Using individual molecules as conducting bridges for electrons offers opportunities when
investigating quantum phenomena that are not readily accessible from experiments …

Molecular electronics is a field that explores the ultimate limits of electronic device
dimensions by using individual molecules as operable electronic devices. Over the past five …

Because of the nonequilibrium nature of thermal effects at the nanoscale, the
characterization of local thermal effects within a single molecule is highly challenging. Here …

When designing a molecular electronic device for a specific function, it is necessary to
control whether the charge‐transport mechanism is phase‐coherent transmission or particle …

Redox‐active molecular junctions have attracted considerable attention because redox‐
active molecules provide accessible energy levels enabling electronic function at the …

Scanning tunneling microscopy (STM) vibronic spectroscopy, which has provided
submolecular insights into electron-vibration (vibronic) coupling, faces challenges when …

The role of molecular junctions in nanoelectronics is most often associated with electronic
transport; however, their precise characterisation hinders their widespread development …

Understanding current-induced bond rupture in single-molecule junctions is both of
fundamental interest and a prerequisite for the design of molecular junctions, which are …

Current-induced bond rupture is a fundamental process in nanoelectronic architectures,
such as molecular junctions, and scanning tunneling microscopy measurements of …

Tip-Enhanced Raman Spectroscopy (TERS) provides very high spatial resolution and
detection sensitivity, so it has important applications in nano-scale molecular analysis …