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News & Media

Latest ITER Newsline

  • CODAC | The "invisible system" that makes all things possible

    It is easy to spot all the big equipment going into ITER; what is not so visible is the underlying software that makes the equipment come alive. Local control [...]

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  • Assembly | Zero-gravity in a cramped place

    The volume of the Tokamak pit may be huge, but so are the components that need to be installed. As a result, assembly operators will have very little room to ma [...]

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  • Image of the week | A closer look at KSTAR

    Over its twelve years of operation, the KSTAR tokamak (for Korea Superconducting Tokamak Advanced Research) has built an extremely valuable database for the fut [...]

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  • Pre-compression rings | Six of nine completed

    The European Domestic Agency is responsible for the fabrication of nine pre-compression rings (three top, three bottom and three spare). The first five have bee [...]

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  • Industrial milestone | Japan completes the first D-shaped coil of the ITER Tokamak

    In a ceremony on 30 January, a major industrial achievement was celebrated in Japan—the completion of the first 360-tonne D-shaped toroidal field coil for the I [...]

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Of Interest

See archived entries

Elementary particles

And now quark fusion?

Fusion as we know it involves two nuclei of light atoms. Nature provides a dozen possible combinations for fusion, but in the present state of our technological capabilities only the fusion of deuterium (D) and tritium (T), two hydrogen isotopes, is accessible.

Researchers at Tel Aviv University and at the University of Chicago think that quark fusion could be technically feasible in a powerful particle accelerator such as CERN's Large Hadron Collider (LHC) (Click to view larger version...)
Researchers at Tel Aviv University and at the University of Chicago think that quark fusion could be technically feasible in a powerful particle accelerator such as CERN's Large Hadron Collider (LHC)
Recently, physicists at Tel Aviv University in Israel and at the University of Chicago in the US have found evidence suggesting that fusion could occur between quarks, an elementary particle that is a constituent of the nucleus. Quark fusion, they calculate, could generate approximately eight times more energy than the energy released during DT fusion.

How does one go about fusing quarks? Researchers Marek Karliner and Jonathan Rosner think it could be technically feasible in a powerful particle accelerator such as CERN's Large Hadron Collider (LHC). But they warn that their work is still purely theoretical — just like the fusion of nuclei was not so long ago in the 1920s.

More information here and here.




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