silver nanoparticles (Sharma et al. 2009). Greener silver
nanoparticles are synthesized in biological method using
microbes, plants, plant extracts, and biocompatible
compounds, which are used as both reducing and
stabilizing agents. Min et al. (2009) demonstrated that
sclerotium-forming fungi were inhibited by silver nanoparticles
in a dose-dependent manner. Similarly, Kim
et al. (2009) evaluated the antifungal activity of silver
nanoparticles against ambrosia fungus Raffaelea sp. and
other phytopathogenic fungi (Kim et al. 2012).
In this study, the synthesis of silver nanoparticles
from 1 mM aqueous silver nitrate solution in the presence
of turnip leaf extract was primarily characterized
by UV–Vis spectroscopy. The change in colour of the
silver nanoparticles (Sharma et al. 2009). Greener silvernanoparticles are synthesized in biological method usingmicrobes, plants, plant extracts, and biocompatiblecompounds, which are used as both reducing andstabilizing agents. Min et al. (2009) demonstrated thatsclerotium-forming fungi were inhibited by silver nanoparticlesin a dose-dependent manner. Similarly, Kimet al. (2009) evaluated the antifungal activity of silvernanoparticles against ambrosia fungus Raffaelea sp. andother phytopathogenic fungi (Kim et al. 2012).In this study, the synthesis of silver nanoparticlesfrom 1 mM aqueous silver nitrate solution in the presenceof turnip leaf extract was primarily characterizedby UV–Vis spectroscopy. The change in colour of the
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