Principle of designing slope compensation in PFC Boost converter

Due to wide input fluctuation with line frequency of 50 Hz, power-factor-correction (PFC) Boost converters tend to exhibit fast-scale instability over time domain. The traditional remedy is to impose slope compensation so as to weaken or eliminate this instability. A theoretical principle on the imp...

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Veröffentlicht in:Science China. Information sciences 2009-11, Vol.52 (11), p.2226-2233
Hauptverfasser: Zhou, YuFei, Huang, JiaCheng, Wang, ShiBing, Jiang, Wei, Chen, JunNing
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container_title Science China. Information sciences
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Huang, JiaCheng
Wang, ShiBing
Jiang, Wei
Chen, JunNing
description Due to wide input fluctuation with line frequency of 50 Hz, power-factor-correction (PFC) Boost converters tend to exhibit fast-scale instability over time domain. The traditional remedy is to impose slope compensation so as to weaken or eliminate this instability. A theoretical principle on the implementation of slope compensation signal is still lacking. Empirical design will induce over compensation frequently, resulting in a large decrease of power factor. In order to tackle this issue, by constructing the discrete-time iterative map of the PFC Boost converter from the viewpoint of bifurcation control theory of nonlinear systems, consequently, the criterion of critical stability for the PFC circuit can be established. Based on this stability criterion, appropriate design of slope compensation can be achieved. Our work indicates that 3 main circuit parameters (i.e. switching cycle, output reference voltage and inductor) determine the effective amplitude design of the slope compensation signal. The results, validated by a large quantity of analytical and numerical studies, show that appropriate slope compensation can be effective in weakening (or controlling) fast-scale bifurcation while maintaining a rather high input power factor.
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subjects Bifurcation theory
Circuit design
Compensation
Computer Science
Control theory
Empirical analysis
Inductors
Information Systems and Communication Service
Iterative methods
Nonlinear control
Nonlinear systems
PFC电路
Power factor
Principles
Slope stability
Stability criteria
功率因数校正
升压变换器
原理设计
斜坡式
斜坡补偿
斜率补偿
输入功率因数
title Principle of designing slope compensation in PFC Boost converter
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