Journal of Medicinal Chemistry · 2004 · 122 citations · 19 references
PharmacyMedicinal ChemistryPharmacologyDrug DesignDrug DiscoveryStructure-activity RelationshipsChemical Space ExplorationEnzyme InhibitionLead Compound DesignLigand-based DesignPotency OptimizationQuantitative Structure-activity Relationships17 Alpha-hydroxylaseAromatase ActivityAromatase InhibitionAromatase Inhibitor InteractionsAromatase InhibitorsComparative Molecular Field AnalysisMolecular Interaction Field AnalysisStructure-based Lead Discovery
The design, synthesis, and biological evaluation of a series of new aromatase inhibitors bearing an imidazole or triazole ring linked to a fluorene (A), indenodiazine (B), or coumarin scaffold (C) are reported. Properly substituted coumarin derivatives displayed the highest aromatase inhibitory potency and selectivity over 17-alpha-hydroxylase/17-20 lyase. The modeling of the aromatase inhibition data by Comparative Molecular Field Analysis (CoMFA/GOLPE 3D QSAR approach) led to the development of a PLS model with good fitting and predictive powers (n = 22, ONC = 3, r(2) = 0.949, s = 0.216, and q(2) = 0.715). The relationship between aromatase inhibition and the steric and electrostatic fields generated by the examined azole inhibitors enables a clear understanding of the nature and spatial location of the main interactions modulating the aromatase inhibitory potency.
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Maurizio Recanatini, Alessandra Bisi, Andrea Cavalli et al. · Journal of Medicinal Chemistry · 2001 · 127 citations · Full text