Flexible and stretchable biosensors can offer seamless and conformable biological–
electronic interfaces for continuously acquiring high‐fidelity signals, permitting numerous …

Self-assembly is possibly the most effective and versatile strategy for surface
functionalization. Self-assembled monolayers (SAMs) can be formed on (semi-) conductor …

The strong and controllable chemical sensitivity of organic semiconductors (OSCs) and the
amplification capability of transistors in circuits make use of OSC-based field-effect …

Undoped, conjugated, organic molecules and polymers possess properties of
semiconductors, including the electronic structure and charge transport, which can be …

The functioning principles of electronic sensors based on organic semiconductor field-effect
transistors (OFETs) are presented. The focus is on biological sensors but also chemical …

The electronics surrounding us in our daily lives rely almost exclusively on electrons as the
dominant charge carrier. In stark contrast, biological systems rarely use electrons but rather …

Graphene field-effect transistors (GFETs) are emerging as bioanalytical sensors, in which
their responsive electrical conductance is used to perform quantitative analyses of …

In recent decades, the susceptibility to degradation in both ambient and aqueous
environments has prevented organic electronics from gaining rapid traction for sensing …

In comparison with traditional clinical diagnosis methods, field–effect transistor (FET)–based
biosensors have the advantages of fast response, easy miniaturization and integration for …

Organic transistors possess inherent advantages such as flexibility, biocompatibility,
customizable chemical structures, solution‐processability, and amplifying capabilities …