: 3.641

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  11 in total

1.  Marburg and Ravn Virus Infections Do Not Cause Observable Disease in Ferrets.

Authors:  Gary Wong; Zirui Zhang; Shihua He; Marc-Antoine de La Vega; Kevin Tierney; Geoff Soule; Kaylie Tran; Lisa Fernando; Xiangguo Qiu
Journal:  J Infect Dis       Date:  2018-11-22       Impact factor: 5.226

2.  Distinct Biological Phenotypes of Marburg and Ravn Virus Infection in Macaques.

Authors:  Veronica V Nicholas; Rebecca Rosenke; Friederike Feldmann; Dan Long; Tina Thomas; Dana P Scott; Heinz Feldmann; Andrea Marzi
Journal:  J Infect Dis       Date:  2018-11-22       Impact factor: 5.226

3.  A bioluminescent imaging mouse model for Marburg virus based on a pseudovirus system.

Authors:  Li Zhang; Qianqian Li; Qiang Liu; Weijin Huang; Jianhui Nie; Youchun Wang
Journal:  Hum Vaccin Immunother       Date:  2017-05-08       Impact factor: 3.452

4.  New Insights Into Marburg Virus Disease Pathogenesis in the Rhesus Macaque Model.

Authors:  Timothy K Cooper; Jennifer Sword; Joshua C Johnson; Amanda Bonilla; Randy Hart; David X Liu; John G Bernbaum; Kurt Cooper; Peter B Jahrling; Lisa E Hensley
Journal:  J Infect Dis       Date:  2018-11-22       Impact factor: 5.226

5.  Comparison of Aerosol- and Percutaneous-acquired Venezuelan Equine Encephalitis in Humans and Nonhuman Primates for Suitability in Predicting Clinical Efficacy under the Animal Rule.

Authors:  Janice M Rusnak; Lesley C Dupuy; Nancy A Niemuth; Andrew M Glenn; Lucy A Ward
Journal:  Comp Med       Date:  2018-10-03       Impact factor: 0.982

6.  A hamster model for Marburg virus infection accurately recapitulates Marburg hemorrhagic fever.

Authors:  Andrea Marzi; Logan Banadyga; Elaine Haddock; Tina Thomas; Kui Shen; Eva J Horne; Dana P Scott; Heinz Feldmann; Hideki Ebihara
Journal:  Sci Rep       Date:  2016-12-15       Impact factor: 4.379

Review 7.  Global research trends of World Health Organization's top eight emerging pathogens.

Authors:  Waleed M Sweileh
Journal:  Global Health       Date:  2017-02-08       Impact factor: 4.185

8.  Isolation of a monoclonal antibody from a phage display library binding the rhesus macaque MHC class I allomorph Mamu-A1*001.

Authors:  Nathan Holman; Jason T Weinfurter; Trevor R Harsla; Roger W Wiseman; Aaron J Belli; Anthony J Michaels; Keith A Reimann; Robert I DeMars; Matthew R Reynolds
Journal:  PLoS One       Date:  2017-07-18       Impact factor: 3.240

Review 9.  The development of broad-spectrum antiviral medical countermeasures to treat viral hemorrhagic fevers caused by natural or weaponized virus infections.

Authors:  Mark R Hickman; David L Saunders; Catherine A Bigger; Christopher D Kane; Patrick L Iversen
Journal:  PLoS Negl Trop Dis       Date:  2022-03-08

Review 10.  Marburg virus pathogenesis - differences and similarities in humans and animal models.

Authors:  Kyle Shifflett; Andrea Marzi
Journal:  Virol J       Date:  2019-12-30       Impact factor: 4.099

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