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Scheme : Discovery Projects
Australian State/Territory : TAS
Research Topic : zinc
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  • Funded Activity

    Discovery Projects - Grant ID: DP0559778

    Funder
    Australian Research Council
    Funding Amount
    $190,000.00
    Summary
    Cracking the sulfate isotopic composition problem in ancient hydrothermal systems: application of the Carbonate-Associated Sulfate (CAS) method. Successful exploration of the deep Earth for valuable ores requires better knowledge of ore formation conditions, to feed to predictive deposit models. Our work shows great promise of improving the quality of this raw data. Smarter ore deposit prediction would likely exert its influence over the next ten years, rather than be immediate. It will increase .... Cracking the sulfate isotopic composition problem in ancient hydrothermal systems: application of the Carbonate-Associated Sulfate (CAS) method. Successful exploration of the deep Earth for valuable ores requires better knowledge of ore formation conditions, to feed to predictive deposit models. Our work shows great promise of improving the quality of this raw data. Smarter ore deposit prediction would likely exert its influence over the next ten years, rather than be immediate. It will increase exploration efficiency, saving tens of millions of dollars currently devoted to unproductive exploration. Exploration and mining are conducted primarily in regional Australia, and a healthy mining industry is therefore directly benefits hinterland communities. It also benefits all Australians through the payment of royalties and contributions to Australia's GDP from mineral exports.
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    Funded Activity

    Discovery Projects - Grant ID: DP0449756

    Funder
    Australian Research Council
    Funding Amount
    $460,000.00
    Summary
    Submarine explosive eruptions of silicic magma: constraints on products and processes from modern sea-floor examples, ancient successions and experiments. Volcanoes are common on the sea-floor. Many have been the sites of devastating explosive eruptions throughout Earth history, producing thick layers of pumice and volcanic ash in both modern and ancient ocean basins. None of these events has been witnessed, hence, little is known about submarine explosive eruptions and the associated volcanoes. .... Submarine explosive eruptions of silicic magma: constraints on products and processes from modern sea-floor examples, ancient successions and experiments. Volcanoes are common on the sea-floor. Many have been the sites of devastating explosive eruptions throughout Earth history, producing thick layers of pumice and volcanic ash in both modern and ancient ocean basins. None of these events has been witnessed, hence, little is known about submarine explosive eruptions and the associated volcanoes. This detailed, multidisciplinary study will link exploration of modern explosive sea-floor volcanoes (western Pacific Ocean), field-work on older, submarine volcanic formations (Japan, Greece) and experiments that simulate explosive eruptions and their products. The results will elucidate sea-floor explosive volcanism and its contribution to the geology of ocean basins.
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    Funded Activity

    Discovery Projects - Grant ID: DP0208832

    Funder
    Australian Research Council
    Funding Amount
    $245,000.00
    Summary
    New Look N-Heterocyclic Metallocenes of the Lanthanides Based on 4-Azapentalenyl Anions. Since there are abundant, but under utilised, reserves of lanthanide minerals in Australia, it is in Australia's best interest that their chemistry is developed into commercial applications in industrial catalysis. This project addresses this situation through the detailed study of carefully chosen organolanthanide compounds (specifically, comprising hetero-substituted metallocenes). The research strategy .... New Look N-Heterocyclic Metallocenes of the Lanthanides Based on 4-Azapentalenyl Anions. Since there are abundant, but under utilised, reserves of lanthanide minerals in Australia, it is in Australia's best interest that their chemistry is developed into commercial applications in industrial catalysis. This project addresses this situation through the detailed study of carefully chosen organolanthanide compounds (specifically, comprising hetero-substituted metallocenes). The research strategy will be directed towards advancing our knowledge in relation to fundamental chemical processes that are directly relevant to the industrial production of important commodity chemicals and polymers from often under utilised petroleum industry waste stocks.
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    Funded Activity

    Discovery Projects - Grant ID: DP1092823

    Funder
    Australian Research Council
    Funding Amount
    $105,000.00
    Summary
    Kimberlites and Flood Basalts: Linking Primary Melts with Mantle and Crustal Sources. Intimate relationships between kimberlites and diamonds, and between flood basalts and sulphide mineralisation make the study of deep mantle-derived magmas important to the scientific and exploration communities. The proposed research therefore represents a logical scientific step forward and is hence timely and important in this internationally competitive field, and serve as a training base for young research .... Kimberlites and Flood Basalts: Linking Primary Melts with Mantle and Crustal Sources. Intimate relationships between kimberlites and diamonds, and between flood basalts and sulphide mineralisation make the study of deep mantle-derived magmas important to the scientific and exploration communities. The proposed research therefore represents a logical scientific step forward and is hence timely and important in this internationally competitive field, and serve as a training base for young researchers keen to learn the techniques and methodologies involved. The possible outcomes of the project are of wide interest to geoscientists, and may benefit the Australian economy in that they help to predict whether the continental magmas and respective rocks have formed in parts of deep mantle with mineralisation potential.
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