非线性增强型空气悬浮系统的NARX神经网络建模

Hazem A. Taha, Mohamed K. Othman, N. E. Abbas, Yara K. Sayed, H. Ammar, R. Shalaby
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引用次数: 0

摘要

空气悬浮系统是一种动态快、阻尼小的高度非线性系统,本文旨在对其进行设计和建模。该系统使用带有外源输入的非线性自回归模型(NARX模型)进行训练。一个增强的高度测量系统,修改设置,和一些训练技术已经被用来克服在文献中系统的非线性所施加的限制。首先建立了系统的数学模型,然后利用NARX模型对来自物理装置的多个输入输出数据进行训练,建立了识别模型,从而完美地定义了系统的未知参数。数据是通过使用python - arduino链接的GUI视觉系统实现的闭环识别来收集的,与文献设置相比,结果是显著的。结果表明,NARX神经网络通过适当的训练程序,可以成功地模拟真实的空气悬浮系统。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Modeling of Nonlinear Enhanced Air Levitation System using NARX Neural Networks
the proposed paper aims to design and model an air levitation system, which is a highly nonlinear system because of its fast dynamics and low damping. The system is trained using a Nonlinear Autoregressive model with exogenous input (NARX model). An enhanced height measurement system, modified setup, and several training techniques have been used to overcome the restrictions that the non-linearity of the system imposes in the literature. The system mathematical model has been illustrated, followed by an identified model using NARX model trained on several input-output data from the physical setup, which led to perfectly define the unknown parameters of the system. The data is collected using a closed-loop identification implemented using a Python-Arduino-linked GUI vision system, and the results were remarkable when compared to the literature setup. The results verify that NARX neural network, with suitable training procedures, could successfully model a real air levitation system.
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