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Research Topic : Solution Chemistry
Australian State/Territory : WA
Socio-Economic Objective : Energy transformation
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  • Funded Activity

    Linkage Projects - Grant ID: LP0212293

    Funder
    Australian Research Council
    Funding Amount
    $67,635.00
    Summary
    Monitoring and Modelling Hydrogeochemical Interactions with Groundwater : Implications for Mine Dewatering on Groundwater, River and Lake Chemistry. Alcoa operates a power station and brown coal mine at Anglesea in western Victoria. Following heavy rain in 2000 acidic water entered the Anglesea estuary causing precipitation of iron and aluminium flocs and fish kills. Estuary closure to tourism resulted. This project will identify the cause(s) of this phenomenon by modelling groundwater movement .... Monitoring and Modelling Hydrogeochemical Interactions with Groundwater : Implications for Mine Dewatering on Groundwater, River and Lake Chemistry. Alcoa operates a power station and brown coal mine at Anglesea in western Victoria. Following heavy rain in 2000 acidic water entered the Anglesea estuary causing precipitation of iron and aluminium flocs and fish kills. Estuary closure to tourism resulted. This project will identify the cause(s) of this phenomenon by modelling groundwater movement and studying geochemical processes. The resultant hydrogeochemical model will also be applied to simulating longer term water quality changes in the catchment arising from current mine dewatering operations and future rewatering following mine closure.
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    Funded Activity

    Discovery Projects - Grant ID: DP0452563

    Funder
    Australian Research Council
    Funding Amount
    $120,000.00
    Summary
    TAILORING OF CARBON MATERIALS FOR USE IN DIRECT CARBON FUEL CELLS. This project aims to develop a fundamental understanding of and methods for tailoring carbon materials to be used in high efficiency (80-85%) direct carbon fuel cells (DCFC). This project addresses an important area in clean and efficient energy supply to meet the World's long-term energy and environmental requirements. Specifically, we aim to focus on the carbon particulates based on carbon black materials with a turbostratic st .... TAILORING OF CARBON MATERIALS FOR USE IN DIRECT CARBON FUEL CELLS. This project aims to develop a fundamental understanding of and methods for tailoring carbon materials to be used in high efficiency (80-85%) direct carbon fuel cells (DCFC). This project addresses an important area in clean and efficient energy supply to meet the World's long-term energy and environmental requirements. Specifically, we aim to focus on the carbon particulates based on carbon black materials with a turbostratic structure, and to investigate the relationship between the microstructures of synthetic carbon black materials and their efficacy in DCFC systems. Ultimately, we aim to engineer novel carbon particulates for use in DCFCs.
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    Funded Activity

    Discovery Projects - Grant ID: DP1092543

    Funder
    Australian Research Council
    Funding Amount
    $275,000.00
    Summary
    Mapping new cathode materials for aqueous rechargeable batteries: The mechanism of intercalation of lithium in aqueous solutions. This technology could power electric vehicles of the future. With the aid of using advanced oxide and phosphate materials for an aqueous battery, the project will establish a widespread use of green energy for national benefit. This will help us to reduce the current emission observed in transport and energy conversion. The project will facilitate an understanding the .... Mapping new cathode materials for aqueous rechargeable batteries: The mechanism of intercalation of lithium in aqueous solutions. This technology could power electric vehicles of the future. With the aid of using advanced oxide and phosphate materials for an aqueous battery, the project will establish a widespread use of green energy for national benefit. This will help us to reduce the current emission observed in transport and energy conversion. The project will facilitate an understanding the electrochemical energy storage technology. The challenging and significant results from this project will contribute to the energy industries to build non-pollutant high energy storage equipments and productivity of Australia's research and development.
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    Funded Activity

    Discovery Projects - Grant ID: DP0879032

    Funder
    Australian Research Council
    Funding Amount
    $267,911.00
    Summary
    A virtual exploration of iron-sulphur-world in search of the precursors to life on earth. The greenhouse gas, carbon dioxide, that currently presents a threat to the continued existence of humanity, ironically represents the starting point from which life on Earth probably originated. This research will probe the chemistry of how this gas, dissolved in ancient oceans, came to be converted to molecules that form the basis of living organisms through interaction with minerals, such as iron sulphid .... A virtual exploration of iron-sulphur-world in search of the precursors to life on earth. The greenhouse gas, carbon dioxide, that currently presents a threat to the continued existence of humanity, ironically represents the starting point from which life on Earth probably originated. This research will probe the chemistry of how this gas, dissolved in ancient oceans, came to be converted to molecules that form the basis of living organisms through interaction with minerals, such as iron sulphide. Aside from answering a fundamental question, it will offer insights into processes that convert a pollutant into a useful chemical, as well as what might happen if carbon dioxide is placed in mineral deposits for long-term storage.
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    Funded Activity

    Linkage Projects - Grant ID: LP0882419

    Funder
    Australian Research Council
    Funding Amount
    $500,000.00
    Summary
    Development of a Novel One Step Process for Gas Conversion to Liquid. Australia has a rich natural gas reserve, most of which is in remote locations. This project will lead to a new technology to use the remote gas that would be flared into the atmosphere, thus benefiting both Australian economy and green house gas reduction. It will also reduce the risk of relying on importing oil from Overseas thus contributing to Australia's energy security. In addition, while crude-based oil emits SOx, NOx a .... Development of a Novel One Step Process for Gas Conversion to Liquid. Australia has a rich natural gas reserve, most of which is in remote locations. This project will lead to a new technology to use the remote gas that would be flared into the atmosphere, thus benefiting both Australian economy and green house gas reduction. It will also reduce the risk of relying on importing oil from Overseas thus contributing to Australia's energy security. In addition, while crude-based oil emits SOx, NOx and particulates etc into air, the liquid fuels from gas are pure and burns cleanly thus also contributing to air pollution control.
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    Funded Activity

    Linkage Projects - Grant ID: LP0562173

    Funder
    Australian Research Council
    Funding Amount
    $293,748.00
    Summary
    Hydrogen Production by Non-thermal Plasma Assisted Catalytic Pyrolysis of Natural Gas. This project aims to develop a cost effective technology for hydrogen production using catalytic pyrolysis of natural gas assisted by non-thermal plasma. The mechanism and kinetics of catalytic hydrocarbon decomposition on carbons produced in situ will be systematically studied. Based on the fundamental understanding of carbon nanostructures and their catalytic activities and stabilities, the non-thermal plasm .... Hydrogen Production by Non-thermal Plasma Assisted Catalytic Pyrolysis of Natural Gas. This project aims to develop a cost effective technology for hydrogen production using catalytic pyrolysis of natural gas assisted by non-thermal plasma. The mechanism and kinetics of catalytic hydrocarbon decomposition on carbons produced in situ will be systematically studied. Based on the fundamental understanding of carbon nanostructures and their catalytic activities and stabilities, the non-thermal plasma and the catalytic reactions will be optimized to achieve high conversion and catalytic stability. The project will lead to a new process combining effective carbon catalyst and low temperature plasma to produce pure hydrogen with high energy efficiency and no CO2 emissions.
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