Artificial intelligence in non-medical and non-nuclear power applications of nuclear radiation: A review

IF 2.8 3区 物理与天体物理 Q3 CHEMISTRY, PHYSICAL
Khalil Moshkbar-Bakhshayesh
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Abstract

Artificial Intelligence (AI) and soft computing (SC) have transformed various fields, including nuclear radiation applications. These applications encompass a wide array of challenges, such as material discrimination in dual-energy X-ray radiography, neutron–gamma discrimination, automating complex tasks in particle accelerators, neutron spectrum unfolding, security applications, the imaging of dense structures using cosmic-ray muons, etc. Traditional techniques often face limitations in these areas due to high complexity, data variability, and the need for real-time processing. AI/SC techniques, including artificial neural networks (ANN), fuzzy systems (FS), and evolutionary algorithms (EA), offer novel approaches to overcome these challenges. Dual-energy X-ray radiography, for instance, utilizes modular neural networks to discriminate between different materials and their thicknesses quantitatively. Unlike traditional techniques, this approach ensures higher precision and adaptability. Similarly, in neutron–gamma discrimination, supervised learning methods such as multilayer perceptron (MLP) and clustering techniques like K-means improve the separation accuracy. Neutron spectrum unfolding, an essential process for extracting energy spectra from detectors, is another area where AI/SC demonstrates its strengths. The use of AI in encoding radiation signals and constructing energy spectra further expands its scope. Despite these advancements, challenges persist, particularly the dependency on extensive, high-quality datasets for training AI models, the computational demands of deep learning techniques, and the black-box nature of many AI algorithms that limit interpretability. Addressing these challenges requires collaborative efforts to create open-access datasets, develop transparent and interpretable algorithms, and optimize computational frameworks for real-time applications. In conclusion, integrating AI and SC into applications of nuclear radiation has paved the way for significant advancements in the future, enabling solutions to complex and traditionally unsolvable problems.
人工智能在核辐射非医疗和非核电中的应用综述
人工智能(AI)和软计算(SC)已经改变了包括核辐射应用在内的各个领域。这些应用涵盖了一系列广泛的挑战,例如双能x射线照相中的材料识别,中子-伽马识别,粒子加速器中复杂任务的自动化,中子谱展开,安全应用,使用宇宙射线μ子对致密结构成像等。由于高复杂性、数据可变性和对实时处理的需求,传统技术在这些领域往往面临局限性。人工智能/SC技术,包括人工神经网络(ANN)、模糊系统(FS)和进化算法(EA),为克服这些挑战提供了新的方法。例如,双能x射线照相技术利用模块化神经网络定量区分不同的材料及其厚度。与传统技术不同,这种方法确保了更高的精度和适应性。类似地,在中子-伽马判别中,多层感知器(MLP)等监督学习方法和K-means等聚类技术提高了分离精度。中子谱展开是从探测器提取能谱的重要过程,是AI/SC展示其优势的另一个领域。人工智能在辐射信号编码和能谱构建中的应用进一步扩大了其应用范围。尽管取得了这些进步,但挑战依然存在,特别是对训练人工智能模型的大量高质量数据集的依赖,深度学习技术的计算需求,以及许多人工智能算法的黑箱性质限制了可解释性。解决这些挑战需要合作努力来创建开放获取的数据集,开发透明和可解释的算法,并优化实时应用的计算框架。总之,将人工智能和SC整合到核辐射应用中,为未来取得重大进展铺平了道路,使复杂和传统上无法解决的问题得以解决。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Radiation Physics and Chemistry
Radiation Physics and Chemistry 化学-核科学技术
CiteScore
5.60
自引率
17.20%
发文量
574
审稿时长
12 weeks
期刊介绍: Radiation Physics and Chemistry is a multidisciplinary journal that provides a medium for publication of substantial and original papers, reviews, and short communications which focus on research and developments involving ionizing radiation in radiation physics, radiation chemistry and radiation processing. The journal aims to publish papers with significance to an international audience, containing substantial novelty and scientific impact. The Editors reserve the rights to reject, with or without external review, papers that do not meet these criteria. This could include papers that are very similar to previous publications, only with changed target substrates, employed materials, analyzed sites and experimental methods, report results without presenting new insights and/or hypothesis testing, or do not focus on the radiation effects.
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