Given the rapid development of nanotechnology, it is crucial to understand the effects of
nanoparticles on living organisms. However, it is laborious to perform toxicological tests on a …

Background: The enormous physicochemical and structural diversity of metal oxide
nanoparticles (MeONPs) poses significant challenges to the testing of their biological …

Since the application of nanomaterials has expanded as a therapeutic methodology, the
cytotoxicity accompanying nanomaterials during the therapeutic process has attracted …

Over the past decade, computational nanotoxicology, in particular Quantitative Structure–
Activity Relationship models (Nano-QSAR) that help in assessing the biological effects of …

Creating suitable chemical categories and developing read-across methods, supported by
quantum mechanical calculations, can be an effective solution to solving key problems …

Although nanotechnology is a new and rapidly growing area of science, the impact of
nanomaterials on living organisms is unknown in many aspects. In this regard, it is extremely …

Computational approaches have evolved as efficient alternatives to understand the adverse
effects of nanoparticles on human health and the environment. The potential of using …

Given the rapid growth of nanotechnology, it is essential to know the hazardous effects of
metal oxide nanoparticles (MeOx NPs) posed to the living organisms within the ecosystem …

It is expected that the number and variety of engineered nanoparticles will increase rapidly
over the next few years, and there is a need for new methods to quickly test the potential …

Nowadays, nanotechnology is a promising area of research. Therefore, a detailed
understanding of comprehensive risk assessment of nanomaterials and their behavior to the …