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Femtosecond diffractive imaging with a soft-X-ray free-electron laser

  • Author(s): Chapman, HN
  • Barty, A
  • Bogan, MJ
  • Boutet, S
  • Frank, M
  • Hau-Riege, SP
  • Marchesini, S
  • Woods, BW
  • Bajt, S
  • Benner, WH
  • London, RA
  • Plönjes, E
  • Kuhlmann, M
  • Treusch, R
  • Düsterer, S
  • Tschentscher, T
  • Schneider, JR
  • Spiller, E
  • Möller, T
  • Bostedt, C
  • Hoener, M
  • Shapiro, DA
  • Hodgson, KO
  • Van Der Spoel, D
  • Burmeister, F
  • Bergh, M
  • Caleman, C
  • Huldt, G
  • Seibert, MM
  • Maia, FRNC
  • Lee, RW
  • Szöke, A
  • Timneanu, N
  • Hajdu, J
  • et al.

Published Web Location

https://doi.org/10.1038/nphys461
Abstract

Theory predicts that, with an ultrashort and extremely bright coherent X-ray pulse, a single diffraction pattern may be recorded from a large macromolecule, a virus or a cell before the sample explodes and turns into a plasma. Here we report the first experimental demonstration of this principle using the FLASH soft-X-ray free-electron laser. An intense 25 fs, 4×1013W cm-2pulse, containing 1012photons at 32 nm wavelength, produced a coherent diffraction pattern from a nanostructured non-periodic object, before destroying it at 60,000 K. A novel X-ray camera assured single-photon detection sensitivity by filtering out parasitic scattering and plasma radiation. The reconstructed image, obtained directly from the coherent pattern by phase retrieval through oversampling, shows no measurable damage, and is reconstructed at the diffraction-limited resolution. A three-dimensional data set may be assembled from such images when copies of a reproducible sample are exposed to the beam one by one. © 2006 Nature Publishing Group.

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