PIC simulations of regenerative cascading show a 45 GeV, 100 nC driver yields a 1.1 TeV, 0.12 nC electron bunch with 0.3% energy spread in two plasma stages totaling under 1 km.
Terawatt attosecond X-ray source driven by a plasma accelerator
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abstract
Plasma accelerators can generate ultra high brightness electron beams which open the door to light sources with smaller physical footprint and properties un-achievable with conventional accelerator technology. In this paper we show that electron beams from Plasma WakeField Accelerators (PWFAs) can generate few-cycle coherent tunable soft X-ray pulses with TW peak power and a duration of tens of attoseconds, an order of magnitude more powerful, shorter and with better stability than state-of-the-art X-ray Free Electron Lasers (XFELs). Such a light source would significantly enhance the ability to experimentally investigate electron dynamics on ultrafast timescales, having broad-ranging impact across multiple scientific fields. Rather than starting from noise as in typical XFELs, the X-rays emission in this approach is driven by coherent radiation from a pre-bunched, near Mega Ampere (MA) current electron beam of attosecond duration. This relaxes the restrictive tolerances which have hindered progress towards utilizing plasma accelerators as coherent X-ray drivers thus far, presenting a new paradigm for advanced-accelerator light source applications.
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2026 1verdicts
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TeV Electron Beams from Plasma Acceleration via Regenerative Cascading
PIC simulations of regenerative cascading show a 45 GeV, 100 nC driver yields a 1.1 TeV, 0.12 nC electron bunch with 0.3% energy spread in two plasma stages totaling under 1 km.