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Understanding the deep mantle: experimental petrology at very high pressures. The great processes that shape the Earth at its surface, including plate tectonics and continental drift, can only be understood by appreciating how the interior of the Earth works. However, studying the deep Earth is difficult because of the enormous pressures and temperatures involved. This research proposes to simulate conditions in the Earth's lower mantle (that is, below 670 km in depth) by making use of an Austra ....Understanding the deep mantle: experimental petrology at very high pressures. The great processes that shape the Earth at its surface, including plate tectonics and continental drift, can only be understood by appreciating how the interior of the Earth works. However, studying the deep Earth is difficult because of the enormous pressures and temperatures involved. This research proposes to simulate conditions in the Earth's lower mantle (that is, below 670 km in depth) by making use of an Australian invented diamond-based ceramic, to double the pressure at which experiments can be performed. The information gained from this fundamental research will help predict how giant ore bodies form. The development of the high-pressure apparatus will also aid material scientists in their quest for novel materials.Read moreRead less
Seismic wavespeeds and attenuation in upper-mantle rocks: a laboratory study of the effect of partial melting. The influence of partial melting on the seismic properties of the Earth's upper mantle will be explored through a laboratory study. Synthetic rock specimens consisting of the upper-mantle mineral olivine and a small proportion of basaltic magma will be prepared and their grain-scale melt distribution will be characterised. The seismic properties of these materials will be measured at ....Seismic wavespeeds and attenuation in upper-mantle rocks: a laboratory study of the effect of partial melting. The influence of partial melting on the seismic properties of the Earth's upper mantle will be explored through a laboratory study. Synthetic rock specimens consisting of the upper-mantle mineral olivine and a small proportion of basaltic magma will be prepared and their grain-scale melt distribution will be characterised. The seismic properties of these materials will be measured at high temperatures and seismic frequencies with novel locally developed equipment. Comparison with melt-free equivalents will allow the influence of the added magma to be quantified, allowing robust interpretation of seismological models of Earth structure with implications for its chemical and dynamical evolution.Read moreRead less
Linkage Infrastructure, Equipment And Facilities - Grant ID: LE0347937
Funder
Australian Research Council
Funding Amount
$300,000.00
Summary
Imaging Raman Spectrometer. An Imaging Raman spectrometer generates image maps 10x faster than older instruments and is required to meet escalating demand. This results from innovative use of Raman to characterise organics, polymers, thin films and biomaterials, which underpins rapidly evolving research in nanotechnology and biotechnology. Many innovations have come from QUT's Centre for Instrumental and Developmental Chemistry, which will host the spectrometer and is a key resource for all Qu ....Imaging Raman Spectrometer. An Imaging Raman spectrometer generates image maps 10x faster than older instruments and is required to meet escalating demand. This results from innovative use of Raman to characterise organics, polymers, thin films and biomaterials, which underpins rapidly evolving research in nanotechnology and biotechnology. Many innovations have come from QUT's Centre for Instrumental and Developmental Chemistry, which will host the spectrometer and is a key resource for all Queensland universities. The availability of its high quality spectroscopic facility has enabled leading edge developments by local companies and the Imaging Raman spectrometer will significantly accelerate and enhance current and future project outcomes.Read moreRead less
Modifying and Improving Porous Sol-Gel Materials for Water Purification. XeroCoat is commercialising nanotechnology research out of UQ's Physics department. XeroCoat has received much local and international interest in its signature product 'XeroCoat'. The company is rapidly expanding and has established new research facilities with production facilities to be set-up. This will result in high technology, employment growth for Australia. Links with Flinders could see expansion into SA. The c ....Modifying and Improving Porous Sol-Gel Materials for Water Purification. XeroCoat is commercialising nanotechnology research out of UQ's Physics department. XeroCoat has received much local and international interest in its signature product 'XeroCoat'. The company is rapidly expanding and has established new research facilities with production facilities to be set-up. This will result in high technology, employment growth for Australia. Links with Flinders could see expansion into SA. The company operates in 'Sol-Gel' nanotechnology, which has huge global, academic and commercial interest. However in Australia this technology has only been serviced by Flinders, ANSTO and ANSTO's spin-out company Ceramisphere. The project will help to build a new Australian high tech industry in sol-gel nanotechnology.Read moreRead less
Electroacoustic and Acoustic Characterisation of Nanoporous Colloids. Nanoporous materials have an enormous technological importance in many different industries, both traditional and advanced. New technologies require new materials, which are being produced in thousands of laboratories worldwide. The methods for characterising these materials are slow and expensive. A new suite of measurements will be developed, based on acoustic methods, that is rapid and relatively inexpensive. It will not o ....Electroacoustic and Acoustic Characterisation of Nanoporous Colloids. Nanoporous materials have an enormous technological importance in many different industries, both traditional and advanced. New technologies require new materials, which are being produced in thousands of laboratories worldwide. The methods for characterising these materials are slow and expensive. A new suite of measurements will be developed, based on acoustic methods, that is rapid and relatively inexpensive. It will not only give parameters such as particle size, porosity and pore size, which are complementary to existing methods, but also important new information about charge and conductivity that is not presently available.Read moreRead less
GRANULAR MATERIALS IN 3D: Structural, mechanical and dynamic properties from the grain-scale and beyond. Granular materials are the most abundant class of materials processed, stored or handled. They span from cereals to advanced-new-materials and, although simple in composition, their behaviour remains elusive. Through the unique combination of an advanced X-ray tomography facility and cutting-edge 3D network analysis and statistical mechanics approach, the structure, mechanics and dynamic be ....GRANULAR MATERIALS IN 3D: Structural, mechanical and dynamic properties from the grain-scale and beyond. Granular materials are the most abundant class of materials processed, stored or handled. They span from cereals to advanced-new-materials and, although simple in composition, their behaviour remains elusive. Through the unique combination of an advanced X-ray tomography facility and cutting-edge 3D network analysis and statistical mechanics approach, the structure, mechanics and dynamic behaviour of these systems will be explored at the grain-scale.
A greater understanding of this class of materials, which ranks second only to water on the scale of priorities of human activity, will have strong scientific, technological and economical impact in a wide range of fields from concrete to photonic-materials.Read moreRead less