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 …

To gain a fundamental understanding of atomic-and molecular-scale electronic transport
phenomena, as well as the practical application of a single-molecule junction for molecular …

Metal/organic interfaces critically determine the characteristics of molecular electronic
devices, because they influence the arrangement of the orbital levels that participate in …

Aromaticity is a fundamental concept in chemistry. It is described by Hückel's rule that states
that a cyclic planar π-system is aromatic when it shares 4 n+ 2 π-electrons and antiaromatic …

We demonstrate a robust graphene-molecule-graphene transistor architecture. We observe
remarkably reproducible single electron charging, which we attribute to insensitivity of the …

Molecular junctions offer significant potential for enhancing thermoelectric power
generation. Quantum interference effects and associated sharp features in electron …

Single-molecule break-junction measurements are intrinsically stochastic in nature,
requiring the acquisition of large datasets of “breaking traces” to gain insight into the generic …

Graphitic carbon nitride (gC 3 N 4) has received much attention as a metal-free polymeric
two-dimensional photocatalyst for antibiotic-free antibacterial application. However, the …

Direct measurement of single-molecule electrical transparency by break junction
experiments has become a major field of research over the two last decades. This review …

Sensors play a significant role in the detection of toxic species and explosives, and in the
remote control of chemical processes. In this work, we report a single‐molecule‐based pH …