Unimolecular electronics (UME) narrowly defined (sensu stricto), 1 or molecular-scale
electronics, 2 is the study of electrical processes measured or controlled on a molecular …

Molecular electronics is driven by the dream of expanding Moore's law to the molecular level
for next‐generation electronics through incorporating individual or ensemble molecules into …

The field of molecular electronics comprises a fundamental set of issues concerning the
electronic response of molecules as parts of a mesoscopic structure and a technology-facing …

Nanoparticles attached just above a flat metallic surface can trap optical fields in the
nanoscale gap. This enables local spectroscopy of a few molecules within each coupled …

Molecular electronic control over plasmons offers a promising route for on-chip integrated
molecular plasmonic devices for information processing and computing. To move beyond …

Molecular self-assembly is a well-known technique to create highly functional
nanostructures on surfaces. Self-assembly on two-dimensional (2D) materials is a …

Scanning-tunneling-microscope-induced light emission serves as a powerful approach in
revealing and manipulating the optical properties of molecular species, intermolecular …

A key challenge in the field of molecular spintronics, and for the design of single-molecule
magnet-based devices in particular, is the understanding and control of the molecular …

At the interfaces of metal and dielectric materials, strong light–matter interactions excite
surface plasmons; this allows electromagnetic field confinement and enhancement on the …

Transistors, regardless of their size, rely on electrical gates to control the conductance
between source and drain contacts. In atomic-scale transistors, this conductance is sensitive …