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

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 …

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

Quantum interference can profoundly affect charge transport in single molecules, but
experiments can usually measure only the conductance at the Fermi energy. Because, in …

Molecular electronics aims to construct functional molecular devices at the single-molecule
scale. One of the major challenges is to construct a single-molecule junction and to further …

Single‐molecule electrochemical transistors are a type of novel molecular devices in which
the tunneling current through the single‐molecule junction is modulated by the …

The ability to control over the quantum interference (QI) effect in single molecular junctions is
attractive in the application of molecular electronics. Herein we report that the QI effect of …

The Fano resonance in single‐molecule junctions could be created by interaction with
discrete and continuous molecular orbitals and enables effective electron transport …

Clarifying interfacial electronic effects on molecular adsorption is significant in many
chemical and biochemical processes. Here, we used STM breaking junction and shell …

In this tutorial review, we will describe crucial aspects related to the application of machine
learning to help users avoid the most common pitfalls. The examples we present will be …