TY - JOUR
T1 - A control oriented strategy of disruption prediction to avoid the configuration collapse of tokamak reactors
AU - Murari, Andrea
AU - Rossi, Riccardo
AU - Craciunescu, Teddy
AU - Vega, Jesús
AU - Mailloux, J.
AU - Abid, N.
AU - Abraham, K.
AU - Abreu, P.
AU - Adabonyan, O.
AU - Adrich, P.
AU - Afanasev, V.
AU - Afzal, M.
AU - Ahlgren, T.
AU - Aho-Mantila, Leena
AU - Aiba, N.
AU - Airila, Markus
AU - Akhtar, M.
AU - Albanese, R.
AU - Alderson-Martin, M.
AU - Alegre, D.
AU - Aleiferis, S.
AU - Aleksa, A.
AU - Alekseev, A. G.
AU - Alessi, E.
AU - Aleynikov, P.
AU - Algualcil, J.
AU - Ali, M.
AU - Allinson, M.
AU - Alper, B.
AU - Alves, E.
AU - Ambrosino, G.
AU - Ambrosino, R.
AU - Amosov, V.
AU - Hakola, Antti
AU - Kaltiaisenaho, Toni
AU - Karhunen, J.
AU - Kim, S. H.
AU - Kirjasuo, Anu
AU - kiviniemi, T.
AU - Lahtinen, A.
AU - Leppänen, Jaakko
AU - Likonen, Jari
AU - Liu, F.
AU - Nordman, H.
AU - Salmi, Antti
AU - Särkimäki, K.
AU - Silva, J.
AU - Sirén, P.
AU - Tala, Tuomas
AU - Virtanen, A. J.
AU - Gelfusa, Michela
AU - JET Contributors
PY - 2024
Y1 - 2024
N2 - The objective of thermonuclear fusion consists of producing electricity from the coalescence of light nuclei in high temperature plasmas. The most promising route to fusion envisages the confinement of such plasmas with magnetic fields, whose most studied configuration is the tokamak. Disruptions are catastrophic collapses affecting all tokamak devices and one of the main potential showstoppers on the route to a commercial reactor. In this work we report how, deploying innovative analysis methods on thousands of JET experiments covering the isotopic compositions from hydrogen to full tritium and including the major D-T campaign, the nature of the various forms of collapse is investigated in all phases of the discharges. An original approach to proximity detection has been developed, which allows determining both the probability of and the time interval remaining before an incoming disruption, with adaptive, from scratch, real time compatible techniques. The results indicate that physics based prediction and control tools can be developed, to deploy realistic strategies of disruption avoidance and prevention, meeting the requirements of the next generation of devices.
AB - The objective of thermonuclear fusion consists of producing electricity from the coalescence of light nuclei in high temperature plasmas. The most promising route to fusion envisages the confinement of such plasmas with magnetic fields, whose most studied configuration is the tokamak. Disruptions are catastrophic collapses affecting all tokamak devices and one of the main potential showstoppers on the route to a commercial reactor. In this work we report how, deploying innovative analysis methods on thousands of JET experiments covering the isotopic compositions from hydrogen to full tritium and including the major D-T campaign, the nature of the various forms of collapse is investigated in all phases of the discharges. An original approach to proximity detection has been developed, which allows determining both the probability of and the time interval remaining before an incoming disruption, with adaptive, from scratch, real time compatible techniques. The results indicate that physics based prediction and control tools can be developed, to deploy realistic strategies of disruption avoidance and prevention, meeting the requirements of the next generation of devices.
UR - http://www.scopus.com/inward/record.url?scp=85188450496&partnerID=8YFLogxK
U2 - 10.1038/s41467-024-46242-7
DO - 10.1038/s41467-024-46242-7
M3 - Article
C2 - 38499564
AN - SCOPUS:85188450496
SN - 2041-1723
VL - 15
JO - Nature Communications
JF - Nature Communications
M1 - 2424
ER -
