基于滑模变结构控制的级联h桥整流器整体控制策略

Weiqi Liao, Lei Li
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引用次数: 0

摘要

级联h桥整流器(CHBR)的控制包括整体控制和直流电压平衡控制两部分。具有电流前馈解耦的双闭环比例积分(PI)控制策略和比例脉冲补偿策略分别是典型的整体控制策略和电压平衡策略,可以在特殊工况下实现单位功率因数和直流电压平衡,性能良好。然而,当CHBR系统不稳定或受到干扰时,传统的双闭环PI控制会造成响应速度慢、超调量大等问题。通过对CHBR电路的建模分析,提出了一种滑模变结构控制(SMVSC)策略。通过选择合适的开关面使系统状态轨迹设置在滑模表面上,提高了直流电压的响应速度和系统的动态性能。并对比例脉冲补偿策略进行了建模分析。仿真结果验证了该策略的可行性和有效性。
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A Whole Control Strategy Based on Sliding Mode Variable Structure Control for Cascaded H-bridge Rectifier
The cascaded H-bridge rectifier (CHBR) control consists of two parts, namely whole control and DC voltage balance control. Double closed-loop proportional integral (PI) control strategy with current feedforward decoupling and proportional pulse compensation strategy are typical whole control strategy and voltage balance strategy respectively, which can realize unity-power factor and DC voltage balance with good performance under special working condition. However, when the CHBR system is unstable or disturbed, the conventional double closed-loop PI control would cause some problems such as slow response speed and big overshoot. This paper proposes a sliding mode variable structure control (SMVSC) strategy for whole control through modeling analysis on the CHBR circuit. By choosing the appropriate switching surface to make the system state trajectory set on the sliding mode surface, the proposed SMVSC strategy can improve the response speed of DC voltage and the dynamic performance of the system. Furthermore, modeling analysis for proportional pulse compensation strategy is proposed. Simulation results verify the feasibility and effectiveness of the proposed strategy.
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