DocumentCode
1325760
Title
Spatial and temporal evolution of high-energy density plasmas in the composite pinch on GIT-4 generator
Author
Chuvatin, Alexander ; Choi, Peter ; Dumitrescu, Carmen ; Etlicher, Bernard ; Semushin, S. ; Vié, M. ; Bayol, F. ; Morell, A. ; Baksht, R. ; Bastrikov, A. ; Datsko, I. ; Fedyunin, A. ; Kim, A. ; Kokshenev, V. ; Kovalchuk, B. ; Loginov, S. ; Russkikh, A. ;
Author_Institution
Lab. de Phys. des Milieux Ionises, Ecole Polytech., Palaiseau, France
Volume
25
Issue
2
fYear
1997
fDate
4/1/1997 12:00:00 AM
Firstpage
196
Lastpage
204
Abstract
A series of collaborative experiments on complex plasma loads has been carried out on the large inductive energy storage generator GIT-4. The aim of the experiments is to explore the different configurations for the formation of ultrahigh-energy density plasmas in high-voltage pulsed-power systems by direct electromagnetic energy coupling. In this paper, we present some of the underlying philosophy on these experiments and the results obtained. Particular emphasis is placed on the pulsed-power aspects and the effect of source-load coupling for the different studied Z-pinch loads. Resulting radiative properties of the classical exploding wire and liner are experimentally compared with those of the composite pinch scheme in which an intermediate low-density shell is used for staged energy transfer onto a micron-sized wire
Keywords
Z pinch; exploding wires; inductive energy storage; pinch effect; pulse generators; pulsed power technology; C-pinch; GIT-4 terawatt pulsed-power generator; Z-pinch loads; collaborative experiments; complex plasma loads; composite pinch; composite pinch scheme; direct electromagnetic energy coupling; exploding wire; high-energy density plasmas; high-voltage pulsed-power systems; inductive energy storage generator; intermediate low-density shell; liner; micron-sized wire; optical streak pictures; radiative properties; source-load coupling; spatial evolution; staged energy transfer; temporal evolution; time-integrated X-ray diffraction; ultrahigh-energy density plasma formation; Collaboration; EMP radiation effects; Electromagnetic coupling; Electromagnetic radiation; Energy exchange; Energy storage; Plasma density; Plasma properties; Plasma sources; Wire;
fLanguage
English
Journal_Title
Plasma Science, IEEE Transactions on
Publisher
ieee
ISSN
0093-3813
Type
jour
DOI
10.1109/27.602491
Filename
602491
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