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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
Lindgren, S. A.      498
Lindhard, J.      419
Lindner, H.      499 see W.”
Lindner, Th      497 see K.”
Lindroos, M.      494 496 498 500 see C. “Fisher D.” see H.”
Lindsley, D. H.      227
Lindstrom, J.      227
Lindstrom, J. B.      227 see P.
Line tension      84
Linear bridge sites      21
Linear chains      482
Linear combination of local orbital      see “LCAO”
Linear sites      580
Linear transformation      27
Linear-combination of atomic orbitals      see “SCF LCAO”
Linke, U.      98 see D.”
Lippel, P. H.      136 180 see K. “Woll Ch.”
Lipson, H.      359
Liquid phase      726
Liquid-gas critical point      727
Liquid-like structures      469
Littleton, M. J.      182 see N.
Litzinger, J. A.      568 572 see D.
Liu, C. L.      97
Liu, F. C.      572 575 see J.” “Zeppenfeld P.”
Liu, H.      267 see F.
Liu, J.      419
Liu, L. -G.      182
Liu, S. H.      646
Liu, W. -K.      643 649 see X. “Sulston K.
Liu, W. K.      646
Llmemte      193 209
LMTO (linear muffin-tin orbitals)      108
Lnstiument resolution      303
Lo, W. J.      225 see Y.
Lo, W. K.      419
Local coordination      189
Local density approximation      see “LDA”
Local density functional method      431
Local density of states      132 623
Local distortions      615
Local equilibration      53
Local functional      109
Local minimum      113
Local oibital based methods      111 113
Local relaxations      590
Local roughness      295
Localization of a state      115
Loewdin, P. O.      646
Loffler, U.      501 see H.”
Lohmeir, M.      710 see H.
Loientz factor      303 338
London dispersion forces      505
Long range correlations      699
Long-bridge sites      450 452 615
Long-range forces      565
Long-range interactions      637 697
Long-range order      289 325 343 469 479 508 632 655 697 701 718 719 732
Long-range translational order      523
Longitudinal mode      513
Longoni, V.      495 see P.”
Lonically bonded insulating systems      153
Lopez Vazquez-de-Parga, A.      647 see D.
Lopez, J.      646 see J.
Lorentzian function      542 739
Lorrain, P.      182
Louie, S. G.      133 134 135 183 268 494 649 see R. “Chelikowsky J. “Hybertsen M. “Tomdnek D.” “Vanderbilt D.” “Zhu X.”
Lovesey, S. W.      572 see W.”
Low coverage      112
Low eneigy electron diffi action      see “LEED”
Low energy electron microscopy      see “LEEM”
Low energy ion scattering      see “LEIS”
Low energy positron diffraction      see “LEPD”
Low index directions      31
Low index surfaces      8
Lowe, J. P.      182
Lowenstein, J.      642 see N.”
Lowest unoccupied molecular orbitals      see “LUMO”
Lsing model      83 84 632 704 705 716 718—722 726 747 750 760 766 794 798 800
Lu, C.      572
Lu, H. C.      228 see J.
Lu, Ping      420 see D.
Lu, T. -M.      359 see M.”
Lu, T. M.      649 710 711 792 see G. “Lagally M. “Yang H. “Zuo J.
Lu, W.      227 see R.
Lu, W. C.      643 650 see X. “Zhang T.”
Lu, Y. -T.      99 see Z.”
Lubinsky, A. R.      227 267
Lucovsky, G.      182 see S.
Ludwig, A. W. W.      642 see I.”
Luedtke, W. D.      419 see U.”
LUMO (lowest unoccupied molecular orbital)      429 596
Lundgren, E.      493 494 499 see J. “Nielsen M.
Lundqvist, B. I.      499 646 J.
Lundqvist, S.      135 646 see B.” “March N.
Lupis, C. H. P.      572
Luschka, M.      359 see H.
Luscombe, J. G.      710 see M.
Lutz, C. P.      643 see M.
Lutz, M. A.      266 see R.
Lyo, I. W.      135 498 709 see Ph.”
Lyo, S. W.      265 see P.”
M0ller, P. J.      227
Ma, J.      572
Maca, F.      500 see M.”
Macdonald, J. E.      360 359 268 495 see K. “Van R. “Pluis B.” “Vlieg E.”
MacDowell, A. A.      135 791 see I.
MacGillavry, C. H.      43
MacLachlan, A. D.      572
MacLane, S.      642 see G.”
MacLaren, J. M.      267 498 646
MacRae, A. U.      496 see L.
MacRury, T. B.      646
Madden, H. H.      43 573 see R.
Madelung sum      155
Madelung, E.      182
Madey, T .E.      97 98 183 498 227 see B. “Song K. “Thiel P.
Madhavan, P.      646
Madih, K.      572
Maglietta, M.      498
Magnanelli, S.      568 see U.”
Magnetic fields      325
Magnetic forces      374
Magnetic ordering      587
Magnetic sandwiches      641
Magnetic shielding      308
magnetite      206
magnetization      719 720 726 795 797 800 801
Magnification      381
Mahanty, J.      646
Maik, P.      227 266 267 see C. “Lubinsky A.
Mailhiot, C.      267 see J.
Main, C. leeCroset, B.      569
Mainnez, V.      500 see F.”
Maitensson, P.      135 498 see T.
Maitin, A. J.      182
Maitin, J. A.      359 see M.
Maitinez, R. E.      97
Maitini, K. M.      134 see M.”
Mak, A.      571 574 790 see H.” “Spechi E.
Maksym, P. A.      182
Malic, R. A.      267 see E.
Mam, O.      420 see J.
Manassidis, I.      227
Mancnsson, P.      135 499 see J.
Manera, L.      358 see G.”
Mangat, P.      136 see P.”
Manin — Rodero, A.      645 see K.”
Manir, E. I.      648 see L.
Mansfield, M.      97 see R.
Manzke, R.      225 see R.”
Mao, D.      266 see W.”
Maradudin, A. A.      359 643 644 646 647 see S. “Dobrzynski L.” “Eguiluz A. “Portz K.”
March, N. H.      135 644 645 646 see F.” “Joyce K.” “Lundqvist S.” “Mahanty J.”
Marchenko, V. I.      97 646
Marcus, P. M.      135 267 495 498 500 502 see J. “Himpsel F. “Quinn J.” “Sokolov J.” “Chubb S. “Yang W.
Maree, P. M. J.      267
Marginal fields      801
Marks, L. D.      418 419 225 see R.” “Bonevich J. “Buckett M. “Collazo C.” “Dunn D.
Marli, C. rceThorel, P.      574
Marlins, J. L.      136 see N.”
Marshall, W.      572
Marti, C.      568 569 572 see T.” “Coulomb J.
Martin, J. A.      710 see D.”
Martin, J. I.      791 see L.
Martin, R. M.      133 135 see P.” “Cheity N.”
Maschhoff, B. L.      227
Mashkova, ES      419
Masn, P.      568 see J.
Mason, B. F.      572
Mason, M. G.      498 see S.
Mason, R.      498
Mass flow      53
Mass transport      53 450
Matecki, M.      569 572 see J. “Dolle P.”
Materer, N.      642 see A.”
Materlik, G.      789 see B.
Mathias, H.      227 see D.
Mathiez, Ph      501 see F.”
Matrix method      317
Matrix notation      25 27
Matsumoto, T.      182 227 see H.”
Matsunami, N.      419 see J.”
Matsushima, T.      645 645 see R.” “Moritz W.”
Mauck, M. S.      419 see G.
Maxwell relationship      58 64
Mayer, J. E.      180 see M.”
MBE (Molecular beam epitaxy)      235 249 258 259 260 261 262 706
MBE (molecular beam epitaxy) template      239
McAlpine, N.      267 see D.”
McCartney, M. R.      225 420 see “Smith D.
McColm, I. J.      227
McCormick, W. D.      570 see D.
McCoy, B. M.      792 see C.
McGrath, R.      495 see R.
McKay, S. R.      360 see W.
McKee, R. A.      227 see Z.
McKinney, J. T.      359
McLachlan modification      583
McLachlan, A. D.      646
McLean, A. B.      498
McLean, E. O.      568 see M.”
McMillan, W. L.      642 see P.
McMurry, H. L.      574 see H.”
McRae, E. G.      267 791
McTague, J. P.      499 571 572 573 574 see K.” “Nielsen M.” “Novaco A. “Taub H.”
Mctois, J. E.      97
Mdca, F.      648 see M.”
Meade, R. D.      96 97 133 268 494 498 710 788 see O. “Bedrossian P.” “Vanderbill D.”
mean field      107 631
Mean field theory      587 747 795 796
Mean squaied vibrational amplitude      286
Mean squaief height fluctuations      299 300 678
Mean square displacement      511
Mean square displacements of steps      91
Mean square fluctuation      663
Medium energy ion scattering      see “MEIS”
Mednick, K.      495 see D.
Medvedev, V. K.      643 see O.
Meehan, P.      572
Mehl, M. J.      135 643 see R. “Langreih D.
Mei, M. N.      268 see S.
Meichel, T.      570 572 see J.
Meier, F.      500 see D.
MEIS (medium energy ion scattering)      126 162 194 392 457 770
Meizbacher, E.      419
Melle, H.      135
Melmed, A.      419
Melting      231 514 523 524 525 546
Melting point      565
Melting transition      342 469
Men, F. K.      268 791 “Tong S. “Webb M.
Menaucourt, J.      568 572 573 see C.” “Bouchdoug M.” “Regnier J.”
Mendez, M. A.      498 501 see H.”
Menu, H.      99 see Z.”
Menzel, and E.      135 see H.”
Menzel, D.      496 497 498 500 501 see J. “Hofmann P.” “Lindroos M.” “Madey T. “Michalk G.” “Pfniir H.” “Steinkilberg M.”
Merrill, R. P.      225 see D.
Meso-scale structures      376
Mesoscopic ordered domains      122
Metal carbonyls      428 429 430 434 435
Metal dimers      128
Metal overlayers on semiconductors      123
Metal surfaces      104 116 427 660
Metal tnmer overlayer      489
Metal-carbonyl complexes, vibrational spectra of      430
Metal-metal bonds      127 489 491
Metal-semiconductor bonds      127 489 491
Metal-semiconductor interfaces      104 123 486
Metal-semiconductor transition      242
Metallic bonding      188 464 469
Metallic contacts      124
Metallization      473
Metals      115
Metastable (1x2) structure      455
Metastable phases      113 124 476 796
methane      511 542
Methfessel, M.      97 134 135 see V.”
Metois, J. J.      96 97 134 see C.” “Heyraud J.
Meyer, G.      135 498 see P.”
Meyer, J. A.      646 see Y.”
Meyer, R. J.      266 see C.
Meyerheim, H. L.      498
MG      111
MgO      163 177 201 406 507 513 533 539 559 566
MgO(001)      164 165 176
MgO(100)      187 195 201 223 513 514 542
MgO(111)      224
MICA      676
Michalk, G.      498
Michely, T.      418 710 see M.”
MicroChannel plate      386
Microelectronics      174 239
Microfacets      205
Microscopy      656
Miedema, A. R.      498
Migone, A. D.      568 572 575 see M. “Zhang S.”
Miller indices      6 22 33 35
Miller, J. S.      500 see E.
Miller, M.      360 see E.”
Miller, T.      710 see A.”
Miller, W. A.      98 see W.
Millis, A. J.      645 see B.
Mills, D. L.      500 570 B.” “Rahman T.
Mills, Jr , A. P.      180 267 see K. “Horsky T.
Milne, R. H.      497 see K.
Mimata, K.      572 see K.”
Miner, K. D.      568 see M.
Mintmire, J. W.      181 see B.
Mioss, W.      499
Miranda, R.      499 572
Mirror electron microscopy      408
Mirror plane      17
Mirror reflection planes      17
Misawa, S.      226 see S.”
Miscut angle      242
Mismatch      516
Mismatch critical      516
Mismatch lattice      516
Missing row      441
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