材料分析用低温探测系统

J. Hohne, M. Buhler, F. Feilitzsch, J. Jochum, T. Hertrich, C. Hollerith, M. Huber, J. Nicolosi, K. Phelan, D. Redfern, B. Simmnacher, R. Weiland, D. Wernicke
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引用次数: 1

摘要

分析表面上少量材料的需要,例如在半导体工业中,推动了基于超导探测器技术的高分辨率x射线光谱仪的发展。由于场发射扫描电子显微镜(FESEM)为实现高空间分辨率所需要的低激发能只能产生x射线谱的下半部分(<5keV),因此谱线重叠成为光谱分析中的一个严重问题。这个问题可以通过超导探测器技术来解决,该技术具有更好的能量分辨率,从而能够分离重要材料组合的x射线线。在工业应用中,超导传感器的冷却系统起着重要的作用,因为在洁净室环境中不允许使用液体冷却剂。这项工作将涵盖材料分析的基本需求以及用于工业应用的超导x射线光谱仪的实际实施。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Cryogenic detector systems for materials analysis
The need to analyze small amounts of materials on surfaces e.g. in semiconductor industry drives the development of high resolution X-ray spectrometers based on superconducting detector technology. Since low excitation energies needed for high spatial resolution in Field Emission Scanning Electron Microscopes (FESEM) yield only X-ray lines in the lower part of the X-ray spectrum (<5keV), line overlaps become a serious issue in the spectral analysis. This problem can be overcome with superconducting detector technology having better energy resolution and thus the ability to separate X-ray lines of important material combinations. For industrial applications the cooling system for the superconducting sensor plays an important role, since liquid coolants are not being tolerated in clean room environments. This work will cover the basic needs of the materials analyst as well as the practical implementation of superconducting X-ray spectrometers for industrial applications.
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