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Gaspard P. (ed.), Burghardt I. (ed.) — Advances in CHEMICAL PHYSICS. Volume 101: Chemical Reactions and Their Control on the Femtosecond Time Scale XXth Solvay Conference on Chemistry
Gaspard P. (ed.), Burghardt I. (ed.) — Advances in CHEMICAL PHYSICS. Volume 101: Chemical Reactions and Their Control on the Femtosecond Time Scale XXth Solvay Conference on Chemistry



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Íàçâàíèå: Advances in CHEMICAL PHYSICS. Volume 101: Chemical Reactions and Their Control on the Femtosecond Time Scale XXth Solvay Conference on Chemistry

Àâòîðû: Gaspard P. (ed.), Burghardt I. (ed.)

Àííîòàöèÿ:

Continuing the tradition of the Advances in Chemical Physics series, Volume 101: Chemical Reactions and Their Control on the Femtosecond Time Scale details the extraordinary findings reported at the XXth Solvay Conference on Chemistry, held at the Universit? Libre de Bruxelles, Belgium, from November 28 to December 2, 1995. This new volume discusses the remarkable opportunities afforded by the femtosecond laser, focusing on the host of phenomena this laser has made it possible to observe. Examining molecules on the intrinsic time scale of their vibrations as well as their dissociative motions and electronic excitations represents only part of a broadened scientific window made possible by the femtosecond laser.

The assembled studies, with follow-up discussions, reflect the many specialties and perspectives of the Conference's 65 participants as well as their optimism concerning the breadth of scientific discovery now open to them. The studies shed light on the laser's enhanced technical reach in the area of coherent control of chemical reactions as well as of more general quantum systems. The theoretical fundamentals of femto-chemistry, the unique behavior of the femtosecond laser, and a view toward future technological applications were also discussed:

  • Femtochemistry: chemical reaction dynamics and their control
  • Coherent control with femtosecond laser pulses
  • Femtosecond chemical dynamics in condensed phases
  • Control of quantum many-body dynamics
  • Experimental observation of laser control
  • Solvent dynamics and RRKM theory of clusters
  • High-resolution spectroscopy and intramolecular dynamics
  • Molecular Rydberg states and ZEKE spectroscopy
  • Transition-state spectroscopy and photodissociation
  • Quantum and semiclassical theories of chemical reaction rates.

A fascinating and informative status report on the cutting-edge chemical research made possible by the femtosecond laser, Chemical Reactions and Their Control on the Femtosecond Time Scale is an indispensable volume for professionals and students alike.

The femtosecond laser and chemistry's extraordinary new frontier of molecular motions observed on the scale of a quadrillionth of a second.

Research chemists have only tapped the surface of the spectacular reach and precision of the femtosecond laser, a technology that has allowed them to observe the dynamics of molecules on the intrinsic time scale of their vibrations, dissociative motions, and electronic excitations. Volume 101 in the Advances in Chemical Physics series, Chemical Reactions and Their Control on the Femtosecond Time Scale details their extraordinary findings, presented at the XXth Solvay Conference on Chemistry, in Brussels.

The studies reflect the work, in part, of the Conference's 65 participants, including many prominent contributors. Together they shed light on the laser's enhanced technical range in the area of coherent control of chemical reactions as well as of more general quantum systems. The theoretical fundamentals of femtochemistry, the unique behavior of the femtosecond laser, and a view toward future technological applications were also discussed.

An exceptionally up-to-date examination of the chemical analyses made possible by the femtosecond laser, Chemical Reactions and Their Control on the Femtosecond Time Scale is an important reference for professionals and students interested in enhancing their research capabilities with this remarkable tool.

From 1993 to 1996, she worked with Dr. P. Gaspard at the Universit? Libre de Bruxelles, Belgium, on the application of new semiclassical techniques to elementary chemical reaction processes.



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Ðóáðèêà: Ôèçèêà/

Ñòàòóñ ïðåäìåòíîãî óêàçàòåëÿ: Ãîòîâ óêàçàòåëü ñ íîìåðàìè ñòðàíèö

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Ãîä èçäàíèÿ: 1997

Êîëè÷åñòâî ñòðàíèö: 945

Äîáàâëåíà â êàòàëîã: 11.07.2014

Îïåðàöèè: Ïîëîæèòü íà ïîëêó | Ñêîïèðîâàòü ññûëêó äëÿ ôîðóìà | Ñêîïèðîâàòü ID
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Ïðåäìåòíûé óêàçàòåëü
Wavepacket on potential-energy surface domains      457—458
Wavepacket, autocorrelation function      324—325
Wavepacket, coherence control      14—18
Wavepacket, control      382
Wavepacket, dispersive spreading      209
Wavepacket, excited-state potential-energy surface      216—217
Wavepacket, fast Fourier transform propagation techniques      200—201
Wavepacket, initial, Gaussian distribution in energy      522
Wavepacket, initial, Wigner function      521
Wavepacket, motion      146—147
Wavepacket, motion, in dissociation and barrier reactions      25
Wavepacket, multiple-pulse preparation      16—17
Wavepacket, phase and amplitude imaging      see "Phase and amplitude imaging"
Wavepacket, pump-probe spectroscopy      355—358
Wavepacket, spreading      93—94
Wavepacket, symmetric-stretch, spectral decomposition      598—599
Wavepacket, transfer      207—208
Weaver, M.J.      394(28) 399(28) 402
Weber, Th.      413(22) 415(28—29) 416(31 37) 417(29) 418(37 41) 428(22) 431(65) 435(22) 440—441
Wefers, M.M.      59(32) 76 176(50) 180
Weichselbauer, G.      812(3) 812
Weide, K.      768(62) 785
Weidele, H.      626(33) 646
Weidenmann, E.      55(19) 76
Weidenmuller, H.A.      393(16) 402
Weigert, S.      510(54) 529(54) 577 601
Weiner, A.M.      59(29—30) 76 346(2) 362(2) 370
Weinfurter, H.      321(14) 322
Weinkauf, R.      626(22) 645
Weiss, Ch.      823(18) 847
Weiss, U.      328(10) 339—340(10) 341
Weiss, V.      55(19) 63(41) 76 78(1) 79 90(2) 90 135(8) 137 217(17) 229(17) 230(17) 271
Welge, K.H.      493(11) 510(11) 576
Wemer, H.-J.      747(34) 748(17) 749(17 20) 750(20) 751(17 32—34) 752(32—33) 753—754(32 34) 756(32) 758(34) 760(34) 761(32—33) 763(33) 764(32) 765(32 56) 766(32) 767(32 56) 768—771(17) 772(34) 774(34) 784
Wendoloski, J.J.      731(6) 741
Wendt, H.R.      731(5) 733(5) 741
Wentzel — Kramers — Brillouin condition      503
Western, C.M.      668(9) 697
Westervelt, R.A.      348(20) 371
Weston, T.      596(1) 598
Weyl — Wigner transforms, quantum operators      499
Wheeler, J.A.      382(6) 385
Whetten, R.      117(12) 131
Whetten, R.L.      68(50) 72(50—51 53) 73(53) 77 133(3) 135(3) 135 203(8) 204 433(72) 437(72) 441
White, A.M.      412(15) 440
Whitnell, R.      317(6) 322
Whitnell, R.M.      18(15) 41 43 59(35) 76 235(28—31) 245(28) 265(28—31) 271 273(1) 274(8) 274 275(1) 275—276 286(2) 292 302(5) 312 328(7) 339(7) 341 346(6) 370
Wickham, A.G.      820(4) 847
Wiebrecht, J.W.      782(77) 785
Wiebusch, G.      493(11) 510(11) 576
Wiedemann, E.      63(41) 76
Wiersma, D.A.      4(6) 43 178(52) 180 348(19 371
Wiesenfeld, J.M.      433(71) 441
Wieters, W.      835(22) 847
Wiggins, S.      548(145) 581
Wigner distribution      352 355
Wigner distribution, spacing      517
Wigner function      360—361 382 385 504
Wigner function, initial wavepacket      521
Wigner transforms, eigenfunctions      508
Wigner wavepacket      345—370 see "Window
Wigner wavepacket in phase space      353—355
Wigner wavepacket, correlation function expression, spontaneous light emission      347—353
Wigner wavepacket, extension to heterodyne-detected four-wave mixing      358—359
Wigner wavepacket, Green function      363
Wigner wavepacket, optical polarization      362—364
Wigner wavepacket, pump-probe spectroscopy      355—358
Wigner, E.P.      538—539(133) 580
Wilkie, J.      388 518(86) 578
Willberg, D.M.      41
Willets      870
Willetts, A.      496(18) 576
Williamson, J.      320(12) 322
Williamson, J.C.      41—42 86(1) 86 185(2) 191(2) 191
Wilson, D.J.      596(2) 598(2) 598
Wilson, K.      317(6) 322
Wilson, K.R.      18(15) 41 43 59(34—35) 76 218(25) 235(28—32) 236(32) 245(28) 265(25 28—32) 267(25) 271 273(1) 274(8) 274 275(1) 275 276(2) 276 286(2) 292 302(5) 312 328(7) 341 346(6—7) 370 393(8) 399(8) 401
Window wavepackets, phase-space, fluorescence      368—369
Window wavepackets, phase-space, pump-probe signals      369—370
Winkler, S.      597(3) 598
Winn, J.S.      465(8) 467(8) 488(8) 490
Winterstetter, M.      201(12) 202 868(10) 869
Wintgen, D.      504(40) 521(106) 570(40) 577 579
Wittenmark, B.      319(9) 322
Wittig, C.      86(2) 87
Witzel, A.      339(35) 343
Wodtke, A.M.      737—738(18) 741
Woermer, M.      339(36) 343
Woeste, L.      4(2) 18(2) 43 68(50) 72(50—51 53) 73(53) 77 79(8—9) 80 86(2) 87 102(1—2) 103(1 5) 104—106(7) 114—115(9) 117(12—13) 118(13) 121(19) 122(2 20) 124—125(22) 126(23) 128—129(23) 131 132(2) 133(3—4 7) 134(4) 135(2—4) 135 136(4) 137 185(1) 191(1) 191 196(1) 196 197(1) 200(6) 201 202(1—2) 203(4—5 7—8) 203—204 657(1) 657 874(2) 886
Wolf, E.      189(10) 191 346(14) 371
Wolf, J.P.      68(50) 72(50 53) 73(53) 77 102(1—2) 103(1) 121(19) 122(2 20) 131 132(2) 135(2) 135 203(7) 203—204
Wolf, S.      114—115(9) 131 657(1) 657
Wolfram, J.      884(11) 886
Wolynes, P.G.      173(46) 180 393(13) 402 642(59) 646
Wong, S.M.      505(44) 577
Wong, S.S.M.      772(67) 785
Wong, V.      360(25) 371
Wong, W.A.      835(23) 847
Woody, A.      215(7) 218(7) 227(7) 270 274(3) 275 281(3) 281 328(8) 339(8) 341 373(2) 373
Worth, G.A.      201(9) 201—202 868(7) 868—869
Wright, J.S.      341(25) 342
Wright, T.G.      619(24) 623
Wu, H.      382(5) 385
Wu, L.-A.      382(5) 385
Wullert, J.R.      59(29) 76
Wunner, G.      519(91) 579
Wunsch, L.      414(23) 440
Wurz, P.      626(24) 645
Wyatt, R.E.      855(8) 867
Xantheas, S.S.      732(13) 737(13) 741
Xavier, Jr., I.M.      304(13) 312
Xie, J.      674(31) 697
Xie, X.      394(31) 403
Xie, X.L.      142(3) 145(3) 173(3) 179
Xie, Y.      216(13) 270 286(5) 292
Xu, H.      668(10) 697
Ya Zel'dovitch, B.      286(8) 292
Yakolev, V.V.      18(15) 43 59(34—35) 76 235(30) 265(30) 271 273(1) 274(8) 274 275(1) 275—276 302(5) 312 346(6—7) 370
Yamaguchi, M.      734(17) 739(20) 741—742
Yamanouchi, K.      465(1) 467(1) 490 642—643(60) 646 715 791(7 9—11) 792(9—10) 794(7) 794(16) 795(10) 796—797
Yamashita, K.      484(13) 490 747(34) 751(34) 752(38) 753—754(34) 758(34) 760(34) 769(38) 772(34) 784 786(34) 791—792(10) 795(10) 797
Yan, Y.      18(15) 41 43 59(35) 76 273(1) 274 286(2) 292 302(5) 312 317(6) 322 328(7) 339(7) 341 346(6) 370
Yan, Y.J.      235(28—30 32) 236(32) 245(28) 265(28—30 32) 271 274(8) 275(1) 275 276(2) 276 328(7) 339(7) 341 357(24) 371 394(35 37) 403
Yan, Y.Y.      235(31) 265(31) 271
Yang, T.-S.      348(22) 371
Yartsev, A.P.      394(29) 399(29) 402 878(8) 884(11) 886
Yeretzian, C.      610—611(5) 623 626(29) 646
Yin, Y-Y.      57(22 24) 76 286(4 9 12) 292
Yokoyama, A.      737(19) 742
Yoshihara, K.      394(29) 399(29) 402 794(14a 14b) 797
Yoshino, K.      705(13) 707(13) 708
Yu, J.-Y.      146(20) 164(37) 166(37) 168(37) 169(39) 171(39) 172—175(37) 179—180
Yu, S.      704(12) 708
Yue, K.T.      405(1—2) 405—406
Yukawa, T.      519(90) 579
Yushin, Y.      382(8 11 14) 385
Zachariasen, F.      512(59) 578
Zadoyan, R.      146(21) 179 373(7) 374
Zaidi, H.R.      382(13 15) 385
Zakrzewski — Delande curvature distributions      519
Zakrzewski, J.      519(96 98) 542(142) 579—580
Zare, R.N.      626(12) 629(12) 634(12) 644(12) 645 668(10 12) 669(23) 674(31) 681(12) 686(12) 691(47) 697 803(13) 806
Zeglinski, D.M.      395(43) 399(43) 403
Zeigler, L.D.      346(4) 370
ZEKE spectroscopy      80 82 607—622 667—696
ZEKE spectroscopy, aims of      663
ZEKE spectroscopy, compared with, photoelectron spectroscopy      616—619
ZEKE spectroscopy, compared with, photoionization efficiency      608—611
ZEKE spectroscopy, compared with, total ion signal      619—620
ZEKE spectroscopy, excited ionic core      630—631
ZEKE spectroscopy, extraction pulse      671
ZEKE spectroscopy, field ionization behavior      670
ZEKE spectroscopy, ground-state neutral systems      610—611 613
ZEKE spectroscopy, high Rydberg electron      647
ZEKE spectroscopy, high Rydberg state      626 632
ZEKE spectroscopy, high Rydberg state, lifetime distribution      656—657
ZEKE spectroscopy, historical development leading to      607—608 659—662
ZEKE spectroscopy, inverse Born — Oppenheimer zero-order basis      650
ZEKE spectroscopy, ion-molecule reactions      678—681
ZEKE spectroscopy, ion-molecule reactions, $H_{2}^{+} + H_{2}$      678—679
ZEKE spectroscopy, ion-molecule reactions, collision-energy resolution      679—680
ZEKE spectroscopy, ion-molecule reactions, Rydberg state perturbation      680—681
ZEKE spectroscopy, ion-molecule reactions, transmission effects      680
ZEKE spectroscopy, laser system      671—672
ZEKE spectroscopy, lifetimes      659
ZEKE spectroscopy, long decay times, origin      643
ZEKE spectroscopy, mass-selected anion spectrum      619 622
ZEKE spectroscopy, molecular systems studied      610 612
ZEKE spectroscopy, MQDT approach      647 650
ZEKE spectroscopy, new sequential technique      657
ZEKE spectroscopy, peaks      647
ZEKE spectroscopy, Rydberg level structure      723
ZEKE spectroscopy, Rydberg state lifetimes      681—683
ZEKE spectroscopy, spectral resolution      607
ZEKE spectroscopy, state-selected ion preparation, carbon monoxide      672—675
ZEKE spectroscopy, state-selected ion preparation, hydrogen      672
ZEKE spectroscopy, state-selected ion preparation, nitric oxide      676—678
ZEKE spectroscopy, state-selected ion preparation, nitrogen      675—676
ZEKE spectroscopy, state-selected ion-molecule reactions      669—672
ZEKE spectroscopy, stationary      658
ZEKE spectroscopy, time-resolved      628—629 652
ZEKE spectroscopy, types of systems studied      614
ZEKE states      701—702
Zelditch, S.      505(45) 577
Zeller, G.      519(91) 579
Zero electron kinetic energy spectroscopy      see "ZEKE spectroscopy"
Zero ion kinetic energy spectroscopy      662
Zerza et al.      716
Zerza, G.      664(1) 664 712(8—9) 715
Zeta function      502—504
Zeta function, classical      513—514
Zeta function, inverse Ruelle      560
Zeta function, periodic regime      555
Zeta function, product over periodic      558
Zeta function, semiclassical quantization      571
Zewail, A.H.      4(5 7 10—11) 12(13—14) 14(5 7) 15(14) 22(5) 25—26(5) 34(5) 37(5 7) 39(7 11 14) 39—40 52(16) 56(20) 65(44) 76—77 85(1) 85 86(1) 86—87 90(1 3 6) 90 185(2) 191(2) 191 195 203(9) 204 302(1) 304(13) 312 320(12) 322 328(10) 339—340(10) 341 373(7) 374 391(1) 399(47) 400—401(1) 401—404 412(12) 439 492(1) 522(115) 525—526(115) 561(151) 566(151) 575 579 581 789(1) 796 799(1—2) 800(1) 806 892
Zhang, D.H.      86(2) 87
Zhang, H.      250—251(57) 272
Zhang, J.      274(10) 275 286(15) 292 327(1) 339(1) 341 373(6) 374
Zhang, J.-S.      393(16) 402
Zhang, J.Z.H.      86(2) 87
Zhang, X.      626(8) 629(8) 634(8) 645 668(8 17) 669(17) 681(17) 692(17) 697
Zhao — Rice reduction scheme      264—265
Zhao, M.      218(24) 249—250(55) 262(24 72) 271—272
Zhao, X.      737(19) 742
Zhao, Y.      668(5) 697
Zhong, D.      41—42
Zhu, J.J.      394(24) 402
Zhu, L.      57(26) 76 216(14—16) 223(15) 225(15) 270—271 286(6 13) 292 328(4) 339(4) 341 434(76) 441 668—669(4) 697 841(30) 841(28) 847 848
Ziegler, L.D.      172(44) 180 394(31) 403
Zimmermann, T.      493(5) 518(5) 528(5) 537(5) 540(5) 575 772(65) 785
Zitserman, V.Yu.      394(21) 402
Zittel, P.F.      327(3) 339(3) 341
Zobay, O.      565(155) 570(155) 581
Zoller, P.      320(11) 322
Zubairy, M.S.      382(7) 385
Zusman, L.D.      393(12) 402
Zwanziger, J.      133(3) 135(3) 135 203(8) 204
Zwanzinger, J.      72(51) 77 117(12) 131
Zyczkowski, K.      517(79) 519(96) 578—579
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