| Literature DB >> 28285916 |
John D Schreier1, Mark W Embrey2, Izzat T Raheem2, Guillaume Barbe3, Louis-Charles Campeau4, David Dubost5, Jamie McCabe Dunn4, Jay Grobler6, Timothy J Hartingh2, Daria J Hazuda6, Daniel Klein7, Michael D Miller6, Keith P Moore2, Natalie Nguyen3, Natasa Pajkovic8, David A Powell9, Vanessa Rada2, John M Sanders7, John Sisko2, Thomas G Steele2, John Wai2, Abbas Walji2, Min Xu10, Paul J Coleman2.
Abstract
HIV integrase strand transfer inhibitors (InSTIs) represent an important class of antiviral therapeutics with proven efficacy and excellent tolerability for the treatment of HIV infections. In 2007, Raltegravir became the first marketed strand transfer inhibitor pioneering the way to a first-line therapy for treatment-naïve patients. Challenges with this class of therapeutics remain, including frequency of the dosing regimen and the genetic barrier to resistance. To address these issues, research towards next-generation integrase inhibitors has focused on imparting potency against RAL-resistent mutants and improving pharmacokinetic profiles. Herein, we detail medicinal chemistry efforts on a novel class of 2-pyridinone aminal InSTIs, inpsired by MK-0536, which led to the discovery of important lead molecules for our program. Systematic optimization carried out at the amide and aminal positions on the periphery of the core provided the necessary balance of antiviral activity and physiochemical properties. These efforts led to a novel aminal lead compound with the desired virological profile and preclinical pharmacokinetic profile to support a once-daily human dose prediction.Entities:
Keywords: 2-pyridinone aminal; HIV Integrase; Structure activity relationship
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Year: 2017 PMID: 28285916 DOI: 10.1016/j.bmcl.2017.02.039
Source DB: PubMed Journal: Bioorg Med Chem Lett ISSN: 0960-894X Impact factor: 2.823