LCLS Conceptual Design Report - Stanford Synchrotron Radiation ...

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L C L S C O N C E P T U A L D E S I G N R E P O R T 45 C. Schroeder, C. Pellegrini, and P. Chen, “Quantum Fluctuations in Free-Electron Lasers”, incourse of publication in Proc. Of the 2 nd Conf. on Quantum Aspects of Beam Physics, Capri (2000). 46 M.C. Teich, T. Tanabe, T.C. Marshall and J. Galayda, Phys. Rev. Lett. 65, 3393 (1990). 47 W.M. Fawley, LBNL Report LBNL-49625 (2002). 48 E. L. Saldin, E. A. Schneidmiller, M. V. Yurkov, “ Numerical simulation of the UCLA-LANL- RRCKI-SLAC experiment on a high gain SASE FEL”, Nucl. Instr. and Meth, A429, 197-201 (1999). 49 S. Reiche, Nucl. Instr. and Meth, A429, 243 (1999). 50 S.G. Biedron et al., Nucl. Instr. and Meth, A445 (2000) 110. 51 S. Reiche, DESY-Print, DESY-THESIS-2000-012 (2000) 52 E.L. Saldin et al., Nucl. Instr. and Meth, A381, 545 (1996). 53 K. Bane, SLAC report AP-87 (1991). 54 C.-K. Ng, Phys. Rev. D42, 1819 (1990); K. Bane, C.-K. Ng, and A. Chao, “Estimate of the impedance due to wall surface roughness,” SLAC-PUB-7514, (1997). 55 G.L. Stupakov et al., “Effects of beam tube roughness on a X-Ray free-electron laser performance,” Phys. Rev. ST 2, 60701/1-60701/6 (1999). 56 D.J. Whitehouse, Handbook of Surface Metrology (IOP Publishing, 1994) 57 K.J. Stout, Atlas of Machined Surfaces (Chapman and Hall, 1990). 58 G. V. Stupakov, Phys. Rev. ST Accel. Beams 1, 064401 (1998). 59 G.V. Stupakov, "Surface Roughness Impedance." AIP Conference Proceedings 581, p 141-152, ISBN 0-7354-0022-9, ISSN 0094-243X (2000). 60 A.V. Novokhatskii and A. Mosnier, Proc. 1997 Particle Accelerator Conf., 1661-1663 (1997). 61 K.L. Bane and A.V. Novokhatskii, SLAC, Tech. Rep. SLAC-AP-117 (1999). 62 G. V. Stupakov, in T. Roser and S. Y. Zhang, eds., Workshop on Instabilities of High Intensity Hadron Beams in Rings (American Institute of Physics, New York, 1999), no. 496 in AIP Conference Proceedings, pp. 341-350. 63 G. Stupakov, R.E. Thomson, D. Walz, and R. Carr, “Effects of Beam Tube Roughness on X-Ray Free Electron Laser Performance,” Phys. Rev. ST Accel. Beams, 2(6), 060701/1-60701/6 (1999). 64 J. B. Rosenzweig and E. Colby, in AIP Conf. Proc., vol.335, p. 724 (1995). 65 J. B. Rosenzweig et al., ''Optimal Scaled Photoinjector Designs for FEL Applications'', in Proc. IEEE Part. Acc. Conf., p. 2045 (1999). 66 J. B. Rosenzweig, private communication. 67 M. Ferrario et al, New Design Study and Related Experimental Program for the LCLS RF Photoinjector," LCLS-TN-00-9 (2000). 68 V. Bharadwaj et al. ''Ultrashort Light Pulses in the LCLS'', LCLS-TN-00-08, SLAC (2000). 69 “LCLS: the first experiments”, Report of the LCLS Scientific Advisory Committee, SLAC (2000). 70 P. Emma, ”Chirping the LCLS Electron Beam.” LCLS-TN-00-6, (2000). 71 C. Pellegrini, '':High Power femtosecond pulses from an X-ray SASE-FEL'', Nucl. Instr. and Meth, A445, 124-127 (2000). 4-28 ♦ F E L P H Y S I C S
L C L S C O N C E P T U A L D E S I G N R E P O R T 72 C. Schroeder et al., “Chirped-Beam Two-Stage SASE-FEL for High Power Femtosecond X-ray Pulse Generation”, in Proc. of the 2001 Particle accelerator Conf., Chicago 2001, in course of publication. 73 I. Ben-Zvi, K. M. Yang and L.-H. Yu, Phys. Rev. A318, 726 (1992) 74 L.-H. Yu et al., in Proc. of the 22 nd Intern. FEL Conf., Duke University (2000) 75 J. Feldhaus, E. L. Saldin, J. R. Schneider, E. A. Schneidmiller, and M. V. Yurkov, "Possible application of X-ray optical elements for reducing the spectral bandwidth of an X-ray SASE FEL", Opt. Commun. 140, 341-352 (1997); E. L. Saldin, E. A. Schneidmiller, Y. V. Shvyd'ko, and M.V. Yurkov, "X-ray FEL with a meV Bandwidth", in Proceedings of the 22 nd International Free Electron Laser Conference, Durham, 2000 (Elsevier, Amsterdam, in press); E. L. Saldin, E. A. Schneidmiller, and M. V. Yurkov, "Optimization of a seeding option for the VUV free electron laser at DESY", Nucl. Instr. and Meth, A445, 178-182 (2000). F E L P H Y S I C S♦ 4-29
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Linac Coherent Light Source (LCLS)
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L C L S C O N C E P T U A L D E S I
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Preface This Conceptual Design Repo
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Table of Contents 1 Executive Summa
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6. Two experiment halls L C L S C O
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Quantum Yield (electrons/photon) 10
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Bz (T) 0.3 0.2 0.1 1-2002 8560A92 L
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Master Clock 9.917 MHz x8 x6 x6 Df
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1-2002 8560A198 Linac Center Line L
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B z (kG) 3 2 1 4-2001 8560A91 L C L
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γε x,y (µm) 3 2 1 0 3-2001 8560A
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γεx,y (µm) yn 10 0 -10 -10 0 10
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σ γ /γ 0 (percent) ∆N/N 0.02 0
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5 0 -5 5 0 -5 5 0 -5 L C L S C O N
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Table 6.5 PARMELA Output Parameters
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gama x (micro.m) 3 2 1 0 0 L C L S
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∆E/E 0 (%) ∆N/N 0 -1 -2 0.02 0
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〈∆E/E 0 〉 /% I pk /I pk0 0.1
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β (m) 35 30 25 20 15 10 5 0 K21_1B
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β (m) 60 50 40 30 20 10 0 L C L S
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economic reasons. L C L S C O N C E
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Phase [deg. S-band] L C L S C O N C
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New Solid-State Sub-Booster and Ele
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7.8.2 Bunch Length Diagnostics L C
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Magnet String Location Existing, Ne
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8.1 Overview 8.1.1 Introduction L C
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Mu in the pole, for mu
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Gasload (Torr-l/sec-cm) (x10 -12 )
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8.10.4 Conclusion L C L S C O N C E
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x θ j > 0 L C L S C O N C E P T U
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Quad ∆X/µm Quad ∆Y/µm −500
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∆X/µm ∆Y/µm L C L S C O N C E
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8.13.2 Undulator Cell Structure L C
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9.2 Layout and Optics 9.2.1 Experim
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Fast Valve L C L S C O N C E P T U
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0.01 10 -4 10 -6 10 -8 10 -10 10 -1
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Table 9.5 Mirror requirements L C L
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Refractive Focusing System L C L S
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Pulse Split/Delay L C L S C O N C E
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Figure 9.20 LCLS Ion Chamber L C L
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9.4.3.2 Pulse Length L C L S C O N
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9.4.3.6 Divergence L C L S C O N C
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10 Conventional Facilities TECHNICA
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1-2002 8560A198 Linac Center Line L
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Figure 10.6 Near hall floor plan 10
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11 Controls TECHNICAL SYNOPSIS The
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11.5.3 Motion Controls L C L S C O
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12.1 Procedural Overview L C L S C
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13 Environment, Safety and Health a
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Table 13-1 Hazard Identification an
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13.1 Ionizing Radiation The design
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Table 13-2 Minimum Training Require
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13.10 SLAC References L C L S C O N
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L C L S D E S I G N S T U D Y R E P
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15 TECHNICAL SYNOPSIS Work Breakdow
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A A.1 FEL-Physics A.1.1 Performance
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A.2 Photo-Injector A.2.1 Gun-Laser
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A.2.3.2 Electron Beam L C L S C O N
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A.2.4.7 Vacuum L C L S C O N C E P
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A.3.8 DL-2 A.3.8.1 Subsystem L C L
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A.4 Undulator A.4.1 Undulator A.4.1
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B Control Points B.1 Injector Contr
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C Glossary ACO Anneaux Collisions O
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