Biomaterals are often in contact with the body or body fluids, so interfacial phenomena,
especially protein adsorption, control essential parameters, such as biocompatability and …

Understanding protein–inorganic surface interactions is central to the rational design of new
tools in biomaterial sciences, nanobiotechnology and nanomedicine. Although a significant …

Adsorption of biomolecules and polymers to inorganic nanostructures plays a major role in
the design of novel materials and therapeutics. The behavior of flexible molecules on solid …

Although the denaturing of adsorbed proteins on biomaterials surfaces is believed to lead to
adverse tissue reactions to implanted materials, very little is currently known of the actual …

Molecular modeling has become widely recognized and accepted as an extremely valuable
research tool for understanding and predicting molecular behavior. Recently reported …

This paper concisely reviews the general principles underlying protein adsorption from
aqueous solution onto a solid surface. The discussion includes the various stages of the …

The adsorption of LTP at the decane− water interface was modeled using all-atom and
coarse-grained (CG) molecular dynamics simulations. The CG model (300 ns simulation …

Protein charge is an important parameter in the understanding of protein interactions and
function. Proteins are subject to dynamic charge regulation, that is, the influence of the local …

Protein adsorption is important for essentially any process that involves the contact of a
protein-containing solution and a material surface, with the resulting formation of the …

Atomistic computer simulations of protein adsorption on the heterogeneous surface of
biomaterials and nanomaterials are reviewed. First, we present a very brief introduction to …