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Some considerations about NS5 and LST Hawking radiation

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arxiv 1107.0713 v2 pith:DJIEG6AA submitted 2011-07-04 hep-th gr-qc

classification hep-thgr-qc
keywords energyanomalybehaviorblackcomplexconservationgravitationalhawking
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We have studied the Hawking radiation corresponding to the NS5 and Little String Theory (LST) black hole models using two semi-classical methods: the complex path method and a gravitational anomaly. After summarizing some known concepts about the thermodynamics of these theories, we have computed the emission rates for the two black hole models. The temperature calculated from, e.g. the well-known surface gravity expression, is shown to be identical to that obtained from both the computation of the gravitational anomaly and the complex path method. Moreover, the two semi-classical methods show that NS5 exhibits non-thermal behavior that contrasts with the thermal behavior of LST. We remark that energy conservation is the key factor leading to a non-thermal profile for NS5. In contrast, LST keeps a thermal profile even when energy conservation is considered because temperature in this model does not depend on energy.

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  1. Little String Theories on Curved Manifolds

    hep-th 2019-08 conditional novelty 7.0 of 10

    Little string theory cannot be put on negatively curved spacetimes, only on flat or positively curved ones, and on spheres its Hagedorn spectrum receives a universal classical correction.

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