4.2 Article

Low-temperature synthesis of hierarchical structures of copper oxide and their superior biological activity

Journal

IET NANOBIOTECHNOLOGY
Volume 12, Issue 7, Pages 968-972

Publisher

INST ENGINEERING TECHNOLOGY-IET
DOI: 10.1049/iet-nbt.2017.0314

Keywords

molecular biophysics; antibacterial activity; X-ray diffraction; microorganisms; copper compounds; nanofabrication; nanoparticles; narrow band gap semiconductors; field emission scanning electron microscopy; enzymes; nanomedicine; particle size; semiconductor growth; unmodified CuO collides; low-temperature synthesis; morphology-tailored hierarchical structures; copper acetate; reducing agent; monoclinic structures; copper oxide HS; CuO NPs; Staphylococcus aureus; biological activity; copper oxide; powdered X-ray diffraction; field-emission scanning electron microscopy; facile low-temperature wet-chemical method; protein kinase inhibition; antibacterial activity; antifungal activity; antimicrobial properties; pharmaceutical industries; temperature 50; 0 degC; CuO

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In this work, the authors report a facile low-temperature wet-chemical route to prepare morphology-tailored hierarchical structures (HS) of copper oxide. The preparation of copper oxide collides was carried out using varying concentrations of copper acetate and a reducing agent at a constant temperature of 50 degrees C. The prepared HS of CuO were characterised by powdered X-rays diffraction that indicates phase pure having monoclinic structures. The morphology was further confirmed by field-emission scanning electron microscope. It reveals a difference in shape and size of copper oxide HS by changing the concentration of reactants. In order to evaluate the effect of H2O2 on CuO NPs, the prepared CuO are modified by treatment with H2O2. In general trend, CuOH2O2 collide showed enhanced protein kinase inhibition, antibacterial (maximum zone 16.34mm against Staphylococcus aureus) and antifungal activities in comparison to unmodified CuO collides. These results reveal that CuO HS exhibit antimicrobial properties and can be used as a potential candidate in pharmaceutical industries.

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