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General idea: some GRBs may be energy from the collapse into a relativistic Kerr black hole. I do no have enough general relativity knowledge to understand most of this book. The prediction is that we might see LIGO detections coincident with a GRB, but I get the impression that a detectable gravitational wave emitter probably must be in our galaxy, and probably a pair of co-rotating masses. Since supernovae occur about once every 100 years in our galaxy, and 1 in 500 beam detectable GRB energy in our direction, a LIGO detection is either very unlikely, or I don't understand the experimental predictions of this book (most likely the latter).

I'm returning it, I need other books from PSU library more urgently.
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 .p166 Beaming factor 450 (steradians, not angle)  .p166 Beaming factor 450 (solid angle size, not linear angle)

Gravitational Radiation, Luminous Black Holes, and Gamma Ray Burst Supernovae

Maurice H.P.M. van Putten, PSU QB817.V36 2005


General idea: some GRBs may be energy from the collapse into a relativistic Kerr black hole. I do no have enough general relativity knowledge to understand most of this book. The prediction is that we might see LIGO detections coincident with a GRB, but I get the impression that a detectable gravitational wave emitter probably must be in our galaxy, and probably a pair of co-rotating masses. Since supernovae occur about once every 100 years in our galaxy, and 1 in 500 beam detectable GRB energy in our direction, a LIGO detection is either very unlikely, or I don't understand the experimental predictions of this book (most likely the latter).

I'm returning it, I need other books from PSU library more urgently.

Chapter 11, Phenomenology of GRB supernovae

  • p166 Beaming factor 450 (solid angle size, not linear angle)
    • Frail D. A. 1997 Nature 389, 261 The radio afterglow from the gamma-ray burst of 8 May 1997

GravRadiatPutten (last edited 2017-02-02 01:18:21 by KeithLofstrom)