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https://doi.org/10.3390/v5122977
Title: | West Nile virus drug discovery | Authors: | Lim, S.P Shi, P.-Y |
Keywords: | agmatine antivirus agent benzotriazole derivative castanospermine 6 butyrate cyclophilin cyclosporin A dabigatran guanosine triphosphate helicase Human immunodeficiency virus proteinase inhibitor inosinate dehydrogenase ivermectin luciferase minocycline mycophenolic acid nitd 982 nonstructural protein 3 nonstructural protein 4 nonstructural protein 5 nucleoside analog peptide hydrolase inhibitor propionic acid recombinant antibody recombinant humanized monoclonal antibody ribavirin rivaroxaban RNA directed RNA polymerase stress activated protein kinase unclassified drug unindexed drug West Nile vaccine antiviral activity biochemistry blood brain barrier computer model conformational transition crystal structure cytotoxicity Dengue virus DNA methylation drug screening endoplasmic reticulum gene mutation Hepatitis C virus high throughput screening human IC 50 molecular docking nonhuman nuclear magnetic resonance phase 1 clinical trial (topic) phase 2 clinical trial (topic) review structure activity relation virus replication West Nile fever West Nile flavivirus Antibodies, Viral Antiviral Agents Clinical Trials as Topic Drug Discovery Drug Evaluation, Preclinical Drug Repositioning Humans West Nile virus |
Issue Date: | 2013 | Citation: | Lim, S.P, Shi, P.-Y (2013). West Nile virus drug discovery. Viruses 5 (12) : 2977-3006. ScholarBank@NUS Repository. https://doi.org/10.3390/v5122977 | Rights: | Attribution 4.0 International | Abstract: | The outbreak of West Nile virus (WNV) in 1999 in the USA, and its continued spread throughout the Americas, parts of Europe, the Middle East and Africa, underscored the need for WNV antiviral development. Here, we review the current status of WNV drug discovery. A number of approaches have been used to search for inhibitors of WNV, including viral infection-based screening, enzyme-based screening, structure-based virtual screening, structure-based rationale design, and antibody-based therapy. These efforts have yielded inhibitors of viral or cellular factors that are critical for viral replication. For small molecule inhibitors, no promising preclinical candidate has been developed; most of the inhibitors could not even be advanced to the stage of hit-to-lead optimization due to their poor drug-like properties. However, several inhibitors developed for related members of the family Flaviviridae, such as dengue virus and hepatitis C virus, exhibited cross-inhibition of WNV, suggesting the possibility to re-purpose these antivirals for WNV treatment. Most promisingly, therapeutic antibodies have shown excellent efficacy in mouse model; one of such antibodies has been advanced into clinical trial. The knowledge accumulated during the past fifteen years has provided better rationale for the ongoing WNV and other flavivirus antiviral development. © 2013 by the authors; licensee MDPI, Basel, Switzerland. | Source Title: | Viruses | URI: | https://scholarbank.nus.edu.sg/handle/10635/177778 | ISSN: | 19994915 | DOI: | 10.3390/v5122977 | Rights: | Attribution 4.0 International |
Appears in Collections: | Staff Publications Elements |
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