Understanding the physics of plasma instabilities and developing the ability to control them is crucial for a working nuclear…
© Justin Ruckman Inside Japan's Large Helical Device (LHD) stellarator, built to test plasma fusion confinement.
The creation of a thermonuclear power plant requires the containment of plasma with a temperature of more than 100 million…
Inside Japan’s Large Helical Device (LHD) stellarator, built to test plasma fusion confinement.
Inside Japan’s Large Helical Device (LHD) stellarator, built to test plasma fusion confinement.
核融合科学研究所(核融合研)は5月19日、プラズマ中に発生する乱流によってプラズマ自体の温度が下がってしまう問題に対し、核融合研所有の超伝導コイルを用いた世界最大級の実験装置「大型ヘリカル装置」(LHD)において、プラズマ中で熱が逃げていく際に、時速5000…
Scientists observe high-speed plasma turbulence that exceeds heat movement in the Large Helical Device (LHD).
National Institute of Natural Sciences Left: Forming a barrier in the plasma to confirm heat inside.
Results shown in this article were published in a scientific journal of the Nature publishing group, Scientific Reports.
Results shown in this article were published in a scientific journal of the Nature publishing group, Scientific Reports.
National Institutes of Natural Sciences Results shown in this article were published in a scientific journal of the Nature…
Results shown in this article were published in a scientific journal of the Nature publishing group, Scientific Reports.
In order to achieve a fusion power plant, it is necessary to stably confine a plasma of more than 100 million degrees Celsius…