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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
Polar solvation dynamics, microscopic approach to, dipolar solvation dynamics      253—254
Polar solvation dynamics, microscopic approach to, dynamic structure factor calculations      257—260
Polar solvation dynamics, microscopic approach to, ion solvation dynamics      250—253
Polar solvation dynamics, microscopic approach to, multipolar molecular expression      248—250
Polar solvation dynamics, microscopic approach to, relaxation rate calculations      256—257
Polar solvation dynamics, microscopic approach to, Stockmayer liquid model      260—263
Polar solvation dynamics, microscopic approach to, theoretical background      246—248
Polar solvation dynamics, microscopic approach to, wavenumber-dependent correlation functions      254—256
Polar solvation dynamics, nonassociated polar solvents      315—323
Polar solvation dynamics, nonassociated polar solvents, acetone dynamics      320—322
Polar solvation dynamics, nonassociated polar solvents, acetonitrile dynamics      318—320
Polar solvation dynamics, nonassociated polar solvents, dimethyl sulfoxide dynamics      322—323
Polar solvation dynamics, nonassociated polar solvents, ion-dipole direct correlation function      317
Polar solvation dynamics, nonassociated polar solvents, static orientational correlations      317—318
Polar solvation dynamics, solvation time correlation function      213—216
Polar solvation dynamics, solvation time correlation function, continuum models      216
Polar solvation dynamics, supercritical water experiments      219
Polar solvation dynamics, supercritical water experiments, ion solvation dynamics      330—332
Polar solvation dynamics, time-dependent fluorescence Stokes shift (TDFSS) experiments      217—218
Polar solvation dynamics, ultrafast experiments      218—219
Polarity parameter, solvation dynamics in water, calculation of      268
Polarizability effects, intermolecular vibrations (IVB), water solvation dynamics      272—273
Polarizability effects, liquid crystal molecule phase stability and      53—54
Polarizability effects, molecular flexibility in liquid crystals and      80
Polarizable models, supercritical water analysis, microscopic behavior      135—141
Polarizable models, supercritical water analysis, oxygen-oxygen radial distribution functsion      144—145 147
Polarizable point charge (PPC) model, supercritical water analysis, microscopic behavior      138—141
Polarized relaxation rate, microscopic polarization, calculation of      256—257
Pollak, E.      211(9) 422
Polyacrylamide-methylene blue-sulfide-oxygen (PA-MBO) system, Turing pattern experiments      449—450
Polymorphism, in liquid crystals      54—55
Pomeau, Y.      402(323) 432 447(108) 466(168 177) 486(168) 487(177) 500(339) 506—508 512
Pommeret, S.      220(82—83) 265(82) 274(82) 425
Ponce Dawson, S.      469(195) 498(331) 501(366) 508 512—513
Ponti, S.      77(114) 111
Poon, W.C.-K.      59(32) 79(126) 109 111
Pople, J.A.      156(202) 165(202) 200
Porter, T.L.      171(286) 203
Pospisil, R.      436(10) 503
Postma, J.P.M.      120(100) 131(100) 133(167) 171(100) 197 199
Postorino, P.      118(60) 119(60 96) 120(60 97—98) 123(105) 124(60 98) 125(60 97) 127—129(60) 143(60) 143(60) 153(60) 157(60) 158(60 105) 160(60) 196—198
Potential of mean force (PMF) calculations, ion speciation, high-temperature electrolyte solutions      173—177
Potential of mean force (PMF) calculations, supercritical aqueous solutions, intermolecular potentials      170—173
Prange, M.P.      447(116) 506
Pratt, L.R.      140(183) 200
Prausnitz, J.M.      132(138) 199
Pray, H.A.      116(27) 195
Pretransitional properties, isotropic-nematic transition, thermotropic liquid crystals      42—43
Prewitt, C.T.      225(131a) 363(131a) 397(316) 426 432
Prezdo, O.V.      220(90) 425
Price, C.G.      475(225) 497(225 314) 509 511
Price, T.J.      480(260) 510
Prigogine, I.      436(2—3) 438(3) 439(2—3) 454(3) 457(3 153) 467(3) 503 507
Prini, R.F.      219(67) 329(67) 424
Propanol, dipolar solvation, numerical results      291—292
Propanol, ionic solvation, numerical results      288—289
Proton chemical shift, supercritical water analysis, neutron diffraction with isotope substitution (NDIS)      127—129
Protz, R.      223(125) 356(125) 426
Pseudocrystalline networks, propanol ionic solvation      288—289
Pseudopotential approximation, electronic structure of liquid crystals      102
Pu, F.Y.      79(126) 111
Puhovski, Y.P.      220(76) 425
Pulse response, frequency-dependent magnetic resonance      16—19
Pumir, A.      484(277) 510
Purwins, H.-G.      439(37—38) 463(165—166) 480(265) 485(281) 487(286) 488(265) 495(37) 502(286) 504 507 510
Pusztai, L.      127(117) 160(213) 198 201
Qi, S.      479(247) 509
Qteish, A.      102(186) 113
Quadrupolar forces, liquid crystal molecules      77—78
Quantum mechanics, electron solvation dynamics      220—221
Quantum mechanics, vibrational energy relaxation (VER) and, high frequency response      353—355
Quantum number dependence, vibrational phase relaxation (VPR)      356—357
Quantum number dependence, vibrational phase relaxation (VPR), Kubo — Oxtoby theory      359—360
Quantum number dependence, vibrational phase relaxation and (VPR), overtone dephasing, subquadratic dependence      362—363
Quasielastic neutron scattering (QENS) liquid crystal hard sphere model      63—64
Quasielastic neutron scattering (QENS), molecular flexibility in liquid crystals and      79—80
Quint, J.R.      117(40—41) 171(41 287) 179(41) 181(40—41 287) 187(40 287) 196 203
Quist, A.S.      173(294) 203
Rabai, G.      441(50) 442(50 54) 456(50 54) 504
Rabinovich, M.I.      466(181) 469(200 202) 496(311) 508 511
Radehaus, C.      439(37) 495(37) 504
Radial distribution functions (RDFS), liquid crystal molecular models, translational diffusion      87—89
Radial distribution functions (RDFS), supercritical aqueous solutions, intermolecular potentials      165—173
Radial distribution functions (RDFS), supercritical water analysis, neutron diffraction with isotope substitution (NDIS)      122—129
Radnai, T.      126(111 115) 179(315) 181(315) 198 204
Raftery, D.      335(280) 343(280) 431
Rahman, A.      119(66—67) 129—132(124) 133(153) 134(124 169) 153(66) 155(195) 173(124) 196 198—200 264(217) 429
Raikher, Yu.L.      24(33—34) 37
Raimondi, M.      133(158) 199
Raineri, F.O.      230(153—158) 247(153—158) 256(157) 258(153) 265(157) 277(155—158) 278(153—158) 282(157) 302(154—158) 315(154—158) 317(157) 378(157) 385(157) 393(157) 427
Raman scattering, intermolecular vibrations (IVB), water solvation dynamics      272—273
Raman spectroscopy, liquid crystal molecules, reorientational motion      93—97
Raman spectroscopy, molecular flexibility in liquid crystals and      79—80
Ramaswamy, S.      373(313) 432
Ramazza, P.L.      454(145) 500(145 340) 507 512
Ramp geometry, Turing pattern experiments      446—447
Random telegraph signal, correlation function for      21—22
Random telegraph signal, frequency-dependent longitudinal polarizability      26—27
Rao, C.N.R.      116(5) 118(5) 194
Rapini — Popualar coefficients, Gay — Berne liquid crystal model      70—71
Rapini,A.      70(91) 110
Rasaiah, J.C.      249(199) 400(317—318) 415(317—318) 428 432
Rashidar, R.      54(25) 108
Rashin, A.A.      171(285) 203
Rasmussen, K.E.      489(293) 495(293 309) 498(293 309) 511
Ravi Kumar, V.      498(333) 512
Ravi-Shanker, G.      118(57) 119(57) 130(57) 196
Ravichandran, S.      94(165—166) 112 232(165—166) 242(165—166) 246(166) 259(165—166) 303(165—166) 375(166) 378(166) 427
Rayleigh — Benard instability, spatial patterns      436
Rayleigh — Benard instability, spatial patterns, future research issues      500—502
Rayleigh — Benard instability, wavelength function      437—438
Re, M.      217(71) 329—334(71) 424
Re-engineered SPC water model (RSPC), supercritical water analysis, ambient conditions      139—142
Re-engineered SPC water model (RSPC), supercritical water analysis, high-temperature conditions      143—144
Reaction-diffusion media, pattern selection theory, vs. amplitude equations      455—456
Reaction-diffusion media, spatial patterns      441—450
Reaction-diffusion media, spatial patterns, gel and color indicator      442—445
Reaction-diffusion media, spatial patterns, new systems for      449—450
Reaction-diffusion media, spatial patterns, ramp and dimensionality parameters      446—447
Reaction-diffusion media, spatial patterns, three-dimensional patterns      447
Reaction-diffusion media, spatial patterns, Turing — Hopf interaction      447—449
Reaction-diffusion media, spatial patterns, two-dimensional patterns      445—446
Reaction-diffusion media, Turing instability, research background      436—441
Reaction-diffusion media, Turing patterns      456—458
Reddy, A.K.N.      181(319) 204 223—224(127) 363—365(127) 367(127) 369(309) 378(127) 381(127) 397(127) 415(217) 426 432
Refson, K.      102—103(184) 113
Rehberg, I.      480(259) 500(352) 510 512
Reid, R.C.      116(13) 195
Reiling, S.      92(151) 112
Renardy, Y.      489(290) 511
Renn, S.R.      477(237) 509
Renon, H.      163(247) 202
Renormalized hypernetted chain (RHNC), microscopic solvation dynamics, Kerr approximation      228—229
Reorientational motion, liquid crystal molecules      92—97
Repulsive solute behavior, supercritical aqueous solutions, intermolecular potentials      166—173
Resat, H.      230(154 156—158) 247(154 156—158) 256(157) 265(157) 277(156—158) 278(154 156—158) 282(157) 302(154 156—158) 315(154 156—158) 317(157) 378(157) 385(157) 393(157) 427
Resch, P.      449(127) 506
Resibois, P.      402(323) 432
Residori, S.      454(145) 500(145 340) 507 512
Resonance absorption, comparison of absorption techniques      8—10
Resonance absorption, comparison of functions      31—34
Resonance absorption, forms for type II resonance equations      34—35
Resonance absorption, Lorentz (type I) absorption      6—7
Resonance absorption, three-dimensional pattern selection      474—476
Resonance absorption, two-dimensional spatial patterns, bifurcation diagrams      460—464
Resonance absorption, Van Vleck — Weisskopf — Frolich (type II) absorption      8
Reverse Monte Carlo (RMC) simulation, supercritical water analysis, hydrogen bonding      155—156
Rey, R.      170(269) 175(308) 193(269 345) 202—203 205 223(126) 353(126) 426
Reynolds, A.E.      438—439(31) 503
Reynolds, L.      222(104) 294—295(104) 425
Reynolds, W.N.      498(331) 512
Rica, S.      469(201) 508
Ricci, M.A.      118(60) 119(60 76 96) 120(60 97—98) 123(105) 124(60 98) 125(60 97) 127—129(60) 143(60) 143(60) 153(60) 154(76) 155(76 194) 157(60) 158(60 76 105) 159(76) 160(60 76) 196—198 200
Rice, J.E.      177(311) 204
Rice, S.A.      119(65) 148(65) 196 239(180) 428
Richardson, R.      88(144) 111
Richert, M.      217(48) 246(48) 277(48) 301(257) 424 430K
Rick, S.W.      133(152) 135(152) 199
Rickman, J.M.      164(258—259) 202
Riecke, H.      447(111) 506
Riess, J.G.      162(242) 202
Rigid water models, supercritical water analysis, microscopic behavior      129—134
Rincon, R.      157(209) 201
Ripoll, D.R.      442(51) 504
Rips, I.      220—221(79) 226(138—139) 227(138) 253—254(139) 258(139) 281(138) 305(138) 424 426
Robbins, R.J.      220(78) 425
Roberts, J.E.      140(185) 200
Robinson, A.      170(270) 202
Robinson, G.W.      133(156) 135(156) 199 220(77—78) 425
Robinson, R.A.      160(220) 201 223(130) 363—365(130) 367(130) 378(130) 381(130) 397(130) 415(130) 426
Robinson, W.      53(22) 108
Rocca, D.      119(75 88) 197
Rode, B.M.      220(76) 425
Rodger, P.M.      160(218) 201
Roessler, O.E.      485(282) 510
Rogers, L.B.      163(250) 202
Roncone, P.      89(145) 111
Rose, H.      501(354) 512
Rose, K.C.      502(382) 513
Rosensweig, R.E.      2(1) 36
Rosenthal, S.J.      213(27 27a) 218(27 27a) 230(27 27a) 234(168) 245(168) 246(27 27a) 264(27 27a 168) 277—278(27 27a) 315—318(27 27a) 320(27 27a) 364(27 27a) 409(335) 423 427 432
Roskilly, S.J.      48(9) 108
Ross, J.      438(28—29) 441(43) 498(317) 499(43 338) 503—504 511—512
Rossky, P.J.      171(281—283) 172(288—290) 173(301) 203 211(14) 214(14) 220(86—90) 221(88) 224(14) 226(136) 246(14 192) 251(14) 274(88) 276(87—88) 390(89) 417(350) 422 425—426 428 433
Rotational diffusion models, liquid crystal molecules, reorientational motion      93—97
Rotational dissipative kernel, molecular hydrodynamic theory, calculation of      242—246
Rotational dissipative kernel, molecular hydrodynamic theory, collective limit      244—246
Rotational dissipative kernel, molecular hydrodynamic theory, single particle limit      243—244
Rotational dissipative kernel, solvation dynamics in water, calculations for      266—268
Rotational friction kernels, ionic conductivity limits, aqueous solutions      385—386
Rotational friction kernels, ionic conductivity limits, concentration dependence      415
Rotational friction kernels, ionic conductivity limits, monohydroxy alcohols      392—393
Rotational memory kernel, ion solvation dynamics, supercritical water (SCW)      330
Rotational memory kernel, nonassociated polar solvation dynamics      317
Rotational memory kernel, slow, viscous liquid solvation dynamics      305—313
Rotermund, H.-H.      467(183) 487(286) 502(286 378) 508 510 513
Roth, K.      119(83) 126(83) 197
Rothschild, W.      93(156) 112
Roux, J.C.      441(46) 479(249) 504 509
Rovere, M.      123(105) 158(105) 198
Rovinsky, A.      484(280) 500(346) 501(371—372) 510 512—513
Roy, S.      211(16) 231(159—163) 232(159—163 165) 242(159—163 165) 245(159—163) 247(197) 250(159—163) 252(159—163) 253(204) 256(159 162 207) 259(165) 262—263(197) 267(162—163) 268(232) 272(160) 274(160 163) 278(197 204) 280(159—162) 292(162) 298(197) 303(165) 313(232) 315(159—163) 316(159 232) 318—319(159) 324(159—163 232) 328(159—163) 331(161 163) 366(159—163) 371(310) 373—374(310) 383(310) 392(310) 400(310) 405(310) 422 427—429 431
RPOL polarizable water model, microscopic behavior of supercritical water, hydrogen bonding      153—156
Rubinstein, B.Y.      495(302—303) 511
Rudovics, B.      445(69—71) 446(69—71 92 447(69—71 92 98) 448(92) 449(69—70 92 98) 472(69—70 98) 477(69—70 92) 480(69—70 92) 485(92) 486(98) 493(92 98) 494(69 92) 505
Ruggiero, A.J.      217(51) 246(51) 277(51) 424
Rull, L.      63(55) 65(55 60) 66(55) 69(82) 85(55) 109—110
Rullierie, C.      216(46) 217(58—59) 246(46 58—59) 277(46 58—59) 424
Rullman, J.A.C.      133(149) 135(149) 139(149) 199
Ruocco, G.      138—139(179) 200
Rupley, J.A.      411—412(339) 433
Russel, D.J.      335(280) 343(280) 431
Ruthmann, J.      219(65) 230(65) 246(65) 277—280(65) 285(65) 291(65) 295(65) 297(65) 335(284) 364(65) 392(65) 414(65) 424 431
Ryckaert — Bellemans torsional potential, liquid crystal molecular flexibility, Gay — Berne liquid crystal model      85
Ryckaert, J.      85(138) 111
Rzoska, S.      50(18) 51(18) 87(18) 90(18) 95(18) 108
Saha, M.      79(122) 111
Saha, S.      79(122) 111
Saito, S.      295(253) 430
Sakaguchi, H.      471(208 221) 472(221) 484(275) 508—510
Sakai, K.      93(159) 112
Sakurai, S.      476(226) 509
Sambles, R.      50(12) 108
Sampoli, M.      133(142) 135(173) 138—139(179) 140(173) 142(173) 199—200
Samson, A.M.      495(300) 511
Samson, B.A.      495(300) 500(341) 511—512
San Miguel, M.      495(298) 511
Sanders, J.K.M.      127(118) 198
Sangalli, M.      484(279) 510
Sankey, O.F.      156(207) 157(207 210) 200—201
Sariban, A.      90(150) 92(150) 112
Sarkar, N.      411(336—337) 432
Sarman, S.      68(75) 69(84—85) 70(86) 110
Sasa, S.      471(209) 508
Sasaki, Y.      501(362) 513
Satnoianu, R.      501(373) 513
Satoh, K.      74(104—105) 110
Sattler, C.      501(354) 512
Sauron, A.      68—69(79) 110
Savage, P.E.      116(21) 119(71) 129—130(127) 133(166) 134(168) 142(127) 153(71 192) 195 197—200
Saven, J.G.      222(107—108) 294(107—108) 327(107—108) 336—338(108) 340—341(108) 349(108) 425
Saxena, S.K.      165(264—265) 202
Scaife, B.K.P.      10(16) 16(16) 19—21(16) 23(16) 36
Sceats, M.G.      119(65) 148(65) 196
Scheiner, S.      118(63) 196
Scheraga, H.      265(226) 272(226) 429
Scherer, N.F.      234(168—169) 245(168—169) 264(169) 427
Scherk minimal surface, three-dimensional pattern selection and      477—480
Schichman, S.A.      211(7) 422
Schlueter, M.      102(187) 103(191) 113
Schmidt, L.D.      501(375) 513
Schmidt, R.      119(78) 197
Schmitz, R.      500(353) 512
Schmuttenmaer, C.A.      264(218) 266(218) 268(218) 270(218) 280(218) 283—284(218) 286—287(218) 316—317(268) 319—320(268) 429—430
Schnackenberg model, Turing pattern analysis      457
Schnackenberg model, two-dimensional spatial patterns, long-wavelength instabilities and phase equations      469—472
Schnackenberg model, two-dimensional spatial patterns, re-entrant hexagons      464—465
Schnackenberg, J.      457(150) 464(150) 507
Schneider, F.W.      449(125 127) 499(338) 506 512
Schnitker, J.      140(185) 200
Schnoy, N.      162(243) 202
Schoell, E.      437(20) 439(20) 480(266) 490(266 278 295) 491(278) 495(295) 503 510—511
Schonhofer, A.S.      85(139—140) 111
Schotte, W.      163(248) 202
Schreiber, H.      121—123(104) 148(104) 198 170(278) 203
Schuler, K.E.      211—213(4) 422
Schultz, W.W.      102—103(181) 112
Schulz, F.      501(376) 513
Schuss, Z.      211(8) 422
Schuth, F.      501(375) 513
Schwartz, B.J.      220(86—90) 221(88) 274(88) 276(87—88) 390(89) 425
Schwarz surface, three-dimensional pattern selection and      478—480
Schweickert, C.E.      116(27) 195
Sciortino, F.      135(171) 199
Scott, S.K.      438(33) 458(158) 498(315) 501(373) 504 507 511 513
Scriven, L.E.      436(11) 503
Scroggie, A.J.      463(162) 495(306) 507 511
Sear, R.      48(10) 108
Sears, P.G.      395(315) 397(315) 432
Seddon, J.M.      48(9) 108
Sedlbauer, J.      193(347) 205
Segel, L.A.      470(206) 508
Selbmann, C.      50(13) 108
Self-consistent point dipole polarizability (SCPDP) model, supercritical water analysis, microscopic behavior      137—141
Self-dynamic structure factor, correlation function calculations      418—419
Self-dynamic structure factor, microscopic polarization      258—260
Self-dynamic structure factor, vibrational energy relaxation (VER), frequency-dependent friction calculation      346—349
Self-motion, dipolar solvation dynamics      253—254
Self-motion, ion solvation dynamics      250—253
Self-motion, ionic conductivity limits, continuum models      402
Self-motion, polar solvation dynamics      247—248
Self-motion, self-dynamic structure factor calculations      418—419
Sengers, J.V.      160(214) 201
Sengupta, A.      94(160 162) 112
Serrano, J.      48(8) 108
Seul, M.      437(25) 503
Seuver, A.-M.      160(228) 201
Severtsev, A.V.      498(319) 511
Seward, T.M.      116(31) 195
Sham, L.      101(179) 103(191) 112—113
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