A key challenge in nanoelectronics is the use of a bottom-up approach to fabricate nanodevices from molecular building blocks. Here, a field-effect transistor based on the metallo-protein Azurin is demonstrated. Azurin is attractive because of its natural redox properties (provided by the Cu redox site) and self-assembly capability (which allows the chemisorption on suitable surfaces). Our prototype structure consists of two planar nanoelectrodes connected by a protein self-assembled monolayer and a back electrode as gate. The transfer characteristic exhibits a pronounced resonance and transport is explained in terms of equilibrium between the two possible oxidation states of the copper site
[eng] Electron Transfer (ET) is undoubtedly one of the most important processes in life. Molecularly...
Single protein junctions consisting of azurin bridged between a gold substrate and the probe of an e...
A model system for the electrochemical investigation of vectorial electron transfer in biological sy...
A key challenge in nanoelectronics is the use of a bottom-up approach to fabricate nanodevices from ...
A protein field effect transistor (FET) exploiting the redox and self-assembly properties of the met...
A key challenge of the current research in nanoelectronics is the realization of biomolecular device...
A new type of transistor is presented. It is realised by using a metalloprotein; namely, azurin. Tha...
A protein field-effect transistor (Pro-FET) based on the blue-copper protein azurins (see Figure) an...
In this work, we investigate the formation of redox protein Azurin (Az) monolayers on functionalized...
A new type of transistor is presented. It is realised by using a metalloprotein; namely,azurin. Than...
Metalloproteins are redox molecules naturally shuttling electrons with high efficiency between molec...
A protein-based solid-state electronic device that operates in air is reported; it is fabricated by ...
We show that the electron-transfer protein azurin can be used to fabricate biomolecular rectifiers e...
The rational design of azurin metalloprotein assemblies suitable for biomolecular electronics applic...
The efficient implementation of functional biomolecules into hybrid devices is a central topic in cu...
[eng] Electron Transfer (ET) is undoubtedly one of the most important processes in life. Molecularly...
Single protein junctions consisting of azurin bridged between a gold substrate and the probe of an e...
A model system for the electrochemical investigation of vectorial electron transfer in biological sy...
A key challenge in nanoelectronics is the use of a bottom-up approach to fabricate nanodevices from ...
A protein field effect transistor (FET) exploiting the redox and self-assembly properties of the met...
A key challenge of the current research in nanoelectronics is the realization of biomolecular device...
A new type of transistor is presented. It is realised by using a metalloprotein; namely, azurin. Tha...
A protein field-effect transistor (Pro-FET) based on the blue-copper protein azurins (see Figure) an...
In this work, we investigate the formation of redox protein Azurin (Az) monolayers on functionalized...
A new type of transistor is presented. It is realised by using a metalloprotein; namely,azurin. Than...
Metalloproteins are redox molecules naturally shuttling electrons with high efficiency between molec...
A protein-based solid-state electronic device that operates in air is reported; it is fabricated by ...
We show that the electron-transfer protein azurin can be used to fabricate biomolecular rectifiers e...
The rational design of azurin metalloprotein assemblies suitable for biomolecular electronics applic...
The efficient implementation of functional biomolecules into hybrid devices is a central topic in cu...
[eng] Electron Transfer (ET) is undoubtedly one of the most important processes in life. Molecularly...
Single protein junctions consisting of azurin bridged between a gold substrate and the probe of an e...
A model system for the electrochemical investigation of vectorial electron transfer in biological sy...