Increasing solid electrolyte conductivity through defect design. This project aims to engineer electrolyte materials, based on organic ionic plastic crystals, and use isomeric doping to improve the ionic conductivity. The development of safer batteries relies on eliminating the volatile and flammable solvents commonly used as the electrolyte. Improving the safety and performance of batteries is important as electricity costs increase. Solid state ionic electrolytes can address leakage and volati ....Increasing solid electrolyte conductivity through defect design. This project aims to engineer electrolyte materials, based on organic ionic plastic crystals, and use isomeric doping to improve the ionic conductivity. The development of safer batteries relies on eliminating the volatile and flammable solvents commonly used as the electrolyte. Improving the safety and performance of batteries is important as electricity costs increase. Solid state ionic electrolytes can address leakage and volatility problems, but the conductivity must be improved if these materials are to support high battery power. The project’s electrolyte materials can be used in lithium metal batteries, which have higher theoretical energy densities than traditional lithium ion batteries. This project will develop new solid state electrolytes, with improved conductivity, and use these materials in emerging lithium battery technologies.Read moreRead less
Self-assembly and complexity: networks and patterns from materials to markets. Self-assembly leads the formation of patterns without external directing agents. It is responsible for the growth of complex multiscale structures found in biology and materials science and is a crucial concept for development of viable nanotechnologies. Complex systems, from biological ecosystems to financial markets and the Internet, are also characterized by spontaneous clustering and linkages that determine their ....Self-assembly and complexity: networks and patterns from materials to markets. Self-assembly leads the formation of patterns without external directing agents. It is responsible for the growth of complex multiscale structures found in biology and materials science and is a crucial concept for development of viable nanotechnologies. Complex systems, from biological ecosystems to financial markets and the Internet, are also characterized by spontaneous clustering and linkages that determine their collective behaviour. The project will investigate in detail the geometry, topology, materials science and statistical physics of networks, leading to design and characterization of robust self-assembled materials and complex systems.Read moreRead less
Linkage Infrastructure, Equipment And Facilities - Grant ID: LE170100235
Funder
Australian Research Council
Funding Amount
$388,000.00
Summary
Spectroscopy and imaging platform for photoactive materials. This project aims to establish a comprehensive analytic tool-box to characterise solution-processable materials for thin-film solar cells based on materials such as perovskites. These materials have light harvesting properties with absorption edges beyond 800 nm. This project will focus on time-resolved transient absorption and microwave conductivity phenomena and on lock-in thermographic imaging capabilities. This will accelerate mate ....Spectroscopy and imaging platform for photoactive materials. This project aims to establish a comprehensive analytic tool-box to characterise solution-processable materials for thin-film solar cells based on materials such as perovskites. These materials have light harvesting properties with absorption edges beyond 800 nm. This project will focus on time-resolved transient absorption and microwave conductivity phenomena and on lock-in thermographic imaging capabilities. This will accelerate materials and technological development in this research field. This project is expected to help the local and global energy sector transition to sustainable energy, provide a competitive edge for commercialisations of solar technologies in Australia, and benefit the economy, environment and national security.Read moreRead less
Tailoring the Shape, Size and Orientation of Metal Nanocrystals via Swift Heavy Ion Irradiation. This proposal is consistent with National Research Priority 3: Frontier Technologies for Building and Transforming Australian Industries and the Priority Goals: Breakthrough Science, Advanced Materials and Frontier Technologies. Our ability to tailor the shape, size and orientation of metal nanocrystals will broaden the domestic knowledge base, enhance the national research profile and train young ....Tailoring the Shape, Size and Orientation of Metal Nanocrystals via Swift Heavy Ion Irradiation. This proposal is consistent with National Research Priority 3: Frontier Technologies for Building and Transforming Australian Industries and the Priority Goals: Breakthrough Science, Advanced Materials and Frontier Technologies. Our ability to tailor the shape, size and orientation of metal nanocrystals will broaden the domestic knowledge base, enhance the national research profile and train young scientists, particularly in the use of two national facilities: the Australian Synchrotron and the ANU Heavy-Ion Accelerator Facility. Furthermore, domestic capabilities in materials characterisation and nanotechnology will be bolstered, state-of-the-art domestic industry will be enhanced and new technological applications will be enabled.Read moreRead less
Linkage Infrastructure, Equipment And Facilities - Grant ID: LE0668469
Funder
Australian Research Council
Funding Amount
$195,000.00
Summary
The Rapid Kinetics Research Facility - an Integrated system for rapid kinetic studies of materials using synchrotron radiation. The Rapid Kinetics Research Facility will provide Australian researchers with the tools to follow and understand very rapid processes within advanced materials. This will greatly assist in: i) the development of more efficient materials processing technologies, ii) the development of advanced catalysts able to neutralize pollutants and reduce the energy cost of industri ....The Rapid Kinetics Research Facility - an Integrated system for rapid kinetic studies of materials using synchrotron radiation. The Rapid Kinetics Research Facility will provide Australian researchers with the tools to follow and understand very rapid processes within advanced materials. This will greatly assist in: i) the development of more efficient materials processing technologies, ii) the development of advanced catalysts able to neutralize pollutants and reduce the energy cost of industrial processes, iii) the development of viable hydrogen fuel storage media and iv) the training of young Australian researchers in advanced methods of materials characterization. Read moreRead less
Vapour phase detection of chemical warfare agents. This project aims to create luminescent plastic optoelectronic materials that can detect airborne chemical warfare agents, particularly nerve agents. Such agents are often odourless and invisible at lethal concentrations, so technology must detect and identify them before exposure. The intended outcomes are design rules for sensitive and selective materials that can be used in a handheld infield detector to sense chemical warfare agents based on ....Vapour phase detection of chemical warfare agents. This project aims to create luminescent plastic optoelectronic materials that can detect airborne chemical warfare agents, particularly nerve agents. Such agents are often odourless and invisible at lethal concentrations, so technology must detect and identify them before exposure. The intended outcomes are design rules for sensitive and selective materials that can be used in a handheld infield detector to sense chemical warfare agents based on the materials’ photophysical properties, and new analytical methods and sensing protocols. This research will be of interest to security agencies in Australia and internationally, and will better protect our military.Read moreRead less
Tailoring superconducting hybrid multilayered film systems for electric and electronic applications. This project focuses on the development of new scientific and technological aspects of the fabrication, properties and operation of novel hybrid systems for revolutionizing electricity handling and electronics. It will also solve some existing problems of film structures with promising multilayer technology. Hybrid systems, often make the headlines in science and are gaining an increasingly promi ....Tailoring superconducting hybrid multilayered film systems for electric and electronic applications. This project focuses on the development of new scientific and technological aspects of the fabrication, properties and operation of novel hybrid systems for revolutionizing electricity handling and electronics. It will also solve some existing problems of film structures with promising multilayer technology. Hybrid systems, often make the headlines in science and are gaining an increasingly promising outlook in materials engineering, nanotechnology and electronics, promising eventual application in a broad range of industries. This project will establish Australia's capability at the forefront in this area. The outcomes predicted will benefit existing Australian companies and may establish new companies dealing with these hybrid systems.Read moreRead less
Understanding structure-property relations in amorphous silicon. The research is in a field of high national priority, namely nanotechnology and has a number of clear benefits for Australia. 1) Ensures Australia maintains its current position as a world leader in the fields of nanotechnology and material science; 2) Provides training to students in the exciting areas of synchrotron operation and nanotechnology. 3) Enables leverage for further funding from both companies and international funding ....Understanding structure-property relations in amorphous silicon. The research is in a field of high national priority, namely nanotechnology and has a number of clear benefits for Australia. 1) Ensures Australia maintains its current position as a world leader in the fields of nanotechnology and material science; 2) Provides training to students in the exciting areas of synchrotron operation and nanotechnology. 3) Enables leverage for further funding from both companies and international funding sources; and 4) Supports Australian industry by contributing to research which has resulted in the formation of a new company.Read moreRead less
Australian Laureate Fellowships - Grant ID: FL210100017
Funder
Australian Research Council
Funding Amount
$3,115,000.00
Summary
Nanoscale-interactions making future functional materials more powerful . Traditional crystal chemistry can no longer meet the demands for development of new functional materials - the foundation of modern industry. The program aims to overcome this challenge by introducing a new strategy into experimental and theoretical research to transform our understanding and application of nanoscale structural and chemical features in materials. The program expects to build new crystal chemistry that incl ....Nanoscale-interactions making future functional materials more powerful . Traditional crystal chemistry can no longer meet the demands for development of new functional materials - the foundation of modern industry. The program aims to overcome this challenge by introducing a new strategy into experimental and theoretical research to transform our understanding and application of nanoscale structural and chemical features in materials. The program expects to build new crystal chemistry that includes nanoscale-interaction information and deep machine-learning to improve the predictability of material properties. Potential outcomes of the program include enhanced capacity for revolutionary materials development thus keeping Australia's leading position in innovative technology, benefiting academia and industry.Read moreRead less
Linkage Infrastructure, Equipment And Facilities - Grant ID: LE170100072
Funder
Australian Research Council
Funding Amount
$600,000.00
Summary
Facility for exploring light-matter interactions in space, time and energy. This project aims to create a readily accessible facility consisting of a suite of tools to study light-matter interactions in materials, molecules and biological systems. Understanding light-matter interactions offers insight into the properties of nano- and biomaterials. The project intends to combine local probes and pump-probe spectroscopy methods for studying nanoscale femtosecond dynamics. It will be accessible to ....Facility for exploring light-matter interactions in space, time and energy. This project aims to create a readily accessible facility consisting of a suite of tools to study light-matter interactions in materials, molecules and biological systems. Understanding light-matter interactions offers insight into the properties of nano- and biomaterials. The project intends to combine local probes and pump-probe spectroscopy methods for studying nanoscale femtosecond dynamics. It will be accessible to a broad user base, cementing Australia’s leadership in ultrafast spectroscopy techniques and nano/bio-materials. The facility will provide a window to the quantum nanoworld, with potential for developing new energy efficient light sources, light-harvesting systems and sensors.Read moreRead less