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Bibliography

1
D. Weil ``The Dag Topology: An RFP with Inner Divertor Free of Linking Coil," Comments Plasma Phys. Controlled Fusion, 13, p 45 - 56 (1989); U.S. patent 5,147,596 (1992).

2
D. Finkelstein and D. Weil, ``Magnetohydrodynamic Kinks in Astrophysics," Int. J. Theor. Phys. 17, 201 (1978).

3
W. Park, E.V. Belova, G.Y. Fu, X. Tang, H.R. Strauss, L.E. Sugiyama, ``Plasma Simulation Studies using Multilevel Physics Models" Phys. Plasmas 6 1796 (1999).

4
L.E. Sugiyama, W. Park, H.R. Strauss, S.R. Hudson, D. Stutman, X-Z. Tang, Studies of Spherical Tori, Stellarators and Anisotropic Pressure with M3D, Nucl. Fusion (2001).

5
H. R. Strauss and W. Longcope, An Adaptive Finite Element Method for Magnetohydrodynamics, J. Comput. Phys. 147, 318 - 336 (1998).

6
Pletzer, A., ``Python & Finite Elements", Dr. Dobb's Journal #334, p. 36 (March 2002) http://ellipt2d.sourceforge.net; J. R. Shewchuk, Computational Geometry: Theory and Applications 22, (1-3):21 - 74 (2002).

7
J. B. Taylor, ``Relaxation of toroidal plasma and generation of reverse magnetic fields," PRL 33, 1139 (1974).

8
S. C. Prager, ``Transport and fluctuations in reversed field pinches," Plasma Physics and Contr. Fusion 32, 903 (1990).

9
D. N. Hill, R. H., Bulmer, B. I., Cohen, E. B., Hooper, L. L., Lodestro, N. Mattor et al., Spheromak formation studies in SSPX, Proceedings of the Eighteenth IAEA Fusion Energy Conference, Sorrento, Italy, F1-CN77-ICP/09 (IAEA, Vienna, 2000)

10
H.R. Strauss, G.Y. Fu, L.E. Sugiyama, W. Park, J. Breslau, Nonlinear MHD and Energetic Particle Modes in Stellarators, Proceedings of the Nineteenth IAEA Fusion Energy Conference, Lyon, France, IAEA-CN-94/TH/P2-12 (IAEA, Vienna, 2002).

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Figure Captions

Fig.[*] Mesh in poloidal plane

Fig.[*] Top view of toroidal mesh

Fig.[*] Poloidal Flux $\psi$ at t = $328 t_A$ in $\beta = 11\% $ stable equilibrium.

Fig.[*] Toroidal Flux $I$ at t = $328 t_A$ in $\beta = 11\% $ stable equilibrium.

Fig.[*] Pressure at $t = 328 t_A $ in $\beta = 11\% $ stable equilibrium.

Fig.[*] Toroidal current at $t = 328 t_A $ in $\beta = 11\% $ stable equilibrium.

Fig.[*] $B_\phi,B_z$ as a function of $R$ in the midplane. The $B_\phi$ curve has the larger peak value.

Fig.[*] $q$ as a function of poloidal flux $\psi.$

Fig.[*] Pressure at $t = 123 t_A $ in an unstable case with $\beta = 22\%.$

Fig.[*] Toroidal Flux $I$ at = $350 t_A$ in a stable RFP - like equilibrium with $\beta = 16\%$.

Fig.[*] Toroidal current at $t = 350 t_A $

Fig.[*] $q$ as a function of $\psi$ for the RFP like case.


next up previous
Next: About this document ... Up: dag-5 Previous: dag-5
Hank Strauss
2003-07-24