- Dynamic application of electrochemical methods to the study of the kinetics and energetics of metalloproteins and metalloenzymes: intra and intermolecular electron transfer processes; active site redox chemistry, catalytic mechanisms, inhibition, redox activation/inactivation, recognition of physiological partners;
- Development of novel electrode interfaces based on SAMs and nanomaterials that may mimic the physiological environment and thus enhance direct electron transfer between electrodes and redox proteins;
- Exploitation of redox assemblies and layer-by-layer films in order to enhance recognition and interaction of electron transfer partners, as well as catalytic performances.
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