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Prigogine I. (ed.), Rice S.A. (ed.) — Advances in Chemical Physics. Volume 109
Prigogine I. (ed.), Rice S.A. (ed.) — Advances in Chemical Physics. Volume 109



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Íàçâàíèå: Advances in Chemical Physics. Volume 109

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

Àííîòàöèÿ:

Volume 109 in the prestigious Advances in Chemical Physics Series, edited by Nobel Prize winner Ilya Prigogine, and renowned authority Stuart A. Rice, continues to report recent advances in every area of the discipline. Significant, up-to-date chapters by internationally recognized researchers present comprehensive analyses of subjects of interest and encourage the expression of individual points of view. This approach to presenting an overview of a subject will both stimulate new research and serve as a personalized learning text for beginners in the field.


ßçûê: en

Ðóáðèêà: Ôèçèêà/

Ñòàòóñ ïðåäìåòíîãî óêàçàòåëÿ: Ãîòîâ óêàçàòåëü ñ íîìåðàìè ñòðàíèö

ed2k: ed2k stats

Ãîä èçäàíèÿ: 1999

Êîëè÷åñòâî ñòðàíèö: 582

Äîáàâëåíà â êàòàëîã: 22.12.2013

Îïåðàöèè: Ïîëîæèòü íà ïîëêó | Ñêîïèðîâàòü ññûëêó äëÿ ôîðóìà | Ñêîïèðîâàòü ID
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Ïðåäìåòíûé óêàçàòåëü
Dipolar solvation dynamics, monohydroxy alcohols, memory functions calculations      282—285
Dipolar solvation dynamics, monohydroxy alcohols, static correlation functions calculations      282
Dipolar solvation dynamics, monohydroxy alcohols, theoretical background      281—282
Dipolar solvation dynamics, monohydroxy alcohols, ultrafast component and      297—301
Dipolar solvation dynamics, theoretical background      212—213
DiPrima, R.C.      471(211) 508
Direct correlation function integrals (DCFI), supercritical aqueous solutions, solvation thermodynamics      185—187
Dissipative kernels, microscopic solvation dynamics, memory function technique      228
Dissipative kernels, microscopic solvation dynamics, relaxation rate calculation      256—257
Dissipative kernels, microscopic solvation dynamics, solvent translational modes      228
Dissipative kernels, molecular hydrodynamic theory, calculation of      242—246
Dissipative kernels, molecular hydrodynamic theory, dipolar liquids      238—239
Dissipative kernels, solvation dynamics in water, rotational dissipative kernel calculation      266—268
Dissipative kernels, solvation dynamics in water, translational dissipative kernel calculation      268
Dissipative kernels, solvation dynamics in water, wavenumber dependence      276—277
Dissipative kernels, ultrafast polar solvation, continuum model of, extended molecular hydrodynamic theory (EMHT) and      325—326
Distribution functions, microscopic solvation dynamics, Hamiltonian theory      229
Doane, J.      97(170) 112
Doelman, A.      498(332) 512
Doering, C.R.      501(365) 513
Dohmen, R.      439(37) 485(281) 487(286) 495(37) 502(286) 504 510
Dole, M.      416(347) 433
Dolnik, M.      500(345) 512
Dominguez-Lerma, M.A.      447(110) 506
Doolen, G.D.      469(195) 508
Doring, D.D.      332(277) 431
Draegert, D.A.      269(235) 429
Driesner, T.      170(268) 202
Drozd-Rzoska, A.      50(18) 51(18) 87(18) 90(18) 95(18) 108
Du, M.      213(27) 218(27) 230(27) 234(169) 245(169) 246(27) 264(27 169) 277—278(27) 315—318(27) 320(27) 364(27) 423 427
Ducasse, A.      93(157—158) 112
Duffet, V.      445(86—87) 447(104) 457(86—87 104) 463—464(86) 468(87) 469(86) 471(86) 477(104) 480(104) 497(86) 505—506
Dulos, E.      441(47—48) 445(48 63—64 69—70 72 80—81) 446(48 69—70 72 80—81 92) 447(47 64 69—70 81 92 98 118) 448(63—64 92) 449(48 92 98 118) 457(48 80) 463(48) 465(48) 466(80) 471(47—48) 472(48 64 69—70 72 98) 477(48 63—64 69—70 72 92) 480(48 63—64 69—70 92 118) 485(64 92) 486(98) 487(64) 488(118) 493(48 64 92 98) 494(48 69 92) 498(80) 501(48 63) 504—506
Dunmur, D.      50(15) 108
Dye molecule probes, dense liquid, nonpolar solvation in      341—343
Dye molecule probes, monohydroxy alcohols, ionic/dipolar solvation dynamics      279—281
Dye molecule probes, monohydroxy alcohols, nonpolar solvation dynamics      293—297
Dyke, T.R.      269(234) 429
Dynamic mean spherical approximation (DMSA) model, microscopic solvation dynamics      226—227
Dynamic mean spherical approximation (DMSA) model, slow, viscous liquid solvation dynamics, limits of      306—313
Dynamic mean spherical approximation (DMSA) model, Stockmayer liquid, ion solvation dynamics in      260—263
Dynamic response function, nonlinear optical spectroscopy and      417
D’Alessandro, G.      463(163) 507
Eagles, P.M.      447(106) 506
Earvolino, P.      222(98) 294(98) 334(98) 425
Eckert, C.A.      116(9) 188(339) 189(342) 191(339) 192(344) 194 204—205 219(67) 329(67) 424
Eckhaus instability, two-dimensional spatial patterns      471—472
Eckhaus, W.      471(210) 508
Economou, I.G.      131(136) 198
Edblom, E.C.      450(132—133) 506
Edelstein, D.E.      353(291) 431
Edwards, B.F.      501(361) 513
Edwards, J.T.      282(245) 430
Edwards, W.S.      454(144) 480(263) 489(263) 500(144) 507 510
Egorov, S.A.      353—355(293) 431
Ehsasi, M.      502(383) 513
Eigen, M.      174(307) 203
Eikelschulte, F.      94—95(163) 97(163) 112
Einstein frequency, dynamic structure factor calculations      419—420
Einstein frequency, rotational dissipative kernel, single particle limit      243—244
Einstein frequency, translational dissipative kernel calculation      246
Einstein frequency, vibrational energy relaxation (VER), microscopic expression for binary friction      347—349
Einstein relation, ionic conductivity limits, aqueous solutions      381
Einstein relation, ionic conductivity limits, electrolyte solutions      365 367—371
Einstein relation, ionic conductivity limits, electrolyte solutions, solvent translation friction      375—378
Einstein, A.      3(6) 36
Eisenberg, A.      478(245) 509
Eisenberg, D.      116(3) 135(3) 194 265(224) 269(224) 272(224) 429
Eisenthal, K.      220(81) 222(124) 265(228) 356(124) 425—426 429
Eiswirth, M.      501(357) 512
Elasticity, Gay — Berne liquid crystal model      68—70
Elasticity, liquid crystal structure and      55—59
Electric dipole moment, liquid crystal dielectric permitivitty      51
Electric dipole moment, Lorentz absorption and      6—7
Electrolyte solutions, ionic conductivity limits      363—380
Electrolyte solutions, ionic conductivity limits, dielectric friction calculations      371—374
Electrolyte solutions, ionic conductivity limits, local friction calculations      369—371
Electrolyte solutions, ionic conductivity limits, size dependence, dielectric friction      379—380
Electrolyte solutions, ionic conductivity limits, solvation dynamics and      379
Electrolyte solutions, ionic conductivity limits, static, orientational correlation functions      378—379
Electrolyte solutions, ionic conductivity limits, wavenumber- and frequency- dependent solvent polarization relaxation rates      374—378
Electrolyte solutions, solvation dynamics      407—408
Electron distribution, liquid crystal molecules      48—51
Electron solvation dynamics, biphasic solvent response      220—221
Electron transfer reactions, solvation dynamics in water, isotope effect      275
Electron transfer reactions, ultrafast nonpolar solvent response      414
Electronic structure of liquid crystals, intramolecular properties, approximation techniques      102
Electronic structure of liquid crystals, intramolecular properties, basis sets and boundary conditions      102—103
Electronic structure of liquid crystals, intramolecular properties, formulation of      101
Electronic structure of liquid crystals, intramolecular properties, mesogen and fragment results      103—104
Electronic structure of liquid crystals, shape-dependent properties      105—107
Elliott, D.C.      116(15) 195
Ellison, T.K.      192(344) 205
Elphick, C.      498—499(324) 512
Elston, S.      50(12) 108
Ely, J.F.      173(300) 203
Emelyanov, V.J.      439(41) 504
Emerson, A.      64(64) 70(89) 109—110
Emilsson, K.      466(179—180) 501(179—180) 508
Emsley, J.      67(68) 79(121) 109 111
Enderby, J.E.      119(91 94) 179(316) 197 204
Engel, H.      502(380) 513
Engel, W.      502(378 382) 513
Engelhardt, R.      495(307) 498(307) 511
Engstroem, S.      129—130(126) 133(126 150) 134(126) 135(150) 137(150) 139(150) 142(150) 153(126) 198—199
Enskog friction, ionic conductivity limits, electrolyte solutions, local friction calculation      370—371
Enskog friction, shear viscosity      421
EOE reaction, Turing pattern experiments      450
Epstein, I.R.      436(7) 438(7) 441(7 49—50) 442(49—50 54—56) 444(55 57—58) 447(95) 449(7 56 58 95122—123) 450(1329—133) 456(49 54 57 122—123) 458(58) 480(58) 500(345—346) 503—506 512
Equilibrium density functions, supercritical aqueous solutions, kinetic rate constants, solvation effects on      188—192
Ercolani, N.      469(197) 508
Erneux, T.      456(147) 480(147 270) 507 510
Ernsting, N.P.      219(65) 230(65) 246(65) 277—280(65) 285(65) 291(65) 295(65) 297(65) 320(269) 323(269) 335(284) 364(65) 392(65) 414(65) 424 430—431
Errington, J.R.      130(132) 173(132) 198
Ertl, G.      436—439(17) 467(183) 487(287) 502(17 378) 503 508 510 513
Ethanol, dipolar solvation, numerical results      291
Ethanol, ionic conductivity limits      396
Ethanol, ionic solvation, numerical results      287—288
Euler angles, microscopic behavior of supercritical water      131—132
Evangelista, L.      77(114) 111
Evans, D.F.      223(131) 363(131) 365—366(301) 381(131) 383(301) 384(131) 386—387(131) 394(131 301) 396—397(131) 401(301) 415(131) 426
Evans, G.T.      59(33) 62(48—49) 63(51 78) 69(49 78) 77(120) 109—111 222(109) 425
Evans, M.W.      131(137) 198
Everhart, C.M.      163(253) 202
Evilia, R.E.      116(14) 195
Evritt, K.E.      353—355(293) 431
Excluded volume models for liquid crystals, molecular flexibility in      81—82
Excluded volume models for liquid crystals, nonpolar classification of      59—61
Extended molecular hydrodynamic theory (EMHT), dipolar liquids, coupled equations      236—237
Extended molecular hydrodynamic theory (EMHT), slow, viscous liquids solvation dynamics      313
Extended molecular hydrodynamic theory (EMHT), ultrafast polar solvation, continuum model of      324—326
Eyring, H.J.      119(81) 197
Faber, T.      67(67) 109
Face-centered cubic (FCC) structure, three-dimensional pattern selection      473—476
Falcke, M.      502(380) 513
Falkenhagen, H.      407(330) 432
Falta, J.      438—439(30) 503
Faltermeier, B.      223(125) 356(125) 426
Famulari, A.      133(158) 199
Fannin, P.C.      2(3) 30(3) 36
Faraday instability, spatial patterns and      500—502
Fasone, S.      53(20) 108
Fauve, S.      454(144) 466(175) 487(175) 500(144) 507—508
Fava, C.      68(76) 110
Fayer, M.      92(153) 94(160 162) 112
Fee, R.S.      215(38a) 246—247(38a 194) 277(38a) 301(257) 305(261) 307(261) 313(261) 423 428 430
Femtosecond pump-probe spectroscopy, electron solvation dynamics      221
Femtosecond teraHertz (fs-THz) pulse spectroscopy, monohydroxy alcohols solvation dynamics, memory functions      284—285
Femtosecond teraHertz (fs-THz) pulse spectroscopy, nonassociated polar solvation dynamics      316—317
Femtosecond teraHertz (fs-THz) pulse spectroscopy, solvation dynamics in water, rotational dissipative kernel calculations      268
Ferrarini, A.      48(7) 85(7) 108
Ferrario, M.      174(307) 203
Ferrocyanide-iodate-sulfite (FIS) reaction, bistable spatial patterns      495—498
Ferrocyanide-iodate-sulfite (FIS) reaction, Gaspar — Showalter model      498—499
Ferrocyanide-iodate-sulfite (FIS) reaction, Turing pattern experiments      450
Ferromagnetic resonance, Landau/Lifshitz theory      10—16
Feuss, H.      104(192) 113
Feynman, R.      102(189) 113
Fidler, V.      409(335) 432
Field, M.J.      172(293) 203
Field, R.J.      441(42) 449(126 128) 499(42) 504 506
Fillipov, S.      57(26) 108
Finite difference Levenberg — Marquardt algorithm, wavenumber-dependent orientational self-dynamic structure factor      260
Finney, J.L.      119(93) 197
Firth, W.J.      463(162—163) 495(306) 507 511
Fisher, M.R.      117—118(55) 120(55) 154(55) 196
FitzHugh — Nagumo model, bistable spatial patterns, morphologic instabilities      498—499
FitzHugh — Nagumo model, bistable spatial patterns, zero mode      495—498
Fitzhugh, R.      458(156) 498(156) 507
Fixed, spherical, single-domain particle, zero-frequency polarizabilities      23—26
Fixman, M.      335(281) 343(281) 431
Flanagin, L.W.      171(283) 203
Fleming, G.R.      211(1 13) 212(1) 213(27 27a) 214(1) 217(54) 218(27 27a 62) 224(1 13) 230(27 27a) 234(168) 245(168) 246(1 13 27 27a) 264(27 27a 168) 277—278(27 27a) 315—318(27 27a) 320(27 27a) 364(27 27a) 409(335) 417(351) 422—424 427 429—430 432—433
Fleming, G.W.      220(77—78) 229(150) 234(168) 245(168) 264(168) 315—316(150) 425 427
Flexible geometry models, supercritical water analysis, microscopic behavior      133
Flexoelectricity properties, liquid crystal elasticity and velocity      57—59
Flicker, M.      438(28) 503
Flip-flop spatial pattern, steady-Hopf mode interactions, bistability      487—488
Flores, F.      157(208—209) 200—201
Flory, P.      50(14) 108
Fluctuation theory, basic relations in      19—21
Fluctuation theory, frequency-dependent magnetic resonance      17—19
Fluctuation theory, Kubo relation      21
Fluctuation theory, random telegraph signal correlation function      21—22
Fluctuation theory, sinusoid phase changes, correlation function      22—23
Fluctuation-dissipation theorem, autocorrelation function, spontaneous fluctuations      20—21
Flynn, K.M.      495(304) 497(304) 511
Flytzanis, C.      94(161) 112
Fois, E.S.      124(107) 154(107) 156(107) 158(107) 198
Fonseca, T.      219(73) 424
Force-force time correlation function (FFTCF), ionic conductivity limits, concentration dependence      415
Force-force time correlation function (FFTCF), ionic conductivity limits, electrolyte solutions      368—371
Force-force time correlation function (FFTCF), vibrational energy relaxation (VER) and      344—345
Force-force time correlation function (FFTCF), vibrational energy relaxation (VER) and, mode-coupling theory calculation, binary friction, microscopic expression of      347—349
Force-force time correlation function (FFTCF), vibrational phase relaxation and (VPR), mode-coupling theory calculation      360—362
Forester, T.      97(174) 99(174) 112
Fourier transforms, dipolar liquids, molecular hydrodynamics      241—242
Fourier transforms, electronic structure of liquid crystals      102—103
Fourier transforms, fluctuation theory autocorrelation function      20—21
Fourier transforms, frequency-dependent magnetic resonance, pulse response      17—19
Fourier transforms, microscopic polarization, wavenumber-dependent direct correlation functions      254—255
Fourier transforms, supercritical aqueous solutions, solvation thermodynamics      185—187
Fourier transforms, supercritical water analysis, neutron diffraction with isotope substitution (NDIS)      122—129
Fourier transforms, vibrational phase relaxation (VPR), Kubo — Oxtoby theory      357—360
Fourkas, J.T.      222(95 100 103) 294(95 100 103) 334(95 100 103) 425
Fragile liquids, behavioral characteristics of      301—302
Francisco, J.S.      116(7) 187—188(7) 194
Franck — Condon factor, polar solvation dynamics, solvent time correlation function      214—216
Franck, E.U.      116(9 24 28—31) 119(83) 126(83) 194—195 197
Frank elastic constant, liquid crystal hard sphere model      63—64
Frank, H.S.      223(130) 363—365(130) 367(130) 378(130) 381(130) 397(130) 415(130) 426
Frank, O.      502(383) 513
Frankland, S.J.V.      222(104) 294—295(104) 425
Franks, F.      116(2) 194 265(223) 269(223) 272(223) 429
Fredholm alternative, pattern selection theory, weakly nonlinear analysis      453
Frediani, D.      447(116) 506
Fredrickson, G.H.      497(314) 511
Free energy functions, ionic conductivity limits, electrolyte solutions, dielectric friction calculation      372—374
Free energy functions, molecular hydrodynamic theory, dipolar liquids      239—242
Free energy functions, multipolar solvation dynamics      248—250
Freeman, G.R.      265(227) 429
Frenkel, D.      59(33) 61(35—40 42) 62(43 46—47) 63(52) 66(40) 73(42) 109
Frequency-dependent dielectric function, ionic conductivity limits, aqueous solutions, calculation of      384—388
Frequency-dependent dielectric function, ionic conductivity limits, aqueous solutions, solvent polarization relaxation rate calculation      374—378
Frequency-dependent dielectric function, ionic conductivity limits, electrolyte solutions, solvent, polarization relaxation rate calculations      373—374
Frequency-dependent dielectric function, ionic conductivity limits, electrolyte solutions, solvent, polarization relaxation rate calculations, monohydroxy alcohols, solvent polarization relaxation rate calculations      373—374
Frequency-dependent dielectric function, ionic conductivity limits, ion solvation dynamics, supercritical water (SCW)      330
Frequency-dependent dielectric function, ionic conductivity limits, microscopic polarization, relaxation rate calculation      256—257
Frequency-dependent dielectric function, ionic conductivity limits, Stockmayer liquid, ion solvation dynamics in      261—263
Frequency-dependent dielectric function, ionic conductivity limits, water solvation dynamics, rotational dissipative kernel calculations      266—268
Frequency-dependent friction, vibrational energy relaxation (VER) and calculation of      345—349
Frequency-dependent friction, vibrational energy relaxation (VER) and calculation of, microscopic expression, binary friction      346—349
Frequency-dependent polarizability, longitudinal polarizability, fixed, spherical, single-domain particle      26—27
Frequency-dependent polarizability, magnetic fluids, calculations for      28—30
Frequency-dependent polarizability, transverse polarizability, fixed, spherical, single-domain particle      27—28
Frescura, F.A.M.      265—266(221) 276(221) 429
Freysz, E.      93(157—158) 112
Fried, L.E.      228(144) 427
Friedman, H.L.      230(153—158) 247(153—158) 256(1557) 258(153) 277(156—158) 278(153—158) 282(157) 302(153—158) 315(153—158) 317(157) 378(157) 385(157) 393(157) 427
Friedrich, R.      501(364) 513
Froelich, H.      5(11—12) 8(11—12) 19(12) 35(12) 36
Frohlich, H.      303(259) 305(259) 430
Frost, J.      88(144) 111
Fujimura, K.      489(290) 511
Full width at half maxima (FWHM), vibrational phase relaxation (VPR) and      356—357
Fulton, J.L.      179(312—314 317) 204 332(278) 431
Fumi, F.G.      173(302—303) 203
Fung, B.      86(141—142) 92(141—142) 111
G+E (geometric/energetic) criterion, supercritical water analysis, hydrogen bonding      153—156
Gadzhiev, A.Z.      320(270) 430
Galbiati, E.      89(146) 111
Gallagher, J.S.      116(4) 130(4) 163(4) 172(4) 194
Galli, G.      156(201) 200
Galobardes, J.E.      163(250) 202
Galt, J.K.      12(19) 36
Gandolfo, C.      53(20) 108
Gao, J.      170(271—272) 202
Gaponov-Grekhov, A.V.      466(181) 508
Garcia-Vidal, F.J.      157(208—209) 200—201
Gardecki, J.A.      219(66) 222(104) 230(66) 246(66) 277—281(66) 285(66) 287—288(66) 290—291(66) 293(66) 294—295(104) 296—297(66) 315(66) 322(66) 335(66) 364(66) 392(66) 414(66) 424—425
Garg, S.K.      284(247) 288(247) 430
Gas solubility data, supercritical aqueous solutions      162—163
Gas solubility data, supercritical aqueous solutions, intermolecular potentials      164—173
Gas-liquid critical points, vibrational phase relaxation and (VPR)      363
Gaskell, T.      402(322) 405(322) 432
Gaspar, V.      450(134—135) 458(134—135) 498(135) 506
Gauche-trans conformations, atomistic liquid crystal molecules      90—92
Gaudet, G.G.      116(16) 163(16) 195
Gauduel, Y.      220(80 82—83) 246(192) 263(80) 265(82) 274(82) 424 428
Gaussian decay, ionic solvation dynamics, methanol      285—287
Gaussian decay, solvation dynamics, electrolyte solutions      407—408
Gaussian decay, Stockmayer liquid, ion solvation dynamics in      261—263
Gaussian decay, ultrafast polar solvation      219
Gaussian decay, vibrational phase relaxation (VPR), Kubo — Oxtoby theory      359—360
Gaussian decay, water solvation dynamics      265
Gaussian decay, water solvation dynamics, intermolecular vibrations (IMV)      274
Gaussian functions, dense liquid, nonpolar solvation in      340—343
Gaussian functions, electronic structure of liquid crystals      102—103
Gaussian functions, supercritical water analysis, neutron diffraction with isotope substitution (NDIS)      126—129
Gaussian functions, vibrational energy relaxation (VER) and, binary friction, microscopic expression of      348—349
Gay — Berne liquid crystal model, anisotropic attractive interactions      63—65
Gay — Berne liquid crystal model, atomistic molecular structure and orientational order      90—92
Gay — Berne liquid crystal model, bulk material properties      68—70
Gay — Berne liquid crystal model, dipolar forces      74—76
Gay — Berne liquid crystal model, molecular flexibility      82—85
Gay — Berne liquid crystal model, phase behavior in      65—68
Gay — Berne liquid crystal model, quadrupolar forces      77—78
Gay — Berne liquid crystal model, reorientational motion      94—97
Gay — Berne liquid crystal model, translational diffusion      87—89
Gay, J.      64—65(56) 109
Gayathri, N.      211(17) 213(23a) 223(23a) 356—360(23a) 362(23a) 414(17) 422—423
Geiger, A.      79(125) 95(125) 94(163) 95(163 167—168) 97(163) 111—112 155(195 197) 200
Gel properties in Turing pattern experiments      443—445
Gel properties, three-dimensional pattern selection and      477—480
Generalized Langevin equation (GLE), vibrational energy relaxation (VER) and      344—345
Genericity, Turing — Hopf interactions      491—492
Geometric parameters, ab initio simulations of supercritical water      156—160
Geometric parameters, supercritical water, hydrogen bonding and      119—129
Georgievskii, Y.      313(264) 325—328(264) 430
Georis, P.      480(258) 495(258) 510
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