Atomically precise manufacturing (APM) is a key technique that involves the direct control of
atoms in order to manufacture products or components of products. It has been developed …

Ultrafast control of current on the atomic scale is essential for future innovations in
nanoelectronics. Extremely localized transient electric fields on the nanoscale can be …

At the atomic scale, there has always been a trade-off between the ease of fabrication of
structures and their thermal stability. Complex structures that are created effortlessly often …

It has been proposed that miniature circuitry will ultimately be crafted from single atoms.
Despite many advances in the study of atoms and molecules on surfaces using scanning …

Spins confined to point defects in atomically thin semiconductors constitute well-defined
atomic-scale quantum systems that are being explored as single-photon emitters and spin …

Spin resonance of individual spin centers allows applications ranging from quantum
information technology to atomic-scale magnetometry. To protect the quantum properties of …

Field-coupled Nanocomputing (FCN) defines a class of post-CMOS nanotechnologies that
promises compact layouts, low power operation, and high clock rates. Recent breakthroughs …

The ability to observe charge localization in photocatalytic materials on the ultrafast time
scale promises to reveal important correlations between excited state electronic structure …

Making smaller and faster functional devices has led to an increasing demand for a
microscopic technique that allows the investigation of carrier and phonon dynamics with …

The Silicon Dangling Bond (SiDB) logic platform, an emerging computational beyond-CMOS
nanotechnology, is a promising competitor due to its ability to achieve integration density …