ACS Medicinal Chemistry Letters · 2018 · 33 citations · 12 references
PharmacyMedicinal ChemistryPharmacologyDrug DesignDrug DiscoveryStructure-activity RelationshipsAllosteric Drug DesignAntiviral PharmacologyLigand BindingMolecular DockingPotency OptimizationProtein-ligand DockingAllosteric BindingAllosteric Pocket CharacterizationBinding Mode AnalysisBinding Mode OptimizationBinding Mode PredictionMolecular Simulation AnalysisSolvent Effects In DockingSolvent Effects On Binding
Based on the detailed analysis of the binding mode of diarylpyrimidines (DAPYs) with HIV-1 RT, we designed several subseries of novel NNRTIs, with the aim to probe biologically relevant chemical space of solvent-exposed tolerant regions in NNRTIs binding pocket (NNIBP). The most potent compound 21a exhibited significant activity against the whole viral panel, being about 1.5–2.6-fold (WT, EC50 = 2.44 nM; L100I, EC50 = 4.24 nM; Y181C, EC50 = 4.80 nM; F227L + V106A, EC50 = 17.8 nM) and 4–5-fold (K103N, EC50 = 1.03 nM; Y188L, EC50 = 7.16 nM; E138K, EC50 = 3.95 nM) more potent than the reference drug ETV. Furthermore, molecular simulation was conducted to understand the binding mode of interactions of these novel NNRTIs and to provide insights for the next optimization studies.
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UPDATE ON DRUG RESISTANCE MUTATIONS IN HIV-1
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