Degraded confinement and turbulence in tokamak experiments

被引:0
|
作者
Assoc Euratom-FOM, Nieuwegein, Netherlands [1 ]
机构
来源
Fusion Technol | / 2 T卷 / 147-159期
关键词
Electron transport properties - Electrons - Plasma confinement - Plasma heating - Plasma turbulence;
D O I
暂无
中图分类号
学科分类号
摘要
After a review on the state of tokamak transport theory, the methodology to derive experimental results will be described. Examples of confinement in ohmic plasmas and the deterioration with additional heating will be given. Some examples of improved confinement modes will be discussed. Fluctuation measurements and correlation with characteristic dimensionless numbers should reveal the clue to the unexplained phenomena. Recent information on the existence of transport barriers related to the magnetic field topology can explain anomalies in electron transport.
引用
收藏
相关论文
共 50 条
  • [41] TRANSITIONS IN TOKAMAK EDGE CONFINEMENT
    WARD, DJ
    NUCLEAR FUSION, 1994, 34 (08) : 1169 - 1174
  • [42] TOKAMAK GLOBAL CONFINEMENT DATA
    ENGELMANN, F
    KARDAUN, OJWF
    NUCLEAR FUSION, 1990, 30 (09) : 1951 - 1956
  • [43] SCALINGS FOR TOKAMAK ENERGY CONFINEMENT
    YUSHMANOV, PN
    TAKIZUKA, T
    RIEDEL, KS
    KARDAUN, OJWF
    CORDEY, JG
    KAYE, SM
    POST, DE
    NUCLEAR FUSION, 1990, 30 (10) : 1999 - 2006
  • [44] Detection of short-scale turbulence in the next generation of tokamak burning plasma experiments
    Mazzucato, E.
    PLASMA PHYSICS AND CONTROLLED FUSION, 2006, 48 (12) : 1749 - 1763
  • [45] Evolution of ETG mode scale turbulence and anomalous electron transport in dynamic tokamak experiments
    Gurchenko, A. D.
    Gusakov, E. Z.
    PLASMA PHYSICS AND CONTROLLED FUSION, 2010, 52 (12)
  • [46] Multi-machine studies of the role of turbulence and electric fields in the establishment of improved confinement in tokamak plasmas
    Van Oost, G.
    Bulanin, V. V.
    Donne, A. J. H.
    Gusakov, E. Z.
    Kraemer-Flecken, A.
    Krupnik, L. I.
    Melnikov, A.
    Nanobashvili, S.
    Peleman, P.
    Razumova, K. A.
    Stockel, J.
    Vershkov, V.
    Adamek, J.
    Altukov, A. B.
    Andreev, V. F.
    Askinazi, L. G.
    Bondarenko, I. S.
    Brotankova, J.
    Dnestrovskij, A. Yu
    Duran, I.
    Eliseev, L. G.
    Esipov, L. A.
    Grashin, S. A.
    Gurchenko, A. D.
    Hogeweij, G. M. D.
    Hron, M.
    Ionita, C.
    Jachmich, S.
    Khrebtov, S. M.
    Kouprienko, D. V.
    Lysenko, S. E.
    Martines, E.
    Perfilov, S. V.
    Petrov, A. V.
    Popov, A. Yu
    Reiser, D.
    Schrittwieser, R.
    Soldatov, S.
    Spolaore, M.
    Stepanov, A. Yu
    Telesca, G.
    Urazbaev, A. O.
    Verdoolaege, G.
    Zacek, F.
    Zimmermann, O.
    PLASMA PHYSICS AND CONTROLLED FUSION, 2007, 49 (5A) : A29 - A44
  • [47] TOKAMAK TURBULENCE - ELECTROSTATIC OR MAGNETIC
    CONNOR, JW
    PLASMA PHYSICS AND CONTROLLED FUSION, 1993, 35 : B293 - B305
  • [48] Gyrofluid simulations of turbulence suppression in reversed-shear experiments on the tokamak fusion test reactor
    Beer, MA
    Hammett, GW
    Rewoldt, G
    Synakowski, EJ
    Zarnstorff, MC
    Dorland, W
    PHYSICS OF PLASMAS, 1997, 4 (05) : 1792 - 1799
  • [49] INTERMITTENCY IN TOKAMAK EDGE TURBULENCE
    JHA, R
    KAW, PK
    MATTOO, SK
    RAO, CVS
    SAXENA, YC
    PHYSICAL REVIEW LETTERS, 1992, 69 (09) : 1375 - 1378
  • [50] Gyrofluid simulations of turbulence suppression in reversed-shear experiments on the Tokamak Fusion Test Reactor
    Beer, M.A.
    Hammett, G.W.
    Rewoldt, G.
    Synakowski, E.J.
    Zarnstorff, M.C.
    Dorland, W.
    Physics of Plasmas, 1997, 4 (5/2):