Acceleration of a trailing positron bunch in a plasma wakefield accelerator. 2017

A Doche, and C Beekman, and S Corde, and J M Allen, and C I Clarke, and J Frederico, and S J Gessner, and S Z Green, and M J Hogan, and B O'Shea, and V Yakimenko, and W An, and C E Clayton, and C Joshi, and K A Marsh, and W B Mori, and N Vafaei-Najafabadi, and M D Litos, and E Adli, and C A Lindstrøm, and W Lu
LOA, ENSTA ParisTech, CNRS, Ecole Polytechnique, Universite Paris-Saclay, 91762, Palaiseau, France. antoine.doche@polytechnique.edu.

High gradients of energy gain and high energy efficiency are necessary parameters for compact, cost-efficient and high-energy particle colliders. Plasma Wakefield Accelerators (PWFA) offer both, making them attractive candidates for next-generation colliders. In these devices, a charge-density plasma wave is excited by an ultra-relativistic bunch of charged particles (the drive bunch). The energy in the wave can be extracted by a second bunch (the trailing bunch), as this bunch propagates in the wake of the drive bunch. While a trailing electron bunch was accelerated in a plasma with more than a gigaelectronvolt of energy gain, accelerating a trailing positron bunch in a plasma is much more challenging as the plasma response can be asymmetric for positrons and electrons. We report the demonstration of the energy gain by a distinct trailing positron bunch in a plasma wakefield accelerator, spanning nonlinear to quasi-linear regimes, and unveil the beam loading process underlying the accelerator energy efficiency. A positron bunch is used to drive the plasma wake in the experiment, though the quasi-linear wake structure could as easily be formed by an electron bunch or a laser driver. The results thus mark the first acceleration of a distinct positron bunch in plasma-based particle accelerators.

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