Hundred million degree fluid key to fusion

Monday 7 March 2016 10am

Zhisong Qu, Mathew Hole and Michael Fitzgerald of the Plasma Theory and Modelling group have solved a puzzle of why their million-degree heating beams sometimes fail, and instead destabilise the fusion experiments before energy is generated.

The solution used a new theory based on fluid flow and will help scientists in the quest to create gases with temperatures over a hundred million degrees and harness them to create clean, endless, carbon-free energy with nuclear fusion. 

"This new way of looking at burning plasma physics allowed us to understand this previously impenetrable problem," said Mr Qu, who was the lead author of the paper published in Physical Review Letters.

This breakthrough is another step towards large scale economical fusion energy production.

Read more on ANU News.

Contact

Assoc. Prof. Matthew Hole
E: matthew.hole@anu.edu.au
T: (02)61257606

Related news stories

New MOU to fuse international capabilities in nuclear science

A new Memorandum of Understanding (MoU) will support a unique collaboration between two of the world’s foremost nuclear science facilities on opposite sides of the globe. The MoU strengthens the partnership between the Research School of Physics and the Heavy Ion Accelerators (HIA) and the Facility...

Even when nuclei don’t touch, there’s give and take

When nuclei collide, protons and neutrons zip back and forth between them, even if they stay a significant distance apart and don’t touch. Physicists measured nuclei bouncing off one another, without sufficient energy to overcome the electrostatic repulsion between the two positively charged nuclei,...

Fellowship to study forgetful fusion physics

Congratulations to Dr Ed Simpson, who has been awarded a Future Fellowship to study nuclear fusion reactions. Dr Simpson, who is from the Department of Nuclear Physics and Accelerator Applications, said fusion reactions are crucial in a wide range of areas, from astrophysics and material sciences through...

Digging a tunnel in a quantum field

When Rosemary Zielinski was offered an honours project to develop a theory of quantum tunnelling, her first thought was, 'but that’s already done – I studied that in second year!' Quantum tunnelling is a well-documented example of quantum weirdness; particles that, according to Newton’s...