Journal of High Energy Physics

, 2012:123

Thermal Giant Gravitons


  • Jay Armas
    • The Niels Bohr InstituteCopenhagen University
  • Troels Harmark
    • The Niels Bohr InstituteCopenhagen University
  • Marta Orselli
    • The Niels Bohr InstituteCopenhagen University
  • Andreas Vigand Pedersen
    • The Niels Bohr InstituteCopenhagen University

DOI: 10.1007/JHEP11(2012)123

Cite this article as:
Armas, J., Harmark, T., Obers, N.A. et al. J. High Energ. Phys. (2012) 2012: 123. doi:10.1007/JHEP11(2012)123


We study the giant graviton solution as the AdS5 × S5 background is heated up to finite temperature. The analysis employs the thermal brane probe technique based on the blackfold approach. We focus mainly on the thermal giant graviton corresponding to a thermal D3-brane probe wrapped on an S3 moving on the S5 of the background at finite temperature. We find several interesting new effects, including that the thermal giant graviton has a minimal possible value for the angular momentum and correspondingly also a minimal possible radius of the S3. We compute the free energy of the thermal giant graviton in the low temperature regime, which potentially could be compared to that of a thermal state on the gauge theory side. Moreover, we analyze the space of solutions and stability of the thermal giant graviton and find that, in parallel with the extremal case, there are two available solutions for a given temperature and angular momentum, one stable and one unstable. In order to write down the equations of motion, action and conserved charges for the thermal giant graviton we present a slight generalization of the blackfold formalism for charged black branes. Finally, we also briefly consider the thermal giant graviton moving in the AdS5 part.


D-branesAdS-CFT CorrespondenceBlack Holes in String Theory

Copyright information

© SISSA, Trieste, Italy 2012