Book contents
- Frontmatter
- Contents
- List of contributors
- Foreword
- Preface
- Introduction
- Part 1 An introduction to gravitational wave astronomy and detectors
- 1 Gravitational waves
- 2 Sources of gravitational waves
- 3 Gravitational wave detectors
- 4 Gravitational wave data analysis
- 5 Network analysis and multi-messenger astronomy
- Part 2 Current laser interferometer detectors – three case studies
- Part 3 Technology for advanced gravitational wave detectors
- Part 4 Technology for third generation gravitational wave detectors
- Index
2 - Sources of gravitational waves
from Part 1 - An introduction to gravitational wave astronomy and detectors
Published online by Cambridge University Press: 05 March 2012
- Frontmatter
- Contents
- List of contributors
- Foreword
- Preface
- Introduction
- Part 1 An introduction to gravitational wave astronomy and detectors
- 1 Gravitational waves
- 2 Sources of gravitational waves
- 3 Gravitational wave detectors
- 4 Gravitational wave data analysis
- 5 Network analysis and multi-messenger astronomy
- Part 2 Current laser interferometer detectors – three case studies
- Part 3 Technology for advanced gravitational wave detectors
- Part 4 Technology for third generation gravitational wave detectors
- Index
Summary
This chapter introduces the different classes of gravitational wave sources targeted by terrestrial and space-based detectors. The possibility and implications of gravitational wave emissions from supernovae and coalescing binary systems of neutron stars and/or black holes are discussed, as well as the possible connection between gravitational wave sources and gamma-ray bursts. The chapter also discusses continuous gravitational wave sources and describes how a stochastic gravitational wave background could be produced from astrophysical sources or from events in the early Universe.
Introduction
Astrophysics provides us with a variety of candidate systems which should be observable in the spectrum of gravitational waves. However, it is important to remember that our powers of prediction of new phenomena are limited, so any list of sources is almost certain to be incomplete.
Amongst stellar mass systems we expect detectable gravitational radiation from the formation of black holes and neutron stars (Fryer et al., 2002), and from the coalescence of binary neutron stars and final collapse of such binaries to form a black hole (Phinney, 1991). We would expect not only discrete sources, but also continuous stochastic backgrounds created from large numbers of discrete sources. In our Galaxy the very large populations of binary stars create a stochastic background in the 10-3 to 10-5 Hz range (Hils et al., 1990; Cutler, 1998; Nelemans et al., 2001).
- Type
- Chapter
- Information
- Advanced Gravitational Wave Detectors , pp. 16 - 41Publisher: Cambridge University PressPrint publication year: 2012