傅立叶变换光谱在电感耦合等离子体发射光谱图谱制备中的应用

J. Travis, M. Salit, R. Winge, D. Eckels, S. Weeks
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引用次数: 0

摘要

近二十年来,电感耦合等离子体发射光谱法(ICP/OES)已成为分析原子光谱法的主要工具ICP的成功很大程度上归功于火炬的设计,它允许从样品溶液中喷出的液滴沿着等离子体的轴线注入,以及等离子体蒸发溶剂、解离大多数化学物质和产生高度激发的自由原子和原子离子的能力。通过将测量的谱线强度与已知“标准”溶液的谱线强度的比值,和/或通过在样品中添加定量的“尖峰”来确定物种浓度。在正常工作条件下,用于化学分析的观察区接近局部热力学平衡(LTE),激发温度约为6300K,电子密度约为1016 cm-3。高激发能量是一个好坏参半的祝福,为大约70个元素提供高灵敏度,以及伴随物种的光谱干扰的可能性。采用合理的高色散来减少光谱干扰,干扰通常用谱线轮廓和谱表来表征。
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Application of Fourier Transform Optical Spectromety to the Preparation of a Spectral Atlas for Inductively-Coupled Plasma Optical Emission Spectrometry
Inductively-coupled plasma optical emission spectrometry (ICP/OES) has become the primary tool of analytical atomic spectrometry over the past two decades.1 The success of the ICP may be largely attributed to a torch design which permits a droplet spray from a sample solution to be injected along the axis of the plasma, and from the ability of the plasma to evaporate the solvent, dissociate most chemical species, and render highly excited populations of free atoms and atomic ions. Species concentrations are determined by ratioing measured spectral line intensities to those for known "standard" solutions, and/or by adding quantitative "spikes" to the sample. Under normal operating conditions, the viewing zone utilized for chemical analysis is near local thermodynamic equilibrium (LTE), with an excitation temperature of about 6300K and an electron density of about 1016 cm-3. The high excitation energy is a mixed blessing, providing high sensitivity for about 70 elements, along with the possibility of spectral interferences from concomitant species. Reasonably high optical dispersion is employed to minimize spectral interferences, and interferences are normally characterized by line profiling and spectral tables.
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