为直流-直流转换器的快速瞬态响应实现神经网络和偏置校正控制

Hidenori Maruta;Yasuaki Ikeda;Shota Watanabe;Tomokazu Sakashita;Hiroyasu Iwabuki
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引用次数: 0

摘要

本研究提出了一种基于神经网络的直流-直流转换器控制方法,以实现与 PID 控制相协调的快速瞬态响应。神经网络控制利用其对瞬态的预测,动态修改 PID 控制中的参考值,从而有效改善了瞬态响应。然而,神经网络控制会导致过补偿现象,收敛性也会变差。为了抑制过补偿并获得更快的收敛性,还同时采用了神经网络时序控制和偏差校正。在本方法中,为了实现神经网络控制的边缘级预测计算处理,数据采集和神经网络的重复训练都是离线进行的,而重复训练的神经网络的预测则是在市售的计算单元中在线实现的。实验结果证实,与传统的 PID 控制相比,该方法的瞬态响应速度明显更快。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Implementation of Neural Network and Bias Correction Controls for Fast Transient Response of DC–DC Converter
This study presents a neural network-based control method of dc–dc converter to realize fast transient response in coordination with the PID control. The neural network control effectively improves the transient response by modifying the reference value in the PID control dynamically using its predictions in the transient state. However, it causes an overcompensation phenomenon and the convergence property becomes worse. To suppress the overcompensation and obtain the faster convergence, neural network timing control and bias correction are also adopted simultaneously. In the presented method, to realize edge-level prediction computation processing of the neural network control, data acquisition and repetitive training of neural networks are proceeded offline and the prediction by repetitive trained neural networks is implemented online in a commercially available computation unit. Experimental results confirm that the presented method obtains the significantly faster transient response compared with the conventional PID control.
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