Electrons struck by an intense laser can decay into a light dark matter pair; at LUXE this could probe EFT cutoffs near 1 GeV for dimension-6 operators and 10^3-10^4 GeV for dipole operators with dark matter below 1 MeV.
Transmutation of protons in a strong electromagnetic field
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abstract
The process of turning a proton into a neutron, positron and electron-neutrino in a strong plane-wave electromagnetic field is studied. This process is forbidden in vacuum and is seen to feature an exponential suppression factor which is non-perturbative in the field amplitude. The suppression is alleviated when the proton experiences a field strength of about ten times the Schwinger critical field in its rest frame or larger. Around this threshold the lifetime of the proton, in its rest frame, is comparable to the conventional neutron decay lifetime. As the field strength is increased, the proton lifetime becomes increasingly short. We investigate possible scenarios where this process may be observed in the laboratory using an ultra-intense laser and a high-energy proton beam with the conclusion, however, that it would be very challenging to observe this effect in the near future.
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Laser induced Compton Scattering to Dark Matter in Effective Field Theory
Electrons struck by an intense laser can decay into a light dark matter pair; at LUXE this could probe EFT cutoffs near 1 GeV for dimension-6 operators and 10^3-10^4 GeV for dipole operators with dark matter below 1 MeV.