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Abstract
The application of nanotechnology, specifically of nanoparticles (NPs), in fields such as medicine, environmental remediation, and agriculture, requires knowledge and understanding of the interactions occurring between biological systems and NPs. It is, therefore, necessary to undertake the study of the nano-biointerface. Based on the results obtained in studies on the antifungal and antibacterial capacity of the zinc oxide nanoparticles (ZnO-NPs), a review is presented of certain physicochemical phenomena that might occur at the semiconductor-cellmembrane interface and that would allow explaining the action of these NPs. Specifically, analysis was made of the effects on a biological system of entropic-type interactions, the semiconductor nature of ZnO and the existence of specific defects in the solid. Based on these physicochemical processes, qualitative models were structured of mechanisms that would explain the effects of the presence of ZnO-NPs on cultures of various fungi (Omphalia sp., Colletotrichum sp., and Phoma sp.), their growth inhibition, and the alteration of their ultrastructure, as well as on Escherichia coli bacteria, whose growth was inhibited up to ⁓70% reaching an MIC50 of 30.40 µg/mL without incidence of UV radiation.
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