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Weinberg S. — Gravitation and Cosmology: Principles and Applications of the General Theory of Relativity
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Название: Gravitation and Cosmology: Principles and Applications of the General Theory of Relativity
Автор: Weinberg S.
Аннотация: Now that this book is done I can look back, and identify two purposes which led me to begin writing, and which have guided the work to completion.
One good practical purpose was to bring together and assess the wealth of data provided over the last decade by new techniques in experimental physics and in optical, radio, radar, X-ray, and infrared astronomy. Of course, new data will keep coming in even as the book is being printed, and T cannot hope that this work will remain up to date forever. I do hope, however, that by giving a comprehensive picture of the experimental tests of general relativity and observational cosmology, I will help to prepare the reader (and myself) to understand the new data as they emerge. I have also tried to look a little way into the future, and to discuss what may be the next generation of experiments, especially those based on artificial satellites of the earth and sun.
There was another, more personal reason for my writing this book. In learning general relativity, and then in teaching it to classes at Berkeley and M.I.Т., I became dissatisfied with what seemed to be the usual approach to the subject. I found that in most textbooks geometric ideas were given a starring role, so that a student who asked why the gravitational field is represented by a metric tensor, or why freely falling particles move on geodesies, or why the field equations are generally covariant would come away with an impression that this had something to do with the fact that space-time is a Riemannian manifold.
Of course, this was Kinstein's point of view, and his preeminent genius necessarily shapes our understanding of the theory he created...
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Рубрика: Физика /
Статус предметного указателя: Готов указатель с номерами страниц
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Год издания: 1972
Количество страниц: 685
Добавлена в каталог: 08.04.2011
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Предметный указатель
speed of light (see Light speed)
Spherical symmetry (see Isotropic spaces)
Spiegel, E. A. 608
Spin 47 121—124 233—238
Spin matrices 59—61 369—370
Spin temperature 497—498
Spinor fields 60—61 357 365—366
Spinrad, H. 638
Spitzer, L. 602
Sramek, R. A. 194
Stabell, R. 632
Stability and instability of Einstein cosmology 616
Stability and instability of expanding universe 561—588
Stability and instability of neutron stars 318 321
Stability and instability of stars in general 304 308
Stability and instability of supermassive stars 330
Stability and instability of white dwarfs 316 318
Staelin, D. H. 513
Standard form of an isotropic metric 176—178 183 298 335—338
Starbunov, Yu. N. 545 605
Starkovich, K. S. 513
Starlight density (see Optical background)
Stars 299—335 556 631 Cepheid
Static isotropic metrics 176
Statistical parallax (see Proper motion and proper motion distance)
Steady-state cosmology 459—464 616—620
Stecker, F. W. 604 608
Stefan — Boltzmann law 57 325 509 533 589 636
Steigman, G. 350
Stephens, W. E. 599
Stern, W. A. 600
Stewart, J. M. 608
Stimulated emission 287 492 497
Stokes, R. A. 513 603
Stokes’s theorem 119 135
Stone, M. L. 210
Stothers, R. B. 606
Straight spectra (see Spectral index)
Stratton, J. A. 120
StrBmgren, B. 605
Streater, R. F. 64
Strittmayer, P. A. 465
Strong interactions in neutron stars 324
Strong interactions in very early universe 588—592
Strong principle of equivalence 69
Strong, I. B. 606
Suess, H. E. 605
Summation convention 26
Sun, age 556
Sun, angular momentum 232
Sun, change in luminosity 631
Sun, deflection of light 188—194
Sun, eclipses 191 192 630
Sun, element abundances, energy production, and solar neutrinos 556—558
Sun, gravitational red shift 81
Sun, magnitudes, distance modulus, color index 427
Sun, miscellaneous properties 636
Sun, oblateness 200—201
Sun, precession of perihelia 14—15 198—200 231 233
Sun, quadrupole moment 205
Sun, radar echo delay 201—207
Sunyaev, R. A. 597 598 603 607
Supermassive stars 297 325—330
Supernovae 317 442 505
Sylvester’s law of intertia 86 386
Symmetric spaces 375—404 (see also Killing vectors Maximally
Synge, J. L. 63 89
Syrovatskii, S. I. 600
Szekeres, P. 632
Takeda, H. 607
Tammann, G. A. 437 467
Tandon, S. N. 544 604
Tannenbaum, H. 600
Taub, A. 466
Taylor, R. J. 599 605
Telegdi, V. L. 64
Teller, E. 633
Tensor densities 98—100 119
Tensors 36—39 93—96
Tetrads 365 373
Tetrode, H. 632
Thaddeus, P. 513 603
Thermal energy (of stars) 303—304 311—312 327—330
Thiel, M. 602
Thirring, H. 249
Thirring, W. 172
Thomas precession 124 237
Thomas, L. H. 129
Thomson scattering 494 502—503 568 570 576
Thorne, K. S. 209 318 351 352 353
Thornton, D. D. 513
Tidal forces 68 70 87 630
Time Dilation (gravitational) 79—85 184
Time Dilation (gravitational), gravitational collapse 347—348
Time Dilation (gravitational), maximum values from stellar surfaces 334
Time Dilation (gravitational), neutron stars 321
Time Dilation (gravitational), quasi-stellar objects 298
Time Dilation (gravitational), star clusters 335
Time Dilation (gravitational), white dwarfs 317
Time dilation (special relativistic) 29—31
Time’s Arrow 597
Tisza, L. 64
Tolman, R. C. 352 353 464
Tomita, K. 607
Torres — Peimbert, S. 606
Townes, C. H. 22
Transition density 323
Translations (see Homogeneous spaces)
Transversality of gravitational radiation 280
Trapped surfaces 349
Trautman, A. 171
Trigonometric parallax (see Parallax and parallax distance)
Trimble, V. 89
Trumpler, R. 193 209
Truran, J. W. 605
Tsuruta, S. 352
Turbulence 570 576
Turlay, R. 64
Turnbull, H. W. 90
Turnrose, B. 600
Tyson, J. A. 294
Uhlrich, R. K. 558 606
Ultraviolet divergences 289
Unsold, A. O. J. 606
Uranium dating 487—488
Urey, H. C. 605
Ursa Major II cluster 446 639
Ursa Minor system 438 638
Utiyama, R. 372
Van Biesbroeck, G. 193
Van Den Bergh, S. 477 599 600 638
Vardalas, J. N. 64
Variational principle for collisionless plasma 358—360
Variational principle for electrodynamics 361
Variational principle for freely falling particle 76—77
Variational principle for general material systems 360 363 365—372
Variational principle for gravitational fields 364—365 372 373
Variational principle for stellar structure 306—308 313
Vector potential of electromagnetism 43 117 358
Vector potential of gravitation 219 239 248
Velocity four-vector 47—48 122 127 242 299 340—342 414 579 582
Veneziano model 590
Veneziano, G 608
Venus, constancy of G 629 630
Venus, elements of orbit 637
Venus, precession of perihelia 198
Venus, radar echo delay 204
Vernon, F. L. 513 603
Very long baseline interferometry (VLBI) (see Interferometry in radio astronomy)
Vessot, R. F. C. 89
Vibration frequencies of stars 314 324—325
Vierbeins (see Tetrads)
Virgo cluster 438—440 443—445 448-449 479 639
Virial theorem 476 478 479
viscosity (see Bulk Viscosity Shear
Vitale, G. 4
Volkoff, G. M. 318 324 352
von Brunn, A. 193
von Kluber, H. 192 193 209
von Weizsacker, C. F. 607
W Virginis stars 433 436—437
Wade, C. M. 468
Wagoner, R. V. 351 500 513 553 554 555 561 601 603 604 605
Wakano, M 318 351 352
Wald, R. M. 354
Walker, A. G. 408 466
Wall, J. V. 468
Wallerstein, G. 433 466 467
Wallis, J. 4—5
Wampler, E. J. 500 601
Wang, C. G. 552
Wapstra, A. H. 69 89
Warner, B. 605
Watson, G. N. 294
Wave zone 252 261
Weak field approximation 78 252—255
Weak interactions in neutron stars 318 322 324
Weak interactions in p-p cycles 556—557
Weak interactions, decay 543—544
Weak interactions, in early universe 5 34—5 35 546—551 560
Weak interactions, infinities compared with gravitation 289
Weak interactions, solar neutrino experiments 557—558
Weak Principle of Equivalence 69
Weber, J. 271 276 281 283 284 293 294 295
Weight (of tensor densities) 98
Weinberg, S. 64 119 172 294 295 467 604 607 608 609 632
Weinrich, M. 64
Weiss, R. 513 603
Welch, G. A. 600
Welch, W. J. 513
Weller, K. W. 194
Wells, J. W. 633
Weyl tensor 145—146
Weyl, H. 20 21 89 149
Weyl’s Principle 410
Weymann, R. 576 602
Wheeler, J. A. 6 318 350 351 352 608 619 632
White dwarfs 81 314—317 325
White, R. H. 351 354
Whittaker, E 18 20 21 23
Wickramsinghe, N. C. 526 603
Wiese, W. L 89
Wiggins, R. A. 294
Wightman, A. S. 64
Wightman, W. P. D. 20
Wigner, E. P. 64 119
Wilkerson, T. D. 606
Wilkinson, D. T. 511 513 575 519 521 522 523 602 603 633
Will, C. M. 209
Williamson, K. D. 513 603
Wilson, R. E. 354 435 437 466
Wilson, R.W. 498 511 575 514 520 521 601 602 604
Winterberg, F. 608
Wirtz, C. 417 466
Witteborn, F. C. 22
Wolfe, A.M. 603 604 607
Woolf, N. J. 514 600 603
Woolridge, D. E. 602
Worster, B. W. 604
Wren, C. 13
Wrixon, G. 575
Wu, C. S. 64
X-rays from Centaurus A 521
X-rays from Coma cluster 478 479
X-rays from pulsars 299
X-rays, background 480 500—501 526 527
Yang, C. N. 27 64
Yosida, S. 193
Young, R. K. 795
Yount, D. E. 604
Yu, J. T. 607
Zapolsky, H. S. 552 555 609
Zatsepin, G. T. 604
Zeldovich, Ya. B. 295 350 353 354 464 592 597 598 600 603 607 608
Zero tensor 38 96
Zeta Ophiuchi and Zeta Persei 512 514—515
Zipoy, C. 294
Zwicky, F. 552 408 466 599
’t Hooft, G. 609
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