By the same authors

Diagnosis of radiation heating in iron buried layer targets

Research output: Chapter in Book/Report/Conference proceedingConference contribution

Published copy (DOI)

Author(s)

  • M. Shahzad
  • G. J. Tallents
  • O. Culfa
  • A. K. Rossall
  • L. A. Wilson
  • S. J. Rose
  • O. Guilbaud
  • S. Kazamias
  • M. Pittman
  • K. Cassou
  • J. Demailly
  • O. Delmas
  • A. Mestrallain
  • M. Farjardo
  • D. Ros

Department/unit(s)

Publication details

Title of host publicationX-Ray Lasers 2014
DateE-pub ahead of print - 20 Sep 2015
DatePublished (current) - 2016
Pages411-416
Number of pages6
PublisherSpringer Science and Business Media, LLC
Original languageEnglish
ISBN (Print)9783319195209

Publication series

NameSpringer Proceedings in Physics
PublisherSpringer
Volume169
ISSN (Print)0930-8989

Abstract

Extreme ultra-violet (EUV) laboratory lasers can be used to probe energy transport in laser irradiated solid targets. We report on a recent experiment undertaken at LASERIX whereby the heating of laser-irradiated targets containing a thin layer of iron (50 nm) encased in plastic (CH) was diagnosed using EUV laser (13.9 nm) back-lighter probing. The heating laser pulse duration was 35 fs with focal irradiances of 3 × 1016 Wcm−2 and a deliberate prepulse 20 ps before the main pulse at irradiances of 3 × 1015 Wcm−2. A one dimensional hydrodynamic fluid code HYADES has been used to simulate the temporal variation in EUV transmission using IMP opacity values for the iron layer and the simulated transmissions compared to measured transmission values. When a deliberate prepulse is used to preform an expanding plastic plasma, it is found that radiation heating is dominant in the heating of the iron layer giving rise to a rapid decrease in EUV opacity and an increase in the transmission of the 13.9 nm laser radiation as the iron ionizes to Fe5 + and above.

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