DocumentCode :
1325733
Title :
The X-1 Z-pinch driver
Author :
Ramirez, Juan J.
Author_Institution :
Sandia Nat. Labs., Albuquerque, NM, USA
Volume :
25
Issue :
2
fYear :
1997
fDate :
4/1/1997 12:00:00 AM
Firstpage :
155
Lastpage :
159
Abstract :
X-1 is a program initiative to develop the next-generation laboratory X-ray source using fast Z-pinch drivers. X-1 will provide unique applications utility to high-energy density physics, inertial confinement fusion, and radiation effects simulation research. The advent in the 1980´s of pulsed power accelerators capable of delivering tens of terawatts to imploding plasma loads led to a quantum improvement in Z-pinch performance by reducing the implosion time to less than 100 ns. Further progress in Z-pinch performance capabilities was achieved in 1996, using a cylindrical wire-array load, and led to the production of 85 TW, 350-500 kJ of X-rays using the Saturn accelerator at Sandia. The PBFA-II accelerator has been converted to drive Z-pinch loads (PBFA-Z), and will provide a factor of 2 increase in current, and 4 in energy, over that provided by Saturn. X-1 is the next step beyond PBFA-Z and, as presently envisioned, represents a factor of 8 increase in energy. It will require a ~360 TW, ~100 ns pulsed power generator to impart ~16 MJ kinetic energy to the reference imploding plasma load. A baseline concept for X-1 has been developed. It utilizes a highly modular, robust architecture with demonstrated performance reliability
Keywords :
X-ray production; Z pinch; fusion reactors; particle accelerators; particle beam fusion accelerators; power supplies to apparatus; pulse generators; pulsed power technology; 16 MJ; 350 to 500 kJ; 360 TW; 85 TW; PBFA-II accelerator; PBFA-Z; Saturn accelerator; X-1 Z-pinch driver; X-ray production; cylindrical wire-array load; fast Z-pinch drivers; high-energy density physics; imploding plasma loads; implosion time reduction; inertial confinement fusion; next-generation laboratory X-ray source; pulsed power accelerators; pulsed power generator; radiation effects simulation; Inertial confinement; Laboratories; Physics; Plasma accelerators; Plasma applications; Plasma confinement; Plasma density; Plasma simulation; Radiation effects; Saturn;
fLanguage :
English
Journal_Title :
Plasma Science, IEEE Transactions on
Publisher :
ieee
ISSN :
0093-3813
Type :
jour
DOI :
10.1109/27.602486
Filename :
602486
Link To Document :
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