solid surfaces interfaces and thin films 5th by hans

Graduate Texts in Physics Graduate Texts in Physics Graduate Texts in Physics publishes core learning/teaching material for graduate- and advanced-level undergraduate courses on topics of current and emerging fields within physics, both pure and applied These textbooks serve students at the MS- or PhD-level and their instructors as comprehensive sources of principles, definitions, derivations, experiments and applications (as relevant) for their mastery and teaching, respectively International in scope and relevance, the textbooks correspond to course syllabi sufficiently to serve as required reading Their didactic style, comprehensiveness and coverage of fundamental material also make them suitable as introductions or references for scientists entering, or requiring timely knowledge of, a research field Series Editors Professor William T Rhodes Florida Atlantic University Department of Computer and Electrical Engineering and Computer Science Imaging Science and Technology Center 777 Glades Road SE, Room 456 Boca Raton, FL33431, USA E-mail: wrhodes@fau.edu Professor H Eugene Stanley Boston University Center for Polymer Studies Department of Physics 590 Commonwealth Avenue, Room 204B Boston, MA 02215, USA E-mail: hes@bu.edu Professor Richard Needs Cavendish Laboratory JJ Thomson Avenue Cambridge CB3 oHE, UK E-mail: rn11@cam.ac.uk For further volumes: http://www.springer.com/series/8431 Hans Lüth Solid Surfaces, Interfaces and Thin Films Fifth Edition With 427 Figures 123 Professor Dr Dr h.c Hans Lüth Forschungszentrum Jülich GmbH Institut für Bio- und Nanosysteme 52425 Jülich Germany h.lueth@fz-juelich.de ISSN 1868-4513 ISBN 978-3-642-13591-0 DOI 10.1007/978-3-642-13592-7 e-ISSN 1868-4521 e-ISBN 978-3-642-13592-7 Springer Heidelberg Dordrecht London New York Library of Congress Control Number: 2010933115 c Springer-Verlag Berlin Heidelberg 1993, 1995, 2001, 2010 This work is subject to copyright All rights are reserved, whether the whole or part of the material is concerned, specifically the rights of translation, reprinting, reuse of illustrations, recitation, broadcasting, reproduction on microfilm or in any other way, and storage in data banks Duplication of this publication or parts thereof is permitted only under the provisions of the German Copyright Law of September 9, 1965, in its current version, and permission for use must always be obtained from Springer Violations are liable to prosecution under the German Copyright Law The use of general descriptive names, registered names, trademarks, etc in this publication does not imply, even in the absence of a specific statement, that such names are exempt from the relevant protective laws and regulations and therefore free for general use Cover design: eStudio Calamar S.L Printed on acid-free paper Springer is part of Springer Science+Business Media (www.springer.com) Preface The fourth edition of “Solid Surfaces, Interfaces and Thin Films” has been used meanwhile as a standard textbook around the world at many universities and research institutions Even though surface and interface physics have become a mature science branch, their theoretical concepts and experimental techniques are of higher importance than ever before because of their impact on nanostructure physics Surface and interface physics form the basis for modern nanoscience, be it in quantum electronics, in catalysis, in corrosion, or in lubrication research This explains the ever-growing demand for education in these fields It was therefore time to carefully revise the book and bring it up to latest developments both in fundamental research and in application Concerning new material aspects topics about group III nitride surfaces and high k-oxide/semiconductor heterostructures have been included Recent developments in these material classes are of essential importance for high-speed/high-power electronics and advanced Sibased CMOS technology on the nanometer scale The novel field of spin electronics or spintronics having been initiated by the detection of the giant magnetoresistance (GMR) by Peter Grünberg and Albert Fert (Nobel Prize 2007) required a more extensive consideration of anisotropy effects in thin magnetic films For the development of purely electrical spin switching devices based on spin effects rather than on semiconductor space charge layers, a prerequisite for high-speed, low-power spintronics, the spin-transfer torque mechanism shows some promise Correspondingly this topic is discussed in direct connection with the GMR in this new edition In addition, two new panels about magneto-optic characterization and spin-resolved scanning tunneling microscopy (STM) of magnetic films extend the experimental basis for research on magnetic systems From discussions with students working in the field of nanoelectronics and quantum effects in nanostructures I have learned that many fundamental surface science concepts such as charging character of surface and interface states, Fermi-level pinning have been forgotten over the years or not taught in an adequate way Since these concepts are of paramount importance for research on semiconductor nanostructures I tried to deepen and extend these topics in the present edition Besides many minor corrections and improvements of the text I modified the section about surface energy, surface stress, and macroscopic shape completely and v vi Preface brought it up to the state of the art of our present understanding This is due to my friend and colleague Harald Ibach, who “insisted” on this change and helped me to understand the topic more profoundly Thanks to him also for some figures he allowed me to take from his publications I have to thank some more of my colleagues and friends for help in revising this book quite intensively For the topic of Schottky barriers and semiconductor heterojunctions it is always a great pleasure to talk to Winfried Mönch Thanks also to him for allowing me to take some figures out of his books For the new section about group III nitrides I had some helpful discussions with Marco Bertelli and Angela Rizzi Thanks to them also for the figures they supplied For the new additions about spin-transfer torque mechanism and spin-resolved STM, seminars of my young colleagues Daniel Bürgler and Philipp Ebert on recent Jülich spring schools were helpful For help with the preparation of figures I want to thank Christian Blömers Last but not least many thanks to Claus Ascheron, who managed the editing of my books at Springer, not only this one, with great enthusiasm Jülich and Aachen, Germany May 2010 Hans Lüth Preface to the Fourth Edition Surface physics in the classical sense of ultrahigh vacuum (UHV) based experimental approaches to understand well-defined surfaces has now become a mature branch of condensed matter research Meanwhile, however, the theoretical concepts and experimental techniques developed in this field have also become the basis for modern interface, thin film and nanostructure science Furthermore, these research fields are of fundamental importance for more applied branches of science, such as micro- and nanoelectronics, catalysis and corrosion research, surface protection, chemo- and biosensors, microsystems and nanostructured materials The physics of solid surfaces, interfaces and thin films is thus an important field which needs to be taught to all students in physics, microelectronics, engineering and material science It is thus no surprise that this topic has now entered the corresponding university curricula throughout the world In the present 4th edition of this book (formerly entitled “Surfaces and Interfaces of Solid Materials”) more emphasis is placed on the relation between the surfaces, interfaces and thin films, and on newly discovered phenomena related to low dimensions Accordingly, a few topics of the earlier editions that are now only of peripheral interest have been omitted On the other hand, a new chapter dealing with collective phenomena at interfaces has been added: Superconductor–semiconductor interfaces and thin ferromagnetic films have attracted considerable attention in of late This is mainly due to our improved understanding of these phenomena, but also to important application aspects which have recently emerged For example, giant magnetoresistance, a typical thin film phenomenon, is of considerable importance for read-out devices in magnetic information storage Likewise, ferromagnetism in low dimensions may play an important role in future non-volatile memory device circuits The corresponding topics have thus been added to the new edition and the title of the book has been modified slightly to “Solid Surfaces, Interfaces and Thin Films” This new title better describes the wider range of topics treated in the new edition Furthermore, in response to several suggestions from students and colleagues, errors and inconsistencies in the text have been eliminated and improvements made to clarity On the topics superconductor–semiconductor interfaces and ferromagnetism in low dimensions, I have benefited from discussions with Thomas Schäpers vii viii Preface to the Fourth Edition and Stefan Blügel, respectively The English text was significantly improved by Angela Lahee, who, together with Katharina Ascheron, also contributed much to the final production of the book Particular thanks are due to Claus Ascheron of Springer-Verlag, who managed the whole publication process Aachen and Jülich July 2001 Hans Lüth Preface to the Second Edition Surface and interface physics has in recent decades become an ever more important subdiscipline within the physics of condensed matter Many phenomena and experimental techniques, for example the quantum Hall effect and photoemission spectroscopy for investigating electronic band structures, which clearly belong to the general field of solid-state physics, cannot be treated without a profound knowledge of surface and interface effects This is also true in view of the present general development in solid-state research, where the quantum physics of nanostructures is becoming increasingly relevant This also holds for more applied fields such as microelectronics, catalysis and corrosion research The more one strives to obtain an atomic-scale understanding, and the greater the interest in microstructures, the more surface and interface physics becomes an essential prerequisite In spite of this situation, there are only a very few books on the market which treat the subject in a comprehensive way, even though surface and interface physics has now been taught for a number of years at many universities around the world In my own teaching and research activities I always have the same experience: when new students start their diploma or PhD work in my group I can recommend to them a number of good review articles or advanced monographs, but a real introductory and comprehensive textbook to usher them into this fascinating field of modern research has been lacking I therefore wrote this book for my students to provide them with a text from which they can learn the basic models, together with fundamental experimental techniques and the relationship to applied fields such as microanalysis, catalysis and microelectronics This textbook on the physics of surfaces and interfaces covers both experimental and theoretical aspects of the subject Particular attention is paid to practical considerations in a series of self-contained panels which describe UHV technology, electron optics, surface spectroscopy and electrical and optical interface characterisation techniques The main text provides a clear and comprehensive description of surface and interface preparation methods, structural, vibrational and electronic properties, and adsorption and layer growth Because of their essential role in modern microelectronics, special emphasis is placed on the electronic properties of semiconductor interfaces and heterostructures 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B.A Aminov, A.A Golubov, M.Yu Kuprianov: Phys Rev B 53, 365 (1996) K Neurohr, Th Schäpers, J Malindretos, S Lachenmann, A.I Braginski, H Lüth, M Behet, G Borghs, A.A Golubov: Phys Rev B 59 (1999) J Callaway, C.S Wang: Phys Rev B 7, 1096 (1973) S Handschuh, S Blügel: Solid-State Commun 105, 633 (1998), and 24 IFF-Ferienschule “Magnetismus von Festkörpern und Grenzflächen”, Forschungszentrum Jülich 1993, p 19 References 571 9.24 S Blügel: “Ground State Properties of Ultrathin Magnetic Films”, Habilitation Thesis, Aachen University of Technology (RWTH), 1995 9.25 D.L Abraham, H Hopster: Phys Rev Lett 58, 1352 (1987) 9.26 N Mermin, H Wagner: Phys Rev Lett 17, 1133 (1966) 9.27 Yi Li, K Baberschke: Phys Rev Lett 68, 1208 (1992) 9.28 F.J.A den Broeder, W Hoving, P.J.H Bloemen: J Magn Mater 93, 562 (1991) 9.29 M Wuttig, B Feldmann, T Flores: Surface Sci 331, 659 (1995) 9.30 P Bruno, C Chappert: Phys Rev Lett 67, 1602 (1991) 9.31 C Carbone, E Vescovo, R Kläsges, W Eberhardt: Solid State Commun 100, 749 (1996) 9.32 L Nordström„ P Lang, R Zeller, P.H Dederichs: Europhys Lett 29, 395 (1995) 9.33 C Carbone, E Vescovo, O Rader, W Gudat, W Eberhardt: Phys Rev Lett 71, 2805 (1993) 9.34 J.E Ortega, F.J Himpsel: Phys Rev Lett 69, 844 (1992) 9.35 P Grünberg, R Schreiber, Y Pang, M.B Brodsky, H Sowers: Phys Rev Lett 57, 2442 (1986) 9.36 G Binasch, P Grünberg, F Saurenbach, W Zinn: Phys Rev B 39, 4828 (1989) 9.37 M.N Baibich, J.M Broto, A Fert, F.N.V Dau, F Petroff, P Etienne, G Creuzet, A Friederichs, J Chazelas: Phys Rev Lett 61, 2472 (1988) 9.38 H Ibach: Physics of Surfaces and Interfaces (Springer, Berlin, Heidelberg New York, 2006) 9.39 R Hertel: Lecture Notes of the 40th Spring School 2009 of the Research Centre Jülich 10, D1 (2009) 9.40 J.C Slonczewski: J Magn Magn Mater 159, L1 (1996) 9.41 L Berger: Phys Rev B 54, 9353 (1996) 9.42 D.E Bürgler: Lecture Notes of the 40th Spring School 2009 of the Research Centre Jülich 10, D3 (2009) 9.43 J.A Katine, F.J Albert, R.A Buhrmann, E.B Myers, D.C Ralph: Phys Rev Lett 84, 3149 (2000) 9.44 G Reiss, L.v Loyen, T Lucinski, W Ernst, H Brückl: J Magnet Magnet Mater 184, 281 (1998) Chapter 10 10.1 J.N Israelachvili, D Tabor: Van der Waals Forces: Theory and Experiment, Prog Surf Membrane Sci 7, (1973) 10.2 J.N Israelachvili: Quart Rev Biophys 6, 341 (1974) 10.3 E Zaremba, W Kohn: Phys Rev B 15, 1769 (1977) 10.4 T.B Grimley: Theory of Chemisorption, The Chemical Physics of Solid Surfaces and Heterogeneous Catalysis, Vol 2, ed by D.A King, D.P Woodruff (Elsevier, Amsterdam 1983) p 333 10.5 E.W Plummer, T.N Rhodin: J Chem Phys 49, 3479 (1968) 10.6 E Bauer: In The Chemical Physics of Solid Surfaces and Heterogeneous Catalysis, Vol 3, ed by D.A King, D.P Woodruff (Elsevier, Amsterdam 1984) p 10.7 E.P Gyftopoulos, J.D Levine: J Appl Phys 33, 67 (1962) 10.8 J Topping: Proc R Soc London A 114, 67 (1927) 10.9 A Spitzer, H Lüth: Surf Sci 120, 376 (1982) 10.10 M Mattern-Klosson: Photoemissionsspektroskopie zur Untersuchung der SchottkyBarrieren von Sn and Sb auf GaAs(110) Dissertation, Aachen University of Technology M Mattern-Klosson, H Lüth: Solid State Commun 56, 1001 (1985) 10.11 L.A Bol’shov, A.P Napartovich, A.G Naumovets, A.G Fedorus: Uspekhi Fiz Nauk 122, 125 (1977) [English transl.: Sov Phys – Uspekhi 20, 432 (1977)] 10.12 D.T Pierce, F Meier: Phys Rev B 13, 5484 (1977) 572 References 10.13 T.S Rahman, D.L Mills, J.E Black, J.M Szeftel, S Lehwald, H Ibach: Phys Rev B 30, 589 (1984) 10.14 R.H Fowler, E.A Guggenheim: Statistical Thermodynamics (Cambridge Univ Press, Cambridge 1949) 10.15 R.J Behm, K Christmann, G Ertl: Solid State Commun 25, 763 (1978) 10.16 A.R Kortan, R.L Park: Phys Rev B 23, 6340 (1981) 10.17 J.M Thomas, W.J Thomas: Introduction to the Principles of Heterogeneous Catalysis (Academic, New York 1967); D Hayword, B Trapnell: Chemisorption (Butterworths, London 1964) Index A Acceptor-type state, 261 Accumulation layer, 326 Activated adsorption, 539 Activation energy for chemisorption, 525 Adiabatic approximation, 215 Adiabatic transport, 420 Adsorption isotherm, 542 kinetics, 538 Andreev ladder, 463 Andreev levels, 463 Andreev reflection, 445 Angle-integrated photoemission, 268–269 Angle-resolved UV photoemission (ARUPS), 263 Antiferromagnetic substrate, 495 Atom beam scattering, 244 Atomic collisions, 183 Atomic steps, 143 Auger electron spectroscopy (AES), 50 B Back bond states, 261 Bake-out process, Ballistic transport, 417 Band bending, 324 Band model of ferromagnetism, 472 Band-offsets, 425 Bardeen, Cooper, Schrieffer (BCS) theory, 439 Bardeen model, 382 Bath pump, 13 Bayard-Alpert gauges, 14 BCS superconductor, 440 Bloch wall, 493–494 Blocking, 185 Blocking cones, 189 Bogoliubov equations, 444 π-Bonded chain model, 76, 293 Branching point, 388 Breathing shell models, 239 Bremsstrahlen spectroscopy, 318 Brunauer, Emmett and Teller (BET) isotherm, 543 Buckling model, 292 Bulk-loss function, 161 Bulk-state emission, 269 C Calipers, 483 Capacitance-Voltage (C-V) technique, 429 Catalytic decomposition, 525 Channeling, 185 Channeling and blocking, 185 Charge neutrality level, 351, 391, 398 Charge-transfer states, 521 Charge-transfer transitions, 209 Charging character, 259 Chemical beam epitaxy (CBE), 45 Chemical bonding shifts, 276 Chemical shift, 274 Chemisorption, 520 Cleavage, 32 Coercive field, 492–493, 499, 506 Coercivity, 495, 499–501 Coherence length, 202, 435 Coincidence lattice, 81 Collective phenomena, 435 Condensation coefficient, 540 Conductance quantum, 420 Contact potential, 552 Cooper pair, 440 Core-level shifts, 275 Coster-Kronig transition, 51 Cracking pattern, 59 Critical cluster sizes, 94 Critical supercurrent, 466 Critical thickness, 87 573 574 Cross-over energy, 388 Cryopumps, 12 Cyclotron frequency, 358 Cyclotron orbit, 359 Cylindrical analyzer, 21 Cylindrical mirror analyzer (CMA), 26 D Dangling bonds, 261 DATALEED, 199 2D Bravais lattices, 79 2D crystal, 532 2D crystallites, 532 Debye length, 332 Deep levels, 401 Defect model, 399 Deflection function, 182 Degenerate semiconductors, 332 Depletion layer, 325 Depolarization factor, 528 Desorption coefficient, 541 Desorption energy, 525 Desorption process, 541 2D gas, 532 Dielectric theory, 157 Differential cross section, 181 Dimer bonding states, 303 Dislocations, 86 Dissociative adsorption, 524 2D lattice, 532 2D nucleation, 93 3D nucleation, 92 Domain boundary, 85 Domain wall, 493–494, 515 Donor-type state, 261 2D phase diagram, 536 2D phases, 532 2D plasmons, 361 2D surface Brillouin zones, 221 Dynamic LEED theory, 147 2D reciprocal lattice, 82 E Easy axis, 492–493, 495 Easy magnetization, 479 Edge channels, 422 Effective work-function model, 404 Elastic compliances, 224 Elastic scattering probability, 138 Electron affinity, 381 Electronegativities, 388 Electron energy loss spectroscopy (EELS), 205 Electronic band structure, 258 Electronic surface states, 253 Index Electron spectroscopy for chemical analysis (ESCSA), 263 Electron stimulated desorption (ESD), 547 Electron stimulated desorption of ion angular distributions (ESDIAD), 548 Ellipsometric spectroscopy, 370 Ellipsometry, 105 Elovich equation, 541 Ewald construction, 139, 145 EXAFS, 125 Excess surface free energy γ, 70 Exchange bias, 495 Exchange constant, 477 Exchange interaction, 472, 477 Extramolecular relaxation/polarization, 275 Extrinsic surface states, 262 F Faraday effect, 504 Ferromagnetism, 471 Field desorption (FD), 547 Field-effect transistors, 353 Film growth, 88 Final state effects, 276 First-order kinetics, 546 Fixed magnetic layer, 500 Frank-van der Merve, 90 Free magnetic layer, 499 Frontier orbitals, 523 Frustrated total reflection, 370 Fuchs-Kliewer surface polariton, 233 G GaAs(001) surfaces, 349–350 GaAs(110) surfaces, 299 Giant magnetoresistance, 486 GMR, see Giant magnetoresistance Grain boundaries, 86 Group III–nitrides, 227, 305–308, 398 H Hall resistance, 423 Heisenberg Hamiltonian, 477 Hemispherical analyzer, 25 Heteroepitaxy, 36 Heterointerface, 435 High electron mobility transistor (HEMT), 414 Highest occupied molecular orbital (HOMO), 523 High k-oxides, 398 High-resolution electron energy loss spectroscopy (HREELS), 24, 206 High-resolution XPS, 317 Index Homoepitaxy, 36 Hot electrons, 420 Hund’s rule, 476 I Ideality factor, 428 Image-potential surface states, 285 Impact parameter, 181 Inelastic scattering probability, 138 Interface anisotropy, 494 Interface dielectric function, 230 Interface dipole, 382 Interface states, 390 Interface stress, 67 Internal reflection, 368 Intrinsic energy E i , 326 Intrinsic surface states, 259 Inverse photoemission, 316 Inverse photoemission spectroscopy, 313 Inversion layer, 326 Ion bombardment, 34 Ion-getter pumps, 10 Ionicity gap, 299 Ion impact desorption (IID), 547 Ionization gauge, 14 Island growth, 90 Isochromate spectroscopy, 318 J Josephson effects, 455 Josephson junctions, 455, 464 K Kelvin probe, 552 Kerr effect, 503–507 Kinematic theory of surface scattering, 134 Knudsen cell, 39 Koopmans theorem, 274 L Landau levels, 358 Langmuir isotherm, 542 Layer-by-layer growth, 96 Layer-plus-island growth, 90 LEED optics, 197 LEED pattern, 142 Linear-cascade regime, 60 Linear chain, 216 Linear combination of atomic orbitals (LCAO), 260 Line defect, 78 Local density of states (LDOS), 281 Local magnetic moment, 475 575 Low-energy electron diffraction (LEED), 139, 196 Lowest unoccupied molecular orbital (LUMO), 523 M Magnetic anisotropy, 479 crystalline, 486 exchange, 493 shape, 493–494 Magnetic domains, 491–495, 503, 507, 512, 515 Magnetic hysteresis, 492–493, 501, 506 Magnetic interlayer coupling, 485 Magnetic quantum well states, 480 Magneto-optic Kerr effect (MOKE), 504–505 Majority spins, 473 Matching formulation, 148 Mean free path of electrons, 134 Metal-induced gap states (MIGS), 385 Metal-organic chemical vapor deposition (MOCVD), 45 Metal-Organic MBE (MOMBE), 45 Metal-oxide semiconductor field-effect transistors (MOSFETs), 354 Metal-semiconductor field-effect transistors (MESETs), 354 Metal–semiconductor junctions, 377 Metal work function, 381 Microprobe, 111 Miedema electronegativity, 389 MIGS, see Metal-induced gap states (MIGS) Minority spins, 473 Mixed interface Schottky model, 404 Modulation doped field effect transistor (MODFET), 414 Modulation doping, 412 Molecular beam epitaxy (MBE), 36 Molecular beam scattering, 244 Molecular flow, 16 Multiple-scattering formalism, 151 N Nanotechnology, 3, 122 Narrow gap III-V semiconductors, 350 Nearly-free electron model, 254 Neel wall, 493–494 Neutrality level, 388 Non-polar surfaces, 300, 306, 311 Nozzle beam source, 245 Nucleation, 88 576 O Occupation factor, 541 One-step process, 264 Optical spectroscopy, 364 Optical surface phonons, 232 Optical surface techniques, 364 Orientation selection rule, 171 P Particle optics, 17 Partition functions, 541 Pauling electronegativity, 389 Phonon dispersion relation, 221 Photodesorption (PD), 547 Photoemission process, 314 spectroscopy, 263 Physisorption, 517 Pinning of the Fermi level, 336 Pirani gauge, 14 Plasma frequency, 234 Plasmon waves, 233 Point defects, 77 Poisson distribution, 235 Poisson’s equation, 328 Polariton dispersion, 230 Polar surfaces, 300, 305, 353 Pumping equation, 15 Pumping speed, 15 Q Quadrupole mass spectrometer (QMS), 58 Quantized conductance, 420 Quantized electron accumulation layer, 339 Quantum Hall effect, 423–424 Quantum point contacts, 417 Quasi-electrons, 442 Quasi-holes, 443 Quasi-ohmic metal–semiconductor contacts, 408 Quasi-particles, 442 R Raman effect, 105 Rayleigh waves, 224 Recombination rate, 372 Reconstruction, 73 Reflection high-energy electron diffraction (RHEED), 196 Relaxation, 73 Relaxation energy, 274 Relaxation/polarization effect, 275 Remanence, 492–493 Index RHEED oscillations, 38 Rotary pumps, Rutherford backscattering, 195 S Satellite peak, 275 Scanning electron microscopy (SEM), 108 Scanning techniques, 108 Scanning tunneling microscopy (STM), 115 Scattering cross section, 181 Scattering of particles, 178 Schockley states, 260 Schottky barrier heights, 381–382 Schottky depletion space-charge layer, 328 Schottky model, 382 Screening length, 323 Secondary Bragg peaks, 147 Secondary ion mass spectroscopy (SIMS), 57 Second-order kinetics, 546 Semiconductor heterostructures, 377 Shadow cone, 189 Shadowing, 184 Shubnikov-de Haas oscillations, 360, 423 Shuttleworth equation, 69 Si(100)-(2 × 1) surface, 296 Si(111)-(2 × 1), 76 Si(111)-(7 × 7) surface, 294 Si(111) cleaved surface, 291 Silicon MOS field-effect transistor, 353 Single-knock-on regime, 60 Si/SiO2 interface, 345 Skimmer, 246 Skipping orbits, 422 Slope parameter, 388–389, 396 Sorption pump, Space charge capacitance, 334 layers, 323 Space incoherence, 203 Spike regime, 61 Spinor, 498–499 Spin-polarized scanning tunnelling microscopy (SP-STM), 508–513 Spin-transfer torque, 486–502 Splay pressure, 534 Split-gate arrangement, 418 Sputtering, 59 Steric factor, 539 Sticking coefficient, 539 Stoner gap, 474 Stoner parameter, 472 Strain tensor, 224 Stransky-Krastanov, 90 Index Stress tensor, 68–69 Structure analysis, 142, 147, 153 Subbands, 339 Subharmonic gap structures, 462 Substrate-mediated interactions, 533 Superconductivity, 436 Supercurrent control, 469 Superlattice, 79 Surface anisotropy, 480, 494, 544 Surface energy, 67 Surface extended X–ray absorption fine structure (SEXAFS), 125 Surface free energy, 67–70, 75, 91, 147, 253 Surface loss function, 166 Surface phonon polaritons, 231 Surface phonons, 215 Surface photo conductivity (SPC), 371 Surface photo voltage (SPV), 371 Surface plasmon polaritons, 234 Surface potentials, 343 Surface resonances, 259 Surface-state emission, 269, 271 Surface states, 254 Surface states on metals, 276 Surface stress, 69 Surface tension, 67 Surf-rider term, 166 Symmetry of initial states, 271 Symmetry selection rule, 272 Synchrotron radiation, 316 T Tamm states, 260 Thermal desorption spectroscopy, 544 Thermionic emission-diffusion theory, 427 Thomas-Fermi screening length, 379 Three-step model, 264 Time incoherence, 203 Transition state, 540 577 Transmission electron microscopy (TEM), 101 True secondary background, 266 True secondary electrons, 110 Truncated bulk, 253 Tunneling junction, 455 Tunnel magnetoresistance, 514 Turbomolecular pump, Two-dimensional electron gas FET (TEGFET), 414 Two-dimensional phase transitions, 531 U Ultrahigh vacuum (UHV), UV discharge lamp, 315 UV photoemission spectroscopy (UPS), 263 V Valence band offsets, 398 Van der Waals bonding, 518 Van der Waals equation, 534 Van der Waals interaction, 518 Vapor pump, 11 Varactor, 408 VIGS, see Virtual induced gap states (VIGS) Virtual induced gap states (VIGS), 386, 394 Vollmer-Weber, 90 W Weak link, 455 Work-function changes, 525 Work functions, 378 Wulff plot, 70 X X-ray monochromator, 317 X-ray photoemission spectroscopy (XPS), 263 Z ZnO surfaces, 352 ... this book (formerly entitled Surfaces and Interfaces of Solid Materials”) more emphasis is placed on the relation between the surfaces, interfaces and thin films, and on newly discovered phenomena... edition of Solid Surfaces, Interfaces and Thin Films has been used meanwhile as a standard textbook around the world at many universities and research institutions Even though surface and interface... bounded by a solid solid interface and by its surface (film–vacuum interface) The properties of such a thin film are thus basically determined by the properties of its two interfaces Thin- film