Nanopores are single-molecule sensors capable of detecting and quantifying a broad range
of unlabeled biomolecules including DNA and proteins. Nanopores' generic sensing …

The ability to quickly and reliably fabricate nanoscale pore arrays in ultra‐thin membranes
such as silicon nitride (SixN) is extremely important for the growing field of nanopore …

Solid-state nanopores (ssNPs) are extremely versatile single-molecule sensors and their
potential have been established in numerous biomedical applications. However, the …

Sculpting solid-state materials at the nanoscale is an important step in the manufacturing of
numerous types of sensor devices, in particular solid-state nanopore sensors. Here we …

The controlled dielectric breakdown emerged as a promising alternative toward accessible
solid-state nanopore fabrication. Several prior studies have shown that laser-assisted …

Synthetic nanopores are a new class of single-molecule sensors capable of electronically
detecting, counting, and characterizing biomolecules. There have been studies of nanopore …

Nanopores with diameters from 20 to 50 nm in silicon nitride (SiN x) windows are useful for
single-molecule studies of globular macromolecules. While controlled breakdown (CBD) is …

Nanopores have attracted widespread attention in DNA sequencing and protein or
biomarker detection, owning to the single-molecule-scale detection accuracy. Despite the …

Nanopore sensing of single nucleotides has emerged as a promising single-molecule
technology for DNA sequencing and proteomics. Despite the conceptual simplicity of …

While conventional solid-state nanopore measurements utilize ionic current, there is a
growing interest in alternative sensing paradigms, including optical detection. However, a …