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E-raamat: Electromagnetic Resonances in Nonlinear Optics

, (Institut National Polytechnique de Grenoble, France), (Universit & eacute; de Provence, Marsielle, France), (Institut National Polytechnique de Grenoble, France)
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Physicists, three French and one Bulgarian, explore the many phenomena arising from such resonance. Among their topics are diffraction grating theory, the electromagnetic theory of nonlinear optics, the theory of undepleted second harmonic generation in relief metallic grating, leaky modes, linear distributed couplers, and second harmonic generation on leaky resonators. They continue a series that provides review papers by specialists in quantum electronics as material for teaching graduate and undergraduate students and for professionals in the field; it complements the journal Nonlinear Optics . Annotation c. Book News, Inc., Portland, OR (booknews.com)
Introduction to the Series 3(2)
Introduction
5(4)
Introduction to Diffraction Grating Theory
9(26)
Introduction
9(1)
Grating fundamentals in linear optics
10(3)
Grating resonances
13(2)
Gratings in nonlinear optics
15(4)
Review of the gratings problems in linear optics
19(4)
Basic principles of rigorous electromagnetic theories in linear grating optics
23(12)
The Rayleigh theory
24(1)
Differential theory
24(1)
The method of Moharam and Gaylord
25(1)
The classical modal method
26(1)
The integral theory
27(1)
The method of coordinate transformation
28(1)
Grating theory user guide
29(6)
Electromagnetic Theory of Nonlinear Optics
35(13)
Fundamental laws and constitutive relations
35(6)
Nonlinear Polarization in second harmonic generation
41(2)
Dielectrics
41(1)
Metals
42(1)
Undepleted pump approximation
42(1)
Nonlinear polarization for optical Kerr effect
43(1)
Propagation equations
44(1)
Boundary conditions
45(3)
Rigorous Nonlinear Electromagnetic Theory of Corrugated Dielectric Waveguides
48(56)
Theory of undepleted second harmonic generation in corrugated dielectric waveguides
49(24)
Curvilinear coordinate transformation
49(10)
The Rayleigh-Fourier method as applied to second harmonic generation
59(4)
Differential method
63(1)
Solution at the pump frequency ω
63(3)
Nonlinear polarization inside the homogeneous region
66(1)
Nonlinear polarization inside the modulated region
67(1)
The field inside the modulated region
67(3)
The field inside the homogeneous nonlinear region
70(1)
The boundary conditions
71(2)
Numerical methods for analysis of pump field depletion in second harmonic generation and optical Kerr effect
73(17)
General considerations
73(4)
Plane incident wave - the classical differential method
77(7)
Optical Kerr-effect
84(1)
Second-harmonic generation
84(1)
Waveguide mode propagation: beam-propagation finite-difference method
85(3)
Waveguide mode propagation: finite-elements method
88(2)
Multilayered grating - elimination of numerical instabilities
90(14)
Errors
90(1)
Growing exponents and numerical instabilities
91(5)
Exponential terms inside the corrugated region
96(3)
S-matrix algorithm
99(5)
Theory of Undepleted Second Harmonic Generation in Relief Metallic Gratings
104(16)
The surface term of PNL
105(1)
The problem of boundary conditions
106(4)
The Propagation equations
110(2)
The polarization dependence
112(1)
The integral method
113(3)
The differential method
116(4)
Polology: Phenomenological Approach to (Quasi) Phase Matching
120(45)
Introduction
120(1)
An interesting example - resonantly enhanced or reduced second-harmonic absorption
121(7)
Pump wavelength 1.319 μm
128(1)
Pump wavelength 1.064 μm
128(1)
Phenomenological approach to electromagnetic resonance effects in linear optics
128(9)
Scattering matrix
129(1)
The electromagnetic resonance
130(3)
The zeros of bn
133(2)
Loci of δp(h) and δz(h) in the complex δ-plane
135(2)
Polology in Nonlinear Optics
137(10)
Second Harmonic Generation
137(7)
Optical Kerr Effect
144(3)
Optimization algorithm for second harmonic generation
147(18)
An optimization algorithm
149(6)
Behavior of coupling coefficients
155(2)
Some limitations and precautions
157(1)
Numerical examples
158(7)
Leaky Modes in Nonlinear Optical Resonators
165(87)
General considerations
165(1)
Different representations of the electromagnetic field in linear planar structures
166(32)
The longitudinal representation
167(1)
The transverse representation: guided modes and radiation fields
168(9)
The transverse representation: orthogonality relations and the equation of evolution of a mode amplitude
177(1)
Demonstration of the Lorentz reciprocity theorem
177(1)
Orthogonality relations
178(8)
Determination of the amplitude of a mode: guided or radiated
186(2)
Equation of evolution of a mode amplitude
188(2)
The leaky mode representation
190(1)
The leaky modes
190(4)
The different types of modes
194(3)
Brief summary
197(1)
Equation of evolution of a leaky mode amplitude in planar resonators
198(22)
Evaluation of JinQ
200(2)
Evaluation of JNLQ
202(2)
Preliminary considerations
204(2)
Calculation of JII and NII, rad
206(6)
Calculation of NQ, rad when two classes of radiation ``modes'' are resonantly excited
212(2)
General equation of evolution of a leaky mode amplitude
214(1)
The relation between the electromagnetic fields inside and outside the resonator
215(5)
Examples
220(14)
A prism coupler in linear optics
220(1)
Solution in the transverse representation for an incident plane wave
220(4)
Solution in the leaky mode representation
224(3)
A prism coupler in nonlinear optics
227(1)
Solution in the transverse representation
228(5)
Solution in the leaky mode representation
233(1)
Grating structures
234(14)
Homogeneous solution: general considerations
234(6)
Equation of evolution of a leaky mode amplitude
240(1)
The in-coupling process
241(3)
The influence of nonlinear polarization
244(1)
Amplitude of the diffracted orders in the outside media
245(1)
Extension to the time domain
246(2)
General summary
248(4)
Linear Distributed Couplers
252(24)
Radiation pattern of distributed couplers in the stationary regime: null points and m-lines
252(16)
Near field-pattern and null points
253(4)
Far-field pattern and m-line
257(7)
Far-field criterium
264(1)
Is there a link between the null point and the m-line?
264(4)
Spatio-temporal linear analysis of distributed couplers
268(8)
Prism couplers
271(1)
Grating couplers
272(4)
Kerr-Type Leaky Resonators
276(45)
Optical bistability
278(15)
Stationary plane wave study of optical bistability
278(1)
The nonlinear transmission
279(2)
The nonlinear reflection
281(2)
Diffraction-induced transverse effects due to the finite width of the pump beam
283(1)
General considerations
283(3)
Some comments on the plane wave solution
286(2)
Transverse effects in Kerr-type leaky resonators
288(5)
Spatio-temporal phenomena in Kerr-type leaky resonators
293(28)
Basic theoretical tools for stability analysis
295(4)
Plane wave solution in instantaneous Kerr media
299(3)
Plane wave solution in noninstantaneous Kerr media
302(1)
Linear stability analysis
302(3)
Nonlinear dynamics
305(3)
Spatio-temporal instabilities in Kerr-type resonators
308(2)
Static modulational instabilities in normal incidence
310(1)
Dynamic modulational instabilities in normal incidence
311(2)
Influence of the angle of incidence
313(8)
Second Harmonic Generation in Leaky Resonators
321(41)
Second harmonic generation at grating couplers: general results
322(6)
The basic equations
322(4)
Electromagnetic resonances and phase-matching
326(2)
The undepleted pump plane wave solution
328(13)
The same grating is used for the in-coupling and the resonant excitation of guided modes
328(1)
Theoretical results
328(2)
Numerical results
330(4)
Nonlinear m-lines at the second harmonic frequency
334(3)
Grating-assisted phase-matching: subwavelength grating
337(4)
Cerenkov second harmonic generation
341(4)
Optical bistability/instabilities in X[ 2]-optical resonators
345(17)
Stationary plane wave study of X[ 2]-induced optical bistability
347(1)
Second harmonic generation
348(1)
Sub/second harmonic generation
349(7)
Instabilities in X[ 2]-optical resonators
356(6)
Appendix A: Curvilinear transformation of coordinate system 362(1)
Appendix B: Propagation equation in TM polarization 363(1)
Appendix C: Propagation equation in TE polarization 364(1)
Appendix D: The multiplicity of the poles 365(2)
Appendix E: Radiation modes and related topics 367(11)
Appendix F: Resonant excitation of two classes of radiation modes 378(2)
Appendix G: Meaning of the spectral width of the resonance curve 380(1)
Appendix H: Hopf bifurcation in leaky resonators described by eqs.IX.47 381(3)
Appendix I: Numerical integration procedure of equations IX.55 384(2)
Index 386
Michel Neviere, E. Popov, R. Reinisch, G. Vitrant