High energy astrophysics and its relation to elementary particle physics
Kenneth Brecher, Giancarlo Setti
MIT Press, 1974 - Science - 591 pages
The papers that make up this book were contributed by a cluster of luminaries&-John A. Wheeler, Fred Hoyle, H. Arp, and others of their magnitude discuss topics central to their various research interests. Originally given as lectures at the 1972 summer session of the International School of Astrophysics, held in Erice, Sicily, the papers have since been edited to bring them into consistent format for book publication. The thrust of the volume as a whole is that a closer symbiotic relationship should be established between high energy astrophysics and elementary particle physics&-that each has much to contribute to the other. By keeping close track of the discoveries of particle production and decay made on earth, the astrophysicist might be prompted to look for corresponding phenomena in deep space; or his research might be guided by current developments in field theory that have universal applications. Likewise, astrophysics gives to the particle physicist a new setting and high energy laboratory in which elementary particle and field theoretic ideas might be tested or further extended. New processes could be uncovered that do not reveal themselves within the severely restricted energy limits of earth-based apparatus, and phenomena that by their nature exist only on a macroscopic scale might be detected. In this regard, the book includes a discussion of the constraints on fundamental physics set by the macroscopic world as a whole. The simple application of known physical processes in elementary particle physics to astrophysics (for example, gamma-ray production in pion decay), which has been the subject of several other publications, has been deemphasized in this volume in favor of extending known particle physics into new domains. Included are discussions of quantum gravity, the mass spectrum of elementary particles at high energies, ko decay, and particle cosmology. The subjects taken up and their authors are as follows: QSO's, observations, and the problem of the redshift in astronomy (H. Arp)&-Cosmology (K. Brecher)&-Observational problems of high energy astrophysics (E. M. Burbidge)&-Theoretical problems of high energy astrophysics (G. R. Burbidge)&-Observational x-ray astronomy (R. Giacconi)&-Statistical thermodynamics of strong interactions and cosmology (R. Hagedorn)&-Connections of microphysics to cosmology and high energy astrophysics (F. Hoyle)&-Electrodynamics and cosmology (J. Narlikar)&-Weak interactions, lagging cores, and cosmology (Y. Ne'eman)&-Structure and hydrodynamics of galaxies (K. Prendergast)&-Strong interactions, gravitation, and cosmology (A. Salam)&-Extragalactic observational astronomy (W. Sargent)&- Theoretical x-ray astronomy (G. Setti)&-General relativity collapse and singularities (J. A. Wheeler).
What people are saying - Write a review
We haven't found any reviews in the usual places.
QSOs Observations and the Redshift Problem
Big Bang Cosmology
Observational Problems of High Energy Astrophysics
10 other sections not shown
absorption lines angular assume Atlas axies baryon black hole bright brightest Burbidge central galaxy collapse companions consider cosmological curve decay density discussion dispersion distance distribution ejection electromagnetic electrons elliptical galaxies emission lines emitted energy equation ergs/sec fainter field Figure fluctuations flux frequency function galactic geometry give gravitational H II regions hadrons Hubble constant idea identified interaction km/sec Lecture light look luminosity magnitude mass matter measured momentum motion neutron star normal galaxies nucleus objects observed optical particles paths peculiar galaxies Perseus Cluster photons Phys physics problem propagator QSO's quantum quasars radiation radio galaxies radio sources radius ratio redshift relativistic result rotation Sandage Seyfert galaxies shows space spectra spectrum spiral arms spiral galaxies stellar Stephan's Quintet strong Table theory thermal thermodynamics tion universe velocity Virgo cluster wave wavelength zero