Improve the voltage profile of the grid-integrated induction motor with a fuzzy-based voltage source converter

Neelagandan Virchuly Jyothiraman, Viraduchalam Sivachidambaranathan
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Abstract

This article suggests installing a series compensator on grid-connected induction motors that allows for the ride-through of unbalanced voltage sag. Fuzzy logic controls the motor voltages in a standard three-phase voltage source inverter or voltage source inverter (VSI). An open-ended three-phase machine and the grid form a series connection for the VSI. The proposed system is well suited for uses where frequency variation is unnecessary, such as with large pumps or fans. There is no requirement for a direct current (DC) source or injection transformer when conducting an electric mutual coupling The severity of the sag in the grid voltage that will prevent EMC from shutting down is proportional to the load on the motors. An increase in the voltage of the DC link may be necessary if the voltage is not balanced. A 1.5 hp four-pole induction motor was used alongside grid voltage disturbances to test the proposed compensator's ride-through capability. Grid's current analysis demonstrates that the proposed system does not require the addition of a passive filter to achieve low levels of total harmonic distortion (THD). Additionally, the control strategy, component ratings, and analysis of the converter's output voltage operating principle and pulse width modulation technique are covered. The system's viability is shown via simulation and experimental results.
利用基于模糊的电压源转换器改善并网感应电机的电压曲线
本文建议在并网感应电动机上安装串联补偿器,以穿越不平衡电压骤降。模糊逻辑控制标准三相电压源逆变器或电压源逆变器(VSI)中的电机电压。开放式三相机器和电网构成了 VSI 的串联连接。建议的系统非常适合无需频率变化的用途,如大型泵或风扇。在进行电力相互耦合时,不需要直流(DC)源或注入变压器。电网电压下陷的严重程度将阻止 EMC 停机,其程度与电机的负载成正比。如果电压不平衡,可能需要增加直流链路的电压。一台 1.5 马力的四极感应电机与电网电压扰动同时使用,以测试拟议补偿器的穿越能力。电网电流分析表明,建议的系统无需添加无源滤波器即可实现低水平的总谐波失真(THD)。此外,还包括控制策略、组件额定值以及对转换器输出电压工作原理和脉宽调制技术的分析。模拟和实验结果表明了系统的可行性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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