2+2 formalism and applications

D'Inverno, R (1997) 2+2 formalism and applications. Marck, Jean-Alain and Lasota, Jean-Pierre (eds.) In Relativistic Gravitation and Gravitational Radiation; Proceedings of the Les Houches School of Physics 26 Sept - 6 Oct. Cambridge University Press. pp. 283-329 .

Abstract

Contents: Participants; Preface; Acknowledgements; Part I. Relativistic Gravity: Selected Themes in Relativistic Gravity T. Damour; 1. Gravitational radiation from relativistic sources L. Blanchet; 2. Radiative spacetimes: exact approaches J. Bicak; 3. Pulsating relativistic stars K. D. Kokkotas; Part II. Astrophysical Sources: The Evolution of Close Binary Systems Driven by Gravitational Radiation A. R. King; 4. Relativistic binary pulsars A. Wolszczan; 5. Solid interiors of neutron stars and gravitational radiation P. Haensel; 6. Gravitational waves from neutron stars S. Bonazzola and E. Gourgoulhon; Part III. Mathematical Framework: 3+1 General Relativity in Hyperbolic Form A. M. Abrahams and J. W. York, Jr.; 7. 2+2 formalism and applications R. d’Inverno; 8. Combining cauchy and characteristic codes in numerical relativity R. d’Inverno; Part IV. Numerical Methods: High-order Finite-Difference Scheme J. M. Marti; 9. Spectral methods S. Bonazzola, E. Gourgoulhon and J. A. Marck; Part V. Numerical Models: Gravitational Waves From Core Collapse Supernovae E. Muller; 10. Coalescence of binary neutron stars K. Oohara and T. Nakamura; 11. Black holes in numerical relativity E. Seidel and W. M. Suen; Part VI. Detection Of Gravitational Waves: Signal Analysis of Gravitational Waves B. S. Sathyaprakash; 12. The stochastic gravity-wave background: sources and detection B. Allen; 13. Resonant-mass detection of tensor and scalar waves R. V. Wagoner; 14. Scalar-tensor theories and gravitational radiation R. V. Wagoner and D. Kalligas; 15. The detection of gravitational waves B. F. Schutz.

This record has no associated files available for download.

Contributors

Download statistics