Xuebin Zhou, Kangshuai Dong, Jiabin Wang, Lin Yang
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引用次数: 0
摘要
工业应用往往涉及大量电子设备的组合,因此在为这些设备充电时必须考虑不同的充电要求。本文提出了一种三线圈单输入双输出(SIDO)感应式功率传输(IPT)系统,以满足不同设备的充电要求。该系统包括两个独立的输出端口,分别为不同负载提供恒压(CV)输出和恒流(CC)输出。此外,还可实现零相角(ZPA)运行,从而避免注入无功功率,提高能量传输效率。与以往的相关研究不同,所提出的 SIDO IPT 系统的接收器只包括一个接收线圈来接收能量,从而避免了传统 IPT 系统中不必要的交叉耦合和复杂的多输出去耦电路。本研究首先详细分析了拟议的 SIDO IPT 系统的 CC/CV 输出理论,并通过建立等效模型对参数进行设计和优化。然后,通过分析 CC/CV 性能对补偿电容变化的敏感性,得出逆变器实现零电压开关 (ZVS) 工作的条件。最后,建立了一个具有 2.5A CC 输出和 72 V CV 输出的验证实验原型,以验证所提出的 IPT 系统的有效性。
Analysis and design of a three‐coil IPT system with independent dual output ports
Industrial applications tend to involve a substantial assemblage of electronic devices, and it is imperative to consider diverse charging requirements while charging these devices. This paper proposes a three‐coil single‐input‐and‐dual‐output (SIDO) inductive power transfer (IPT) system to meet the charging requirements of different devices. The system includes two independent output ports, providing constant voltage (CV) output and constant current (CC) output for different loads, respectively. In addition, the zero‐phase angle (ZPA) operation can be achieved, thus avoiding injection of reactive power and improving energy transfer efficiency. Unlike previous related studies, the receiver of the proposed SIDO IPT system only includes one receiving coil to pick up energy, eliminating unnecessary cross‐coupling and complex decoupling circuits in traditional IPT systems with multiple outputs. This study first analyzes the CC/CV output theory of the proposed SIDO IPT system in detail, and designs and optimizes the parameters by establishing an equivalent model. Then, the conditions for achieving zero‐voltage switching (ZVS) operation of the inverter are obtained by analyzing the sensitivity of CC/CV performance to the variation of the compensation capacitors. Finally, a verification experimental prototype with 2.5A CC output and 72 V CV output is established to verify the effectiveness of the proposed IPT system.
期刊介绍:
The scope of the Journal comprises all aspects of the theory and design of analog and digital circuits together with the application of the ideas and techniques of circuit theory in other fields of science and engineering. Examples of the areas covered include: Fundamental Circuit Theory together with its mathematical and computational aspects; Circuit modeling of devices; Synthesis and design of filters and active circuits; Neural networks; Nonlinear and chaotic circuits; Signal processing and VLSI; Distributed, switched and digital circuits; Power electronics; Solid state devices. Contributions to CAD and simulation are welcome.