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Modular supersonic nozzle for the stable laser-driven electron acceleration

The sharp density down-ramp injection (shock injection) mechanism produces the quasi-monoenergetic electron beam with a bunch duration of tens of femtoseconds via laser wakefield acceleration. The stability of the accelerated electron beam strongly depends on the stability of the laser beam and the...

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Published in:Review of scientific instruments 2024-01, Vol.95 (1)
Main Authors: Lei, Zhenzhe, Jin, Zhan, Gu, Yan-Jun, Sato, Shingo, Zhidkov, Alexei, Rondepierre, Alexandre, Huang, Kai, Nakanii, Nobuhiko, Daito, Izuru, Kando, Masaki, Hosokai, Tomonao
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container_title Review of scientific instruments
container_volume 95
creator Lei, Zhenzhe
Jin, Zhan
Gu, Yan-Jun
Sato, Shingo
Zhidkov, Alexei
Rondepierre, Alexandre
Huang, Kai
Nakanii, Nobuhiko
Daito, Izuru
Kando, Masaki
Hosokai, Tomonao
description The sharp density down-ramp injection (shock injection) mechanism produces the quasi-monoenergetic electron beam with a bunch duration of tens of femtoseconds via laser wakefield acceleration. The stability of the accelerated electron beam strongly depends on the stability of the laser beam and the shock structure produced by the supersonic gas nozzle. In this paper, we report the study of a newly designed modular supersonic nozzle with a flexible stilling chamber and a converging–diverging structure. The performance of the nozzle is studied both numerically and experimentally with the computational fluid dynamics simulation and the Mach–Zehnder interferometry method. The simulation results and the experimental measurements are well consistent, and both prove the effectiveness of the stilling chamber in stabilizing the gas flow.
doi_str_mv 10.1063/5.0181414
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subjects Chambers
Computational fluid dynamics
Electron acceleration
Electron beams
Gas flow
Laser beams
Modular design
Supersonic nozzles
title Modular supersonic nozzle for the stable laser-driven electron acceleration
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