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Negative modes of Coleman-de Luccia and black hole bubbles

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abstract

We study the negative modes of gravitational instantons representing vacuum decay in asymptotically flat space-time. We consider two different vacuum decay scenarios: the Coleman-de Luccia $\mathrm{O}(4)$-symmetric bubble, and $\mathrm{O}(3) \times \mathbb{R}$ instantons with a static black hole. In spite of the similarities between the models, we find qualitatively different behaviours. In the $\mathrm{O}(4)$-symmetric case, the number of negative modes is known to be either one or infinite, depending on the sign of the kinetic term in the quadratic action. In contrast, solving the mode equation numerically for the static black hole instanton, we find only one negative mode with the kinetic term always positive outside the event horizon. The absence of additional negative modes supports the interpretation of these solutions as giving the tunnelling rate for false vacuum decay seeded by microscopic black holes.

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2019 1

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representative citing papers

Quantum Transitions Between Minkowski and de Sitter Spacetimes

hep-th · 2019-09-04 · conditional · novelty 5.0

Using Wheeler-DeWitt wave functionals, the paper argues that Minkowski-to-de Sitter nucleation has a nonzero relative probability in the zero-mass Schwarzschild limit and that dS-to-dS rates match Coleman-De Luccia and Brown-Teitelboim.

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  • Quantum Transitions Between Minkowski and de Sitter Spacetimes hep-th · 2019-09-04 · conditional · none · ref 36 · internal anchor

    Using Wheeler-DeWitt wave functionals, the paper argues that Minkowski-to-de Sitter nucleation has a nonzero relative probability in the zero-mass Schwarzschild limit and that dS-to-dS rates match Coleman-De Luccia and Brown-Teitelboim.