Nanopore sensors have attracted considerable interest for high-throughput sensing of
individual nucleic acids and proteins without the need for chemical labels or complex optics. A …

In the last two decades, new techniques that monitor ionic current modulations as single
molecules pass through a nanoscale pore have enabled numerous single-molecule studies. …

High-bandwidth measurements of the ion current through hafnium oxide and silicon nitride
nanopores allow the analysis of sub-30 kD protein molecules with unprecedented time …

We present a study of double- and single-stranded DNA transport through nanopores
fabricated in ultrathin (2–7 nm thick) freestanding hafnium oxide (HfO 2 ) membranes. The high …

Despite advances in monitoring spatiotemporal expression patterns of genes and proteins
with fluorescent probes, direct detection of metabolites and small molecules remains …

Despite the potential for nanopores to be a platform for high-bandwidth study of single-molecule
systems, ionic current measurements through nanopores have been limited in their …

In this article, we introduce a flexible technique for high-throughput solid-state nanopore
analysis of single biomolecules. By confining the electrolyte to a micron-scale liquid meniscus at …

This paper presents a novel ultra-low-power dual-phase current-mode relaxation oscillator,
which produces a 122 kHz digital clock and has total power consumption of 14.4 nW at 0.6 V. …

Multicomponent reactions enable the synthesis of large molecular libraries from relatively
few inputs. This scalability has led to the broad adoption of these reactions by the …

We present single-ion-channel recordings performed with biomimetic lipid membranes
which are directly attached to the surface of a complementary metal–oxide–semiconductor (…