Linkage Infrastructure, Equipment And Facilities - Grant ID: LE100100149
Funder
Australian Research Council
Funding Amount
$500,000.00
Summary
Spectroscopic imaging for materials, minerals and life sciences. The spectroscopic imaging equipment highlighted in this proposal will produce a number of outcomes of national benefit. First, it will elevate the impact of research in materials, minerals, and life sciences in Australia, all of which are key areas for the national economy and community. Second, the equipment will be integral to the teaching and research nexus and experiential learning facility for a new wave of materials science ....Spectroscopic imaging for materials, minerals and life sciences. The spectroscopic imaging equipment highlighted in this proposal will produce a number of outcomes of national benefit. First, it will elevate the impact of research in materials, minerals, and life sciences in Australia, all of which are key areas for the national economy and community. Second, the equipment will be integral to the teaching and research nexus and experiential learning facility for a new wave of materials science and engineering students to be educated at UniSA in the EIF-funded M2 building at Mawson Lakes. Finally, the anticipated outcomes of the research to be supported are significant and relate clearly to a number of National Research Priorities.Read moreRead less
Sustainable Hydrogen Production from Used Water. The project aims to address the pressing challenge of water scarcity in hydrogen production by developing an innovative approach of using used water as the feed for water electrolysis. The project will result in an in-depth understanding of the impacts of water impurities in used water on the performance and durability of water electrolysers, and develop guidelines for the design of highly durable water electrolysers and the operation and upgrade ....Sustainable Hydrogen Production from Used Water. The project aims to address the pressing challenge of water scarcity in hydrogen production by developing an innovative approach of using used water as the feed for water electrolysis. The project will result in an in-depth understanding of the impacts of water impurities in used water on the performance and durability of water electrolysers, and develop guidelines for the design of highly durable water electrolysers and the operation and upgrade of existing wastewater treatment plants. The project will advance the practical applications of water electrolysis for scalable and sustainable hydrogen production and help Australia secure a leading position in the global emerging hydrogen economy.Read moreRead less
Magnetic liquid marbles: a new droplet manipulation technique for channel-free microfluidics. The project will explore the feasibility of developing a new droplet-manipulation strategy by using magnetically responsive liquid marbles capable of hosting various liquid droplets. It will significantly advance the development of a new generation of microfluidic devices: magnetic field-actuated channel-free droplet microfluidics.
Highly ordered and tunable extracellular DNA micro- and nanopatterns for investigating the attachment mechanisms of pseudomonas aeruginosa to surfaces. Preventing infectious bacteria from colonising artificial surfaces is a major scientific challenge. New engineered surfaces will be designed to better understand how the important pathogen Pseudomonas aeruginosa sticks to surfaces, facilitating new ways of reducing infections acquired from the surface of, for example, medical devices.
All-solid-state Z-scheme photocatalysts for water treatment. The project aims to develop high-performance Z-scheme photocatalysts by using two-dimensional (2D) semiconductors as building blocks for low-cost, highly-efficient pathogen inactivation and emerging pollutant degradation in stormwater treatment. The project expects to generate new fundamental knowledge in the area of photocatalyst design and Z-scheme photocatalytic system, and advance the application of photocatalytic oxidation in wate ....All-solid-state Z-scheme photocatalysts for water treatment. The project aims to develop high-performance Z-scheme photocatalysts by using two-dimensional (2D) semiconductors as building blocks for low-cost, highly-efficient pathogen inactivation and emerging pollutant degradation in stormwater treatment. The project expects to generate new fundamental knowledge in the area of photocatalyst design and Z-scheme photocatalytic system, and advance the application of photocatalytic oxidation in water treatment. The expected outcomes of the project include novel 2D Z-scheme photocatalysts and enhanced capacity in stormwater management.Read moreRead less
High efficiency dye-sensitised solar cells containing multiple sensitisers. This project aims to develop a new scalable approach suitable for industrial production of high efficiency dye-sensitised solar cells (DSCs) on both glass and flexible polymer substrates. The success of the project would be a breakthrough in DSC technology, bringing the technology a significant step closer to wide-spread commercial applications.
Water-phase Assembly of Durable, Superamphiphobic, Self-cleaning Surfaces. Self-cleaning surfaces offer an easy to maintain, environmentally friendly way of keeping surfaces clean - important for daily life, healthcare and industry. Using a water-phase process to prepare durable, self-cleaning (based on superamphiphobicity) surfaces is highly promising for practical uses, but remains challenging to perform. The present work aims to develop new knowledge on how to create superamphiphobic, self-cl ....Water-phase Assembly of Durable, Superamphiphobic, Self-cleaning Surfaces. Self-cleaning surfaces offer an easy to maintain, environmentally friendly way of keeping surfaces clean - important for daily life, healthcare and industry. Using a water-phase process to prepare durable, self-cleaning (based on superamphiphobicity) surfaces is highly promising for practical uses, but remains challenging to perform. The present work aims to develop new knowledge on how to create superamphiphobic, self-cleaning surfaces using a marine-mussel-inspired dopamine underwater assembly principle. The new technology developed is expected to be useful for wide production of durable self-cleaning coatings for diverse applications.Read moreRead less
Development of the thinnest possible, multifunctional DNA-nanoparticle membranes for ultrafast filtration and smart sensing. Development of ultrathin and multifunctional membranes is currently in urgent need to improve our technologies in energy, environment and healthcare. This project will apply innovative nanobiomaterials to build such membrane systems and establish the design rules and develop key technologies.
Segmental fibres having periodically-repeating multicomponent segments from T-junction microfluidic electrospinning. Segmental fibres, which have periodically-repeating multi-component segments along their length, represent a new fibre type offering enormous potential in creating new fibre functions. The present work aims to develop a technical platform to prepare segmental fibres and new knowledge on how the fibre segments contribute to the property, functionality and inter-fibrous interaction ....Segmental fibres having periodically-repeating multicomponent segments from T-junction microfluidic electrospinning. Segmental fibres, which have periodically-repeating multi-component segments along their length, represent a new fibre type offering enormous potential in creating new fibre functions. The present work aims to develop a technical platform to prepare segmental fibres and new knowledge on how the fibre segments contribute to the property, functionality and inter-fibrous interaction of fibres. This will be achieved using a special microfluidic electrospinning technique. The segmental fibres developed will be useful for development of various new functional fibres for diverse applications. Read moreRead less
Interface structures mediating load transfer between soft and hard tissues. This project aims to develop a novel technology platform to mediate load transfer between synthetic and biological materials with dissimilar mechanical properties, creating an effective interface mechanism. It will generate new knowledge in materials engineering by combining interdisciplinary expertise and state-of-the-art technologies in computational modelling, biomaterials, and additive manufacturing. Expected outcome ....Interface structures mediating load transfer between soft and hard tissues. This project aims to develop a novel technology platform to mediate load transfer between synthetic and biological materials with dissimilar mechanical properties, creating an effective interface mechanism. It will generate new knowledge in materials engineering by combining interdisciplinary expertise and state-of-the-art technologies in computational modelling, biomaterials, and additive manufacturing. Expected outcomes are high-tech ceramic structures optimized to interface effectively between synthetic soft tissues and natural hard tissues. This could ultimately benefit Australian industry engaged in developing next-generation synthetic orthopaedic solutions, providing a significant competitive advantage in an expanding global market.Read moreRead less