Biotechnological innovations have vastly improved the capacity to perform large-scale
protein studies, while the methods we have for identifying and quantifying individual proteins …

Nanopores are promising sensing devices that can be used for the detection of analytes at
the single molecule level. It is of importance to understand and model the current response …

Solid-state nanopores are single-molecule sensors that hold great potential for rapid protein
and nucleic-acid analysis. Despite their many opportunities, the conventional ionic current …

Post-translational modifications (PTMs) of proteins play key roles in cellular processes.
Hence, PTM identification is crucial for elucidating the mechanism of complex cellular …

In drug discovery, efficient screening of protein-drug interactions (PDIs) is hampered by the
limitations of current biophysical approaches. Here, we develop a biological nanopore …

Nanopores are promising for many applications including DNA sequencing and molecular
filtration. Solid-state nanopores are preferable over their biological counterparts for …

Nanopore DNA sequencing offers a new paradigm owing to its extensive potential for long-
read, high-throughput detection of nucleotide modification and direct RNA sequencing …

Nanoporous laminar membranes composed of multilayered 2D nanomaterials (2D‐NLMs)
are increasingly being exploited as a unique material platform for understanding solvated …

Nanopore-based sensing is a powerful technique for the detection of diverse organic and
inorganic molecules, long-read sequencing of nucleic acids, and single-molecule analyses …

To assess the possibility of energy harvesting through reverse electrodialysis (RED), we
consider the electrokinetic behavior of the ion transport in a pH-regulated conical nanopore …