During the last two decades, organic electroactive materials have been explored as the
working material in a vast array of electronic devices, promising low‐cost, flexible, and easily …

The tremendous diversity in the structure and function of proteins has stimulated intense
interest in using them for nanotechnology applications. In this review, we discuss recent …

The ability to detect proteins through gating conductance by their unique surface
electrostatic signature holds great potential for improving biosensing sensitivity and …

Nature makes use of molecular charges to operate specific biological synthesis and
reactions. Targeting advanced opto-bioelectronic sensors, organic photoelectrochemical …

Field-effect transistors (FETs) have become eminent electronic devices for biosensing
applications owing to their high sensitivity, faster response and availability of advanced …

Biological nanopores are emerging as powerful and low-cost sensors for real-time analysis
of biological samples. Proteins can be incorporated inside the nanopore, and ligand binding …

The analysis at the single-molecule level of proteins and their interactions can provide
critical information for understanding biological processes and diseases, particularly for …

Single-molecule experimental methods have provided new insights into biomolecular
function, dynamic disorder, and transient states that are all invisible to conventional …

Peptide-based nanostructures derived from natural amino acids are superior building blocks
for biocompatible devices as they can be used in a bottom-up process without the need for …

Low efficiency of charge extraction (and conversely charge injection) across biotic–abiotic
interfaces constitutes an obstacle to the integration of biological and electronic systems in …