Thermal duality and gravitational collapse in heterotic string theories

Journal article


Hewitt, M. 2013. Thermal duality and gravitational collapse in heterotic string theories. arXiv.
AuthorsHewitt, M.
Abstract

The thermal duality of E(8)$ x $E(8) and SO(32) heterotic string theories may underpin a mechanism that would convert the kinetic energy of infalling matter during gravitational collapse to form a region of a hot string phase that would expel gravitational gradients. This phase would be the continuation of a Ginzburg-Landau like superconductor in the Euclidean regime. In this scenario, there would be no event horizon or singularity produced in gravitational collapse. Solutions are presented for excitations of the string vacuum that may form during gravitational collapse and drive the transition to the hot phase. The proposed mechanism is developed here for the case of approximately spherical gravitational collapse in 4 uncompactified spacetime dimensions. Astrophysical objects such as stellar or galactic cores which have undergone extreme gravitational collapse would currently be sites of an on-going conversion process to shells of this high temperature phase. The relationship of this proposal to the `firewall paradox' is noted.

KeywordsStrings; duality; gravitational collapse
Year2013
JournalarXiv
PublisherCornell University Library
Official URLhttp://arxiv.org/abs/1309.7578
Related URLhttp://arxiv.org
Publication dates
Print29 Sep 2013
Publication process dates
Deposited01 Oct 2013
Output statusPublished
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https://repository.canterbury.ac.uk/item/86zz9/thermal-duality-and-gravitational-collapse-in-heterotic-string-theories

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