1. The MING proposal at SHINE: megahertz cavity enhanced X-ray generation
- Author
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Huang, Nan-Shun, Liu, Zi-Peng, Deng, Bang-Jie, Zhu, Zi-Han, Li, Shao-Hua, Liu, Tao, Qi, Zheng, Yan, Jia-Wei, Zhang, Wei, Xiang, Sheng-Wang, Lei, Yang-Yang, Zhu, Ya, He, Yong-Zhou, Yuan, Qi-Bing, Gao, Fei, Deng, Rong-Bing, Sun, Sen, Lei, Zhi-Di, Jiang, Zhi-Qiang, Duan, Meng-Qi, Zhuan, Yuan, Huang, Xue-Fang, Dong, Peng-Cheng, Li, Zhong-Liang, Si, Shang-Yu, Xue, Lian, Chen, Si, Liu, Yong-Fang, Tong, Ya-Jun, Deng, Hai-Xiao, and Zhao, Zhen-Tang
- Abstract
The cavity-based X-ray free-electron laser (XFEL) has promise in producing fully coherent pulses with a bandwidth of a few meV and very stable intensity, whereas the currently existing self-amplified spontaneous emission (SASE) XFEL is capable of generating ultra-short pulses with chaotic spectra. In general, a cavity-based XFEL can provide a spectral brightness three orders of magnitude higher than that of the SASE mode, thereby opening a new door for cutting-edge scientific research. With the development of superconducting MHz repetition-rate XFEL facilities such as FLASH, European-XFEL, LCLS-II, and SHINE, practical cavity-based XFEL operations are becoming increasingly achievable. In this study, megahertz cavity enhanced X-ray generation (MING) is proposed based on China’s first hard XFEL facility - SHINE, which we refer to as MING@SHINE.
- Published
- 2023
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