The solid‐state nanopore has attracted much attention as a next‐generation DNA
sequencing tool or a single‐molecule biosensor platform with its high sensitivity of …

Electrochemistry studies charge transfer and related processes at various microscopic
structures (atomic steps, islands, pits and kinks on electrodes), and mesoscopic materials …

The flow of fluids in nano-confinement has applications in separations, water purification,
medical systems and in the recovery of fluids in petroleum systems. It is believed that fluids …

The transport of molecules through nanoscale confined space is relevant in biology,
biosensing, and industrial filtration. Microscopically modeling transport through nanopores is …

Accurate detection and identification of conformational evolutions are essential to describe
the micro-structural mechanisms of protein allostery. Here we establish an approach by …

Single molecule capturing of analytes using an electrically biased nanopore is the
fundamental mechanism in which nearly all nanopore experiments are conducted. With pore …

Employing atomistic molecular dynamics simulations, we investigate the ionic conductivity
mechanisms in a partially blocked nanopore containing a centrally positioned spherical …

Solid‐state nanopores have been used extensively in biomolecular studies involving DNA
and proteins. However, the interpretation of signals generated by the translocation of …

Employing integrated nano-and microfluidic circuits for detecting and characterizing
biological compounds through resistive pulse sensing technology is a vibrant area of …

Conformational changes of proteins play a vital role in implementing their functions and
revealing the underlying mechanisms in various biological processes. It is still challenging to …