New Synthetic Routes to the Immobilisation of Mixed Valence Transition Metal Complexes on Conducting Metal Oxides. Highly coloured, electrochemically active transition metal dyes may find application electrochromic devices, where they may switch between contrasting coloured forms through a simple redox reaction. A prerequisite is that the dye be immobilised onto a solid conducting support whilst preserving the electrochemical and optical properties of the dye found in solution. This project tack ....New Synthetic Routes to the Immobilisation of Mixed Valence Transition Metal Complexes on Conducting Metal Oxides. Highly coloured, electrochemically active transition metal dyes may find application electrochromic devices, where they may switch between contrasting coloured forms through a simple redox reaction. A prerequisite is that the dye be immobilised onto a solid conducting support whilst preserving the electrochemical and optical properties of the dye found in solution. This project tackles this problem through a combination of organic and inorganic synthesis to develop new electrochromic dyes that may be attached to mesoporous titania.Read moreRead less
Linkage Infrastructure, Equipment And Facilities - Grant ID: LE0347346
Funder
Australian Research Council
Funding Amount
$210,000.00
Summary
Electrochemical Atomic Force Microscope and Nano-Manipulation Facility. This new Facility will add the nano-dimension to the excellent electrochemical mapping facility established at the University of Wollongong over the past 2 years. The instrument we propose to install will allow us to probe electrochemical events and, in particular, the influence of these events on the structure of customised materials at the nano level. This new capability will impact on our research into the development o ....Electrochemical Atomic Force Microscope and Nano-Manipulation Facility. This new Facility will add the nano-dimension to the excellent electrochemical mapping facility established at the University of Wollongong over the past 2 years. The instrument we propose to install will allow us to probe electrochemical events and, in particular, the influence of these events on the structure of customised materials at the nano level. This new capability will impact on our research into the development of efficient artificial muscles, biosensors, corrosion protection coatings, polymeric photovoltaics and new surfaces for mammalian cell culturing.Read moreRead less