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The SwissFEL soft X-ray free-electron laser beamline: Athos.

Rafael AbelaArturo AlarconJürgen AlexChristopher ArrellVladimir ArsovSimona BettoniMarkus BoppChristoph BostedtHans Heinrich BraunMarco CalviTine CelcerPaolo CraievichAndreas DaxPhilipp DijkstalSladana DordevicEugenio FerrariUwe FlechsigRolf FollathFranziska FreiNazareno GaiffiZheqiao GengChristopher GoughNicole HillerStephan HunzikerMartin HuppertRasmus IschebeckHaimo JöhriPavle JuranicRoger KaltMaik KaiserBoris KeilChristoph KittelRené KünziThomas LippunerFlorian LöhlFabio MarcelliniGoran MarinkovicCigdem Ozkan LochGian Luca OrlandiBruce PattersonClaude PradervandMartin ParalievMarco PedrozziEduard PratPredrag RanitovicSven ReicheColette RosenbergStephane SanfilippoThomas SchietingerThomas M SchmidtKirsten SchnorrCristian SvetinaAlexandre TrisorioCarlo VicarioDidier VoulotUlrich WagnerHans Jakob WörnerAdriano ZandonellaLuc PattheyRomain Ganter
Published in: Journal of synchrotron radiation (2019)
The SwissFEL soft X-ray free-electron laser (FEL) beamline Athos will be ready for user operation in 2021. Its design includes a novel layout of alternating magnetic chicanes and short undulator segments. Together with the APPLE X architecture of undulators, the Athos branch can be operated in different modes producing FEL beams with unique characteristics ranging from attosecond pulse length to high-power modes. Further space has been reserved for upgrades including modulators and an external seeding laser for better timing control. All of these schemes rely on state-of-the-art technologies described in this overview. The optical transport line distributing the FEL beam to the experimental stations was designed with the whole range of beam parameters in mind. Currently two experimental stations, one for condensed matter and quantum materials research and a second one for atomic, molecular and optical physics, chemical sciences and ultrafast single-particle imaging, are being laid out such that they can profit from the unique soft X-ray pulses produced in the Athos branch in an optimal way.
Keyphrases
  • electron microscopy
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  • high speed
  • dual energy
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