Relative phases of superimposed high-frequency pulses can increase total electron-positron pair yields by 10-30 percent in the dynamically assisted Schwinger regime.
Photo-induced pair production and strong field QED on Gemini
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abstract
The extreme intensities obtainable with lasers such as Gemini allow non-linear QED phenomena to be investigated according to our calculations. Electron-positron pair production from a pure vacuum target, which has yet to be observed experimentally, is possibly the most iconic process. Beyond pair-production our campaign will allow the experimental investigation of currently unexplored extreme radiation regimes, like the quantum radiation dominated regime (where quantum and self-field effects become important) and non-linear Compton scattering. This is the first experiment in a multi-part campaign proposed by a major international collaboration to investigate non-linear QED. This proposal is for the first experiment in a series of 3 to achieve our most high-profile experimental goal of pair production in vacuum, but each experiment is designed to have its own tangible high-profile outcome.
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Relative-phase dependence of dynamically assisted electron-positron pair creation in the superposition of strong oscillating electric-field pulses
Relative phases of superimposed high-frequency pulses can increase total electron-positron pair yields by 10-30 percent in the dynamically assisted Schwinger regime.