DocumentCode
1452271
Title
Caballero: a high current flux compressor system for 100 MJ solid liner experiments
Author
Reinovsky, Robert E. ; Atchison, W.L. ; Goforth, J.H. ; Lindemuth, I.R. ; Lopez, E.A. ; Marsh, S.P.
Author_Institution
Los Alamos Nat. Lab., NM, USA
Volume
26
Issue
5
fYear
1998
fDate
10/1/1998 12:00:00 AM
Firstpage
1454
Lastpage
1462
Abstract
Pulse power systems delivering in excess of 100 MJ represent one of the next major challenges to the community. While laboratory pulse power systems in this energy range are feasible, they represent very substantial investments of both time and resources. Prudence requires that fundamental proof of principle for the contemplated application be established before such massive resources are committed. Explosive pulse power systems using magnetic flux compression provide a direct path to such demonstrations. Furthermore, as energy requirements grow, they may represent the only affordable source of ultra-high energy environments. In this paper we report the results of an experimental test of a first generation disk generator system. Individual disk segments have been tested with framing camera diagnostics to evaluate overall performance dynamics and material, and fabrication failure points. In general no bulk failures were observed in several shots and the critical weld joints were seen to maintain integrity for at least 4 μs after arrival of the detonation front. Single module pulse power experiments have been conducted at reduced initial current (1.5-2.0 MA) with a fixed inductance load of 0.22 nH
Keywords
fusion reactor operation; plasma production; pulse generators; pulsed power supplies; 100 MJ; 100 MJ solid liner experiments; Caballero high current flux compressor system; bulk failures; critical weld joints; detonation front; disk segments; explosive pulse power systems; fabrication failure points; first generation disk generator system; fixed inductance load; framing camera diagnostics; integrity; magnetic flux compression; material; performance dynamics; proof of principle; reduced initial current; single module pulse power experiments; ultra-high energy environments; Cameras; Conducting materials; Explosives; Investments; Laboratories; Magnetic flux; Materials testing; Pulse power systems; Solids; System testing;
fLanguage
English
Journal_Title
Plasma Science, IEEE Transactions on
Publisher
ieee
ISSN
0093-3813
Type
jour
DOI
10.1109/27.736040
Filename
736040
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