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Application of Machine Learning Methods in Neutrino Experiments

JOURNAL OF PHYSICAL STUDIES(2024)

Taras Shevchenko Natl Univ Kyiv

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Abstract
Machine learning (ML) methodologies, in recent years, have carved a significant niche within the realm of neutrino physics. These tools are not just ancillary but pivotal to the success of emerging experimental endeavors in the field. An overwhelming portion of current neutrino experiments rely heavily on an array of state-of-the- art machine learning tools. These sophisticated ML tools have empowered researchers to derive physical insights of unparalleled depth and clarity, significantly outpacing the potential of traditional data analytics approaches. Central to this achievement are the advanced neural network designs being employed. With the rapid evolution of machine learning techniques across diverse sectors, it is of paramount importance for neutrino physicists to remain updated and adapt these innovations seamlessly into their research workflows. The pace and vigor of advancements in machine learning, especially its applications in neutrino research, are nothing short of remarkable. Given this dynamic landscape, there's a continuous imperative to periodically distill, synthesize, and keep tabs on emerging trends. This paper, in essence, is an endeavor to provide such a synthesized overview, capturing the zeitgeist of ML applications in neutrino physics
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machine learning,neutrino physics,convolutional neural networks.
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要点】:本文概述了机器学习方法在 neutrino 实验中的应用,强调了先进神经网络设计在推动 neutrino 物理研究方面的创新作用。

方法】:通过综合分析和归纳当前机器学习在 neutrino 物理领域的应用,文章突出了机器学习工具如何提升数据分析的深度和清晰度。

实验】:文章没有具体描述单独的实验或使用的数据集名称,而是提供了一个关于机器学习在 neutrino 物理实验中应用的全面概述及其结果。