Molecules · 2018 · 19 citations · 30 references
Natural SciencesChemistryMicrobiologyBiomaterialsBiophysical ChemistryOrganometallic ChemistryAntibacterial AgentsAntimicrobial BiomaterialsNanomedicineAntibacterial BiomaterialsAntibacterial NanomaterialsAntibacterial PropertiesAntimicrobial NanomaterialsLight ExposureMembrane DisruptionMembrane Disruption MechanismsUv Light Applications
of five silver carboxylate complexes with anti-inflammatory ligands were studied in order to analyze and compare them in terms of stability (in solution and after exposure to UV light), and their antibacterial and morphological differences. Four effects of the Ag-complexes were evidenced by transmission electronic microscopy (TEM) and scanning electronic microscopy (SEM): DNA condensation, membrane disruption, shedding of cytoplasmic material and silver compound microcrystal penetration of bacteria. 5-Chlorosalicylic acid (5Cl) and sodium 4-aminosalicylate (4A) were the most effective ligands for synthesizing silver complexes with high levels of antibacterial activity. However, Ag-5Cl was the most stable against exposure UV light (365 nm). Cytotoxic effects were tested against two kinds of eukaryotic cells: murine fibroblast cells (T10 1/2) and human epithelial ovarian cancer cells (A2780). The main objective was to identify changes in their antibacterial properties associated with potential decomposition and the implications for clinical applications.
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Silver coordination compounds: A new horizon in medicine
Serenella Medici, Massimiliano Peana, Guido Crisponi et al. · Coordination Chemistry Reviews · 2016 · 309 citations · Full text
Kenji Nomiya, Akira Yoshizawa, Ken Tsukagoshi et al. · Journal of Inorganic Biochemistry · 2003 · 220 citations
Laura Tamayo, Paula A. Zapata, Nelson Vejar et al. · Materials Science and Engineering C · 2014 · 208 citations · Full text
Natural Sciences, Materials Engineering, Materials Science +16