Compact toroid formation, compression, and acceleration

Autor: J.D. Beason, M.C. Scott, B. W. Mullins, James H. Degnan, Y.G. Chen, T.J. Englert, F.M. Lehr, J.D. Graham, Norman F. Roderick, S.E. Englert, Sean K. Coffey, Carl Sovinec, David Price, Wayne Sommars, M.E. Dearborn, J. H. Holmes, G. Bird, Melissa Douglas, G. J. Marklin, Edward L. Ruden, D. Dietz, D.E. Bell, Thomas W. Hussey, Peter J. Turchi, R.E. Peterkin, D. Gale, G.P. Baca, G.F. Kiuttu, K. E. Hackett, S. W. Seiler
Rok vydání: 1993
Předmět:
Zdroj: Physics of Fluids B: Plasma Physics. 5:2938-2958
ISSN: 0899-8221
Popis: Research on forming, compressing, and accelerating milligram‐range compact toroids using a meter diameter, two‐stage, puffed gas, magnetic field embedded coaxial plasma gun is described. The compact toroids that are studied are similar to spheromaks, but they are threaded by an inner conductor. This research effort, named marauder (Magnetically Accelerated Ring to Achieve Ultra‐high Directed Energy and Radiation), is not a magnetic confinement fusion program like most spheromak efforts. Rather, the ultimate goal of the present program is to compress toroids to high mass density and magnetic field intensity, and to accelerate the toroids to high speed. There are a variety of applications for compressed, accelerated toroids including fast opening switches, x‐radiation production, radio frequency (rf) compression, as well as charge‐neutral ion beam and inertial confinement fusion studies. Experiments performed to date to form and accelerate toroids have been diagnosed with magnetic probe arrays, laser interf...
Databáze: OpenAIRE