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A high-intensity laser-based positron source
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Plasma based acceleration is considered a promising concept for the next generation of linear electron-positron colliders. Despite the great progress achieved over last twenty years in laser technology, laser and beam driven particle acceleration, and special target availability, positron acceleration remains significantly underdeveloped if compared to electron acceleration. This is due to both the specifics of the plasma-based acceleration, and the lack of adequate positron sources tailored for the subsequent plasma based acceleration. Here a positron source based on the collision of a high energy electron beam with a high intensity laser pulse is proposed. The source relies on the subsequent multi-photon Compton and Breit-Wheeleer processes to generate an electron-positron pair out of a high energy photon emitted by an electron. Due to the strong dependence of the Breit-Wheeler process rate on photon energy and field strength, positrons are created with low divergence in a small volume around the peak of the laser pulse. The resulting low emittance in the submicron range potentially makes such positron source interesting for collider applications.
Forward citations
Cited by 2 Pith papers
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Brilliant multi-GeV Compton gamma-ray source seeded by a photon accelerator
Photon acceleration of an optical pulse to XUV in a beam-driven plasma wake, followed by plasma-mirror reflection and Compton scattering, yields multi-GeV gamma rays with 10^25 brilliance and high polarization.
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Reaching extreme fields in laser-electron beam collisions with XUV laser light
Photon acceleration to XUV wavelengths lets multi-GeV electrons reach quantum nonlinearity parameters above 100 with about 10% probability of detecting emitted photons, opening a route to test strong-field QED breakdown.
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