Magnetic Properties of Ring-Shaped Composite Anisotropy Multilayers

E. Sugawara;Y. Inokoshi;F. Matsumoto;Y. Shimada;H. Fujimori;T. Masumoto
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引用次数: 1

Abstract

We have investigated eight-layered and twelve-layered composite anisotropic films to obtain advanced properties for practical use, and to understand the relation between the magnetic layers. Calculations of the permeability based on the Landau-Lifshitz relation predict that the dipole-dipole coupling between the magnetic layers works in favor of the K u (in-plane uniaxial anisotropy) in each magnetic layer. When the gap between the magnetic layers is varied using ceramic layers, the dipole moment of the metal layers is influenced by the magnetic interaction of a ripple stray field in a 45° direction across intervening ceramic layers. In order to clarify the mechanism governing the isotropic permeabilities of these multilayer films, we extended our study to include ring-shaped as well as disk-shaped samples. In comparison with a uniaxial multilayer film, a ring-shaped composite anisotropy multilayer film has a closed magnetic circuit and hence a large inductance. Composite anisotropy effects are discussed.
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环形复合材料各向异性多层膜的磁性能
我们研究了八层和十二层复合各向异性薄膜,以获得先进的实用性能,并了解磁性层之间的关系。基于Landau-Lifshitz关系的磁导率计算预测,磁性层之间的偶极-偶极耦合有利于每个磁性层中的Ku(平面内单轴各向异性)。当使用陶瓷层改变磁性层之间的间隙时,金属层的偶极矩受到介于其间的陶瓷层之间的45°方向上的波纹杂散场的磁相互作用的影响。为了阐明控制这些多层膜各向同性渗透率的机制,我们将我们的研究扩展到包括环形和圆盘形样品。与单轴多层膜相比,环形复合各向异性多层膜具有闭合的磁路,因此具有大的电感。讨论了复合各向异性效应。
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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