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Radio pulses from ultra-high energy atmospheric showers as the superposition of Askaryan and geomagnetic mechanisms
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Radio emission in atmospheric showers is currently interpreted in terms of radiation due to the deviation of the charged particles in the magnetic field of the Earth and to the charge excess (Askaryan effect). Each of these mechanisms has a distinctive polarization. The complex signal patterns can be qualitatively explained as the interference (superposition) of the fields induced by each mechanism. In this work we explicitly and quantitatively test a simple phenomenological model based on this idea. The model is constructed by isolating each of the two components at the simulation level and by making use of approximate symmetries for each of the contributions separately. The results of the model are then checked against full ZHAireS Monte Carlo simulations of the electric field calculated from first principles. We show that the simple model describes radio emission at a few percent level in a wide range of shower-observer geometries and on a shower-by-shower basis. As a consequence, this approach provides a simple method to reduce the computing time needed to accurately predict the electric field of radio pulses emitted from air showers, with many practical applications in experimental situations of interest.
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Cited by 1 Pith paper
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Information Field Theory with JAX infers Air Shower Electric Currents from Antenna Signal Traces
An IFT+JAX Bayesian pipeline infers the space-time current-density field of an air shower from synthetic antenna signals, reproducing the main structure of the simulated shower.
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