Power Analysis of Toroidal Core Electromagnetic Energy Harvesters for Transmission Lines

IF 0.1 Q4 ENGINEERING, MULTIDISCIPLINARY
Muhammed Şami̇l Balci, A. Dalcalı
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引用次数: 0

Abstract

Introduction. As the need for energy increases, energy harvesting methods have also been intensively researched. Energy harvesting techniques which are a way of converting low amounts of energy from the environment into electrical energy can be used to meet the energy needs of low-power electronic devices and sensors. The increase in such sensors and devices with low power consumption also makes energy harvesting techniques more important. One of these harvesting techniques is energy harvesting from electromagnetic fields, which is obtained from transmission lines. Aim of the Article. The article is aimed at developing an effective electromagnetic energy harvester from energy transmission lines for unmanned aerial vehicles. Materials and Methods. The method of harvesting energy from transmission lines through magnetic field energy harvesting is reviewed. Theoretical analyses, Finite Element Analyses (FEA), and experimental studies are conducted on toroidal core structures designed in different sizes and with different materials. Results. Among the selected materials and under the specified line conditions, current of 0‒30 A and a frequency of 50 Hz, the highest power of 695.516 mW was harvested by the 60x30x20 sized ferrite core harvester at a line current of 30 A. Discussion and Conclusion. Detailed experiments were conducted based on the 60x30x20 mm ferrite core, which demonstrated the highest induced voltage. Different load resistances were used to find the resistance value for the highest power at each current value. The optimal load resistance for maximum power transmission was determined for each core using the curve fitting method at all current values.
用于输电线路的环形磁芯电磁能量收集器的功率分析
引言随着能源需求的增加,能量收集方法也得到了深入研究。能量收集技术是一种将环境中的低能量转化为电能的方法,可用于满足低功耗电子设备和传感器的能量需求。随着此类低功耗传感器和设备的增加,能量收集技术也变得更加重要。其中一种能量采集技术是从电磁场中采集能量,而电磁场是从输电线中获取的。文章的目的本文旨在为无人驾驶飞行器开发一种有效的输电线电磁能量收集器。材料和方法。综述了通过磁场能量收集从输电线收集能量的方法。对不同尺寸和不同材料设计的环形磁芯结构进行了理论分析、有限元分析(FEA)和实验研究。研究结果。在所选材料中,在指定的线路条件(电流 0-30 安培,频率 50 赫兹)下,60x30x20 尺寸的铁氧体磁芯采集器在线路电流为 30 安培时采集的功率最高,达到 695.516 毫瓦。基于 60x30x20 mm 铁氧体磁芯进行了详细实验,该磁芯的感应电压最高。实验中使用了不同的负载电阻,以找出每个电流值下功率最大的电阻值。使用曲线拟合法确定了每个磁芯在所有电流值下传输最大功率的最佳负载电阻。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Engineering Technologies and Systems
Engineering Technologies and Systems ENGINEERING, MULTIDISCIPLINARY-
自引率
33.30%
发文量
29
审稿时长
12 weeks
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