Nanotechnology in nature: the evolutionary significance of iridescent ultraviolet colouration in butterflies. Nanostructural colour is a novel and interesting biological phenomenon that has potential application in textile and paint industries. This research has the potential to uncover knowledge relevant to future genetic manipulation and/or artificial synthesis of this trait for industry. Fundamental benefits will include a contribution to our understanding of evolution and biological diversit ....Nanotechnology in nature: the evolutionary significance of iridescent ultraviolet colouration in butterflies. Nanostructural colour is a novel and interesting biological phenomenon that has potential application in textile and paint industries. This research has the potential to uncover knowledge relevant to future genetic manipulation and/or artificial synthesis of this trait for industry. Fundamental benefits will include a contribution to our understanding of evolution and biological diversity, enhancement of Australia's research profile, and the cultivation of new scientific expertise. This proposal also promises to benefit the Australian scientific community through the establishment of collaborative links with universities in the USA and UK, and to increase mainstream awareness of Australia's stunning natural resources.Read moreRead less
SIMULATION OF DYE SENSITISED SOLAR CELL SYSTEMS: A ROUTE TO INCREASING MODULE AND ARRAY PERFORMANCE. This project will address the need to minimise electrical losses in arrays of dye-sensitised solar cells by undertaking development of a comprehensive electrical circuit model of the cells. The model will enable optimal design of the materials, geometry and interconnection of cells, maximum power delivery from cell arrays, and provide understanding of the impact of shading on the performance of ....SIMULATION OF DYE SENSITISED SOLAR CELL SYSTEMS: A ROUTE TO INCREASING MODULE AND ARRAY PERFORMANCE. This project will address the need to minimise electrical losses in arrays of dye-sensitised solar cells by undertaking development of a comprehensive electrical circuit model of the cells. The model will enable optimal design of the materials, geometry and interconnection of cells, maximum power delivery from cell arrays, and provide understanding of the impact of shading on the performance of arrays of dye-sensitised solar cells. This research will accelerate the development of environmentally friendly electricity generation in Australia, and contribute to employment and exports of technology.
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