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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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"Black water" phenomenon, Kramers reaction rate theory, Klein — Kramers equation, velocity distribution 522 "Magnetic bottle" analyzer, laser photoelectron spectroscopy 6—8 "Magnetic bottle" analyzer, laser photoelectron spectroscopy, deuterium molecules 23—28 "Magnetic bottle" analyzer, laser photoelectron spectroscopy, experimental protocols 8—9 "Magnetic bottle" analyzer, laser photoelectron spectroscopy, hydrogen molecules 12—13 "Magnetic bottle" analyzer, SH radical spectroscopy 54 "Population over flux" concept, Kramers reaction rate theory, rotational Brownian motion, mean first passage times (MFPT) escape rate calculation 578 86—92 221—224 226—229 Aarts, J.F.M. 86(229) 123 Ab initio calculations, (3 + 1) resonance-enhanced multiphoton ionization (REMPI) spectroscopy, deuterium molecules 24—28 Ab initio calculations, (3 + 1) resonance-enhanced multiphoton ionization (REMPI) spectroscopy, hydrogen molecule photoionization 15—19 Ab initio calculations, CIO radicals 74—77 Ab initio calculations, laser photoelectron spectroscopy, short-lived diatomic radicals, OH radical 36—41 Ab initio calculations, SH radical 43—45 Abella, I.D. 246(26) 271 Abragam, A. 562(50) 763 Abramowitz, M. 286—287(39) 311(39) 313(39) 334(39) 338(39) 341—342(39) 399—400(39) 421—422(39) 424(39) 426(39) 428(39) 439(39) 470—471(39) 478 649(82) 667—668(82) 691—692(82) 724(82) 736(82) 753—754(82) 757(82) 760(82) 764 AC magnetic field, Kerr effect relaxation, applications to 462—463 AC magnetic field, Kerr effect relaxation, molecular hyperpolarizability, linear response and after effect solution 412—416 AC magnetic field, nonlinear dielectric relaxation 289—293 AC magnetic field, nonlinear dielectric relaxation, applications 462—463 AC magnetic field, nonlinear dielectric relaxation, dielectric response 289—291 AC magnetic field, nonlinear dielectric relaxation, Kerr effect response 291—293 AC magnetic field, nonlinear dielectric relaxation, nonstationary ac response 394—401 AC magnetic field, nonlinear dielectric relaxation, rigid polar molecules, superimposed ac/dc magnetic fields 373—382 AC magnetic field, superparamagnetic particle relaxation, uniaxial potential, superimposed ac/dc bias magnetic fields 456—460 AC magnetic field, weak steady-state response superimposed on dc bias field, dynamic Kerr effect 347—358 AC magnetic field, weak steady-state response superimposed on dc bias field, dynamic Kerr effect, activation law behavior 356—358 AC magnetic field, weak steady-state response superimposed on dc bias field, dynamic Kerr effect, correlation time integral representation 354—356 AC magnetic field, weak steady-state response superimposed on dc bias field, dynamic Kerr effect, dipole moment evaluations 351—353 AC magnetic field, weak steady-state response superimposed on dc bias field, dynamic Kerr effect, linear response theory 347—349 AC magnetic field, weak steady-state response superimposed on dc bias field, dynamic Kerr effect, relaxation function and times, evaluation of 353—354 AC magnetic field, weak steady-state response superimposed on dc bias field, dynamic Kerr effect, transient and relaxation times 350—351 AC magnetic field, weak steady-state response superimposed on dc bias field, perturbation solutions 358—373 AC magnetic field, weak steady-state response superimposed on dc bias field, perturbation solutions, dispersion plots 368—373 AC magnetic field, weak steady-state response superimposed on dc bias field, perturbation solutions, equilibrium and first-order solutions, matrix continued fractions 362—364 Achiba, Y. 6(33) 109(33) 113(33) 117 Adiabatic potentials, nonadiabatic transitions, multichannel curve crossings, highest potential, energies higher than bottom of 155—156 Adiabatic potentials, nonadiabatic transitions, multichannel curve crossings, highest potential, energies lower than bottom of 156—159 Adiabatic potentials, nonadiabatic transitions, noncurve crossing, attractive potential model 178—181 Adiabatic potentials, nonadiabatic transitions, noncurve crossing, exponential potential model 169—172 Adiabatic potentials, nonadiabatic transitions, noncurve crossing, Rosen — Zenker — Demkov model 172—175 Adiabatic potentials, time-dependent level crossings, nonadiabatic transitions 189—201 Adiabatic propagation matrices, time-dependent level crossings, nonadiabatic transitions 197—201 Adjoint operators, Kramers reaction rate theory, low-damping (LD) regime, FPT escape rate calculations 613—617 Adjoint operators, Kramers reaction rate theory, rigid Brownian rotator escape times, bistable potential, Green function time evolution, integral escape time expression 743—745 After effect solution, Kerr effect relaxation, linear ac response and 412—416 After effect solution, superparamagnetic particle relaxation, strong dc magnetic field 448—450 Agondov, N.V. 760(105) 765 Airy functions, Kramers reaction rate theory, axial/nonaxial symmetric potentials, escape rates, crossover formulas, high damping regimes 692—694 Aitken, A.C. 585—586(74) 594(74) 764 Aizenberg, I.B. 283(28) 286—287(28) 309(28) 315(38) 478 Albrecht, A.C. 261(96) 266(96 101—108 111 113—114) 273 Alexiewicz, W. 282—283(22) 286(38) 309(38) 402(92) 478 480 Altenloh, D.D. 106—108(289) 114(289) 125 Amano, T. 36(120—121) 38(120—121) 71(189) 120 122 Amiens, C. 674(85) 741(85) 764 Amitay, Z. 10(60 65) 19(60) 21(60) 119 Ammonia molecules, laser photoelectron spectroscopy 97—105 Anderson, S.L. 94(257) 124 Anderson, W.R. 59(147) 121 Andrews, A.L. 401(87) 480 Andrews, L. 71(178—179) 122 Angular momentum, (1 + 1') resonance-enhanced multiphoton ionization, hydrogen molecules 32—34 Angular momentum, (3 + 1) resonance-enhanced multiphoton ionization (REMPI) spectroscopy, hydrogen molecule photoionization 15—19 Angular momentum, inertial effects, dielectric and birefringence relaxation, extended rotational diffusion model 417—425 Angular momentum, laser photoelectron spectroscopy, conservation of 7—8 Angular momentum, SH radical spectroscopy 49—54 Angular momentum, superparamagnetic particle relaxation, strong dc magnetic field 448—450 Anharmonicity, fifth-order Raman spectroscopy 261—264 Anisotropically polarized molecules, dielectric relaxation in cubic potential 441 Anisotropically polarized molecules, nonlinear Brownian relaxation, strong electric fields, superimposed ac/dc electric fields 383—394 Anisotropically polarized molecules, rotational diffusion, mean field potential, matrix continued fractions, complex susceptibility 444—446 Anisotropically polarized molecules, single domain ferromagnetic particles, Kramers reaction rate theory, rotational Brownian motion 561—566 Anisotropically polarized molecules, superparamagnetic particle relaxation, transient nonlinear response 451—456 Ansatz parameters, Kramers reaction rate theory, crossover between IHD/VLD regimes, Fokker — Planck equation 635—637 Antonetti, A. 403(94) 480 Approximate validity, Kramers reaction rate theory, Smoluchowski equation, large viscosity model 546 Approximation techniques, (3 + 1) resonance-enhanced multiphoton ionization (REMPI) spectroscopy, hydrogen molecule photodissociation 19—23 Aquilanti, V. 162(88) 233 Arakaki, Y. 10(61) 119 Arfken, G.B. 628(79) 764 Ariyoshi, T. 244(14) 271 Arndt, R. 254(47) 272 Arrhenius law, reaction rate theory 486—490 Ascenzi, D. 7(49—50) 81—83(49—50) 90—91(50) 94(49) 96(50) 97(49—50) 99(50) 118 Aseltine, J.A. 744(90) 748(90) 764 Ashfold, M.N.R. 6(38 43—46) 7(43—44 47—50 53) 43(53 145) 59(153 156 158) 55—56(53) 59(38) 62—65(38) 66(38 156) 72(193) 81—83(48—50) 85(48) 89(46) 90—91(50) 92(48) 96(50) 97(48 50 265) 99(50 272—273 277—280) 101(43—44 277—278 283) 102—103(43) 104(43—44) 105(43) 106—108(47—48 292) 109(45) 111(45) 113—114(46—47) 118 121—122 124—125 Ashworth, S.H. 43(139) 121 Asymmetric stretch, OCS fragmentation 93—97 Asymptotic expansion, dynamic Kerr effect, weak ac electric field steady-state response superimposed on dc bias field 356—358 Asymptotic expansion, inertial effects, dielectric and birefringence relaxation, spectra and relaxation times 431—439 Asymptotic expansion, Kramers reaction rate theory, axial/nonaxial symmetric potentials, divergence of 709 Asymptotic expansion, Kramers reaction rate theory, axial/nonaxial symmetric potentials, escape rates 674—675 Asymptotic expansion, Kramers reaction rate theory, axial/nonaxial symmetric potentials, uniaxial/LD crossovers 700—703 720—725 Asymptotic expansion, Kramers reaction rate theory, axial/nonaxial symmetric potentials, very low damping (VLD) limits 698 Asymptotic expansion, Kramers reaction rate theory, escape rate validity 497—501 Asymptotic expansion, Kramers reaction rate theory, low-damping (LD) regime, escape rate, calculations 611—613 Asymptotic expansion, Kramers reaction rate theory, low-damping (LD) regime, escape rate, mean first passage time (MFPT) expression 617—619 Asymptotic expansion, nonlinear Brownian relaxation, strong electric fields, rigid polar molecules, superimposed ac/dc electric fields 380—382 Attractive potential model, noncurve crossing, nonadiabatic transitions 178—181 Aue, D.H. 125 August, J. 40(130) 121 Autocorrelation frunction, rotational diffusion, mean field potential, matrix continued fractions, complex susceptibility 444—446 Autoionization, SH radical spectroscopy 55—59 Avoided crossings, molecular control, time-dependent external fields 211—214 Avoided crossings, nonadiabatic transitions, multichannel curve crossings 152—153 Avoided crossings, nonadiabatic transitions, multichannel curve crossings, open channel system 153—155 Avoided crossings, nonadiabatic transitions, multidimensional problems 165—168 Avoided crossings, noncurve crossing, nonadiabatic transitions 181—182 Avoided crossings, time-dependent level crossings, nonadiabatic transitions 190—201 Avoided crossings, time-dependent molecular control, Landau — Zener model 217—219 Axial symmetry, Kramers reaction rate theory, low-damping (LD) regime, escape rate calculations, weak transverse field 624—625 Axial symmetry, Kramers reaction rate theory, rotational Brownian motion, magnetocrystalline anisotropy 570—575 Axial symmetry, Kramers reaction rate theory, single domain ferromagnetic particles, escape rates, calculation principles 715—716 Axial symmetry, Kramers reaction rate theory, single domain ferromagnetic particles, escape rates, crossover function proof 717—718 Axial symmetry, Kramers reaction rate theory, single domain ferromagnetic particles, escape rates, divergence of escape rates 706—709 Axial symmetry, Kramers reaction rate theory, single domain ferromagnetic particles, escape rates, interpolation formulas, crossover high damping formulas 690—694 Axial symmetry, Kramers reaction rate theory, single domain ferromagnetic particles, escape rates, interpolation formulas, IHD divergence for small departures 681—690 Axial symmetry, Kramers reaction rate theory, single domain ferromagnetic particles, escape rates, interpolation formulas, notation 675—681 Axial symmetry, Kramers reaction rate theory, single domain ferromagnetic particles, escape rates, interpolation formulas, theoretical background 674—675 Axial symmetry, Kramers reaction rate theory, single domain ferromagnetic particles, escape rates, interpolation formulas, VLD limit applications 694—706 Axial symmetry, Kramers reaction rate theory, single domain ferromagnetic particles, escape rates, kinetic equation derivations 710—712 Axial symmetry, Kramers reaction rate theory, single domain ferromagnetic particles, escape rates, partition function, steepest descent evaluation 712—715 Axial symmetry, Kramers reaction rate theory, single domain ferromagnetic particles, escape rates, VLD limit applications, energy diffusion method 695—698 Axial symmetry, Kramers reaction rate theory, single domain ferromagnetic particles, escape rates, VLD limit applications, uniaxial perturbations 703—706 725—740 Axial symmetry, Kramers reaction rate theory, single domain ferromagnetic particles, escape rates, VLD limit applications, uniaxial/LD crossovers 698—703 718—725 Baer, M. 128(10) 134(10) 229(10) 230 Bagchi, B. 267(121) 274 Baker, A.D. 6(27—28) 28(27) 117 Baker, C. 6(27) 28(27) 117 Baker, J. 84(225—226) 89(225) 92(225—226) 123 Baldwin, D.P. 10(83) 43(143) 119 121 Baldwin, M.A. 7(48 50) 81—83(48 50) 85(48) 90—91(50) 92(48) 96(50) 97(48 50) 99(50) 118 Ballard, R.E. 6(31) 70(31) 117 Bamford, D.J. 10(80) 119 Bandrauk, a.d. 233 Barany, A. 136(71—72) 171(72) 137(75) 232 Barbara, B. 626(77—78) 674(85) 741(85) 764 Barrier limit, Kramers reaction rate theory, crossover between IHD/VLD regimes, Fokker — Planck equation 636—637 Barrier limit, Kramers reaction rate theory, intermediate-to-high damping (IHD) limit, Kramers' formula as Langer's formula 591—593 Barrier limit, Kramers reaction rate theory, intermediate-to-high damping (IHD) limit, particle current calculations 587 600—606 Barrier limit, Kramers reaction rate theory, Klein — Kramers equation, linearized Klein — Kramers equation, potential barrier summit, IHD regime 523—524 Barrier limit, Kramers reaction rate theory, Klein — Kramers equation, reaction rate calculations 531 Barrier limit, Kramers reaction rate theory, Maxwell — Boltzmann distribution 496—497 Barrier limit, Kramers reaction rate theory, rotational Brownian motion, axial symmetry, magnetocrystalline anisotropy 573—575 Bartolini, P. 245(19) 271 Barton, S.A. 71(188) 122 Bartram, R.H. 132(53) 232 Basco, N. 72—74(196) 106—108(288) 122 125 Battett, A.H. 35(114) 120 Baumert, T. 71(177) 122 Baumgaertel, S. 72(191 197) 79(197) 122 Bayley, J.M. 108(292) 125 Bean, C.P. 446(124) 481 Bebelaar, D. 251(34—35) 271 Becker, R. 489(17) 581(17) 762 Bell, S. 36(124) 120 Bemand, P.P. 71(170) 122 Ben-Jacob, E. 133(60 63 66) 182(60 63 66) 232 Benn, R. 236(1) 247(1) 270 Bennett, C.L. 97(265) 124 Benoit, A. 626(77—78) 764 Benoit, H. 279—282(12) 286(12) 477 Bente, E.A.J.M. 251(35) 271 Berdan, J. 403(94) 480 Berg, M. 246(27) 250(30) 252(30 37 41) 253(37) 254(30 44 46) 256(30) 271—272 Bergmark, T. 125 Berkowitz, J. 6(32) 109(295) 117 125 Bernath, P.E. 59(150—151) 121 Berne, B.J. 244(12) 271 Bernoulli numbers, Kramers reaction rate theory, crossover between IHD/VLD regimes, prefactor integral calculations 649—650 Bersohn, R. 36(119) 38(119) 96—97(260) 120 124 Bessel functions, Kramers reaction rate theory, axial/nonaxial symmetric potentials, escape rates, crossover formulas, high damping regimes 691—964 Bessel functions, nonlinear dielectric and birefringent high fields, build-up processes 287—288 Bessel functions, nonlinear dielectric and Kerr effect relaxation, strong dc electric fields, step-on response, permanent dipole effect 341—343 Bessel integral transformation, noncurve crossing, nonadiabatic transitions, exponential potential model 170—172 Bethe, H.A. 32(104) 120 Betteridge, D. 6(28) 117 Betterman, G. 254(47) 272 Bhatnagar — Gross — Krook (BGK) model, inertial effects, dielectric and birefringence relaxation 417 Bhatnagar, P.L. 417(98) 480 Bhattacharyya, S. 267(121) 274 Bias magnetic fields see "Superimposed ac/dc magnetic fields" Billing, G.D. 486(2) 538(2) 762 Binary collisions, Brownian motion principles 490—493 Birefringence relaxation, ac field responses 289—293 Birefringence relaxation, ac field responses, dielectric response 289—291 Birefringence relaxation, ac field responses, Kerr effect response 291—293 Birefringence relaxation, dynamic Kerr effect, weak ac electric field steady-state response superimposed on dc bias field 354 358—360 Birefringence relaxation, historical background 293 Birefringence relaxation, inertial effects, linear response 416—439 Birefringence relaxation, inertial effects, linear response, extended rotational diffusion model, free rotation equation of motion 419—425 Birefringence relaxation, inertial effects, linear response, extended rotational diffusion model, general equations 417—419 Birefringence relaxation, inertial effects, linear response, extended rotational diffusion model, strong dc electric field 417—425 Birefringence relaxation, inertial effects, linear response, Kerr effect relaxation 428—439 Birefringence relaxation, inertial effects, linear response, spectra and relaxation times 429—439 Birefringence relaxation, inertial effects, linear response, strong dc electric field 416—425 Birefringence relaxation, molecular hyperpolarizability, linear ac response and after effect solution 413—416 Birefringence relaxation, perturbation solutions, weak electric field, superimposition on strong dc bias field 358—373 Birefringence relaxation, perturbation solutions, weak electric field, superimposition on strong dc bias field, dispersion plots 368—373 Birefringence relaxation, perturbation solutions, weak electric field, superimposition on strong dc bias field, equilibrium and first-order solutions, matrix continued fractions 362—364 Birefringence relaxation, perturbation solutions, weak electric field, superimposition on strong dc bias field, second-order solutions 364—368 Birefringence relaxation, rotational diffusion, mean field potential, cubic potential molecules 439—441 Birefringence relaxation, rotational diffusion, mean field potential, matrix continued fractions, complex susceptibility 442—446 Birefringence relaxation, strong electric fields, exact solutions 330—347 Birefringence relaxation, strong electric fields, nonstationary ac response 394—401 Birefringence relaxation, strong electric fields, one-dimensional model 307—317 Birefringence relaxation, strong electric fields, one-dimensional relaxation models 309—317 Birefringence relaxation, strong electric fields, polar and polarizable molecules 382—394 Birefringence relaxation, strong electric fields, problem formulation and solution 317—330 Birefringence relaxation, strong electric fields, relaxation spectra evaluation 343—347 Birefringence relaxation, strong electric fields, relaxation time/spectra evaluation 340—343 Birefringence relaxation, strong electric fields, rigid polar molecules 373—382 Birefringence relaxation, strong electric fields, step-on response evaluation 336—340 Birefringence relaxation, superparamagnetic particles 446—460 Birefringence relaxation, superparamagnetic particles, strong dc field, Langevin equation 447—450 Birefringence relaxation, superparamagnetic particles, transient nonlinear response 450—456 Birefringence relaxation, superparamagnetic particles, uniaxial particles, ac/dc bias magnetic fields 456—459 Birefringence relaxation, transient responses in high fields 283—288 Birefringence relaxation, transient responses in high fields, build-up processes, relaxation times 286—288 Birefringence relaxation, transient responses in high fields, step-on response, nonpolar polarizable molecules 285—286 Birefringence relaxation, transient responses in high fields, step-on response, polar molecules 284—285 Bischel, W.K. 10(80) 119 Bishenden, E. 71(171 173 175) 72(171) 122 Bistable potentials, Kramers reaction rate theory, rigid Brownian rotator escape times, Green function evolution, Fokker — Planck equation, zero-frequency limit, delta function orientation distribution 745—749 Bistable potentials, Kramers reaction rate theory, rigid Brownian rotator escape times, Green function evolution, integral expression of escape time 743—745 Bistable potentials, Kramers reaction rate theory, rigid Brownian rotator escape times, Green function evolution, principles 741—743 Bistable potentials, Kramers reaction rate theory, rigid Brownian rotator escape times, Green function evolution, series expression for summit time 752—753 Bistable potentials, Kramers reaction rate theory, rigid Brownian rotator escape times, Green function evolution, uniaxial anisotropy explicit expression 753—758 Bistable potentials, Kramers reaction rate theory, rigid Brownian rotator escape times, Green function evolution, zero-frequency limit recurrence relations 749—752 Bitto, H. 84(213) 123 Blaise, P. 283(30) 309(30) 311(30) 336(30) 339(30) 478 Blanchet, V. 4(13—14) 117 Blank, D.A. 257(70) 262(70 97—98) 263(98) 265—266(98) 270(97) 272—273 Blatter, G. 133(65) 182(65) 232 Block, H. 282(15) 462(15) 478 Blocking temperature, Kramers reaction rate theory, axial/nonaxial symmetric potentials, escape rates 674—675 Blomberg, C. 745(106) 765 Boettcher, C.J.F. 401(89) 404(89) 480 Bohr frequencies, coherent anti-Stokes Raman scattering (CARS) 239—243 Boivin, D. 626(77) 764 Bolton, J.R. 132(50) 232 Boltzmann distribution function see also "Maxwell — Boltzmann distribution function" Boltzmann distribution function, Brownian motion principles 490—493 Boltzmann distribution function, dielectric relaxation in cubic potential 441 Boltzmann distribution function, Kramers reaction rate theory, Klein — Kramers derivation, Liouville equation 509 Boltzmann distribution function, nonlinear dielectric and Kerr effect relaxation, strong dc electric fields 330—347 Boltzmann distribution function, orientational relaxation, rotational diffusion model 300 Bondybey, V.E. 84(208) 123 Bonet Orozco, E. 626(77—78) 764 Bonnie, J.H.M. 10(68 70) 12(68) 33(68 70) 34(70) 119 Bordewijk, P. 401(89) 404(89) 480 Borkovec, M. 486—491(1) 501(1) 504(1) 527(1) 541(1) 576(1) 578—579(1) 581—583(1) 585(1) 588(1) 597(1) 601(1) 608(1) 611(1) 617(1) 620(1) 623(1) 632(1) 635(1) 656(1) 743(1) 762(1) 762 Born, M. 7(55) 59(55) 66(55) 118 Borrell, P. 34(108) 120 Bose — Einstein corrected Rayleigh-wing spectra, coherent anti-Stokes Raman scattering (CARS), intermolecular vibrations 244—246 248 Bose, T.K. 289(42) 373(42) 462(42) 478 Botschwina, P. 93(248) 124 Bound superexcited states, (3 + 1) resonance-enhanced multiphoton ionization (REMPI) spectroscopy, deuterium molecular photoionization 28 Boundary conditions, Kramers reaction rate theory, axial/nonaxial symmetric potentials, escape rates 680—681 Boundary conditions, Kramers reaction rate theory, crossover between IHD/VLD regimes, double well potential bridging formula 651—655 Boundary conditions, Kramers reaction rate theory, crossover between IHD/VLD regimes, Wiener — Hopf integral equation, energy distribution function 640—646 Boundary conditions, Kramers reaction rate theory, Klein — Kramers equation, linearized solution 525—527 Boundary conditions, Kramers reaction rate theory, Klein — Kramers equation, reaction rate calculations 530—531 Boundary conditions, Kramers reaction rate theory, rotational Brownian motion, mean first passage times (MFPT) escape rate calculation 576—578 Boundary layer approximation, Kramers reaction rate theory, low-damping (LD) regime, escape rate calculations, derivation and solution 630—631 Boundary layer approximation, Kramers reaction rate theory, low-damping (LD) regime, escape rate calculations, Landau — Lifshitz equation 629—630 Boundary layer approximation, Kramers reaction rate theory, low-damping (LD) regime, escape rate calculations, Stokes' theorem expression 619—620 Bowers, M.T. 125 Bowling, D.L. 282(23) 286(23) 292(23) 326(23) 478 Bowtie multilevel model, time-dependent level crossings, nonadiabatic transitions 204—206 Bragg, S.L. 31(101) 120 Bratos, S. 254(49) 272 417(105—106) 422(106) 480 Brault, J.W. 31(101) 120 Braun, H.B. 581(73) 598(73) 760(101) 764—765 Brazier, C.R. 59(151) 121 Breymayer, H.-J. 373(79) 479 Bridging formula, Kramers reaction rate theory, crossover between IHD/VLD regimes, double well potential model 650—655 Bridging formula, Kramers reaction rate theory, crossover between IHD/VLD regimes, double well potential model, Wiener — Hopf method Fourier transforms 669—674 Brinkman's hierarchy, inertial effects, dielectric and birefringence relaxation 416—417 Brinkman's hierarchy, Kramers reaction rate theory, Smoluchowski equation, large viscosity model 547 Brinkman, H.C. 416(97) 480 454(46) 579(69) 581(69) 746(46) 763—764 Brostroem, L. 10(63—64) 119 Brot, C. 439(116) 440(119) 480 Broto, J.M. 674(85) 741(85) 764 Brouard, M. 40(130) 121 Broudem, C. 10(65) 119 Brown, J.M. 43(139) 121 Brown, W.F.Jr. 445(122) 446(122 126) 447(122) 480—481 492(21) 502—503(21) 504(62) 551(21) 562(21) 574(21) 579(62) 593(62) 597(62) 612(62) 614(21) 622(62) 674(21) 678(21) 682 62) 683(62) 716(21) 761(21) 762 Browne, D.A. 133(65) 182(65) 232 Brownian motion, dielectric and Kerr effect relaxation, research background 277—279 Brownian motion, dynamic Kerr effect, weak ac electric field steady-state response superimposed on dc bias field, correlation time, integral representation 354—356 Brownian motion, Kramers reaction rate theory 490—493 Brownian motion, Kramers reaction rate theory, Klein — Kramers equation, large viscosity model 544 Brownian motion, Kramers reaction rate theory, Klein — Kramers equation, mean and mean square momentum changes 513—516 Brownian motion, Kramers reaction rate theory, Klein — Kramers equation, probability density, state space evolution 516—520 Brownian motion, Kramers reaction rate theory, Klein — Kramers equation, small viscosity model, low-damping (LD) regime 531
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molecule, vibronic coupling 
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