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| Àâòîðèçàöèÿ |
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| Ïîèñê ïî óêàçàòåëÿì |
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| Shen Y.R. — The Principles of Nonlinear Optics |
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| Ïðåäìåòíûé óêàçàòåëü |
Acoustic wave equation 290
Adiabatic following 399—401
Adiabatic inversion 400
Anharmonic oscillator 5—8 439
Anomalies in stimulated Raman scattering 159 316—319
Anomalies in stimulated Raman scattering due to self-focusing 159 316—319
Anomalies in stimulated Raman scattering, anti-Stokes rings 159 319
Anomalies in stimulated Raman scattering, effective Raman gain 159 316
Anomalies in stimulated Raman scattering, forward-backward asymmetry 158—159 318
Anti-Stokes Raman scattering, spontaneous 168—169
Anti-Stokes Raman scattering, stimulated 167—168
Applications of stimulated Raman scattering, high-resolution spectroscopy 167—169
Applications of stimulated Raman scattering, tunable infrared sources 164—167
Applications of stimulated Raman scattering, tunable UV sources 167—169
Approximation, slow varying amplitude 47—49
Autler — Townes effect 418 425 429—430
Autoionization spectroscopy 346—347
Backward parametric amplification and oscillation 248—249
Bare atom 415—421
Bare atom, three-level system 418—421
Bare atom, two-level system 416—418
Bistability, optical 299—301
Blackbody radiation 108
Bloch equation 379—383
Bloch equation in rotating frame 382
Bloch equation, pseudo-dipole in 382
Bond model for calculations of susceptibilities 29—31
Bond model for calculations of susceptibilities, addivitivity rule 30
Bond model for calculations of susceptibilities, bond polarizabilities 30
Breakdown, DC or microwave 529
Breakdown, dependence on gas pressure 534
Breakdown, laser-induced thermal 529 537
Breakdown, optical 528—540
Breakdown, similarity principle for 532
Brillouin doublet 192
Brillouin scattering, stimulated 187—192
Broadening of spectral line 211—213
Broadening of spectral line, collisional 213
Broadening of spectral line, Doppler 212
Broadening of spectral line, homogeneous 212—213
Broadening of spectral line, inhomogeneous 212
Broadening of spectral line, power 213
Broadening of spectral line, pressure 213
Cherenkov radiation 200 314
Coherent anti-Stokes Raman scattering (CARS) 267—272
Coherent anti-Stokes Raman scattering (CARS), applications 270—271
Coherent anti-Stokes Raman scattering (CARS), experimental arrangement 271
Coherent anti-Stokes Raman scattering (CARS), nonresonant background 268—270
Coherent anti-Stokes Raman scattering (CARS), signal strength 270
Coherent anti-Stokes Raman scattering (CARS), spectrum 268—269
Coherent anti-Stokes Raman scattering (CARS), surface 491—493
Coherent length 76
Coherent Raman spectroscopy 267—275
Coherent Raman spectroscopy of excited states 280—281
Coherent Raman spectroscopy, pressure-induced 281
Coherent Stokes Raman scattering 275
Coherent transient effects see “Transient coherent optical effects”
Compression of ultrashort pulses 524—526
Compression of ultrashort pulses, experimental arrangement 524
Cotton — Mouton effect 55
Cotton — Mouton effect, inverse 60—66
Coupled-wave approach see “Stimulated Raman scattering”
Coupled-wave approach, boundary conditions 50
Coupled-wave approach, energy and momentum conservation 44
Coupled-wave approach, energy transfer among waves 44
Coupled-wave approach, phase matching condition 44
Coupled-wave approach, slowly varying amplitude approximation 47—49
Debye equation 198 298 319
Debye relaxation 198
Degenerate four-wave mixing 249—251
Degenerate four-wave mixing, connection with holography 250
Degenerate four-wave mixing, polarization dependence 250—251
Degenerate four-wave mixing, symmetry consideration 250
Density matrix formalism 13—17 415—419
Density matrix formalism for transient four-wave mixing 259—262 393—395
Density variation, laser-induced 290
Detection of rare atoms and molecules 270—271 275 349—365
Detection of rare atoms and molecules, applications 363—364
Detection of rare atoms and molecules, basic theory 349—354
Detection of rare atoms and molecules, conditions 352
Detection of rare atoms and molecules, demonstrations 360—363
Detection of rare atoms and molecules, experimental techniques 354—360
Detection of rare atoms and molecules, laser-induced fluorescence 354—358
Detection of rare atoms and molecules, photoioni24tion 358—360
Detection of rare atoms and molecules, requirement 349—350
Detection of rare atoms and molecules, signal-to-background ratio (discrimination factor) 352—354
Difference frequency generation 108—116
Difference frequency generation of far-infrared radiation 110—116
Difference frequency generation of tunable infrared radiation 109
Doppler broadening 212
Doppler-free spectroscopy, coherent transient spectroscopy see “Transient coherent optical effects”
Doppler-free spectroscopy, four-wave mixing spectroscopy 277—279
Doppler-free spectroscopy, multiphoton absorption and saturation spectroscopy 240
Doppler-free spectroscopy, polarization spectroscopy 232—235
Doppler-free spectroscopy, saturation spectroscopy 216—229
Doppler-free spectroscopy, two-photon absorption spectroscopy 229—232
Dressed atom 220 421—425
Dressed atom, absorption and fluorescence spectra 423
Dressed atom, effective n-level system 425
Dressed atom, three-level system 424—125
Dressed atom, two-level system 421—424
Dynamic (AC) Stark splitting 220 (see also “Optical Stark effect”)
Electron multiplication 531
Electrooptical effects 53—54
Electrooptical effects, DC Kerr effect 54
Electrooptical effects, Pocket’s effect 53
Energy randomization 458—459
Energy relation for fields 44—47
Exciton molecules 208
Exciton polaritons 207—208
Fabry — Perot interferometer, nonlinear 299—301
Far-infrared generation by difference-frequency mixing 110—116 176
Far-infrared generation by difference-frequency mixing, absorption 112
Far-infrared generation by difference-frequency mixing, diffraction effect 111—112
Far-infrared generation by difference-frequency mixing, phase matching effect 112
Far-infrared generation by difference-frequency mixing, reflection at boundary 112
Far-infrared generation by difference-frequency mixing, total reflection 112
Far-infrared generation by ultrashort pulses 113—116
Far-infrared generation by ultrashort pulses, power spectrum 114—115
Faraday effect, inverse 61—66
Faraday rotation 55
Feynman diagram, double 19—23 259—261 393—397
Field energy in nonlinear medium 46—47
Field energy, effective density 59—60
Field energy, energy density 46—47
Field energy, time-average conservation relation 47
Filament formation in CW self-focusing 323—324
Filament formation in quasi-steady-state self-focusing 315
Filament formation in self-focusing in plasmas 553
Filament formation in transient self-focusing 320—321
Fluorescence, multiphoton-induced spectroscopy 337 (see also “Laser-induced fluorescence”)
Forced light scattering 281—282
Four-wave mixing 242—265
Four-wave mixing in optical fibers 513
Four-wave mixing in plasma 547
Four-wave mixing spectroscopy 266—285
Four-wave mixing spectroscopy as high-resolution Doppler-free spectroscopy 277—279
Four-wave mixing spectroscopy, coherent anti-Stakes Raman spectroscopy (CARS) 267—272
Four-wave mixing spectroscopy, coherent Raman spectroscopy 267—275
Four-wave mixing spectroscopy, forced light scattering spectroscopy 281—282
Four-wave mixing spectroscopy, general description 266—267
Four-wave mixing spectroscopy, multiply resonant spectroscopy 277—281
Four-wave mixing spectroscopy, polarization CARS 272—275
Four-wave mixing spectroscopy, Raman-induced Kerr effect spectroscopy 275—277
Four-wave mixing spectroscopy, resonant characteristics in 266—267
Four-wave mixing spectroscopy, transient 283
Four-wave mixing with output in same mode as input field 248
Four-wave mixing with three pump fields 247—248
Four-wave mixing, backward parametric process 248—249
Four-wave mixing, degenerate 249—251
| Four-wave mixing, general theory 247—249
Four-wave mixing, nonlinear susceptibilities for 242—247
Four-wave mixing, phase conjugation 251—254
Four-wave mixing, pressure-induced extra resonance (PIER) 281
Four-wave mixing, spectroscopy 266—285 (see also “Four-wave mixing spectroscopy”)
Four-wave mixing, transient 259—264 (see also “Transient four-ware mixing”)
Four-wave mixing, tunable infrared and uv generation by 254—259
Free electron gas 8—11
Hamilton — Jacobi equation 308
Harmonic generation 86—116
Harmonic generation in plasmas 548—550
High-resolution nonlinear optical spectroscopy 211—241
High-resolution Raman spectroscopy 167—169 270
Hole burning 218—222
Index ellipsoid 54
Infrared multiphoton excitation and dissociation of molecules 437—465
Infrared multiphoton excitation and dissociation of molecules, early investigations 437—441
Infrared multiphoton excitation and dissociation of molecules, experimental results 453—458
Infrared multiphoton excitation and dissociation of molecules, models 446—453 459—461
Infrared multiphoton excitation and dissociation of molecules, physical description 441—446
Infrared-to-visible converter 256
Inhomogeneous broadening 211—212
Intensity-dependent ellipse rotation 295—296
Intensity-dependent ellipse rotation, experimental arrangement 296
Interference between Raman and two-photon resonances 275
Inverse Bremstrahlung process 529
Inverse Faraday and Cotton — Motion effect 60—66
Ionization, cascade or avalanche 529 532
Ionization, electron-impact 529
Ionization, multiphoton 337—339 528—529 533
Ionization, single-atom 528
Ionization, threshold rate 531
Isotope enrichment factor 438 469
Isotope separation 374 438 466—478
Isotope shifts 466—467
Isotope shifts, hyperfine interaction 467
Isotope shifts, mass effect 466—467
Isotope shifts, volume shift 467
Jacobi elliptical integral 80
Jacobian 104
Lamb dip 225—226
Lamb dip, inverted 226—227
Lamb shift 223—224
Laser fusion 271 350 552 278—279
Laser isotope separation 466—478
Laser isotope separation by infrared multiphoton dissociation 476
Laser isotope separation by one-step photopredissociation 474—475
Laser isotope separation by photochemical methods 473—476
Laser isotope separation by photochemical reaction 473—474
Laser isotope separation by photodeflection 240 471—473
Laser isotope separation by photoionization 470—471
Laser isotope separation by photophysical methods 470—473
Laser isotope separation by two-step photodissociation and photopredissociation 475—476
Laser isotope separation of  473
Laser isotope separation of B 476
Laser isotope separation of Ba 471—472
Laser isotope separation of hydrogen/deuterium 473 475
Laser isotope separation of uranium 462 470—471 476
Laser isotope separation, based on atomic excitation 469
Laser isotope separation, based on molecular excitation 469
Laser isotope separation, basic requirement 468
Laser isotope separation, general description 466—469
Laser manipulation of particles 366—378
Laser steering of atomic beams 373—375
Laser steering of atomic beams for isotope separation 374
Laser steering of atomic beams, deceleration of atoms 374
Laser steering of atomic beams, deflection of atomic beam 374
Laser steering of atomic beams, experimental arrangement 374
Laser steering of atomic beams, focusing of atomic beam 374—375
Laser-induced fluorescence 229 354—358 457
Laser-induced fluorescence for detection of rare atoms and molecules 354 357
Laser-induced fluorescence, coincidence counting technique 356
Laser-induced fluorescence, experimental arrangement 356—357
Liouville’s equation 14 380 416 419
Liquid crystals 293
Magneto-optical effects 54—56
Magneto-optical effects, Cotton — Mouton effect 55
Magneto-optical effects, Faraday effect 55
Magneto-optical effects, inverse effects 60—66
Maker fringes 99—100
Manley — Rowe relation 78
Maxwell equations 2—3
Maxwellian velocity distribution 212
Measurement of nonlinear optical susceptibilities 98—103
Measurement of nonlinear optical susceptibilities, interference method 99—100
Measurement of nonlinear optical susceptibilities, phase factor 99—100
Measurement of nonlinear optical susceptibilities, powder method 102—103
Molecular redistribution 95 291 293
Molecular reorientation 195—198
Molecular reorientation by circularly polarized field 292
Molecular reorientation by linearly polarized field 292
Molecular reorientation in liquid crystalline media 293
Molecular reorientation, optical-field-induced 195—198 291—293
Multichannel quantum defect theory 340
Multiphoton dissociation, infrared, analog model 459—461
Multiphoton dissociation, infrared, bond-selective (or mode selective) 440 461—462
Multiphoton dissociation, infrared, competing dissociation channels 458
Multiphoton dissociation, infrared, critical configuration 448
Multiphoton dissociation, infrared, dependence on laser intensity and fluence 452
Multiphoton dissociation, infrared, dissociation channels 440 445 453 458 462
Multiphoton dissociation, infrared, dissociation lifetime 448
Multiphoton dissociation, infrared, dissociation rate 448
Multiphoton dissociation, infrared, dissociation states 448
Multiphoton dissociation, infrared, dynamics 440 457
Multiphoton dissociation, infrared, excess energy 445 452 457
Multiphoton dissociation, infrared, exit energy barrier 448 457
Multiphoton dissociation, infrared, in continuum 445—446
Multiphoton dissociation, infrared, isotopically selective 438
Multiphoton dissociation, infrared, products 440
Multiphoton dissociation, infrared, secondary dissociation 453 458 462
Multiphoton dissociation, infrared, simple model 446—453
Multiphoton dissociation, infrared, summary 461—463
Multiphoton dissociation, infrared, two-laser scheme 454
Multiphoton dissociation, infrared, yields 439
Multiphoton excitation 354 432—435 539
Multiphoton excitation, infrared 437—465
Multiphoton excitation, infrared, as laser heating process 445
Multiphoton excitation, infrared, average excitation level 456
Multiphoton excitation, infrared, coherent effect in 462
Multiphoton excitation, infrared, in true continuum 445—446
Multiphoton excitation, infrared, induced luminescence 437—438
Multiphoton excitation, infrared, isotopically selective 438
Multiphoton excitation, infrared, limited by dissociation 445
Multiphoton excitation, infrared, population distribution after 449—451
Multiphoton excitation, infrared, stepwise resonant or near-resonant 441—442
Multiphoton excitation, infrared, through discrete levels 441—443
Multiphoton excitation, infrared, through quasi-continuum 443—445
Multiphoton ionization 528—529 533
Multiphoton ionization, spectroscopy 337—339
Multiphoton spectroscopy 334—348
Multiphoton spectroscopy, Doppler-free 336
Multiphoton spectroscopy, experimental techniques 337—339
Multiphoton spectroscopy, general considerations 334—336
Multiphoton transitions 334—336
Multiphoton transitions, (m+1)-step n-photon transition 336
Multiphoton transitions, detection 337—339
Multiphoton transitions, n-th order perturbation calculation 335
Multiphoton transitions, population excitation 334—335
Multiphoton transitions, single-step n-photon transition 33
Multiphoton transitions, transition probability 334
Multiphoton-induced fluorescence 337
Multiply resonant four-wave mixing 227—281
Multiply resonant four-wave mixing as Doppler-free spectroscopy 227—279
Multiply resonant four-wave mixing, coherent Raman spectroscopy of excited states 280—281
Multiply resonant four-wave mixing, doubly resonant case 244—245 278—279
Multiply resonant four-wave mixing, measurement of longitudinal relaxation time 279—280
Multiply resonant four-wave mixing, triply resonant case 245—246 275
Multipoles 3
Navier — Stokes equation 192
Nonlinear optical effect in optical waveguides 505—527
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