The conversion of electric power to light is an important scientific and technological
challenge. Advanced experimental methods have provided access to explore the relevant …

Single-molecule optoelectronic devices promise a potential solution for miniaturization and
functionalization of silicon-based microelectronic circuits in the future. For decades of its fast …

We investigate the near-field interaction between an isolated free-base phthalocyanine
molecule and a plasmon localized in the gap between an NaCl-covered Ag (111) surface …

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

Quantum plasmonics is an exciting subbranch of nanoplasmonics where the laws of
quantum theory are used to describe light-matter interactions on the nanoscale. Plasmonic …

Analogous to radio-and microwave antennas, optical nanoantennas are devices that receive
and emit radiation at optical frequencies. Until recently, the realization of electrically driven …

Atomically-sharp tips in close proximity of metal surfaces create plasmonic nanocavities
supporting both radiative (bright) and non-radiative (dark) localized surface plasmon modes …

Molecular electronic plasmonics (MEP) is an area of research that utilizes the electronic
properties of molecules to control and modulate surface plasmons and holds the potential to …

Quantum dot–like single-photon sources in transition metal dichalcogenides (TMDs) exhibit
appealing quantum optical properties but lack a well-defined atomic structure and are …

The detection of fluorescence with submolecular resolution enables the exploration of
spatially varying photon yields and vibronic properties at the single-molecule level. By …