With the increasing interest in protein adsorption in fields ranging from bionanotechnology to
biomedical engineering, there is a growing need to understand protein− surface interactions …

To understand and predict protein adsorption behavior, we must first understand the
fundamental interactions between the functional groups presented by the amino acid …

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 …

Surface plasmon resonance (SPR) spectroscopy is a useful technique for
thermodynamically characterizing peptide− surface interactions; however, its usefulness is …

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

Understanding the molecular mechanism of protein adsorption on solids is critical to their
applications in materials synthesis and tissue engineering. Although the water phase at the …

The interactions between peptides and proteins with material surfaces are of primary
importance in many areas of biotechnology. While surface plasmon resonance spectroscopy …

Understanding protein interaction with material surfaces is important for the development of
nanotechnological devices. The structures and dynamics of proteins can be studied via …

The coating of solid-binding peptides (SBPs) on inorganic material surfaces holds significant
potential for improved surface functionalization at nano-bio interfaces. In most related …

Cellular response to an implant is largely controlled by protein adsorption because cells
directly interact with the adsorbed protein rather than the implant surface. Protein adsorption …