Incorporation of redox-active units in a dendritic architecture enable us to gain information on: (i) dendrimer structure and superstructure; (ii) self-assembly processes; (iii) degree of electronic interaction and communication between redox units located in different sites; (iv) changes in conformation brought about by electron transfer processes. Electroactive dendrimers are attracting increasing interest in view of their possible application as sensors, catalysts, enzyme mimics, in which a redox centre is buried inside the dendritic nanoenvironment, and, last but not least, multielectron storage devices.
Electrochemistry of Functional Supramolecular Systems
CERONI, PAOLA;CREDI, ALBERTO;VENTURI, MARGHERITA
2010
Abstract
Incorporation of redox-active units in a dendritic architecture enable us to gain information on: (i) dendrimer structure and superstructure; (ii) self-assembly processes; (iii) degree of electronic interaction and communication between redox units located in different sites; (iv) changes in conformation brought about by electron transfer processes. Electroactive dendrimers are attracting increasing interest in view of their possible application as sensors, catalysts, enzyme mimics, in which a redox centre is buried inside the dendritic nanoenvironment, and, last but not least, multielectron storage devices.File in questo prodotto:
Eventuali allegati, non sono esposti
I documenti in IRIS sono protetti da copyright e tutti i diritti sono riservati, salvo diversa indicazione.