Gravitation and Spacetime
Autor Hans C. Ohanian, Remo Ruffinien Limba Engleză Hardback – 7 apr 2013
Preț: 601.77 lei
Preț vechi: 676.14 lei
-11% Nou
Puncte Express: 903
Preț estimativ în valută:
115.15€ • 120.22$ • 95.30£
115.15€ • 120.22$ • 95.30£
Carte tipărită la comandă
Livrare economică 05-19 aprilie
Preluare comenzi: 021 569.72.76
Specificații
ISBN-13: 9781107012943
ISBN-10: 1107012945
Pagini: 546
Ilustrații: 205 b/w illus. 24 tables 468 exercises
Dimensiuni: 178 x 254 x 30 mm
Greutate: 1.18 kg
Ediția:Revizuită
Editura: Cambridge University Press
Colecția Cambridge University Press
Locul publicării:New York, United States
ISBN-10: 1107012945
Pagini: 546
Ilustrații: 205 b/w illus. 24 tables 468 exercises
Dimensiuni: 178 x 254 x 30 mm
Greutate: 1.18 kg
Ediția:Revizuită
Editura: Cambridge University Press
Colecția Cambridge University Press
Locul publicării:New York, United States
Cuprins
Preface; 1. Newton's gravitational theory; 2. The formalism of special relativity; 3. The linear approximation; 4. Applications of the linear approximation; 5. Gravitational waves; 6. Riemannian geometry; 7. Einstein's gravitational theory; 8. Black holes and gravitational collapse; 9. Cosmology; 10. The early universe; Appendix: variational principle and energy-momentum tensor; Answers; Index.
Recenzii
'A most welcome updated third edition of this splendid textbook on gravitation and spacetime, which provides an excellent introduction to the mathematical and physical foundations underlying our current understanding of the physics and astrophysics of neutron stars, black holes, and gamma ray bursts.' Riccardo Giacconi, Nobel Laureate and University Professor, Johns Hopkins University
'This is by far the best grad[uate] level text in gravitational physics. It starts by showing that the natural Lorentz invariant generalisation of Newton's scalar potential is a tensor, a perturbation of the usual Lorentz metric. The equivalence principle is then used to derive the full equations of GR. The last half of the book gives a beautiful treatment of black holes and the current model of Big Bang cosmology.' Roy P. Kerr, Professor Emeritus, University of Canterbury, Christchurch
'The third edition of this wonderful book combines even more perfectly than the previous editions the beauty of Einstein's General Relativity with the physics of stars, galaxies, and the cosmos. It manages to do this in only 500 pages in a pedagogical masterpiece that should be a must for any graduate student in theoretical physics.' Hagen Kleinert, Freie Universität Berlin and ICRANet
Review of the first edition: 'The best book on the market today of 500 pages or less on gravitation and general relativity.' John Wheeler, Princeton University
'I wish I had owned this book when I was trying to teach myself General Relativity for the first time.' The Observatory
'This is by far the best grad[uate] level text in gravitational physics. It starts by showing that the natural Lorentz invariant generalisation of Newton's scalar potential is a tensor, a perturbation of the usual Lorentz metric. The equivalence principle is then used to derive the full equations of GR. The last half of the book gives a beautiful treatment of black holes and the current model of Big Bang cosmology.' Roy P. Kerr, Professor Emeritus, University of Canterbury, Christchurch
'The third edition of this wonderful book combines even more perfectly than the previous editions the beauty of Einstein's General Relativity with the physics of stars, galaxies, and the cosmos. It manages to do this in only 500 pages in a pedagogical masterpiece that should be a must for any graduate student in theoretical physics.' Hagen Kleinert, Freie Universität Berlin and ICRANet
Review of the first edition: 'The best book on the market today of 500 pages or less on gravitation and general relativity.' John Wheeler, Princeton University
'I wish I had owned this book when I was trying to teach myself General Relativity for the first time.' The Observatory
Notă biografică
Descriere
This text provides a quantitative introduction to general relativity for advanced undergraduate and graduate students.