With the emerging advances in utilizing nanocarriers for biomedical applications, a
molecular-level understanding of the in vivo fate of nanocarriers is necessary. After …

Nanoparticle (NP)–protein complexes exhibit the “correct identity” of NP in biological media.
Therefore, protein–NP interactions should be closely explored to understand and modulate …

When nanoparticles were introduced into the biological media, the protein corona would be
formed, which endowed the nanoparticles with new bio-identities. Thus, controlling protein …

In aqueous media, titanium dioxide (TiO2) nanoparticles can interact with proteins in their
environment and form a protein corona. The pH of the aqueous media affects the structure …

The integration of nanoparticles with proteins is of high scientific interest due to the amazing
potential displayed by their complexes, combining the nanoscale properties of nanoparticles …

The aggregation and subsequent precipitation of gold nanoparticles (Au NPs) in the
presence of protein molecules restrict the usefulness of NPs in biomedical applications. Till …

Nanoparticles in biological media form dynamic entities as a result of competitive adsorption
of proteins on nanoparticle surfaces called protein coronas. The protein affinity toward …

Protein–ligand interaction studies are useful to determine the molecular mechanism of the
binding phenomenon, leading to the establishment of the structure–function relationship …

Silica nanoparticles present an enormous potential as controlled drug delivery systems with
high selectivity towards diseased cells. This application is directly related to the …

The rapid advancement of nanotechnology has opened up new avenues for applications in
all stages of the food industry. Over the past decade, extensive research has emphasized …