Toxicology Research · 2018 · 144 citations · 59 references
Life SciencesBiotechnologyMicrobiologyGreen ChemistryNanobiotechnologyNanomaterialsCell-nanoparticle InteractionsInorganic NanoparticlesMetal Oxide NanomaterialsNanobiomaterialsNanoparticle CharacterizationNanotoxicologyAntibacterial Metal Oxide NanomaterialsAntibiofilm NanomaterialsColloid Surface ChemistryEscherichia ColiToxicity Of Metal Oxide NanomaterialsZeta Potential MeasurementZinc Oxide Nanostructures
ions in a nutrient medium increased as a result of interaction with the bacterial surface and metabolites. Substantial surface binding of ZnONPs followed by intracellular uptake disrupted the cell morphology and caused obvious injury to the cell membrane. Interrupted bacterial growth kinetics, loss of cell respiration, enhanced production of intracellular ROS, and the leakage of the cytoplasmic content unequivocally suggested a strong interaction of ZnONPs with the exterior cell surface and intracellular components, eventually leading to cell death and destruction of biofilms. Overall, the results elucidated eco-friendly production of ZnONPs expressing a prominent interfacial correlation with bacteria and hence, prospecting the use of green ZnONPs as effective nanoantibiotics.
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