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Black holes, magnetic fields and particle creation. [Quantum field theory]

Abstract

Wald has given a classical argument suggesting that a rotating black hole immersed in a uniform magnetic field B will acquire a charge Q = 2JB where J is the angular momentum of the hole. The note contains a quantum field theoretic treatment of this process. For fields B greater than B/sub 0/ = 4 x 10/sup 13/ G the black hole will rapidly emit charged particles to achieve the equilibrium value. If B is less than the critical value the charge will remain zero.
Authors:
Gibbons, G W [1] 
  1. Cambridge Univ. (UK). Dept. of Applied Mathematics and Theoretical Physics
Publication Date:
Oct 01, 1976
Product Type:
Journal Article
Reference Number:
AIX-08-291596; EDB-77-070764
Resource Relation:
Journal Name: Mon. Not. R. Astron. Soc.; (United Kingdom); Journal Volume: 177:1
Subject:
71 CLASSICAL AND QUANTUM MECHANICS, GENERAL PHYSICS; BLACK HOLES; ELECTRIC CHARGES; PARTICLE PRODUCTION; ANGULAR MOMENTUM; CHARGED PARTICLES; ELECTRIC FIELDS; EMISSION; MAGNETIC FIELDS; MASS; ORIGIN; QUANTUM FIELD THEORY; ROTATION; FIELD THEORIES; INTERACTIONS; MOTION; PARTICLE INTERACTIONS; 640102* - Astrophysics & Cosmology- Stars & Quasi-Stellar, Radio & X-Ray Sources
OSTI ID:
7325690
Country of Origin:
United Kingdom
Language:
English
Other Identifying Numbers:
Journal ID: CODEN: MNRAA
Submitting Site:
INIS
Size:
Pages: 37P-41P
Announcement Date:
Mar 01, 1977

Citation Formats

Gibbons, G W. Black holes, magnetic fields and particle creation. [Quantum field theory]. United Kingdom: N. p., 1976. Web.
Gibbons, G W. Black holes, magnetic fields and particle creation. [Quantum field theory]. United Kingdom.
Gibbons, G W. 1976. "Black holes, magnetic fields and particle creation. [Quantum field theory]." United Kingdom.
@misc{etde_7325690,
title = {Black holes, magnetic fields and particle creation. [Quantum field theory]}
author = {Gibbons, G W}
abstractNote = {Wald has given a classical argument suggesting that a rotating black hole immersed in a uniform magnetic field B will acquire a charge Q = 2JB where J is the angular momentum of the hole. The note contains a quantum field theoretic treatment of this process. For fields B greater than B/sub 0/ = 4 x 10/sup 13/ G the black hole will rapidly emit charged particles to achieve the equilibrium value. If B is less than the critical value the charge will remain zero.}
journal = []
volume = {177:1}
journal type = {AC}
place = {United Kingdom}
year = {1976}
month = {Oct}
}