输入-串行-输出-并行 (ISOP) 多通道 IPT 系统的分析和交叉耦合消除

IF 5 Q1 ENGINEERING, ELECTRICAL & ELECTRONIC IEEE open journal of power electronics Pub Date : 2024-06-21 DOI:10.1109/OJPEL.2024.3417177
Pan Sun;Leyu Wang;Yan Liang;Xusheng Wu;Qijun Deng
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摘要

为满足电动汽车快速充电对低压和大功率的需求,本文分析了一种基于 LCC-S 补偿网络的 ISOP 多通道感应式功率传输(IPT)系统。首先,在不考虑交叉耦合的情况下分析了系统传输能力的提高。然后,为了澄清交叉耦合的印象,计算了每个通道逆变器输出端的等效阻抗公式。然后,结合高阶拓扑的谐波特性,分析了每个通道的零电压开关(ZVS)条件。结果发现,交叉耦合可能会导致逆变器开启时的瞬时电流值减小,从而增加失去 ZVS 工作状态的风险。为了消除交叉耦合的影响,提出了一种无需额外器件和控制的参数设计方法。最后,建立了一个 3 通道 ISOP-IPT 系统原型。该系统实现了 17.06 kW 的能量传输,效率高达 93.22%。与单通道系统相比,在保持输入电流水平不变的情况下,功率容量得到了提高。补偿后,系统在交叉耦合的情况下实现了等效解耦,每个通道独立工作并保持输入电压平衡。
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Analysis and Cross-Coupling Elimination of Input-Series Output-Parallel (ISOP) Multi-Channel IPT System
To meet the low-voltage and high-power demand of fast charging of electric vehicles, an ISOP multi-channel inductive power transfer (IPT) system based on LCC-S compensation network is analyzed in this paper. Firstly, the system's improvement of transmission capability is analyzed without considering the cross-coupling. After that, to clarify the cross-coupling impression, the equivalent impedance formula for the inverter output terminals of each channel is calculated. Then, combined with the harmonic characteristics of high order topology, the zero voltage switching (ZVS) condition of each channel is analyzed. Found out that the cross-coupling may lead to a decrease in the instantaneous current value when the inverter is turned on, thereby increasing the risk of losing the ZVS operating state. To eliminate the influence of cross-coupling, a parameter design method is proposed without additional devices and control. Finally, a 3-channel ISOP-IPT system prototype is built. The system achieves an energy transmission of 17.06 kW with an efficiency of 93.22%. Compared with single-channel systems, the power capacity is increased while keeping the input current level unchanged. After compensation, the system achieves equivalent decoupling in the case of cross-coupling, each channel works independently and maintains the input voltage balance.
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