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Design, fabrication, and operation of a high-energy liner implosion experiment at 16 megamperes

  • Peter J. Turchi
  • , K. Alvey
  • , C. Adams
  • , B. Anderson
  • , H. D. Anderson
  • , Wallace E. Anderson
  • , E. Armijo
  • , W. L. Atchison
  • , J. Bartos
  • , Richard Lawson Bowers
  • , B. Cameron
  • , T. Cavazos
  • , S. Coffey
  • , R. Corrow
  • , James H. Degnan
  • , J. Echave
  • , B. Froggett
  • , D. Gale
  • , F. Garcia
  • , Joyce Ann Guzik
  • B. Henneke, Randall Jay Kanzleiter, G. Kiuttu, C. Lebeda, Russell Teall Olson, David Michael Oro, J. V. Parker, Robert E. Peterkin, K. Peterson, R. Pritchett, Randall Blaine Randolph, Robert Emil Reinovsky, J. Roberts, George Rodriguez, D. Sandoval, George M Sandoval, M. A. Salazar, W. Sommars, W. Steckle, John L. Stokes, J. Studebaker, L. Tabaka, Antoinette Jane Taylor

Research output: Contribution to journalArticlepeer-review

20 Scopus citations

Abstract

We discuss the design, fabrication, and operation of a liner implosion system at peak currents of 16 MA. Liners of 1100 aluminum, with initial length, radius, and thickness of 4 cm, 5 cm, and 1 mm, respectively, implode under the action of an axial current, rising in 8 μs. Fields on conductor surfaces exceed 0.6 MG. Design and fabrication issues that were successfully addressed include: Pulsed Power-especially current joints at high magnetic fields and the possibility of electrical breakdown at connection of liner cassette insulator to bank insulation; Liner Physics-including the angle needed to maintain current contact between liner and glide-plane/electrode without jetting or buckling; Diagnostics-X-radiography through cassette insulator and outer conductor without shrapnel damage to film.

Original languageEnglish
Pages (from-to)1777-1788
Number of pages12
JournalIEEE Transactions on Plasma Science
Volume30
Issue number5 I
DOIs
StatePublished - Oct 1 2002

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