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 …

Single-molecule recognition and detection with the highest resolution measurement has
been one of the ultimate goals in science and engineering. Break junction techniques …

The charge transport in single-molecule junctions depends critically on the chemical identity
of the anchor groups that are used to connect the molecular wires to the electrodes. In this …

The achievement of atomic control over the organic–inorganic interface is key to
engineering electronic and spintronic properties of molecular devices. We leverage insights …

The development of next-generation organic electronic materials critically relies on
understanding structure-function relationships in conjugated polymers. However, unlocking …

Understanding and manipulating quantum interference (QI) effects in single molecule
junction conductance can enable the design of molecular-scale devices. Here we …

We demonstrate enhanced electronic transport through dimer molecular junctions, which
self-assemble between two gold electrodes in π–π stabilized binding configurations. Single …

Relationships between chemical structure and conductivity in ordered polymers (OPs) are
difficult to probe using bulk samples. We propose that conductance measurements of …

Integrating simple molecular units into organometallic architectures has attracted significant
research interest due to its wide applications in functional materials and devices. Despite …

We developed a method based on the mechanically controllable break junction technique to
investigate the electron transport properties of single molecular junctions upon fiber …