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Field of Research : Mineral Processing
Research Topic : zinc
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Mineral Processing (9)
Resources Engineering and Extractive Metallurgy (6)
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Concentrating processes of other base metal ores (3)
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  • Funded Activity

    Linkage Projects - Grant ID: LP0347977

    Funder
    Australian Research Council
    Funding Amount
    $69,099.00
    Summary
    Numerical and experimental studies of the granular dynamics in IsaMill. IsaMill is a newly developed technology for fine grinding of minerals. This project will investigate the fundamentals governing the particle flow and dynamics in an IsaMill by a combined theoretical and experimental program. Its aim is to develop and validate a computer model that can simulate the particle flow at an individual particle level, providing a cost effective way to quantify the grinding performance in relation to .... Numerical and experimental studies of the granular dynamics in IsaMill. IsaMill is a newly developed technology for fine grinding of minerals. This project will investigate the fundamentals governing the particle flow and dynamics in an IsaMill by a combined theoretical and experimental program. Its aim is to develop and validate a computer model that can simulate the particle flow at an individual particle level, providing a cost effective way to quantify the grinding performance in relation to the properties of grinding medium and key operational variables. It will generate a basis for developing better design and control strategies of IsaMill process, resulting in an improved competitiveness of Australia's mineral industry.
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    Funded Activity

    Linkage Projects - Grant ID: LP0775415

    Funder
    Australian Research Council
    Funding Amount
    $231,090.00
    Summary
    Fundamental investigation of particle-fluid flow in the IsaMill grinding process. The Australian mining and minerals processing industries generated exports of about $56 billion in 2004/5, representing approximately 44 per cent of Australia's total exports. Grinding is a basic operation that liberates valuable minerals from the host rock. However, conventional grinding technologies are very inefficient. The newly developed IsaMill technique greatly improves the power efficiency of the grinding p .... Fundamental investigation of particle-fluid flow in the IsaMill grinding process. The Australian mining and minerals processing industries generated exports of about $56 billion in 2004/5, representing approximately 44 per cent of Australia's total exports. Grinding is a basic operation that liberates valuable minerals from the host rock. However, conventional grinding technologies are very inefficient. The newly developed IsaMill technique greatly improves the power efficiency of the grinding process. This project aims to understand the flow of particles and fluids within IsaMill through combined experimental and numerical studies, leading to improved grinding performance and lower energy consumption. Such work will provide a significant economic benefit not only to Xstrata but also to the Australian mineral processing industry.
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    Funded Activity

    Discovery Projects - Grant ID: DP0988529

    Funder
    Australian Research Council
    Funding Amount
    $295,000.00
    Summary
    Multi-scale modelling of particle breakage in grinding process. The minerals industry is the largest exporter in Australia, contributing approximately 40% of Australia's total exports. Grinding is one of basic operations in mineral processing to liberate valuables from the host rock. Grinding process, however, has very low efficiency and may account for 50% of the direct operating cost of a mineral processing plant. This project is to develop a novel, multi-scale model to investigate grinding at .... Multi-scale modelling of particle breakage in grinding process. The minerals industry is the largest exporter in Australia, contributing approximately 40% of Australia's total exports. Grinding is one of basic operations in mineral processing to liberate valuables from the host rock. Grinding process, however, has very low efficiency and may account for 50% of the direct operating cost of a mineral processing plant. This project is to develop a novel, multi-scale model to investigate grinding at both process and individual particle levels and to provide a more accurate prediction of grinding performance. This will result in improved control and design of grinding process with reduced energy consumption and mineral waste, which will be of immense economic and environmental benefit to Australia.
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    Funded Activity

    Linkage Projects - Grant ID: LP0883894

    Funder
    Australian Research Council
    Funding Amount
    $659,000.00
    Summary
    Chemistry of uranium extraction - studies on the dissolution of uranium ores in a complex solution matrix. Olympic Dam is the world's largest uranium deposit. With a planned massive expansion of the mine's operations, it could generate more than $10b per year. The mineral ores found there, however, are highly complex and poorly understood. This project will investigate and determine the detailed characteristics and chemistry of the mineral ore and offer process improvements that will increase th .... Chemistry of uranium extraction - studies on the dissolution of uranium ores in a complex solution matrix. Olympic Dam is the world's largest uranium deposit. With a planned massive expansion of the mine's operations, it could generate more than $10b per year. The mineral ores found there, however, are highly complex and poorly understood. This project will investigate and determine the detailed characteristics and chemistry of the mineral ore and offer process improvements that will increase the productivity and improve the economics of extraction of the ore. This project will also address the serious deficiency of researchers in this field by creating a sustainable skills development program in mineral extraction and separation technology.
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    Funded Activity

    Discovery Projects - Grant ID: DP0344134

    Funder
    Australian Research Council
    Funding Amount
    $230,000.00
    Summary
    Nickel iron sulphide mineralogy: the link between mineral transformations and microstructure and magnetic properties. This project is about measuring the rate at which minerals transform or react and how metal diffusion controls these reactions. Metal diffusion in sulphides is much more rapid that in silicates and is still very significant at low temperatures (< 300 C). In this project, we are trying to measure the rate at which the principal ore of nickel, pentlandite, transforms to violarite .... Nickel iron sulphide mineralogy: the link between mineral transformations and microstructure and magnetic properties. This project is about measuring the rate at which minerals transform or react and how metal diffusion controls these reactions. Metal diffusion in sulphides is much more rapid that in silicates and is still very significant at low temperatures (< 300 C). In this project, we are trying to measure the rate at which the principal ore of nickel, pentlandite, transforms to violarite, another important nickel rich sulphide that forms from it in the upper parts of ore bodies. The arrangement of the metal atoms in these minerals is sensitive to temperature, so it may be used as a geothermometer.
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    Funded Activity

    Linkage Projects - Grant ID: LP0560860

    Funder
    Australian Research Council
    Funding Amount
    $72,444.00
    Summary
    Enhanced metal recovery from a modified Caron leach of mixed nickel-cobalt intermediate concentrate. Nickel metal production from lateritic deposits involves dissolution in acid followed by purification and selective alkaline precipitation of the nickel and cobalt as hydroxide phase. Hydroxides from several plants are transported to a central refinery where the hydroxide is redissolved in ammoniacal solutions and nickel and cobalt are separated and reduced to metal. This project will examine t .... Enhanced metal recovery from a modified Caron leach of mixed nickel-cobalt intermediate concentrate. Nickel metal production from lateritic deposits involves dissolution in acid followed by purification and selective alkaline precipitation of the nickel and cobalt as hydroxide phase. Hydroxides from several plants are transported to a central refinery where the hydroxide is redissolved in ammoniacal solutions and nickel and cobalt are separated and reduced to metal. This project will examine the effect of preparation conditions and aging of the hydroxide precipitate on the refining process. MORE
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    Funded Activity

    Linkage Projects - Grant ID: LP0560656

    Funder
    Australian Research Council
    Funding Amount
    $240,000.00
    Summary
    Practical Application of Filtration Theory to the Minerals Industry. The project aims to provide a quantitative basis for the selection, design, operation and maintenance of filter devices in the minerals industry. This will be achieved through characterisation of materials to be filtered by developing a model of the true role of the membrane in filtration. Experimental parameters will be input to first principles filtration models. This will reduce the incidence of poor operational outcomes .... Practical Application of Filtration Theory to the Minerals Industry. The project aims to provide a quantitative basis for the selection, design, operation and maintenance of filter devices in the minerals industry. This will be achieved through characterisation of materials to be filtered by developing a model of the true role of the membrane in filtration. Experimental parameters will be input to first principles filtration models. This will reduce the incidence of poor operational outcomes for filter presses and provide a sound basis for the maintenance of filter cloths and membranes.
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    Funded Activity

    Discovery Projects - Grant ID: DP0450165

    Funder
    Australian Research Council
    Funding Amount
    $246,986.00
    Summary
    Biological Leaching of Low Grade Nickel Laterite Ores. Harnessing the capability of fungi to dissolve large quantities of nickel and cobalt from laterite ores will create a step change in the technology for processing nickel laterites and other oxide minerals. Using microorganisms and their metabolic products promises to be effective, energy saving, easily controlled and environmentally safe. The mechanistic investigation proposed in this study will generate fundamental innovations and technolo .... Biological Leaching of Low Grade Nickel Laterite Ores. Harnessing the capability of fungi to dissolve large quantities of nickel and cobalt from laterite ores will create a step change in the technology for processing nickel laterites and other oxide minerals. Using microorganisms and their metabolic products promises to be effective, energy saving, easily controlled and environmentally safe. The mechanistic investigation proposed in this study will generate fundamental innovations and technological advancement in bio-leaching of laterite ores. Such technologies can secure the sustainability of nickel production and provide unique ecological reform to the mineral extraction industry.
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    Funded Activity

    Linkage Projects - Grant ID: LP0775448

    Funder
    Australian Research Council
    Funding Amount
    $490,708.00
    Summary
    Improving Aqueous Processing and Control of Copper-Uranium Leach Tails Behaviour. The research will provide essential training and equip us with better understanding, appropriate scientific knowledge and diagnostic tools for establishing an effective U and Cu mineral leaching and subsequent treatment processes. Specifically, improved valuable mineral dissolution rate, greater pulp handleability, efficient particles washing and pulp dewatering technology for treating U-Cu metal containing pulps .... Improving Aqueous Processing and Control of Copper-Uranium Leach Tails Behaviour. The research will provide essential training and equip us with better understanding, appropriate scientific knowledge and diagnostic tools for establishing an effective U and Cu mineral leaching and subsequent treatment processes. Specifically, improved valuable mineral dissolution rate, greater pulp handleability, efficient particles washing and pulp dewatering technology for treating U-Cu metal containing pulps, significant increase in productivity and production with reductions in reagents and human risk, will emerge. These beneficial outcomes will increase profitability and competitiveness of BHP-Billiton and Australian mineral export.
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