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 …

The hallmark of eukaryotic cells is the nucleus that contains the genome, enclosed by a
physical barrier known as the nuclear envelope (NE). On the one hand, this …

The development of blood-compatible materials represents a grand challenge in
biomaterials science. Blood is a complex fluid containing many types of living cells …

Nuclear pore complexes (NPCs) mediate the exchange of materials between the
nucleoplasm and cytoplasm, playing a key role in the separation of nucleic acids and …

Solid-state nanopore technology presents an emerging single-molecule-based analytical
tool for the separation and analysis of nanoparticles. Different approaches have been …

In the 90s, the development of a novel single molecule technique based on nanopore
sensing emerged. Preliminary improvements were based on the molecular or biological …

Virus removal from water using microfiltration (MF) membranes is of great interest but
remains challenging owing to the membranes' mean pore sizes typically being significantly …

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

Protein detection and identification at the single-molecule level are major challenges in
many biotechnological fields. Solid-state nanopores have raised attention as label-free …

Kidney failure patients or patients with end-stage renal diseases (ESRD), need
hemodialysis (HD) as a life-sustaining service. However, the morbidity and mortality rates …