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Performance analysis and modeling of high efficiency medium power Resonant Dual Active Bridge converter for wireless power transfer

机译:高效中功率谐振双有源桥变换器无线功率传输的性能分析与建模

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Demand for the contactless power transfer or wireless power transfer is increasing. Wireless power can be achieved across large air gap which will be backbone for the future automation industry. This paper presents the analysis, design and simulation studies of the CLC based Resonant Dual Active Bridge (RDAB) topology for the inductive wireless power transfer application in the hybrid electric vehicle. The main advantage of RDAB topology to the Conventional Dual Active Bridge (DAB) topology is the requirement of less reactive power due to the “Resonance” created by CL (capacitor + inductor) circuit in the primary and a Capacitor in the secondary side of the high frequency transformer. The bridge current (switch current) is reduced due to the low reactive power and it helps in achieving high efficiency due to reduction in the conduction loss as well as power factor of the model. Reactive power is supplied by the capacitor in the primary side of the transformer. RDAB also provides Zero Voltage Switching at wide range of load. The complete system is analyzed and simulated in PSIM 9.1. The details analysis, simulation studies and comparison of the RDAB topology with the conventional dual active bridge topology is presented in the paper.
机译:非接触式电力传输或无线电力传输的需求正在增加。无线电源可以跨越很大的气隙实现,这将成为未来自动化行业的骨干。本文介绍了基于CLC的共振双有源桥(RDAB)拓扑的分析,设计和仿真研究,该拓扑用于混合动力电动汽车中的感应无线功率传输应用。 RDAB拓扑相对于传统双有源桥(DAB)拓扑的主要优势在于,由于CL(电容器+电感器)电路的初级侧和次级侧的电容器产生了“谐振”,因此要求无功功率较小。高频变压器。电桥电流(开关电流)由于无功功率低而减小,并且由于减小了模型的传导损耗和功率因数,有助于实现高效率。无功功率由变压器初级侧的电容器提供。 RDAB还可以在各种负载范围内提供零电压开关。完整的系统在PSIM 9.1中进行了分析和仿真。本文对RDAB拓扑与传统的双有源桥拓扑进行了详细的分析,仿真研究和比较。

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