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Prigogine I., Rice S.A. — Advances in chemical physics. Volume 117
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Íàçâàíèå: Advances in chemical physics. Volume 117Àâòîðû: Prigogine I., Rice S.A. Àííîòàöèÿ: Providing the chemical physics field with a forum for critical, authoritative evaluations in every area of the discipline, the latest volume of Advances in Chemical Physics continues to provide significant, up-to-date chapters written by internationally recognized researchers.
This volume is essentially devoted to helping the reader obtain general information about a wide variety of topics in chemical physics. Advances in Chemical Physics, Volume 117 includes chapters addressing laser photoelectron spectroscopy, nonadiabatic transitions due to curve crossings, multidimensional raman spectroscopy, birefringence and dielectric relaxation in strong electric fields, and crossover formulae for Kramers Theory of thermally activated escape rates.
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Kramers reaction rate theory, trapped particles, proof of 608—610 Kramers — Moyal expansion, Kramers reaction rate theory, Langevin/Fokker — Planck equations 495—497 Kramers, H.A. 435—436(112) 439—440(112) 480 487—489(4) 491(1) 494(4) 497(4) 505(4) 509(4) 512(4) 516—517(4) 520(4) 524(4) 541(4) 549(4) 588(4) 611—613(4) 637(4) 762 Krauss, M.J. 158(83) 233 Kreher, C.J. 71(172) 122 Kronecker's delta, Kramers reaction rate theory, rotational Brownian motion, dielectric relaxation 567—569 Kronecker's delta, orientational relaxation, rotational diffusion model 294—300 Krook, M. 417(98) 480 Kruit, P. 5(15) 8(15) 117 Kubo line shape theory, coherent anti-Stokes Raman scattering (CARS), intramolecular vibrations 241—243 Kubo line shape theory, nonlinear Brownian relaxation, strong electric fields, one-dimensional relaxation models 309—317 Kubo line shape theory, overtone dephasing spectroscopy 267—269 Kubo, O. 626(77) 764 Kubo, R. 241(9) 267(9) 270 307(61) 309(61) 479 Kuijt, J. 6(42) 82—83(42) 86—88(42) 118 Kummer's function, Kramers reaction rate theory, rigid Brownian rotator escape times, bistable potential, Green function time evolution, uniaxial anisotropy 753—758 Kummrow, A. 266(109—110 115 117) 273 Kunike, M. 131(36) 203(36) 231 Kupperman, A. 162(86) 230(102) 233 Kurnit, N.A. 246(26) 271 Kus, M. 133(58) 232 Kutina, R.E. 109(295) 125 Kuyatt, C.E. 86(234) 124 L'Hopital's rule, Kramers reaction rate theory, crossover between IHD/VLD regimes, Fokker — Planck equation 636—637 Lagrange — Sylvester formula, molecular control, time-dependent external fields 209—214 Lame's equation, inertial effects, dielectric and birefringence relaxation, free rotational motion 422—425 Lampert, A. 10(62) 119 Landau — Lifshitz equation, Kramers reaction rate theory, axial/nonaxial symmetric potentials, escape rates 676—681 Landau — Lifshitz equation, Kramers reaction rate theory, low-damping (LD) regime, escape rate calculations, boundary layer approximation 629—630 Landau — Lifshitz equation, Kramers reaction rate theory, rotational Brownian motion, mean first passage times (MFPT) escape rate calculation 575—578 Landau — Lifshitz equation, Kramers reaction rate theory, rotational Brownian motion, single domain ferromagnetic particles 563—566 Landau — Zener model, level crossings, nonadiabatic transitions, time-dependence 182—188 Landau — Zener model, nonadiabatic transition, time-dependent molecular control 215—219 Landau — Zener model, two-state curve crossing, nonadiabatic transitions, complete solutions 139—146 Landau — Zener model, two-state curve crossing, nonadiabatic transitions, limits of 128—129 Landau — Zener model, two-state curve crossing, nonadiabatic transitions, multichannel processes 152—153 Landau — Zener model, two-state curve crossing, nonadiabatic transitions, multichannel processes, adiabatic potentials, higher energies than 155—156 Landau — Zener model, two-state curve crossing, nonadiabatic transitions, multichannel processes, adiabatic potentials, lower energies than 156—159 Landau — Zener model, two-state curve crossing, nonadiabatic transitions, research background 134 Landau — Zener — Stueckelberg problems, time-dependent molecular control 215—219 Landau — Zener — Stueckelberg problems, time-dependent molecular control, exponential potential models 224—229 Landau — Zener — Stueckelberg problems, two-state nonadiabatic transition curve crossings, complete solutions 134—151 Landau — Zener — Stueckelberg problems, two-state nonadiabatic transition curve crossings, historical background 133—134 Landau — Zener — Stueckelberg problems, two-state nonadiabatic transition curve crossings, Landau — Zener case 142—146 Landau — Zener — Stueckelberg problems, two-state nonadiabatic transition curve crossings, tunneling case 146—151 Landau, L.D. 128—129(1) 133(1) 230 301(60) 479 Landauer, R. 133(61—62) 182(61—62) 232 579(71) 581(71) 764 Lane, C.K. 36(122) 120 Lang, M.J. 257(67—69) 261(68—69) 264—265(67) 272 Lange, M. 10(60) 19(60) 21(60) 119 Langelaar, J. 251(34—35) 271 Langer formalism, Kramers reaction rate theory, axial/nonaxial symmetric potentials, escape rates, nonaxial formula divergence for small axial symmetry departures 682—690 Langer formalism, Kramers reaction rate theory, intermediate-to-high damping (IHD) limit, background 579—581 Langer formalism, Kramers reaction rate theory, intermediate-to-high damping (IHD) limit, Kramers formula in context of 589—593 Langer formalism, Kramers reaction rate theory, intermediate-to-high damping (IHD) limit, magnetic spins 593—598 Langer formalism, Kramers reaction rate theory, intermediate-to-high damping (IHD) limit, principles 581—588 Langer formalism, Kramers reaction rate theory, Klein — Kramers equation, linearized solution 525—527 Langer, J.S. 489(61) 498(61) 570(61) 579—581(61) 588(61) 683(61) 764 Langevin equation, Brownian motion, research background 277—279 Langevin equation, Brownian motion, theoretical principles 491—493 Langevin equation, dielectric relaxation in cubic potential 440—441 Langevin equation, differential-recurrence equations, moment systems, continued fraction technique 304—307 Langevin equation, dynamic Kerr effect, ac field responses 292—293 Langevin equation, inertial effects, dielectric and birefringence relaxation 416—417 Langevin equation, inertial effects, dielectric and birefringence relaxation, dielectric response 428 Langevin equation, inertial effects, dielectric and birefringence relaxation, extended rotational diffusion model 418—425 Langevin equation, inertial effects, dielectric and birefringence relaxation, spectra and relaxation times 438—439 Langevin equation, Kramers reaction rate theory 493—497 Langevin equation, Kramers reaction rate theory, crossover between IHD/VLD regimes, magnetic relaxation 656—657 Langevin equation, Kramers reaction rate theory, escape rate validity 497—501 Langevin equation, Kramers reaction rate theory, intermediate-to-high damping (IHD) limit, Kramers' formula as Langers' formula 588—593 Langevin equation, Kramers reaction rate theory, intermediate-to-high damping (IHD) limit, Langer's treatment of 581—588 Langevin equation, Kramers reaction rate theory, intermediate-to-high damping (IHD) limit, magnetic spins 594—598 Langevin equation, Kramers reaction rate theory, Klein — Kramers equation, drift/diffusion coefficients 512 Langevin equation, Kramers reaction rate theory, Klein — Kramers equation, intermediate-to-high damping (IHD) limit 522—531 Langevin equation, Kramers reaction rate theory, Klein — Kramers equation, linearized solution 526—527 Langevin equation, Kramers reaction rate theory, Klein — Kramers equation, mean and mean square momentum changes 515—516 Langevin equation, Kramers reaction rate theory, Klein — Kramers equation, range of validity, damping regimes 551—555 Langevin equation, Kramers reaction rate theory, Klein — Kramers equation, single degree of freedom 509—510 Langevin equation, Kramers reaction rate theory, Klein — Kramers equation, velocity distribution 521—522 Langevin equation, Kramers reaction rate theory, low-damping (LD) regime, FPT escape rate calculations 612—613 Langevin equation, Kramers reaction rate theory, low-damping (LD) regime, FPT escape rate calculations, adjoint Fokker — Planck operator, differential equation 615—617 Langevin equation, Kramers reaction rate theory, low-damping (LD) regime, FPT escape rate calculations, boundary layer approximation 629—630 Langevin equation, Kramers reaction rate theory, rigid Brownian rotator escape times, bistable potential, Green function time evolution, background 742—743 Langevin equation, Kramers reaction rate theory, rotational Brownian motion 501—504 Langevin equation, Kramers reaction rate theory, rotational Brownian motion, dielectric relaxation 567—569 Langevin equation, Kramers reaction rate theory, rotational Brownian motion, single domain ferromagnetic particles 564—566 Langevin equation, orientational relaxation, rotational diffusion model 293—300 Langevin equation, orientational relaxation, Smoluchowski equation 303 Langevin equation, Stratonovich proof 463—465 Langevin equation, superparamagnetic particle relaxation, research background 446—447 Langevin equation, superparamagnetic particle relaxation, strong dc magnetic field 447—450 Langevin, P. 491(13) 521(13) 762 Langford, S.R. 6—7(43—44) 101(43—44) 102—103(43) 104(43—44) 105(43) 118 Lantz, K.O. 84(219) 123 Laplace transform, continued fraction technique, differential-recurrence equations, moment systems 304—307 Laplace transform, dynamic Kerr effect, strong dc electric fields 333—347 Laplace transform, dynamic Kerr effect, weak ac electric field steady-state response superimposed on dc bias field 352—353 Laplace transform, inertial effects, dielectric and birefringence relaxation, dielectric response 425—428 Laplace transform, Kerr effect relaxation, molecular hyperpolarizability, nonlinear step-on response 408—412 Laplace transform, Kramers reaction rate theory, rigid Brownian rotator escape times, bistable potential, Green function time evolution, Fokker — Planck equation with delta function 746—749 Laplace transform, Kramers reaction rate theory, rigid Brownian rotator escape times, bistable potential, Green function time evolution, zero frequency limit, recurrence relations 750—752 Laplace transform, nonlinear Brownian relaxation, strong electric fields, one-dimensional relaxation models 310—317 Laplace transform, nonlinear dielectric and birefringence relaxation, step-on response, high fields, nonpolar molecules 285—286 Laplace transform, nonlinear dielectric and birefringence relaxation, step-on response, high fields, polar molecules 284—285 Laplace transform, nonlinear dielectric and birefringence relaxation, strong dc electric fields 324—330 333—347 Laplace transform, orientational relaxation, rotational diffusion model 298—300 Laplace transform, relaxation time, linear response 466—468 Laplace transform, rotational diffusion, mean field potential, matrix continued fractions, complex susceptibility 443—446 Large viscosity case, Klein — Kramers equation, Kramers reaction rate theory 543—548 Large viscosity case, Klein — Kramers equation, Kramers reaction rate theory, Smoluchowski equation 544—549 Large viscosity case, Klein — Kramers equation, Kramers reaction rate theory, very high damping regime 543—544 Larmor precession, Kramers reaction rate theory, rotational Brownian motion 502—504 Larmor precession, rotational Brownian motion, Kramers reaction rate theory, single domain ferromagnetic particles 562—566 Larrieu, C. 125 Larsen, D.S. 257(67—68) 261(68) 264—265(67) 272 Larsson, M. 10(63—64 66) 119 Laser assisted surface ion neutralization (LASIN), time-dependent level crossings, nonadiabatic transitions 193—201 Laser fields, time-dependent molecular control 214—229 Laser fields, time-dependent molecular control, exponential nonadiabatic transition 224—229 Laser fields, time-dependent molecular control, Landau — Zener nonadiabatic transition 215—219 Laser fields, time-dependent molecular control, Rosen — Zener nonadiabatic transition 219—224 Laser induced fluorescence (LIF), CIO radicals 72 Laser photoelectron spectroscopy, molecular excited states, ammonia molecules 97—105 Laser photoelectron spectroscopy, molecular excited states, deuterium molecules 9—34 Laser photoelectron spectroscopy, molecular excited states, deuterium molecules, dissociative recombination (DR) 9—11 Laser photoelectron spectroscopy, molecular excited states, deuterium molecules, REMPI-PES, (3 + 1) 23—28 Laser photoelectron spectroscopy, molecular excited states, experimental protocols 8—9 Laser photoelectron spectroscopy, molecular excited states, hydrogen molecules 9—34 Laser photoelectron spectroscopy, molecular excited states, hydrogen molecules, dissociative recombination (DR) 9—11 Laser photoelectron spectroscopy, molecular excited states, hydrogen molecules, Laser photoelectron spectroscopy, molecular excited states, hydrogen molecules, REMPI-PES, (1 + 1') 29—34 Laser photoelectron spectroscopy, molecular excited states, hydrogen molecules, REMPI-PES, (3 + 1) 12—23 Laser photoelectron spectroscopy, molecular excited states, linear three-atomic molecules, 83—85 Laser photoelectron spectroscopy, molecular excited states, linear three-atomic molecules, 16-valence electrons 81—97 Laser photoelectron spectroscopy, molecular excited states, linear three-atomic molecules, carbon dioxide excited states 92—93 Laser photoelectron spectroscopy, molecular excited states, linear three-atomic molecules, OCS fragmentation 93—97 Laser photoelectron spectroscopy, molecular excited states, linear three-atomic molecules, REMPI-PES with 97 Laser photoelectron spectroscopy, molecular excited states, linear three-atomic molecules, structure and properties 81—83 Laser photoelectron spectroscopy, molecular excited states, linear three-atomic molecules, vibronic coupline, 86—92 Laser photoelectron spectroscopy, molecular excited states, research background 2—8 Laser photoelectron spectroscopy, molecular excited states, short-lived diatomic radicals 35—81 Laser photoelectron spectroscopy, molecular excited states, sulfur-containing molecules 105—116 Laser photoelectron spectroscopy, molecular excited states, sulfur-containing molecules, dimethyl sulfide 113—116 Laser photoelectron spectroscopy, molecular excited states, sulfur-containing molecules, methanethiol 108—112 Laser photoelectron spectroscopy, molecular excited states, sulfur-containing molecules, thiirane 106—108 Laser photoelectron spectroscopy, short-lived diatomic radicals, CIO radical 70—81 Laser photoelectron spectroscopy, short-lived diatomic radicals, NH radical 59—70 Laser photoelectron spectroscopy, short-lived diatomic radicals, OH radical 35—42 Laser photoelectron spectroscopy, short-lived diatomic radicals, SH radical 42—59 Laser photoelectron spectroscopy, sulfur-containing molecules, dimethyl sulfide 113—116 Laser photoelectron spectroscopy, sulfur-containing molecules, methanethiol 108—112 Laser photoelectron spectroscopy, sulfur-containing molecules, thiirane 106—108 Lassettre, E.N. 86(233) 123 Lassier-Govers, B. 439(116) 480 Lau, A. 266(109—110 112 115—117) 269(112) 273 Launay, F. 93(242 249) 124 Launay, J.M. 162(86) 233 le Fevre, R.J.W. 401(88) 480 Leach, S. 93(241) 124 LeBlanc, F.J. 86(232) 94(232) 123 Leclerc, B. 84(221) 94(254) 123—124 Ledoux, I. 403(94) 480 Lee, L.C. 42(138) 84(207) 121 123 Lee, S.H. 283(34) 403(34) 478 Lee, Y.H. 283(34) 403(34) 478 Lee, Y.T. 71(167 176) 122 Lefebvre, G. 42(134) 121 Lefebvre-Brion, H. 7(57—58) 118 124 Left eigenvector, Kramers reaction rate theory, intermediate-to-high damping (IHD) limit 585 598—600 Legendre polynomials, dynamic Kerr effect, ac field responses 291—293 Legendre polynomials, dynamic Kerr effect, weak ac electric field steady-state response superimposed on dc bias field, linear response theory 349 Legendre polynomials, dynamic Kerr effect, weak ac electric field steady-state response superimposed on dc bias field, transient and relaxation times 350—351 Legendre polynomials, Kerr effect relaxation, molecular hyperpolarizability, nonlinear step-on response 403—412 Legendre polynomials, Kramers reaction rate theory, rigid Brownian rotator escape times, bistable potential, Green function time evolution, zero frequency limit, recurrence relations 749—752 Legendre polynomials, nonlinear Brownian relaxation, strong electric fields, nonstationary ac response 400—401 Legendre polynomials, nonlinear Brownian relaxation, strong electric fields, one-dimensional relaxation models 313—317 Legendre polynomials, nonlinear Brownian relaxation, strong electric fields, superimposed ac/dc electric fields, polar and polarizable molecules 385—394 Legendre polynomials, nonlinear Brownian relaxation, strong electric fields, superimposed ac/dc electric fields, rigid polar molecules 374—382 Legendre polynomials, nonlinear dielectric and birefringence relaxation 281—283 Legendre polynomials, nonlinear dielectric and birefringence relaxation, high fields, build-up processes 288 Legendre polynomials, nonlinear dielectric and birefringence relaxation, step-on response, nonpolar molecules 285—286 Legendre polynomials, orientational relaxation, rotational diffusion model 298—300 Legendre polynomials, orientational relaxation, Smoluchowski equation 303 Legendre polynomials, perturbation solutions, weak electric field, superimposition on strong dc bias field 361—362 Legendre polynomials, superparamagnetic particle relaxation, uniaxial potential 457—460 Leickman, J.CI. 417(105—106) 422(106) 480 Lemaire, J.-L. 93(243) 124 Lepetit, B. 162(86) 233 Leung, K.P. 251(32—33) 271 Level crossings, nonadiabatic transitions 132—133 Level crossings, nonadiabatic transitions, time-dependent crossings, applications 188—201 Level crossings, nonadiabatic transitions, time-dependent crossings, Demkov — Osherov model 203—201 Level crossings, nonadiabatic transitions, time-dependent crossings, Nikitin's model 201—203 Level crossings, nonadiabatic transitions, time-dependent crossings, quadratic model solutions 182—188 Lew, H. 59(152) 121 Li, G. 245(17) 271 Li, L. 84(223—224) 123 Li, W.-X. 245(20) 260(20 94—95) 271 273 Li, X. 99—100(275—276) 125 Liao, C.L. 43(143) 121 Librational motion, Kramers reaction rate theory, escape rate validity 501 Lifchitz, E. 301(60) 479 Lin, S.H. 3(5) 117 Line integral denominator, Kramers reaction rate theory, low-damping (LD) regime, escape rate calculations, Stokes' theorem expression 619—620 Linear molecules, dielectric relaxation in cubic potential 439—441 Linear response theory, dielectric relaxation in cubic potential 440—441 Linear response theory, dynamic Kerr effect, weak ac electric field steady-state response superimposed on dc bias field 347—349 Linear response theory, inertial effects, dielectric and birefringence relaxation 416—439 Linear response theory, inertial effects, dielectric and birefringence relaxation, free rotation equation of motion 419—425 Linear response theory, inertial effects, dielectric and birefringence relaxation, general equations 417—419 Linear response theory, inertial effects, dielectric and birefringence relaxation, spectra and relaxation times 436—439 Linear response theory, Kerr effect relaxation, inertial effects, dielectric and birefringence relaxation 428—429 469—472 Linear response theory, Kerr effect relaxation, linear ac response and after effect solution 412—416 Linear response theory, nonlinear Brownian relaxation, strong electric fields, one-dimensional relaxation models 307—317 Linear response theory, relaxation time integral expression 465—468 Linear response theory, rotational diffusion, mean field potential, complex susceptibility of matrix continued fractions 442—446 Linear response theory, superparamagnetic particle relaxation, uniaxial potential 459—460 Linear three-atomic molecules, 16-valence electrons, laser photoelectron spectroscopy 81—97 Linear three-atomic molecules, 16-valence electrons, laser photoelectron spectroscopy, 83—85 Linear three-atomic molecules, 16-valence electrons, laser photoelectron spectroscopy, carbon dioxide excited states 92—93 Linear three-atomic molecules, 16-valence electrons, laser photoelectron spectroscopy, OCS fragmentation 93—97 Linear three-atomic molecules, 16-valence electrons, laser photoelectron spectroscopy, REMPI-PES with 97 Linear three-atomic molecules, 16-valence electrons, laser photoelectron spectroscopy, structure and properties 81—83 Linear three-atomic molecules, 16-valence electrons, laser photoelectron spectroscopy, vibronic couplinc, 86—92 Linearized Klein — Kramers equation, intermediate-to-high damping (IHD) regimes, Kramers reaction rate theory 522—531 Linearized Klein — Kramers equation, intermediate-to-high damping (IHD) regimes, Kramers reaction rate theory, linearized solution 524—527 Linearized Klein — Kramers equation, intermediate-to-high damping (IHD) regimes, Kramers reaction rate theory, potential barrier summit, linearization near 523—524 Lionti, F. 674(85) 741(85) 764 Liouville equation, Kramers reaction rate theory, escape rate validity 501 Liouville equation, Kramers reaction rate theory, Klein — Kramers derivation 505—508 Liouville equation, Kramers reaction rate theory, Klein — Kramers derivation, intuitive derivation, heat bath effects 510—511 Liouville equation, Kramers reaction rate theory, Klein — Kramers derivation, reduction and generalization 508—509 Liouville equation, Kramers reaction rate theory, Klein — Kramers derivation, small viscosity model, energy-phase variables 533—535 Liouville equation, Kramers reaction rate theory, Klein — Kramers equation, probability density, state space evolution 517—520 Liouville equation, Kramers reaction rate theory, Klein — Kramers equation, range of validity, damping regimes 551 Liouville equation, Kramers reaction rate theory, Langevin/Fokker — Planck equations 494—497 Liquid molecules, Raman-echo spectroscopy 251—256 Little, N. 99(278) 101(278) 125 Littman, M.G. 182(96) 233 Litvak, M.M. 42(136) 59(148) 121 Livingston, J.D. 446(124) 481 Llewellyn, E.J. 35(111) 120 Lochschmidt, A. 84(208) 123 Lock, M. 59(154) 121 Loewenschluss, A. 71(178) 122 Loiseau, A. 626(77) 764 Long, B.H. 35(111) 120 Lorentzian behavior, nonlinear dielectric and Kerr effect relaxation, strong dc electric fields 343—347 Lotshaw, W.T. 246(23—24) 257(55—57 71) 271—272 Lotz, M. 84(222) 123 Loughnane, B.J. 246—247(22) 257(22 53—54) 271—272 Lovas, F.J. 71—72(181) 78(181) 122 Low-damping (LD) regime, Kramers reaction rate theory, escape rate validity 500—501 Low-damping (LD) regime, Kramers reaction rate theory, first passage time escape rate calculations 610—626 Low-damping (LD) regime, Kramers reaction rate theory, first passage time escape rate calculations, adjoint Fokker — Planck operator and differential equation 613—617 Low-damping (LD) regime, Kramers reaction rate theory, first passage time escape rate calculations, boundary layer approximation 629—630 Low-damping (LD) regime, Kramers reaction rate theory, first passage time escape rate calculations, boundary layer derivation and solution 630—631 Low-damping (LD) regime, Kramers reaction rate theory, first passage time escape rate calculations, line integral, Stokes' expression 619—620 Low-damping (LD) regime, Kramers reaction rate theory, first passage time escape rate calculations, line integral, Stokes' expression, derivation 627—628 Low-damping (LD) regime, Kramers reaction rate theory, first passage time escape rate calculations, stretching transformation 620—623 Low-damping (LD) regime, Kramers reaction rate theory, first passage time escape rate calculations, uniform asymptotic expression 617—619 Low-damping (LD) regime, Kramers reaction rate theory, first passage time escape rate calculations, weak transverse field rate, evaluation 624—625 Low-damping (LD) regime, Kramers reaction rate theory, Klein — Kramers equation, small viscosity model 531 Low-damping (LD) regime, Kramers reaction rate theory, Klein — Kramers equation, small viscosity model, range of validity alternative 556—561 Low-frequency Raman scattering, coherent anti-Stokes Raman scattering (CARS), inter-molecular vibrations 244—246 Ludewig, H.G. 266(109) 273 Luke, Y. 172(95) 233 Lynch, D.L. 15(90) 17(90) 21(90) 120 M diffusion model, inertial effects, dielectric and birefringence relaxation 417 Ma, A. 264(99) 273 Maclaurin series, Kramers reaction rate theory, axial/nonaxial symmetric potentials, escape rates, asymptotic expansion 724—725 MacRobert, T.M. 749(91) 752(91) 765 Madden, P.A. 245(21) 271 Magnetic relaxation, Kramers reaction rate theory, crossover between IHD/VLD regimes 656—657 Magnetic relaxation, Kramers reaction rate theory, intermediate-to-high damping (IHD) limit 580—581 Magnetic relaxation, Kramers reaction rate theory, single domain ferromagnetic particles, rotational Brownian motion 561—566 Magnetic spins, Kramers reaction rate theory, intermediate-to-high damping (IHD) limit 593—598 Magnetic spins, Kramers reaction rate theory, low-damping (LD) regime, escape rate calculations, stretching transformation, mean first passage times (MFPT) 622—623 Magnetocrystalline anisotropy, Kramers reaction rate theory, rotational Brownian motion, axial symmetry 570—575 Mailly, D. 626(77—78) 764 Mainfray, G. 10(78) 119 Maki, A.G. 71—72(181) 78(181) 122 Malakhov, A.N. 745(104) 760(103—105) 765 Malm, D.N. 84(210—211) 123 Mannervik, S. 10(63—64) 119 Manopoulos, D.E. 162(86) 233 Manus, C. 10(78) 119 Many-body polarizability, coherent anti-Stokes Raman scattering (CARS), intermolecular vibrations 244—246 Marchesoni, f. 374(81) 396(81) 399(81) 401(81) 479 761—762(97) 765 Marcus, P. 59(157) 121 Marcus, R.A. 486(3) 494(3) 762 Margolis, J.S. 71(180) 122 Marichev, O.I. 757(92) 765 Maripuu, R. 84(205) 123 Markov process, Kramers reaction rate theory, rotational Brownian motion, single domain ferromagnetic particles 565—566 Martin, A.J. 439(114) 480 Maslov, V.P. 162(85) 233 Masnou-Seeuws, F. 42(134) 121 Massawe, E.S. 288(40) 437(40) 478 571(54) 753(54) 755(54) 763 Mataga, N. 132(50) 232
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