Coherence properties of the LCLS X-ray beam

被引：0
|
作者：
Reiche, S. [1 ]
机构：
[1] Univ Calif Los Angeles, Los Angeles, CA 90095 USA
来源：
2007 IEEE PARTICLE ACCELERATOR CONFERENCE, VOLS 1-11 | 2007年
关键词：
D O I：
暂无
中图分类号：
TM [电工技术]; TN [电子技术、通信技术];
学科分类号：
0808 ; 0809 ;
摘要：
Self-amplifying spontaneous radiation free-electron lasers, such as the LCLS or the European X-FEL, rely on the incoherent, spontaneous radiation as the seed for the amplifying process. Though this method overcomes the need for an external seed source one drawback is the incoherence of the effective seed signal. The FEL process allows for a natural growth of the coherence because the radiation phase information is spread out within the bunch due to slippage and diffraction of the radiation field. However, at short wavelengths this spreading is not sufficient to achieve complete coherence. In this presentation we report on the results of numerical simulations of the LCLS X-ray FEL. From the obtained radiation field distribution the coherence properties are extracted to help to characterize the FEL as a light source.
引用
收藏
页码：3471 / 3473
页数：3
相关论文
共 50 条
  • [21] X-ray microscopy and talbot imaging with the matter in extreme conditions X-ray imager at LCLS
    Galtier, Eric
    Lee, Hae Ja
    Khaghani, Dimitri
    Boiadjieva, Nina
    Mcgehee, Peregrine
    Arnott, Ariel
    Arnold, Brice
    Berboucha, Meriame
    Cunningham, Eric
    Czapla, Nick
    Dyer, Gilliss
    Ettelbrick, Robert
    Hart, Philip
    Heimann, Philip
    Welch, Marc
    Makita, Mikako
    Gleason, Arianna E.
    Pandolfi, Silvia
    Sakdinawat, Anne
    Liu, Yanwei
    Wojcik, Michael J.
    Hodge, Daniel
    Sandberg, Richard
    Valdivia, Maria Pia
    Bouffetier, Victorien
    Perez-Callejo, Gabriel
    Seiboth, Frank
    Nagler, Bob
    SCIENTIFIC REPORTS, 2025, 15 (01):
  • [22] Predicting the coherent X-ray wavefront focal properties at the Linac Coherent Light Source (LCLS) X-ray free electron laser
    Barty, Anton
    Soufli, Regina
    McCarville, Tom
    Baker, Sherry L.
    Pivovaroff, Michael J.
    Stefan, Peter
    Bionta, Richard
    OPTICS EXPRESS, 2009, 17 (18): : 15508 - 15519
  • [23] XAMPS Prototypes for the X-ray Pump Probe Instruments at the LCLS
    Carini, G. A.
    Chen, W.
    Dragone, A.
    Fried, J.
    Jakoncic, J.
    Kuczweski, A.
    Li, Z.
    Mead, J.
    Michta, R.
    Pratte, J. -F.
    Rehak, P.
    Siddons, D. P.
    2008 IEEE NUCLEAR SCIENCE SYMPOSIUM AND MEDICAL IMAGING CONFERENCE (2008 NSS/MIC), VOLS 1-9, 2009, : 847 - +
  • [24] TES X-ray Spectrometer at SLAC LCLS-II
    Dale Li
    B. K. Alpert
    D. T. Becker
    D. A. Bennett
    G. A. Carini
    H.-M. Cho
    W. B. Doriese
    J. E. Dusatko
    J. W. Fowler
    J. C. Frisch
    J. D. Gard
    S. Guillet
    G. C. Hilton
    M. R. Holmes
    K. D. Irwin
    V. Kotsubo
    S.-J. Lee
    J. A. B. Mates
    K. M. Morgan
    K. Nakahara
    C. G. Pappas
    C. D. Reintsema
    D. R. Schmidt
    S. R. Smith
    D. S. Swetz
    J. B. Thayer
    C. J. Titus
    J. N. Ullom
    L. R. Vale
    D. D. Van Winkle
    A. Wessels
    L. Zhang
    Journal of Low Temperature Physics, 2018, 193 : 1287 - 1297
  • [25] The Optical Design of the Soft X-ray Self Seeding at LCLS
    Cocco, Daniele
    Abela, Rafael
    Amann, John W.
    Chow, Ken
    Emma, Paul J.
    Feng, Yiping
    Gassner, Georg L.
    Hastings, Jerome
    Heimann, Philip
    Huang, Zhirong
    Loos, Henrik
    Montanez, Paul A.
    Morton, Daniel
    Nuhn, Heinz-Dieter
    Ratner, Daniel F.
    Rodes, Larry N.
    Flechsig, Uwe
    Welch, James J.
    Wu, Juhao
    X-RAY LASERS AND COHERENT X-RAY SOURCES: DEVELOPMENT AND APPLICATIONS X, 2013, 8849
  • [26] Timepix detector at the X-ray Correlation Spectroscopy instrument at LCLS
    van Bakel, N. A.
    Robert, A.
    Sikorski, M.
    Ford, C.
    van Beveren, V.
    van der Heijden, B.
    van Beuzekom, M.
    11TH INTERNATIONAL CONFERENCE ON SYNCHROTRON RADIATION INSTRUMENTATION (SRI 2012), 2013, 425
  • [27] TES X-ray Spectrometer at SLAC LCLS-II
    Li, Dale
    Alpert, B. K.
    Becker, D. T.
    Bennett, D. A.
    Carini, G. A.
    Cho, H. -M.
    Doriese, W. B.
    Dusatko, J. E.
    Fowler, J. W.
    Frisch, J. C.
    Gard, J. D.
    Guillet, S.
    Hilton, G. C.
    Holmes, M. R.
    Irwin, K. D.
    Kotsubo, V.
    Lee, S. -J.
    Mates, J. A. B.
    Morgan, K. M.
    Nakahara, K.
    Pappas, C. G.
    Reintsema, C. D.
    Schmidt, D. R.
    Smith, S. R.
    Swetz, D. S.
    Thayer, J. B.
    Titus, C. J.
    Ullom, J. N.
    Vale, L. R.
    Van Winkle, D. D.
    Wessels, A.
    Zhang, L.
    JOURNAL OF LOW TEMPERATURE PHYSICS, 2018, 193 (5-6) : 1287 - 1297
  • [28] Start-to-end simulation for the LCLS X-ray FEL
    Reiche, S
    Pellegrini, C
    Rosenzweig, J
    Emma, P
    Krejcik, P
    NUCLEAR INSTRUMENTS & METHODS IN PHYSICS RESEARCH SECTION A-ACCELERATORS SPECTROMETERS DETECTORS AND ASSOCIATED EQUIPMENT, 2002, 483 (1-2): : 70 - 74
  • [29] X-ray free-electron lasers and the LCLS project
    Cornacchia, M
    SYNCHROTRON RADIATION INSTRUMENTATION, 2000, 521 : 441 - 449
  • [30] COHERENT PROPERTIES OF X-RAY SOURCES AND COHERENCE EFFECTS IN X-RAY OPTICS .1. SPATIAL COHERENCE OF SYNCHROTRON RADIATION
    AKHMANOV, SA
    GRISHANIN, BA
    LYAKHOV, GA
    PONOMARYOV, YV
    VESTNIK MOSKOVSKOGO UNIVERSITETA SERIYA 3 FIZIKA ASTRONOMIYA, 1980, 21 (06): : 31 - 38
12345