基于超材料结构和组成实验数据的卷积神经网络特性预测

M. Zozyuk, D. Koroliouk, Pavel Krysenko, Alexei Yurikov, Y. Yakymenko
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引用次数: 0

摘要

这项工作提出了一种基于超材料的结构、超材料组分的物理性质及其特征来预测超材料性质的算法。在本文中,术语“特性”是指与具有一定频率或光谱组成的电磁照射的材料的辐照相互作用的结果,以确定该超材料的透射/反射系数。该模型基于以3D对象的形式构造超材料,以对象矢量中的附加组件的形式表示物理属性,以多项式系数的形式表示实验数据,或依赖关系图上的点。尽管数据量很小,但两种情况的错误率都足够小,并给出了实验数据的预测结果。通过补充表征实验数据获得条件的参数,如偏振、入射角、辐照强度等,可以增加实验数据的数量。在神经网络学习的数据准备过程中,主要问题可能会出现,因为很难将3D格式转换为所需的数据阵列,并考虑到所有情况,介电和磁导率以及比电导率。
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Prediction of Characteristics Using a Convolutional Neural Network Based on Experimental Data on the Structure and Composition of Metamaterials
This work proposes an algorithm for properties predicting metamaterials depending on their structure, physical properties of the components of metamaterials, and their characteristics. In this context, the term ”properties” means the result of interacting with the irradiation of a material with electromagnetic exposure of a certain frequency or spectral composition to determine the transmittance/reflection coefficients of the metamaterial. The model is based on the construction of metamaterial in form of a 3D object, the presentation of physical properties in the form of additional components in the object’s vectors, the presentation of experimental data in the form of polynomial coefficients, or the points on the chart of dependencies. Despite the small amount of data, a sufficiently small error rate was obtained for both cases, and the prediction results of experimental data are presented. The amount of experimental data can be increased by supplementary parameters which characterize the conditions under which the experimental data were obtained - polarization, angle of incidence, the intensity of irradiation, etc. The main issues may arise during the preparation of data for neural network learning due to difficulties in converting 3D formats into the required array of data and taking into account all the circumstances, dielectric and magnetic permeabilities, and specific conductivity.
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