埃里克·B.沙姆斯，Originally from British Columbia， Canada， Eric Szarmes received his Bachelor of Applied Science in Engineering Physics from the University of British Columbia in 1985， and his PhD in Applied Physics from Stanford University in 1992， where he did his doctoral research in high resolution free-electron laser spectroscopy under Professor John Madey. He was a postdoctoral research scientist at the Duke Free-Electron Laser Laboratory from 1992 to 1998， where he made pioneering contributions to the phase-locked and chirped-pulse free-electron laser. In 1998 he joined the faculty of the University of Hawaii where he is currently an associate professor of physics. His current research interests include the theory and design of novel optical resonators for high-resolution free-electron laser spectroscopy， x-ray generation and high-field physics. His greatest passion is for teaching.
圖書(shū)目錄
Preface Acknowledgements Author biography 1 Introduction and overview 1.1 The free-electron laser 1.2 Classical stimulated emission 1.3 Electron bunching 1.4 FEL equations of motion References 2 The classical limit 2.1 Emission and absorption 2.2 Compton recoil 2.3 Wavepacket spreading References 3 Electron beam dynamics 3.1 Phase space and emittance 3.1.1 Beam envelope equation 3.2 Focusing properties of the undulator 3.3 Matching into the FEL Reference 4 Undulator trajectories 4.1 Transverse motion 4.2 Longitudinal motion 5 Spontaneous emission 5.1 Spectral lineshape 5.2 Spontaneous power (weak undulator fields) 5.3 Spontaneous power (strong undulator fields) References 6 Effect of the optical field on electron motion 6.1 The Lorentz equation 6.2 The FEL pendulum equation References 7 Effect of electron motio~ on the optical field 7.1 The wave equation 7.2 Transverse currents 7.3 The FEL wave equation 7.4 Energy conservation References 8 Transverse modes in the equations of motion 8.1 Superposition of transverse modes 8.2 The mode evolution equation 8.3 The multimode pendulum equation 8.4 The filling factor References 9 Small-signal gain--first derivation 9.1 Gain from energy conservation 9.2 Gain-spread theorem 9.3 Approximate solution of the FEL equations 9.4 Gouy phase shift References 10 Gain reduction and other effects 10.1 Electron beam emittance 10.2 High current and high gain 10.3 Energy spread 10.4 Short-pulse effects 10.5 Summary Reference 11 Laser saturation and output power 11.1 The nature of FEL saturation 11.2 Strong-saturation effects 11.3 Intensity dependence 11.4 Analysis of optical resonators 11.5 Extraction efficiency 11.6 Incorporation of energy spread 12 Harmonic lasing 12.1 Small-signal gain 12.2 Saturation and output power 12.3 Spontaneous emission 13 Helical undulators 13.1 Electron trajectories 13.2 FEL coupled equations of motion 13.3 Small-signal gain 14 Small-signal gain---second derivation 14.1 The equation for weak fields 14.2 FEL gain and dispersion 14.3 A digression on numerical simulations References 15 Short-pulse propagation 15.1 General description 15.2 The coupled Maxwell-Lorentz equations 15.3 Optical pulse evolution 15.4 Cavity detuning and refractive effects 15.5 Mode locked FEL theory References 編輯手記
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