S
Stephen Jardin
Researcher at Princeton Plasma Physics Laboratory
Publications - 232
Citations - 6952
Stephen Jardin is an academic researcher from Princeton Plasma Physics Laboratory. The author has contributed to research in topics: Tokamak & Plasma. The author has an hindex of 43, co-authored 226 publications receiving 6472 citations. Previous affiliations of Stephen Jardin include United States Department of Energy & Princeton University.
Papers
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Sideways wall force produced during tokamak disruptions
TL;DR: In this paper, the authors calculate the non-axisymmetric wall force produced by a vertical displacement event (VDE) and demonstrate that the wall force increases linearly with the displacement from the magnetic axis produced by the VDE.
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Plasma profile and shape optimization for the advanced tokamak power plant, ARIES-AT
TL;DR: In this article, an advanced tokamak configuration is developed based on equilibrium, ideal MHD stability, bootstrap current analysis, vertical stability and control, and poloidal field coil analysis.
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Tilting and shifting modes in a spheromak
TL;DR: In this article, the effects of the cross-sectional shape, aspect ratio, and the location of a conducting wall on the stability of spheromak plasmas are investigated, and a circular cross-section configuration with a flux hole δ = 0.5 (aspect ratio R/a = 2) will will be stabilized by an ellipsoidal wall of mean separation of 1.3 minor radii from the plasma.
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Calculations of axisymmetric stability of Tokamak plasmas with active and passive feedback
TL;DR: In this article, a new linear MHD stability code, NOVA-W, has been developed in order to study feedback stabilization of the axisymmetric mode in deformable tokamak plasmas.
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Nonlinear Simulation Studies of Tokamaks and STs
W. Park,J. Breslau,J. Chen,Guoyong Fu,Stephen Jardin,S. Klasky,Jonathan Menard,A. Pletzer,Brentley Stratton,Dan Stutman,H.R. Strauss,L.E. Sugiyama +11 more
TL;DR: In this paper, the authors used the multilevel physics, massively parallel plasma simulation code, M3D has been used to study spherical toris and tokamaks and explained the magnitude of outboard shift of density profiles relative to electron temperature profiles seen in NSTX under strong toroidal flow.