Prague Asterix Laser System (PALS): results and upgrades

K. Jungwirth, K. Rohlena, J. Ullschmied, A. Cejnarova, L. Juha, M. Kozlová, B. Králiková, J. Krása, E. Krousky, P. Kubát, L. Laska, K. Mašek, T. Mocek, M. Pfeifer, A. Prag, O. Renner, B. Rus, P. Severová, J. Skála, P. Straka, H. Turčičova
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引用次数: 3

Abstract

The PALS multi-user laser facility has been offering the beam time to the groups of both domestic and foreign rsearchers since September 2000. During the past two years of operation of its terawatt iodine laser system, a number of technical innovations and new diagnostic options were implemented, the most important of which are described in the paper. A brief survey of the current PALS research program is also given. Laser plasma sources of x-radiation and of highly stripped ions represent the two main lines followed. Recent highlights include the development and application of a highly coherent double-pass XUV laser based on Ne-like zinc. The reported studies of material response to the XUV pulses are mainly motivated by a potential use of the observed ablation phenomena e.g. in nanotechnology, while the x-ray contact microscopy permitted to image living biological objects with a resolution comparable to that of the electron microscopy. The PALS laser system is now in a routine operation, which opens the way to its new upgrades. The progress reached with the key ones -- application of elements of adaptive optics, replacement the original iodine oscillator by a solid-state based one, and, most important, implementation of the optical parametric chirped pulse amplification (OPCPA) technique -- is also reported.
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布拉格阿斯特里克斯激光系统(PALS):结果和升级
pal多用户激光设备自2000年9月开始为国内外科研团队提供光束时间。在其太瓦碘激光系统过去两年的运行中,实施了许多技术创新和新的诊断选择,其中最重要的在本文中进行了描述。本文还简要介绍了目前PALS的研究现状。x射线的激光等离子体源和高度剥离离子的激光等离子体源代表了遵循的两条主线。最近的亮点包括基于类ne锌的高相干双通XUV激光器的开发和应用。已报道的材料对XUV脉冲响应的研究主要是由观察到的烧蚀现象的潜在用途驱动的,例如在纳米技术中,而x射线接触显微镜允许以与电子显微镜相当的分辨率对活体生物物体进行成像。PALS激光系统现在处于常规操作中,这为其新的升级开辟了道路。本文还报道了自适应光学元件的应用、用固态振荡器取代原有的碘振荡器以及最重要的光学参量啁啾脉冲放大(OPCPA)技术的实现等关键技术的进展。
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