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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
Missing row model      454
Missing row phase      759
Missing row reconstructions      119 132 449 456 465 759 761 768 769 771
Missing row structure      451
Mitchell, K. A. R.      496 497 500 502 649 see D.” “Hui K. “Parkin S. “Vu D. “Wong P.
Miura, S.      710 see T.”
Mixed basis technique      111
Mixed dislocation      674
Mixed lepieseniation      587 605
Mixed phases      42
Mixed-basis pseudopotential approach      110
Miyano, K. E.      502 see J.
Miyazaki, E.      225 see K.”
MnO      201 202
MO      132
Mo(001)      106 118
Mo(100)      116
Mo(310)      416 416
Mo, Y. W.      98 267 268 710 see M. “Swartzentruber B.
Mobility      468 546
Mochida, A.      225 see K.”
Mochne, S. G. J.      98 99 496 359 572 792 “Feidenhans'l R.” “Nagler S. “Song S.” “Yoon M.” see D.
Modesn, S.      494 see C.”
Mohere, G.      419
Moikoc, H.      227 see S.”
Moinson, J.      135 see J.
Molchanov, V. A.      419 see E.
Molecular adsoibate systems      427
Molecular adsoiption      431
Molecular beam epitaxy      see “MBE”
Molecular cooidination chemistry      255
Molecular Dynamics      105 119 159 162 508
Molecular dynamics simulations      110
Molecular oiientational order      521
Molecular orbitalsofCO      429
Molecular vibiations      512
Moler, E. J.      497 see Z.”
Moliere potential      394
Moller, M.      420 see J.
Moller, M. A.      573 see J.
Moller, P.      496 see M.”
Momentum tiansfer      300 347
Momentum transfei vector      274
Momson, J.      496 see P.
Momson, J. A.      573 see C.”
Monch, W.      499
Moncton, D. E.      569 572 574 see K. “Dimon P.” “Mochne S. “Nagler S. “Stephens P. “Specht E.
Monkawa, Y.      135
Monkenbusch, M.      572
Monshige, K.      572
Monta, S.      420 see H.”
Monte Cailo      631
Monte Cailo simulations      79 119 613 614 615 618 619 627 632 633 634 639 703 704 705 706 806
Monte Cailo techniques      394
Monte Carlo calculations      745
Montrol, E. W.      359 see A.
Monty, C.      225 see L.
Moog, E. R.      572 575 see J.”
Moore, A. J. W.      97
Moore, I. D.      644 646 see F.”
Moore, W. T.      497 see K.
Morgante, A.      494 see A. “Bottcher A.”
Mori, R.      498 see Y.”
Moriensen, K.      133 494 792 see P.” “Zegenhagen J.”
Morikawa, Y.      134 see K.”
Moritz, W.      134 135 495 496 498 499 501 502 646 792 “Dormsch D.” “Gierer M.” “Kleinle G.” “Meyerheim H. “Michalk G.” “Over H.” “Siampfl C.” “Zuschke R.”
Morse, P. M.      791
Mortensen, K.      499
Moruzzi, V. L.      646
Mosaic      41 289 290 291 674 676
Mosaic structure      675
Moser, H. R.      497 see D.”
Mossbauer spectroscopy      511 545
Motieler, FC      572
Mott — Littleton approach      156 159 175 176
Mott, N. F.      182
Mound structures      684
Mouritsen, O. G.      789 see H.
Mouritsen, OG      710
Mowforth, C.      572 see K.”
Mowforth, C. W.      572
Muellerova, I.      419
Muffin tin      631
Muffin tin spheres      613 614
Muffin-tin orbitals      106
Muirhead, R. J.      572
Mulhns, W. W.      97
Muller, E. W.      419
Muller, J.      499 646
Muller, K.      225 226 359 360 494 495 498 499 646 791 “Bickel N.” “Lang E.” “Rous P. “Besold G.” “Chubb S. “Eggeling von C.” “Gruzalski G. “Mendez M. “Oed W.” “Pendry J.
Mullicomponent systems      62
Mulliken (1934) electronegativity      587
Mullins      81
Mullins, W. W.      97 see E.
Multigirds      111
Multiple height steps      679
Multiple scattering      284 322 326 346 347 678 733 738
Multisite interactions      604
Mundenar, J. M.      499
Munoz, M. C.      500 see F.”
Muraia, Y.      181 see T.”
Murakami, S.      181 see T.”
Murata, Y.      494 see T.”
Murray, P. W.      227 498 499 see F.
Muryn, C. A.      227 see P.
Muscat, J. P.      499 647
Muschiol, U.      499
Muto, Y.      572 647
Mykura, H.      96 see J.
Myshlyavisev, A. V.      647
Na      111
NaCl      507 708
NaF(001)      354
Nagayoshi, H.      135 499 see S.”
Nagler, S. E.      572
Nahm, H. S.      569 see M.”
Nahr, H.      359 see H.
Najafabadi, R.      647
Nakagawa, K.      267 see P.
Nakaiani, S.      136 501 see T.”
Nakamatasu, H.      182
Nakamura, N.      134 see S.”
Nakayama, T.      501 see T.”
Napariovich, A. P.      642 see L.
Narasimhan, S.      135
Nardon, Y.      572
Narusawa, T.      647
Nasiasi, M.      420 see J.
Naumovets, A. G.      499 642 647 see L.
NBC      213
NbN      218
ne      518
nearest neighbors      189
Nearest-neighbor repulsion      581
Neddermeyer, H.      225 501 see M.” “Wilhelmi G.”
Needels, M.      133 267 see K.
Needs, R. J.      97
Negative surface excesses      62
Neilsen, M.      495 see D.”
Nelson, D. R.      570 573 790 see B. “Jose J.
Nelson, J. S.      267 see T.”
Nelson, R. C.      98
Nenow, D.      573
Neon      511
Neubert, M.      500 see E.”
Neugebauer, J.      494 499 500 648 see J.” “Schmalz A.”
Neutralization      397
Neutron scattering      535 566 717
Neutron scattering experiments      533
Neve, J.      498 see S.
Newion, J. C.      575 see R.”
Newns, D. M.      499 see J. “Norskov J.
Newton, M. D.      181 see R.
Next nearest-neighbor attraction      581
Ng, Lily      501 see K.
Nham, H. S.      573
NI      105
Ni island nucleation      699
Ni(001)      316 317
Ni(001)-C      764
Ni(001)c(2x2)O      457
Ni(100)      457 686
Ni(100)-C      763
Ni(100)-K      470
Ni(100)-O      448 456
Ni(110)      449 762
Ni(110)(2xl)-O      453 455
Ni(110)(2xl)pmg 2CO      440
Ni(110)-CO      440
Ni(110)p(2xl)-O      450 453
Ni(110)p(3xl)-O      453
Ni(111)-K      468 469
Ni(111)-O      742
Ni(113)      667
Ni(115)      666 667
Ni(771)      453
Ni-CO      430
Nicholas, J. F.      98 135 499
Nicholls, J. M.      496 see T.
Nichus, H.      710 see K.”
Nicnhuis, B.      791
Nielsen, M.      134 266 496 568 569 571 572 573 789 792 see J.” “Dormsch D.” “Duna P.” “Feidenhans'l R.” “Grey F.” “Kjaer K.” “McTague J. “Siampfl C.”
Nielsen, M. M.      493 499 501 see S.” “Siampfl C.”
Nielson, M.      266 see R.”
Niessen, A. K.      498 see A.
Nightingale, M. P.      573 647
NiO      201 202
NiO(100)      202 222 457 686
NiO(111)      457
Niobium pentoxide      193
Niskanen, K. J.      573
Nitrides      143 218 222
Nitrogen      511 521
No load point      375
Noble metal adsorption on silicon and germanium surfaces      125
Noble metals      116 117 637 640
Noble metals on Si or Ge      127
Nodme, M. H.      225 see R.
Nofke, J.      570 see K.”
Nogami, J.      135 136 499 500 501 see S.” “Shioda R.” “Wan K.
Nogler, S. E.      574 see E.
Noimal mode      286
Nolden, I.      98 see H.”
Nolder, R.      227
Nomura, E.      497 see M.”
Non channeling      393
Non equilibrium structure factors      7903
Non mieiacting steps      302
Non unifoim strain      675
Non-bonded atoms      668
Non-bonding electronic states      246
Non-coniact imaging      376
Non-dnectional bonding      581
Non-registered binding      729
Non-rotated hexagonal phase      520
Non-stoichiometnc surfaces      142
Non-universal behavior      747 753
Non-wetting      562
Nonhrup, Jr, C. J. M.      182
Nonon, P. R.      419 497 see T.
Noonan, J. R.      226 see G.
Nordlander, P.      647
Normal vibrational modes      285
Norman, D.      498 see G.
Norris, C.      134 268 495 see K. “Howes P. “Van R.
Norskov, J.      648 see P.”
Norskov, J. K.      135 136 494 496 497 499 647 790 see F.” “Feidenhans'l R.” “Jacobsen K. “Siokbro K.”
Northrup, J. E.      135 266 267 494 499 501 792 see D. “Bnngans R. “Nicholls J. “Uhrberg R. “Zegenhagen J.”
Norton, P. R.      647
Notation      35
Notfke, J.      499
Novaco — McTague epitaxial rotalion      549
Novaco — McTague rotation      5 18 523 524
Novaco, A. D.      499 571 572 573 see J. “McTague J.
Novak, D.      227
Nowak, H. J.      135
Nowomy, J.      180 see L.
Nowotny, J.      182
Nozieres, P.      98
Nuclcation      473 478 688 766 775 776 778 788
Nuclcation and growth      775 785
Nucleated islands      688
Nucleation processes      689
Number ol the space group      19
Nunes, R. W.      135 see X.
Nussbaum, R. H.      573
Nyberg, G. L.      494 see S.
Nyholm, R.      493 494 see J.
O'Keefe, M.      182
O/Ru(001)      736
O/W(100)      693 694
O/W(110)      685 694
Object wavefunction      400
Ocal, C.      494 see M.”
Occupied density of stales      364
Ochab, J.      788 see P.”
Ocko, B. M.      135 792 see D.
Octahedial interstitial sites      192
Octahedral coordination      188
Octahedral intei slices      207
Octahedral sites      191
Oed, W.      498 499 791 see M. “Muschiol U.” “Pendry J.
Oen, O. S.      419
Ogletree, D. F.      268 499 642 647 649 see A.” “Van M.
Ohdoman, I.      226 see S.”
Ohia, H.      498 see T.”
Ohiani, H.      499 647
Ohmura, Y.      644 see F.”
Ohnesorge, F.      227
Ohta, M.      420 see H.”
Ohta, T.      791
Okamoto, N.      136 501 see T.”
Oles, A. M.      647
Olesen, L.      790 see C.”
Olmstead, M. A.      136 267 499 501 see R.
On-top position      484 485
On-top sites      20 434 469 471 475 476 580
One election electronic energy      148
One electron eigenvalues      151
One-dimensional defects      655
One-election eigenfunctions      152
One-electron density      151
One-electron energies      613 616
One-electron functions      151
One-electron kinetic energy and electron-ion (nuclear) attraction      149
one-electron wavefunctions      147 149 150
One-phonon scattering      287
Onega, A.      500 see H.”
Onentalional phase separation of vicinal Au(111)      79
Onentational order-disorder transition      525
Ong, P. J.      136 see D.
Onsager      719
Onufeiko, J. H.      791
Oppcnheimer, J. R.      180 see M.”
Optical lever      378 380
Optical tnterferometry      378
Optical transfer      400
Ordcjon, P. I.      35
Order parameters      719 721 723 732 733 746 747 804—806
Order(N) methods      111
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