纳米晶软磁带和微线:能源相关应用的未来发展

P. Marín, A. M. Aragon, V. López, A. Hernando
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引用次数: 1

摘要

研究的重点是高饱和磁化等优异的磁性能。非晶和纳米晶磁带和微线的高磁化率、巨磁阻抗、磁弹性和铁磁共振及其在节能和能量收集方面的可能应用。一方面,分析了纳米晶磁性粉末作为软磁相在硬-软复合材料中提高能积(BHmx)的可能性。本工作提供了一种制造具有良好微观结构的纳米复合材料的工艺,以提高最大能积(BHmax)。它是基于高交换相关长度的软纳米晶粉末与相似粉末粒度的硬磁粉末的组合。另一个与纳米晶化有关的有趣性质是在磁性微线中观察到的磁弹性共振。先前进行的实验表明,这种材料呈现出高磁力耦合,结合其微小的尺寸,为能量收集领域开辟了新的可能性。我们得出结论,非晶微线作为磁弹性谐振器具有独特的特性。这种传感器有两个主要优点。首先,与基于带状的传感器相比,它们的尺寸减小了,这是当前技术的典型需求。第二个优点是呈现自由偏置磁力耦合,从而导致自由偏置磁弹性共振。这一特点是由于两种不同的磁畴在微丝中共存。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Nanocrystalline soft magnetic ribbons and microwires: Towards future developments in energy related applications
The work is focused in outstanding magnetic properties as high saturation magnetization. high susceptibility, giant magneto impedance, magnetoelastic and ferromagnetic resonance, of amorphous and nanocrystalline magnetic ribbons and microwires and its possible applications related with energy saving and energy harvesting. On one side the possibility of using nanocrystalline magnetic powders as soft magnetic phase in hard-soft composites to enhance energy product (BHmx) will be analyzed. The present work provides a process for manufacturing nanocomposites with favorable microstructure to enhance maximum energy product (BHmax). It is based in the combination of a soft nanocrystalline powder with high exchanged correlation length with hard magnetic powder of similar powder particle size. Other interesting property related with nanocrystallization is magnetoelastic resonance observed in magnetic microwires. Experiments previously performed show how this materials present high magnetomechanical coupling that combined with its tiny dimensions open new possibilities in the field of harvesting energy. We have concluded that amorphous microwires have unique features as magnetoelastic resonators. Such sensors have two main advantages. The first one is their reduced size compared with the ribbon-based sensors, a typical demand in state-of the art technology. The second advantage is the fact of presenting free-bias magnetomechanical coupling which results in a free-bias magnetoelastic resonance. This feature is herein attributed to the coexistence of two different kinds of magnetic domains in the microwire.
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