Ion transport and hydrodynamic flow through nanometer-sized channels (nanopores) have
been increasingly studied owing to not only the fundamental interest in the abundance of …

Nanopore-based sequencers, as the fourth-generation DNA sequencing technology, have
the potential to quickly and reliably sequence the entire human genome for less than 1000 …

The size of the sensing region in solid-state nanopores is determined by the size of the pore
and the thickness of the pore membrane, so ultrathin membranes such as graphene and …

Solid-state nanopores are nm sized apertures formed in thin synthetic membranes. These
single molecule sensors have been used in a variety of biophysical and diagnostic …

Bio-inspired polymeric nanochannel (also referred as nanopore)-based biosensors have
attracted considerable attention on account of their controllable channel size and shape …

Nanopore-based DNA sequencing has led to fast and high-resolution recognition and
detection of DNA bases. Solid-state and biological nanopores have low signal-to-noise ratio …

Small RNA molecules have an important role in gene regulation and RNA silencing therapy,
but it is challenging to detect these molecules without the use of time-consuming radioactive …

Nanopore sensing technology, as an emerging analytical method, has the advantages of
simple operation, fast output, and label-free and has been widely used in fields such as …

Synthetic nanopores have been used to study individual biomolecules in high throughput,
but their performance as sensors does not match that of biological ion channels. Challenges …

The transport of fluid in and around nanometer-sized objects with at least one characteristic
dimension below 100 nm enables the occurrence of phenomena that are impossible at …