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

Over the past two decades, various techniques for fabricating nano-gapped electrodes have
emerged, promoting rapid development in the field of single-molecule electronics, on both …

Electronic transport properties of single-molecule junctions have been widely measured by
several techniques, including mechanically controllable break junctions, electromigration …

Single-molecule junctions—devices in which a single molecule is electrically connected by
two electrodes—enable the study of a broad range of quantum-transport phenomena even …

Dipoles are widely involved in π–π interactions and are central to many chemical and
biological functions, but their influence on the strength of π–π interactions remains unclear …

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 …

Intermolecular charge transport plays an essential role in organic electronic materials and
biological systems. To date, experimental investigations of intermolecular charge transport …

Supramolecular electronics provide an opportunity to introduce molecular assemblies into
electronic devices through a combination of noncovalent interactions such as [π··· π] and …

Controlling the electrical conductance and in particular the occurrence of quantum
interference in single-molecule junctions through gating effects has potential for the …

Oriented external electric fields (OEEFs) offer a unique chance to tune catalytic selectivity by
orienting the alignment of the electric field along the axis of the activated bond for a specific …