Biomolecular electronics is a rapidly growing multidisciplinary field that combines biology,
nanoscience, and engineering to bridge the two important fields of life sciences and …

A central vision in molecular electronics is the creation of devices with functional molecular
components that may provide unique properties. Proteins are attractive candidates for this …

The field of organic electronics continues to be driven by new charge-transporting materials
that are typically processed from toxic organic solvents incompatible with biological …

Bioelectronics moves toward designing nanoscale electronic platforms that allow in vivo
determinations. Such devices require interfacing complex biomolecular moieties as the …

DNA molecular wires have been studied extensively because of the ease with which
molecules of controlled length and composition can be synthesized. The same has not been …

The ability of electronic devices to act as switches makes digital information processing
possible. Succeeding graphene, emerging inorganic 2D materials (i2DMs) have been …

Controlling charge transport through a single molecule connected to metallic electrodes
remains one of the most fundamental challenges of nanoelectronics. Here we use …

Many novel applications in bioelectronics rely on the interaction between biomolecules and
electronically conducting substrates. However, crucial knowledge about the relation …

Electrochemical gating at the single molecule level of viologen molecular bridges in ionic
liquids is examined. Contrary to previous data recorded in aqueous electrolytes, a clear and …

Tracking various chemical reactions, including electrochemical and photochemical reactions
at the single-molecule level, is expected to yield a great deal of knowledge from both …