DocumentCode
2440733
Title
Enhanced magnetic energy released in solid-state and plasma loads on a nanosecond pulse power generator
Author
Chuvatin, A.S. ; Kantsyrev, V.L. ; Astanovitskiy, A.L. ; Presura, R. ; Safronova, A.S. ; Esaulov, A.A. ; Cline, W. ; Williamson, K. ; Shrestha, I. ; Yilmaz, M.F. ; Osbome, G. ; Jarrett, T. ; LeGalloudec, B. ; Nalajala, N. ; Rudakov, L.I. ; Cuneo, M.E. ; P
Author_Institution
LPTP, Ecole Polytech., Palaiseau
fYear
2008
fDate
15-19 June 2008
Firstpage
1
Lastpage
1
Abstract
The requirements on lossless power transport through vacuum interface and MITL´s limit from above the physical volume and hence inductance of the vacuum part of pulse power generators. This in turn limits the generator-to-load energy coupling and hence the magnetic energy available in vacuum loads used in high energy density physics research. We obtained on Zebra generator (1.9 Ohm, 1 MA, 100 ns) an enhanced load magnetic energy corresponding to the load current increase from the nominal 0.95 MA to 1.65 (plusmn0.05) MA. This improvement was achieved without changing the generator architecture, but through better generator-to-load energy coupling using the new Load Current Multipliers (LCM) technique. The average experimental load-to-generator current amplitude ratio in LCM with both a 7 nH constant-inductance load and with z-pinch loads was 1.7plusmn0.2. We report on new generator electrotechnical parameters with LCM and on characterization of the plasma dynamics and radiative properties of planar wire-array z-pinches at the achieved enhanced load magnetic energy level.
Keywords
Z pinch; exploding wires; plasma X-ray sources; pulse generators; Zebra generator; constant inductance load; current 1 MA; enhanced load magnetic energy; enhanced magnetic energy; generator electrotechnical parameters; generator-load energy coupling; high energy density physics; load current multipliers; lossless power transport; nanosecond pulse power generator; planar wire array z pinch radiative properties; plasma dynamics characterization; pulse power generator inductance; time 100 ns; vacuum interface; vacuum load magnetic energy; z pinch loads; Character generation; Couplings; Elementary particle vacuum; Inductance; Physics; Plasma properties; Plasma transport processes; Power generation; Pulse generation; Solid state circuits;
fLanguage
English
Publisher
ieee
Conference_Titel
Plasma Science, 2008. ICOPS 2008. IEEE 35th International Conference on
Conference_Location
Karlsruhe
ISSN
0730-9244
Print_ISBN
978-1-4244-1929-6
Electronic_ISBN
0730-9244
Type
conf
DOI
10.1109/PLASMA.2008.4590967
Filename
4590967
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