Optical excitation of azurin blue copper protein immobilized on indium-tin oxide, in resonance with its ligand-to-metal charge transfer absorption band, resulted in a light-induced current tunnelling within the protein milieu. The related electron transport rate is estimated to be about 105 s -1. A model based on resonant tunnelling through an azurin excited molecular state is proposed. The capability of controlling electron transfer processes through light pulses opens interesting perspectives for implementation of azurin in bio-nano-opto-electronic devices. © 2014 AIP Publishing LLC.3n
Cu- and Zn-azurin chemisorbed on Au(111) have been comparatively investigated by electrochemical sca...
Abstract: Electron transfers in photosynthesis and respiration commonly occur between protein-bound ...
A key challenge of the current research in nanoelectronics is the realization of biomolecular device...
Optical excitation of azurin blue copper protein immobilized on indium-tin oxide, in resonance with ...
Redox metalloproteins are emerging as promising candidates for future bio-optoelectronic and nano-bi...
The copper protein azurin, due to the peculiar coupling of its optical and vibronic properties with ...
The efficient implementation of functional biomolecules into hybrid devices is a central topic in cu...
Blue copper redox protein azurin (AZ) constitutes an ideal active element for building bionano-optoe...
Blue copper redox protein azurin (AZ) constitutes an ideal active element for building bionano-optoe...
AbstractA novel method for the initiation of intramolecular electron transfer reactions in azurin is...
Electron transfer through the redox metalloprotein azurin immobilized on Au (111) by its disulphide ...
AbstractBackground: We would like to understand how electron flow is controlled in biological molecu...
Tryptophan is one of few residues that participates in biological electron transfer reactions. Upon ...
Long-range electron transfer is a central component of processes that are essential for biological f...
<i>Pseudomonas aeruginosa</i> azurin has been an important model system for investigating fundamenta...
Cu- and Zn-azurin chemisorbed on Au(111) have been comparatively investigated by electrochemical sca...
Abstract: Electron transfers in photosynthesis and respiration commonly occur between protein-bound ...
A key challenge of the current research in nanoelectronics is the realization of biomolecular device...
Optical excitation of azurin blue copper protein immobilized on indium-tin oxide, in resonance with ...
Redox metalloproteins are emerging as promising candidates for future bio-optoelectronic and nano-bi...
The copper protein azurin, due to the peculiar coupling of its optical and vibronic properties with ...
The efficient implementation of functional biomolecules into hybrid devices is a central topic in cu...
Blue copper redox protein azurin (AZ) constitutes an ideal active element for building bionano-optoe...
Blue copper redox protein azurin (AZ) constitutes an ideal active element for building bionano-optoe...
AbstractA novel method for the initiation of intramolecular electron transfer reactions in azurin is...
Electron transfer through the redox metalloprotein azurin immobilized on Au (111) by its disulphide ...
AbstractBackground: We would like to understand how electron flow is controlled in biological molecu...
Tryptophan is one of few residues that participates in biological electron transfer reactions. Upon ...
Long-range electron transfer is a central component of processes that are essential for biological f...
<i>Pseudomonas aeruginosa</i> azurin has been an important model system for investigating fundamenta...
Cu- and Zn-azurin chemisorbed on Au(111) have been comparatively investigated by electrochemical sca...
Abstract: Electron transfers in photosynthesis and respiration commonly occur between protein-bound ...
A key challenge of the current research in nanoelectronics is the realization of biomolecular device...