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Black hole induced false vacuum decay: The role of greybody factors

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arxiv 2111.08017 v2 pith:FEF7DLQ2 submitted 2021-11-15 hep-th gr-qchep-ph

classification hep-thgr-qchep-ph
keywords blackholedecayvacuumfieldmodelbarrierdilaton
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We study false vacuum decay catalyzed by black holes. We consider a toy two-dimensional model of a scalar field with an unstable potential in the background of a dilaton black hole. A realistic black hole in four dimensions possesses the potential barrier for linear field perturbations. We model this barrier -- the greybody factor -- for spherically-symmetric perturbations in the toy model by adding a coupling between the scalar field and dilaton. We compute analytically the decay rate for the black hole in thermal equilibrium (Hartle-Hawking state) and for the radiating black hole in empty space (Unruh state). Our results show that, contrary to the Hartle-Hawking vacuum, the decay probability of the Unruh vacuum remains exponentially suppressed at all black hole temperatures. We argue that this result holds also in four dimensions.

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  1. Thermal false vacuum decay near black holes is aspherical

    gr-qc 2026-08 conditional novelty 7.0 of 10

    False vacuum decay near a thermal Schwarzschild black hole is dominated by aspherical critical bubbles for intermediate sizes and by horizon-riding Fubini-Lipatov bounces for large sizes.

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