In two decades, the solid state and polymer nanopores became attractive method for the
protein sensing with high specificity and sensitivity. They also allow the characterization of …

Evolution has found countless ways to transport material across cells and cellular
compartments separated by membranes. Protein assemblies are the cornerstone for the …

Soluble oligomers of amyloid-forming proteins are implicated as toxic species in the context
of several neurodegenerative diseases. Since the size and shape of these oligomers …

In nanobiotechnology, the importance of controlling interactions between biological
molecules and surfaces is paramount. In recent years, many devices based on …

Single‐molecule nanopore detection technology has revolutionized proteomics research by
enabling highly sensitive and label‐free detection of individual proteins. Herein, we …

Polymer-grafted nanopores are used in several nanotechnological applications which
demand control of structural and hydration properties of the grafted polymers. By means of …

Solid‐state nanopores are an emerging technology used as a high‐throughput, label‐free
analytical method for the characterization of protein aggregation in an aqueous solution. In …

Solid-state nanopores provide a powerful tool to electrically analyze nanoparticles and
biomolecules at single-molecule resolution. These biosensors need to have a controlled …

Resistive pulses generated by nanoparticles that translocate through a nanopore contain
multi-parametric information about the physical properties of those particles. For example …

Polymer-grafted nanopores allow the control of pore permittivity, which can be exploited in
many nanotechnological applications. Using atomistic molecular dynamics simulations, we …