Understanding charge transport of single molecules or a small collection of molecules
sandwiched between electrodes is of fundamental importance for molecular electronics …

Constructing electronic circuits containing singly wired molecules is at the frontier of
electrical device miniaturisation. When a molecule is wired between a pair of electrodes, the …

Single-molecule topological insulators are promising candidates as conducting wires over
nanometre length scales. A key advantage is their ability to exhibit quasi-metallic transport …

Molecular electronics aims to miniaturize electronic devices by using subnanometre-scale
active components,,. A single-molecule diode, a circuit element that directs current flow, was …

Tunneling junctions having the structure AgTS–S (CH2) n− 1CH3//Ga2O3/EGaIn allow
physical–organic studies of charge transport across self-assembled monolayers (SAMs). In …

One-dimensional sp-hybridized carbon wires, including cumulenes and polyynes, can be
regarded as finite versions of carbynes. They are likely to be good candidates for molecular …

To develop advanced materials for electronic devices, it is of utmost importance to design
organic building blocks with tunable functionality and to study their properties at the …

Molecular potentiometers that can indicate displacement-conductance relationship, and
predict and control molecular conductance are of significant importance but rarely …

Charge transport through molecular junctions is often described either as a purely coherent
or a purely classical phenomenon, and described using the Landauer–Büttiker formalism or …

Aromatic stacks formed through self-assembly are promising building blocks for the
construction of molecular electronic devices with adjustable electronic functions, in which …