利用集成靶协同增强激光-质子加速

Zhipeng Liu, Ying Gao, Qingfan Wu, Z. Pan, Yulan Liang, Tan Song, Tianqi Xu, Y. Shou, Yujia Zhang, Haoran Chen, Qihang Han, Chenghao Hua, Xun Chen, Shirui Xu, Z. Mei, Pengjie Wang, Z.-K. Peng, Jiarui Zhao, Shiyou Chen, Yanying Zhao, Xueqing Yan, Wenjun Ma
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引用次数: 0

摘要

在激光照射薄箔靶的质子加速过程中,在薄箔前表面添加泡沫或在后表面连接螺旋线圈已被证明是增强质子能量的有效方案。在本文中,我们首次尝试在薄金属箔靶上同时添加泡沫和连接螺旋线圈,将上述两种增强方案结合起来,用于激光质子加速。通过在实验中使用这种集成靶,产生了聚焦光束。质子的最大能量和高能质子的数量明显增加。此外,在光谱的高能端还形成了准单能峰。粒子间等离子体模拟和电磁束动力学模拟表明,双层靶不仅增强了质子的能量,还导致逸出电子的数量增加了数倍,从而增强了螺旋线圈的后加速度。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Synergistic enhancement of laser-proton acceleration with integrated targets
In proton acceleration from laser-irradiated thin foil targets, adding foams on the front surface or connecting a helical coil on the rear surface of the foil has proven to be an effective scheme to enhance proton energy. In this paper, we make the first attempt to incorporate the above two enhancement schemes for laser-proton acceleration by simultaneously adding foams and connecting a helical coil to a thin foil target. By utilizing such integrated targets in the experiment, focused beams were generated. The maximum proton energy and the number of energetic protons are apparently enhanced. Moreover, quasi-monoenergetic peaks were formed at the high-energy end of the spectra. Particle-in-cell plasma simulations and electromagnetic beam dynamics simulations show that the double-layer target not only enhances the energy of protons but also leads to a multiple-fold increase in the number of escaped electrons, which results in an enhanced post-acceleration in helical coil subsequently.
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