The convergence of supramolecular chemistry and single‐molecule electronics offers a new
perspective on supramolecular electronics, and provides a new avenue toward …

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 …

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

Recent observations of destructive quantum interference in single-molecule junctions
confirm the role of quantum effects in the electronic conductance properties of molecular …

Stacking interactions are of significant importance in the fields of chemistry, biology, and
material optoelectronics because they determine the efficiency of charge transfer between …

Understanding electron transport across π− π-stacked systems will help to answer
fundamental questions about biochemical redox processes and benefit the design of new …

Quantum interference (QI) of electron waves passing through a single-molecule junction
provides a powerful means to influence its electrical properties. Here, we investigate the …

The construction of multivalued logic circuits by multiple quantum-interfered states at the
molecular level can make full use of molecular diversity and versatility, broadening the …

Integrating multidisciplinary efforts from physics, chemistry, biology, and materials science,
the field of single-molecule electronics has witnessed remarkable progress over the past two …

Single molecular junctions, in which a single molecule bridges between metal electrodes,
have attracted wide attention as novel properties can appear due to their peculiar …