Biologically inspired peptide-and protein-based materials are at the forefront of organic
bioelectronics research due to their inherent conduction properties and excellent …

Electron transfer (ET) through proteins, a fundamental element of many biochemical
reactions, is studied intensively in aqueous solutions. Over the past decade, attempts were …

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

Protein structures can facilitate long-range electron transfer in solution. But a fundamental
question remains: can these structures also serve as solid-state electronic conductors …

Bioelectronic materials interface biomolecules, cells, organs, or organisms with electronic
devices, and they represent an active and growing field of materials research. Protein and …

Charge migration for electron transfer via the polypeptide matrix of proteins is a key process
in biological energy conversion and signaling systems. It is sensitive to the sequence of …

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

In the last decade, single-molecule electrical contacts have emerged as a new experimental
platform that allows exploring charge transport phenomena in individual molecular blocks …

Conspectus Molecular electronics is at the forefront of interdisciplinary research, offering a
significant extension of the capabilities of conventional silicon-based technology as well as …