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Socio-Economic Objective : Scientific instrumentation
Research Topic : computer simulation
Australian State/Territory : ACT
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  • Funded Activity

    ARC Future Fellowships - Grant ID: FT0991969

    Funder
    Australian Research Council
    Funding Amount
    $686,400.00
    Summary
    Advanced Interface Technologies for Computational Science & Simulation. The project will research novel computer vision technologies that enable the next generation of visualisation portals for scientific collaboration. The development of new computer vision tools is key to truly natural human-machine interaction. The research outcomes of this project directly align with National Research Priority 3: Frontier Technologies. It supports four of the five relevant priority goals - Breakthrough Scien .... Advanced Interface Technologies for Computational Science & Simulation. The project will research novel computer vision technologies that enable the next generation of visualisation portals for scientific collaboration. The development of new computer vision tools is key to truly natural human-machine interaction. The research outcomes of this project directly align with National Research Priority 3: Frontier Technologies. It supports four of the five relevant priority goals - Breakthrough Science, Frontier Technologies, Smart Information Use, and Promoting an Innovation Culture and Economy. Outcomes of this research are also relevant to Research Priority 4: Safeguarding Australia, and has direct applications to video surveillance technology. Significant commercial opportunities, including licensing and spin-offs exist.
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    Funded Activity

    Linkage Infrastructure, Equipment And Facilities - Grant ID: LE0989347

    Funder
    Australian Research Council
    Funding Amount
    $350,000.00
    Summary
    CYCLOPS - A Better Way to Find Extrasolar Planets. The primary scientific driver for this new facility is the search for planets orbiting other stars. Australian astronomers, and the Anglo-Australian Telescope, have played a leading role in this new frontier for astronomy, detecting 25 of the 250-odd extrasolar planets known to orbit nearby stars. The CYCLOPS project brings together a team of leading Australian astronomers to build on this track record with a new facility that further advances A .... CYCLOPS - A Better Way to Find Extrasolar Planets. The primary scientific driver for this new facility is the search for planets orbiting other stars. Australian astronomers, and the Anglo-Australian Telescope, have played a leading role in this new frontier for astronomy, detecting 25 of the 250-odd extrasolar planets known to orbit nearby stars. The CYCLOPS project brings together a team of leading Australian astronomers to build on this track record with a new facility that further advances Australia's capabilities in both this field, and several other high-profile astronomical endeavours: including the study of seismology in stellar interiors, the detailed measurement of elemental abundances in stars throughout our Galaxy, and the mapping of spot features on the surfaces of stars.
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    Funded Activity

    Linkage Infrastructure, Equipment And Facilities - Grant ID: LE0453974

    Funder
    Australian Research Council
    Funding Amount
    $113,190.00
    Summary
    T-ray factory: a new Australian source of strong, pulsed, broadband, terahertz radiation. Australian scientists and engineers require immediate access to frontier T-ray (terahertz radiation) technology to solve pressing current problems in semiconductor nanostructures and emerging problems in fields as diverse as biophysics and national security. Recent innovations now make practical the production of bursts of terahertz radiation by applying ultrafast optical pulses to photoconductive or elect .... T-ray factory: a new Australian source of strong, pulsed, broadband, terahertz radiation. Australian scientists and engineers require immediate access to frontier T-ray (terahertz radiation) technology to solve pressing current problems in semiconductor nanostructures and emerging problems in fields as diverse as biophysics and national security. Recent innovations now make practical the production of bursts of terahertz radiation by applying ultrafast optical pulses to photoconductive or electro-optic media, facilitating unparalleled time-resolved spectroscopy and imaging. The state-of-the-art equipment to be purchased and installed at Wollongong will enhance the existing excellent terahertz infrastructure (unique spectrometers, optically-pumped molecular laser) and efficiently service researchers in the dynamic Sydney (UTS, UNSW) - Wollongong (UoW) - Canberra (ANU) corridor.
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    Funded Activity

    Discovery Projects - Grant ID: DP0343588

    Funder
    Australian Research Council
    Funding Amount
    $575,000.00
    Summary
    Dynamics of Nuclear Fusion: Evolution Through a Complex Multi-Dimensional Landscape. The key questions in the fusion of heavy nuclei form an interlocking puzzle, which can be resolved using our recently developed analysis concepts and measurement techniques. The newly completed, unique, and highly efficient superconducting fusion product separator, together with Australian's Heavy Ion Accelerator, will be used to unlock the puzzle and reveal how fusing nuclei evolve in a multi-dimensional landsc .... Dynamics of Nuclear Fusion: Evolution Through a Complex Multi-Dimensional Landscape. The key questions in the fusion of heavy nuclei form an interlocking puzzle, which can be resolved using our recently developed analysis concepts and measurement techniques. The newly completed, unique, and highly efficient superconducting fusion product separator, together with Australian's Heavy Ion Accelerator, will be used to unlock the puzzle and reveal how fusing nuclei evolve in a multi-dimensional landscape. This will impact on the emerging fields of superheavy element formation, physics with rare isotope beams, and on coupling-assisted quantum tunnelling. This project will maintain Australia's world-leading position in the current race to develop a quantitative understanding of fusion.
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    Funded Activity

    Discovery Projects - Grant ID: DP0342900

    Funder
    Australian Research Council
    Funding Amount
    $353,035.00
    Summary
    Nonlinear atom optics of Bose-Einstein condensates in optical lattices. When a new state of matter - Bose-Einstein condensate - is trapped in a periodic potential created by light, it forms a unique, reconfigurable nano-scale system with unprecedented control over its properties. Its behaviour ranges from quantum to classical, from linear to nonlinear, and from continuous to discrete. This project aims to develop a theory for the nonlinear localization, transport, and excitation of BEC in the op .... Nonlinear atom optics of Bose-Einstein condensates in optical lattices. When a new state of matter - Bose-Einstein condensate - is trapped in a periodic potential created by light, it forms a unique, reconfigurable nano-scale system with unprecedented control over its properties. Its behaviour ranges from quantum to classical, from linear to nonlinear, and from continuous to discrete. This project aims to develop a theory for the nonlinear localization, transport, and excitation of BEC in the optical lattices. Its outcome will provide an important assessment of the feasibility of the proposed use of the BEC in optical lattices in quantum computing, information storage, precision measurements, and nanotechnology.
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