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Prigogine I., Rice S.A. — Advances in CHEMICAL PHYSICS. Volume XC
Prigogine I., Rice S.A. — Advances in CHEMICAL PHYSICS. Volume XC



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Íàçâàíèå: Advances in CHEMICAL PHYSICS. Volume XC

Àâòîðû: Prigogine I., Rice S.A.

Àííîòàöèÿ:

This series is devoted to a wide variety of developments in the field of chemical physics. It features comprehensive analyses of subjects of interest, in the hopes of both educating the novice and stimulating further research.


ßçûê: en

Ðóáðèêà: Ôèçèêà/

Ñòàòóñ ïðåäìåòíîãî óêàçàòåëÿ: Ãîòîâ óêàçàòåëü ñ íîìåðàìè ñòðàíèö

ed2k: ed2k stats

Ãîä èçäàíèÿ: 1995

Êîëè÷åñòâî ñòðàíèö: 404

Äîáàâëåíà â êàòàëîã: 05.12.2013

Îïåðàöèè: Ïîëîæèòü íà ïîëêó | Ñêîïèðîâàòü ññûëêó äëÿ ôîðóìà | Ñêîïèðîâàòü ID
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Ïðåäìåòíûé óêàçàòåëü
$CH_{3}$ molecules, single-photon ionization      60—62
$H_{2}CO$ molecules, single-photon ionization      57—60
$\pi$ electron system, rotationally resolved ZEKE spectra      20—21
ab initio theory, nitric oxide analysis      3
ab initio theory, origins of ZEKE and      10—11
ab initio theory, para-Difluorobenzene cation (p-DFB), self-consistent field computations      87—88
ab initio theory, para-Difluorobenzene cation (p-DFB), vibrationally resolved structure      83—84
ab initio theory, phenol-water cation ZEKE spectra compared with      92—94
ab initio theory, rotationally resolved ZEKE spectra      19
ab initio theory, ZEKE spectroscopy and      10 30
ABA molecules, molecular transition state, vs. ABC molecules      314—316
ABA molecules, scattering resonances, chemical reaction dynamics      344—345
Abbouti Temsamani, M.      351(304) 363
ABC molecules, molecular transition state, vs. ABA molecules      314—316
ABC molecules, scattering resonances, chemical reaction dynamics      344—345
Abramson, E.      112(31) 353
Achiba, K.      89(171) 90(171) 103
Adachi, S.      219(175) 359
Adiabatic methods, phenol-water cations      91
Adiabatic methods, semiclassical regimes      111
Agam, O.      210(164) 340(277) 358 362
Agaronov — Bohm effect, isotropic conical intersections      261—262
Al-Joboury, M.I.      10—11(66) 100
Alber, G.      212(172) 214(172) 359
Alerhand, O.H.      113(40) 161(40) 337—338(40) 349(40) 354
Aliev, M.R.      192—193(134) 250(134) 357
Allendorf, S.W.      10(77) 30(77) 100
Alonso Ramirez, D.      169(121) 350—351(121) 357
Alonso, D.      109(19—20) 162(111) 179(19) 183(19) 185—186(19 133) 198(19) 211(19—20) 222(133) 230—231(20) 233(133) 234(20) 238(20) 241(20) 243(19) 245—246(19) 338—339(273) 347(20) 353 357 362
Ammonia molecules, vs. ZEKE analysis of benzene cations      19—20
Amos, R.D.      87(166) 103
Anderson, S.L.      30(103) 101
Anharmonicities, h-expansion and      347—349
Anharmonicities, trace of the propagator, Morse oscillator      189—190
Argaman, N.      344(284) 363
Arnold diffusion, molecular transition state, nonseparable and statistical regimes      322
Arnold diffusion, phase-space structures      154
Arnold, V.I.      125(71) 131(71) 148(71 91) 151(71 91) 179(71) 193(71 141) 355 356 358
Artuso, R.      167(118) 170(118) 357
Asbrink, L.      10(70) 84(162) 100 103
Asymmetric tops, (n + 1') REMPI process      37—41
Asymmetric tops, (n + 1') REMPI process, parity selection rules      40—41
Asymmetric tops, (n + 1') REMPI process, photoelectron matrix      40
Asymmetric tops, (n + 1') REMPI process, rotationally resolved photoelectron spectra      37—39
Atomic particle scattering, semiclassical regimes      120—123
Atomic systems, semiclassical electronic regimes      324—341
Atomic systems, semiclassical electronic regimes, highly excited electronic states      324—327
Atomic systems, semiclassical electronic regimes, hydrogen negative ion      327—337
Atomic systems, semiclassical electronic regimes, mesoscopic semiconducting devices      337—341
Atomic systems, semiclassical quantization      268—269
Aurell, E.      167(118) 170(118) 206(155) 357—358
Aurich, R.      210(165) 358
Autocorrelation function, wavepacket propagation      311—312
Autoionization, nitrogen dioxide      80—83
Autoionization, Rydberg couplings      13—15
Baer, T.      11(78 81—82 84) 100
Baer, Y.      10(69) 100
Bahel, A.      349(290) 363
Baker, A.D.      3(52) 10—11(52) 84(52) 99
Baker, C.      3(52) 10—11(52) 84(52) 99
Balasubramanian, V.      349(290) 363
Balazs, N.L.      123(68) 159(104) 178(68) 219(104) 355—356
Balian, R.      109(12—13) 119(13) 176(129) 187(129) 196—197(12) 231—232(12) 353 357
Ballhausen, C.J.      247(197) 267—270(197) 360
Baltes, H.P.      196(148) 358
Baranger, H.U.      113(43) 161(43) 338(43) 349(43) 354
Barbanis, B.      159(103) 356
Bauder, A.      20(91) 101
Baym, G.      247(197) 267—270(197) 360
Beck, D.      349(289) 363
Beenakker, C.W.J.      113(40) 161(40) 337—338(40) 349(40) 354
Ben-Nun, M.      3(38) 15(38) 99
Bensimon, D.      345(286) 363
Benzene cations, rotationally resolved ZEKE spectra      19—29
Benzene cations, rotationally resolved ZEKE spectra, $6^{1}(e_{2g})$ excited Jahn — Teller state      25—29
Benzene cations, rotationally resolved ZEKE spectra, electronic ground state      20—25
Benzene cations, ZEKE analysis of      4—5
Bergmann, R.      340(279) 363
Bergmark, T.      10(69) 100
Berkowitz, J.      11(79) 71(157) 100 103
Bernstein, R.B.      108(1) 292(230) 352 360
Berry — Tabor trace formula, bounded molecular systems, carbon disulfide molecules      283—286
Berry — Tabor trace formula, eriodic-orbit quantization, nonisolated orbits      220—222
Berry — Tabor trace formula, scattering resonances, chemical reaction dynamics      345
Berry, M.V.      127(75) 159(104) 186(132) 198(75) 210(164) 219(104) 220—221(180) 223(185) 228(132 191) 229(191) 232(132) 252—253(205) 345(180) 351(310) 355—360 364
Bersuker, I.B.      4(55) 99
Bertrand, J.C.      114(49) 354
Bessis, D.      173—174(126) 357
Bethe, H.A.      247(197) 267—270(197) 327(262) 360 362
Beyl, B.      3(8) 5(8) 12(8) 16(8) 19(8) 22—24(8) 28(8) 98
Bieri, G.      84(162) 103
Bifurcations, atomic and solid-state systems, highly excited electronic states      325—327
Bifurcations, atomic and solid-state systems, highly excited electronic states, bounded molecular systems, carbon disulfide molecules      284—285
Bifurcations, h-expansion and anharmonicity      348
Bifurcations, molecular transition state, ABA-ABC molecule comparisons      314—316
Bifurcations, molecular transition state, mercuric iodide (HgI2) system      297—299
Bifurcations, periodic-orbit quantization      222—223
Bifurcations, periodic-orbit quantization, 2F system tunneling      218
Bigio, L.      71(152 156) 103
Billiard systems      153—154 see
Billiard systems, mesoscopic semiconducting devices      338—341
Billiard systems, periodic-orbit quantization, zero length paths      196—197
Billiard systems, phase-space structures      161—164
Billiard systems, quantum billiards      227—246
Billiard systems, quantum billiards, degenerate periodic orbits      234—236
Billiard systems, quantum billiards, disk scattering applications      238—246
Billiard systems, quantum billiards, multiple scattering expansion      228—230
Billiard systems, quantum billiards, periodic orbits      233—234
Billiard systems, quantum billiards, resummation      237—238
Billiard systems, quantum billiards, stationary phase integration      230—232
Billiard systems, quantum billiards, wave equations      227—228
Birkhoff coordinates, billiard systems      162
Birkhoff coordinates, symbolic dynamics, Smale horseshoe      168—169
Birkhoff, G.D.      161—162(110) 193(140) 357—358
Bleher, S.      168(120) 357
Bleistein, N.      130(81) 135(81) 230(81) 356
Bloch, C.      109(12—13) 119(13) 196—197(12) 231—232(12) 353
Blodgett-Ford, S.J.      112(35) 219(35) 324—325(35) 348(35) 354
Blumel, R.      113(38 42) 161(42) 326(257) 337—338(42) 349(42 291) 351(42) 354 362—363
Blush, J.A.      19(89) 60(89) 101
Bogomolny, E.      209(162) 210(166 168) 358—359
Bohigas, O.      343(281) 363
Bohm, A.      118(56—57) 121(56) 269—270(56) 355
Bohr frequency, molecular vibrograms      274—278
Bohr — Sommerfeld quantization, atomic and solid-state systems      327—328
Bohr — Sommerfeld quantization, matrix Hamiltonians, isotropic conical intersections      262—265
Bohr — Sommerfeld quantization, molecular transition state, intermediate regime      307—309
Bohr — Sommerfeld quantization, periodic-orbit quantization, Selberg and Ruelle zeta functions      204—205
Bohr — Sommerfeld quantization, semiclassical quantization      111
Bohr, T.      173—174(126) 357
Bolte, J.      344(282) 363
Bondybey, V.E.      3(21 23 28) 4(56) 21(56) 24—26(56 99) 98—99 101
Bordas, M.C.      112(37) 271(37) 324—325(37) 354
Born — Oppenheimer (BO) approximation, Hamiltonian matrices      269—271
Born — Oppenheimer (BO) approximation, molecular vibrograms      278
Born — Oppenheimer (BO) approximation, rotationally resolved ZEKE spectra      25—26
Born — Oppenheimer (BO) approximation, semiclassical properties      272—273
Born, M.      30(111) 101
Borne, T.B.      11(83) 100
Bounded systems, molecular vibrograms      279—286
Bounded systems, molecular vibrograms, carbon disulfide Fermi resonance      280—286
Bounded systems, molecular vibrograms, Morse-type model      279—280
Bounded systems, periodic-orbit quantization, zeta functions      209—210
Bounded systems, phase-space structures      154
Bountis, T.C.      217(173) 359
Bowen, R.      172(123) 357
Bowman, R.M.      279(215) 292—294(233) 311(233) 313(233) 360
Bradforth, S.E.      3(24) 95(24) 98
Braun, P.A.      217(212) 360
Braunstein, M.      30(114) 101
Breit — Wigner theory, nonseparable and statistical regimes      322
Breit, G.      322(251) 362
Brewer, R.G.      113(38) 354
Brewer, W.D.      10(72) 100
Briggs, J.S.      212(172) 214(172) 327(26) 334—336(267—268) 359 362
Brillouin, L.      112(28) 353
Brody, T.A.      241(194) 322(194) 360
Brown, J.M.      35(123) 102
Broyer, M.      112(37) 271(37) 324—325(37) 354
Bruhlmann, U.      32(119) 102
Brundle, C.R.      3(52) 10—11(52) 84(52) 99
Bryant, G.P.      3(29) 47(145) 63(29) 64(145) 70(145) 71(155 158a-b) 74(158a) 76(158b) 79(158b) 81—83(158b) 99 102—103
Buchleitner, B.      112(33) 269(33) 324(33) 354
Buma, W.G.      63(142) 69(142) 102
Bunimovich stadium      see "Stadium billiard"
Bunimovich, L.A.      161(109) 162(112) 357
Bunker, P.R.      21(96) 23(96) 101
Burcl, R.      9(65) 91—94(65) 100
Burgdorfer, J.      326—327(258) 362
Burgers, A.      206(159) 358
Burghardt, I.      109(21) 161(21) 169(21) 292(21) 295(21) 303—304(21) 307(21) 311(21) 314(21) 324(21) 340(21) 347—348(21) 353
Burgi, T.      89(175) 93—94(175) 103
Burke, P.G.      38(127) 39(127) 102 292(231) 360
Butler, L.      290(226) 360
Callaway, J.      334(269) 362
Callomon, J.H.      20(90) 101
Campos, F.X.      71(153—154) 103
Cantor sets, Smale horseshoe mapping      166
Carbon disulfide, bounded molecular vibrogram      280—286
Carbon monoxide (CO), single-photon ionization      48—51
Carley, J.S.      112(32) 353
Carruthers, P.      123—124(69) 178(69) 275(69) 355
Casati, G.      108(5) 109(17) 154(97) 161(97) 228(97) 239(97) 340(97) 352—353 356
Castin, Y.      108(10) 352
Cauchy's theory, quantum observables, photoabsorption cross section      226—227
Cauchy's theory, semiclassical regimes, overview      110
Cauchy's theory, semiclassical regimes, probability conservation and Van Vleck — Morette matrix      127—129
Cederbaum, L.S.      83(160) 103
Ceiling function, phase-space structures      151—153
Chakravarty, S.      114(50) 354
Chandler, D.      114(50) 354
Chandra, N.      38(127) 39(127) 102
Chaos phenomenon, billiard systems      161—164
Chaos phenomenon, semiclassical regimes, overview      109—111
Charge interaction, phenol-water cations      91
Chatfield, D.C.      309(243) 351(300) 360 363
Chazarain, J.      176—177(128) 357
Chemical reaction dynamics, scattering resonances and      344—345
Chen, P.      19(89) 60(89) 101
Cherepkov, N.      36—37(125) 40(125) 49(125) 51(125) 102
Chewter, L.A.      3(11) 18(11) 30(11) 47(11) 98
Child, M.S.      57(137—138) 102 212(170) 296(236—237) 314—315(236—237) 344(236) 359—360
Chilukuri, S.      69(149) 103
Chirikov, B.V.      160(106) 356
Chreagh, S.C.      200(151) 358
Chupka, W.A.      3(36) 11(79) 15(36) 63(36) 99—100
Churchill, R.C.      157(102) 159(102) 356
Circle billiards, classical mechanics      162
Circle billiards, periodic-orbit quantization, trace of the propagator      186—187
Circle billiards, periodic-orbit quantization, zero length paths      196—197
Clary, D.C.      247(200) 360
Classical dynamics, chaos theory and      341—344
Classical dynamics, flowchart of Hamiltonian and classical-semiclassical regimes      341—342
Classical dynamics, molecular transition state, mercuric iodide ($HgI_{2}$) system      295—301
Classical dynamics, periodic orbits and quantum spectra      341—344
Classical dynamics, phase-space structures, billiards      161—164
Classical dynamics, phase-space structures, Hamiltonian mappings      159—161
Classical dynamics, phase-space structures, Hamiltonian systems      154—159
Classical dynamics, phase-space structures, linear stability      146—153
Classical dynamics, phase-space structures, mechanical system examples      153—164
Classical dynamics, phase-space structures, overview      110
Classical dynamics, phase-space structures, Smale horseshoe and symbolic dynamics      164—170
Classical dynamics, phase-space structures, thermodynamic formalism      170—175
Classical dynamics, semiclassical regimes, overview      108—111
Cockett, M.C.R.      3(39) 8(62—63) 94(62) 99—100
Cohen, M.J.      351(302) 363
Cohen-Tannoudji, C.      115(53) 355
Coherent extreme ultraviolet (XUV), carbon monoxide and nitrogen compounds      48—51
Colin, R.      112(31) 353
Collinear motion, hydrogen negative ion ($H^{-}$)      328—333
Collins, G.P.      114(46) 340(46) 354
Colson, S.D.      3(18) 8(18) 9(64) 89(18 173—174) 90(64 176) 92(64) 98 100 103
Complex energies of scattering resonances, matrix Hamiltonians, isotropic conical intersections      265
Complex energies of scattering resonances, matrix Hamiltonians, surface hopping      258—259
Complex energies of scattering resonances, molecular transition state, low-energy regimes      306—307
Complex energies of scattering resonances, nitrogen dioxide      76-80
Computational procedures, zero-kinetic-energy (ZEKE) photoelectron techniques      42-43
Conical intersections, matrix Hamiltonians      259—267
Conical intersections, matrix Hamiltonians, anisotropic intersections      265—267
Conical intersections, matrix Hamiltonians, isotropic intersections      259—265
Contopoulos, G.      159(103) 356
Convergence, periodic-orbit quantization, bounded systems      209—210
Convergence, periodic-orbit quantization, Ruelle zeta function      205—206
Cooper minima, single-photon ionization, OH (2 + 1) REMPI analysis      54
Cooper minima, ZEKE spectroscopy theory and formulation      30
Cooper, J.W.      336(270) 362
Cordes, E.      91(177—178) 104
Coriolis coupling constants, rotationally resolved ZEKE spectra      28
Coriolis interaction parameters, rotational-vibrational Hamiltonian      271—272
Coulomb potential, atomic systems      325—327
Coulomb potential, Born — Oppenheimer Hamiltonian      269—271
Coulomb potential, hydrogen negative ion ($H^{-}$), classical dynamics      329—333
Coulomb potential, hydrogen negative ion ($H^{-}$), semiclassical quantization      336—337
Coulomb potential, molecular vibrograms      275—278
Coulomb potential, scattering resonances, chemical reaction dynamics      344—345
Coulomb potential, semiclassical quantization      267—268 272—273
Cox, D.M.      3(17 33) 98—99
Creagh, S.C.      212(171) 221(181) 271(171) 359
Critical points, semiclassical regimes      134—136
Crommie, M.F.      114(46) 340(46) 354
Culot, F.      323(253) 351(253) 362
Cumulative distribution function, quantum billiards      240—241
Cvitanovic, P.      109(16) 163—164(115) 167(118) 168(115) 170(118) 206(160—161) 238(115 193) 295(160) 353 357—359
Cycle expansion method, quantum billiards      238—245
Dahl, J.L.      123(68) 178(68) 355
Dahl, J.P.      155(97) 187(98) 356
Dalibard, J.      108(10) 352
Dantus, M.      279(215) 292—294(233) 311(233) 313(233) 360
Darling — Dennison interaction, equilibrium-point quantization      193—194
Dashen, R.F.      144(86) 356
Davidson, E.R.      10(75) 30(75) 100
Davis, M.J.      307(241) 309(243) 360
de Beer, E.      30(111—113) 45(112) 53—54(112—113) 63(142) 69(142 146) 101—102
de Broglie wave theory, semiclassical regimes      111
de Lange, C.A.      30(111—113) 63(142) 69(142 146) 101—102
Dedonder-Lardeux, C.      3(42) 26(42) 95(42) 99
Dehmer, J.L.      29(73) 30(105—106 108—110) 100—101
Dehmer, P.M.      10(73) 30(105—106 108—110) 100—101
Delacretaz, G.      259(208) 262(208) 360
Delande, D.      112(33) 222—223(183) 269(33 210) 324(33 210) 325(210) 354 359—360
Delayed pulsed-field threshold photoionization, HCl and DCl compounds, spin-orbit relaxation and rotational coupling      64—70
Delayed pulsed-field threshold photoionization, ionization of ZEKE Rydberg states      13—16
Delayed pulsed-field threshold photoionization, ZEKE detection and      12
Delos, J.B.      112(34—35) 126(73) 194(143) 219(34—35) 225(188) 268—269(34) 324—325(34—35) 348(34) 354—355 358—359
Desouter-Lecomte, M.      323(253) 351(253) 362
Destrain, S.      218(174) 359
Deuteration effects, ZEKE analysis and      9
Deuterium chloride, delayed pulsed-field threshold photoionization      64—69
Deuterium sulfide, unbounded molecular vibrogram      290
DeWitt, B.      141—142(84) 144(84) 356
Dewitt-Morette, C.      136(83) 141—142(83) 144(83) 356
Diagonal matrices, Born — Oppenheimer Hamiltonian      270—271
Diagonal matrices, matrix Hamiltonians      248—253
Diagonal matrices, quantum observables      223—226
Diercksen, G.H.F.      83(160) 103
Dietrich, H.-J.      96—97(184—186) 104
Dietz, B.      349(291) 363
Dirac distribution, isotropic conical intersections      261—262
Direct ionization, ZEKE intensity deviations      62—70
Direct ionization, ZEKE intensity deviations, rotational line intensities      64—69
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