基于深度神经网络的阻抗曲线集总电路建模

Daehwan Lho, Hyunwook Park, Seongguk Kim, Taein Shin, Keunwoo Kim, Kyungjune Son, Hyungmin Kang, Boogyo Sim, Keeyoung Son, Minsu Kim, Joungho Kim
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引用次数: 0

摘要

通常,建模需要很长时间,因为它取决于工程师的经验,并且是通过反复调整来完成的。在本文中,我们提出了一种基于深度神经网络(DNN)的阻抗曲线集总电路建模方法。该方法利用深度神经网络提供了电感(L)、电容(C)和电导(G)的快速、准确的电路模型。由于LCG参数是通过阻抗曲线来预测的,因此可以灵活地适用于各种应用。为了准确地预测集总电路参数,DNN模型通过各种案例研究进行设计和训练。结果表明,该方法对电感和电导的预测精度为100%,对电容的预测精度为92%。换句话说,所提出的方法成功地模拟了各种应用的电特性。
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Deep Neural Network-based Lumped Circuit Modeling using Impedance Curve
Usually, modeling takes a long time because it depends on the engineer's experience and is done through repetitive tuning. In this paper, we propose a deep neural network (DNN)-based lumped circuit modeling method using an impedance curve. The proposed method provides a fast and accurate electrical circuit model of inductance (L), capacitance (C), and conductance (G) using a DNN. Since the LCG parameters are predicted by the impedance curve, it is flexible for various applications. For accurately predicting lumped circuit parameters, the DNN model is designed and trained through various case studies. As a result, the proposed method predicts 100% accuracy in inductance and conductance, and 92% accuracy in capacitance. In other words, the proposed method successfully models the electrical characteristics of various applications.
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