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Development of ultrafine Grained Steels. This project will develop new methods to produce steels with much finer microstructures, and investigate how these microstructures form. This will markedly increase the strength and toughness of these steels, which is particularly required for the pipeline, off shore platform and large construction industries. The method to be used involves controlling the hot deformation of the steel and control of the phase transformation during or after deformation. ....Development of ultrafine Grained Steels. This project will develop new methods to produce steels with much finer microstructures, and investigate how these microstructures form. This will markedly increase the strength and toughness of these steels, which is particularly required for the pipeline, off shore platform and large construction industries. The method to be used involves controlling the hot deformation of the steel and control of the phase transformation during or after deformation. Current work has shown that it is possible to reduce the grain size from 5 to 1microns using quite simple methods.Read moreRead less
Electrolytic Recovery of Titanium and Direct Deposition of Fe-Ti Alloys using Novel Electrolytes. The use of novel electrolytes based on ionic liquids will be investigated with a view to developing efficient means of titanium (Ti) recovery and purification. The nature of the electrolyte used as well as the electrode substrate and the electrochemical parameters will be optimised with a view to achieving Ti deposits of high purity or Fe-Ti alloys of controlled composition. The effect of these pa ....Electrolytic Recovery of Titanium and Direct Deposition of Fe-Ti Alloys using Novel Electrolytes. The use of novel electrolytes based on ionic liquids will be investigated with a view to developing efficient means of titanium (Ti) recovery and purification. The nature of the electrolyte used as well as the electrode substrate and the electrochemical parameters will be optimised with a view to achieving Ti deposits of high purity or Fe-Ti alloys of controlled composition. The effect of these parameters on the morphology of the deposits obtained will be determined. The products obtained here are expected to find application in construction industries and for energy storage.Read moreRead less
Linkage Infrastructure, Equipment And Facilities - Grant ID: LE0346666
Funder
Australian Research Council
Funding Amount
$260,000.00
Summary
Mobile high power diode laser for thermal processing applications. This proposal seeks to establish a mobile, high-power diode laser facility for thermal processing of in-situ components in the power generation, defence, shipbuilding and mining industries. Diode lasers offer significant advantages for laser thermal processing over conventional CO2 and Nd:YAG lasers in terms of their output wavelength, size and efficiency. The mobile high power diode laser facility will help build a strong infr ....Mobile high power diode laser for thermal processing applications. This proposal seeks to establish a mobile, high-power diode laser facility for thermal processing of in-situ components in the power generation, defence, shipbuilding and mining industries. Diode lasers offer significant advantages for laser thermal processing over conventional CO2 and Nd:YAG lasers in terms of their output wavelength, size and efficiency. The mobile high power diode laser facility will help build a strong infrastructure for in-situ repair of worn components and is expected to reduce overall component repair costs and time.Read moreRead less
Linkage Infrastructure, Equipment And Facilities - Grant ID: LE0346968
Funder
Australian Research Council
Funding Amount
$377,000.00
Summary
Victorian Surface Science Partnership. The aim of this proposal is to build a cooperative grouping of surface science resources for Victoria to facilitate world-class research on the nature and behaviour of chemical, semiconductor, environmental, biological and industrial materials. The new Facility will provide state-of-the-art infrastructure necessary for the participating groups to maintain their international reputations, will build stronger research collaborations between the partners, will ....Victorian Surface Science Partnership. The aim of this proposal is to build a cooperative grouping of surface science resources for Victoria to facilitate world-class research on the nature and behaviour of chemical, semiconductor, environmental, biological and industrial materials. The new Facility will provide state-of-the-art infrastructure necessary for the participating groups to maintain their international reputations, will build stronger research collaborations between the partners, will attract researchers from overseas and will be used by a range of commercial clients. The theme of "surface characterisation" draws together a great diversity of projects being undertaken by the collaborating group comprising around 30 research groups and commercial entities.Read moreRead less
Giant Magnetocaloric Materials and Room Temperature Refrigeration. The objectives of this project are to develop new magnetocaloric materials, study their properties and their potential as components of advanced magnetic refrigeration systems. The outcomes of this project will provide an opportunity for Australian industry to produce magnetocaloric materials and magnetic refrigeration systems with higher quality, to embark on this novel innovation technology in an effective way, and to access th ....Giant Magnetocaloric Materials and Room Temperature Refrigeration. The objectives of this project are to develop new magnetocaloric materials, study their properties and their potential as components of advanced magnetic refrigeration systems. The outcomes of this project will provide an opportunity for Australian industry to produce magnetocaloric materials and magnetic refrigeration systems with higher quality, to embark on this novel innovation technology in an effective way, and to access the international magnetic refrigeration market. In the longer term, the successful outcome of this research could lead to energy savings and an overall reduction in greenhouse gas emissions, as well as contributing to the associated economic and social goals.Read moreRead less
Rapid Manufacturing of Aluminium. The project has both national and international significance and addresses the National Research Priority: Frontier Technologies - Advanced Materials (light alloys). Rapid manufacturing produces functional parts directly from a computer solid model using a layer wise rapid prototyping device. Rapid manufacturing is particularly important in the Australian context where small production runs means that tooling and inventory costs are a much larger proportion of t ....Rapid Manufacturing of Aluminium. The project has both national and international significance and addresses the National Research Priority: Frontier Technologies - Advanced Materials (light alloys). Rapid manufacturing produces functional parts directly from a computer solid model using a layer wise rapid prototyping device. Rapid manufacturing is particularly important in the Australian context where small production runs means that tooling and inventory costs are a much larger proportion of the total cost than in North American, European or Asian countries. With a large installed machine base, a substantial automotive and automotive component industry and a major aluminium industry, this project can assist in the further development of these industries.Read moreRead less
Mechanics of micro cross wedge manufacturing. This novel research concentrates on the development of state-of-the-art micro processing technology and advanced simulation skills, and will develop an effective method to produce micro products. The project will further enhance the existing collaboration between Tokyo Metropolitan University, Japan, Northeastern University, China, and the University of Wollongong, and will provide an opportunity for postgraduates and postdoctoral fellows to work wit ....Mechanics of micro cross wedge manufacturing. This novel research concentrates on the development of state-of-the-art micro processing technology and advanced simulation skills, and will develop an effective method to produce micro products. The project will further enhance the existing collaboration between Tokyo Metropolitan University, Japan, Northeastern University, China, and the University of Wollongong, and will provide an opportunity for postgraduates and postdoctoral fellows to work with international experts in the metal manufacturing area. The work will enhance the research basis for microforming in Australia and significantly benefit micro manufacturing industries, which will improve Australia's reputation in, and knowledge of, micro manufacturing of products.Read moreRead less
Quantitative polarisation phase microscopy: A new tool for advances in structural analysis and biophotonics. Innovation in biomedical research is driven by technology in optical imaging. Optical imaging methods including polarisation microscopy are widely accepted and are at the forefront of biomedical scientific discoveries. This project undertakes fundamental and applied research innovatively combining polarisation imaging and quantitative phase imaging microscopy to uniquely quantify the phys ....Quantitative polarisation phase microscopy: A new tool for advances in structural analysis and biophotonics. Innovation in biomedical research is driven by technology in optical imaging. Optical imaging methods including polarisation microscopy are widely accepted and are at the forefront of biomedical scientific discoveries. This project undertakes fundamental and applied research innovatively combining polarisation imaging and quantitative phase imaging microscopy to uniquely quantify the physical thickness and morphology of birefringent specimens such as the cardiac muscle cell. This project, while of substantial intellectual merit in its own right, could also have the potential to lead to the detection of the mechanisms related to heart failure. Read moreRead less
High-resolution In-situ Characterisation of the Vapour-deposition Growth, the Structures and the Plasmonic Properties of Metallic Nanostructures. This project will examine the atomic-scale nucleation and growth of metallic nanostructures in the transmission electron microscope, and will use electron spectroscopy to reveal the relationship between nanoscale morphology and key optical properties. The resulting insights into the kinetics and thermodynamics of nanostructural nucleation and growth wi ....High-resolution In-situ Characterisation of the Vapour-deposition Growth, the Structures and the Plasmonic Properties of Metallic Nanostructures. This project will examine the atomic-scale nucleation and growth of metallic nanostructures in the transmission electron microscope, and will use electron spectroscopy to reveal the relationship between nanoscale morphology and key optical properties. The resulting insights into the kinetics and thermodynamics of nanostructural nucleation and growth will be vital for the design and synthesis of nanomaterials through vapour deposition processes. The project also will provide a deep understanding of the origin of the surface plasmon resonances of metallic nanostructures, which will provide the basis for development of advanced materials for applications in solid-state lighting, electronics, sensors and other technologies.Read moreRead less
Optimisation of Nanostructure in new Microalloyed Strip Cast Steels for Control of Properties. Australia is an internationally competitive producer of steel and stands to benefit from the improvements in steel design made possible by a more fundamental understanding of the relationship between steel nanostructure and steel properties and performance. Using targeted microalloying additions, this project aims to develop a new class of strip cast steels that can serve entirely new applications and ....Optimisation of Nanostructure in new Microalloyed Strip Cast Steels for Control of Properties. Australia is an internationally competitive producer of steel and stands to benefit from the improvements in steel design made possible by a more fundamental understanding of the relationship between steel nanostructure and steel properties and performance. Using targeted microalloying additions, this project aims to develop a new class of strip cast steels that can serve entirely new applications and so open up new market growth opportunities in Australia's manufacturing industry. This research falls under the national research priority 'Frontier Technologies for Transforming Australian Industry'.Read moreRead less