| Literature DB >> 34616043 |
Suzanne J F Kaptein1, Olivia Goethals2, Dominik Kiemel3, Arnaud Marchand4, Bart Kesteleyn5, Jean-François Bonfanti6,7, Dorothée Bardiot4, Bart Stoops5, Tim H M Jonckers5, Kai Dallmeier1, Peggy Geluykens5,8, Kim Thys5, Marjolein Crabbe5, Laurent Chatel-Chaix3,9, Max Münster3, Gilles Querat10, Franck Touret10, Xavier de Lamballerie10, Pierre Raboisson5,11, Kenny Simmen5, Patrick Chaltin4,12, Ralf Bartenschlager3,13, Marnix Van Loock14, Johan Neyts15,16.
Abstract
Dengue virus causes approximately 96 million symptomatic infections annually, manifesting as dengue fever or occasionally as severe dengue1,2. There are no antiviral agents available to prevent or treat dengue. Here, we describe a highly potent dengue virus inhibitor (JNJ-A07) that exerts nanomolar to picomolar activity against a panel of 21 clinical isolates that represent the natural genetic diversity of known genotypes and serotypes. The molecule has a high barrier to resistance and prevents the formation of the viral replication complex by blocking the interaction between two viral proteins (NS3 and NS4B), thus revealing a previously undescribed mechanism of antiviral action. JNJ-A07 has a favourable pharmacokinetic profile that results in outstanding efficacy against dengue virus infection in mouse infection models. Delaying start of treatment until peak viraemia results in a rapid and significant reduction in viral load. An analogue is currently in further development.Entities:
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Year: 2021 PMID: 34616043 DOI: 10.1038/s41586-021-03990-6
Source DB: PubMed Journal: Nature ISSN: 0028-0836 Impact factor: 49.962