Current Pharmaceutical Design · 2012 · 70 citations · 167 references
Life SciencesInfectious DiseasesMicrobiologyAntimicrobial ResistanceBacteriologyMicrobial PathogenesisAntibacterial ResistanceAntibiotic ResistanceAntibiotic Resistance MechanismsBeta-lactam ResistanceEfflux-mediated ResistanceMechanisms Of Antimicrobial ResistanceAnti-pseudomonal TherapyBeta-lactam Resistance In BiofilmsBeta-lactamase GenesBeta-lactamase Mediated ResistanceBiofilm-associated Antimicrobial ResistancePorin-mediated ResistancePseudomonas Aeruginosa Resistanceβ-Lactam Antibiotics
Treatment of serious P. aeruginosa infections becomes more challenging with each passing year. As this pathogen acquires more transferrable resistance mechanisms and continues to rapidly adapt and emerge resistant during the course of antimicrobial therapy, we face the growing threat of pan-resistance. This review has focused on those mechanisms that directly impact the future of β-lactam antibiotics, including the production of β-lactamases, porin-mediated resistance, and/or the overexpression of RND efflux pumps. With the pipeline of new anti-pseudomonal agents diminishing, it is essential that novel therapeutic strategies be explored. These include targeting biofilm formation and maintenance, virulence factors, and resistance mechanisms. Furthermore, we must continue to search for effective antibacterial combinations to not only prevent further emergence of resistance but also treat resistant strains already in the environment.
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Complete genome sequence of Pseudomonas aeruginosa PAO1, an opportunistic pathogen
C. Kendall Stover, X. Q. Pham, Alice L. Erwin et al. · Nature · 2000 · 4.6K citations · Full text