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Bibliographische Detailangaben
Titel:Solid state physics
problems and solutions
Von: Laszlo Mihaly ; Michael C. Martin
Person: Mihály, László
1949-
Verfasser
aut
Martin, Michael C.
Hauptverfassende: Mihály, László 1949- (VerfasserIn), Martin, Michael C. (VerfasserIn)
Format: Buch
Sprache:Englisch
Veröffentlicht: Weinheim WILEY-VCH 2009
Ausgabe:2., rev. and enl. ed.
Schriftenreihe:Physics textbook
Schlagworte:
Solid state physics
Solid state physics > Problems, exercises, etc
Festkörperphysik
Aufgabensammlung
Online-Zugang:http://d-nb.info/988812509/04
http://deposit.dnb.de/cgi-bin/dokserv?id=3112974&prov=M&dok_var=1&dok_ext=htm
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Beschreibung:XVIII, 315 S. graph. Darst.
ISBN:9783527408559
Internformat

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Datensatz im Suchindex

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adam_text Contents Preface to the Second Edition XV Preface to the First Edition XVII Part I Problems 1 1 Crystal Structures 3 1.1 Problem: Symmetries 8 1.2 Problem: Rotations 8 1.3 Problem: Copper Oxide Layers 9 1.4 Problem: Graphite 10 1.5 Problem: Structure of AxC60 10 1.6 Problem: hep and jec Structures 10 1.7 Problem: hep and bec Structures 2 2 1.8 Problem: Structure Factor of AxC60 11 1.9 Problem: Neutron Diffraction Device 11 1.10 Problem: Linear Array of Emitters: Finite Size Effects 11 1.11 Problem: Linear Array of Emitters: Superlattice 12 1.12 Problem: Powder Diffraction of hep and fee Crystals 12 1.13 Problem: Momentum Resolution 12 1.14 Problem: Finite Size Effects 12 1.15 Problem: Random Displacement 13 1.16 Problem: Vacancies 13 1.17 Problem: Integrated Scattering Intensity 13 2 Interatomic Forces and Lattice Vibrations 15 2.1 Problem: Madelung Constant 19 2.2 Problem: NaCl Bulk Modulus 19 2.3 Problem: Madelung with Screened Potential 19 2.4 Problem: Triple-axis Spectrometer 19 2.5 Problem: Phonons in Silicon 20 2.6 Problem: Linear Array of Emitters. Phonons 20 VI Contents 2.7 Problem: Long-range Interaction 21 2.8 Problem: Mass Defect 21 2.9 Problem: Debye Frequency 21 2.10 Problem: Vibrations of a Square Lattice 21 2.11 Problem: Grüneisen Parameter 22 2.12 Problem: Diatomic Chain 22 2.13 Problem: Damped Oscillation 23 2.14 Problem: Two-dimensional Debye 23 2.15 Problem: Soft Optical Phonons 23 2.16 Problem: Soft Phonons Again 23 2.17 Problem: Nanowire Phonons 24 3 Electronic Band Structure 25 3.1 Problem: Nearly Free Electrons in One Dimension 30 3.2 Problem: Eigenfunctions of Nearly Free Electrons in One Dimension 30 3.3 Problem: Tight-binding Hamiltonian 31 3.4 Problem: Nearly Free Electrons in Dirac-delta Potentials 31 3.5 Problem: Tight-binding in Dirac-delta Potentials 31 3.6 Problem: Dirac-delta Potentials 32 3.7 Problem: Band Overlap 32 3.8 Problem: Nearly Free Electrons in Two Dimensions 32 3.9 Problem: Nearly Free-electron Bands 33 3.10 Problem: Instability at the Fermi Wavenumber 33 3.11 Problem: Electrons in 2D Nearly Free-electron Band 33 3.12 Problem: Square Lattice 34 3.13 Problem: Tight-binding Band in Two Dimensions 34 3.14 Problem: Electrons in 2D Tight-binding Band 34 3.15 Problem: Dirac-delta Potentials in Two Dimensions 34 3.16 Problem: Graphene 35 3.17 Problem: Effective Mass 35 3.18 Problem: Cyclotron Frequency 35 3.19 Problem: de Haas-van Alphen 35 3.20 Problem: Fermi Energy 36 4 Density of States 37 4.1 Problem: Density of States 39 4.2 Problem: Two-dimensional Density of States 40 4.3 Problem: Two-dimensional Tight Binding 40 4.4 Problem: Tight Binding from One to Three Dimensions 40 4.5 Problem: Crossover to Quasi-one-dimensional Metal 41 4.6 Problem: Phonon Mode of Two-dimensional System 42 4.7 Problem: Saddle Point 42 4.8 Problem: Density of States in Superconductors 43 4.9 Problem: Energy Gap 43 Contents VII 4.10 Problem: Density of States for Hybridized Bands 43 4.11 Problem: Infinite-dimensional DOS 44 4.12 Problem: Two-to Three-dimensional Crossover 44 4.13 Problem: One-to Two-dimensional Crossover 45 4.14 Problem: Carbon Nanotube 45 5 Elementary Excitations 47 5.1 Problem: Tight-binding Model 50 5.2 Problem: Impurity State in the One-dimensional Tight-binding Model 51 5.3 Problem: Hybridization of Energy Bands 51 5.4 Problem: Polarons 52 5.5 Problem: Polaritons 52 5.6 Problem: Excitons 52 5.7 Problem: Holstein-PrimakofF Transformation 53 5.8 Problem: Dyson-Maleev Representation 53 5.9 Problem: Spin Waves 53 5.10 Problem: Spin Waves Again 54 5.11 Problem: Anisotropie Heisenberg Model 54 5.12 Problem: Solitons 54 5.13 Problem: Dirac Fermions in Graphene 56 6 Thermodynamics of Noninteracting Quasiparticles 57 6.1 Problem: Specific Heat of Metals and Insulators 64 6.2 Problem: Number of Phonons 64 6.3 Problem: Energy of the Phonon Gas 64 6.4 Problem: Bulk Modulus of the Phonon Gas 64 6.5 Problem: Phonons in One Dimension 64 6.6 Problem: Electron-Hole Symmetry 65 6.7 Problem: Entropy of the Noninteracting Electron Gas 65 6.8 Problem: Free Energy with Gap at the Fermi Energy 65 6.9 Problem: Bulk Modulus at Γ = 0 66 6.10 Problem: Temperature Dependence of the Bulk Modulus 66 6.11 Problem: Chemical Potential of the Free-electron Gas 66 6.12 Problem: EuO Specific Heat 66 6.13 Problem: Magnetization at Low Temperatures 66 6.14 Problem: Electronic Specific Heat 66 6.15 Problem: Quantum Hall Effect 67 7 Transport Properties 69 7.1 Problem: Temperature-dependent Resistance 76 7.2 Problem: Conductivity Tensor 76 7.3 Problem: Montgomery Method 76 7.4 Problem: Anisotropie Layer 77 7.5 Problem: Two-charge-carrier Drude Model 78 VIII Contents 7.6 Problem: Thermal Conductivity 78 7.7 Problem: Residual Resistivity 78 7.8 Problem: Electric and Heat Transport 79 7.9 Problem: Conductivity of Tight-binding Band 79 7.10 Problem: Hall Effect in Two-dimensional Metals 80 7.11 Problem: Free-electron Results from the Boltzmann Equations 80 7.12 Problem: p -п Junctions 80 7.13 Problem: Mott-Ioffe-Regel 81 8 Optical Properties 83 8.1 Problem: Reflectivity and Transmission: Multiple Interfaces 93 8.2 Problem: Group Velocity 93 8.3 Problem: Tinkham Formula 94 8.4 Problem: Transmission of a Thin Superconductor 94 8.5 Problem: Fourier Transform Infrared Spectroscopy 95 8.6 Problem: Sum Rule: Dielectric Constant 96 8.7 Problem: Optical Mode of KBr 96 8.8 Problem: Direct-gap Semiconductor 96 8.9 Problem: Inversion Symmetry 97 8.10 Problem: Frequency-dependent Conductivity 97 8.11 Problem: Frequency-dependent Response of a Superconductor 97 8.12 Problem: Optical Conductivity Tensor 98 8.13 Problem: Joint Density of States in One Dimension 98 8.14 Problem: One-dimensional Semiconductor 98 8.15 Problem: Conductivity of Graphene 99 8.16 Problem: Biodi Oscillations 99 9 Interactions and Phase Transitions 101 9.1 Problem: Spontaneous Polarization 205 9.2 Problem: Divergent Susceptibility 206 9.3 Problem: Large-U Hubbard Model 106 9.4 Problem: Infinite-range Hubbard Model 207 9.5 Problem: Stoner Model 107 9.6 Problem: One-dimensional Electron System 107 9.7 Problem: Peierls Distortion 20S 9.8 Problem: Singularity at 2kF 208 9.9 Problem: Susceptibility of a One-dimensional Electron Gas 209 9.10 Problem: Critical Temperature in Mean Field Approximation 209 9.11 Problem: Instability of Half-filled Band 209 9.12 Problem: Screening of an Impurity Charge 220 9.13 Problem: Fermi Surface Nesting in Two Dimensions 220 9.14 Problem: Fermi Surface Nesting in Quasi-one-dimension 111 9.15 Problem: Anderson Model 222 9.16 Problem: Collective Jahn-Teller Distortion 113 Contents IX ΊΟ Mesoscopic and Nanoscale Systems 115 10.1 Problem: Differential Conductance of a Tunnel Junction 122 10.2 Problem: Sharvin Formula 122 10.3 Problem: Ballistic Transport 123 10.4 Problem: Tunneling from a Ballistic Conductor 123 10.5 Problem: Reflectivity of a Lattice Defect 124 10.6 Problem: Two Scatterers: Incoherent Propagation 125 10.7 Problem: Two Scatterers: Coherent Propagation 125 10.8 Problem: Strong Localization 126 10.9 Problem: Coulomb Blockade 126 10.10 Problem: Single-atom Transistor 127 Partii Solutions to Problems 129 Π Crystal Structures 131 11.1 Solution: Symmetries 131 11.2 Solution: Rotations 131 11.3 Solution: Copper Oxide Layers 132 11.4 Solution: Graphite 133 11.5 Solution: Structure of АуСбо 133 11.6 Solution: hep andate Structures 134 11.7 Solution: hep and bee Structures 135 11.8 Solution: Structure Factor of AxC60 136 11.9 Solution: Neutron Diffraction Device 337 11.10 Solution: Linear Array of Emitters, Finite Size Effects 137 11.11 Solution: Linear Array of Emitters: Superlattice 139 11.12 Solution: Powder Diffraction of hep and fee Crystals 140 11.13 Solution: Momentum Resolution 342 11.14 Solution: Finite Size Effects 143 11.15 Solution: Random Displacement 245 11.16 Hint: Vacancies 346 11.17 Hint: Integrated Scattering Intensity 246 12 Interatomic Forces and Lattice Vibrations 247 12.1 Solution: Madelung Constant 247 12.2 Solution: NaCl Bulk Modulus 149 12.3 Hint: Madelung with Screened Potential 252 12.4 Solution: Triple-axis Spectrometer 252 12.5 Solution: Phonons in Silicon 252 12.6 Solution: Linear Array of Emitters: Phonons 252 12.7 Hint: Long-range Interaction 252 12.8 Solution: Mass Defect 153 12.9 Solution: Debye Frequency 254 12.10 Solution: Vibrations of a Square Lattice 155 12.11 Solution: Grüneisen Parameter 256 Χ Ι Contents 12.12 Solution: Diatomic Chain 157 12.13 Hint: Damped Oscillation 159 12.14 Solution: Two-dimensional Debye 159 12.15 Solution: Soft Optical Phonons 160 12.16 Hint: Soft Phonons Again 162 12.17 Solution: Nanowire Phonons 162 13 Electronic Band Structure 163 13.1 Solution: Nearly Free Electrons in One Dimension 163 13.2 Solution: Eigenfunctions of Nearly Free Electrons in One Dimension 164 13.3 Solution: Tight-binding Hamiltonian 366 13.4 Solution: Nearly Free Electrons in Dirac-delta Potentials 166 13.5 Solution: Tight binding in Dirac-delta Potentials 166 13.6 Solution: Dirac-delta Potentials 168 13.7 Solution: Band Overlap 171 13.8 Solution: Nearly Free Electrons in Two Dimensions 172 13.9 Solution: Nearly Free-electron Bands 174 13.10 Solution: Instability at the Fermi Wavenumber 174 13.11 Solution: Electrons in 2D Nearly Free-electron Band 176 13.12 Solution: Square Lattice 178 13.13 Solution: Tight-binding Band in Two Dimensions 179 13.14 Solution: Electrons in 2D Tight-binding Band 180 13.15 Solution: Dirac-delta Potentials in Two Dimensions 181 13.16 Hint: Graphene 181 13.17 Hint: Effective Mass 182 13.18 Hint: Cyclotron Frequency 184 13.19 Solution: de Haas-van Alphen 184 13.20 Hint: Fermi Energy 184 14 Density of States 187 14.1 Solution: Density of States 187 14.2 Solution: Two-dimensional Density of States 187 14.3 Solution: Two-dimensional Tight-binding 188 14.4 Solution: Tight-binding from One to Three Dimensions 189 14.5 Solution: Crossover to Quasi-one-dimensional Metal 191 14.6 Solution: Phonon Mode of Two-dimensional System 193 14.7 Solution: Saddle Point 194 14.8 Solution: Density of States in Superconductors 196 14.9 Solution: Energy Gap 397 14.10 Solution: Density of States for Hybridized Bands 197 14.11 Solution: Infinite-dimensional DOS 199 14.12 Solution: Two- to Three-dimensional Crossover 200 14.13 Solution: One-to Two-dimensional Crossover 201 14.14 Solution: Carbon Nanotube 202 Contents XI 15 Elementary Excitations 205 15.1 Solution: Tight-binding Model 203 15.2 Solution: Impurity State in the One-dimensional Tight-binding Model 205 15.3 Solution: Hybridization of Energy Bands 206 15.4 Solution: Polarons 208 15.5 Solution: Polaritons 210 15.6 Hint: Excitons 211 15.7 Solution: Holstein-PrimakofFTransformation 212 15.8 Hint: Dyson-Maleev Representation 212 15.9 Solutions: Spin Waves 212 15.10 Solution: Spin Waves Again 214 15.11 Solution: Anisotropie Heisenberg Model 214 15.12 Hint: Solitons 215 15.13 Solution: Dirac Fermions in Graphene 216 16 Thermodynamics of Noninteracting Quasiparticles 217 16.1 Solution: Specific Heat of Metals and Insulators 217 16.2 Solution: Number of Phonons 227 16.3 Solution: Energy of the Phonon Gas 238 16.4 Solution: Bulk Modulus of the Phonon Gas 220 16.5 Hint: Phonons in One Dimension 221 16.6 Solution: Electron-Hole Symmetry 221 16.7 Solution: Entropy of the Noninteracting Electron Gas 223 16.8 Solution: Free Energy with Gap at the Fermi Energy 224 16.9 Solution: Bulk Modulus at Γ = 0 226 16.10 Solution: Temperature Dependence of the Bulk Modulus 226 16.11 Solution: Chemical Potential of the Free-electron Gas 227 16.12 Solution: EuO Specific Heat 229 16.13 Hint: Magnetization at Low Temperatures 230 16.14 Solution: Electronic Specific Heat 230 16.15 Solution: Quantum Hall Effect 232 17 Transport Properties 235 17.1 Solution: Temperature-dependent Resistance 235 17.2 Solution: Conductivity Tensor 236 17.3 Solution: Montgomery Method 238 17.4 Solution: Anisotropie Layer 238 17.5 Solution: Two-charge-carrier Drude Model 240 17.6 Solution: Thermal Conductivity 242 17.7 Hint: Residual Resistivity 243 17.8 Solution: Electric and Heat Transport 243 17.9 Solution: Conductivity of Tight-binding Band 244 XII Contents 17.10 Solution: Hall Effect in Two-dimensional Metals 246 17.11 Solution: Free-electron Results from the Boltzmann Equations 248 17.12 Solution: p -п Junctions 250 17.13 Solution: Mott-Ioffe-Regel 251 18 Optical Properties 253 18.1 Solution: Reflectivity and Transmission: Multiple Interfaces 253 18.2 Solution: Group Velocity 254 18.3 Solution: Tinkham Formula 255 18.4 Solution: Transmission of a Thin Superconductor 256 18.5 Solution: Fourier Transform Infrared Spectroscopy 257 18.6 Solution: Sum Rule: Dielectric Constant 257 18.7 Solution: Optical Mode of KBr 257 18.8 Solution: Direct-gap Semiconductor 258 18.9 Solution: Inversion Symmetry 259 18.10 Solution: Frequency-dependent Conductivity 260 18.11 Solution: Frequency-dependent Response of a Superconductor 263 18.12 Solution: Optical Conductivity Tensor 264 18.13 Solution: Joint Density of States in One Dimension 265 18.14 Solution: One-dimensional Semiconductor 266 18.15 Solution: Conductivity of Graphene 268 18.16 Solution: Bloch Oscillations 269 19 Interactions and Phase Transitions 273 19.1 Solution: Spontaneous Polarization 273 19.2 Solution: Divergent Susceptibility 274 19.3 Solution: Large-U Hubbard Model 275 19.4 Solution: Infinite-range Hubbard Model 278 19.5 Hint: Stoner Model 279 19.6 Solution: One-dimensional Electron System 279 19.7 Solution: Peierls Distortion 281 19.8 Solution: Singularity at 2fcF 282 19.9 Solution: Susceptibility of a One-dimensional Electron Gas 283 19.10 Solution: Critical Temperature in Mean Field Approximation 284 19.11 Solution: Instability of Half-filled Band 284 19.12 Solution: Screening of an Impurity Charge 285 19.13 Solution: Fermi Surface Nesting in Two Dimensions 287 19.14 Solution: Fermi Surface Nesting in Quasi One Dimension 288 19.15 Solution: Anderson Model 291 19.16 Solution: Collective Jahn-Teller Distortion 294 20 Mesoscopic and Nano-scale Systems 297 20.1 Solution: Differential Conductance of a Tunnel Junction 297 20.2 Solution: Sharvin Formula 297 20.3 Solution: Ballistic Transport 298 Contents XIII 20.4 Solution: Tunneling from a Ballistic Conductor 299 20.5 Solution: Reflectivity of a Lattice Defect 299 20.6 Solution: Two Scatterers: Incoherent Propagation 300 20.7 Solution: Two Scatterers: Coherent Propagation 301 20.8 Solution: Strong Localization 301 20.9 Solution: Coulomb Blockade 302 20.10 Solution: Single-atom Transistor 303 References 305 Index 307
any_adam_object 1
author Mihály, László 1949-
Martin, Michael C.
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id DE-604.BV035002693
illustrated Illustrated
indexdate 2024-12-20T13:17:45Z
institution BVB
isbn 9783527408559
language English
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physical XVIII, 315 S. graph. Darst.
publishDate 2009
publishDateSearch 2009
publishDateSort 2009
publisher WILEY-VCH
record_format marc
series2 Physics textbook
spellingShingle Mihály, László 1949-
Martin, Michael C.
Solid state physics problems and solutions
Solid state physics
Solid state physics Problems, exercises, etc
Festkörperphysik (DE-588)4016921-2 gnd
subject_GND (DE-588)4016921-2
(DE-588)4143389-0
title Solid state physics problems and solutions
title_auth Solid state physics problems and solutions
title_exact_search Solid state physics problems and solutions
title_full Solid state physics problems and solutions Laszlo Mihaly ; Michael C. Martin
title_fullStr Solid state physics problems and solutions Laszlo Mihaly ; Michael C. Martin
title_full_unstemmed Solid state physics problems and solutions Laszlo Mihaly ; Michael C. Martin
title_short Solid state physics
title_sort solid state physics problems and solutions
title_sub problems and solutions
topic Solid state physics
Solid state physics Problems, exercises, etc
Festkörperphysik (DE-588)4016921-2 gnd
topic_facet Solid state physics
Solid state physics Problems, exercises, etc
Festkörperphysik
Aufgabensammlung
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