Metal-Insulator Transitions

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Transcription:

Metal-Insulator Transitions Second Edition N. F. MOTT Emeritus Cavendish Professor of Physics University of Cambridge Taylor & Francis London New York Philadelphia

Contents Preface to Second Edition v Introduction 1 1 Non-Interacting Electrons 5 1 Free electrons in metals 5 2 Electrons in the conduction band of a crystal 7 3 Metals and non-metals in the approximation of nearly free electrons 19 4 Metal-insulator transitions caused by overlapping bands 20 5 The field round an impurity; Screening and Virtual bound states 23 6 The mean free path 26 7 Disordered Systems; localization, the Anderson transition and the mobility edge 35 8 Weak localization; Bergmann's treatment 39 9 Conductives belowff min near the Anderson metal-insulator transition 41 10 The inelastic diffusion length 42 11 Cerium sulphide 43 12 Behaviour of the localization length 44 13 Scaling theory 45 14 Proof of the Kawabata formula 47 15 Hopping conduction 50 16 Pseudogaps and metal-insulator transitions 55 2 Interacting Electrons 59 1 Introduction 59 2 Interaction with phonons and polaron formation 59 3 Bipolarons 68 vü

vm CONTENTS 4 The Peierls transition 69 5 The Fermi energy and the Fermi surface 70 6 Electron-electron collisions (Landau-Baber scattering) 72 7 Excitons 74 8 Excitons in metals 75 9 The Hubbard intra-atomic energy 80 10 Effect of the Hubbard U on Anderson localization 82 3 Magnetic Moments 85 1 Introduction 85 2 Antiferromagnetism 86 3 Antiferromagnetism and ferromagnetism in transitional-metal Compounds 89 4 The conduction band of an antiferromagnetic non-metal; spin polarons 92 5 Magnetic semiconductors 93 6 A degenerate electron gas in the presence of a magnetic impurity; the RKKY interaction 96 7 Localized moments in metals 99 8 The Kondo effect 104 9 Heavy-fermion materials 109 10 Transitional metals and their alloys 109 11 Ferromagnetic and nearly ferromagnetic metals 111 12 Amorphous antiferromagnets and spin glasses 117 4 Metal-Insulator Transitions in Crystals 123 1 Introduction 123 2 Band-crossing transitions 124 3 Mott-Hubbard transitions 127 4 Spin polarons and the Hubbard bands 130 5 A degenerate gas of spin polarons; antiferromagnetic metals 131 6 Disappearance of the moments; the Brinkman-Rice highly correlated gas 133 7 Slater's band-theory treatment of Mott-Hubbard insulators 136 8 A generalization of the concept of a Mott transition 138 9 Effect of temperature on antiferromagnetic insulators and highly correlated metals 139 10 Resistivity of a highly correlated gas 144 Interacting Electrons in Non-Crystalline Systems. Impurity Bands and Metal-Insulator Transitions in Doped Semiconductors 145 1 Introduction 145 2 Impurity conduction; metal-insulator transitions in impurity bands 146 3 Behaviour near the metal-insulator transition 150 4 Effect of interaction on the density of states and conductivity 152 5 The T 113 behaviour of the conductivity near the transition 154

6 Deduction of the Altshuler-Aronov correction term in the density of states 155 7 The metal-insulator transition in Si:P; the index \=\ 156 8 The dielectric catastrophe 157 9 Effect of a magnetic field 160 10 Specific heat near the transition 164 11 Effect of spin-orbit interaction 165 12 Evidence that the transition lies in an impurity band, and that the two Hubbard bands have merged 166 13 A degenerate gas of small polarons 168 14 Anderson versus band-crossing or Mott transitions 169 6 Metal-Insulator Transitions in Transitional-Metal Oxides 171 1 Introduction 171 2 Nickel oxide, cobalt oxide and manganese oxide 171 3 Titanium trioxide (Ti 2 0 3 ) 174 4 Vanadium sesquioxide (V 2 0 3 ) 176 5 Vanadium dioxide (V0 2 ) 185 6 Nickel sulphide (NiS) 189 7 Some metallic transitional-metal Compounds with ferro- or antiferromagnetic order 193 7 Some Metal-Insulator Transitions in Various Materials 199 1 Introduction 199 2 Lanthanum-strontium vanadate (Laj-^S^VOj) 199 3 Vanadium monoxide (VO x ) 202 4 Magnesium-bismuth amorphous films 205 5 Tungsten bronzes 208 6 Metal-rare-gas Systems 209 8 Wigner and Verwey Transitions 213 1 Wigner crystallization 213 2 Fe 3 0 4 (magnetite) 215 3 Ti 4 0 7 219 9 High-Temperature Superconductors and the Metal-Insulator Transition 221 1 Introduction 221 2 The metal-insulator transition in a doped antiferromagnetic insulator 222 3 Magnetic bipolarons 224 4 Two-dimensional Systems 226

x CONTENTS 10 MetaHnsulator Transitions in Liquid Systems 229 1 Introduction 229 2 Absence of quantum interference in liquids; experimental evidence 232 3 Absence of quantum interference; theory 237 4 Fluid mercury and caesium at high temperatures 238 5 Metal-ammonia Solutions 242 6 Dangling bonds and valence alternation pairs 254 7 Amorphous metals; the quantum interference and interaction effects 257 References 261 Author Index 279 Subject Index 285