Subscribe options

Select your newsletters:

Please enter your email address:

@

Your email address will only be used for the purpose of sending you the ITER Organization publication(s) that you have requested. ITER Organization will not transfer your email address or other personal data to any other party or use it for commercial purposes.

If you change your mind, you can easily unsubscribe by clicking the unsubscribe option at the bottom of an email you've received from ITER Organization.

For more information, see our Privacy policy.

News & Media

Links

Of Interest

See archived articles

Conferences


Space inspires fusion on earth

The Levitated Dipole Experiment on the MIT campus. (Click to view larger version...)
The Levitated Dipole Experiment on the MIT campus.
Tests on a machine that mimics a planet's magnetic field show that it may offer "an alternative path to taming nuclear fusion for power generation," the Massachusetts Institute of Technology (MIT) wrote in a press release (see below) this week announcing news published in the latest issue of Nature Physics.

The new results published there come from an experimental fusion reactor at the Plasma Science and Fusion Centre on the MIT campus, inspired by observations from space made by satellites. Called the Levitated Dipole Experiment, or LDX, a joint project of MIT and Columbia University, it uses a half-tonne donut-shaped magnet about the size and shape of a large truck tire, made of superconducting wire coiled inside a stainless steel vessel. This magnet is suspended by a powerful electromagnetic field, and is used to control the motion of the 10-million-degree-hot electrically charged gas, or plasma, contained within its 16-foot-diameter outer chamber.

Our experiment was inspired by observations of planetary magnetospheres made by interplanetary spacecraft," says MIT senior scientist Jay Kesner. "Planets like Earth and Jupiter can accumulate hot ionized matter with their dipole field even at high pressure," says the physicist. A plasma effect known as turbulent inward pinch.

Read the MIT press release here


return to Newsline #116