Inspired by the biological processes of molecular recognition and transportation across
membranes, nanopore techniques have evolved in recent decades as ultrasensitive …

Bioinspired smart asymmetric nanochannel membranes (BSANM) have been explored
extensively to achieve the delicate ionic transport functions comparable to those of living …

Membrane nanopores are key for molecular transport in biology, portable DNA sequencing,,–
, label-free single-molecule analysis,,,,,,,,–and nanomedicine. Transport traditionally relies …

Nanopores in solid-state membranes are promising for a wide range of applications
including DNA sequencing, ultra-dilute analyte detection, protein analysis, and polymer data …

Nanopore-based sensors typically work by monitoring transient pulses in conductance via
current–time traces as molecules translocate through the nanopore. The unique property of …

The membrane proteins found in nature control many important cellular functions, including
signal transduction and transmembrane ion transport, and these, in turn, are regulated by …

Sequencing of nucleic acids with nanopores has emerged as a powerful tool offering rapid
readout, high accuracy, low cost and portability. This label-free method for sequencing at the …

The specificity and simplicity of the Watson–Crick base pair interactions make DNA one of
the most versatile construction materials for creating nanoscale structures and devices …

Single-molecule measurements have greatly enhanced our understanding of living systems.
Biological systems offer nanopores, a sub-class of membrane proteins, the well-defined …

Transmembrane nanostructures like ion channels and transporters perform key biological
functions by controlling flow of molecules across lipid bilayers. Much work has gone into …