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

Adsorption on solid surface is of fundamental importance in the research and development
of chromatographic science and technology. Due to the limitation of the currently available …

Membranes confining cells and cellular compartments are essential for life. Membrane
proteins are molecular machines that equip cell membranes with highly sophisticated …

A molecular description of protein− surface interactions could open new avenues in
bionanotechnology and provide a deeper understanding of in vivo phase boundary …

In this work, the parallel tempering Monte Carlo (PTMC) algorithm is applied to accurately
and efficiently identify the global-minimum-energy orientation of a protein adsorbed on a …

The folding mechanisms of proteins are increasingly being probed through single-molecule
experiments in which the protein is immobilized on a surface. Nevertheless, a clear …

The interaction of proteins with surfaces regulates numerous processes in nature, science,
and technology. In many applications, it is desirable to place proteins on surfaces in an …

The effects of chaperonin-like cage-induced confinement on protein stability have been
studied for molecules of varying sizes and topologies. Minimalist models based on Gō-like …

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

Hybridization of single-stranded DNA (ssDNA) targets to surface-tethered ssDNA probes
was simulated using an advanced coarse-grain model to identify key factors that influence …