Understanding the interactions of nanomaterials with biosystems is a critical goal in both
biomedicine and environmental science. Engineered nanoparticles provide excellent tools …

The exterior surface of nanoparticles (NPs) dictates the behavior of these systems with the
outside world. Understanding the interactions of the NP surface functionality with biosystems …

The promise of nanobiomaterials for diagnostic and therapeutic biomedical applications has
been widely reported throughout the scientific community, and great strides have been …

Nanotechnology has held great promise for revolutionizing biology. The biological behavior
of nanomaterials depends primarily on how they interface to biomolecules and their …

Rapid growth in nanotechnology is increasing the likelihood of engineered nanomaterials
coming into contact with humans and the environment. Nanoparticles interacting with …

Surface recognition of biosystems is a critical component in the development of novel
biosensors and delivery vehicles, and for the therapeutic regulation of biological processes …

Control over biointerfacial interactions in vitro and in vivo is the key to many biomedical
applications: from cell culture and diagnostic tools to drug delivery, biomaterials and …

Control of interactions between nanoparticles and biosystems is essential for the effective
utilization of these materials in biomedicine. A wide variety of nanoparticle surface structures …

An understanding of the interactions between nanoparticles and biological systems is of
significant interest. Studies aimed at correlating the properties of nanomaterials such as …

Since the late 1980s, researchers have prepared inorganic nanoparticles of many types
including elemental metals, metal oxides, metal sulfides, metal selenides, and metal …