Wind turbine emulator using three-phase IM controlled through an adaptive reactive power estimator fed by soft-VSI topology

COMPEL Pub Date : 2024-03-06 DOI:10.1108/compel-10-2023-0529
Mouna Zerzeri, Intissar Moussa, Adel Khedher
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Abstract

Purpose

The purpose of this paper aims to design a robust wind turbine emulator (WTE) based on a three-phase induction motor (3PIM).

Design/methodology/approach

The 3PIM is driven by a soft voltage source inverter (VSI) controlled by a specific space vector modulation. By adjusting the appropriate vector sequence selection, the desired VSI output voltage allows a real wind turbine speed emulation in the laboratory, taking into account the wind profile, static and dynamic behaviors and parametric variations for theoretical and then experimental analysis. A Mexican hat profile and a sinusoidal profile are therefore used as the wind speed system input to highlight the electrical, mechanical and electromagnetic system response.

Findings

The simulation results, based on relative error data, show that the proposed reactive power control method effectively estimates the flux and the rotor time constant, thus ensuring an accurate trajectory tracking of the wind speed for the wind emulation application.

Originality/value

The proposed architecture achieves its results through the use of mathematical theory and WTE topology combine with an online adaptive estimator and Lyapunov stability adaptation control methods. These approaches are particularly relevant for low-cost or low-power alternative current (AC) motor drives in the field of renewable energy emulation. It has the advantage of eliminating the need for expensive and unreliable position transducers, thereby increasing the emulator drive life. A comparative analysis was also carried out to highlight the online adaptive estimator fast response time and accuracy.

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使用三相 IM 的风力涡轮机模拟器,通过软 VSI 拓扑提供的自适应无功功率估算器进行控制
本文旨在设计一种基于三相感应电机(3PIM)的稳健型风力涡轮机模拟器(WTE)。通过调整适当的矢量序列选择,所需的 VSI 输出电压可在实验室中模拟真实的风力涡轮机速度,同时考虑到风廓线、静态和动态行为以及参数变化,以便进行理论和实验分析。基于相对误差数据的仿真结果表明,所提出的无功功率控制方法可有效估计磁通量和转子时间常数,从而确保风速仿真应用中风速的精确轨迹跟踪。 原创性/价值所提出的架构通过使用数学理论和风力涡轮机拓扑结构,结合在线自适应估计器和 Lyapunov 稳定性适应控制方法来实现其结果。这些方法尤其适用于可再生能源仿真领域的低成本或低功耗替代电流(交流)电机驱动器。它的优点是无需使用昂贵且不可靠的位置传感器,从而延长了仿真器驱动器的使用寿命。此外,还进行了对比分析,以突出在线自适应估计器的快速响应时间和准确性。
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