Nanopore‐based resistive‐pulse recordings represent a promising approach for single‐
molecule biophysics with applications ranging from rapid DNA and RNA sequencing to …

In the context of sensing and characterizing single proteins with synthetic nanopores, lipid
bilayer coatings provide at least four benefits: first, they minimize unwanted protein adhesion …

Solid‐state nanopores are a mimic of innate biological nanopores embedded on lipid
membranes. They are fabricated on thin suspended layers of synthetic materials that provide …

Since their introduction in 2001, solid-state nanopores have been increasingly exploited for
the detection and characterization of biomolecules ranging from single DNA strands to …

Solid-state nanopores have been used to perform measurements at the single-molecule
level to examine the local structure and flexibility of nucleic acids 1-6, the unfolding of …

Nanopore-based sensing technology is considered high-throughput and low-cost for single
molecule detection, but solid-state nanopores have suffered from pore clogging issues. A …

Resistive pulse sensing using ion channel proteins (biological nanopores) has been
evolving as a single-molecule approach to detect small biomolecules owing to atomically …

There is increasing interest in using nanopores in synthetic membranes as resistive‐pulse
sensors for biomedical analytes. Analytes detected with prototype artificial‐nanopore …

Protein detection has wide-ranging implications in molecular diagnostics. Substantial
progress has been made in protein analytics using nanopores and the resistive-pulse …

Resistive-pulse sensing with solid-state nanopores is a sensitive, label-free technique for
analyzing single molecules in solution. To add functionality to resistive-pulse …