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Virology

Virology is the study of viruses, which are small genetic elements that are similar to one of our own genes. Viruses differ from our own genes in that one of these “selfish DNA or RNA molecules” is basically a small set of instructions that can hijack a cell, halt its normal metabolic activity, and re-direct the cell to become a virus factory that does nothing but make hundreds of very small virus particles that can then spread to neighboring cells in the body or to other new hosts (e.g., your family and friends).

The virology research programs at MSU seek to understand the biology of viruses that are unique in their medical relevance, genetic properties, or ability to survive in extraordinarily harsh environments (e.g., boiling acid). The training of a new generation of virologists who understand both the biology of the virus and the biology of the host is essential if we are to solve real-world virology problems such as AIDS, which currently claims the lives of over 8,000 people per day worldwide.

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Contact Us

Montana State University

Division of Graduate Education

Molecular Biosciences Program

P.O. Box 172580
Bozeman, MT 59717-2580

(406) 994-6652 mbprogram@montana.edu

 

Molecular BIOSciences |> Virology
|> Faculty |> Michele E Hardy, Ph. D

Virus-host cell interactions and consequent gene regulation

Current Research

The Hardy laboratory studies interactions between enteric viruses and host cells at the molecular level. We seek to understand how protein-protein interaction networks regulate both viral gene expression and the host cell genetic response to virus invasion. Research in the lab focuses on the rotaviruses, the most important cause of pediatric diarrhea worldwide. Current projects in the lab include molecular and proteomic investigations of how rotaviruses modulate cellular antiviral gene expression, and mechanisms of innate immunity to viral infection.

Recent Publications

Ettayebi, K. and M.E. Hardy 2003. The Norwalk virus nonstructural protein p48 binds the SNARE-regulator VAP-A and disrupts secretory vesicle trafficking. J. Virol. 77: 11790-11797.

Lochridge, V. P., K. Jutila, J. W. Graff, and M. E. Hardy. 2005. Epitopes in the P2 domain of norovirus VP1 involved in virus-host cell interactions. J. Gen Virol: 86: 2799

Hardy, M.E. 2005. Norovirus protein structure and function. FEMS Microbiol Lett 253 (1):1-8

Buckner, D., S. Wilson, S. Kurk, M.E Hardy, and M.A. Jutila. 2006. Use of early passage fetal intestinal epithelial cells in semi-high-throughput screening assays: An approach to identify new innate immune system adjuvants. J Biomol Screen Sep;11(6):664-71.

Shaneyfelt, M.E., Burke, A.D., Graff, J.W., Jutila, M.A. and M.E. Hardy. 2006 Natural products that reduce rotavirus infectivity identified by a chemiluminescent moderate throughput assay. Virology J 3:68.

Daughenbaugh, K., C. Wobus and M.E. Hardy. 2006 Murine norovirus VPg binds eIFs in infected cells. Virology J 3:33.

Graff J.W., J. Ewen, K. Ettayebi, and M.E. Hardy. 2007. The zinc binding domain of rotavirus NSP1 is required for proteasome-dependent degradation of IRF3. J Gen Virol 88:613-20.

Lochridge, V.P. and M.E. Hardy. 2007. A single amino acid substitution in the P2 domain of VP1 is sufficient for escape from antibody neutralization. J Virol 81: 12316-12322.

Ettayebi, K and M.E. Hardy. 2008. Recombinant norovirus-specific scFv inhibit virus-like particle binding to cellular ligands. Virology J 5:21.

Graff, J.W., K Ettayebi and M.E. Hardy Rotavirus NSP1 inhibits NFκB activation by targeting β-TrCP for degradation: a novel mechanism of IFN antagonism. In revision


 
Michele E Hardy, Ph. D


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Updated: 8/16/08
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