开发计算γ谱法中自吸收校正因子的计算机程序

Ioannis Alafogiannis, F. Tugnoli, Iason Mitsios, M. Anagnostakis
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引用次数: 0

摘要

在γ光谱应用中,需要考虑的主要影响之一是光子(特别是低能量光子)在光子源内的自吸收,这可能在校准标准和分析样品之间存在显着差异。这种效果高度依赖于材料成分、密度和样品厚度。处理自吸收问题的一种常用方法是利用效率校正因子(ECF)来考虑校准标准品和样品之间不同的吸收特性。这项工作提出了正在进行的开发的MATLAB代码的ECF计算。该代码计算了各种材料矩阵和成分的ECF,重点是自然发生的放射性材料(NORM),它可能具有高密度并含有高Z元素。将代码的计算结果与蒙特卡罗模拟等其他ECF计算方法进行了比较。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Development of a computer code for the calculation of self-absorption correction factors in γ-spectrometry applications
In γ-spectroscopy applications, one of the main effects that needs to be considered is the self absorption of the photons – especially of low energy – within the photon source, which may be significantly different between the calibration standard and the sample analyzed. This effect is highly dependent on material composition and density and sample thickness. A common way of dealing with the self-absorption issue is by using Efficiency Correction Factors (ECF), to take into consideration the different absorbing properties between the calibration standard and the sample. This work presents the on-going development of a MATLAB code for ECF calculation. The code calculates ECF for a variety of material matrices and compositions, focusing on Naturally Occurring Radioactive Materials (NORM), which may have high density and contain high Z elements. The results of the code were compared with other methods of ECF calculation, such as Monte-Carlo simulation.
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