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| Biography |
Dr Hole holds degrees in Physics, Mathematics and Electrical Engineering, and completed a PhD on plasma centrifuge physics at the University of Sydney. During 2001-2002 Dr Hole worked for the U.K. Atomic Energy Authority on fusion power on the innovative spherical tokamak concept. From 2003-2004 Dr Hole worked on space plasma physics in the School of Physics at the University of Sydney. Since 2005, he has worked with Prof. Dewar of the Plasma Theory Modelling Group at ANU. He has attracted ~$500k in competitive funding, including two nearly fully funded ISL grants to (i) host a workshop on possible Australian involvement in the ITER project, and (ii) a research grant on a "model/data fusion" project. He is also involved in the H-1 Major National Plasma Fusion Research Facility.
Dr Hole is the inaugral Chair of the Australian ITER Forum (www.ainse.edu.au/fusion.html), a growing consortium of over 140 scientists and engineers drawn from universities, government research laboratories, private industry and the general public. The Forum seeks to promote the science of fusion energy through advocacy of Australian involvement in the world's largest science project: the next step fusion energy experiment, ITER.
Dr Hole is also:
- Australia's member of the International Fusion Research Council of the IAEA.
- On the 2010-2012 board of Editors for Plasma Physics and Controlled Fusion
- a reviewer for Physical Review Letters, Physical Review, Physics of Plasmas, Nuclear Fusion, IEEE Trans. on Plasma Science, and Journal of Plasma and Fusion Research
- a member of the Australian Institute of Physics
Past Positions
- Served as Early Career Scientist on the board of FASTS, (Nov. 2005 - Nov. 2006).
- Co-convener of the UKAEA Fusion Theory Colloquium, (2002)
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| Research Interests |
Fusion Plasmas, Vacuum Arc Centrifuge Plasma, Astrophysical and Space Plasmas, Plasma Propulsion, Plasma Instabilities. |
| Available Student Projects |
Suitable for: PhD/Masters
The goal of the project is to determine and understand how energetic particles, produced by injection, fusion reactions, or wave-particle resonance heating methods affect plasma stability.
Suitable for: Honours, PhD/Masters
The student will extend a recently developed variational principle for finding relaxed equilibrium states of a plasma to the calculation of tearing modes
Suitable for: 3rd Year, PhB, Honours, PhD/Masters
Using variational methods on a known magnetic field exhibiting chaos the student will develop optimal curvilinear coordinates for plasma equilibrium studies
Suitable for: 3rd Year, PhB, Honours, Vacation Scholars
To infer properties of pulsar plasmas from polarization-resolved pulsar data
Suitable for: 3rd Year, PhB, Honours, Vacation Scholars
To explore the equilibrium and stability of multiple region partially-relaxed MRXMHD plasmas in helical geometry.
Suitable for: 3rd Year, PhB, Honours, Vacation Scholars
The student will develop numerical algorithms to automate and perform MHD stability analysis of ITER and conceptual fusion power plant configurations.
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* When dialing an ANU extension from outside the university:
- (02) 612 XXXXX (within Australia)
- +61 2 612 XXXXX (outside Australia)
Where XXXXX is the 5 digit extension number
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