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Prigogine I. (ed.), Rice S.A. (ed.) — New Methods in Computational Quantum Mechanics
Prigogine I. (ed.), Rice S.A. (ed.) — New Methods in Computational Quantum Mechanics



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Íàçâàíèå: New Methods in Computational Quantum Mechanics

Àâòîðû: Prigogine I. (ed.), Rice S.A. (ed.)

Àííîòàöèÿ:

Few of us can any longer keep up with the flood of scientific literature, even in specialized subfields. Any attempt to do more and be broadly educated with respect to a large domain of science has the appearance of tilting at windmills. Yet the synthesis of ideas drawn from different subjects into new, powerful, general concepts is as valuable as ever, and the desire to remain educated persists in all scientists. This series. Advances in Chemical Physics, is devoted to helping the reader obtain general information about a wide variety of topics in chemical physics, a field that we interpret very broadly. Our intent is to have experts present comprehensive analyses of subjects of interest and to encourage the expression of individual points of view. We hope that this approach to the presentation of an overview of a subject will both stimulate new research and serve as a personalized learning text for beginners in a field.


ßçûê: en

Ðóáðèêà: Ìåõàíèêà/

Ñòàòóñ ïðåäìåòíîãî óêàçàòåëÿ: Ãîòîâ óêàçàòåëü ñ íîìåðàìè ñòðàíèö

ed2k: ed2k stats

Ãîä èçäàíèÿ: 1996

Êîëè÷åñòâî ñòðàíèö: 817

Äîáàâëåíà â êàòàëîã: 10.02.2014

Îïåðàöèè: Ïîëîæèòü íà ïîëêó | Ñêîïèðîâàòü ññûëêó äëÿ ôîðóìà | Ñêîïèðîâàòü ID
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Ïðåäìåòíûé óêàçàòåëü
Correlation functions, Redfield equation solutions, classical bath models      91—93
Correlation functions, trial wavefunction calculations      12—14
COSMO techniques, semiempirical molecular orbital theory      736—737
Coulomb interactions, semiempirical molecular orbital theory      721—722
Coulomb interactions, special-purpose applications      734—737
Coupled cluster (CC) method, trial wavefunctions      11
Coupled cluster singles and doubles (CCSCD) technique, transition metal electronic structure, benchmark testing      338—345
Coupled cluster singles and doubles (CCSCD) technique, transition metal electronic structure, geometries      346—348
Coupled-perturbed Hartree — Fock (CPHF) equations, semiempirical molecular orbital theory      745—747
Covalent systems, tight-binding molecular dynamics (TBMD), algorithms and force calculations      660—666
Covalent systems, tight-binding molecular dynamics (TBMD), applications      666—682
Covalent systems, tight-binding molecular dynamics (TBMD), current research      682—695
Covalent systems, tight-binding molecular dynamics (TBMD), energy models      654—660
Covalent systems, tight-binding molecular dynamics (TBMD), overview      651—654
Covalent systems, tight-binding molecular dynamics (TBMD), transferability issues      695—697
Cowan, R.D.      349(21) 361(21) 385
Cowley, E.R.      139(27—28) 215 652(11) 667(11) 698
Crabtree, R.H.      362(43) 385
Cramer, C.J.      255(57) 326 734(166) 735(166 185) 736(166 185 215—220) 737(221) 754—756
Craze, G.-A.      741(238—239) 756
Creation-annihilation boson operators, U(2) algebraic model      484
Cremaschi, P.      25(69) 37
Cremer, D.      710(45) 750
Cross, P.C.      549(40) 647
Csaszar, P.      713(65) 751
Cuccoli, A.      139(29—40) 140(34) 154—155(34) 157(40) 159(34 40) 207(34) 215
Cullum, J.K.      96(75) 133
Cummins, P.L.      732—733(154) 754
Cundari, T.R.      371(59) 386
Curl, R.F.      714(67) 718(98) 751—752
Curtiss, L.A.      341(16—17) 384
Curtiss, L.S.      744(247) 757
Cyanide compounds, electronic spectroscopy, CASPT2/CASSCF techniques      306—309
Cyanide compounds, transition metal compound spectroscopy, near-degeneracy effects and active space selection      294—301
Cyclopentadiene (CP), multiconfigurational second-order perturbation theory (CASPT2), interacting double bonds      263
d Orbitals, transition metal structure, first-row transition metals      365—371
d Orbitals, transition metal structure, second-row transition metals      348—359
d Orbitals, transition metal structure, size as factor      348
d Orbitals, transition metal structure, third-row transition metals      359—365
Dai, D.      362(42) 385
Damped core technique, core electrons, quantum Monte Carlo (QMC)      16—17
Daniel, C.      302(192) 309(197) 330
Dannacher, J.      284(149) 329
Darling — Dennison interaction, three-dimensional algebraic models, Fermi resonances, anharmonic couplings      600—601
Darling, B.T.      600(77) 648
Darwin terms, CASPT2/CASSCF techniques, relativistic effects in, transition dihalides      304—306
Darwin terms, CASPT2/CASSCF techniques, relativistic effects in, transition metal compounds      290
Darwin terms, transition metal structure, second-row transition metals      349
Davenport, R.C.      738(229) 756
Davidson, E.R.      8(84) 37 228(16—17) 229(18) 325
Davidson, M.M.      406(62) 427(62) 449
Davies, E.B.      87(56) 98(56) 132
Davis, L.P.      747(264) 757
Davison, B.N.      680(109) 701
Davison, E.R.      280(137) 328
Daw, M.S.      684—685(121) 702
Dawber, P.G.      463(13) 646
de Bruijn, S.      729(136—137) 753
de Shalit, A.      497(31) 647
de Vries, A.J.      737(228) 756
Deaven, D.      680—681(112) 693—694(132) 695(112) 701—702
Decius, J.C.      431(201) 453 549(40) 647
Dedieu, A.      335(1) 384
Degeneracy group, algebraic models, molecular spectroscopy, dynamical symmetries      464—468
Degeneracy group, algebraic models, molecular spectroscopy, Lie algebra      479
Degeneracy group, algebraic models, one-dimensional algebraic models, Majorana symmetry adaptation, multiple oscillators      540—547
Deisenhofer, J.      65(56) 76
DeKock, C.W.      306(196) 330
Del Bene, J.      706(30) 711(30) 750
Delcourt, M.O.      286(155) 329
DeLeo, G.      681(114) 701
Delon, A.      645(108) 649
Demchenko, A.P.      276—277(114) 282—284(114) 328
Denis, J.-M.      263(90) 327
Dennington, R.D.      706(24) 709(24) 713(24) 744(24) 750
Dennison, D.M.      600(77) 648
Density functional theory (DFT), semiempirical molecular orbital theory      747—749
Density functional theory (DFT), semiempirical molecular orbital theory, calculations      712—714
Density functional theory (DFT), semiempirical molecular orbital theory, parametrization      742—744
Density functional theory (DFT), semiempirical molecular orbital theory, quantum mechanics/molecular mechanical hybrids      738—742
Density functional theory (DFT), transition metal compound structure, applications      376—382
Density functional theory (DFT), transition metal compound structure, first-row transition metals      368—371
Density functional theory (DFT), transition metal compound structure, future trends      383—384
Density functional theory (DFT), transition metal compound structure, overview      335 341—345
Density functional theory (DFT), transition metal compound structure, second-row transition metals      355—359
Density matrix, Redfield equation solutions, canonical transformation of system-bath coupling strength      112—113
Density matrix, Redfield equation solutions, DNA/metal complex long-range electron transfer      101—102
Density matrix, Redfield equation solutions, semiconductor-like electron transfer      110—111
Density matrix, tight-binding molecular dynamics (TBMD), electronic structure calculations      684—689
DePristo, A.E.      426(181) 430(181) 452
Destombes, J.-L.      263(90) 327
Deutch, J.M.      83(50—51) 132
DeVault, D.      110(93) 133
Dewar, M.J.S.      703(3 9 11) 706(19 21 23 32) 707(19) 708(19 39) 709(3 11 21 23 42—43) 713(3 11 21 23 43) 720(3) 721—722(19 21) 723(19 21 23 39) 724(43) 728(19 21) 730(19) 731(19 21) 743(19) 744(19 23) 745(250—252) 747(21) 749—750 757
Dewitt-Morette, C.      136(14) 215
DFTG technique, transition metal electronic structure, second-row transition metals      355—359
DGAUSS program, semiempirical molecular orbital calculations      712—714
Di Bernardo, S.      278(130) 328
Diagrammatic representation, centroid density, numerical examples      160—162
Diagrammatic representation, centroid density, principles      143—146
Dianoux, A.J.      48(35) 75
Dick, B.      207—272(103) 327
Diederich, F.      678(87) 700 716(79) 718(79) 751
Diedrich, D.L.      26(78) 37
Dieperink, A.E.L.      576(69) 586(69) 633(104) 648—649
Diercksen, G.H.F.      710(46) 750
Diffuse interstellar absorption (DIB), multiconfigurational second-order perturbation theory (CASPT2)      286
Diffusion coefficient, Brownian particle diffusion, real-time QMC techniques      71—72
Diffusion Monte Carlo (DMC), atomic core treatment      15
Diffusion Monte Carlo (DMC), extended systems      32
Diffusion Monte Carlo (DMC), nonlocal pseudopotentials and      18—22
Diffusion Monte Carlo (DMC), path-integral Monte Carlo (PIMC), compared with      9—10
Diffusion Monte Carlo (DMC), pseudo-Hamiltonian approach      18
Diffusion Monte Carlo (DMC), summary of      6—9
Diffusion Monte Carlo (DMC), trial wavefunctions      11
Dijkman, J.P.      737(228) 756
Dillet, V.      736(206) 755
DiMagno, T.J.      68(65 68) 76
Dimethyl-aminobenzonitrile (DMABN), multiconfigurational second-order perturbation theory (CASPT2), solvation effects      256—257
Dipole operators, one-dimensional algebraic models      560—566
Dipole operators, three-dimensional algebraic models      611—615
Dirac — Fock approximation, quantum Monte Carlo (QMC) calculations      27
Direct-diagonalization (DD) algorithm, tight-binding molecular dynamics (TBMD), electronic structure calculations      684
Discretization techniques, real-time path integration, quantum Monte Carlo analysis      51—54
Discretized path-integral representation, partition functions      137—138
Dispersed polaron method, Redfield equation solutions, classical bath models      92—93
Dissociation energies, transition metal structure, second-row transition metals      349—359
Distance dependence, DNA/metal complex long-range electron transfer, Redfield equation solutions      106—109
Distance independence, DNA/metal complex long-range electron transfer      107—109
Distinguished coordinate reaction paths, potential energy surfaces (PES), interpolation surfaces      435
Distinguished coordinate reaction paths, potential energy surfaces (PES), overview      403—404 406—407
Distinguished coordinate reaction paths, potential energy surfaces (PES), potentials for      413—414
Dixon, D.A.      717(82—85) 752
DMA/metal complex, Redfield equation solutions, Hamiltonian system      102—104
DMA/metal complex, Redfield equation solutions, long-range electron transfer      101—112
DMA/metal complex, Redfield equation solutions, Marcus theory connections      111—112
DMA/metal complex, Redfield equation solutions, semiconductor electron transfer      110—111
DMA/metal complex, Redfield equation solutions, temperature/distance dependence      106—109
DMA/metal complex, Redfield equation solutions, time-dependent results      104—106
DMA/metal complex, Redfield equation solutions, vibrational and electronic fluctuations      109—110
Dobosh, P.A.      706(31) 750
Dodson, B.W.      652(7) 698
Dolg, M.      17(41) 36
Doll, J.D.      42(15—16) 47(15) 74 136(19—20) 137—138(19) 142(19) 153(19) 155(19) 180(67) 181—182(19) 207(114) 208(19) 212(19) 215—216 21
Domcke, W.      45(32) 75
Dominicis, C.D.      145(54) 152(54) 216
Donnelly, R.A.      734(177) 754
Donor-bridge dynamics, DNA/metal complex long-range electron transfer      109—110
Doren, D.      207(117) 218
Dornblaser, B.C.      96(74) 133
Dorofeeva, O.V.      305(193) 330
Dorsey, A.T.      48(34) 49(34) 75 114(107) 134
Double-shell effect, transition metal compound spectroscopy, CASPT2 techniques, near-degeneracy effects and active space selection      296—301
Double-shell effect, transition metal compound spectroscopy, CASPT2 techniques, transition dihalides      301—306
Double-well systems, real-time QMC techniques, electron transfer (ET) reactions      60—64
Double-zeta plus polarization (DZP), multiconfigurational second-order perturbation theory (CASPT2), organic molecule spectroscopy      250—251
Double-zeta plus polarization (DZP), transition metal electronic structure, applications      378—379
Double-zeta plus polarization (DZP), transition metal electronic structure, benchmark testing      339—345
Double-zeta plus polarization (DZP), transition metal electronic structure, geometries      346—348
Double-zeta plus polarization (DZP), transition metal electronic structure, second-row transition metals      350—359
Doubleday, C.      401(45) 418(127) 419(135 137) 448 451
Doverstal, M.      354—355(31) 382(31) 385
Draayer, J.P.      604(82) 648
Drabold, D.      684(123 127) 685(123) 702
Dresselhaus, G.      661(30) 699
Dresselhaus, M.S.      661(30) 699
Du, M.      68(65) 76
Dual tight-binding (TB) particle, Brownian particle diffusion, real-time QMC techniques      70—72
Duchovic, R.J.      393(14) 422(14) 447
Duebak, H.R.      567(53) 647
Duguay, B.      747(261) 757
Dumez, B.      248(41) 277(41) 302(41) 305(195) 308(41) 326 330
Dunbar, R.C.      284(142—144) 286(163—164) 329
Dunham expansion, molecular spectroscopy      458
Dunham expansion, one-dimensional algebraic models, two oscillators, anharmonic coupling      527—531
Dunham expansion, three-dimensional algebraic models, linear triatomic molecules      593—598
Dunham expansion, three-dimensional algebraic models, rotational spectroscopy      604—610
Dunham expansion, three-dimensional algebraic models, rovibrator coupling, bent triatomic molecules      590—592
Dunham expansion, U(2) algebraic model      488—494
Dunham expansion, U(4) algebraic model      505—511
Dunham expansion, vibron models of dynamical symmetry      482—484
Dunham, j.l.      458(1) 482(1) 646
Dunn, T.M.      277(126) 328
Dunning, J.T.H.      391(10) 419(144) 422(162) 447 451—452
Durand, P.      719(101) 752
Dutton, P.L.      101(87) 133
Duval, M.-C.      363(44) 385
Duyvejonck, E.      301(191) 330
Dyall, K.G.      229(19) 325
Dyall, K.J.      364(45) 385
Dynamical bottlenecks, potential energy surfaces (PES), reaction path dynamics      418—419
Dynamical correlation, centroid density, quantum transition-state theory (QTST)      205—207
Dynamical correlation, centroid density, trial wavefunction calculations      12
Dynamical properties, centroid density      162—204
Dynamical properties, centroid density, algorithms for CMD      180—191
Dynamical properties, centroid density, centroid molecular dynamics (CMD) method      166—180
Dynamical properties, centroid density, effective harmonic theory      164—166
Dynamical properties, centroid density, numerical examples and applications of CMD      191—204
Dynamical sign problem, quantum Monte Carlo analysis, blocking strategy      45—48
Dynamical sign problem, quantum Monte Carlo analysis, quasiclassical degrees of freedom      54—57
Dynamical sign problem, quantum Monte Carlo analysis, real-time QMC techniques      40—43
Dynamical symmetries, algebraic models      462—511
Dynamical symmetries, algebraic models, Lie algebras      468—479
Dynamical symmetries, algebraic models, overview      462—468
Dynamical symmetries, algebraic models, U(2) model      484—494
Dynamical symmetries, algebraic models, U(4) model      494—511
Dynamical symmetries, algebraic models, vibron model      480—511
East, A.L.L.      404(61) 425(179) 449 452
Ebata, T.      429(194) 453
Ebata, Y.      680(103) 701
Eberly, J.H.      80(31) 132
Eckart barrier potential, centroid density      161—162
Eckern, U.      70(73) 76
Economou, E.N.      146(58) 216
Effective bath coordinates (EBCs), canonical transformation of, bath cutoff frequency      126—127
Effective bath coordinates (EBCs), canonical transformation of, polaron transformation of Hamiltonian      123—125
Effective bath coordinates (EBCs), canonical transformation of, system-bath coupling strength      121—127
Effective potential theory, centroid density, basic formulations      136—140
Effective potential theory, centroid density, renormalization of diagrams      148—153
Effective potential theory, centroid molecular dynamics (CMD)      168—169
Egger, R.      43(24 27—29) 48(27 29) 49(29) 50(24 37) 51(24) 55(27 42) 56(24) 57(27) 58(29) 61(37) 65(28) 66(28) 70(29) 71(29) 72(78) 75—76 79(14) 113(14) 131 207(100) 217
Ehlers, A.W.      371(60) 386
Ehlich, R.      747(258) 757
Eigenvalue equations, multiconfigurational second-order perturbation theory (CASPT2), zeroth-order Hamiltonian      232
Eisele, G.      429(192) 453
Eksterowicz, J.E.      741(241) 756
Elber, R.      401(47) 406(47) 448
Elbert, S.T.      408(69—70) 415(70) 426(70) 430(69—70) 449
Electromagnetic transition intensities, one-dimensional algebraic models      556—566
Electromagnetic transition intensities, three-dimensional algebraic models      610—615
Electron absorption (EA), linear conjugated polyenes (LCP)      284—285
Electron affinity, CASPT2      232
Electron affinity, transition metal atoms      29
Electron transfer (ET) reactions, heterogeneous transfer, path-integral quantum transition-state theory (PI-QTST)      210—212
Electron transfer (ET) reactions, real-time QMC techniques, centroid quantum transition-state theory      59—64
Electron transfer (ET) reactions, Redfield equation solutions, long-range transfer in DNA/metal complexes      101—112
Electronic fluctuations, DNA/metal complex long-range electron transfer      109—110
Electronic spectroscopy, organic molecules, advantages of CASPT2      247—248
Electronic spectroscopy, organic molecules, ANO basis sets      248—251
Electronic spectroscopy, organic molecules, carbonyl compounds formaldehyde and acetone      258—263
Electronic spectroscopy, organic molecules, interacting double bonds methylene-cyclopropene      263—269
Electronic spectroscopy, organic molecules, interacting fragments biphenyl and bithiophene      269—276
Electronic spectroscopy, organic molecules, problems and limitations with CASPT2      251—255
Electronic spectroscopy, organic molecules, protein chromophore spectroscopy      276—284
Electronic spectroscopy, organic molecules, radical cations of LCP and PAH ions      284—287
Electronic spectroscopy, proteins      282—284
Electronic spectroscopy, transition metal compounds, $Ni(CO)_{4}$ spectra      316—320
Electronic spectroscopy, transition metal compounds, charge transfer states in chromium compounds      312—316
Electronic spectroscopy, transition metal compounds, chromium dimer properties      320—322
Electronic spectroscopy, transition metal compounds, cyanide and carbonyl ligands      306—320
Electronic spectroscopy, transition metal compounds, ligand field spectra of isoelectronic species      309—312
Electronic spectroscopy, transition metal compounds, near-degeneracy effects and active space selection      290—301
Electronic spectroscopy, transition metal compounds, overview of CASSCF/CASPT2 techniques      287—290
Electronic spectroscopy, transition metal compounds, relativistic effects, specific compounds      301—306
Electronic structure, reaction path techniques, applications      401—403
Electronic structure, reaction path techniques, bifurcations      407—408
Electronic structure, reaction path techniques, coordinates and path-based surfaces      408—415
Electronic structure, reaction path techniques, distinguished coordinate paths      403—407
Electronic structure, reaction path techniques, dynamics on path-based surfaces      415—427
Electronic structure, reaction path techniques, global surfaces      433—446
Electronic structure, reaction path techniques, limitations of simple surfaces      427—433
Electronic structure, reaction path techniques, minimum energy path calculations      400—401
Electronic structure, reaction path techniques, molecular potential energy surfaces (PES)      391—396
Electronic structure, reaction path techniques, overview      390—391
Electronic structure, reaction path techniques, steepest descent paths      397—400
Electronic structure, tight-binding molecular dynamics (TBMD), O(N), algorithms      683—689
Electronic structure, transition metal compounds, applications      371—382
Electronic structure, transition metal compounds, energy accuracy      337—345
Electronic structure, transition metal compounds, first-row transition metals      365—371
Electronic structure, transition metal compounds, future trends      383—384
Electronic structure, transition metal compounds, geometric calculations      345—348
Electronic structure, transition metal compounds, overview      333—336
Electronic structure, transition metal compounds, second-row transition metals      348—359
Electronic structure, transition metal compounds, third-row transition metals      359—365
Electronic temperature, tight-binding molecular dynamics (TBMD)      665—666
Elgersma, H.      422(161) 452
Elliot, J.P.      463(13) 646
Engberg, U.      207(115) 218
Engel, G.E.      33(103) 38
Engels, B.      221(4) 324
English, J.H.      331 379(93) 387
Epp, O.      65(56) 76
Equilibrium properties, centroid density-based formulation      141—162
Equilibrium properties, centroid density-based formulation, averaging formalism      153—157
Equilibrium properties, centroid density-based formulation, diagram renormalization      146—153
Equilibrium properties, centroid density-based formulation, diagrammatic representation      143—146
Equilibrium properties, centroid density-based formulation, phase-space perspective      157—160
Eriksson, L.A.      349(22) 355—356(34) 385
Ernstberger, B.      627(99) 648
Ethylene molecule, one-dimensional algebraic models, multiple oscillators      531—532
Euclidean time action functional, centroid density, diagrammatic representation      143—146
Euclidean time action functional, centroid density, renormalization of diagrams      151—153
Eurenius, K.P.      741(243) 756
Excitation energies, algebraic models, benzene dimer case study      627—631
Excitation energies, CASPT2/CASSCF techniques, biothiopene      273—276
Excitation energies, CASPT2/CASSCF techniques, biphenyl      270—271
Excitation energies, CASPT2/CASSCF techniques, electronic spectra of proteins      282—284
Excitation energies, CASPT2/CASSCF techniques, imidazole molecule      280—282
Excitation energies, CASPT2/CASSCF techniques, indole molecule      278—280
Excitation energies, CASPT2/CASSCF techniques, isoelectronic ligand field spectra      310—312
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