高功率密度维也纳整流器中THD最小化的控制方法

M. Mobarrez, A. Kadavelugu, Utkarsh Raheja, H. Suryanarayana
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引用次数: 2

摘要

在现有的许多有源功率因数校正转换器拓扑中,维也纳型整流器广泛应用于电动汽车充电器、不间断电源和电信电源等大功率三相应用。与传统的双电平整流器相比,维也纳整流器具有许多优点,包括:三电平开关、更低的开关损耗、穿透抗扰度和更低的传导共模EMI。然而,由于过零附近开关电流的不连续,输入电流的畸变是这种拓扑结构的固有缺点。这个问题可以通过放大滤波器电感或增加开关频率来解决。然而,这些方法降低了功率密度,增加了成本和开关损耗。在本文中,我们提出了一种控制方法,可以降低输入电流的总谐波失真(THD),而不增加转换器的成本或损耗。所提出的控制体系结构在一个三相12千瓦基于sic的维也纳整流器上进行了验证。
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A Control Method for THD Minimization in High Power Density Vienna-type Rectifier
Among many existing converter topologies for active power factor correction, Vienna-type rectifiers are widely used in high-power three-phase applications such as electric vehicle chargers, uninterruptible power supplies and telecommunication power supplies. The Vienna rectifier offers many advantages compared to the traditional two-level rectifier, which include: three-level switching, reduced switching losses, shoot-through immunity and lower conducted common-mode EMI. However, distortion of input currents is an inherent drawback of this topology due to the discontinuity of the switching current around zero-crossing. This issue can be resolved by oversizing the filter inductors or increasing the switching frequency. However, these approaches reduce power density, increase cost and switching losses of the converter. In this paper, we propose a control method that can reduce the total harmonic distortion (THD) of the input currents without adding to the costs or losses of the converter. The proposed control architecture is verified on a three-phase 12 kW SiC-based Vienna rectifier.
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