下一代先进的光源科学

W. Flavell
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引用次数: 1

摘要

加速器科学的最新进展使提供XUV和更硬的x射线FELs成为可能,这些FELs将产生短(fs政权)光脉冲,可广泛调谐,强度大于自发波动辐射的106倍。能量回收技术提供了短脉冲、峰值通量自发辐射的希望,在红外和太赫兹光谱部分具有特别的优势。回顾了这些第四代资源所带来的新科学。一个关键特性是动态测量。泵探针实验将允许实时测量反应途径和短寿命中间体。FEL辐射的高强度将在成像应用中实现非常高的分辨率。高场强的XUV辐射将导致物质的新状态的产生,而在最高的x射线能量下,目标是实现单分子衍射。为世界主要第四代项目的科学案例提供了一些实验的说明。本文讨论了一些已经使用红外和紫外feles进行的科学研究,以及从新的XUV光源(如DESY的FLASH)获得的结果。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Next generation advanced light source science
Recent advances in accelerator science make feasible the provision of XUV and harder X-ray FELs that will generate short (fs regime) pulses of light that is broadly tuneable and >106 times more intense than spontaneous undulator radiation. Energy recovery technology offers the promise of short pulse, high peak flux spontaneous radiation, with particular advantages in the IR and THz parts of the spectrum. The new science enabled by these 4th generation sources is reviewed. A key feature is dynamic measurements. Pump-probe experiments will allow real-time measurements of reaction pathways and short-lived intermediates. The high intensity of FEL radiation will allow very high resolution in imaging applications. The very high field intensity of the XUV radiation will lead to the creation of new states of matter, while at the highest X-ray energies, the goal is to achieve single molecule diffraction. Illustrations are provided of some of the experiments proposed in the Science Cases for the major world 4th generation projects. Some of the science already undertaken using IR and UV FELs, and results obtained from new XUV sources (such as FLASH at DESY) are discussed.
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