有损介质中平面波功率吸收的优化

D. F. Soldea, D. Razansky, P. Einziger, J. Mizrahi
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引用次数: 1

摘要

微波功率吸收现象最近引起了越来越多的科学和公众的兴趣,特别是在蜂窝通信领域。生物组织中的电磁功率吸收是一种众所周知的现象。一般来说,它的评估需要在复杂构型中求解三维频率相关波动方程,这可能需要大量的分析和数值工作。在此,我们重点研究了一个简化的一维模型,对应于平面波在有耗半空间上的正入射。我们的模型建立了一个严格的估计最大(最佳)功率吸收在现实的手机-人的头部配置。此外,吸收效率以及源阻抗通过显式的封闭形式表达式获得,从而导致高损耗组织的显式最佳功率吸收(最坏情况/最佳情况)标准
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Optimization of plane-wave power absorption in lossy media
The phenomenon of microwave power absorption has recently become of increased scientific and public interest, particularly in the area of cellular communication. Electromagnetic power absorption in biological tissues is a well-known phenomenon. Its evaluation requires, in general, a solution of the 3D frequency-dependent wave equation in complex configurations, which may necessitate quite massive analytical and numerical efforts. Herein, we focus on a simplified 1D model corresponding to normal-incidence of plane-waves upon a lossy half-space. Our model establishes a tight estimate on the maximal (optimal) power absorption in realistic mobile phone - human head configurations. Furthermore, the absorption efficiency as well as the source impedance are obtained via an explicit closed-form expressions, leading to an explicit optimal power absorption (worst-case/best-case) criteria for highly lossy tissues
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