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

Creating functional electrical circuits using individual or ensemble molecules, often termed
as “molecular-scale electronics”, not only meets the increasing technical demands of the …

Quantum interference (QI) plays an imperative role in the operation of molecular devices
within the phase-coherent length, and it is vital to harness the patterns of QI, ie, constructive …

Molecules, with structural, scaling, and interaction diversities, are crucial for the emergence
of complex behaviors. Interactions are essential prerequisites for complex systems to exhibit …

Controlling charge transport through molecules is challenging because it requires
engineering of the energy of molecular orbitals involved in the transport process. While side …

Oligo (arylene ethynylene)(OAE) derivatives are the “workhorse” molecules of molecular
electronics. Their ease of synthesis and flexibility of functionalisation mean that a diverse …

Single-molecule electronic devices offer unique opportunities to investigate the properties of
individual molecules that are not accessible in conventional ensemble experiments …

Cumulenes are sometimes described as “metallic” because an infinitely long cumulene
would have the band structure of a metal. Herein, we report the single‐molecule …

The tunneling leakage current will be a major quantum obstacle during miniaturization in the
semiconductor industry down to the scale of several nanometers. At this scale, to promote …

The past decade has seen a remarkable surge in studies of thin-film and single-molecule
electronics, due in no small part to the development and advancement of experimental …