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Research Topic : Iron Overload
Australian State/Territory : VIC
Field of Research : Process Metallurgy
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Process Metallurgy (4)
Resources Engineering and Extractive Metallurgy (4)
Fluidization And Fluid Mechanics (2)
Mineral Processing (2)
Heat And Mass Transfer Operations (1)
Mechanical Engineering (1)
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Iron and steel (e.g. ingots, bars, rods, shapes and sections) (4)
Iron Ores (I.E. Ferrous Ores) (3)
Coal (2)
Primary mining and extraction processes (1)
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  • Funded Activity

    Discovery Projects - Grant ID: DP1097130

    Funder
    Australian Research Council
    Funding Amount
    $340,000.00
    Summary
    Discrete particle modelling and analysis of complex particle-fluid flows. Multiphase processes are widely used in both conventional and modern industries in Australia and worldwide, however rarely reach more than 60% of design capacity because of a poor understanding of their fundamental characteristics. This project aims to overcome this problem using an extensive combined fundamental and applied approach. The resulting theories, computer models and simulation techniques will be applied to imp .... Discrete particle modelling and analysis of complex particle-fluid flows. Multiphase processes are widely used in both conventional and modern industries in Australia and worldwide, however rarely reach more than 60% of design capacity because of a poor understanding of their fundamental characteristics. This project aims to overcome this problem using an extensive combined fundamental and applied approach. The resulting theories, computer models and simulation techniques will be applied to improve process design, control and optimisation. Consequentially, productivity and Australian competitiveness will be significantly enhanced in its most important industries such as minerals, metallurgical, chemical, energy, and materials.
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    Funded Activity

    Linkage Projects - Grant ID: LP0228782

    Funder
    Australian Research Council
    Funding Amount
    $67,635.00
    Summary
    Flow field evaluation of AusIron top submerged injection system. The top submerged gas injection system is widely used in the metallurgical industry in many metal refining processes. The AusIron process, which uses dual top submerged lances injection, has been developed recently for direct smelting of iron ore to produce pig iron using low quality coal as fuel and reductant. Successful implementation of the process requires optimum furnace design. This project aims to study fluid flow within the .... Flow field evaluation of AusIron top submerged injection system. The top submerged gas injection system is widely used in the metallurgical industry in many metal refining processes. The AusIron process, which uses dual top submerged lances injection, has been developed recently for direct smelting of iron ore to produce pig iron using low quality coal as fuel and reductant. Successful implementation of the process requires optimum furnace design. This project aims to study fluid flow within the furnace using a laboratory scale model, plant trials and numerical analysis. The project will enhance our fundamental understanding of the top submerged injection processes and assist in optimising AusIron furnace design.
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    Funded Activity

    Linkage Projects - Grant ID: LP0883512

    Funder
    Australian Research Council
    Funding Amount
    $1,062,235.00
    Summary
    Multiscale modelling of the transport phenomena of liquid iron and slag in ironmaking blast furnace. Blast furnace ironmaking is a key operation in the steel industry which, with an annual turnover around $11 billion, is a significant manufacturing sector in Australia. This project, focused on the behaviour of liquid iron and slag, can generate computer models that can reliably describe the complicated multiphase flow and thermochemical processes in the furnace. The implementation of the resulta .... Multiscale modelling of the transport phenomena of liquid iron and slag in ironmaking blast furnace. Blast furnace ironmaking is a key operation in the steel industry which, with an annual turnover around $11 billion, is a significant manufacturing sector in Australia. This project, focused on the behaviour of liquid iron and slag, can generate computer models that can reliably describe the complicated multiphase flow and thermochemical processes in the furnace. The implementation of the resultant models and the new understanding should lead to long life campaigns, better operational control, decreased fuel consumption, improved productivity and reduced environmental impact. This, together with the proposed research training, is important to the development of Australia's competitive steel industry.
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    Funded Activity

    Linkage Projects - Grant ID: LP0219251

    Funder
    Australian Research Council
    Funding Amount
    $177,000.00
    Summary
    Fundamental Investigation of Kinetics of Ferro-Silicon Reactions in Cupola Scrap Melting Processes. The aims of this project include development of fundamental understanding of Ferro-silicon reactions in cupola scrap melting processes. This project will advance the scrap melting processes by enhancing their economic viability and environmental compatibility by optimising the reactions of Ferro-silicon which is one of the major sources of operating problems. Specifically the project will achieve .... Fundamental Investigation of Kinetics of Ferro-Silicon Reactions in Cupola Scrap Melting Processes. The aims of this project include development of fundamental understanding of Ferro-silicon reactions in cupola scrap melting processes. This project will advance the scrap melting processes by enhancing their economic viability and environmental compatibility by optimising the reactions of Ferro-silicon which is one of the major sources of operating problems. Specifically the project will achieve optimisation of Ferro-silicon utilisation, reduction in refractory consumption, minimisation of industrial slag waste generation, improved product composition control. The scientific outcomes include data and mechanisms of Ferro-silicon reactions with gas and graphite phases, kinetic models to describe the influence of Ferro-silicon and process variables.
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    Showing 1-4 of 4 Funded Activites

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