不平衡负载下维也纳整流器的自适应权模型预测控制策略

IF 1.6 3区 工程技术 Q3 ENGINEERING, ELECTRICAL & ELECTRONIC
Zhang Sun, Weidong Jin, Fan Wu, Qi Han, Yunpu Wu
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引用次数: 0

摘要

本研究解决了维也纳整流器在负载不平衡条件下管理中点电位不平衡和抑制电流过零失真的挑战。针对这一问题,提出了一种自适应权值模型预测控制策略。研究首先分析了维持中点电位平衡和减轻电流过零失真之间的相互作用,同时考虑了电流纹波、采样不精度和负载不平衡等影响。建立了电压矢量耦合误差的预测模型。利用该预测框架,提出了一种多目标模型预测控制策略,并结合权值自适应优化技术增强了目标间的协调性。实验结果验证了该方法在控制中性点电位不平衡、降低电流谐波和抑制过零失真方面的有效性,表明了该方法相对于现有方法的优越性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

An Adaptive Weight Model Predictive Control Strategy for Vienna Rectifiers Under Unbalanced Loads

An Adaptive Weight Model Predictive Control Strategy for Vienna Rectifiers Under Unbalanced Loads

This study tackles the challenge of managing midpoint potential imbalance and suppressing current zero-crossing distortion in Vienna rectifiers under conditions of unbalanced load. To address this, an adaptive weight model predictive control strategy is proposed. The research begins by analyzing the interaction between maintaining midpoint potential balance and mitigating current zero-crossing distortion, taking into account influences, such as current ripple, sampling inaccuracies, and load imbalance. A prediction model is formulated to predict the behavior of the voltage vector coupling error. Using this predictive framework, a multiobjective model predictive control strategy is developed, incorporating a weight adaptive optimization technique to enhance the coordination between objectives. Experimental results validate the effectiveness of the proposed approach in controlling neutral-point potential imbalance, reducing current harmonics, and suppressing zero-crossing distortion, demonstrating its advantages over existing methods.

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来源期刊
International Journal of Circuit Theory and Applications
International Journal of Circuit Theory and Applications 工程技术-工程:电子与电气
CiteScore
3.60
自引率
34.80%
发文量
277
审稿时长
4.5 months
期刊介绍: The scope of the Journal comprises all aspects of the theory and design of analog and digital circuits together with the application of the ideas and techniques of circuit theory in other fields of science and engineering. Examples of the areas covered include: Fundamental Circuit Theory together with its mathematical and computational aspects; Circuit modeling of devices; Synthesis and design of filters and active circuits; Neural networks; Nonlinear and chaotic circuits; Signal processing and VLSI; Distributed, switched and digital circuits; Power electronics; Solid state devices. Contributions to CAD and simulation are welcome.
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