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Relativistic Nonlinear Electrodynamics: The QED Vacuum and Matter in Super-Strong Radiation Fields 2nd ed. 2016 [Hardback]

  • Formāts: Hardback, 506 pages, height x width: 235x155 mm, weight: 9044 g, 59 Illustrations, color; XVII, 506 p. 59 illus. in color., 1 Hardback
  • Sērija : Springer Series on Atomic, Optical, and Plasma Physics 88
  • Izdošanas datums: 02-Dec-2015
  • Izdevniecība: Springer International Publishing AG
  • ISBN-10: 331926382X
  • ISBN-13: 9783319263823
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  • Formāts: Hardback, 506 pages, height x width: 235x155 mm, weight: 9044 g, 59 Illustrations, color; XVII, 506 p. 59 illus. in color., 1 Hardback
  • Sērija : Springer Series on Atomic, Optical, and Plasma Physics 88
  • Izdošanas datums: 02-Dec-2015
  • Izdevniecība: Springer International Publishing AG
  • ISBN-10: 331926382X
  • ISBN-13: 9783319263823

This revised edition of the author’s classic 2006 text offers a comprehensively updated review of the field of relativistic nonlinear electrodynamics. It explores the interaction of strong and super-strong electromagnetic/laser radiation with the electromagnetic quantum vacuum and diverse types of matter – including free charged particles and antiparticles, acceleration beams, plasma and plasmous media.  The appearance of laser sources of relativistic and ultra-relativistic intensities over the last decade has stimulated investigation of a large class of processes under such super-strong radiation fields.

Revisions for this second edition reflect these developments and the book includes new chapters on Bremsstrahlung and nonlinear absorption of superintense radiation in plasmas, the nonlinear interaction of relativistic atoms with intense laser radiation, nonlinear interaction of strong laser radiation with Graphene, and relativistic nonlinear phenomena in solid-plasma targets under supershort laser pulses of ultrarelativistic intensities.

The only book devoted to the subject of relativistic nonlinear electrodynamics, this second edition will be a valuable resource for graduate students and researchers involved in any aspect of the field, including those working with intense x-ray – gamma-ray lasers, the new generation of small size laser-plasma accelerators of superhigh energies and high-brightness particle beams.

1 Interaction of a Charged Particle with Strong Plane Electromagnetic Wave in Vacuum
1(34)
1.1 Classical Dynamics of a Particle in the Field of Strong Plane Electromagnetic Wave
1(3)
1.2 Intensity Effect. Mass Renormalization
4(6)
1.3 Radiation of a Particle in the Field of Strong Monochromatic Wave
10(4)
1.4 Nonlinear Radiation Effects in Superstrong Wave Fields
14(5)
1.5 Quantum Description. Volkov Solution of the Dirac Equation
19(6)
1.6 Nonlinear Compton Effect
25(10)
Bibliography
32(3)
2 Interaction of Charged Particles with Strong Electromagnetic Wave in Dielectric Media. Induced Nonlinear Cherenkov Process
35(34)
2.1 Particle Classical Motion in the Field of Strong Plane EM Wave in a Medium
36(1)
2.2 Nonlinear Cherenkov Resonance and Critical Field. Threshold Phenomenon of Particle "Reflection"
37(8)
2.3 Particle Capture by a Plane Electromagnetic Wave in a Medium
45(3)
2.4 Laser Acceleration in Gaseous Media. Cherenkov Accelerator
48(6)
2.5 Nonlinear Compton Scattering in a Medium
54(3)
2.6 Radiation of a Particle in Capture Regime. Cherenkov Amplifier
57(12)
Bibliography
67(2)
3 Quantum Theory of Induced Multiphoton Cherenkov Process
69(28)
3.1 Quantum Description of Induced Cherenkov Process in Strong Wave Field
69(6)
3.2 Quantum Description of "Reflection" Phenomenon. Particle Beam Quantum Modulation at X-Ray Frequencies
75(4)
3.3 Exact Solution of the Dirac Equation for Induced Cherenkov Process
79(4)
3.4 Secular Perturbation at Nonlinear Cherenkov Resonance
83(7)
3.5 Inelastic Diffraction Scattering on a Traveling Wave
90(3)
3.6 Quantum Modulation of Charged Particles
93(4)
Bibliography
96(1)
4 Cyclotron Resonance at the Particle--Strong Wave Interaction
97(32)
4.1 Autoresonance in the Uniform Magnetic Field in Vacuum
98(4)
4.2 Exact Solution of the Dirac Equation for Cyclotron Resonance
102(8)
4.3 Multiphoton Excitation of Landau Levels by Strong EM Wave
110(5)
4.4 Cyclotron Resonance in a Medium. Nonlinear Threshold Phenomenon of "Electron Hysteresis"
115(8)
4.5 High Harmonics Radiation at Cyclotron Resonance
123(6)
Bibliography
127(2)
5 Nonlinear Dynamics of Induced Compton and Undulator Processes
129(32)
5.1 Interaction of Charged Particles with Superstrong Counterpropagating Waves of Different Frequencies
130(6)
5.2 Interaction of Charged Particles with Superstrong Wave in a Wiggler
136(4)
5.3 Inelastic Diffraction Scattering on a Moving Phase Lattice
140(4)
5.4 Inelastic Diffraction Scattering on a Traveling Wave in an Undulator
144(3)
5.5 Quantum Modulation of Particle Beam in Induced Compton Process
147(3)
5.6 Quantum Modulation of Particle Beam in the Undulator
150(4)
5.7 Nonlinear Acceleration of Ions by Counterpropagating Laser Pulses: Generation of Ion/Nuclei Bunches from Nanotargets
154(7)
Bibliography
159(2)
6 Induced Nonstationary Transition Process
161(32)
6.1 Effect Of Abrupt Temporal Variation of Dielectric Permittivity of a Medium
162(2)
6.2 Classical Description of Induced Nonstationary Transition Process
164(5)
6.3 Quantum Description of Multiphoton Interaction
169(6)
6.4 Electron--Positron Pair Production by a γ-Quantum in a Medium
175(6)
6.5 Annihilation of Electron--Positron Pairs in a Medium
181(5)
6.6 Electron--Positron Pair Production by Strong EM Wave in Nonstationary Medium
186(7)
Bibliography
191(2)
7 Induced Channeling Process in a Crystal
193(28)
7.1 Positron--Strong Wave Interaction at the Planar Channeling in a Crystal
193(7)
7.2 Induced Interaction of Electrons with Strong EM Wave at the Axial Channeling
200(3)
7.3 Quantum Description of the Induced Planar Channeling Effect
203(5)
7.4 Quantum Description of the Induced Axial Channeling Effect
208(5)
7.5 Multiphoton Induced Channeling Effect
213(8)
Bibliography
220(1)
8 Nonlinear Mechanisms of Free Electron Laser
221(52)
8.1 Self-consistent Maxwell and Relativistic Quantum Kinetic Equations for Compton FEL with Strong Pump Laser Field
222(7)
8.2 Nonlinear Quantum Regime of X-Ray Compton Backscattering Laser
229(5)
8.3 Quantum Description of FEL Nonlinear Dynamics in a Wiggler
234(4)
8.4 High-Gain Regime of FEL
238(4)
8.5 Quantum SASE Regime of FEL
242(4)
8.6 High-Gain FEL on the Coherent Bremsstrahlung in a Crystal
246(5)
8.7 Nonlinear Scheme of X-Ray FEL on the Channeling Particle Beam in a Crystal
251(7)
8.8 Compton FEL on the Channeling Particle Beam
258(3)
8.9 Nonlinear Scheme of X-Ray Laser on the Ion and Pump Laser Beams
261(3)
8.10 Crystal Potential as a Pump Field for Generation of Coherent X-Ray
264(9)
Bibliography
270(3)
9 Electron--Positron Pair Production in Superstrong Laser Fields
273(36)
9.1 Vacuum in Superstrong Electromagnetic Fields Klein Paradox
274(6)
9.2 Electron--Positron Pair Production by Superstrong Laser Field and γ-Quantum
280(6)
9.3 Pair Production via Superstrong Laser Beam Scattering on a Nucleus
286(5)
9.4 Nonlinear e-, e+ Pair Production in Plasma by Strong EM Wave
291(9)
9.5 Pair Production by Superstrong EM Waves in Vacuum
300(9)
Bibliography
306(3)
10 Relativistic Quantum Theory of Scattering on Arbitrary Electrostatic Potential and Stimulated Bremsstrahlung
309(40)
10.1 Relativistic Wave Function of Spinor Particle Elastic Scattering on Arbitrary Electrostatic Potential in Generalized Eikonal Approximation
310(5)
10.2 Spinor Particle Scattering in the Coulomb Field by Generalized Eikonal Approximation
315(4)
10.3 Elastic Scattering Cross Section in Generalized Eikonal Approximation
319(2)
10.4 Bremsstrahlung in Superstrong Radiation Fields: Born Approximation
321(10)
10.5 Generalized Eikonal Approximation for Stimulated Bremsstrahlung
331(10)
10.6 Discussion of the GEA Wave Function in Various Limits
341(8)
Bibliography
347(2)
11 Interaction of Strong Laser Radiation with Highly Charged Atoms-Ions
349(40)
11.1 Highly Charged Hydrogen-Like Atoms-Ions in the Strong High-Frequency Laser Field
350(9)
11.2 Above-Threshold Ionization of Atoms-Ions By Superstrong Laser Fields
359(6)
11.3 The Relativistic Born Approximation by the Potential of Atomic Remainder in ATI
365(3)
11.4 Probability of ATI Process for Circular and Linear Polarizations of an EM Wave
368(8)
11.5 Acceleration or Deceleration of the Atoms by Counterpropagating Laser Beams
376(13)
Bibliography
386(3)
12 Interaction of Superstrong Laser Radiation with Plasma
389(34)
12.1 Electron Wavefunction in SB Process with Exact Consideration of Scattering Coulomb Field
390(4)
12.2 Radiation Absorption in Plasma via Inverse SB at the Exact Consideration of Scattering Field
394(3)
12.3 Absorption at Anisotropic Electron Distribution
397(3)
12.4 Absorption at Isotropic Electron Distribution
400(4)
12.5 Nonlinear Inverse-Bremsstrahlung Absorption Coefficient
404(5)
12.6 Asymptotic Formulas for Plasma Nonlinear Absorption at Arbitrary Large Intensities
409(5)
12.7 Microscopic Quantum Theory of Absorption of Powerful X-Ray in Plasma
414(9)
Bibliography
421(2)
13 High Harmonic Generation and Coherent X-Ray-γ-Ray Radiation in Relativistic Atomic-Ionic Systems
423(40)
13.1 Relativistic HHG in the Counterpropagating Waves Field
424(7)
13.2 Relativistic High-Order Harmonic Emission
431(2)
13.3 Relativistic HHG with Copropagating Ultrastrong Laser and Ion Beams in Plasma
433(7)
13.4 HHG by Intense Coherent X-Ray on Highly-Charged Hydrogen-like Ions
440(6)
13.5 Effective Hamiltonian for Collective Two-Photon Decay of Positronium Atoms
446(3)
13.6 Spontaneous Two-Photon Decay of a Para-Positronium
449(3)
13.7 Gamma-Ray Laser Based on the Collective Decay of Positronium Atoms in Bose--Einstein Condensate
452(6)
13.8 The Influence of the Confinement and Interaction Between the Positronium Atoms on the γ-Ray Generation Process
458(5)
Bibliography
460(3)
14 "Relativistic" Nonlinear Electromagnetic Processes in Graphene
463(38)
14.1 Effective "Relativistic" Hamiltonian for Graphene Quasiparticles
464(4)
14.2 Microscopic Theory of Strong Laser Fields Interaction with Graphene
468(5)
14.3 Multiphoton Resonant Excitation and Rabi Oscillations in Graphene
473(5)
14.4 Particle-Hole Multiphoton Excitation and High Harmonics Generation in Graphene
478(3)
14.5 Graphene Interaction with Strong Laser Radiation Beyond the Dirac Cone Approximation
481(2)
14.6 Coherent Effects and Control of Macroscopic Quantum States in Graphene
483(5)
14.7 Resonant Excitations of Fermi-Dirac Sea in a Bilayer Graphene
488(7)
14.8 Generation of Harmonics in a Bilayer Graphene at the Particle-Hole Multiphoton Excitation
495(6)
Bibliography
498(3)
Index 501
Hamlet Avetissian is Chair of the Department of Quantum Electronics and Scientific Head of the Laboratory of Nonlinear Electrodynamics, Yerevan State University, Armenia.  Prof. Avetissian is author of the discovery of several non-linear phenomena and more than 100 publications. Scientific leader in 3 doctorate and 15 Ph.D. dissertations.  Founder of the "Plasma Physics" specialization and Scientific Research Laboratory of Plasma Physics, Laboratory of Nonlinear Electrodynamics in the Yerevan State University.