A Large-Scale Magnetic Field Generation System for Pesticide-Free Agriculture Based on Cascaded Inductive Coupling

Zhan Liu;Ziyang Xu;Yifan Wang;Ming Liu
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Abstract

High frequency magnetic field has been confirmed to have significant influence on insects and plants, which provides the possibility for future pesticide-free agriculture applications. However, existing magnetic field generation (MFG) devices are bulky, inefficient, and heavily placement-restricted, which are not suitable for agricultural environments. In this article, one novel cascaded inductive coupling based MFG system is proposed, which can generate large-scale magnetic field between cascaded coupled coils with very low-power consumption and space occupation. Moreover, constant currents can be achieved in multiple transmitting modules to ensure the identical magnetic fields by using the proposed approach when considering the features of MFG application, i.e., the no-load terminal and all power consumed on the coils and other parasitics. To validate the proposed MFG system and its design, the MHz prototyping systems with 8 coils, 12 coils, and 16 coils, are fabricated for testing and compared to the conventional design for inductive power transfer (IPT) systems. The experimental results demonstrate the effectiveness of the proposed approach. In the proposed MFG system with 16 coils (8 modules), the transmitter (TX) currents of all the modules can keep the same while the TX current variation is 40% higher in the conventional design for IPT system.
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基于级联电感耦合的大规模无农药农业磁场产生系统
高频磁场已被证实对昆虫和植物有显著的影响,这为未来的无农药农业应用提供了可能。然而,现有的磁场产生(MFG)设备体积庞大,效率低下,并且严重限制放置,不适合农业环境。本文提出了一种新型的基于级联电感耦合的MFG系统,该系统可以在级联耦合线圈之间产生大规模的磁场,且功耗和空间占用非常低。此外,考虑到MFG应用的特点,即空载终端和线圈上消耗的所有功率以及其他寄生物,采用该方法可以在多个发射模块中实现恒流,以保证相同的磁场。为了验证所提出的MFG系统及其设计,制作了8线圈、12线圈和16线圈的MHz原型系统进行测试,并与传统设计的感应功率传输(IPT)系统进行了比较。实验结果证明了该方法的有效性。在16个线圈(8个模块)的MFG系统中,所有模块的发射机电流保持不变,而传统设计的IPT系统的发射机电流变化量要高出40%。
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