The manipulation of molecule-electrode interaction is essential for the fabrication of
molecular devices and determines the connectivity from electrodes to molecular …

Here, we report the switching among multiple conductance pathways achieved by sliding
the scanning tunneling microscope tip among different binding sites under different electric …

Molecular assembly is crucial in functional molecular materials and devices. Among the
molecular interactions that can form assemblies, stacking among π-conjugated molecular …

Recent progress in addressing electrically driven single‐molecule behaviors has opened up
a path toward the controllable fabrication of molecular devices. Herein, the selective …

In most junctions built by wiring a single molecule between two electrodes, the electrons
flow along only one axis: between the two anchoring groups. However, molecules can be …

Molecules are promising candidates for electronic device components because of their
small size, chemical tunability, and ability to self-assemble. A major challenge when building …

The molecular binding orientation with respect to the electrode plays a pivotal role in
determining the performance of molecular devices. However, accomplishing in situ …

In molecular electronics, researchers combine atomic control of molecular structure with
high-precision nanofabrication techniques to connect individual molecules to tiny …

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 …

Molecular electronics has been proposed as a pathway for high-density nanoelectronic
devices. This pathway involves the development of a molecular memory device based on …