可调谐多铁质可重构射频系统封装

Pawan Gaire, Veeru Jaiswal, S. Y. B. Sayeed, J. Volakis, M. Pulugurtha, S. Bhardwaj
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引用次数: 3

摘要

在外加电场和磁场的作用下,多铁体的电、磁特性可以很方便地调谐。这种可调性为可重构天线和智能屏蔽应用提供了多种设计选择,因此备受关注。介质调谐通常是通过电场来实现的,这更适合于薄膜,因为它们需要更低的电压。对于天线和频率选择表面(FSS)中使用的厚RF介质,调谐需要100伏。为了解决这个问题,我们提出了在多铁性下使用集成线圈进行电流驱动的介电常数调谐。通过与磁致伸缩层耦合的模拟研究了纳米钛酸盐类电材料的可调介电性能。同时,共感铁氧体和亲电介质具有可调性。通过COMSOL多物理场模拟,分析了介质常数随磁场的变化。用不同线圈电流对介电常数调谐进行建模。用这种介电调谐方法演示了在可调谐FSS中的应用。
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Tunable Multiferroics for Reconfigurable RF System Packages
Electric and magnetic properties of multiferroics can be conveniently tuned with applied electric and magnetic fields. Such tunability provides multiple design options for reconfigurable antennas and smart shielding applications and is thus of high interest. Dielectric tuning is commonly achieved with electric fields, which is more suitable with thin-films as they need lower voltages. For thick RF dielectrics that are used in antennas and Frequency Selective Surfaces (FSS), tuning requires 100s of Volts. To address this problem, we propose current-driven tuning of permittivity with integrated coils under the multiferroic. Tunable dielectric properties in nanostructured titanate paraelectrics are investigated through simulations by coupling them with magnetostrictive layers. In parallel, cosintered ferrite and paraelectric dielectrics are characterized for their tunability. The change in dielectric constant with magnetic fields is analyzed through multiphysics COMSOL simulations. Permittivity tuning is modeled with different coil currents. Applications in tunable FSS is demonstrated with such dielectric tuning.
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