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Inflation Induced Planck-Size Black Hole Remnants As Dark Matter.


DE2004827299

Publication Date 2003
Personal Author Chen, P.
Page Count 16
Abstract While there exist various candidates, the identification of dark matter remains unresolved. Recently it was argued that the generalized uncertainty principle (GUP) may prevent a black hole from evaporating completely, and as a result there should exist a Planck-size BHR at the end of its evaporation. We speculate that the stability of BHR may be further protected by supersymmetry in the form of extremal black hole. If this is indeed the case and if a sufficient amount of small black holes can be produced in the early universe, then the resultant BHRs can be an interesting candidate for DM. We demonstrate that this is the case in the hybrid inflation model. By assuming BHR as DM, our notion imposes a constraint on the hybrid inflation potential. We show that such a constraint is not fine-tuned. Possible observational signatures are briefly discussed.
Keywords
  • Nonluminous matter
  • Black holes
  • Universe
  • Supersymmetry
  • Stability
  • Uncertainty principle
Source Agency
  • Technical Information Center Oak Ridge Tennessee
Corporate Authors Stanford Linear Accelerator Center, CA.; Department of Energy, Washington, DC.
Supplemental Notes Sponsored by Department of Energy, Washington, DC.
Document Type Technical Report
NTIS Issue Number 200509
Inflation Induced Planck-Size Black Hole Remnants As Dark Matter.
Inflation Induced Planck-Size Black Hole Remnants As Dark Matter.
DE2004827299

  • Nonluminous matter
  • Black holes
  • Universe
  • Supersymmetry
  • Stability
  • Uncertainty principle
  • Technical Information Center Oak Ridge Tennessee
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