首页> 外文期刊>Journal of Analytical Atomic Spectrometry >Interfacial effects during the analysis of multilayer metal coatings by radio-frequency glow discharge optical emission spectroscopy - Part 2. Evaluation of depth resolution function and application to thin multilayer coatings
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Interfacial effects during the analysis of multilayer metal coatings by radio-frequency glow discharge optical emission spectroscopy - Part 2. Evaluation of depth resolution function and application to thin multilayer coatings

机译:射频辉光放电光发射光谱分析多层金属涂层时的界面效应-第2部分。深度分辨率功能的评估及其在多层薄涂层中的应用

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摘要

The crater shape effects in GDOES depth profiling of multilayer metal coatings, with an individual thickness layer >500 nm, studied in the foregoing paper, have been extended to the case of thinner layers ( layer thickness <150 nm). The analysis of 10 bilayers of 70 nm chromium and 150 nm titanium showed an increased degradation of the composition depth profiles. The continuous change in shape of the crater after each interface induces a higher mixing of the thin layers. Reducing the thickness of the individual layers added new features to the depth profiles, such as changes on the symmetry of the profiles probably due to a mixing or simultaneous detection of consecutive bilayers. Ultra-thin chromium layers of 2.5 and 5 nm, buried at different depths in a titanium matrix up to a thickness of 3 mm, were properly resolved both near the surface and deeply embedded in the matrix and used to evaluate the depth resolution function of the GDOES technique. The relative depth resolutions of all the interfaces were estimated showing a typical dependence with depth (z) of the type z(-0.6-0.7).
机译:在前述论文中研究的单个厚度层> 500 nm的多层金属涂层的GDOES深度剖析中的坑口形状效应已扩展到较薄层(层厚度<150 nm)的情况。对10个70 nm铬和150 nm钛的双层膜的分析表明,组合物深度分布的退化增加了。在每个界面之后,火山口形状的连续变化引起了薄层的更高混合。减小各个层的厚度可为深度轮廓添加新的功能,例如轮廓的对称性变化可能是由于连续双层的混合或同时检测到的。将2.5和5 nm的超薄铬层以不同深度埋入厚度为3 mm的钛基体中,在表层附近和深埋在基体中均已正确分解,并用于评估基体的深度分辨率功能GDOES技术。估计所有界面的相对深度分辨率,显示出与类型(z)(-0.6-0.7)的深度(z)的典型依赖性。

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