Development of slurry targets for high repetition-rate x-ray free electron laser experiments

  • Raymond F. Smith
  • , Vinay Rastogi
  • , Amy E. Lazicki
  • , Martin G. Gorman
  • , Richard Briggs
  • , Amy L. Coleman
  • , Carol Davis
  • , Saransh Singh
  • , David McGonegle
  • , Samantha M. Clarke
  • , Travis Volz
  • , Trevor Hutchinson
  • , Christopher McGuire
  • , Dayne E. Fratanduono
  • , Damian C. Swift
  • , Eric Folsom
  • , Cynthia A. Bolme
  • , Arianna E. Gleason
  • , Federica Coppari
  • , Hae Ja Lee
  • Bob Nagler, Eric Cunningham, Philip Heimann, Richard G. Kraus, Robert E. Rudd, Thomas S. Duffy, Jon H. Eggert, June K. Wicks

Research output: Contribution to journalArticlepeer-review

3 Scopus citations

Abstract

Combining an x-ray free electron laser with a high-power laser driver enables the study of equations-of-state, high strain-rate deformation processes, structural phase transitions, and transformation pathways as a function of pressure to hundreds of GPa along different thermodynamic compression paths. Future high repetition-rate laser operation will enable data to be accumulated at >1 Hz, which poses a number of experimental challenges, including the need to rapidly replenish the target. Here, we present a combined shock compression and an x-ray diffraction study on epoxy (50% vol.)-crystalline grains (50% vol.) slurry targets, which can be fashioned into extruded ribbons for high repetition-rate operation. For shock-loaded NaCl-slurry samples, we observe pressure, density, and temperature states within the embedded NaCl grains consistent with observations from shock-compressed single-crystal NaCl.

Original languageEnglish (US)
Article number245901
JournalJournal of Applied Physics
Volume131
Issue number24
DOIs
StatePublished - Jun 28 2022

All Science Journal Classification (ASJC) codes

  • General Physics and Astronomy

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