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 …

Recently, photoactive proteins have gained a lot of attention due to their incorporation into
bioinspired (photo) electrochemical and solar cells. This paper describes the measurement …

Solid-state electron transport (ETp) via a monolayer of immobilized azurin (Az) was
examined by conducting probe atomic force microscopy (CP-AFM), as a function of both …

Integrating proteins in molecular electronic devices requires control over their solid-state
electronic transport behavior. Unlike “traditional” electron transfer (ET) measurements of …

Monolayers of the redox protein Cytochrome C (CytC) can be electrostatically formed on an
H-terminated Si substrate, if the protein-and Si-surface are prepared so as to carry opposite …

Silicon is a solid-state semiconducting material that has long been recognized as a
technologically useful one, especially in electronics industry. However, its application in the …

The electron transport (ETp) efficiency of solid-state protein-mediated junctions is highly
influenced by the presence of electron-rich organic cofactors or transition metal ions. Hence …

We have developed a multilayered protein-based material using iron-storage protein ferritin,
where only proteins were used as components, having no other chemical/biochemical …

In this work, solid-state electron transport through the three metal core reconstituted ferritins,
namely, Mn (III)-ferritin, Co (III)-ferritin, and Cu (II)-ferritin, has been probed and compared to …

Electron tunneling in ferritin and between ferritin cores (a transition metal (iron) oxide
storage protein) in disordered arrays has been extensively documented, but the electrical …