Stabilized Radiation Pressure Dominated Ion Acceleration from Thin-foil Targets
arXiv:1006.2865 · doi:10.1063/1.3606562
Abstract
We study transverse and longitudinal electron heating effects on the target stability and the ion spectra in the radiation pressure dominated regime of ion acceleration by means of multi dimensional particle-in-cell (PIC) simulations. Efficient ion acceleration occurs when the longitudinal electron temperature is kept as low as possible. However, tailoring of the transverse electron temperature is required in view of suppressing the transverse instability, which can keep the target structure intact for longer duration during the acceleration stage. We suggest using the surface erosion of the target to increase the transverse temperature, which improves both the final peak energy and the spectral quality of the ions in comparison with a normal flat target.
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- Laser-Driven Rayleigh-Taylor Instability: Plasmonics Effects and Three-Dimensional Structures
- Surface plasmons in superintense laser-solid interactions
- Suppression of transverse ablative Rayleigh-Taylor-like instability in the hole-boring radiation pressure acceleration by using elliptically polarized laser pulses
- High Energy Gain in Three-Dimensional Simulations of Light Sail Acceleration
- Plasma-Based Generation and Control of a Single Few-Cycle High-Energy Ultrahigh-Intensity Laser Pulse
- The high density -ray emission and dense positron production via multi-lasers driven circular target
- Radiation pressure acceleration of protons from structured thin-foil targets