Quantification of current and future traffic emissions of greenhouse gases and particulate matter for application in transport and urban planning. The socio-economic benefits from the project include (i) novel transport emissions model, enabling assessment of the impact of transport proposals, applied in one of the most rapidly developing urban regions of Australia, SEQ; (ii) a matrix of particles, CO2, N2O and CH4 emission factors for vehicles operating in Australia, an essential input paramete ....Quantification of current and future traffic emissions of greenhouse gases and particulate matter for application in transport and urban planning. The socio-economic benefits from the project include (i) novel transport emissions model, enabling assessment of the impact of transport proposals, applied in one of the most rapidly developing urban regions of Australia, SEQ; (ii) a matrix of particles, CO2, N2O and CH4 emission factors for vehicles operating in Australia, an essential input parameter in vehicle emission inventories. The ultimate economic benefit of this research will be a reduction in transport related air pollution and greenhouse emissions, thus increasing the health and well-being of Australians, reducing health care costs and placing Australia in the forefront of international progress in the race toward better methods for achieving environmental sustainability.Read moreRead less
QUANTIFICATION OF INTERACTIONS DURING THE DISPERSION OF CORONA IONS AND AIRBORNE PARTICLES NEAR POWER LINES. Currently there is no method for quantification of concentration and dispersion of charged aerosols near high voltage power lines (HVPLs). However, hypothesis have been presented, but not yet proven scientifically, that residents of houses close to combustion sources such as highways or industrial plants and HVPLs may be subjected to health risk due to inhalation of charged aerosols. The ....QUANTIFICATION OF INTERACTIONS DURING THE DISPERSION OF CORONA IONS AND AIRBORNE PARTICLES NEAR POWER LINES. Currently there is no method for quantification of concentration and dispersion of charged aerosols near high voltage power lines (HVPLs). However, hypothesis have been presented, but not yet proven scientifically, that residents of houses close to combustion sources such as highways or industrial plants and HVPLs may be subjected to health risk due to inhalation of charged aerosols. The outcome of this project will be a model for quantitative assessment of the processes occurring during the transport and dispersion of corona ions and combustion aerosol, which will be a tool for predictive risk assessment and informed management of public resources in relation to power line design and maintenance.Read moreRead less
The flotation of oxide minerals using hydroxamate collectors. Australian and world mineral resources are declining in quality as we exploit the richest sulfidic ore deposits. This is increasing our reliance on concentration and beneficiation processes to improve the economics of the selective recovery of minerals from lower grade and, increasingly, oxide or lateritic ore bodies. In addition, greater emphasis is being placed on our environmental stewardship and the need to remove hazardous mater ....The flotation of oxide minerals using hydroxamate collectors. Australian and world mineral resources are declining in quality as we exploit the richest sulfidic ore deposits. This is increasing our reliance on concentration and beneficiation processes to improve the economics of the selective recovery of minerals from lower grade and, increasingly, oxide or lateritic ore bodies. In addition, greater emphasis is being placed on our environmental stewardship and the need to remove hazardous material from the concentrate streams. This proposal will develop improved methods and techniques that will facilitate better, cleaner separations and recovery of the valuable oxide mineral components using Australian-developed flotation reagents.Read moreRead less
In vivo Assessment of Radiation Dose from Inhalation of Radioactive Dust in the Mining and Milling of Radioactive Ores. The project will use a combination of in vivo gamma-ray spectrometry measurements and modelling to determine quantities of retained radioactive materials in mine workers exposed to long-lived radioactive dust and the radiation doses from those materials. These studies will provide better indications of dose in a range of mining environments. Current indirect dose estimation tec ....In vivo Assessment of Radiation Dose from Inhalation of Radioactive Dust in the Mining and Milling of Radioactive Ores. The project will use a combination of in vivo gamma-ray spectrometry measurements and modelling to determine quantities of retained radioactive materials in mine workers exposed to long-lived radioactive dust and the radiation doses from those materials. These studies will provide better indications of dose in a range of mining environments. Current indirect dose estimation techniques will be tested and improved. This benefits both industry and workers as it allows greater optimisation of work practices and greater confidence for workers and their communities about the real risks from radiation exposure. Our project will enhance the viability of the Australian mining industry.Read moreRead less
Industrial-strength X-ray Phase Tomography. The unique 3D imaging capability provided as a result of this project will have application to advanced manufacturing as a non-destructive evaluation for materials and micro-components. For instance, the internal structure of aerogels, porous light metals, polymers and carbon fibre based materials can all be imaged at the microscale. Similar benefits flow in health sciences where organic processes can be observed in place and where, for instance, small ....Industrial-strength X-ray Phase Tomography. The unique 3D imaging capability provided as a result of this project will have application to advanced manufacturing as a non-destructive evaluation for materials and micro-components. For instance, the internal structure of aerogels, porous light metals, polymers and carbon fibre based materials can all be imaged at the microscale. Similar benefits flow in health sciences where organic processes can be observed in place and where, for instance, small animals used in research and clinical testing can be inspected internally without having to destroy them, thus allowing for repeated measurements.Read moreRead less