融雪用电路型漏波导与𝝀/2偶极子天线WPT效率的FDTD分析

Yusho Kanaya, M. Nakatsugawa, T. Maruyama, M. Omiya, Y. Tamayama
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引用次数: 1

摘要

利用时域有限差分法获得的散射参数,分析了电路型漏波导与载波型偶极子天线之间的无线传输特性。电路型漏波导由两对直槽波导和两对半圆波导组成。利用微波加热融雪源,设计了一种具有均匀电磁场分布的电路型漏波导。首先用时域有限差分法对电路型漏波导的电磁场进行了仿真。电磁分布虽然表现出点对称的馈电点偏置和狭缝间距𝝀𝒈,但几乎是均匀的。2.45 GHz 4个位置的无线传输效率和最大传输效率表明,距离馈电点最远的位置WPT效率最高。这确保了电路型漏波导的独特性。电路型漏波导具有良好的特性,可以在其上方的任何位置提供WPT能量。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
FDTD Analysis on WPT Efficiency Between Circuit-Shape Leaky Waveguide and 𝝀/2 Dipole Antenna for Snow Melting Application
The wireless transfer characteristics between a circuit-shape leaky waveguide and a /2 dipole antenna were analyzed with scattering parameters obtained with the FDTD method. The circuit-shaped leaky waveguide was composed of two pairs of straight slotted waveguides and two semicircular waveguides. The circuit-shape leaky waveguide was designed to achieve uniform electromagnetic field distribution with a source for snow melting with microwave radiations by microwave heating. The electromagnetic field of the circuit-shape leaky waveguide was firstly simulated with the FDTD method. Although the electromagnetic distribution exhibited the point symmetry with an off-set feeding point and a slot spacing 𝝀𝒈, it was nearly uniform. The wireless transfer efficiency and the maximum transfer efficiency for four locations at 2.45 GHz revealed that the farthest location from the feeding point had the largest WPT efficiency among four locations. This ensures the circuit-shape leaky waveguide’s uniqueness. The circuit-shape leaky waveguide has favorable characteristics to provide WPT energy at any location above it.
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