The role of MHD in the sustainment of electron internal transport barriers and H-mode in TCV | Zendy

G. Turri | Zendy; O. Sauter | Zendy; L. Porte | Zendy; S. Alberti | Zendy; E. Asp | Zendy; T. Goodman | Zendy; Yves Martin | Zendy; V.S. Udintsev | Zendy; C. Zucca | Zendy

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The role of MHD in the sustainment of electron internal transport barriers and H-mode in TCV

Author(s) -

G. Turri,

O. Sauter,

L. Porte,

S. Alberti,

E. Asp,

T. Goodman,

Yves Martin,

V.S. Udintsev,

C. Zucca

Publication year - 2008

Publication title -

journal of physics conference series

Language(s) - English

Resource type - Journals

SCImago Journal Rank - 0.21

H-Index - 85

eISSN - 1742-6596

pISSN - 1742-6588

DOI - 10.1088/1742-6596/123/1/012038

Subject(s) - magnetohydrodynamics , tokamak , physics , electron , mode (computer interface) , mechanics , instability , resistive touchscreen , transient (computer programming) , stability (learning theory) , plasma , nuclear engineering , computational physics , computer science , nuclear physics , engineering , operating system , machine learning , computer vision

Advanced scenarios exhibit improved connement properties, which make them attractive candidate for ITER. For these to be achieved, the sustainment of transport barriers and therefore high pressure gradients is inherent. Their stability properties both in the transient and steady state phases is a major issue (1), because of the relationship between high performances and proximity to a stability limit. Core MHD modes are one of the key issues in the development and sustainment of transport barriers, as they degrade the connement properties and, in the worse case, disrupt the plasma. The understanding of the underlying physics can provide the means of nding regimes without modes. In TCV (Tokamak

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