Targeting nano-catalysts for sustainable biorefining and chemical processes. This joint computational-experimental project aims to address one significant global challenge of developing sustainable technologies for important chemical processes. The project expects to discover new advanced nano-catalysts via a rapid single-step process which will replace toxic and corrosive liquid acids, and low efficient solid acids, used in emerging biorefining and petrochemistry. Advanced spectroscopic studies ....Targeting nano-catalysts for sustainable biorefining and chemical processes. This joint computational-experimental project aims to address one significant global challenge of developing sustainable technologies for important chemical processes. The project expects to discover new advanced nano-catalysts via a rapid single-step process which will replace toxic and corrosive liquid acids, and low efficient solid acids, used in emerging biorefining and petrochemistry. Advanced spectroscopic studies, in synergy with state-of-the-art ab initio calculations will be used to explore nanostructure-performance relationship in depth. Such cutting-edge knowledge will have profound implications on designing innovative catalysts with tailored activity for sustainable production of biofuels and chemicals.Read moreRead less
Understanding the structure and unusual properties of ion implanted amorphous germanium. This project explores the properties of a semiconductor (germanium) that has become important in fast electronic applications. Its disordered form has unusual properties and their understanding is a main project aim. Outcomes are: fundamental understanding of an important material, and enabling its technological applications to be fully realised.
Discovery Early Career Researcher Award - Grant ID: DE180100167
Funder
Australian Research Council
Funding Amount
$349,600.00
Summary
Unravelling the spin transport properties in organic spintronic devices. This project aims to understand and control spin transport properties in organic semiconductors (OSC) and develop novel organic spintronic devices. OSCs have become the centre of attention in the spintronics community as they have very small spin-orbit coupling and hyperfine interactions, which lead to very long spin coherence times and make them ideal for spin transport. However, the basic mechanisms of spin injection, tra ....Unravelling the spin transport properties in organic spintronic devices. This project aims to understand and control spin transport properties in organic semiconductors (OSC) and develop novel organic spintronic devices. OSCs have become the centre of attention in the spintronics community as they have very small spin-orbit coupling and hyperfine interactions, which lead to very long spin coherence times and make them ideal for spin transport. However, the basic mechanisms of spin injection, transport, and manipulation in OSCs are still obscure. The project expects to clarify the spin-dynamics, which will advance our understandings of spin transport in OSCs and could contribute to the development of spin-based molecular electronics for future applications.Read moreRead less
Discovery Early Career Researcher Award - Grant ID: DE160101157
Funder
Australian Research Council
Funding Amount
$384,276.00
Summary
Realisation of novel electronic phases in two-dimensional materials. This project will address one of the most pressing concerns facing society today, the efficient generation, storage, transmission and use of energy. Silicon based transistor technology is approaching the hard limit of efficiency set by thermodynamics, requiring new materials to be found that possess electronic properties that break away from conventional transistor technology. Utilising a new facility being installed by the app ....Realisation of novel electronic phases in two-dimensional materials. This project will address one of the most pressing concerns facing society today, the efficient generation, storage, transmission and use of energy. Silicon based transistor technology is approaching the hard limit of efficiency set by thermodynamics, requiring new materials to be found that possess electronic properties that break away from conventional transistor technology. Utilising a new facility being installed by the applicant at the Australian Synchrotron, this project aims to prepare and characterise the electronic properties of free-standing atomically thin bismuth. Successful realisation of this project will provide a radical new approach towards realising more efficient electronic devices for the storage and transmission of energy.Read moreRead less
Australian Laureate Fellowships - Grant ID: FL130100171
Funder
Australian Research Council
Funding Amount
$2,863,442.00
Summary
Computers of the future: atomic-scale logic. Building upon internationally recognised leadership in the development of atomic-scale electronic devices, this project aims to achieve the ultimate in computer miniaturisation: to develop components for the world's first integrated circuit, where all elements are constructed on the atomic scale.
Quantum Design of Majorana Modes in Magnet-Superconductor Hybrid Systems. This project will identify magnet-superconductor hybrid structures which feature topological superconductivity, a new material class which promises to revolutionise future technology. By performing cutting-edge transport calculations, this project will also predict signatures of topological superconductors for ongoing and future experiments. Expected outcomes of this project include identification of suitable candidate mat ....Quantum Design of Majorana Modes in Magnet-Superconductor Hybrid Systems. This project will identify magnet-superconductor hybrid structures which feature topological superconductivity, a new material class which promises to revolutionise future technology. By performing cutting-edge transport calculations, this project will also predict signatures of topological superconductors for ongoing and future experiments. Expected outcomes of this project include identification of suitable candidate materials and protocols for the quantum design of prototype devices. By providing the theory of advanced structures and devices, this project will inform experiments and pave the way for future technology based on topological phenomena.Read moreRead less
Linkage Infrastructure, Equipment And Facilities - Grant ID: LE150100060
Funder
Australian Research Council
Funding Amount
$370,000.00
Summary
Year-round accessible angle-resolved photoemission spectroscopy facility . Year-round accessible angle-resolved photoemission spectroscopy facility: This project aims to create a year-round readily accessible facility for angle-resolved photoemission spectroscopy combined with in situ scanning tunnelling microscopy, cementing Australia's leadership position in novel electronic materials research. The facility is the first of its kind in Australia, housed at the Australian Synchrotron, and access ....Year-round accessible angle-resolved photoemission spectroscopy facility . Year-round accessible angle-resolved photoemission spectroscopy facility: This project aims to create a year-round readily accessible facility for angle-resolved photoemission spectroscopy combined with in situ scanning tunnelling microscopy, cementing Australia's leadership position in novel electronic materials research. The facility is the first of its kind in Australia, housed at the Australian Synchrotron, and accessible to a broad user base. The facility will be an essential tool for study of new electronic materials such as graphene, two-dimensional semiconductors, topological insulators, and superconductors. This research aims to lead to new thermoelectric, photovoltaic, superconducting, and computing devices, revolutionising the generation, transfer, storage, and use of electrical energy.Read moreRead less
Linkage Infrastructure, Equipment And Facilities - Grant ID: LE130100038
Funder
Australian Research Council
Funding Amount
$450,000.00
Summary
Scanning auger microscope facility for elemental imaging and characterisation of surfaces and interfaces. This project will establish a scanning auger microprobe facility as part of the Australian microscopy and microanalysis research facility. It will provide advanced characterisation and ultra-high resolution imaging of elemental species on surfaces, for researchers working in the areas of nano- and green technologies, and minerals processing.
Discovery Early Career Researcher Award - Grant ID: DE190100336
Funder
Australian Research Council
Funding Amount
$416,899.00
Summary
Superconducting diamond for investigating sources of interface noise. This project aims to identify and eliminate the sources of electro-magnetic noise at material interfaces, through the development of diamond as a model semiconductor/superconductor material system. The project expects to generate new understandings about the origin of these noise sources, using a combination of new nanofabrication developments and exquisite control over the surface chemical bonding of the diamond material. Exp ....Superconducting diamond for investigating sources of interface noise. This project aims to identify and eliminate the sources of electro-magnetic noise at material interfaces, through the development of diamond as a model semiconductor/superconductor material system. The project expects to generate new understandings about the origin of these noise sources, using a combination of new nanofabrication developments and exquisite control over the surface chemical bonding of the diamond material. Expected outcomes include enhanced understanding and control of noise sources in superconducting and quantum devices, and potentially a new material platform for the creation of superconducting quantum circuits. By supporting Australia's nascent quantum technologies industry this project will help support research training and a higher quality workforce, with the possibility for enabling job creation in the future.Read moreRead less
Discovery Early Career Researcher Award - Grant ID: DE120101100
Funder
Australian Research Council
Funding Amount
$375,000.00
Summary
Functionalised graphene for next generation nanoelectronics. Future technological advances, driven by the continuing demand for increased performance and efficiency, depend critically on the development of new materials. This project will develop new semiconducting carbon-based materials via the chemical functionalisation of graphene to form a new platform for future electronic and optoelectronic devices.