While the importance of protein adsorption to materials surfaces is widely recognized, little is
understood at this time regarding how to design surfaces to control protein adsorption …

Protein–surface interactions are of fundamental importance for a broad range of applications
in the fields of biomaterials and biotechnology. Present experimental methods are limited in …

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

All-atom empirical molecular mechanics protein force fields, which have been developed to
represent the energetics of peptide folding behavior in aqueous solution, have not been …

In order to evaluate the transferability of existing empirical force fields for all-atom molecular
simulations of protein adsorption behavior, we have developed and applied a method to …

The interaction of proteins with surfaces is important in numerous applications in many fields—
such as biotechnology, proteomics, sensors, and medicine—but fundamental understanding …

Proteins, which are bioactive molecules, adsorb on implants placed in the body through
complex and poorly understood mechanisms and directly influence biocompatibility …

An effective force field for hydrophobic interactions is developed based on a modified
potential-of-mean-force (PMF) expansion of the effective many-body interactions between …

Protein adsorption, which shows wide prospects in many practical applications such as
biosensors, biofuel cells, and biomaterials, has long been identified as a very complex …

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