Active Compensation of the Input Filter Capacitor Current in Single-Phase PFC Boost Converters

K. Louganski, J. Lai
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引用次数: 5

Abstract

Single-phase PFC boost converters use an input filter capacitor to limit propagation of the switching noise into the AC line. Reactive current drawn by the capacitor from the line is negligible at 60 Hz but increases in magnitude significantly in applications with higher line frequencies (360-800 Hz in future aircraft power systems) such that the total power factor of the converter is no longer unity. The paper proposes a method for canceling the capacitor current using an adapted leading-phase admittance cancellation technique. Bidirectional converters allow complete, load-independent, line-frequency-independent cancellation of the input capacitor current. Unidirectional converters allow load-independent, line-frequency-independent, unity-power-factor operation with substantial reduction but not complete elimination of the switching ripple in the line current
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单相PFC升压变换器中输入滤波器电容电流的有源补偿
单相PFC升压转换器使用输入滤波电容器来限制开关噪声在交流线路中的传播。电容器从线路中吸取的无功电流在60 Hz时可以忽略不计,但在更高线路频率的应用中(未来飞机电源系统中为360-800 Hz),其幅度会显著增加,从而使变换器的总功率因数不再是统一的。本文提出了一种采用引线相导纳对消技术消除电容器电流的方法。双向变换器允许完全、负载无关、线频无关的输入电容电流消除。单向变换器允许负载无关、线频无关、单位功率因数的工作,大大减少但不能完全消除线路电流中的开关纹波
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A Preliminary Investigation of Computer-Aided Schwarz-Christoffel Transformation for Electric Machine Design and Analysis Active Compensation of the Input Filter Capacitor Current in Single-Phase PFC Boost Converters Analysis and Optimization of Switched-Capacitor DC-DC Converters An Assessment of Coupled Inductor Modeling for a Multi-output Flyback Converter Small signal modeling of hysteretic current mode control using the PWM switch model
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