Cracknell A.P., Wong K.C. — The Fermi Surface: Its Concept, Determination and Use in the Physics of Metals :: Электронная библиотека попечительского совета мехмата МГУ

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Cracknell A.P., Wong K.C. — The Fermi Surface: Its Concept, Determination and Use in the Physics of Metals

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Название: The Fermi Surface: Its Concept, Determination and Use in the Physics of Metals

Авторы: Cracknell A.P., Wong K.C.

Аннотация:

Everyone knows what a metal is and can describe many of its characteristics. It is safe to say, however, that few people would define a metal as "a solid with a Fermi surface". This may nevertheless be the most meaningful definition of a metal that one can give today; it represents a profound advance in the understanding of why metals behave as they do. The concept of the Fermi surface, developed by quantum physics, provides a precise explanation of the main physical properties of metals: their conduction of electricity and heat, their
hardness and ductility, their lustrous appearance and so on.

Язык:

Рубрика: Физика/

Статус предметного указателя: Готов указатель с номерами страниц

ed2k: ed2k stats

Издание: 1st edition

Год издания: 1973

Количество страниц: 565

Добавлена в каталог: 09.08.2009

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

Предметный указатель

${Al}_{2}{O}_{3}$       162
${AuAl}_{2}$       492
${AuGa}_{2}$       492
${AuIn}_{2}$       492
${AuSb}_{2}$       488—492
${Cd}_{3}{As}_{2}$       492
${ReO}_{3}$       492
${RuO}_{2}$       492
${SiP}_{2}$       492
${V}_{2}{O}_{3}$       513
${V}_{3}Si{$       492
Abarenkov, I. V.      482
Abeles, B.      303
Abrikosov, A. A.      223 300 453
Accidental degeneracies      33 55 66 57 199
Acoustic, cyclotron resonance      207
Acoustic, modes      431 see
Actinides      397—399
Actinium      378 398 see
Adams, E. N.      197
Adiabatic approximation      428 451
AgZn      484 488
Ahn, J.      487 488 489 490 491
Aigrain, P.      413
Alekseevskii, N. E.      263 276 287 295 299 321 322 349 376
Alers, G. A.      224
Alfven waves      207 413 415—416
Alkali metals      24 103 105 165 166 168 201 256—263 508
Alkaline earth metals      153 see “Beryllium” “Calcium” “Magnesium” “Strontium”
Allen, P. B.      466
Allen, W. D.      465
Allison, S. K.      172
Alloys      250—251 483—507
Altmann, S. L.      34 36 86 87 124 268 269 270 272 332 333 334 335 336 337 338 339 340 511
Aluminium      100 103 105 124 153 157 165 166 175 274 275—277 395 466 496
Amar, H.      485 486 488 503
Amundsen, T.      219
Andersen, O. K.      135 273 353 375 396
Anderson, A. C.      476
Anderson, J. R.      141 299 300 345 365 367
Anderson, P. W.      499 503
Andresen, A.      364
Andrew, E. R.      234
Angress, J. F.      435 438 455
Anharmonic interactions      435
Animalu, A. O. E.      111 268 437
Annihilation operator      433—434 456—457 462—464
Anomalous skin effect      24 147 184—190 309 320—321 350 351 404
Antiferromagnetic ordering      347 352—356 359—360 379—381 390—391 397
Antimony      59 245 289—290 300—301 307—311 497 510 512
Antoncik, E.      107
Appelbaum, J. A.      156
Apple ton, A.      607
Argon      75 76 256
Arkhipov, R. G.      611
Arko, A. J.      352 358
Arlinghaus, F. G.      144 485 486 488
ARMs      284
Arrott, A.      352 359
Arsenic      59 289—290 300—301 308—309 311 497 510—512
Asano, S.      355
Asgar, M. A.      362
Ashcroft, N. W.      105 227 276 277 284 453
Asymmorphic space group      see “Non-symmorphic space group”
Atomic units      73—74
Aubrey, J. E.      304
Augmented plane wave method (A. P. W. method)      89 92—95 135 139 279 281—282 298 306 321 332 333 335 336 338 343 345 346 348 350—351 360 365 370—371 375 377 386 387 393 396 398 485
AuSn      492
Austin, B. J.      107 108
Averbach, B. L.      300
Azbel — Kaner cyclotron resonance      204—207 209 240 241
Azbel', M. Ya.      204 205 216 224 236
B. C. S. theory      465—466
Babiskin, J.      224 237
Bacon, G. E.      438
Baer, Y.      158
Bailyn, M.      477 482
Bak, T. A.      112
Balain, K. S.      70
Balla, D.      511
Band structure      8 15 18 27 see “Fermi “Paramagnetic “Relativistic “Rigid-band “Specific
Band structure, and cohesive energy      402—403
Band structure, and electron-electron interactions      416—417
Band structure, and electron-phonon interactions      448 451
Band structure, and metal-insulator transition      509
Band structure, and superconductivity      466
Band structure, and thermoelectric power      482
Band structure, calculations for particular metals      257—259 263 265 268 272 275—277 279—282 285 291—292 294 296—297 299—300 308 309—311 320—322 325—326 332—340 343 345—346 348 350—351 355 359—360 363 365 367 370—371 373 375 376 377 386—387 393 398 486 488
Band structure, experimental investigation      152—156 437
Band structure, for alloys      484 499—503
Band structure, for antiferromagnetic metal      316—317 390—391
Band structure, for ferromagnetic metal      316 363—364 388—390
Band structure, for rare-earth metals      382—386 386
Band structure, for transition metals      312
Band structure, free-electron model      46—58
Band structure, interpolation schemes      112—116
Band structure, methods of calculation      71—112 406—407 451
Band structure, width      410
Bar'yakhtar, V. G.      497
Bar, M.      465
Baraff, G. A.      478
Bardeen, J.      162 465 477
Barium      263 272—274 386 396 466
Barkhausen, H.      416
Barrett, C. S.      256 324 493
Barron, T. H. K.      236
Bassani, F.      108
Batallan, G.      368
Batterman, B. W.      144 364
Baynham, A. C.      412 413 414
Beardsley, G. M.      469
Beattie, A. G.      248
Beck, A.      490
Becker, G. E.      158
Behrendt, D. R.      380
Beletski, V. I.      231
Bell, D. G.      87 124
Bellessa, G.      331
Belson, H. S.      365
Bennemann, K. H.      469
Berglund, C. N.      158
Bergwall, S.      382
Beringer, R.      181
Berko, S.      184
Berlincourt, T. G.      292 308 345 484
Berre, B.      459
Beryllium      21 91 157 175 201 263—265 328
Bethe, H. A.      87 124 257
Bhargava, R. N.      303
BiIn      484 492
Birss, R. R.      7 317
Bismuth      24 59 201 229 231 251 289—290 300—308 311 496 497 510—512
Blackman, M.      226 303
Blake, R. G.      268 269 270
Blatt, F. J.      236
Blatt, J. M.      461
Bleaney, B.      185
Bleaney, B. I.      185
Bloch functions      9 10—11 81 504
Bloch's theorem      2 8 81 96 484 494 499
Bloembergen, N.      143
Bloomfield, P. E.      237
Blount, E. I.      73 197 199 201 459
Boardman, A. D.      412 413 414
Body-centred cubic structure      62 64 67 85 256—257 348
Bogle, T. E.      331
Bogod, Yu. A.      333
Bohm, D.      406 407 409 410
Bohm, H. V.      322 358
Boltzmann distribution      408

Boltzmann's equation      469 471—475 479
Bommel, H. E.      245
Bonsignori, F.      437 477
Born — Mayer repulsion      493
Born — Oppenheimer approximation      see “Adiabatic approximation”
Born — von Karman, or cyclic, boundary conditions      9—10 427
Born, M.      429
Bortolani, V.      437 477
Bose — Einstein distribution      426 467
Bouckaert, L. P.      27 34 38
Bowers, R.      413 440 476
Boyle, D. J.      399
Boyle, W. S.      224 227 253 302 308
Bradley, C. J.      14 17 34. 43 45 87 317 332 333 334 335 338 339 340 468 489
Brandt, G. B.      329 330
Brandt, N. B.      305 497 511 512
Bravais lattice      2 3—4 12 30 34 59 61
Breasts      399
Brewer, L.      403
Brillouin zone      12 14 16—17 18 20 25 27 50—51 59 118 193—194 428 441—442 480—481 see “Extended “Repeated
Brillouin zone, and symmetry      31 112
Brillouin zone, for $Fm3m({O}_{k}^{5})$       35 64 65 319
Brillouin zone, for $Pa3({T}_{h}^{6})$       489
Brillouin zone, for $Pm3m({O}_{h}^{1})$       30 485
Brillouin zone, for ${P6}_{3}/mmc({D}^{4}_{6h})$       66
Brillouin zone, for alloys      494 500
Brillouin zone, for antimony      301 302
Brillouin zone, for arsenic      301 302
Brillouin zone, for bismuth      301 302
Brillouin zone, for chromium      353—356
Brillouin zone, for gallium      278 279
Brillouin zone, for graphite      290—291
Brillouin zone, for hypothetical two-dimensional metal      61—63
Brillouin zone, for mercury      328—329
Brillouin zone, for tin      294
Briscoe, C. V.      469
Brockhouse, B. N.      178 179 436 440
Brooks, H.      101
Brown, E.      197
Brown, R. D.      307
Brun, T. O.      335
Brust, D.      156 158
Bryant, C. A.      165
Brytov, I. A.      157
Budini, P.      ix
Bulk properties      see “Macroscopic properties”
Bullen, T. G.      156
Burdick, G. A.      40 116 321
Burmester, A.      236
Burstein, E.      162
Butler, F. A.      197
Butterflies      328
Button, K. J.      224
Cable, J. W.      379 395
Cadmium      69 70 103 251 255 312 323 324—328 332 386 395 402—403 453 466 497 498
Caesium      124 see
Calcium      75 263 267—272 466 510—512
Callaway, J.      73 91 99 102 258
Caplin, A. D.      223
Capocci, F. A.      288
Carbon      288—294 510—512
Carbotte, J. P.      183 466
Carriers      214 496 see holes”
Casher, A.      43
Catterall, R.      508
Celli, V.      108
Cellular method      85—88 332 333 335 336 337—338
Centre of inversion      44
Cerium      315 378 379 380 382 383 385 386 395 398 see
Chakraborti, D. K.      268
Chambers, R. G.      186 187 188 190 196 197 205 233 234 235 236 237 242 244 253 304 320 459 478
Character tables for crystallographic point groups      37—38
Chatterjee, S.      268
Chipman, D. R.      144 364
Chodorow, M. I.      95
Chollet, L. F.      497
Chromium      160 314 316 343 346—358 359 365 391
Cigar      264 291 295 326 328
Claus, H.      158
Clebsch — Gordan coefficient      133
Cleveland, J. R.      350
Cobalt      1589 160 314 362—365 367—369
Cochran, J. F.      476
Cochran, W.      429 435 436 442
CoFe      492
Cohen, M. H.      107 108 142 197 201 249 259 266 302 305 500 501 502 507
Cohen, M. L.      105 466
Cohesive energy      401—403 410 454
Coleridge, P. T.      252 374 375 376
Coles, B. R.      312 359 478
Collins, J. G.      455 477
Collins, T. C.      125
Combined interpolation scheme      114—116 371
Combley, F. H.      352
Common-band model      see “Rigid-band model”
Compatibility relations      33 39—42 57
Compensated metal      217 290 308 310 490
Compressibility      396
Compton scattering      171—176
Compton, A. H.      172
Condon, J. H.      227 252 267 282 346
Conduction band      289 290 502 see
Conduction-electron spin resonance (C. E. S. R. )      201 309
Conklin, J. B.      137 139
Connolly, J. W. D.      370
Contact potential      223 224 365
Conventional unit cell      4 34
Cook, J. R.      282
Cookie      285—288
Coon, J. B.      287 331
Cooper pairs      465 467
Cooper, B. R.      127
Cooper, D. G.      254
Cooper, L. N.      162 465
Cooper, M.      172
copper      24—25 40 95 116 125—126 127 147 153—154 158 160 161 181 183 186 187 189 205 206 234 255 312 314 319—321 323 348 370 376 403 480 481 482 495 497 501 see
Cornwell, J. F.      89 91 114
Coronet      264
Correlation energy      71 76 406—407 see
Correlation function      see “Interaction function”
Coset representative      29 38 41 42
Cotti, P.      234
Coulson, C. A.      174 290
Counter-helicon      415
Coupling constant      463
Cousins, J. E.      201
Cowan, C. E.      184
Cowley, R. A.      429 435 441
Cracknell, A. P.      viii ix 14 17 26 34 43 45 87 124 127 138 166 201 252 253 263 268 269 272 304 308 317 318 328 345 352 353 357 373 381 382 468 489 511
Craven, J. E.      298
Creation operator      433 434 456—457 462—464
Crown      308—309
Crystal potential      74—81
Curry, C.      507
Cusack, N. E.      234
Cushner, C.      184
Cutler, P. H.      263 264
CuZn      484—488
Cyclotron, frequency      149 191 199 202 210
Cyclotron, mass      23 191 202—203 258 453—454 455
Cyclotron, resonance      201—210 240 261 292 298 308 309 325 327 350 413
D' Haenens, J. P.      244
d. c. size effects      see “Size effects”
Dalton, N. W.      116
Daniel, M. R.      249
Darby, J. K.      477
Datars, W. R.      217 282 288 395
Davies, B. L.      87 317
Davis, H. L.      482
Davis, L. C.      469

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