静磁波在多层磁性结构中传播,具有任意方向的静态磁化

K. Sun, S. Bolls
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引用次数: 0

摘要

本文研究了多层磁性结构(YIG/GGG/YIG/GGG)中的静磁波传播(MSW),其中两层磁性结构的静磁强度不是共线的。在给定的外加直流场中,假设两个磁化之间存在任意角度。因此,可以探讨两种不同YIG层中两种磁化之间的相对取向对色散和时间延迟的影响。偏置α由外加直流场、静磁场和单轴各向异性场决定。一般色散关系受α的影响很大。正是这种错位导致了一层表面模式传播和另一层前向体积模式传播。人们可以控制施加的直流场来改变α,以获得微波信号处理所需的非色散时延。
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Magnetostatic wave propagation in a multilayered magnetic structure with an arbitrary orientation between the static magnetizations
The authors study magnetostatic wave propagation (MSW) in multilayered magnetic structure (YIG/GGG/YIG/GGG), in which the static magnetizations in the two magnetic layers are not colinear. It is assumed that there exists an arbitrary angle alpha between the two magnetizations for a given applied DC field. Therefore, the effect of the relative orientation between the two magnetizations in two different YIG layers on the dispersion and time delay can be explored. The misalignment alpha is determined by the applied DC field, the static magnetizations, and the uniaxial anisotropy fields. The general dispersion relation is strongly affected by alpha . It is this misalignment that leads to surface mode propagation in one layer and forward volume mode propagation in the other layer. One may control the applied DC field to vary alpha to obtain the desired nondispersive time delay for microwave signal processing.<>
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