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Single and double nonlinear Compton scattering

1 Pith paper cite this work, alongside 53 external citations. Polarity classification is still indexing.

1 Pith paper citing it
53 external citations · Pith
abstract

We study single, double and higher-order nonlinear Compton scattering where an electron interacts nonlinearly with a high-intensity laser and emits one, two or more photons. We study, in particular, how double Compton scattering is separated into one-step and two-step parts, where the latter is obtained from an incoherent product of two single-photon emissions. We include all contributions to double Compton scattering and show that the exchange term, which was not calculated in previous constant-crossed field studies, is in general on the same order of magnitude as the other one-step terms. Our approach reveals practically useful similarities between double Compton scattering and the trident process, which allows us to transfer some of our previous results for trident to double Compton scattering. We provide a new gluing approach for obtaining the dominant contribution to higher-order Compton scattering for long laser pulses. Unlike the standard gluing approach, our new approach does not require the intensity parameter $a_0$ to be much larger than one. For `hard' photons we obtain several saddle-point approximations for various field shapes.

fields

hep-ph 1

years

2026 1

verdicts

ACCEPT 1

representative citing papers

Soft photon approximation in a laser field: applications

hep-ph · 2026-07-13 · accept · novelty 6.0

Soft-photon factors with exact phase treatment give O(ω/ε)-accurate multi-photon Compton amplitudes in a laser field, outperforming classical theory and enabling efficient N-photon calculations.

citing papers explorer

Showing 1 of 1 citing paper.

  • Soft photon approximation in a laser field: applications hep-ph · 2026-07-13 · accept · none · ref 19 · internal anchor

    Soft-photon factors with exact phase treatment give O(ω/ε)-accurate multi-photon Compton amplitudes in a laser field, outperforming classical theory and enabling efficient N-photon calculations.