Researchers designed an effective algorithm for the National Spherical Torus Experiment - Upgrade,
a magnetic fusion reactor at Princeton Plasma Physics Laboratory.
One of the biggest ongoing projects is ITER in France, an international effort to build the first
magnetic fusion reactor that pumps out more energy than it consumes.
Not exact matches
Avalanche boron
fusion by laser picosecond block ignition with
magnetic trapping for clean and economic
reactor
After that I wanted to do something very practical so I switched to work on
magnetic confinement
fusion, as part of the ongoing effort to develop
fusion reactors.
In research machines such as
fusion reactors, scientists use strong
magnetic fields to confine plasma, but those fields interfere with seeing what might happen during a natural dynamo.
But if we do away with solid vessels and use
magnetic fields (such as in
fusion reactors) instead, then higher temperatures can be reached.
After decades of slow progress with doughnut - shaped
reactors,
magnetic fusion labs are gambling on a redesign.
On the other hand, in
magnetic field confinement
fusion plasma intended for a
fusion reactor, which research is being conducted at the National Institute for
Fusion Science, development of high precision electron density measurements is becoming an important research topic.
Eventually, studying 3 - D knotted
magnetic fields like those potentially present in ball lightning might help scientists devise better ways to control plasmas within future
fusion reactors for generating power, the researchers suggest.
Inside ITER's enormous, doughnut - shaped
reactor walls,
magnetic fields, electric currents, microwaves, and particle beams will heat a deuterium - tritium plasma to
fusion temperatures for about 20 minutes.
American researchers have shown that prospective
magnetic fusion power systems would pose a much lower risk of being used for the production of weapon — usable materials than nuclear fission
reactors and their associated fuel cycle.
Other studies have found ways to make future
fusion reactors better optimized by precisely shaping the
magnetic field generated by their electromagnetic coils.
Two major
fusion research
reactors are being built over the next decade — the international ITER
magnetic confinement
reactor (for $ 5 to 10 billion) and the US National Ignition Facility (NIF — $ 2 to 5 billion) to study «inertial confinement».