Element Failure Detection of Array Antenna using Near-field Measurement with Shallow Neural Network

M. Ameya, S. Kurokawa
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引用次数: 1

Abstract

In this report, the element failure detection of array antenna is performed with a minimum number of measurement points while maintaining sufficient accuracy by learning the relationship between excitation coefficients of array antenna and the electric near-field distribution by a shallow neural network. When training the neural network, the massive number of training data are generally required. For increasing the training data, we use each element-fed near-field distribution multiplied by a number of random excitation coefficients. In the case of dipole array antennas, the estimation error of excitation coefficients of array antenna less than 1% are achieved by our trained neural network with a minimum number of near-field measurements.
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基于浅神经网络近场测量的阵列天线元件失效检测
本报告通过浅层神经网络学习阵列天线激励系数与电近场分布的关系,在保证足够精度的前提下,以最少的测点进行阵列天线元件失效检测。在训练神经网络时,通常需要大量的训练数据。为了增加训练数据,我们使用每个元素供给的近场分布乘以一些随机激励系数。在偶极子阵列天线的情况下,我们训练的神经网络在近场测量次数最少的情况下,使阵列天线的激励系数估计误差小于1%。
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