Monitoring and manipulating the physical and chemical behavior of single molecules is an
important development direction of molecular electronics that aids in understanding 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 …

By taking advantage of large changes in geometric and electronic structure during the
reversible trans–cis isomerisation, azobenzene derivatives have been widely studied for …

Single-molecule conductance measurements for 9, 14-diphenyl-9, 14-dihydrodibenzo [a, c]
phenazine (DPAC) may offer unique insight into the bent-to-planar photocycle between the …

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

Single-molecule devices not only promise to provide an alternative strategy to break through
the miniaturization and functionalization bottlenecks faced by traditional semiconductor …

Developments in advanced manufacturing have promoted the miniaturization of
semiconductor electronic devices to a near-atomic scale, which continuously follows the'top …

Constructing single‐molecule parallel circuits with multiple conduction channels is an
effective strategy to improve the conductance of a single molecular junction, but rarely …

The design and synthesis of molecular nanoswitches using organic molecules represent a
crucial research field within molecular electronics. To understand the switching …

Understanding and tuning charge transport over a single molecule is a fundamental topic in
molecular electronics. Single-molecule junctions composed of individual molecules …