基于具有有源电力滤波器功能的单相矩阵转换器的不间断电源拓扑结构

Energies Pub Date : 2024-07-12 DOI:10.3390/en17143441
Muhammad Shawwal Mohamad Rawi, R. Baharom, M. A. Mohd Radzi
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引用次数: 0

摘要

本研究介绍了一种新型不间断电源(UPS)配置,它在单相矩阵转换器(SPMC)框架内集成了有源电力滤波器(APF)功能。电力中断,尤其是影响关键负载的电力中断,可导致巨大的经济损失。一直以来,传统的不间断电源系统采用两个独立的转换器,分别作为整流器和逆变器使用,不包含任何功率因数校正(PFC)机制。这种配置存在功率密度降低、可靠性降低和空间限制等问题。为解决这些问题,本研究提出了一种增强型不间断电源设计,在 SPMC 中加入了功率因数校正功能。这项研究的重点是交流电(AC)到直流电(DC)的转换效率,以及利用这种先进 UPS 模型的反向过程。我们选择 SPMC 来取代 UPS 架构中传统使用的整流器和逆变器单元。根据不间断电源的运行状态,制定了新颖的集成开关策略,以促进不间断电源在整流器(充电)或逆变器(放电)模式下运行。通过在 MATLAB/Simulink 2019 中进行的仿真和使用测试台进行的经验评估,证实了所设计的电路设计和开关技术的性能和功效。研究结果表明,所产生的电压为正弦波,与电源电流同步,从而最大限度地降低了总谐波失真(THD),提高了 UPS 系统在充电和放电状态之间的功率因数和转换效率。
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Uninterruptible Power Supply Topology Based on Single-Phase Matrix Converter with Active Power Filter Functionality
This study introduces a novel uninterruptible power supply (UPS) configuration that integrates active power filter (APF) capabilities within a single-phase matrix converter (SPMC) framework. Power disruptions, particularly affecting critical loads, can lead to substantial economic damages. Historically, conventional UPS systems utilized dual separate converters to function as a rectifier and an inverter, without incorporating any power factor correction (PFC) mechanisms. Such configurations suffered from diminished power density, compromised reliability, and spatial limitations. To address these issues, this research proposes an enhanced UPS design that incorporates APF features into the SPMC. The focus of this investigation is on the efficiency of alternating current (AC) to direct current (DC) conversion and the reverse process utilizing this advanced UPS model. The SPMC is selected to supplant the rectifier and inverter units traditionally employed in UPS architectures. A novel integrated switching strategy is formulated to facilitate the operation of the UPS in either rectifier (charging) or inverter (discharging) modes, contingent upon the operational state. The performance and efficacy of the devised circuit design and switching technique are substantiated through simulations conducted in MATLAB/Simulink 2019 and empirical evaluations using a test rig. The findings demonstrate that the voltage generated is sinusoidal and synchronized with the supply current, thereby minimizing the total harmonic distortion (THD) and enhancing both the power factor and the transition efficiency of the UPS system between its charging and discharging states.
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