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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.
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Lucas, N.J.D. 624(106) 656 Lukin, M.D. 249(316) 282 Macias, A. 41(47—48) 67(91) 82(47—48) 140—141 385(183) 429 Madden, P. 360(73) 425 Madelung, E. 265(326) 282 Mahalu, D. 200(17) 273 Mahapatra, S. 285(42) 321 386(188) 393(192—194) 429 491(121) 503 660(3) 738 Maier, G. 476(86) 478(86) 502 Mair, A. 249(316) 282 Malick, D.K. 363(95) 426 Malmqvist, P. 358(39) 363(97) 424 427 Malriu, J.-P. 385(185) 429 Manaa, M.R. 558(4) 572(32) 580—581 Mandel, L. 200—201(28) 206(28) 207(127 130) 208(28) 211(28) 264(28) 274 276 Mandelshtam, V.A. 660(16) 739 Manifold approximation, non-adiabatic coupling, line integral conditions, adiabatic-to-diabatic transformation matrix 53 Manini, N. 210(168) 277 Manko, V.I. 230—232(262) 280 Manocha, A.S. 381(169) 429 Manolopoulos, D.E. 210(169) 248(169) 277 285(41) 313(88) 318(88) 321—322 380(157—158) 428 Manthe, U. 326(14) 352 357(19) 364(19 108) 393(191) 424 427 429 Marcus theory, electron nuclear dynamics (END), intramolecular electron transfer 349—351 Marcus, R.A. 349(55—57) 353 374(134) 428 Margenau, H. 291(71) 321 Marian, G. 559(13) 571(13) 580 597(23) 625(141) 626(141 149 152) 631(149) 634—635(152) 638(152) 647(149) 654 657 Marian, R. 594(20) 624(20) 654 Mariano, P.S. 459(66) 502 Markovic, N. 117(125) 142 145(48) 150(48) 152(48) 164(48) 182(48) 195 668(51) 740 Marston, C.C. 357(16) 364(16) 424 Martens, C. 357(21) 424 Martin, A. 506(10) 555 Martin, D. 622(89) 655 Martin, R.L. 363(95) 426 Martin, Th. 213(229) 279 Martinelli, L. 247(305) 281 Martinez, T.J. 326(16) 352 358(35—36) 361(88) 399(35—36 218—219) 400(220) 401(36 218) 402(35—36 221—222) 403(222) 406(236) 411(36 218 243—244) 413(236 245—246) 414(88 221 247—248) 424 426 430—431 434(10) 472(10) 473(81) 491(10 123) 500 502—503 Martinez-Haya, B. 167(85 87) 196 Marx, D. 360(74) 426 Maslov index, molecular systems 212 Maslov, V.P. 212(209) 279 Mass polarization effect, electronic state adiabatic representation, Born — Huang expansion 287—289 Massey, H.S.W. 203(65) 254(65) 275 339—340(31) 352 Matrix elements, Renner — Teller effect, triatomic molecules 594—598 Matsen, F.A. 144(14) 194 Matsika, S. 559(8—10) 560(17) 561(8) 565(17) 567(20) 568(10) 569(20) 570(10) 571(8) 580 Matsunaga, N. 42(66—67) 43(66—67) 71(66) 97(66—67) 104(66—67) 118(66—67) 140 301(79—80) 322 363(96) 426 Matsuzaki, K. 506(13) 555 Maxwell equation, non-adiabatic coupling, pseudomagnetic field 97 Mayer, M. 660(10) 738 Maynard, A. 364(107) 427 McCammon, J. 359(60) 425 McCarroll, R. 203(64) 254(64) 275 284(18—19) 320 McCarthy, M.I. 481(93) 502 McConnel, H.M. 464(74) 502 McCormack, D. 380(159) 428 McDiarmid, R. 484(99) 503 McDonald, B. 619(83—85) 655 McDonald, J.D. 144(7) 194 McDouall, J. 358(38) 424 McLachlan, A.D. 41(31) 139 241(286—287) 281 McWeeny, R. 498—499(139) 504 Mead, C.A. 2—4(10) 7(21) 9(10) 11(10) 18(21) 24—25(10) 27(34—35) 28(10 38) 29—30(10) 31(10 21) 33(44) 37—38 104(118) 122(132) 142 144(27) 145(30—33 41) 195 203(74) 204(76) 209(160—161 163) 242—243(302) 246—247(302) 250(76 163) 275 277 281 284(23—24) 285(45 51) 290(23) 297(76) 301(45 51 76) 320—322 385(182) 429 487(105) 488(110) 503 558(2) 559(2 11) 580 660(19—20 22) 668(19 45—47) 685(59) 687(59) 694(59) 699(19) 702(59) 703(76) 713(59) 715(82) 720(92) 728(20) 738(82) 739—741 Mebel, A.M. 13(26) 28(26) 37 41(12) 42—43(12 72—74) 71(12 74) 73(12) 82(104) 94(73—74) 97(72) 99(12) 102(12 104) 104(12 72—74 116—117) 109(12 73) 111(12 72—73 104) 112(116) 114(116) 116(73) 117(12 74) 118(72—74 104 126) 139—142 200(37) 202(55—56) 234(281—282) 242(56 282) 274 281 359(57) 425 488(113) 503 506(2) 555 Mehra, J. 199(2) 215(2) 217(2) 263(2) 273 Mehta, M.L. 703(75) 740 Meiswinkel, R. 41(39) 134(39) 139 202(52) 233(52) 274 Mendez, L. 67(91) 141 Menucci, B. 363(95) 426 Merchan, M. 472(80) 484(99) 502—503 Merer, A.J. 584—586(8) 598(24—27) 604(26) 606(25) 607(25) 608(8 24) 618(73) 619(24) 620(25—27) 621(25—26) 624(116) 641(8) 653—656 Merkt, F. 145(52) 195 Merlet, F. 455(56) 501 Merzbacher, E. 671(54) 722(54) 740 Meshulach, D. 211(181) 278 Messiah, A. 223(252) 280 377—378(147) 420(147) 428 Methiu, H. 358(26 33) 379(26) 399(33) 424 Metsdagh, J.M. 434(5) 500 Meyer, H.-D. 326(12) 352 357(19—20) 358(34) 364(19—20 105 108) 365(109 116) 380(34) 393(190 192 195) 405(231) 423(20) 424 427 429—430 Meyer, W. 3(17) 20(17) 37 41(6) 41(49) 82(49) 138 140 248(310) 281 385(184) 429 Micha, D.A. 41(44) 139 Michl, J. 357(4—5 13) 381(4—5) 424 434(2) 439(34) 446(34) 473(2) 474(34) 480(2) 494(2 129 133—134) 495(2 129 135—136) 500—501 503—504 Mielke, S.L. 82(101—102) 118(101—102) 141 403(224) 430 Millam, J. 360(75) 363(95) 426 Miller, T. 381(166—167) 428 Miller, T.A. 464(73) 465(73 76) 502 Miller, W. 374(136) 397(207) 404(228) 428 430 Miller, W.H. 201(42) 212(225) 214(42) 274 279 326(12) 352 Mills, I.M. 611(43) 654 Mills, R.L. 42(58) 93(58) 140 203(66) 213(66) 250(66) 275 Milton, D.J. 624(109) 656 Miniatura, Ch. 210(172) 214(172) 278 Minimal diabatic potential matrix, non-adiabatic coupling 81—89 Minimal models, Renner — Teller effect, triatomic molecules 615—618 Minimal residuals (MINRES) filter diagonalization, permutational symmetry, dynamic Jahn — Teller and geometric phase effects 699—711 Minimal residuals (MINRES) filter diagonalization, permutational symmetry, theoretical background 660—661 Minimum energy method (MEM), direct molecular dynamics, Gaussian wavepacket propagation 379—381 Minimum energy path (MEP), direct molecular dynamics, theoretical background 358—361 Mittal, J.P. 458(63) 487(63) 501 Mixed-state trajectory, conical intersection research 495—496 Mixed-state trajectory, direct molecular dynamics, Ehrenfest dynamics 396—399 Mixed-state trajectory, direct molecular dynamics, error sources 403—404 Mixed-state trajectory, direct molecular dynamics, molecular mechanics valence bond (MMVB) 411 Mixing angle, non-adiabatic coupling, two-state molecular system, 104—109 Mladenovic, M. 611(47) 612(56) 654—655 Moate, M.C.P. 233(276) 280 Modulus-phase formalism, molecular systems 205 Modulus-phase formalism, molecular systems, component amplitude analysis 214—215 217—218 Modulus-phase formalism, molecular systems, Lagrangean properties, Dirac electrons 266—268 Modulus-phase formalism, molecular systems, Lagrangean properties, Dirac electrons, topological phase 270—272 Modulus-phase formalism, molecular systems, Lagrangean properties, Lagrangean-density correction term 269—270 Modulus-phase formalism, molecular systems, Lagrangean properties, nearly nonrelativistic limit 268—269 Modulus-phase formalism, molecular systems, Lagrangean properties, nonrelativistic electron 263—265 Modulus-phase formalism, molecular systems, Lagrangean properties, nonrelativistic/relativistic cases 262—263 Modulus-phase formalism, molecular systems, Lagrangean properties, potential fluid dynamics and quantum mechanics 265—266 Modulus-phase formalism, molecular systems, Lagrangean properties, spinor phases 272 Moebius strip, phase-change rule, ammonia and chiral systems 457—458 Moebius strip, phase-change rule, general bond reactions 452—453 Moebius strip, phase-change rule, pericyclic reactions 448—450 Moebius strip, phase-change rule, pi bond reactions 452—453 Moebius strip, phase-change rule, sigma bond reactions 452 Moffitt, W. 2(1 3) 33(3) 36—37 145(35) 195 696(73) 733(73) 740 Molecular dynamics, adiabatic molecular dynamics 362—381 Molecular dynamics, adiabatic molecular dynamics, Gaussian wavepacket propagation 377—381 Molecular dynamics, adiabatic molecular dynamics, initial condition selection 373—377 Molecular dynamics, adiabatic molecular dynamics, nuclear Schroedinger equation 363—373 Molecular dynamics, conical intersection location 491—492 Molecular dynamics, degenerate states chemistry xii—xiii Molecular dynamics, direct molecular dynamics, theoretical background 356—362 Molecular dynamics, geometric phase theory, single-surface nuclear dynamics, vector-potential, molecular Aharonovo — Bohm effect 25—31 Molecular mechanics (MM) potentials, direct molecular dynamics, complete active space self-consistent field (CASSCF) technique, non-adiabatic systems 406—411 Molecular mechanics (MM) potentials, direct molecular dynamics, theoretical background 359—361 Molecular mechanics valence bond (MMVB), conical intersection location 489—490 Molecular mechanics valence bond (MMVB), direct molecular dynamics, complete active space self-consistent field (CASSCF) technique, non-adiabatic systems 406—411 Molecular mechanics valence bond (MMVB), direct molecular dynamics, theoretical background 359—361 Molecular orbital (MO) theory, conical intersection research 493—496 Molecular orbital (MO) theory, crude Born — Oppenheimer approximation, hydrogen molecule, minimum basis set calculation 548—550 Molecular orbital (MO) theory, direct molecular dynamics, ab initio multiple spawning (AIMS) 413—414 Molecular orbital (MO) theory, direct molecular dynamics, AM1 Hamiltonian 415 Molecular orbital (MO) theory, direct molecular dynamics, complete active space self-consistent field (CASSCF) technique, non-adiabatic systems 405—411 Molecular orbital (MO) theory, direct molecular dynamics, nuclear motion Schroedinger equation 372—373 Molecular orbital (MO) theory, phase-change rule, chemical reactions 450—453 Molecular orbital (MO) theory, phase-change rule, cyclopentadienyl cation (CPDC) 467—472 Molecular orbital-conical intersection (MO-CI), Longuet — Higgins phase-change rule, cyclopentadienyl radical (CPDR) 464—467 Molecular orbital-conical intersection (MO-CI), two-state systems 438 Molecular systems, analytic theory, component amplitudes 214—233 Molecular systems, analytic theory, component amplitudes, Cauchy-integral method 219—220 Molecular systems, analytic theory, component amplitudes, cyclic wave functions 224—228 Molecular systems, analytic theory, component amplitudes, modulus and phase 214—215 Molecular systems, analytic theory, component amplitudes, modulus-phase relations 217—218 Molecular systems, analytic theory, component amplitudes, near-adiabatic limit 220—224 Molecular systems, analytic theory, component amplitudes, reciprocal relations 215—217 232—233 Molecular systems, analytic theory, component amplitudes, wave packets 228—232 Molecular systems, electron nuclear dynamics (END) 337—351 Molecular systems, electron nuclear dynamics (END), final-state analysis 342—349 Molecular systems, electron nuclear dynamics (END), intramolecular electron transfer 349—351 Molecular systems, electron nuclear dynamics (END), reactive collisions 338—342 Molecular systems, four-state molecular system, non-adiabatic coupling, quantization 60—62 Molecular systems, four-state molecular system, non-adiabatic coupling, Wigner rotation/adiabatic-to-diabatic transformation matrices 92 Molecular systems, modulus-phase formalism, Lagrangean properties, Dirac electrons 266—268 Molecular systems, modulus-phase formalism, Lagrangean properties, Dirac electrons, topological phase 270—272 Molecular systems, modulus-phase formalism, Lagrangean properties, Lagrangean-density correction term 269—270 Molecular systems, modulus-phase formalism, Lagrangean properties, nearly nonrelativistic limit 268—269 Molecular systems, modulus-phase formalism, Lagrangean properties, nonrelativistic electron 263—265 Molecular systems, modulus-phase formalism, Lagrangean properties, nonrelativistic/relativistic cases 262—263 Molecular systems, modulus-phase formalism, Lagrangean properties, potential fluid dynamics and quantum mechanics 265—266 Molecular systems, modulus-phase formalism, Lagrangean properties, spinor phases 272 Molecular systems, multiple degeneracy non-linearities 233—249 Molecular systems, multiple degeneracy non-linearities, adiabatic-to-diabatic transformation 241—242 Molecular systems, multiple degeneracy non-linearities, component phase continuous tracing 236—241 Molecular systems, multiple degeneracy non-linearities, conical intersection pairing 235—236 Molecular systems, multiple degeneracy non-linearities, direct integration 242—243 Molecular systems, multiple degeneracy non-linearities, experimental phase probing 248—249 Molecular systems, multiple degeneracy non-linearities, Jahn — Teller/Renner — Teller coupling effects 243—248 Molecular systems, multiple degeneracy non-linearities, Jahn — Teller/Renner — Teller coupling effects, complex representation 243—244 Molecular systems, multiple degeneracy non-linearities, Jahn — Teller/Renner — Teller coupling effects, generalized Renner — Teller coupling 247 Molecular systems, multiple degeneracy non-linearities, Jahn — Teller/Renner — Teller coupling effects, off-diagonal coupling 246—247 Molecular systems, multiple degeneracy non-linearities, Jahn — Teller/Renner — Teller coupling effects, off-diagonal element squaring 245—246 Molecular systems, phase factors 205—214 Molecular systems, quantum theory and 198—205 Molecular systems, three-state molecular system, non-adiabatic coupling, minimal diabatic potential matrix, noninteracting conical intersections 81—89 Molecular systems, three-state molecular system, non-adiabatic coupling, numerical study 134—137 Molecular systems, three-state molecular system, non-adiabatic coupling, numerical study, extended Born — Oppenheimer equations 174—175 Molecular systems, three-state molecular system, non-adiabatic coupling, quantization 59—60 Molecular systems, three-state molecular system, non-adiabatic coupling, quantization, extended Born — Oppenheimer equations 173—174 Molecular systems, three-state molecular system, non-adiabatic coupling, sign flip derivation 73—77 Molecular systems, three-state molecular system, non-adiabatic coupling, strongly coupled (2, 3) and (3, 4) conical intersections, “real” three-state systems 113—117 Molecular systems, three-state molecular system, non-adiabatic coupling, theoretical-numeric approach 101—103 Molecular systems, three-state molecular system, non-adiabatic coupling, Wigner rotation/adiabatic-to-diabatic transformation matrices 92 Molecular systems, two-state molecular system, non-adiabatic coupling, Herzberg — Longuet — Higgins phase 185 Molecular systems, two-state molecular system, non-adiabatic coupling, quantization 58—59 Molecular systems, two-state molecular system, non-adiabatic coupling, single conical intersection solution 97—101 Molecular systems, two-state molecular system, non-adiabatic coupling, Wigner rotation/adiabatic-to-diabatic transformation matrices 92 Molecular systems, two-state molecular system, non-adiabatic coupling, “real” system properties 104—112 Molecular systems, two-state molecular system, non-adiabatic coupling, “real” system properties, 109—112 Molecular systems, two-state molecular system, non-adiabatic coupling, “real” system properties, 109—112 Molecular systems, two-state molecular system, non-adiabatic coupling, “real” system properties, 103—109 Molecular systems, Yang — Mills fields, alternative derivation 254—255 Molecular systems, Yang — Mills fields, curl condition 252—253 Molecular systems, Yang — Mills fields, future implications 255—257 Molecular systems, Yang — Mills fields, Hamiltonian formalism, observability in 259—261 Molecular systems, Yang — Mills fields, nuclear Lagrangean equation 249—250 Molecular systems, Yang — Mills fields, pure vs. tensorial gauge fields 251—252 Molecular systems, Yang — Mills fields, tensorial field vanishing criteria 257—259 Molecular systems, Yang — Mills fields, untruncated Hilbert space 253—254 Molecular-fixed coordinates, crude Born — Oppenheimer approximation, hydrogen molecule, Hamiltonian equation 514—516 Molnar, F. 411(243) 431 Molteni, C. 360(76) 426 Momentum operator, non-adiabatic coupling, Longuet — Higgins phase-based treatment, three-particle reactive system 157—168 Montgomery, J.A. 363(95) 426 363(96) 426 Moody, J. 204(77 79) 250(77 79) 253(79) 275 Moonaw, W.R. 381(172) 429 Moore, C.E. 573(34) 581 Moore, D.J. 200(13) 210(13) 222(13) 273 Morais, V.M.F. 712(80) 740 Morales, J.A. 339(35) 344—345(42—43) 348(51) 352—353 MORBID Hamiltonian, Renner — Teller effect, triatomic molecules, benchmark handling 621—623 Morokuma, K. 363(95) 426 579(36—37) 581 Morpurgo, A.F. 248(309) 281 Morrison, R.J.S. 341(39—40) 353 Morse oscillator, non-adiabatic coupling, quantum dressed classical mechanics 179 Morse oscillator, non-adiabatic coupling, quasiclassical trajectory (QCT) calculation, three-particle reactive system, 160—163 Morse oscillator, non-adiabatic coupling, semiclassical calculation, 164—167 Morse oscillator, Renner — Teller effect, triatomic molecules, benchmark handling 622—623 Morse potentials, direct molecular dynamics, Gaussian wavepacket propagation 378—383 Morse, P.M. 291(70) 321 Moskalev, A.N. 661(36) 739 Mosnow-Seeuws, F. 284(18—19) 320 Mott, N.F. 203(65) 254(65) 275 339—340(31) 352 Motzkus, M. 211(182—183) 278 Moussa, M.H.Y. 206(110) 276 Msezane, A.S. 213(235) 279 Mueller, A.M. 434(3) 479(3) 500 Mueller, K.T. 248(307) 281 Mueller, U. 404(227) 430 Muerz, P. 624(125—126) 656 Mukamel, S. 204(88 99) 211(88) 275—276 375(139) 428 Mulder, J.J. 438(31—32) 448(32) 450—451(32) 453(32) 487(33) 493(31) 494(31—32) 456(57) 500—501 Muller, A. 208(143) 277 Mulliken population, electron nuclear dynamics (END), intramolecular electron transfer 349—351 Mulliken, R.S. 349(60) 353 Multiconfiguration self-consistent field (MCSCF) technique, direct molecular dynamics, complete active space self-consistent field (CASSCF) technique, non-adiabatic systems 404—411 Multiconfiguration self-consistent field (MCSCF) technique, direct molecular dynamics, theoretical background 358—361 Multiconfiguration self-consistent field (MCSCF) technique, direct molecular dynamics, vibronic coupling, diabatic representation 385—386 Multiconfiguration time-dependent Hartree (MCTDH) method, direct molecular dynamics, Gaussian wavepacket propagation 380—381 Multiconfiguration time-dependent Hartree (MCTDH) method, direct molecular dynamics, nuclear motion Schroedinger equation 364—373 Multiconfiguration time-dependent Hartree (MCTDH) method, direct molecular dynamics, theoretical background 357—361 Multidegenerate conditions, molecular system non-linearities 233—249 Multidegenerate conditions, molecular system non-linearities, adiabatic-to-diabatic transformation 241—242 Multidegenerate conditions, molecular system non-linearities, component phase continuous tracing 236—241 Multidegenerate conditions, molecular system non-linearities, conical intersection pairing 235—236 Multidegenerate conditions, molecular system non-linearities, direct integration 242—243 Multidegenerate conditions, molecular system non-linearities, experimental phase probing 248—249 Multidegenerate conditions, molecular system non-linearities, Jahn — Teller/Renner — Teller coupling effects 243—248 Multidegenerate conditions, molecular system non-linearities, Jahn — Teller/Renner — Teller coupling effects, complex representation 243—244 Multidegenerate conditions, molecular system non-linearities, Jahn — Teller/Renner — Teller coupling effects, generalized Renner — Teller coupling 247 Multidegenerate conditions, molecular system non-linearities, Jahn — Teller/Renner — Teller coupling effects, off-diagonal coupling 246—247 Multidegenerate conditions, molecular system non-linearities, Jahn — Teller/Renner — Teller coupling effects, off-diagonal element squaring 245—246 Multidegenerate conditions, non-adiabatic coupling 80—81 Multidegenerate conditions, non-adiabatic coupling, Wigner rotation/adiabatic-to-diabatic transformation matrices 91—92 Multiple independent spawning (MIS), direct molecular dynamics, non-adiabatic coupling 402 Multiple spawning, direct molecular dynamics, ab initio multiple spawning 411—414 Multiple spawning, direct molecular dynamics, non-adiabatic coupling 399—402 Multivalued matrix elements, non-adiabatic coupling, adiabatic-to-diabatic transformation matrix 126—132 Multivalued matrix elements, non-adiabatic coupling, Herzberg — Longuet — Higgins phase, Jahn — Teller model 185—186 Multivalued matrix elements, non-adiabatic coupling, minimal diabatic potential matrix 83—89 Murao, T. 381(171) 429 Murphy, G.M. 291(71) 321 Murrell, J.N. 41(30) 121(30) 139 464(75) 468(75) 502 676(57) 693(66) 698(74) 716(74) 740 Myanlin, V.A. 671(55) 673(55) 740 Myers, T.L. 234(280) 281 Mystery band, direct molecular dynamics, vibronic coupling 381—382 Naik, P.D. 458(63) 487(63) 501 Nakamura, H. 67(90) 141 201(45) 214(45) 274 Nalewajski, R.F. 693(70) 699(70) 740 Nanayakkara, A. 363(95) 426 487—488(107) 503 Nanbu, S. 82(103) 118(103) 141 Narozhny, N.B. 212(198) 278 Naturforsch, Z. 144(15) 194 Nauts, A. 41(50—51) 140 242(294) 281 Near-adiabatic limit, molecular systems, component amplitude analysis 220—224 Near-degenerate states, permutational symmetry, vibrational levels 728—733 Nebot-Gil, I. 472(80) 502 Neogrady, P. 363(97) 427 Neuhauser, D. 286(58) 321 365(114—115) 406(235) 427 430 660(26) 739 Neumann boundary conditions, electronic states, adiabatic-to-diabatic transformation, two-state system 304—309 Neumark, D.M. 626(151) 657 Newton — Raphson equation, conical intersection location, locations 565 Newton — Raphson equation, conical intersection location, orthogonal coordinates 567 Newton, M.D. 349(59) 353 Newton, R.G. 340(38) 353 Ng, C.Y. 82(96) 118(96) 141 Nguyen, K. 363(96) 426 Nicole, G 204(94) 207(94) 275 Niederjohann, B. 167(86) 196 Niedner, G. 345(46) 353 346—347(50) 353 Niedner-Schatteburg, G. 82(95) 118(95) 141 345(48) 353 Nieplocha, J. 363(99) 427 Nieto, M.M. 200(27) 207(27) 274 Nikitin, E.E. 67(92) 82(98) 141 201(44—45) 214(44—45) 274 284(9) 320 345(47) 353 397(200) 429 664(40) 739 Nikonov, D.E. 230—232(262) 280
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molecule 
-molecule: (1, 2) and (2, 3) conical intersections 
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