Electronically conductive protein‐based materials can enable the creation of bioelectronic
components and devices from sustainable and nontoxic materials, while also being well …

Protein-based electronic biomaterials represent an attractive alternative to traditional
metallic and semiconductor materials due to their environmentally benign production and …

Electrically conductive protein nanowires appear to be widespread in the microbial world
and are a revolutionary “green” material for the fabrication of electronic devices. Electrically …

Examples of long-range electronic conductivity are rare in biological systems. The
observation of micrometer-scale electronic transport through protein wires produced by …

The transfer of electrons through protein complexes is central to cellular respiration.
Exploiting proteins for charge transfer in a controllable fashion has the potential to …

Sustainably produced biomaterials can greatly improve the biocompatibility of wearable
sensor technologies while reducing the energy and environmental impacts of materials …

Steady progress is being made in unveiling nature's long-range charge transport
mechanisms in redox proteins and in the development of versatile self-assembling scaffolds …

Geobacter sulfurreducens' pilin-based electrically conductive protein nanowires (e-PNs) are
a revolutionary electronic material. They offer novel options for electronic sensing …

The fabrication of multifunctional nanostructures with complex geometries is necessary for
advancement in the field of nanoelectronics and nanosensors. This is evident by the limited …

Viruses have unique coat proteins that are genetically modifiable. Their surface can serve as
a nano-template on which electroactive molecules are immobilized. In this study, we report …