Mathematical modelling of dye-sensitised titania solar cells: a route to improved efficiency in production. Dye-sensitised titania solar cells (DSCs) provide a technically and economically credible alternative to silicon photovotaic devices. Increasing the efficiency of commercially produced DSCs to 12% from the current production cell efficiency of 6%,will result in significantly lower delivered energy costs than the current alternative photovoltaic devices. This project will develop a mathemat ....Mathematical modelling of dye-sensitised titania solar cells: a route to improved efficiency in production. Dye-sensitised titania solar cells (DSCs) provide a technically and economically credible alternative to silicon photovotaic devices. Increasing the efficiency of commercially produced DSCs to 12% from the current production cell efficiency of 6%,will result in significantly lower delivered energy costs than the current alternative photovoltaic devices. This project will develop a mathematical model of a DSC as a first stage in the development of a decision support capability for the manufacture of more efficient DSC's. The model will extend existing models to incorporate full transport modelling and side-reactions in the electrolyte and will be validated by experimental work.Read moreRead less
Multiscale Modelling and Thermal Design Optimisation of Large-Scale Biomass Stockpiles for Use in Renewable Energy Products. By minimising the risk of spontaneous combustion this project will significantly contribute to the ability of the Australian sugar industry to store wet bagasse (sugar cane fibre residue) in large stockpiles. This will facilitate the year-round availability of biomass as a feedstock in renewable energy production. The mathematical models developed in this project deliver a ....Multiscale Modelling and Thermal Design Optimisation of Large-Scale Biomass Stockpiles for Use in Renewable Energy Products. By minimising the risk of spontaneous combustion this project will significantly contribute to the ability of the Australian sugar industry to store wet bagasse (sugar cane fibre residue) in large stockpiles. This will facilitate the year-round availability of biomass as a feedstock in renewable energy production. The mathematical models developed in this project deliver an enabling mechanism for facilitating the diversification of the sugar industry with the potential to produce significant financial returns for the industry. This research has the potential to initiate considerable and extremely positive, down-stream environmental impacts for Australia by enhancing feedstock production for ecologically sustainable power generation systems.Read moreRead less