Testing non-linear vacuum electrodynamics with Michelson interferometry
arXiv:1504.03159 · doi:10.1103/PhysRevD.92.025039
Abstract
We discuss the theoretical foundations for testing non-linear vacuum electrodynamics with Michelson interferometry. Apart from some non-degeneracy conditions to be imposed, our discussion applies to all non-linear electrodynamical theories of the Plebański class, i.e., to all Lagrangians that depend only on the two Lorentz-invariant scalars quadratic in the field strength. The main idea of the experiment proposed here is to use the fact that, according to non-linear electrodynamics, the phase velocity of light should depend on the strength and on the direction of an electromagnetic background field. There are two possible experimental set-ups for testing this prediction with Michelson interferometry. The first possibility is to apply a strong electromagnetic field to the beam in one arm of the interferometer and to compare the situation where the field is switched on with the situation where it is switched off. The second possibility is to place the whole interferometer in a strong electromagnetic field and to rotate it. If an electromagnetic field is placed in one arm, the interferometer could have the size of a gravitational wave detector, i.e., an arm-length of several hundred meters. If the whole interferometer is placed in an electromagnetic field, one would have to do the experiment with a table-top interferometer. [...] We specify the general results to some particular theories of the Plebański class; in particular, we give numerical estimates for Born, Born-Infeld and Heisenberg-Euler theories.
15 pages, 1 figure
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Cited by in corpus (13)
- On causality in nonlinear vacuum electrodynamics of the Plebański class
- Dispersion by pulsars, magnetars, fast radio bursts and massive electromagnetism at very low radio frequencies
- Rapidly rotating pulsar radiation in vacuum nonlinear electrodynamics
- Comparative of light propagation in Born-Infeld, Euler-Heisenberg and ModMax nonlinear electrodynamics
- Effects of non-linear vacuum electrodynamics on the polarization plane of light
- Light polarization oscillations induced by photon-photon scattering
- Standing wave solutions in Born-Infeld theory
- Collective behavior of light in vacuum
- Approximated solutions to Born-Infeld dynamics
- Degenerate behavior in nonlinear vacuum electrodynamics
- Light propagating in a Born-Infeld background as seen by an accelerated observer
- Photon frequency variation in non-linear electro-magnetism
- On the weak-field limit of Plebański class electrodynamics