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Energy Compression of Dielectric Barrier Discharge With Third Harmonic Circulating Current in Current-Fed Parallel-Series Resonant Converter

机译:电流馈电并联串联谐振变换器中具有三次谐波循环电流的介质阻挡放电的能量压缩

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摘要

An advanced technique of energy compression with the third harmonic circulating current generation is presented in this paper to improve the surface treatment performance in the dielectric barrier discharge (DBD) systems. First, the relationship between the energy compression degree and contact angle is explored, which shows that the polymer surface wettability can be improved by the high energy compression degree in DBD. And then, an additional inductor is inserted into the resonant tank in the current-fed parallel-series resonant converter to generate the third harmonic current component, which can reduce the discharge-time-ratio and compress the energy transferred to the DBD loads. Furthermore, the method of rectifier-compensated fundamental plus third harmonic approximation (RCFTHA) is introduced to describe the current-fed parallel-series resonant converter by superposing two equivalent linear circuits operating at the fundamental and third harmonic frequencies, respectively. Consequently, the discharge-time-ratio optimization with the parallel-series resonant tank design is realized. Finally, the experimental results from a 350-W prototype substantiate the effectiveness of the energy compression with the third harmonic circulating current and the accuracy of RCFTHA.
机译:为了提高介电势垒放电(DBD)系统的表面处理性能,本文提出了一种利用三次谐波循环电流产生进行能量压缩的先进技术。首先,探讨了能量压缩度与接触角之间的关系,表明DBD中的高能量压缩度可以提高聚合物表面的润湿性。然后,在电流馈电并联谐振转换器的谐振储能电路中插入一个额外的电感器,以生成三次谐波电流分量,从而可以减少放电时间比并压缩传递到DBD负载的能量。此外,介绍了整流器补偿的基波加三次谐波近似(RCFTHA)方法,通过叠加分别工作在基波和三次谐波频率上的两个等效线性电路来描述电流馈电并联谐振变换器。因此,利用并联串联谐振槽设计实现了放电时间比的优化。最后,来自350 W原型的实验结果证实了具有三次谐波循环电流的能量压缩的有效性以及RCFTHA的精度。

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