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Data for "Creation of a black hole bomb instability in an electromagnetic system"

Data for "Creation of a black hole bomb instability in an electromagnetic system"
Data for "Creation of a black hole bomb instability in an electromagnetic system"
The amplification and generation of electromagnetic radiation by a rotating metallic or lossy cylinder, first proposed by Zel’dovich in the 1970s, is closely linked to quantum friction, energy extraction from rotating black holes, and runaway mechanisms such as black hole bombs. Although advances such as acoustic analogues of the Zel’dovich effect and the observation of negative resistance in low-frequency electromagnetic models have been reported, genuine positive signal gain, spontaneous emission of electromagnetic waves, and runaway amplification have not previously been verified. Here we provide the first experimental demonstration that a mechanically rotating metallic cylinder acts as an amplifier of a rotating electromagnetic field mode. Moreover, when combined with a low-loss resonator, the system becomes unstable and operates as a generator seeded only by noise. Exponential runaway amplification of spontaneously generated electromagnetic modes is observed, establishing the electromagnetic analogue of the Press–Teukolsky black hole bomb, and paving the way to experimental tests of quantum friction from vacuum fluctuations.
University of Southampton
Ulbricht, Hendrik
5060dd43-2dc1-47f8-9339-c1a26719527d
Cromb, Marion
55df29bb-0f14-43a4-8507-68850b236bda
Ulbricht, Hendrik
5060dd43-2dc1-47f8-9339-c1a26719527d
Cromb, Marion
55df29bb-0f14-43a4-8507-68850b236bda

Ulbricht, Hendrik and Cromb, Marion (2025) Data for "Creation of a black hole bomb instability in an electromagnetic system". University of Southampton doi:10.5258/SOTON/D3676 [Dataset]

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Abstract

The amplification and generation of electromagnetic radiation by a rotating metallic or lossy cylinder, first proposed by Zel’dovich in the 1970s, is closely linked to quantum friction, energy extraction from rotating black holes, and runaway mechanisms such as black hole bombs. Although advances such as acoustic analogues of the Zel’dovich effect and the observation of negative resistance in low-frequency electromagnetic models have been reported, genuine positive signal gain, spontaneous emission of electromagnetic waves, and runaway amplification have not previously been verified. Here we provide the first experimental demonstration that a mechanically rotating metallic cylinder acts as an amplifier of a rotating electromagnetic field mode. Moreover, when combined with a low-loss resonator, the system becomes unstable and operates as a generator seeded only by noise. Exponential runaway amplification of spontaneously generated electromagnetic modes is observed, establishing the electromagnetic analogue of the Press–Teukolsky black hole bomb, and paving the way to experimental tests of quantum friction from vacuum fluctuations.

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Published date: 1 October 2025

Identifiers

Local EPrints ID: 505049
URI: http://eprints.soton.ac.uk/id/eprint/505049
PURE UUID: be983407-f4aa-4279-ae6f-caed07755869
ORCID for Hendrik Ulbricht: ORCID iD orcid.org/0000-0003-0356-0065

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Date deposited: 24 Sep 2025 16:56
Last modified: 25 Sep 2025 01:43

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Contributors

Creator: Hendrik Ulbricht ORCID iD
Creator: Marion Cromb

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