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Ïîèñê ïî óêàçàòåëÿì |
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Prigogine I., Rice S.A. — Advances in CHEMICAL PHYSICS. Volume XC |
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Ïðåäìåòíûé óêàçàòåëü |
Lyapunov exponents, molecular transition state 291
Lyapunov exponents, molecular transition state, high-energy regime 309—310
Lyapunov exponents, molecular transition state, intermediate regime 307—309
Lyapunov exponents, molecular transition state, large molecule bending and extension 317—319
Lyapunov exponents, molecular transition state, low-energy regimes 306—307
Lyapunov exponents, molecular transition state, mercuric iodide (HgI2) system 302—303
Lyapunov exponents, periodic-orbit quantization, bounded systems 209—210
Lyapunov exponents, periodic-orbit quantization, convergence and topological pressure, zeta functions 206
Lyapunov exponents, periodic-orbit quantization, h-corrections 211
Lyapunov exponents, periodic-orbit quantization, trace of the propagator 185—187
Lyapunov exponents, phase-space structures, linear stability 147—153
Lyapunov exponents, phase-space structures, thermodynamic formalism 172—175
Lyapunov exponents, quantum billiards 233—234
Lyapunov exponents, scattering resonances, chemical reaction dynamics 344—345
Lyapunov exponents, stadium billiard 162—163
Lynch, D.L. 3(51) 99
Lynch, E.D. 282—283(219) 360
Lynch, G.C. 309(243) 351(300) 360 363
Machado, L.E. 30(118) 40(118) 102
Machta, J. 161(109) 357
MacKay, R.S. 108—109(3) 152(94) 153(3) 193(3) 345(286) 352 356 363
Mackey, I. 292(231) 360
Maheshwari, A. 136(83) 141—142(83) 144(83) 356
Mahon, C.R. 63(143) 102
Main, J. 112(34) 113(44) 219(34) 268—269(34) 324—325(34) 348(34) 349(44) 354
Manne, T. 10(69) 100
Manners, J. 280—284(216—217) 345(216—217) 347(216—217) 360
Manz, J. 309(242) 360
Mao, J.-M. 112(34—35) 219(34—35) 268—269(34) 324—325(34—35) 348(34—35) 354
Marcus, C.M. 113(41) 161(41) 227(41) 337—338(41) 349(41) 354
Marcus, R.A. 194(144) 358
Marcus, R.M. 114(51) 292(51) 351(51) 354
Markov chain, zeta function, approximation 207—210
Martin, A. 144(85) 356
Martin, M. 3(29) 63(29) 76(158b) 79(158b) 81—83(158b) 99 103
Martrenchard-Barra, S. 3(42) 26(42) 95(42) 99
Maslov index, hydrogen negative ion (), classical dynamics 328
Maslov index, hydrogen negative ion (), semiclassical quantization 333—334
Maslov index, matrix Hamiltonians, isotropic conical intersections 262—265
Maslov index, periodic-orbit quantization 199—201
Maslov index, periodic-orbit quantization, nonisolated orbits 220—222
Maslov index, periodic-orbit quantization, trace of the propagator 185—186
Maslov index, periodic-orbit quantization, zeta function approximation 207—209
Maslov index, quantum billiards, periodic orbit contributions 234
Maslov index, semiclassical propagators 111 131—132
Maslov, V.P. 110(22) 126(22) 127(74) 130(74) 131(22 74) 353 355
Masnou-Seeuws, F. 3(10) 18(10) 63(10) 98
Mass analyzed threshold ionization (MATI), pulsed separation fields 96—97
Mass analyzed threshold ionization (MATI), rotationally resolved ZEKE spectra 26—27
Matrix Hamiltonians, conical intersection and geometric phase 259—267
Matrix Hamiltonians, diagonalization 248—253
Matrix Hamiltonians, h-expansion and anharmonicity 348—349
Matrix Hamiltonians, molecular transition state 324
Matrix Hamiltonians, two-surface 1F model and surface hopping 253—259
Matrix isolation electron spin resonance 4—5
Matsunaga, F.M. 286—287(220) 289(220) 360
Matsuzawa, M. 334(265—266) 336(265—266) 362
Matthies, C. 210(165) 358
Maya, J. 311(248) 360
McCormack, E.F. 30(108 110) 101
McKoy, V. 3(12 32 44 51) 10(76) 18(12 88) 22(12 76) 30(140) 35—37(115—116) 40(115—116 118) 42(117) 43(122 129) 44(129) 45(112 129—130) 46(129) 47(130 140) 48(132 140) 49(115—116) 50(132 140) 51(115—116 133) 52(133) 53(112—113) 54(112—113 135) 55(32 44 136 139) 56—57(32 136—139) 58—61(139) 62—63(140) 80(140) 98—102
McQuarrie, D.A. 119(60) 355
Mead, C.A. 252(203—204) 253(203) 204(259) 360
Meek, J.T. 21(95) 101
Meiss, J.D. 108—109(3) 153(3) 193(3) 345(286) 352 363
Mello, P.A. 241(194) 322(194) 360
Menschig, A. 340(279) 363
Mercuric iodide (), molecular transition state, classical dynamics and Hamiltonian mapping 295—301
Mercuric iodide (), molecular transition state, overview 293—295
Mercuric iodide (), molecular transition state, scattering resonances, chemical reaction dynamics 344—345
Mercuric iodide (), molecular transition state, transition state dynamics 313—314
Mercuric iodide (), molecular transition state, wavepacket propagation 313
Merer, A.J. 35(123) 102
Merkt, F. 3(19 25 37) 6(19 25—26) 10(45—46) 15(45—46) 15—17(26) 63(9 25) 98—99
Metz, R.B. 3(24) 95(24) 98
Meyer, K.R. 152(94) 356
Michaille, L. 351(305) 364
Mies, F.H. 351(298) 363
Miller, T.A. 4(56) 21(56) 24—26(56 99) 99 101
Miller, W.H. 114(50) 122(66) 192(137—138) 203(153) 219—220(66 179) 323(252) 351(299 302) 354—355 357—359 362—363
Mills, I.M. 20(90) 101 192(135) 357
Misra, B.K. 349(290) 363
Moiseyev, N. 292(229) 360
Moldauer, P.A. 241(194) 322(194) 360
Molecular clusters see also "Billiard systems"
Molecular clusters, ZEKE analysis of 8—9
Molecular Hamiltonian systems, semiclassical quantization 269—272
Molecular Rydberg states, delayed pulsed-field ionization 13—16
Molecular transition states 292—324
Molecular transition states, ABA vs. ABC molecules 314—316
Molecular transition states, classical dynamics and Hamiltonian mapping 295—301
Molecular transition states, equilibrium point quantization, dynamics of 314
Molecular transition states, equilibrium point quantization, large molecule bending and extension 316—319
Molecular transition states, equilibrium point quantization, mercuric iodide () system 301—303
Molecular transition states, equilibrium point quantization, nonseparable regimes 321—322
Molecular transition states, equilibrium point quantization, overview 292
Molecular transition states, equilibrium point quantization, rotational motion 320—321
Molecular transition states, equilibrium point quantization, statistical regimes 321—322
Molecular transition states, high-energy regime 309—310
Molecular transition states, intermediate regime 307—309
Molecular transition states, low-energy regimes 303—307
Molecular transition states, matrix Hamiltonians 324
Molecular transition states, mercuric iodide (HgI2) system, Dunham expansion 301—303
Molecular transition states, mercuric iodide (HgI2) system, large molecule equilibrium point quantization 316—319
Molecular transition states, mercuric iodide (HgI2) system, nonseparable and statistical regime resonances 321—323
Molecular transition states, mercuric iodide (HgI2) system, overview 293—294
Molecular transition states, mercuric iodide (HgI2) system, rotational motion 320—321
Molecular transition states, mercuric iodide (HgI2) system, transition state dynamics 313—314
Molecular transition states, mercuric iodide (HgI2) system, wavepacket propagation 310—313
Molecular transition states, periodic-orbit quantization 301—310
Molecular transition states, periodic-orbit quantization, dynamics of 313—314
Molecular transition states, periodic-orbit quantization, overview 292
Molecular transition states, quantum dynamics 291
Molecular transition states, resonances, overview 292
Molecular transition states, rotational motion 320—321
Molecular transition states, saddle equilibrium points, ABA-ABC molecule comparisons 314—316
Molecular transition states, saddle equilibrium points, large molecule bending and extension 316—319
Molecular transition states, saddle equilibrium points, nonseparable and statistical regimes 322
Molecular transition states, semiclassical regimes, overview 111
Molecular transition states, wavepacket propagation 311—313
Molecular vibrograms, basic principles 274—278
Molecular vibrograms, bounded systems 279—286
Molecular vibrograms, bounded systems, carbon disulfide Fermi resonance 280—286
Molecular vibrograms, bounded systems, Morse-type model 279—280
Molecular vibrograms, semiclassical regimes 110—111
Molecular vibrograms, unbounded systems 286—291
Molecular vibrograms, unbounded systems, carbon dioxide 286—290
Molecular vibrograms, unbounded systems, hydrogen sulfide and deuterium sulfide 290—291
Molmer, K. 108(10) 352
Molzahn, F.H. 351(301) 363
Monodromy matrix, periodic-orbit quantization, Maslov index 200—201
Monodromy matrix, periodic-orbit quantization, Selberg and Ruelle zeta functions 202—205
Monodromy matrix, phase-space structures, linear stability 151—153
Monodromy matrix, trace of the propagator, periodic orbits 184—185
Monts, D.L. 103
Moore, C.B. 323(252) 351(299) 362—363
Moore, R. 247(200) 360
Morette, c. 128(77) 355
Morse index, Feynman path integrators, h-expansion of propagator 142—145
Morse index, hydrogen negative ion () 333—334
Morse index, molecular transition state, high-energy regime 309—310
Morse index, molecular transition state, low-energy regimes 304—305
Morse index, periodic-orbit quantization 199—201
Morse index, quantum observables, diagonal matrix elements 225—226
Morse index, semiclassical quantization 111
Morse index, semiclassical quantization, Jacobi — Hill equation 130—131
Morse index, semiclassical quantization, propagators 131—132
Morse oscillator, bounded molecular systems, diatomic model 279—280
Morse oscillator, equilibrium-point quantization 190—193
Morse oscillator, kicked Morse oscillator 160
| Morse oscillator, molecular transition state, wavepacket propagation 312—313
Morse oscillator, periodic-orbit quantization, staircase function 201—202
Morse oscillator, phase-space structure 155—156
Morse oscillator, semiclassical properties 272—273
Morse oscillator, trace of the propagator 187—190
Morse, M. 127(72) 130(72) 199(72) 355
Mortessagne, F. 114(49) 354
Motoyama, T. 334(265) 336(266) 362
Mount, K.E. 127(75) 198(75) 355
Moyes, W. 84(161) 103
Muller, J. 326—327(258) 362
Muller, K. 226(189) 359
Muller-Dethlefs, K. 3(1—9 11 18 21 23 28) 6(60—61) 9(64—65) 10—12(1—5 7 9 85) 15(7) 16(1 3—6 8—9 21 21 85—87) 17(1 3—6 8—9 21 23) 19(5—6 8—9) 20(3) 22—23(6 8) 24(8) 25—26(5—6 9) 27(9 85) 28(8—9) 29(9) 30(4 11) 47(7 11) 63(2) 69(9) 80(2) 85—86(61) 89(18 172) 90(64) 91(64—65 177—179 181) 92(64—65) 93(64—65 181) 94(64—65) 95—96(182 184—185) 97(184) 98—100 103—104
Mulliken, R.S. 38(126) 40—41(126) 84(163) 102—103
Multichannel quantum defect theory (MQDT), nitric oxide analysis 3
Multichannel quantum defect theory (MQDT), rotationally resolved ZEKE spectra 19
Multichannel quantum defect theory (MQDT), water molecule analysis 57
Multiple scattering expansion, quantum billiards 228—230
Multiple-well potential, periodic-orbit quantization 1F system tunneling 213—218
Multivaluedness, semiclassical quantization 126—127
Nakamura, H. 349(290) 363
Nakamura, K. 151(93) 161(93) 239(93) 338(272—273) 339(273) 340(275—276) 356 362
Nakata, R.S. 286—287(220) 289(220) 360
Narnhofer, H. 121—122(64) 178(64) 355
Near-ZEKE electrons 12
Nelson, b. 136(83) 141—142(83) 144(83) 356
Nenner, I. 11(82) 100
Neumann boundary condition, hydrogen negative ion () 334
Neumann boundary condition, periodic-orbit quantization 196—197
Neumark, D.M. 69(15) 95(24) 98—99
Neusser, H.J. 3(43) 20(92) 23—24(92) 27(43 92) 26(43) 95—96(43) 99 101
Neveu, A. 144(86) 356
Nicolis, G. 146(88) 350—351(293) 356 363
Niedner-Schatteburg, G. 3(21 23 28) 17(21 23 28) 98—99
Niehaus, A. 10(71) 100
Nielsen, H.H. 192(136) 357
Nitric oxide, rotationally resolved ZEKE spectra 19
Nitric oxide, single-photon ionization 43—45
Nitric oxide, ZEKE analysis, compared with other techniques 3—4
Nitrogen compounds, single-photon ionization 48—51
Nitrogen dioxide, electronic structure and photoselection 71-72
Nitrogen dioxide, photoionization efficienty (PIE), measurements 6-7
Nitrogen dioxide, state-to-state threshold photoionization 72-80
Nitrogen dioxide, state-to-state threshold photoionization, rotational intensitites 76-80
Nitrogen dioxide, state-to-state threshold photoionization, rotational structure 75—76
Nitrogen dioxide, three-color triple-resonant threshold photoionization 70—83
Nitrogen dioxide, vibrational relaxation, threshold intensities 80—83
Nitrogen dioxide, vibrational structure and state-to-state photoionization 72-80
Nitrogen dioxide, ZEKE intensity deviations 63—64
Noid, D.W. 326—327(258) 345(285) 349(290) 362
Nonlinear molecules, semiclassical quantization 109—111
Nonlinear molecules, ZEKE analysis of 54—62
Nonlinear molecules, ZEKE analysis of, 60—62
Nonlinear molecules, ZEKE analysis of, 57—60
Nonlinear molecules, ZEKE analysis of, water 54—57
Nordling, C. 10(69) 100
Nunime, K. 5(57) 21(57) 99
Nussenzveig, H.M. 349(288) 363
O'Halloran, M.A. 30(106) 101
OH compounds, (2 + 1) REMPI analysis 53—54
OH compounds, single-photon ionization 45—48
Oka, T. 5(58) 99
Okuda, T. 338—339(273) 362
Okuyama, K. 8(62) 94(62) 100
Oldani, M. 20(91) 101
One-channel scattering map, phase-space structures 161
One-degree-of-freedom systems, matrix Hamiltonians, two-surface model 253—259
One-degree-of-freedom systems, periodic-orbit quantization, tunneling 212—218
Open systems, phase-space structures 154
Opik, U. 25(98) 28(98) 101
Osborn, T.A. 351(301) 363
Oseledec, V.I. 147(89) 356
Ott, E. 165—166(117) 168(120) 357
Ozeki, H. 8(63) 47(131) 100 102
Ozizmir, E. 123(67) 178(67) 355
Ozorio de Almeida, A.M. 108(7) 222—223(7 184) 352 359
Pack, R.T. 290(224) 312(224) 360
Paladin, G. 173—174(126) 357
Palmer, M.H. 84(161) 103
Pandey, A. 241(194) 322(194) 360
Papousek, D. 192—193(134) 250(134) 357
para-Difluorobenzene cation (p-DFB), vibrationally resolved structure 83—88
para-Difluorobenzene cation (p-DFB), vibrationally resolved structure, state 84
para-Difluorobenzene cation (p-DFB), vibrationally resolved structure, state 84—87
para-Difluorobenzene cation (p-DFB), vibrationally resolved structure, self-consistent ab initio computations 87—88
para-Difluorobenzene cation (p-DFB), vibrationally resolved structure, Zeke spectra 84
Parisi, G. 144(87) 176(129) 187(129) 356—357
Parity selection rules, (n + 1') REMPI process, asymmetric tops 40—41
Parity selection rules, (n + 1') REMPI process, linear molecules 36—37
Parity selection rules, single-photon ionization, molecules 58—59
Parity selection rules, ZEKE spectroscopy theory and formulation 30
Partial wavefunctions, photoionization matrix, water molecules 54—55
Partial wavefunctions, rotationally resolved ZEKE spectra, benzene cations 23—24
Partition functions, periodic-orbit quantization 219—220
Paterson, C.W. 212(171) 271(171) 359
Pauli exclusion principle, molecules, single-photon ionization 61—62
Pauli exclusion principle, atomic Hamiltonian systems 268—269
Pauli exclusion principle, hydrogen negative ion () 333—334
Pauli, W. 112(27) 353
Pauls, S. 87(164) 103
Peatman, W.B. 11(80 83—84) 100
Pecelli, G. 157(102) 159(102) 356
Pechukas, P. 296(236) 314—315(236) 344(236) 360
Peet, A.C. 247(200) 360
Percival, I.C. 108(10) 219(177) 326(256) 345(285) 353 359 362—363
Period-energy diagram, circle billiard 162—163
Period-energy diagram, Morse oscillator 156
Period-energy diagram, two-electron atomic systems 157
Periodic-orbit quantization, atomic and solid-state systems 325—327
Periodic-orbit quantization, billiard systems 161—164
Periodic-orbit quantization, bounded molecular systems 284—286
Periodic-orbit quantization, classical chaos and quantum spectra 341—344
Periodic-orbit quantization, complex orbits 212—220
Periodic-orbit quantization, complex orbits, 1F system tunneling 212—218
Periodic-orbit quantization, complex orbits, 2F system tunneling 218—219
Periodic-orbit quantization, complex orbits, partition functions 219—220
Periodic-orbit quantization, complex orbits, quantum billiards 232
Periodic-orbit quantization, degenerate orbits, quantum billiards 231—232 234—236
Periodic-orbit quantization, energy domain, quantization 194—223
Periodic-orbit quantization, energy domain, quantization, bifurcations 222—223
Periodic-orbit quantization, energy domain, quantization, dynamical zeta functions 201—211
Periodic-orbit quantization, energy domain, quantization, zero length paths 195—197
Periodic-orbit quantization, ghost orbits, quantum billiards 232
Periodic-orbit quantization, hydrogen negative ion (), classical dynamics 331—333
Periodic-orbit quantization, hydrogen negative ion (), semiclassical quantization 334—337
Periodic-orbit quantization, matrix Hamiltonians, surface hopping 256—257
Periodic-orbit quantization, mesoscopic semiconducting devices 340—341
Periodic-orbit quantization, molecular transition state, dynamics of 313—314
Periodic-orbit quantization, molecular transition state, high-energy regime 309—310
Periodic-orbit quantization, molecular transition state, intermediate regime 307—309
Periodic-orbit quantization, molecular transition state, low-energy regime 303—307
Periodic-orbit quantization, molecular transition state, mercuric iodide (HgI2) system 301—302
Periodic-orbit quantization, molecular transition state, overview 292
Periodic-orbit quantization, molecular vibrograms see "Molecular vibrograms"
Periodic-orbit quantization, nonisolated orbits 220—222
Periodic-orbit quantization, off-diagonal orbits 298—299
Periodic-orbit quantization, phase-space structures, linear stability 151—153
Periodic-orbit quantization, quantum billiards, regular orbit contributions 233—234
Periodic-orbit quantization, quantum billiards, stationary phase method 230—232
Periodic-orbit quantization, semiclassical regimes, overview 110—111
Periodic-orbit quantization, symbolic dynamics, Smale horseshoe 167—168
Periodic-orbit quantization, trace of the propagator 183—187
Periodic-orbit quantization, trace of the propagator, classification of orbits 186—187
Periodic-orbit quantization, trace of the propagator, Feynman path integral 179
Periodic-orbit quantization, trace of the propagator, real, unstable, isolated orbits 183—186
Periodic-orbit quantization, unstable-isolated orbits 197—201
Periodic-orbit quantization, unstable-isolated orbits, Maslov index 199—201
Periodic-orbit quantization, unstable-isolated orbits, stationary-phase integration 197—199
Periodic-orbit quantization, vs. equilibrium point quantization 194 345—346
Perturbation theory, equilibrium-point quantization 192—194
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