Spin-polarized electrons in a strong laser field radiate axions with a spin-dependent angular asymmetry, giving a tunable milliradian deflection that could serve as a new laboratory axion signal.
Coherent Axion Production through Laser Crystal Interaction
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abstract
We investigate the interaction between an optical laser and an ionic crystal and reveal coherent emission of axions through phase-match between laser and axion fields. Such emission is further enhanced by stacking thin crystal layers of half-wavelength thickness. Based on these findings, we propose a novel method for generating and detecting axions in terrestrial experiments, achieving up to a two-order-of-magnitude increase in transition probability compared to light-shining-through-wall (LSW) experiments with the same interaction region size. For an experimental length of 10 meters, this setup could lower the exclusion limit to $g_{a\gamma\gamma}\gtrsim1.32\times10^{-11}\textrm{GeV}^{-1}$ with currently available laser technologies.
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Spin-Dependent Axion Generation with Controllable Emission Angles in Strong Laser Fields
Spin-polarized electrons in a strong laser field radiate axions with a spin-dependent angular asymmetry, giving a tunable milliradian deflection that could serve as a new laboratory axion signal.