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Multidimensional Depth Profile Analysis of Oxide Layers by Plasma Profiling Techniques: GD-OES and PP-TOFMS

机译:通过等离子体轮廓分析技术对氧化层进行多维深度剖面分析:GD-OES和PP-TOFMS

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摘要

Plasma Profiling Techniques provide direct measurement of the chemical composition of materials as a function of depth, with nanometre resolution and the capability to measure both thin and thick layers. These techniques rely on the fast sputtering of a representative area of the material of interest by a high density (10~(14)/cm~3) and low energy plasma. The unique characteristics of this plasma allow very fast erosion (2-10 nm/s) with minimum surface damage (as the incident particles have an average energy of about 50 eV) which has been shown to be advantageous for SEM sample preparation. When coupled to a high resolution optical system, the resulting technique is called RF GD-OES and is well established, when coupled to TOFMS detection, it is named Plasma Profiling Time of Flight Mass Spectrometry, a newly commercialized variation of the same technique. Both instruments feature an advanced pulsed RF source allowing the measurements of conductive and non conductive layers. Various applications will be presented ranging from thin film analysis for composition, contamination detection, surface area measurements and doping level to characterization of diffusion mechanisms. Aspects of analytical performance with regards to sensitivity, quantification, repeatability and sample throughput will be discussed.
机译:等离子体轮廓分析技术可直接测量材料的化学成分随深度的变化,具有纳米分辨率,并且能够测量薄层和厚层。这些技术依靠高密度(10〜(14)/ cm〜3)和低能等离子体对目标材料的代表性区域进行快速溅射。该等离子体的独特特性可以实现非常快速的腐蚀(2-10 nm / s),并且表面损伤最小(因为入射粒子的平均能量约为50 eV),这已被证明对SEM样品的制备是有利的。当与高分辨率光学系统耦合时,所得到的技术被称为RF GD-OES,并且已经确立,当与TOFMS检测耦合时,其被称为等离子分析飞行时间质谱,这是该技术的新商业化变体。两种仪器均具有先进的脉冲射频源,可以测量导电层和非导电层。从组成的薄膜分析,污染检测,表面积测量和掺杂水平到扩散机理的表征,将出现各种应用。将讨论有关灵敏度,定量,可重复性和样品通量的分析性能方面。

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