Holographic Quantum Foam

Abstract Quantum fluctuations can endow spacetime with a foamy structure. The three different methods we have employed to calculate the magnitude of the foaminess yield the same result and all agree with what the holographic principle dictates and hence the name “holographic quantum foam” (HQF). HQF is shown to yield a cosmology (which we call holographic foam cosmology) with an effective dynamical cosmological constant and critical energy density the quanta of which obey an exotic statistics known as infinite statistics (or quantum Boltzmann statistics). We also show that, in the gravitational context, the properties of HQF are intimately related to the phenomenon of turbulence. And we interpret inflation in the early universe as due to the onset of turbulence with the graceful exit problem being naturally solved by the fact that the quanta of HQF obey infinite statistics. Finally we discuss methods to detect HQF, among which are the use of laser interferometers and the observation of high-energy photons from extragalactic sources. We also briefly discuss, in the context of HQF, dark matter the quanta of which also obey infinite statistics.

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Publication Details

Journal
Journal of Physics Conference Series
Published
2025-04-01
DOI
https://doi.org/10.1088/1742-6596/2987/1/012015
Citations
5
Primary Topic
Black Holes and Theoretical Physics
Type
article
Field-Weighted Citation Impact
0.00
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article

Holographic Quantum Foam

Y. Jack Ng
5 citations
Journal of Physics Conference Series
Black Holes and Theoretical Physics
article

Holographic Quantum Foam

Y. Jack Ng
article en
5 citations

Abstract

Abstract Quantum fluctuations can endow spacetime with a foamy structure. The three different methods we have employed to calculate the magnitude of the foaminess yield the same result and all agree with what the holographic principle dictates and hence the name “holographic quantum foam” (HQF). HQF is shown to yield a cosmology (which we call holographic foam cosmology) with an effective dynamical cosmological constant and critical energy density the quanta of which obey an exotic statistics known as infinite statistics (or quantum Boltzmann statistics). We also show that, in the gravitational context, the properties of HQF are intimately related to the phenomenon of turbulence. And we interpret inflation in the early universe as due to the onset of turbulence with the graceful exit problem being naturally solved by the fact that the quanta of HQF obey infinite statistics. Finally we discuss methods to detect HQF, among which are the use of laser interferometers and the observation of high-energy photons from extragalactic sources. We also briefly discuss, in the context of HQF, dark matter the quanta of which also obey infinite statistics.

Journal of Physics Conference SeriesVol. 2987(1)
University of North Carolina at Chapel Hill (US)
Black Holes and Theoretical Physics
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