Topological semiconductors resonate with an elusive form of radiation. The aims of the project are to fill a substantial knowledge gap in a class of novel semiconductors that can function as sensors in a frequency range where conventional semiconductors do not work. The way these materials interact with light is not fully understood. The project expects to provide this understanding of great significance and generate new knowledge in physics and materials science. Expected outcomes include a res ....Topological semiconductors resonate with an elusive form of radiation. The aims of the project are to fill a substantial knowledge gap in a class of novel semiconductors that can function as sensors in a frequency range where conventional semiconductors do not work. The way these materials interact with light is not fully understood. The project expects to provide this understanding of great significance and generate new knowledge in physics and materials science. Expected outcomes include a results database that will guide experiments and enable future sensor design. The project expects to provide substantial benefits by identifying the best materials for use as sensors in this frequency range, which has applications in communications, defence, and in the Science and Research Priorities of Food and Transport.Read moreRead less
New carbon phases synthesized under extreme conditions. This project aims to address one of the major fundamental puzzles in carbon science; how to experimentally synthesize new phases of carbon predicted by theory. This could be approached via a combination of high pressure and high-energy ion irradiation to transform novel nano-carbon precursors. The expected outcomes include new phases of carbon with unexplored properties, an understanding of the pathways for synthesis of carbon materials, an ....New carbon phases synthesized under extreme conditions. This project aims to address one of the major fundamental puzzles in carbon science; how to experimentally synthesize new phases of carbon predicted by theory. This could be approached via a combination of high pressure and high-energy ion irradiation to transform novel nano-carbon precursors. The expected outcomes include new phases of carbon with unexplored properties, an understanding of the pathways for synthesis of carbon materials, and new computational tools to understand nano-carbon materials under extreme conditions. This should provide benefits for industries seeking advanced materials for modern manufacturing.Read moreRead less
Australian Laureate Fellowships - Grant ID: FL230100176
Funder
Australian Research Council
Funding Amount
$2,920,000.00
Summary
Computational design of frontier materials for sustainable technologies. This Laureate will establish a new and powerful computational materials research platform that uses cutting-edge ab initio calculations and artificial intelligence, to understand and design tailored structures that possess the required new and improved functionalities for tomorrow’s materials. In enabling the development of novel catalysts needed for the generation of green fuels and chemicals, and key quantum devices for q ....Computational design of frontier materials for sustainable technologies. This Laureate will establish a new and powerful computational materials research platform that uses cutting-edge ab initio calculations and artificial intelligence, to understand and design tailored structures that possess the required new and improved functionalities for tomorrow’s materials. In enabling the development of novel catalysts needed for the generation of green fuels and chemicals, and key quantum devices for quantum technologies, this Laureate promises timely support for Australia’s commitment to renewable energies, low emissions and its nascent quantum future. New and existing collaboration with leading international groups underpin significant national benefits including new disciplinary capacity and world-class research.Read moreRead less
Discovery Early Career Researcher Award - Grant ID: DE240100627
Funder
Australian Research Council
Funding Amount
$436,250.00
Summary
Topological phonons in solids. This project aims to create a complete list of possible topological phonons in time-reversal-invariant systems via symmetry analysis, to determine ideal topological phononic materials, and to study topological phonon-related properties and possible applications. The significant outcomes of this project will be the generation of new knowledge that will help conclude the search for novel topological phonons and the prediction of novel topological phononic materials b ....Topological phonons in solids. This project aims to create a complete list of possible topological phonons in time-reversal-invariant systems via symmetry analysis, to determine ideal topological phononic materials, and to study topological phonon-related properties and possible applications. The significant outcomes of this project will be the generation of new knowledge that will help conclude the search for novel topological phonons and the prediction of novel topological phononic materials based on the complete classification list of topological phonons. The outcomes of this project should unlock the physics of the exotic topological phonons and lay a solid foundation for applying topological phononic materials based on their unprecedented properties.Read moreRead less
Giant magnetic-thermoelectricity in topological materials . This project aims to explore magnetic field-induced exotic thermoelectricity in emerging topological materials and develop novel magnetic-field-mediated heat-to-electricity generators and coolers. The significance and outcomes of this project will be the discovery of new magnetic topological materials with thermoelectric conversion efficiency superior to traditional thermoelectric materials and unlocking the physics of the exotic magnet ....Giant magnetic-thermoelectricity in topological materials . This project aims to explore magnetic field-induced exotic thermoelectricity in emerging topological materials and develop novel magnetic-field-mediated heat-to-electricity generators and coolers. The significance and outcomes of this project will be the discovery of new magnetic topological materials with thermoelectric conversion efficiency superior to traditional thermoelectric materials and unlocking the physics of the exotic magnetic-field-correlated thermoelectric phenomena. The outcomes of this project will offer new avenues for novel applications of quantum topological materials and establish a solid foundation for the next generation of thermoelectric devices for various applications.Read moreRead less