Journal of Medicinal Chemistry · 2007 · 79 citations · 19 references
Life SciencesMicrobiologyMolecular BiologyAntimicrobial ResistanceDrug DiscoveryMedical MicrobiologyAntibacterial AgentsAntibacterial PharmacologyAntibacterial ResistanceAntibacterial TherapyAntibiotic ResistanceBiofilm Formation In InfectionAntibacterial Drug DevelopmentAntibacterial PropertiesAntimicrobial PropertiesBiofilm InhibitorsBiofilm-disrupting AgentsInhibitors Of Biofilm FormationNovel Antibacterial AgentsNovel Antibacterial Drug Discovery
The dramatic rise of antibiotic-resistant bacteria over the past two decades has stressed the need for completely novel classes of antibacterial agents. Accordingly, recent advances in the study of prokaryotic transcription open new opportunities for such molecules. This paper reports the structure-activity relationships of a series of phenyl-furanyl-rhodanines (PFRs) as antibacterial inhibitors of RNA polymerase (RNAP). The molecules have been evaluated for their ability to inhibit transcription and affect growth of bacteria living in suspension or in a biofilm and for their propensity to interact with serum albumin, a critical parameter for antibacterial drug discovery. The most active of these molecules inhibit Escherichia coli RNAP transcription at concentrations of </=10 microM and have promising activities against various Gram-positive pathogens including Staphylococcus epidermidis biofilms, a major cause of nosocomial infection.
19
Predicting plasma protein binding of drugs: a new approach
Nicole A. Kratochwil, Walter Huber, Francis Müller et al. · Biochemical Pharmacology · 2002 · 550 citations
Åsa Frostell‐Karlsson, Annika Remaeus, Håkan Roos et al. · Journal of Medicinal Chemistry · 2000 · 311 citations
Nuno Cerca, Sílvia Martins, Filipe Cerca et al. · Journal of Antimicrobial Chemotherapy · 2005 · 250 citations · Full text