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Field of Research : Chemical Spectroscopy
Field of Research : Bioinorganic Chemistry
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  • Funded Activity

    Discovery Projects - Grant ID: DP0985807

    Funder
    Australian Research Council
    Funding Amount
    $810,000.00
    Summary
    The fate of dietary selenium in vivo; a direct approach to linking chemical form with biological activity. Dietary selenium supplementation has great potential as a preventative treatment for a range of human health conditions, including cancer, that widely affect the Australian population. However, the adverse effects of such treatments are not fully recognised. This project will increase our knowledge of how selenium compounds are stored and utilised in the body and relate the information to c .... The fate of dietary selenium in vivo; a direct approach to linking chemical form with biological activity. Dietary selenium supplementation has great potential as a preventative treatment for a range of human health conditions, including cancer, that widely affect the Australian population. However, the adverse effects of such treatments are not fully recognised. This project will increase our knowledge of how selenium compounds are stored and utilised in the body and relate the information to clinical observations regarding dietary intake of selenium and other compounds. The new understanding generated will delineate the conditions for safe intake, so that the beneficial effects associated with selenium supplementation may be harnessed more effectively.
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    Funded Activity

    Discovery Projects - Grant ID: DP0984722

    Funder
    Australian Research Council
    Funding Amount
    $995,000.00
    Summary
    Microprobe and Nanoprobe Studies on Intracellular Disease Processes and Their Treatment. Breakthrough microprobe and nanoprobe technologies, involving X-ray, visible and infrared light can focus into different components of mammalian cells in order to interrogate the biochemistry that is occurring therein. Each of the different wavelengths of light provides complementary biochemical information that enables a deeper understanding of changes in cells that occur as a function of drug treatments an .... Microprobe and Nanoprobe Studies on Intracellular Disease Processes and Their Treatment. Breakthrough microprobe and nanoprobe technologies, involving X-ray, visible and infrared light can focus into different components of mammalian cells in order to interrogate the biochemistry that is occurring therein. Each of the different wavelengths of light provides complementary biochemical information that enables a deeper understanding of changes in cells that occur as a function of drug treatments and disease processes. This will provide unprecedented information as to where drugs go and how they are transformed inside cells that, in turn, may revolutionalise the way in which new drugs are designed that have higher specificity and fewer side effects.
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    Funded Activity

    Linkage Infrastructure, Equipment And Facilities - Grant ID: LE0560680

    Funder
    Australian Research Council
    Funding Amount
    $901,862.00
    Summary
    Vibrational Spectroscopy Microprobe/FESEM/AFM Imaging of Cells, Tissues and Materials. State-of-the-art vibrational mapping and imaging equipment (integrated with a field-emission scanning electron microscope (FESEM) and an atomic force microscope (AFM)) will provide enabling technologies for cutting-edge research in disease diagnosis, identification of pathogens, mapping of the entry and distribution of pharmaceutics into cells, and materials research. An InVia Renishaw Raman spectrometer (sub .... Vibrational Spectroscopy Microprobe/FESEM/AFM Imaging of Cells, Tissues and Materials. State-of-the-art vibrational mapping and imaging equipment (integrated with a field-emission scanning electron microscope (FESEM) and an atomic force microscope (AFM)) will provide enabling technologies for cutting-edge research in disease diagnosis, identification of pathogens, mapping of the entry and distribution of pharmaceutics into cells, and materials research. An InVia Renishaw Raman spectrometer (sub-micron spatial positioning and micron spatial resolution) will be interfaced to an FEI Quanta FESEM for combined Raman (spectroscopic), EDS and SEM (morphological) imaging/mapping at the sub-cellular level. Complementary new-generation Raman and IR spectrometer upgrades will provide an integrated world-class equipment platform.
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    Funded Activity

    Discovery Projects - Grant ID: DP0346162

    Funder
    Australian Research Council
    Funding Amount
    $276,000.00
    Summary
    Nanoprobe and Microprobe Spectroscopic Techniques in Drug Design, Probing Mechanisms of Diseases, and Bioinorganic Chemistry. Nanoprobe and microprobe spectroscopic techniques offer unparalleled opportunities to probe the structures and distributions of drugs, carcinogens, and biomolecules in cultured cells and tissues. Such techniques represent new frontiers in understanding in vivo metabolic processes at the molecular level, as well as providing unprecedented information on the metabolism and .... Nanoprobe and Microprobe Spectroscopic Techniques in Drug Design, Probing Mechanisms of Diseases, and Bioinorganic Chemistry. Nanoprobe and microprobe spectroscopic techniques offer unparalleled opportunities to probe the structures and distributions of drugs, carcinogens, and biomolecules in cultured cells and tissues. Such techniques represent new frontiers in understanding in vivo metabolic processes at the molecular level, as well as providing unprecedented information on the metabolism and distributions of pharmaceuticals and toxins involved in the treatment and cause of diseases, such as cancer. This project is aimed at pushing the boundaries of nanoprobe and microprobe (X-ray absorption, SRIXE, PIXE, Raman and two-photon fluorescence) techniques for such applications.
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    Funded Activity

    Discovery Projects - Grant ID: DP0209007

    Funder
    Australian Research Council
    Funding Amount
    $166,000.00
    Summary
    Synthetic Molybdenum Enzymes. This project aims to produce synthetic molybdenum (Mo) enzymes, small molecules that share structural and functional attributes with the crucially important molybdopterin?Mo enzymes. These ubiquitous enzymes are essential for plant and animal health, natural cycles involving carbon, nitrogen and sulfur, and global climate control and atmospheric albedo (reflectance); consequently, they impact heavily on commerce, the environment and society. The study will provid .... Synthetic Molybdenum Enzymes. This project aims to produce synthetic molybdenum (Mo) enzymes, small molecules that share structural and functional attributes with the crucially important molybdopterin?Mo enzymes. These ubiquitous enzymes are essential for plant and animal health, natural cycles involving carbon, nitrogen and sulfur, and global climate control and atmospheric albedo (reflectance); consequently, they impact heavily on commerce, the environment and society. The study will provide urgently needed insights into the fundamental Mo?sulfur chemistry of the enzyme active sites and inform efforts to reduce the negative impacts of enzyme dysfunction and the design of new commercial catalysts.
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    Funded Activity

    Discovery Projects - Grant ID: DP0664706

    Funder
    Australian Research Council
    Funding Amount
    $342,000.00
    Summary
    Nanoprobe and Microprobe Structural and Spectroscopic Studies in Biomedical Research. Breakthrough microprobe and nanoprobe technologies, involving X-ray, visible and infrared light can focus into different components of mammalian cells in order to interrogate the biochemistry that is occurring therein. Each of the different wavelengths of light provides complementary biochemical information that enables multi-layered information on changes in cells that occur as a function of drug treatments a .... Nanoprobe and Microprobe Structural and Spectroscopic Studies in Biomedical Research. Breakthrough microprobe and nanoprobe technologies, involving X-ray, visible and infrared light can focus into different components of mammalian cells in order to interrogate the biochemistry that is occurring therein. Each of the different wavelengths of light provides complementary biochemical information that enables multi-layered information on changes in cells that occur as a function of drug treatments and disease processes. This will provide unprecedented information as to where drugs go and how they are transformed inside cells that, in turn, may revolutionalise the way in which new drugs are designed that have higher specificity and lower side effects.
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    Funded Activity

    Discovery Projects - Grant ID: DP0558652

    Funder
    Australian Research Council
    Funding Amount
    $420,000.00
    Summary
    An Integrated Approach Towards Development of Highly Specific Chemotherapeutics. Many diseases are caused or can be treated by modifying the activities of particular enzymes. Molecules that affect enzymatic activities have potential as therapeutic agents. A successful approach to the discovery of new drug molecules is to design them based on very detailed knowledge of how the target enzyme works. In this project, a highly motivated team of scientists will use state of the art instruments and the .... An Integrated Approach Towards Development of Highly Specific Chemotherapeutics. Many diseases are caused or can be treated by modifying the activities of particular enzymes. Molecules that affect enzymatic activities have potential as therapeutic agents. A successful approach to the discovery of new drug molecules is to design them based on very detailed knowledge of how the target enzyme works. In this project, a highly motivated team of scientists will use state of the art instruments and their combined creativity to understand the intimate details of how one large group of enzymes work. The enzymes selected are the bimetallic hydrolases, many of which are associated with disorders including osteoporosis, mental illnesses, cystic fibrosis and various types of cancer.
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    Funded Activity

    Discovery Projects - Grant ID: DP0556978

    Funder
    Australian Research Council
    Funding Amount
    $390,000.00
    Summary
    Bioinorganic Chemistry of Molybdenum. Enzymes containing the trace element molybdenum play crucial roles in plant, animal and human health, drug metabolism, environmental processes and climate. This international, multidisciplinary project will advance our understanding of the structure and function of these enzymes at the atomic level and inform strategies to reduce the impact of crop, livestock and human diseases and adverse environmental (e.g. algal blooms, leaching of toxic arsenic) and clim .... Bioinorganic Chemistry of Molybdenum. Enzymes containing the trace element molybdenum play crucial roles in plant, animal and human health, drug metabolism, environmental processes and climate. This international, multidisciplinary project will advance our understanding of the structure and function of these enzymes at the atomic level and inform strategies to reduce the impact of crop, livestock and human diseases and adverse environmental (e.g. algal blooms, leaching of toxic arsenic) and climatic events. Effective strategies would be of enormous social and economic benefit to Australia. The training of skilled scientists and access to major overseas facilities are additional benefits of the project.
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    Funded Activity

    Discovery Projects - Grant ID: DP0344060

    Funder
    Australian Research Council
    Funding Amount
    $220,000.00
    Summary
    In situ Raman spectroscopic studies of iron and calcium biomaterials in marine chiton teeth. The future of biomaterial science in Australia depends upon the discovery and refinement of new materials. This project characterizes the biomaterials in the feeding apparatus of Australian marine chitons (Mollusca: Polyplacophora). Like many biological structures, chiton teeth are sophisticated composite materials that have been refined by evolution over millions of years. Initially composed of the poly .... In situ Raman spectroscopic studies of iron and calcium biomaterials in marine chiton teeth. The future of biomaterial science in Australia depends upon the discovery and refinement of new materials. This project characterizes the biomaterials in the feeding apparatus of Australian marine chitons (Mollusca: Polyplacophora). Like many biological structures, chiton teeth are sophisticated composite materials that have been refined by evolution over millions of years. Initially composed of the polysaccharide chitin, these extremely hard teeth are mineralized with calcium and iron compounds and used to excavate the rocks on which they live, as they graze for food. Understanding the mechanism of biomineralization is vital for devising synthetic routes to composite materials for industrial purposes.
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