Literature DB >> 21106779

Postexposure prevention of progressive vaccinia in SCID mice treated with vaccinia immune globulin.

R W Fisher1, J L Reed, P J Snoy, M G Mikolajczyk, M Bray, D E Scott, M C Kennedy.   

Abstract

A recently reported case of progressive vaccinia (PV) in an immunocompromised patient has refocused attention on this condition. Uniformly fatal prior to the licensure of vaccinia immune globulin (VIG) in 1978, PV was still fatal in about half of VIG-treated patients overall, with a greater mortality rate in infants and children. Additional therapies would be needed in the setting of a smallpox bioterror event, since mass vaccination following any variola virus release would inevitably result in exposure of immunocompromised people through vaccination or contact with vaccinees. Well-characterized animal models of disease can support the licensure of new products when human studies are not ethical or feasible, as in the case of PV. We chose vaccinia virus-scarified SCID mice to model PV. As in immunocompromised humans, vaccinia virus-scarified SCID animals develop enlarging primary lesions with minimal or no inflammation, eventual distal virus spread, and lethal outcomes if left untreated. Postexposure treatment with VIG slowed disease progression, caused local lesion regression, and resulted in the healthy survival of most of the mice for more than 120 days. Combination treatment with VIG and topical cidofovir also resulted in long-term disease-free survival of most of the animals, even when initiated 7 days postinfection. These results support the possibility that combination treatments may be effective in humans and support using this SCID model of PV to test new antibody therapies and combination therapies and to provide further insights into the pathogenesis and treatment of PV.

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Year:  2010        PMID: 21106779      PMCID: PMC3019770          DOI: 10.1128/CVI.00280-10

Source DB:  PubMed          Journal:  Clin Vaccine Immunol        ISSN: 1556-679X


  39 in total

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4.  Polyclonal antibody cocktails generated using DNA vaccine technology protect in murine models of orthopoxvirus disease.

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6.  Vaccinia virus induces rapid necrosis in keratinocytes by a STAT3-dependent mechanism.

Authors:  Yong He; Robert Fisher; Soma Chowdhury; Ishrat Sultana; Claudia P Pereira; Mike Bray; Jennifer L Reed
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7.  Cutaneous Deficiency of Filaggrin and STAT3 Exacerbates Vaccinia Disease In Vivo.

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8.  Bioluminescent imaging of vaccinia virus infection in immunocompetent and immunodeficient rats as a model for human smallpox.

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Review 10.  Challenges and Achievements in Prevention and Treatment of Smallpox.

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Journal:  Vaccines (Basel)       Date:  2018-01-29
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