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Michael Baer, Gert D.Billing — Advances in Chemical Physics, The Role of Degenerate States in Chemistry, Vol. 124
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Íàçâàíèå: Advances in Chemical Physics, The Role of Degenerate States in Chemistry, Vol. 124Àâòîðû: Michael Baer, Gert D.Billing Àííîòàöèÿ: Edited by Nobel Prize-winner Ilya Prigogine and renowned authority Stuart A. Rice, the Advances in Chemical Physics series provides a forum for critical, authoritative evaluations in every area of the discipline. In a format that encourages the expression of individual points of view, experts in the field present comprehensive analyses of subjects of interest.
ßçûê: Ðóáðèêà: Ôèçèêà /Ñòàòóñ ïðåäìåòíîãî óêàçàòåëÿ: Ãîòîâ óêàçàòåëü ñ íîìåðàìè ñòðàíèö ed2k: ed2k stats Ãîä èçäàíèÿ: 2002Êîëè÷åñòâî ñòðàíèö: 824Äîáàâëåíà â êàòàëîã: 05.08.2009Îïåðàöèè: Ïîëîæèòü íà ïîëêó |
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Berger, J. 211(188) 248(188) 278 Bernardi, M.A. 234(279) 281 357(6—7) 358(42) 359(49 51—52 63—64) 360(79—84 86) 381(6—7) 405(230) 406(63—64) 407(79 237) 408(80—82) 409(83—84) 410(86 230) 424—426 430 434(9) 446(37—38) 447(44) 450(44) 479(89 92) 480(92) 489(37 114) 490(9 37—38 116) 491(117) 494—496(44) 500—503 Bernoulli’s equation, molecular systems, modulus-phase formalism 265—266 Bernstein, H.J. 207(129) 276 Berry, M.V. 2—3(8) 12(8) 14—15(8) 31—32(8) 37 42(60) 140 200(9) 204(82) 206(9 118) 207(9) 208(9 144) 209—210(9) 217(9) 230—231(261) 232(9 261) 234(9) 254(9) 270—271(9) 273 275—277 284—285(25) 320 339(33) 352 487(101) 503 660(21) 739 Berry’s phase see "Geometric phase effect" Berson, J.A. 494(132) 503 Bersuker, I.B. 3(15) 22(31) 33(45) 37—38 201(46—47) 202(54) 209(47) 233(47 54 275) 239(54) 240(275) 247(47) 274 280 381(165 168) 428—429 461(70—71) 462(70) 502 666(41) 739 Bertani, P. 207(129) 276 Bessel — Ricatti equation, electronic states, triatomic quantum reaction dynamics 318 Beswick, A.J. 82(94) 118(94) 141 147(62) 196 Bethe, H.A. 571(24) 580 Bettendorff, M. 290(63) 321 Bettens, R. 361(91) 426 Bevilacqua, G. 247(305) 281 Bezant, A.J. 465(76) 502 Bicyclo-[3, 1, 0]hex-2—ene (BCE), phase-change rule, large four-electron systems 459 Billing, G.D. 41(25) 82(104) 97(115) 102(104) 103(115) 104(116) 111(104) 112(116) 114(112) 117(125) 118(104) 119(115) 122(25 133—134) 139 142 145(48) 146(53—56 60) 147(65—66) 148(65) 150(48 60) 152(48 60 71) 157(53—54) 162(54—55) 163(55) 164(48 54) 166(81) 168(88) 177(81 89—90) 178(81) 179(81 91) 182(48) 184(60) 195—196 202(57) 207(128) 211(189—191 193—195) 234(193) 248(189—191 193—195) 274 276 278 326(17) 352 379(150) 380(151—152) 395(197) 399(217) 428—430 487—488 (102) 503 506(3) 555 668(51) 740 Binkley, J.S. 349(54) 353 Biradical models, conical intersection research 494—496 Bisseling, R.H. 364(105) 427 Bitter, T. 248(306) 281 Bjerre, A. 82(98) 141 345(47) 353 397(200) 429 Blais, N. 397(202) 429 715(82) 738(82) 740 Blaise, N.C. 104(118) 142 162(77) 196 Blanchet, V. 204(94) 207(94) 275 Blass, A. 344(45) 353 Blaudeau, J.-L. 634(167) 658 Blomberg, M. 363(97) 427 Blum, K. 375(141) 428 Boatz, J. 363(96) 426 Body-fixed coordinates, permutational symmetry, electronic wave function 680—682 Body-fixed coordinates, permutational symmetry, group theoretical properties 669—674 Body-fixed coordinates, permutational symmetry, total molecular wave function 664—668 674—678 Boggs, J.E. 33(45) 38 233(274) 240(274) 280 Bogoliubov, N.N. 263(322) 267(322) 282 Bohm, A. 212(221—222) 279 Bohm, D. 3(12) 27(12) 37 57—58(82) 95(113) 141 200(8) 209(8) 213(223) 262(318) 264(318) 273 279 282 285(27) 320 420(251) 431 487(104) 503 Bohr — Sommerfeld quantization, non-adiabatic coupling 57—58 Bohr — Sommerfeld quantization, non-adiabatic coupling, quasiclassical trajectory (QCT) calculation, three-particle reactive system, 160—163 Bolman, P.S.H. 624(107) 656 Bolton, K. 356(2) 372(2) 423 Boltzmann distribution, electron nuclear dynamics (END), intramolecular electron transfer 350—351 Bonacic-Koutecky, F. 357(5) 381(5) 415(249) 424 431 473(82) 495(82 136) 502 504 Borden, W.T. 464(72) 467—468(72) 502 Borghs, G. 248(309) 281 Borkowski, J. 167(80) 196 Born — Huang approximation, conical intersections, theoretical background 506—507 Born — Huang approximation, electronic states, adiabatic representation 286—289 Born — Huang approximation, electronic states, adiabatic-to-diabatic transformation 296—300 Born — Huang approximation, electronic states, diabatic representation 292—293 Born — Huang approximation, electronic states, triatomic quantum reaction dynamics 309—319 Born — Huang approximation, electronic states, triatomic quantum reaction dynamics, partial wave expansion 312—317 Born — Huang approximation, nuclear motion Schroedinger equation 418—420 Born — Huang approximation, permutational symmetry, total molecular wave function 667—668 Born — Huang approximation, potential energy surfaces (PES) 284—286 Born — Oppenheimer approximation see also "Crude Born — Oppenheimer approximation" "Extended Born — Oppenheimer approximation, conical intersection, historical background 144—148 Born — Oppenheimer approximation, conical intersection, two-state chemical reactions 436—438 Born — Oppenheimer approximation, degenerate states chemistry ix-xiii Born — Oppenheimer approximation, direct molecular dynamics, adiabatic molecular dynamics 362—381 Born — Oppenheimer approximation, direct molecular dynamics, theoretical background 357—361 Born — Oppenheimer approximation, direct molecular dynamics, vibronic coupling, adiabatic effects 382—384 Born — Oppenheimer approximation, electron nuclear dynamics (END), theoretical background 324—325 Born — Oppenheimer approximation, geometric phase theory, single-surface nuclear dynamics 24 Born — Oppenheimer approximation, molecular systems, chemical research ix—xiii Born — Oppenheimer approximation, molecular systems, Yang — Mills fields, nuclear Lagrangean 249—250 Born — Oppenheimer approximation, non-adiabatic coupling, Born — Oppenheimer — Huang equation, Hilbert space 44—45 Born — Oppenheimer approximation, non-adiabatic coupling, Born — Oppenheimer — Huang equation, sub-Hilbert space 46—47 Born — Oppenheimer approximation, non-adiabatic coupling, equations 186—191 Born — Oppenheimer approximation, non-adiabatic coupling, extended Born — Oppenheimer equations, closed path matrix quantization 171—173 Born — Oppenheimer approximation, non-adiabatic coupling, extended Born — Oppenheimer equations, theoretical principles 144—148 Born — Oppenheimer approximation, non-adiabatic coupling, extended Born — Oppenheimer equations, three-state matrix quantization 173—174 Born — Oppenheimer approximation, non-adiabatic coupling, extended Born — Oppenheimer equations, three-state system analysis 174—175 Born — Oppenheimer approximation, non-adiabatic coupling, Jahn — Teller systems, Longuet — Higgins phase 121—122 Born — Oppenheimer approximation, non-adiabatic coupling, Longuet — Higgins phase-based treatment, two-dimensional two-surface system 150—157 Born — Oppenheimer approximation, non-adiabatic coupling, molecular systems, electronic states 202—205 Born — Oppenheimer approximation, non-adiabatic coupling, potential energy surfaces (PES) 284—286 Born — Oppenheimer approximation, non-adiabatic coupling, theoretical background 42—44 Born — Oppenheimer approximation, nuclear motion Schroedinger equation 418—420 Born — Oppenheimer approximation, permutational symmetry, dynamic Jahn — Teller and geometric phase effects 703—711 Born — Oppenheimer approximation, permutational symmetry, generalized approximation (GBO), two-dimensional Hilbert space 718—721 Born — Oppenheimer approximation, permutational symmetry, non-adiabatic coupling 711 Born — Oppenheimer approximation, permutational symmetry, total molecular wave function 667—668 676—678 Born — Oppenheimer approximation, phase-change rule, chemical reactions 450—453 Born — Oppenheimer approximation, Renner — Teller effect, nonlinear molecules 606—610 Born — Oppenheimer approximation, Renner — Teller effect, tetraatomic molecules 628—631 Born — Oppenheimer approximation, Renner — Teller effect, theoretical principles 584—585 Born — Oppenheimer approximation, Renner — Teller effect, triatomic molecules 587—598 Born — Oppenheimer approximation, Renner — Teller effect, triatomic molecules, Hamiltonian selection 611—615 Born — Oppenheimer approximation, Renner — Teller effect, triatomic molecules, pragmatic models 619—621 Born — Oppenheimer — Huang equation, non-adiabatic coupling, future research applications 118—119 Born — Oppenheimer — Huang equation, non-adiabatic coupling, Hilbert space, Born — Oppenheimer equations 44—45 Born — Oppenheimer — Schroedinger equation, degenerate states chemistry x—xiii Born, M. 40(1—2) 82(1—2) 138 144(16—17) 194 202(62—63) 223(250) 274—275 280 283(1) 284(2—3) 289(2—3) 319—320 506—507(5—7) 511(7) 555 584(6) 653 662(38—39) 664(39) 667(38—39) 739 Born-Oppenheimer, historical background 40—44 Born-Oppenheimer, minimal diabatic potential matrix 81—89 Born-Oppenheimer, sub-Hilbert space 46—47 Born-Oppenheimer, vector potential, Yang — Mills field 93—95 Bornemann, C. 492(124) 503 Bose — Einstein statistics, permutational symmetry, total molecular wave function 677—678 Bose, S. 248(312) 281 Botschwina, P. 481(93) 502 626(151) 657 Bouchene, M.-A. 204(94) 207(94) 275 Bound-state photoabsorption, direct molecular dynamics, nuclear motion Schroedinger equation 365—373 Boundary conditions, electron nuclear dynamics (END), time-dependent variational principle (TDVP) 328—330 Boundary conditions, electronic states, adiabatic-to-diabatic transformation, two-state system 304— 309 Boundary conditions, geometric phase theory, single-surface nuclear dynamics, vibronic multiplet ordering 27—31 Boundary conditions, non-adiabatic coupling, adiabatic-to-diabatic transformation matrix, orthogonality 123 Boundary conditions, non-adiabatic coupling, minimal diabatic potential matrix, noninteracting conical intersections 88—89 Boundary conditions, non-adiabatic coupling, theoretic-numerical approach, three-state system in plane 101—103 Boundary conditions, non-adiabatic coupling, theoretic-numerical approach, two-state system in plane, conical intersection distribution solution 101 Boundary conditions, non-adiabatic coupling, theoretic-numerical approach, two-state system in plane, single conical intersection solution 97—101 Boundary conditions, non-adiabatic coupling, three-state molecular system, strongly coupled (2, 3) and (3, 4) conical intersections, “real” three-state systems 117 Bramley, M.J. 626(157) 657 Branching space dimension, conical intersections, spin-orbit interaction 559—561 Breakable multidegeneracy, non-adiabatic coupling 81 Breit — Pauli approximation, conical intersections, spin-orbit interaction 571—578 Breit — Pauli approximation, conical intersections, spin-orbit interaction, 571—572 Breit — Pauli approximation, conical intersections, spin-orbit interaction, convergence equations 572 Breit — Pauli approximation, conical intersections, spin-orbit interaction, orthogonality properties 576—578 Breit — Pauli approximation, conical intersections, spin-orbit interaction, seam parameters, conical parameters and invariant 574—576 Breit — Pauli approximation, conical intersections, spin-orbit interaction, seam parameters, locus 572—574 Breit — Pauli approximation, Renner — Teller effect, triatomic molecules 597—598 Bretenaker, F. 213(230) 279 Brink, D.M. 33(48) 38 Brody distribution, permutational symmetry, dynamic Jahn — Teller and geometric phase effects 708—711 Brogli, F. 381(169) 429 Bromage, J. 212(197) 278 Brommer, M. 621(88) 622(88 92 94—95) 623(94) 655—656 Broo, A. 349(58) 353 Brooks, C. 359(59) 425 Brown, F.B. 104(118) 142 715(82) 738(82) 740 Brown, J.M. 584(3) 586(3 12) 591(12) 594(19) 604(30—31) 613(58) 617—618(12) 624(3 19 107—111) 641(12) 653—656 Bruckmann, P. 473(82) 495(82) 502 Brukner, G 206(119) 276 Brumer, P. 204(84—86 93) 211(84—86) 275 Brumm, M. 623(102—103) 656 Bruna, P.J. 290(63) 321 624(113) 656 Brune, M. 200(20) 273 Buchelt, R.J. 207—208(124) 276 Buchenau, H. 365(111) 427 Buchsbaum, P.H. 200(19) 204(19 95) 211(95) 273 Buekener, R.J. 144(28) 195 Buenker, R. 41(42—43) 82(52—53 105) 109(105) 140—141 202(51) 234(278) 274 281 290(63) 321 583(1—2) 586(2 15—16) 594(20—21) 604(2) 606(33) 610(16) 612(56) 620(16 21 86) 621(21 86) 622(16) 623(2 15 33) 624(20 112—113 115 117—121) 625(140) 653—657 Buks, E. 200(17) 273 Bunker, P.R. 612(55) 614(60—65) 615(62—64) 618(55) 619(60) 620(63) 623(102—105) 626(160) 655—657 Bunker, R. 376(142) 428 Bunker, T.J. 455(56) 501 Burant, J.C. 363(95) 426 Burdett, J.K. 481(96) 502 Burge, R.E. 208(150) 277 Burghardt, I. 211(180) 278 358(34) 380(34) 424 Burlisch — Stoer integrator, direct molecular dynamics, ab initio multiple spawning (AIMS) 412—414 Buss, V. 411(242) 430 Butadiene molecules, conical intersection location 490 Butadiene molecules, direct molecular dynamics, complete active space self-consistent field (CASSCF) technique 408—410 Butadiene molecules, loop construction 474—482 Butadiene molecules, phase-change rules, four-electron ring closure 455—456 Butadiene molecules, phase-change rules, two-state chemical reactions 436—438 Butene compounds, loop construction 478—479 Butler, L.J. 234(280) 281 381(163) 428 Buttiker — Landauer method, time shift calculations 213 Cabrera-Trujillo, R. 338(27—29) 339(27) 352 Califano, S. 730—732(95) 741 Cammi, R. 363(95) 426 Cao, T.Y. 199(3) 273 Car — Parinello method, direct molecular dynamics, theoretical background 360—361 Car — Parinello method, electron nuclear dynamics (END), structure and properties 327 Car, R. 215(238) 218(238) 279 327(18) 352 360(70—72) 425 Carassity, V. 481—482(95) 502 Caratheodory, C. 217(246) 280 Caridade, P.J.S.B. 719(88) 741 Carnevali, P. 215(238) 218(238) 279 360(70) 425 Carney, G.D. 612(52) 655 Carpenter, B. 376(144) 399(214) 409(239) 414(144 214) 428 430 Carrick, P.G. 624(116) 656 Carrington, T. 144(9) 194 611(46) 624(106—107) 654 656 Carter, S. 612(48—51) 621(88) 622(48—51 88 91 94 98) 623(94) 624(130) 626(155) 654—657 676(57) 740 Cartesian coordinates, crude Born — Oppenheimer approximation, nuclei interaction integrals 524—527 Cartesian coordinates, direct molecular dynamics, vibronic coupling 383—384 Cartesian coordinates, electronic state adiabatic representation, first-derivative coupling matrix 290—291 Cartesian coordinates, electronic states, adiabatic-to-diabatic transformation, two-state system 303—309 Cartesian coordinates, electronic states, triatomic quantum reaction dynamics 310—312 Cartesian coordinates, non-adiabatic coupling, quantum dressed classical mechanics 179 Cartesian coordinates, non-adiabatic coupling, two-state molecular system, 109—112 Cartesian coordinates, non-adiabatic coupling, two-state molecular system, single conical intersection solution 98—101 Cartesian coordinates, permutational symmetry, degenerate/near-degenerate vibrational levels 728—733 Cartesian coordinates, Renner — Teller effect, triatomic molecules, Hamiltonian equations 612—615 Castillo, J.F. 167(87) 196 Cattaneo, P. 403(225) 430 Cattarius, C. 393(190) 429 Cauchy-integral method, molecular systems, component amplitudes 219—220 Cederbaum, L.S. 41(37—38 41) 47(41) 82(106) 109(106) 139 141 144(25—26 30) 195 202—203(49) 242(49 296—297) 274 281 285(42 44—45) 301(44—45) 321 326(14) 352 357(19) 358(34) 360(65) 364(19 108) 365(109) 380(34) 381(109 161 170) 382(65) 383(179) 384(65) 385(179) 389(65) 390(109) 391(65) 393(109 170 190 192—193 195) 419(179) 424—425 427—429 487(100) 488(111) 491(100 111 121) 503 586(13) 591(13) 598(13) 624(13 114) 653 656 660(10) 738 Celani, P. 359(49—50) 405(230) 410(230) 425 430 446(38) 490(38) 501 Cenek, W. 506(11) 555 Center-of-mass coordinates, crude Born — Oppenheimer approximation, hydrogen molecule 513—516 Center-of-mass coordinates, permutational symmetry, total molecular wave function 664—668 Cerjan, C. 364(103 105) 427 Cervero, J.M. 210(178) 278 Chaban, G. 42—43(65) 97(65) 104(65) 118(65) 140 236(285) 281 Chajia, M. 118(127) 142 Challacombe, M. 363(95) 426 Chambaud, G. 612(51) 622(51 92—93 97 99—101) 655—656 Chancey, C.C. 33(47) 38 209(164) 277 Chandler, D. 377(145) 428 Chandrasekhar, J. 349(53) 353 Chapman, S. 82(99) 141 376(142) 397(206) 428 430 Chapuisat, X. 41(50) 140 242(294—295) 281 Charutz, D.M. 28(39) 37 41(23) 86(23) 122(23) 139 146(58) 150(58) 157(58) 195 242(300—301) 248(300—301) 281 Chauvat, D. 213(230) 279 Cheeseman, J.R. 363(95) 426 Chemical identity, permutational symmetry, total wave function 674—678 Chen, G.-Z. 210(175) 278 Chen, W. 360(78) 363(95) 372(78) 426 Chen, Y.-J. 624(127) 657 Cheng, C.M. 200(12) 208(12) 273 Chiang, W.-Y. 624(127) 657 Child, M.S. 35(50) 38 145(37) 149(37) 195 202(58) 210(169 173—174) 212(208) 248(169) 274 277—279 284(11) 320 Chingas, G.C. 3(13) 37 232(265) 280 Chiral systems, phase-change rule 456—458 Chowdhury, P.K. 458(63) 487(63) 501 Christiansen, P.L. 208(139) 277 Chu, Z. 411(241) 430 Cimirglia, R. 385(185) 429 Cioslowski, J. 363(95) 426 cis-trans isomerization, loop construction, ethylene photolysis 472—473 Clark, T. 349(53) 353 Clary, D.C. 211(187) 248(187) 278 Classical wave theory, historical background 206—207 Clifford, S. 360(80) 363(95) 408(80) 426 Coalson, R.D. 326(13) 352 379(149) 428 Cocchini, F. 134—135(135) 137(135) 142 Coherent states, direct molecular dynamics, non-adiabatic coupling 403—404 Coherent states, molecular systems 212 Coker, D.F. 397(204—205) 398(204) 399(205) 403(205) 429 Colin, R. 625(133) 657 Collin, G.J. 456(58) 473(58) 501 Collins, M. 361(89—94) 426 Colwell, S.M. 626(158) 657 Complete active space (CAS) wave functions, electron nuclear dynamics (END), time-dependent variational principle (TDVP) 334—337 Complete active space self-consistent field (CASSCF) technique, conical intersection location 492—493 Complete active space self-consistent field (CASSCF) technique, direct molecular dynamics, non-adiabatic systems 404—411 Complete active space self-consistent field (CASSCF) technique, direct molecular dynamics, theoretical background 358—361 Complete active space self-consistent field (CASSCF) technique, direct molecular dynamics, vibronic coupling, diabatic representation 385—386 Complex representations, multidegenerate nonlinear coupling, higher order coupling 243—244 Component amplitudes, molecular systems, analytic theory 214—233 Component amplitudes, molecular systems, analytic theory, Cauchy-integral method 219—220 Component amplitudes, molecular systems, analytic theory, cyclic wave functions 224—228 Component amplitudes, molecular systems, analytic theory, modulus and phase 214—215 Component amplitudes, molecular systems, analytic theory, modulus-phase relations 217—218 Component amplitudes, molecular systems, analytic theory, near-adiabatic limit 220—224 Component amplitudes, molecular systems, analytic theory, reciprocal relations 215—217 232—233 Component amplitudes, molecular systems, analytic theory, wave packets 228—232 Component amplitudes, multidegenerate nonlinear coupling, continuous tracing, component phase 236—241 Conaway, W.E. 341(39—40) 353 Condon approximation, direct molecular dynamics, ab initio multiple spawning (AIMS) 414 Condon approximation, direct molecular dynamics, adiabatic systems 374—377 Condon approximation, direct molecular dynamics, vibronic coupling, diabatic representation 386 Configuration space, canonical intersection, historical background 144—148 Configuration space, non-adiabatic coupling, extended Born — Oppenheimer equations 170—171 Configuration state functions (CSFs), direct molecular dynamics, complete active space self-consistent field (CASSCF) technique, non-adiabatic systems 405—411 Conical intersections, crude Born — Oppenheimer approximation, theoretical background 506—507 Conical intersections, degenerate states chemistry xi—xiii Conical intersections, direct molecular dynamics, vibronic coupling 386—389 Conical intersections, electronic states, adiabatic representation 291 Conical intersections, electronic states, adiabatic-to-diabatic transformation, two-state system 303—309 Conical intersections, future research issues 493—496 Conical intersections, geometric phase theory 4—8 Conical intersections, geometric phase theory, adiabatic eigenstates 8—11 Conical intersections, loop construction, Longuet — Higgins loops 461—472 Conical intersections, loop construction, Longuet — Higgins loops, cyclopentadienyl radical/cation systems 464—472 Conical intersections, loop construction, phase-change rule 443—446 Conical intersections, loop construction, photochemical systems 453—460 Conical intersections, loop construction, photochemical systems, four-electron systems 455—458 Conical intersections, loop construction, photochemical systems, larger four-electron systems 458—459 Conical intersections, loop construction, photochemical systems, multielectron systems 459—460 Conical intersections, loop construction, photochemical systems, three-electron systems 455 Conical intersections, loop construction, qualitative molecular photochemistry, four-electron problems 472—482 Conical intersections, loop construction, quantitative cyclohexadiene photochemistry 482—487 Conical intersections, molecular systems, anchors 439—441 Conical intersections, molecular systems, anchors, molecules and independent quantum species 439—441 Conical intersections, molecular systems, electronic states 202—205 Conical intersections, molecular systems, multidegenerate nonlinear coupling, pairing 235—236 Conical intersections, molecular systems, multidegenerate nonlinear coupling, research background 233—234 Conical intersections, molecular systems, theoretical background 434—435 Conical intersections, molecular systems, two-state systems 436—438 Conical intersections, non-adiabatic coupling, Born — Oppenheimer approximation, matrix elements 186—191 Conical intersections, non-adiabatic coupling, coordinate origins 137—138 Conical intersections, non-adiabatic coupling, extended Born — Oppenheimer equations, closed path matrix quantization 171 — 173 Conical intersections, non-adiabatic coupling, extended Born — Oppenheimer equations, theoretical principles 144—148 Conical intersections, non-adiabatic coupling, extended Born — Oppenheimer equations, three-state matrix quantization 173—174 Conical intersections, non-adiabatic coupling, extended Born — Oppenheimer equations, three-state system analysis 174—175 Conical intersections, non-adiabatic coupling, Herzberg — Longuet — Higgins phase-based treatment, Jahn — Teller model 185—186 Conical intersections, non-adiabatic coupling, Jahn — Teller systems, Longuet — Higgins phase 119—122 Conical intersections, non-adiabatic coupling, Longuet — Higgins phase-based treatment 148—168 Conical intersections, non-adiabatic coupling, Longuet — Higgins phase-based treatment, geometric phase effect, two-dimensional two-surface system 148—157 Conical intersections, non-adiabatic coupling, Longuet — Higgins phase-based treatment, three-particle reactive system 157—168 Conical intersections, non-adiabatic coupling, minimal diabatic potential matrix, noninteracting intersections 85—89 Conical intersections, non-adiabatic coupling, multidegeneracy 80—81
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reaction 
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-molecule: (1, 2) and (2, 3) conical intersections 
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