Zero voltage switching floating output high gain interleaved DC-DC converter

S. S. Hujare, A. Kirubakaran
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引用次数: 4

Abstract

This paper proposes a non-isolated high efficiency high gain DC-DC converter using zero voltage switching for renewable/green power supply system with photovoltaic (PV) cell or fuel cell. Proposed topology uses interleaved structure of boost converter with winding coupled inductor to offer higher power handling capacity, lower ripple for input current and lower semiconductor voltage stress. The power switches are turned on using zero voltage switching (ZVS) and the switch turned off voltage spike is suppressed by using boost type active clamping technique. This enables the use of lower voltage and RDS-ON MOSFET switch with low switching and conduction losses. Diode turn off current falling rate is controlled by the leakage inductance of coupled inductor and by choosing proper value of leakage inductance, diodes can be turned off using zero current switching (ZCS) and diode reverse recovery problem is alleviated. The significant feature of the proposed topology includes continuous input/output current operation with rid of extreme duty cycle and limited reactive components size. The proposed converter operating modes are analyzed and theoretical waveforms are validated through simulation results.
零电压开关浮动输出高增益交错DC-DC变换器
本文提出了一种基于零电压开关的非隔离型高效高增益DC-DC变换器,用于可再生/绿色光伏电池或燃料电池供电系统。该拓扑结构采用带绕组耦合电感的升压变换器的交错结构,以提供更高的功率处理能力、更低的输入电流纹波和更低的半导体电压应力。电源开关采用零电压开关(ZVS)接通,开关关断电压尖峰采用升压型有源箝位技术抑制。这使得使用低电压和RDS-ON MOSFET开关具有低开关和传导损耗。二极管关断电流下降率由耦合电感的漏电感控制,通过选择合适的漏电感值,可以实现零电流开关关断,缓解二极管反向恢复问题。所提出的拓扑结构的重要特征包括连续输入/输出电流操作,消除了极端占空比和有限的无功元件尺寸。分析了所提出的变换器工作模式,并通过仿真结果验证了理论波形。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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