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Unertl W.N. — Physical Structure
Unertl W.N. — Physical Structure



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Íàçâàíèå: Physical Structure

Àâòîð: Unertl W.N.

Àííîòàöèÿ:

The primary goal of this book is to summarize the current level of accumulated knowledge about the physical structure of solid surfaces with emphasis on well-defined surfaces at the gas-solid and vacuum-solid interfaces. The intention is not only to provide a standard reference for practitioners, but also to provide a good starting point for scientists who are just entering the field. The presentation in most of the chapters therefore assumes that the typical reader will have a good undergraduate background in chemistry, physics, or materials science. At the same time, coverage is comprehensive and at a high technical level with emphasis on fundamental physical principles. This first volume in a new series is appropriately devoted to the physical structure of surfaces, knowledge of which will be essential for a complete understanding of electronic properties and dynamical processes, the topics of the next two volumes in the series.

The volume is divided into four parts. Part I describes the equilibrium properties of surfaces with emphasis on clean surfaces of bulk materials. Part II provides an introduction to some of the primary experimental methods that are used to determine surface crystal structures. Part III gives an overview of the vast topic of the structure of adsorbed layers. The concluding Part IV deals with the topics of defects in surface structures and phase transitions.


ßçûê: en

Ðóáðèêà: Ôèçèêà/

Ñòàòóñ ïðåäìåòíîãî óêàçàòåëÿ: Ãîòîâ óêàçàòåëü ñ íîìåðàìè ñòðàíèö

ed2k: ed2k stats

Ãîä èçäàíèÿ: 1996

Êîëè÷åñòâî ñòðàíèö: 900

Äîáàâëåíà â êàòàëîã: 14.11.2008

Îïåðàöèè: Ïîëîæèòü íà ïîëêó | Ñêîïèðîâàòü ññûëêó äëÿ ôîðóìà | Ñêîïèðîâàòü ID
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Ïðåäìåòíûé óêàçàòåëü
Kiakauer, H.      134 135 136 650 791 see G. “Roelofs L. “Singh D.” “Wimmer E.” “Yu R.”
Kikuta, S.      136 501 see T.”
Kilcoyne, A. L. D.      791 see A.
Kim, H. -Y.      649 see G.”
Kim, H. K.      571 575 711 792 see H.” “Zhang Q.
Kim, H. Y.      571 575 see D. “Vidali G.”
Kim, Y.      226 see T.”
Kim, Y. S.      645 see R.
Kimura, Y.      791 see A.”
Kinematic analysis      273
Kinematic approximation      287 322 659 678 687
Kinematic approximation in 3-d      274
Kinematic diffraction amplitude      733
Kinematic diffraction intensity      733 738
Kinematic model      326
Kinematic scattering      336 345
Kinematic scattering intensity      742
Kinematic scattering theory      557
Kinetic accessibility      261
kinetic energy      151
Kinetic limitations      187
Kinetic oscillations      428 435 441
Kinetic phenomena      772
Kinetics      141 162 163 656 704 788
King — Smith, R. D.      136 227 see I.” “Ramamoorthy M.”
King, D. A.      134 494 497 498 642 789 790 792 see S. “Barnes C. “Bowker M.” “Debe M. “Griffiths K.” “Hofmann P.” “Jupille J.” “Lamble G. “Lindroos M.” “Stensgaard I.”
Kingdon, K. H.      498 see I.”
Kingsbury, D. L.      572 see J.”
Kink coiner energies      83
Kink density      73 79 85 88 89
Kink energy      74 82 83 84 90 91 670
Kink formation energy      242 665 669
Kink sites      223
Kink-kink interactions      83 670
Kink-kink separation      93
Kinks      33 71 79 87 122 174 176 239 565 663 665 666 669 670
Kinks, thermal excitation of      85
Kinniburgh, CG      181 359
Kinoshita, T.      498
Kinosita, K.      181 see T.”
Kinzel, W.      645 646 648 see W.”
Kirkpatnck, S.      790 see J.
Kirschner, J.      419
Kiskinova, M.      495 498 see G.” “Comelli G.” “Dhanak V.
Kittaka, S.      572 see K.”
Kittel, C.      134 182 498 571 648 see M.
Kjaer, K.      571 568 see J.”
Kjems, J. K.      571 574 see H.”
Klapwijk, T. M.      497 see D.
Kleban, P.      710 788 790 see P.”
Kleban, P. H.      789 see D.
Klebanoff, L. E.      501 see J.
Klein, J.      98 see S.”
Klein, J. R.      646
Klein, M. L.      573 see C.” “Ruiz J.
Kleiner, J.      710 see Y.
Kleinle, G.      498 499 see H.”
Kleinman, L.      494 495 see I. “Bylander D.
Klemperer, O.      359
Klier, K.      498
Klimov, A.      225 see M.”
Klink, C.      499 790 see K.”
Klitsner, T.      265 267 see R.
Knife edge singularity      85
Knm, J.      570 571 572 see J. “Migone A. “Muirhead R.
Knorr, K.      569 571 574 575 see J. “Koort H. “Shirazi A. “Volkmann U. “Weimer W.”
Knotek, M. L.      226
Knozinger, H.      182
Kobayashi, K.      134
Koch, J.      496 see G.”
Koch, R.      496 498 see O.”
Koch, S. W.      567 571 see F.
Kochanski, G. P.      267 see
Kodiyalam, S.      97
Koel, B. E.      500 see L.”
Koestner, R. J.      136 498 501 see M.
Kogut, J. B.      646
Kohler, U.      710 see M.”
Kohn — Sham equation      108 109
Kohn — Sham method      151 152
Kohn — Sham self-consistent approach      609
Kohn, W.      134 181 182 497 498 646 see P.” “Lang N. “Lau K.
Koidesch, M.      496 see W.”
Koitan, A. R.      791 see L.
Koite, U.      500 see S.”
Kolaczkiewicz, J.      648 790 see J.
Kolasinski, K. W.      182 see G.
Koma, A.      226 see A.”
Komolov, S. A.      227 see P.
Kondo problem      638
Kono, S.      133 134 135 493 497 498 see T.” “Higashiyama K.” “Kinoshita T.”
Koort, H. J.      571
Koranda, S.      420 see J.”
Kordesch, M. E.      418 419 500 see A.” “Rotermund H.
Koriinga, J.      646
Kose, R.      500 see H.”
Kosierlitz, M.      571
Koster, G. F.      136 183 646 see J. “Slater J.
Kosterlitz — Thouless point      751
Kosterlitz — Thouless transition      747
Kosterlitz, J. M.      359 790
Kothar, B. G.      645 see B.
Kouteck, J.      646
Kramer, H. M.      571 575 see J.
Krans, R. L.      496 see J.
Kress, W.      180 see F. “Reiger R.”
Kreuzer, H. J.      98 647 see S.
Kriebel, D. L.      791 see L.
Krim, J.      568 see M.”
Krischer, K.      496 498 see M.”
Kroll, C.      226
Kronberg, M. L.      226
Kruger, P.      267 see E.”
Krypion/graphite      522
Krypton      516 520 545 558 563
Kubala, S.      496 see W.”
Kubby, J. A.      136 267 see P.”
Kubiak, G. D.      182 183 see E.
Kudo, M.      181 226 see T.”
Kuhk, A. J.      418 see N.
Kuhlenbeck, H.      225 see M.”
Kuhnemuth, R.      570 see J.”
Kuipers, L.      97
Kuk, Y.      646
Kumagai, Y.      498
Kumar, S.      710 see G.
Kumikov, V. K.      97
Kunkel, R.      710
Kunz, A. B.      182
Kuppers, J.      43 359 496 502 see G.” “Woratschek B.”
Kurtz, R. L.      226
Kvick, A.      183 see J.
L'Ecuyer, J.      419
Lackey, D.      790 see B.
Lad, R. J.      225 226 see M.
Ladas, S.      497 see R.”
Laegsgaard, E.      790 see C.”
LaFemina, J. P.      180 181 182 255 266 267 see D. “Gibson A.” “Godin T.
Lagally, M. G.      87 98 265 267 268 358 359 360 571 643 649 710 711 790 792 see C. “Barnes R. “Ching W. “de J. “Haneman D.” “Martin J. “Mo “Saloner D.” “Swartzentruber B. “Tnngides M. “Wang G. “Webb M. “Welkie D. “Wu P.
Lagerof, K. P. D.      226 see W.
Lahee, A. M.      134 498 710 789 see J. “Harten U.”
Lakhlifi, A.      571
Lam, D. J.      181 226 see J.” “Ellis D.
Lamben, R. M.      43 495 see C.
Lambert, R. M.      494 see M.
Lambert, W. R.      267
Lambeth, D. N.      789 see L.
Lamble, G. M.      498
Lamellar halides      532
Landau classification      746
Landau rules      723 766
Landau theory      747 798
Landau's first rule      724
Landau's second rule      723 724
Landau's third rule      724 765 766
Landau, D. P.      642 788 789 see K.”
Landau, L. D.      571 790
Landemark, E.      267
Lander, J. J.      135
Landman, U.      419
Landree, E.      418 see C.”
Landskron, H.      791 see J.
Lang, E.      359
Lang, N. D.      419 498 499 571 646 647 649 790 see C.” “Norskov J. “Williams A.
Lang, P.      643 see P.
Langdau expansion      722
Langell, M. A.      226
Langmuir adsorption model      65
Langmuir — Gurney model      461 464 466 483
Langmuir — Gurney picture      476
Langmuir, I.      498
Langreth, D. C.      135
Lanoo, M.      182
Lapeyre, G. J.      502 see H.”
Lapujoulade, J.      360 710 790 see H. “Villain J.”
Larese, J. Z.      568 571 570 572 see S.” see C.
Larher, Y.      57 572 574 see Y.” “Ser F.” “Teissier C.” “Terlain A.”
Larsen, P. K.      267 see B.
Larson B. E.      133 see K.
Larson, B. E.      790 see C.
Laser-induced diffusion      635
Late-time growth      777
Latent heat      534
Lateral disorder      674
Lateral force mode      376
Lateral interaction energy      555
Lateral interactions      580 584 617 626 627 631 634 635 638 641
Lateral length distribution      680
Lateral resolution of the STM      367
Lattice      655
Lattice constant      257
Lattice dynamics      557 634
Lattice family ot      6
Lattice gas      580 633 581 585 620 631 632 695
Lattice gas analogy      716
Lattice gas Hamiltonian      725
Lattice gas models      615 703 716 725 773
Lattice gas oider parameters      733
Lattice gas phase      728
Lattice gas system      803
Lattice gas transformation      730
Lattice line      16
Lattice liquid      620
Lattice liquid phase      728
lattice mismatch      41 290 516 567 697
Lattice planes      6
Lattice sites      79 581 678
Lattice, direction in a      6
Lau, K. H.      646 see W.”
Laue conditions      537
Laue for diffraction      279
Lauter, H. J.      569 570 571 572 574 575 792 see B.” “Cui J.” “Degenhardt D.” “Feile R.” “Freimuih H.” “Gay J. “Kjaer K.” “Madih K.” “Taub H.” “Tiby C.” “Wiechert H.”
Law, D. S. L.      227 see P. “Lindstrom J.”
layer groups      18
Layer spacings      326
Layer-by-layer growth      680 705—708
Layered perovskite      211
Lazneva, E. F.      227 495 496 497 790 see P. “Eierdal L.” “Feidenhans'I R.” “Jensen F.”
LCAO (linear combination of local orbital)      108 591 599
LDA (local density approximation)      107 109 112 115 116 117 122 628 640
Le Bosse, J. C.      646
Lead zirconate titinate ceramic      369
Leadbetter, A. J.      182
Leamy, H. J.      43
Lebehoi, A.      358 see R.”
Ledges      33
Lee, B. W.      227 267 see A.
Lee, K. B.      570 see C.
Lee, P. A.      568 see S.
Lee, T. D.      791
Lee, W. E.      226
LEED (low energy electron diffraction)      37 54 113 121 125—127 143 160 162 165 166 172 194 203—205 207 208 210 211 214 215 217—219 223 233 234 241 254 258 273 305 358 436—438 447 448 450 453 455—458 468 471—476 480 482 485 507 511 514 518 548 566 601 606 615 631 661 694 697 732 738 742 755 758 760 762 763 765
LEED (low energy electron diffraction) resolution      320
LEEM (low energy electron microscopy)      408 766
LEEM (low energy electron microscopy) contrast mechanisms in      408 409
LEEM (low energy electron microscopy) resolution in      409
LEEM (low energy electron microscopy) samples for      411
Left-handed coordinate system      28
Legendre transformations      57
LeGoues, F. K.      420 see R.
Lehmann, M. S.      184 see A.
Lehmpfuhl, G.      419 421 see N.”
Lehwald, S.      498 500 649 791 “Rahman T. “Voigtlander B.”
Leibsle, F. M.      227 267 498 499 710 see E. “Murray P. “Samsavar A.”
Leidheiser, Jr H.      498 see K.”
LEIS (low energy ion scattering)      194 396 399
Lelay, G.      135
Lemonmer, J. C.      358 see R.”
Lenc, M.      419 see I.”
Lenglart, P.      642 see G.”
Lennard — Jones      505
Lennard — Jones interaction      93
Lennard — Jones one-dimensional diagram      445
Lennard — Jones potentials      104 105 506 548 640
Lennard — Jones repulsion      583
Lenssinck, J. M.      97 see D.”
Lent, C. S.      359 see P.
Lenz      719
Lenz, J.      500 see E.”
LEPD (low energy positron diffraction)      143
Lerner, E.      568 571 573 see M.” “Knm J.” “Rapp R.
Lessor, D. L.      80 225 267 see D. “Horsky T.
Leung, W. Y.      568 see S.”
Level mixing      462
Levi, A. C.      359 see V.”
Levy, H. A.      358 see W.
Lewis, G. V.      182
Leynaud, M.      646
Li      111
Li and Na on Ru(0001)      469
Li, C. H.      498 see S.
Li, X. P.      135
Li, Y.      499 see P.
Li, Y. S.      645 see D.
Li, Z. G.      420 see D.
Li, Z. R.      568 572 see M. “Migone A.
Liang, K. S.      359
Liang, W. Y.      228 see W.”
Liang, Y.      182 226 225 see S.
Liao, D. K.      497 see I.
Liaw, H. P.      226
Liebau, F.      182
Liebeimann, R. C.      183 see S.”
Liebsch, A.      359 646
Lieske, N. P.      182
Liew, Y. F.      791
LiF(001)      352
Lifetime-broadening      462
Lifshitz criterion      724
Lifshitz, I. M.      791 790 see L.
Light domain walls      42
Lighthill, M. J.      646 791
Limitations to resolution      363
Lin, D. L.      650 see H.”
Lin, D. S.      267 see E.
Lin, M. E.      227 see H.”
Lin, X. F.      136 501 see K.
Lind, D. M.      227
Lindberg, P. A. P.      227
Linder, B.      646 see T.
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