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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
Molecular hydrodynamic theory (MHT), ionic conductivity limits, continuum models      402—407
Molecular hydrodynamic theory (MHT), microscopic solvation dynamics, Non-Markovian solvent inertia and underdamping      231—233
Molecular hydrodynamic theory (MHT), multipolar solvation dynamics      248—250
Molecular hydrodynamic theory (MHT), slow, viscous liquids, research using      302
Molecular hydrodynamic theory (MHT), solvation dynamics, cyclodextrin cavity      410
Molecular hydrodynamic theory (MHT), solvation dynamics, in water      264—265
Molecular hydrodynamic theory (MHT), solvation dynamics, in water, ion solvation experiments      269—277
Molecular hydrodynamic theory (MHT), Stockmayer liquid, ion solvation dynamics in      260—263
Molecular hydrodynamic theory (MHT), supercritical water (SCW), ion solvation      333—334
Molecular hydrodynamic theory (MHT), supercritical water (SCW), solubility and solvation dynamics      416—417
Molecular hydrodynamic theory (MHT), ultrafast polar solvation, continuum model of      328—329
Molecular pair correlation function, supercritical water analysis, neutron diffraction with isotope substitution (NDIS)      126—129
Molecular simulation techniques, supercritical water analysis      117—129
Molecular simulation techniques, supercritical water analysis, neutron diffraction with isotope substitution (NDIS)      121—129
Molomiets, I.      57(26) 108
Molony, J.V.      437(23) 503
Monohydroxy alcohols, ionic and dipolar solvation dynamics      277—301
Monohydroxy alcohols, ionic and dipolar solvation dynamics, dipolar solvation numerical results      290—292
Monohydroxy alcohols, ionic and dipolar solvation dynamics, ionic solvation numerical results      285—290
Monohydroxy alcohols, ionic and dipolar solvation dynamics, memory functions calculations      282—285
Monohydroxy alcohols, ionic and dipolar solvation dynamics, static correlation functions calculations      282
Monohydroxy alcohols, ionic and dipolar solvation dynamics, theoretical background      281—282
Monohydroxy alcohols, ionic and dipolar solvation dynamics, ultrafast component and      297—301
Monohydroxy alcohols, ionic conductivity limits      392—400
Monohydroxy alcohols, ionic conductivity limits, ethanol      396
Monohydroxy alcohols, ionic conductivity limits, methanol      394—396
Monohydroxy alcohols, ionic conductivity limits, propanol      396—398
Monohydroxy alcohols, ionic conductivity limits, static, orientational correlation functions      393
Monohydroxy alcohols, ionic conductivity limits, water-alcohol mixtures      416
Monohydroxy alcohols, ionic conductivity limits, wavenumber- and frequency- dependent solvent polarization relaxation rates      392—393
Monohydroxy alcohols, nonpolar solvation dynamics      292—297
Montague, D.G.      124(106) 158(106) 198
Montant, S.      93(157—158) 112
Monte Carlo simulations, supercritical water analysis, neutron diffraction with isotope substitution (NDIS)      127—129
Montroll, E.      211—213(4) 422
Moog, R.S.      259(210) 429
Moreau, M.      94(165—166) 112
Mori continued fraction expansion, dynamic structure factor for viscoelastic approximation      419—420
Mori continued fraction expansion, ultrafast solvation dynamics, dense liquid, nonpolar solvation in      339—340
Moro, G.      48(7) 85(7) 108
Morris, J.M.      220(78) 425
Morrison, G.      163(253) 202
Morrison, R.J.S.      220(78) 425
Morse potentials, supercritical water analysis, microscopic behavior      133—134
Morse potentials, vibrational phase relaxation (VPR), Kubo — Oxtoby theory      358—360
Mosekilde, E.      436(18) 447(100) 449(120—121) 456(100 120—121 148—149) 457(100 120—121 149) 463—467(120) 486(120) 488(120) 489(293) 493(100 120—121) 495(121 293 309) 498(293 309) 501(368) 503 505—507 511 513
Mosell, T.      90(150) 92(150—151) 112
Moses, T.      97(171) 112
Mosquera, J.      501(356) 512
Mountain, R.D.      119(69) 140(184) 148(69) 153(69 191) 196 200
Mouritsen, O.      70(92) 110
Mouritsen, O.G.      436(18) 503
Mueller, S.C.      438(29) 441(43) 499(43) 503—504
Mueller-Plathe, E.      129(128) 131(128) 140(128) 143(128) 198
Muenster, A.F.      446(93) 449(93 124—125 127) 450(93 124) 467(93) 471(124) 501(93 355) 505—506 512
Muenter, J.S.      269(234) 429
Mukamel, D.      480(261) 510
Mukamel, S.      211(3 18) 224(3 18) 228(144) 234(169) 264(169) 293(18) 422 427
Mulder, B.      59(33) 61(35 38) 63(52) 109
Mullin, T.      480(260) 510
Multiple time-step integration methods, supercritical water analysis, microscopic behavior      133
Multipolar solvation energy, molecular expression for      248—250
Multishell continuum model (MSCM), solvation dynamics, dieletric relaxation parameters      410
Munuzuri, A.P.      468(190) 501(356) 508 512
Muraki, D.J.      498—499(329) 512
Muratov,.B.      498(325 327—328) 499(328) 512
Muravski, A.      94(163) 95(163 167) 97(163) 112
Murchi, R.P.      119(81) 197
Murray, J.D.      436(12) 438(12) 454(12) 456(12) 465(12) 503
Myers, A.      362(295) 431
N-Methyl formamide (NMF), slow, viscous liquid solvation dynamics, Coumarin dynamics      305—313
N-Methyl formamide (NMF), slow, viscous liquid solvation dynamics, research background      302
Nagarjan, V.      217(53) 246(53) 277(53) 424
Nagasawa, Y.      214(32—33) 222(32—33) 246(32—33) 265(229) 275(229) 277—278(32—33) 289(32) 423 429
Nagumo, J.      458(157) 498(157) 507
Nakahara, M.      117(53—54) 119(73) 128(53—54) 196—197 329(274) 431
Nandi, N.      218(63) 231—232(163 163a) 242(163 163a) 245(163 163a) 246(63) 250(163 163a) 252(163 163a) 256(208) 267(163a) 274(63 163a) 277(63) 278(208) 313(208) 315(163 163a 208) 324(163 163a) 328(163 163a 208) 331(163) 336(208) 366(163 163a) 392(208) 410(63) 411(338) 412(342) 413(338 342) 414(208) 424 427—428 433
Narayan, R.      116(12) 195
Nardone, M.      123(105) 158(105) 198
Narten, A.H.      120(102) 158(102 211) 160(211) 197 201
Navard, P.      50(14) 108
Navier — Stokes equations, ionic conductivity limits, aqueous solutions      383—384
Navier — Stokes equations, ionic conductivity limits, continuum models      403
Navier — Stokes equations, molecular hydrodynamic theory, dipolar liquids      237—238
Neal, M.P.      67—68(71—72) 77(117) 109—111
Nearest-neighbor polarization vs. bulk polarization      298—301
Nearest-neighbor polarization, solute-solvent binary dynamics, ultrafast solvation, continuum model of      326—327
Nearest-neighbor polarization, supercritical water (SCW), slow long-time decay rate      333
Nee, T.W.      402(321) 432
Neel relaxation time, frequency-dependent longitudinal polarizability      26—27
Neel relaxation time, magnetic fluid frequency-dependent susceptibility      30
Neel, L.      26(36) 37
Nelson, D.R.      477(235) 496(235) 509
Nematic mean field calculations, liquid crystal molecules, atomistic molecular structure and orientational order      90—92
Nematic reentrance, molecular flexibility in liquid crystals and      79—80
Nemethy, G.      265(226) 272(226) 429
Nepomnyashchy, A.A.      447(113) 454(142) 466—467(170) 468(191) 469(170 199 203) 486(170) 500(191) 506—508
Neria, E.      233(167) 248(167) 260—261(167) 407(328) 427 432
Nernst — Einstein relation, ionic conductivity limits, monohydroxy alcohols      392—398
Nernst — Einstein relation, static orientational correlations      378—379
Neumann, D.B.      160(214) 201
Neutron diffraction scattering, supercritical water analysis, hydrogen bonding and      119—120
Neutron diffraction with isotope substitution (NDIS), supercritical water analysis      118—129
Neutron diffraction with isotope substitution (NDIS), supercritical water analysis, ab initio simulations      157—160
Neutron diffraction with isotope substitution (NDIS), supercritical water analysis, ambient conditions in microscopic models      142—143
Neutron diffraction with isotope substitution (NDIS), supercritical water analysis, high-temperature conditions in      143—144
Neutron diffraction with isotope substitution (NDIS), supercritical water analysis, hydrogen-hydrogen radial distribution functions      146—147
Neutron diffraction with isotope substitution (NDIS), supercritical water analysis, limits of      160—161
Neutron diffraction with isotope substitution (NDIS), supercritical water analysis, oxygen-hydrogen radial distribution functions      145—147
Neutron diffraction with isotope substitution (NDIS), supercritical water analysis, oxygen-oxygen radial distribution functions      144—145 147
Newell — White — Segel (NWS), two-dimensional spatial patterns      470—472
Newell, A.C.      437(23) 438(34) 450(34) 453(34) 469(34 197—198) 470(205) 471(34 218) 500(339) 503—504 508—509 512
Newman, K.E.      183(327) 204
Newville, M.      179(313) 204 332(278) 431
Nicklas, K.      84—85(136) 90(136 150) 111—112
Nicolis, G.      436(3 6) 438—439(3 6) 447(96—97) 453(6) 454(3) 456(147) 457(3 97) 467(3) 480(147) 503 505 507
Niedemostheide, F.-J.      439(37—38) 495(37) 485(281) 487(286) 495(37) 502(286) 504 510
Nielson, G.W.      118(60) 119(60 91) 120(60 98) 124(60 98) 125(60) 127—129(60) 143(60) 143(60) 153(60) 157(60) 158(60) 160(60) 179(316) 196—197 204
Niesar, U.      133(157) 199
Nieuwodt, J.C.      213(26) 227(26) 236—237(26) 248(26) 251(26) 335(26) 345—346(26) 360(26) 364(26) 367(26) 370(26) 372(26) 374(26) 404—405(26) 422
Nightingale, N.R.V.      412(341) 433
Ninham, B.W.      253—255(206) 265(206) 282(206) 304(206) 330(206) 368(206) 378(206) 385(206) 393(206) 399(206) 428k
Nito, K.      80(127) 111
Nitzan, A.      211(8) 233(167) 248(167) 260—261(167) 274(240) 276(242) 353(291) 374(240) 407(328) 422 427 429—432
Noble gas solutes, supercritical aqueous solutions, intermolecular potentials      165—173
Non-Markovian theory, microscopic solvation dynamics, solvent inertia and underdamping      230—233k
Nonadiabatic effect, two-dimensional spatial patterns, subcritical regimes      466—467
Nonassociated polar solvents, ion solvation dynamics      315—323
Nonassociated polar solvents, ion solvation dynamics, acetone dynamics      320—322
Nonassociated polar solvents, ion solvation dynamics, acetonitrile dynamics      318—320
Nonassociated polar solvents, ion solvation dynamics, dimethyl sulfoxide dynamics      322—323
Nonassociated polar solvents, ion solvation dynamics, ion-dipole direct correlation function      317
Nonassociated polar solvents, ion solvation dynamics, static orientational correlations      317—318
Nonelectrolyte systems, solvation thermodynamics      183—187
Nonexponentiality, slow, viscous liquid solvation dynamics      311—313
Nonlinear optical spectroscopy, dynamic response function and      417
Nonlinear root search technique, water solvation dynamics      271—272
Nonlinear root search technique, wavenumber-dependent orientational self-dynamic structure factor      260
Nonpolar liquid crystals, dielectric anisotropy      50—51
Nonpolar solvation dynamics, binary interaction, dense liquid ultrafast response      334—343
Nonpolar solvation dynamics, binary interaction, dense liquid ultrafast response, energy-energy correlation function      337—340
Nonpolar solvation dynamics, binary interaction, dense liquid ultrafast response, Gaussian time constant      342—343
Nonpolar solvation dynamics, binary interaction, dense liquid ultrafast response, mode-coupling theory (MCT)      338—340
Nonpolar solvation dynamics, binary interaction, dense liquid ultrafast response, solute-solvent two-particle binary dynamics      340—342
Nonpolar solvation dynamics, binary interaction, dense liquid ultrafast response, theoretical background      334—337
Nonpolar solvation dynamics, biphasic solvent response      221—222
Nonpolar solvation dynamics, electron transfer reactions      414
Nonpolar solvation dynamics, monohydroxy alcohols      292—297
Nonpolar solvation dynamics, supercritical water (SCW), slow long-time decay rate      332—333
Nonpolar solvation time correlation, function, monohydroxy alcohols, nonpolar solvation dynamics      294—297
Nonpolarizable water models, microscopic behavior of supercritical water      131
Nonpolarizable water models, supercritical water analysis, hydrogen-hydrogen radial distribution functions      146—147
Nonresonant absorption, step, aftereffect and pulse functions for      17—19
Noolandi, J.      479(248) 509
Nordio, P.      48(7) 85(7) 108
Nose, S.      138—139(180) 200
Noszticzius, Z.      441(44) 445(62 65 68) 446(68) 477(68) 480(68) 504—505
Novak, F.      87(143) 111
Nozaki, K.      471(217) 509
NPT Monte Carlo simulation, supercritical aqueous solutions, intermolecular potentials      170—173
Nuz, A.E.      469(191) 500(191) 508
Odd-even effect, liquid crystal molecule phase stability and      52—54
Oelkers, E.H.      163(252) 174(306) 202—203
Ohara, A.      43(4) 108
Ohmine, I.      264(215—216) 295(253) 342(286) 429—431
Ohta, T.      498(321—322) 499(321) 511
Ohtaki, H.      119(73) 126(111 115) 179(315) 181(315) 197—198 204
Okada, K.      117(56) 196 329—330(276) 431
Okamoto, Y.      160(234) 201
Okamura, T.      217(49) 246(49) 277(49) 424
Olbrich, H.      445(74) 505
Olender, R.      276(242) 430
Oncley, J.L.      412(343) 433
Ondris-Crawford, R.      97(170) 112
Onsager, L.      44(5) 108 216(45) 225(132) 228(132) 233(45) 277(45) 363(132) 365—366(301) 383(301) 394(301) 401(301) 424—425 431
Onsager’s model, liquid crystal molecule computer simulation      44—46
Onsager’s model, liquid crystal phase diagrams      61—62
Open spatial reactors, Turing pattern, experiments, gel and color indicator, role of      443—445
Optical heterodyne-detected Raman-induced Kerr effect spectroscopy (OHD-RIKES), dimethyl sulfoxide (DMSO) ion solvation dynamics      323
Optical Kerr effect (OKE), liquid crystal molecules, reorientational motion      93—97
Optical properties, liquid crystal molecules      49—51
Optimized potentials for liquid simulations (OPLS), supercritical aqueous solutions, intermolecular potentials      171—173
Or-Guil, M.      439(38) 504
Orban, M.      450(132) 506
Organized assemblies, dielectric relaxation and solvation dynamics in      409—414
Organometallic complexes, calamatic liquid crystal structure      48
Orientational correlation functions, slow, viscous liquids      303—304 311—313
Orientational degeneracy, pattern selection theory      454—455
Orientational order parameter, liquid crystal molecules      41—42
Orientational order parameter, liquid crystal molecules, atomistic molecular structure and      89—92
Orientational relaxation, slow, viscous liquids      303—304
Orlandi, S.      75(108) 110
Ornstein — Zemike (OZ) equation, Gay — Berne liquid crystal model      69—70
Ornstein — Zemike (OZ) equation, isotropic-nematic transition, thermotropic liquid crystals      42—43
Ornstein — Zemike (OZ) equation, supercritical aqueous solutions, solvation thermodynamics      183—187
Ortega, J.      156(207) 157(207—210) 200—201
Ortoleva, P.      498(317) 511
Orzalli, J.C.      116(36) 195
Osipov, G.V.      466(181) 508
Osipov, M.      75(107) 77(115) 110—111
Osipov, V.V.      437(26) 439(26) 498(26 318—319 325 328) 499(328) 503 511—512
Ostwald’s coefficient, supercritical aqueous solutions      163
Ostwald’s coefficient, supercritical aqueous solutions, intermolecular potentials      164—173
Otnes, K.      79—80(123) 111
Ouyang, Q.      441(46) 442(53) 445(53 62 67—68) 445(66) 446(53 67—68 89—91) 447(94) 450(129 131 138) 457(90) 463(91) 464(66) 466(91) 471(66 90—91) 472(89—90) 477(68 91) 480(68 90) 495(129 131) 498(129 131 138) 499(138) 501(374) 502(129) 504—507 513
Overtone dephasing, vibrational phase relaxation and (VPR), subquadratic quantum number dependence      362—363
Ovsipyan, A.      57(26) 108
Owen, B.B.      223—224(129) 363—365(129) 367(129) 378(129) 381(129) 397(129) 415(129) 426
Owrutsky, J.C.      335(280) 343(280) 431
Oxtoby, D.      211(6) 216(41) 222—223(119—122) 247(41) 335(119) 343(119 121) 353—354(119) 356(120—122) 357—359(120—122) 361(120—122) 367(119—122) 422—423 426
Oxygen-hydrogen radial distribution functions, microscopic behavior of supercritical water, hydrogen bonding      149—151
Oxygen-hydrogen radial distribution functions, supercritical water analysis      145—147
Oxygen-oxygen radial distribution functions, supercritical water analysis, microscopic behavior models      144—145
Ozaki, Y.      80(128) 111
O’Connell, J.P.      183(325 329) 185(325 329) 193(346) 204—205
Paap, H.-G.      447(111) 506
Pacault, A.      499(334) 512
Padro, J.A.      170(269—270) 175(308) 193(269) 202—203
Pairwise potential water models, microscopic behavior of supercritical water      131—132 135—141
Pal, H.      265(229) 275(229) 429
Palermo, V.      71(94) 110
Palmer, B.J.      179(314 317) 204 332(278) 431
Palmer, D.A.      117(48—49) 163(48) 173(48 295) 175—176(295) 196 203
Pampaloni, E.      445(76) 454(145) 469(76 204) 500(145 340) 505 507—508 512
Panagiotopoulos, A.Z.      130(129 132) 173(132) 198
Pannbacker, V.O.      445(88) 449(120—121) 456—457(88 120—121) 463—464(120) 465(88 120) 466(88 120) 467(120) 486(88 120) 488(120) 493(120—121) 495(121) 505—506
Papazyan, A.      213(27a) 215(36) 218(27a) 219(66) 230(27a 66) 246(27a 36 66) 247(196) 259(211) 277—278(27a 36 66) 279—281(66) 285(66) 287—288(66) 290—291(66) 293(66) 296—297(66) 298(36) 315(27a 66) 316—318(27a) 320(27a) 322(66) 335(66) 364(27a 66) 392(66) 414(66) 423—424 428—429
Papoular, M.      70(91) 110
Parametrization techniques, supercritical water analysis, microscopic behavior models      140—141
Parekh, N.      498(333) 512
Parke, S.      160(230) 201
Parker, A.      77(117) 111
Parr, R.G.      156(203 206) 200
Parrinello, M.      124(107—108) 154(107) 156(107—108 198—199 201) 158(107) 159(198) 160(199) 198 200
Parseval relation, fluctuation theory autocorrelation function      21
Paspek, S.C.      116(32) 195
Passino, S.      214(32—33) 222(32—33) 246(32—33) 277—278(3289—33) 289(32) 423
Passot, T.      438(34) 450(34) 453(34) 469(34 197) 471(34) 504 508
Pasterny, K.      75(111) 111
Patey, G.      76(112—113) 111
Patey, G.N.      76(112—113) 111 131(134) 183(328) 198 204 220(76) 228(145) 407—408(331) 425 427 432
Pattern selection theory, spatial patterns      450—456
Pattern selection theory, spatial patterns, degeneracies      453—455
Pattern selection theory, spatial patterns, reaction-diffusion models vs. amplitude equations      455—456
Pattern selection theory, spatial patterns, weakly nonlinear analysis      451—453
Payne, M.C.      102(186) 103(190) 113
Pdrez-Munuzuri, V.      468(190) 501(356) 508 512
Pearson, J.E.      439(36) 444(60—61) 480(60—61) 498(326 331) 504 512
Peck, D.G.      219(69) 329(69) 416(69) 424
Pecora, R.      93(155) 112 244(190) 428
Pelcovitz, R.      69(83) 110
Pelzyl, G.      50(13) 108
Pemg, B.C.      230(154 158) 247(154 158) 277(158) 278(154 158) 302(154 158) 315(154 158) 427
Penninger, J.M.L.      116(33) 195
Percus — Yevick equation, ultrafast solvation dynamics, dense liquid, nonpolar solvation in      339—340
Percus — Yevick equation, vibrational energy relaxation (VER), frequency-dependent friction calculation      346—349
Percus, J.K.      239(183) 240(186) 428
Perdew, J.P.      102(188) 113 156(205) 200
Perera, A.      94(165—166) 112
Perez, R.      157(208—209) 200—201
Perez-Garcia, C.      445(76) 466(182) 469(76 182 204) 471(182) 505 508
Perez-Villar, V.      468(190) 501(356) 508 512
Pergamenshchik, V.      69(81) 110
Periodic boundary conditions, electronic structure of liquid crystals      103
Periodic boundary conditions, two-dimensional spatial patterns      467—469
Perraud, J.-J.      445(64) 446(92) 447(64 92 98 118) 448(64 92 98) 449(92 98 118) 472(64 98) 477(64 92) 480(64 92 118) 485(64 92 98) 486(118) 487(64) 488(118) 493(64 92 98) 494(92) 498(334) 504—506 512
Pethig, R.      411—412(339—340) 433
Petrich, D.M.      498(320 329) 499(329) 511—512
Petrov, A.G.      50(13) 57(27) 108
Petrov, V.      490(294) 498(315) 499(294) 501(374) 511 513
Petrucci, S.      160(223) 201
Pettit, B.M.      133(164) 173(301) 199 203
Pfannkuch, F.      162(243) 202
Pfund, D.M.      179(312—313 317) 204 332(278) 431
Phase diagrams, hard-body liquid crystal models      61—62
Phase equations, three-dimensional pattern selection and, minimal surfaces      477—480
Phase equations, two-dimensional spatial patterns      469—472
Phase stability, liquid crystal molecules      51—54
Phase stability, liquid crystal molecules, dipolar forces      72—76
Phase stability, liquid crystal molecules, Gay — Berne model      65—68
Phase stability, liquid crystal molecules, material properties      61—63
Phenylbenzoates, liquid crystal electronic and optical properties      50—51
Philippou, G.      501(376) 513
Philips, L.A.      217(52) 246(52) 277(52) 424
Phillips, M.G.      118(59) 120(59) 159—160(59) 196
Phillpot, S.R.      164(258—259) 202
Photinos, D.      72(99) 74—75(103) 110
Pioseulle.      416(346) 433
Pismen, L.M.      445(73 78) 454(78) 469(199 203) 477(239) 495(302—303) 498(316) 502(377 386) 505 508—509 511 513
Pitchfork bifurcation, two-dimensional spatial patterns      459—464
Piterskaya, I.      229(146) 427
Pitzer, K.S.      117(46—47) 163(253—254) 196 202
Planck’s constant, supercritical aqueous solutions, kinetic rate constants, solvation effects on      188—192
Plane waves, electronic structure of liquid crystals      102—103
Podsiadly, R.      79(123—124) 80(123) 111
Point dipole polarizability models, supercritical water analysis, microscopic behavior      135—141
Poisson distribution, random telegraph signal correlation function      22
Poisson distribution, sinusoid phase changes, correlation function      22—23
Polar solvation dynamics, electron dynamics      221
Polar solvation dynamics, inhomogeneous continuum models      218
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