Tinkham M. — Introduction to superconductivity :: Электронная библиотека попечительского совета мехмата МГУ

Главная Ex Libris Книги Журналы Статьи Серии Каталог Wanted Загрузка ХудЛит Справка Поиск по индексам Поиск Форум

Авторизация

Поиск по указателям

Tinkham M. — Introduction to superconductivity

Обсудите книгу на научном форуме

Нашли опечатку?
Выделите ее мышкой и нажмите Ctrl+Enter

Название: Introduction to superconductivity

Автор: Tinkham M.

Аннотация:

Well known for its accessibility to graduate students and experimental physicists, this volume emphasizes physical arguments and minimizes theoretical formalism. This second edition features improvements by the author that enhance its user-friendliness and value as a reference. Starting with a historical overview, the text proceeds with an introduction to the electrodynamics of superconductors and presents expositions of the Bardeen-Cooper-Schrieffer and Ginzburg-Landau theories. Additional subjects include magnetic properties of classic type II superconductors; the Josephson effect; fluctuation effects in classic superconductors; the high-temperature superconductors; and nonequilibrium superconductivity.

Язык:

Рубрика: Физика/Физика твёрдого тела/Приложения/

Статус предметного указателя: Готов указатель с номерами страниц

ed2k: ed2k stats

Издание: 2nd edition

Год издания: 1996

Количество страниц: 454

Добавлена в каталог: 07.10.2005

Операции: Положить на полку | Скопировать ссылку для форума | Скопировать ID

Предметный указатель

Halperin, B.      1 210 292
Halperin, W. P.      297
Hanna, A. E.      283
Harden, J. L.      162
Hardy, W. N.      381n.
Harris, R. E.      30 204n.
Haviland, D. B.      250n.
Heavy fermion superconductors      382—383
Hebel — Slichter peak      84—86 381—382
Hekking, F. W. J.      285
Helmholtz free energy      3 22 65—66 121 124 158—159 326-327
Hempstead, C. F.      185
Hergenrother, J. M.      270 272 286
Hess, H. F.      389
High-frequency electrodynamics      37—42 86—89 370-373
High-frequency electrodynamics, Coffey — Clem model      370—373
High-temperature superconductors      16 316—382
High-temperature superconductors, anisotropic Ginzburg — Landau model for      319—330
High-temperature superconductors, anisotropic mass and other parameters      319—322 325
High-temperature superconductors, anomalous properties of      373—383
High-temperature superconductors, anomalous properties of, energy gap properties      378—382
High-temperature superconductors, anomalous properties of, temperature dependence of penetration depth in      380—381
High-temperature superconductors, copper oxide planes and chains in      317
High-temperature superconductors, discovery of      316—317
High-temperature superconductors, evidence for -wave pairing in      376—382
High-temperature superconductors, evidence for -wave pairing in, from flux quantization      376—378
High-temperature superconductors, flux lattice melting field vs. temperature      337 341—342
High-temperature superconductors, flux lattice melting transition      334—344
High-temperature superconductors, flux lattice melting transition 2D vs. 3D      342—344
High-temperature superconductors, flux lattice melting transition, experimental evidence      338—342
High-temperature superconductors, flux lattice melting transition, field vs. temperature      337 341—342
High-temperature superconductors, flux lattice melting transition, model estimate for temperature of      335—338
High-temperature superconductors, flux lattice melting transition, phase diagrams      344
High-temperature superconductors, flux lattice melting transition, relationship to $H_{c2}$       337—338
High-temperature superconductors, granular      363—370
High-temperature superconductors, granular, brick-wall model for      369—370
High-temperature superconductors, granular, effective medium parameters for      364—368
High-temperature superconductors, granular, in relation to continuum models      368—369
High-temperature superconductors, resistive transition in      331—344 (see also Boson glass model; Layered super-conductors; Type II superconductors; Vortex-glass model)
Hilbert, C.      234
Hole creation operators      69
Hot spot in bridge      431
Houghton, A.      338—339 341 344
Hsiang, T. Y.      422
Hu, C. R.      167 400
Huebener, R. P.      36
Hunt, T. K.      126
Hysteresis in critical state      179
Hysteresis losses      190—191
Iansiti, M.      254 258 263
IIS      120 393
Inelastic scattering time      402
Ingold, G. L.      253 254
Instability, thermal      186—187
Interface energy      25—26 120—122
Intermediate state      22—37 123
Intermediate state, laminar model of      26—32
Intermediate state, London’s model for wire above      32—37
Intermediate state, magneto-optic technique for observation of      36
Intermediate state, of flat slab      25—31
Intermediate state, of sphere      31—32
Internal energy      65—66
Isotope effect      47 58
Ivlev, B.      1 432n.
Iye, Y.      333
Jackel, L. D.      430
Jacobs, A. E.      389
Jaycox, J. M.      229
Jellium model      47—48
Johnson, A. T.      250—251 255
Josephson critical current, Ambegaokar — Baratoff formula for      200—201 333
Josephson critical current, in junctions      201—202
Josephson critical current, in metallic weak links      198—201
Josephson effect      196—286
Josephson effect, cos $\gamma$ term in      204
Josephson effect, coupling energy in      198
Josephson effect, frequency relation      14 166 196
Josephson effect, in extended junctions      215—224
Josephson effect, in inhomogeneous junctions      217—218 370
Josephson effect, in presence of magnetic flux      213—224
Josephson effect, pendulum analogy      219—220
Josephson effect, quantum interference of currents      213—218
Josephson effect, time-dependent solutions      221—224
Josephson junction arrays      234—243
Josephson junction arrays, as microwave source      243
Josephson junction arrays, fluxons in      236—241
Josephson junction arrays, fluxons in, pinning of      240—242
Josephson junction arrays, frustration in      235
Josephson junction arrays, giant Shapiro steps in      242—243
Josephson junction arrays, in magnetic field      239—242
Josephson junction arrays, in rf fields      242—243
Josephson junction arrays, in strongly commensurate fields      241—242
Josephson junction arrays, Kosterlitz — Thouless transition in      237—239
Josephson junction arrays, plaquettes in      234—235
Josephson junction arrays, screening length in      236
Josephson junction arrays, vortices in      236—241
Josephson junctions, characteristics of      205—211
Josephson junctions, capacitive mass parameter      205
Josephson junctions, critical current of, fluctuation effects on      198 207—209
Josephson junctions, damping parameter of      204
Josephson junctions, fluxons in      218—224
Josephson junctions, hysteretic      206
Josephson junctions, plasma frequency of      204 223
Josephson junctions, quality factor of      204
Josephson junctions, retrapping current of      206 209—210
Josephson junctions, rf-driven      211—214
Josephson junctions, slow waves in      222—224
Josephson junctions, small      see Double tunnel junction circuit; Small Josephson junctions
Josephson junctions, solitons in      218—224
Josephson junctions, solitons in, pendulum analog for      219—220
Josephson junctions, types of      197
Josephson junctions, zero-field steps in      224
Josephson penetration depth      219
Josephson vortices      216 218 219
Josephson vortices, pinning of      218
Josephson, B. D.      14 69 196
Joyez, P.      278
K $\ddot{u}$ mmel, R.      389
Kadin, A. M.      430—431
Kamerlingh Onnes, H.      1 2 316
Kaplan, S. B.      407
Karrai, K.      114
Kautz, R. L.      253
Keller, J.      314
Kes, P. H.      346
Ketchen, M. B.      228
Kim, Y. B.      173 180 183 185
Kinetic energy of current      113 123—125
Kirchner, H.      30
Klapwijk, T. M.      409 425—427
Kleiner, W. H.      146
Koch, R. H.      227 358—360
Kogan, V. G.      326—327 330—331
Kommers, T.      409
Korenman, V.      314
Koshelev, A. E.      343
Kosterlitz — Thouless transition, in arrays      237—239
Kosterlitz — Thouless transition, in films      294—295
Kosterlitz — Thouless transition, in layered superconductor      344
Kramer, L.      432n.
Kramers — Kronig relations      88 247
Krusin — Elbaum, L.      347—348
Kulik, I. O.      201
Kunchur, M. N.      170
Kurkij $\ddot{a}$ rvi, J.      305—306
Kuzmin, L. S.      250n.
Kwok, W. K.      340—341 346
Lafarge, P.      273
LAMH theory      292—293
Laminar model      26—32

Landau branching model      30
Landau levels      134
Landau, L. D.      9 25 30 122
Langer, J. S.      289—292
Langevin force      309
Larkin, A. I.      16 199 312—313 321 398 405 418 420
Larkin-Ovchinnikov theory      see Collective pinning
Laurmann, E.      107
Lawrence — Doniach model of layered superconductors      16 308 318—326 342
Layered superconductors, anisotropic Ginzburg — Landau description      319—330
Layered superconductors, crossover to two-dimensional behavior      322—326 330
Layered superconductors, Helmholtz free energy of      326—327
Layered superconductors, irreversibility line in      332—333
Layered superconductors, Lawrence — Doniach model of      16 308 318—326 342
Layered superconductors, lock-in transition in      330—331
Layered superconductors, magnetization of      326—331
Layered superconductors, scaling to isotropic model      321—322
Layered superconductors, torque in magnetic field      328—330
Ledvij, M.      330—331
Lee, P. A.      305—306
Lehoczky, S. L. (A.)      315
Levine, J. L.      126 397
Lewin, J. D.      187 194
Lifetime, of persistent currents      2 180 185 403
Lifetime, of quasi-particles      86 402
Likharev, K. K.      201 274 276
Lindemann criterion for melting      336 343
Lindhard, J.      115
Little — Parks experiment      128—130
Little, W. A.      127 290
Lobb, C. J.      238n. 240 364n.
London equations      4—6 18—21 37
London gauge      6113 130 150n.
London penetration depth, calculation of      90—93 113 437—441
London, F.      14 33 127
Lorentz force      13 155 163—167 177 354
Lu, J. G.      270 272
Lukens, J. E.      292
M $\ddot{u}$ hlschlegel, B.      65 103
M $\ddot{u}$ ller, K. A.      1 16 316 322
Maassen van den Brink, A.      286
Macroscopic quantum tunneling, damping effect on      262—263
Macroscopic quantum tunneling, of charge      284
Macroscopic quantum tunneling, of phase      259—264
Magnetic perturbations, effect of, on density of states      390—399
magnetization      20 155—162 302—308 326-331
Magnetization curve, area under      20 161
Magnetization, at intermediate flux density      157—159
Magnetization, at low flux density      156—157
Magnetization, fluctuation-induced      302—308
Magnetization, near $H_{c2}$       160—161
Magnetization, of layered superconductors      326—331
Magneto-optic technique for observation of intermediate state      36
Magnetometers      see SQUID devices
Magnets for time-varying fields      187—195
Maki terms in fluctuation conductivity      313—314
Maki, K.      161 162 167 306 313—315 390—392 401
Maley, M. P.      354
Malozemoff, A. P.      333 369
Mannhart, J.      369
Mansky, P. A      331
Mapother, D. E.      66
Martinez, J. C.      329—331
Martinis, J. M.      253 263 277
Mason, W. P.      84
Masuda,Y.      86
Mathai, A.      378
Matricon, J.      167 349 389
Mattis, D. C.      87
Matveev, K. A.      278
McCumber, D. E.      204 291 292
McGrath, W. R.      247n.
McLachlan, D. S.      135 138
McMillan, W. L.      58 79
Meissner effect      2—3 5 19—22 303
Meissner effect, in Josephson junctions      219—220
Meissner effect, transverse, in layered superconductors      330—331
Meissner, W.      2
Mendelssohn, K.      8
Mercereau, J. E.      422
Metastable equilibrium      403
Meyer, J. D.      427—428
Miller, P. B.      102
Millstein, J.      397—399
Minnhagen, P.      237n.
Missing area in sum rule      88 99
Mitescu, C. D.      126
Mixed state      12 123 143—147 155—162
Model-hamiltonian      59
Mooij, J. M.      238 409
Morse, R. W.      83
Mukherjee, B. K.      35
Multifilamentary superconductors      187—195
Murakami, M.      347
Nazarov, Yu. V.      269 285
Nelson, D. R.      347 361
Newbower, R. S.      292—293
Newrock, R. S.      239n.
Noise, from flux motion      174
Noise, in SQUID      227—228 232 234
Nonequilibrium superconductivity      15 403—432
Nonlocal electrodynamic response      5 91 93—96 115
Nonlocal electrodynamic response, calculation of      93—96
Nonlocal electrodynamic response, Chambers      6 96
Normal core of vortex      167—168
Normal electrons      37 85
Nuclear relaxation      84—86
Nucleation, at surfaces at $H_{c3}$       135—139
Nucleation, in bulk samples at $H_{c2}$       134—135
Nucleation, in films      139—143
Nucleation, in films, angular dependence      139—141
Ochsenfeld, R.      2
Octavio, M.      418—421 427
Ohmic conduction channel      38
Omel'yanchuk, A. N.      201
Order parameter      55 112
Orlando, T. M.      238 240n.
Orthodox theory of single-electron tunneling      280—283
Oscillator strength sum rule      38 88 99 1 15
Otter, F. A.      176
Ovchinnikov, Yu. V.      16
Pair creation operators      69
Pair-breaking perturbations      390—394
Pairing hamiltonian      53
Pairing potential      385—388
Pals, J. A.      414
Pancake vortices      327 330 334 342
Paramagnetic current term      90
Parks, R. D.      127 314
Pastoriza, H.      335n.
Paterno, G.      218
Patton, B. R.      305 314
Payne, M. G.      305—306
Peak effect      352
Pearl, J.      105 106
Penetration depth      4—6 18 100—108 437-441
Penetration depth, by Fourier analysis      101—102 437—441
Penetration depth, dependence on magnetic field      132
Penetration depth, impurities, effect of      96—97 102
Penetration depth, in arrays      236
Penetration depth, in extreme anomalous limit      102 440
Penetration depth, in high-temperature superconductors      108
Penetration depth, in local approximation      102 440
Penetration depth, in Pippard superconductors      100—101
Penetration depth, in thin films      104—106
Penetration depth, mean free path, effect of      96—97 102
Penetration depth, measurement of      106—108
Penetration depth, parallel vs. perpendicular field      105—106
Penetration depth, temperature dependence of      103—104 380—381
Penetration depth, theory of      100—106 437—441

1 2 3

О проекте