About Us
Modern problems in theoretical physics are wide-ranging. Within our group we focus on topics ranging from ultra-cold atoms to genetics, computational science, quantum information, condensed matter and the foundations of quantum mechanics. Many are linked to SUT experimental work.
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Ultracold Fermi gasesThis research programme is motivated by the rapid experimental developments in degenerate Fermi gases. These systems are controlled at an unprecedented level and are well-described by quantum many-body models. The programme involves themes designed to develop fundamental knowledge of the underlying physics, and to provide theoretical guidance to experiments at Swinburne University. Specific topics include:
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Foundations of Quantum MechanicsThe well-known 1935 paper of Einstein et al. (EPR) led to the famous Bell theorem, which rules out local realism--a result that has been called "the most profound discovery of Science". The Schrödinger cat paradox raises an even more important issue -- how to reconcile quantum realities with classical realities at the macroscopic level. Specific research topics include:
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![]() Spin-EPR proposal |
![]() Colliding BEC quantum dynamics: Phys. Rev. Lett. 98, 120402 (2007). (Editor's Suggestion) |
Bose-Einstein Condensates and Atom LasersAtom lasers, or Bose-Einstein condensates (BEC) exist at temperatures below one nano-Kelvin -- a billion times colder than interstellar space. The bosonic atoms occupy an identical quantum state, so BECs are quantum systems on a macroscopic scale, with atoms behaving as waves but having particle-like qualities when detected. High-precision interferometry applications are being studied experimentally at Swinburne University. Theory projects on the quantum noise properties of BECs are:
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Phase-space methodsWe are developing new algorithms based on phase-space representations for simulating quantum and classical many-body systems. As a cross-disciplinary application, mathematical genetics is one of the most rapidly growing fields of science, bridging the gap between theoretical physics and biology. New gene sequencing technology is unleashing floods of new genetic data in many areas, requiring sophisticated models to understand and analyse genetic drift and genetic correlations. Our research focuses on viral evolution and genetics. |
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![]() Quantum memory proposal: Phys. Rev. A 79, 022310 (2009). |
Quantum InformationQuantum information is the study of how to apply quantum mechanics in the development of new technologies. We are interested in quantum memories, as an enabling technology for many areas of quantum information. A quantum memory is able to store a quantum state indefinitely, to be read out on demand. Possible quantum memory devices range from cold atoms to superconducting circuits and nano-oscillators. |
SUT Theory News
- 9 November 2011
Novel fermionic superfluidity predicted by SUT theorists. (link) - 27 September 2011
Ultracold atomic physics mystery solved by SUT theory. (link) - 5 September 2011
Swinburne one of only three universities in Australia to make the prestigious ARWU list of top universities for Physics in 2011. (link)






