基于卷积神经网络的有源表面天线调整分析方法

Y. Ban, Shang Shi, Na Wang, Qian Xu, Shufei Feng
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引用次数: 0

摘要

有源面技术是保证毫米波/亚毫米波大型反射天线反射精度的关键技术之一。天线是复杂、大型、高精度设备,其有源面受多种因素影响,难以综合处理。本文基于深度学习方法可通过数据学习进行改进的优势,提出了基于深度学习的大型反射天线有源调整值分析方法。该方法针对大型反射天线由多块面板拼接而成的特点,构建了天线主动调整分析的神经网络模型。基于单个激励器必须支持多个面板(通常为 4 个)的约束条件,设计了一个自主学习的神经网络强调层模块,以增强主动调整神经网络模型的适应性。以经典的 8 米天线为例,激励器的平均调整误差为 0.00252 毫米,相应的天线表面误差为 0.00523 毫米。这一主动调整结果显示了本文方法的有效性。
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The Adjustment Analysis Method of the Active Surface Antenna Based on Convolutional Neural Network
Active surface technique is one of the key technologies to ensure the reflector accuracy of the millimeter/sub-millimeter wave large reflector antenna. The antenna is complex, large-scale, and high-precision equipment, and its active surfaces are affected by various factors that are difficult to comprehensively deal with. In this paper, based on the advantage of deep learning method that can be improved through data learning, we propose the active adjustment value analysis method of large reflector antenna based on deep learning. This method constructs a neural network model for antenna active adjustment analysis in view of the fact that a large reflector antenna consists of multiple panels spliced together. Based on the constraint that a single actuator has to support multiple panels (usually 4), an autonomously learned neural network emphasis layer module is designed to enhance the adaptability of the active adjustment neural network model. The classical 8-meter antenna is used as a case study, the actuators have an mean adjustment error of 0.00252 mm, and the corresponding antenna surface error is 0.00523 mm. This active adjustment result shows the effectiveness of the method in this paper.
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