145 kHz低功耗无线传输的设计与仿真

Irawan Sukma, I. Supono
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引用次数: 4

摘要

感应谐振耦合是无线电力传输技术的一种。本文提出了一种采用感应耦合的无线电力传输设计,该设计符合无线电力联盟(WPC)标准在110 ~ 205 kHz的谐振频率范围内的要求。利用功能强大且免费的LTspice仿真软件进行了电路设计和仿真,该软件具有快速傅立叶变换(FFT)和指令分析功能。发射机电路以罗耶振荡器电路和接收机电路为基础,具有全波整流器和100欧姆负载。实验结果表明,计算得到的电路设计谐振频率为145 kHz,仿真得到的电路设计谐振频率为142.66 kHz。两种谐振频率之间的差异是由电路中使用的元件引起的,例如电感(RL)发射器和接收器的电阻0.1欧姆,使谐振频率为142.66 kHz,接近145 kHz。此外,当k接近1时,设计电路不能达到最大的功率效率,但当耦合系数(k)为0.90,Rl为0.1 ohm时,设计电路可以获得8.14%的最大效率。
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Design and simulation of 145 kHz wireless power transfer for low power application
Inductive resonance coupling is one of wireless power transfer technique. This paper presents a wireless power transfer design using inductive coupling which comply to the requirement of the wireless power consortium (WPC) standards in the resonant frequency range of 110 ∼ 205 kHz. The circuit design and simulation have been conducted using a powerful and free LTspice simulation software with fast fourier transform (FFT) and directive analysis. Transmitter circuit based on royer oscillator circuit and receiver circuit has full wave rectifier, CLC Alter and load of 100 ohm. The result from experiments are the resonant frequency of circuit design of 145 kHz based on the calculation and 142.66 kHz based on the simulation. The difference between the two resonant frequency is caused by the components used in circuit, such as resistance of inductor (RL) transmitter and receiver 0.1 ohm giving resonant frequency 142.66 kHz which close to 145 kHz. Furthermore, the design circuit cannot reach maximum power efficiency when k close to 1, but the designed circuit can result maximum efficiency of 8.14 % when coupling coefficient (k) is 0.90 and the Rl 0.1 ohm.
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