采用磁退火和拉应力退火对软磁纳米晶合金的磁滞回线进行泰勒化

L. Varga
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引用次数: 0

摘要

为了使电感器和变压器的工作频率保持在100至500千赫左右,金属铁芯的涡流限制应移至1兆赫以上。高工作频率允许减少质量和体积,这是当今航空航天和汽车应用的主要需求。特别是,在航空航天应用的背景下,一种能够在适用温度范围内保持较低铁芯损耗的磁性材料可以为与铁氧体(有限温度范围)和17 μm厚的晶莫合金(有限塑性屈服强度)的竞争提供基础。人们已经认识到,对于低损耗和广泛适用的温度要求,磁场和应力退火的Finemet代表了一种先进的材料,为高频磁性提供了新的解决方案。采用高质量因数和高电流电感可以制备无间隙紧凑的环形电路。本文提出了一些关于磁场和应力退火的新结果。
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Tayloring the hysteresis loop of soft magnetic nanocrystalline alloys by magnetic and tensile stress annealing
The eddy current limits for metallic cores should be shifted above 1 MHz in order to keep the operating frequencies about 100 to 500 kHz for inductors and transformers. The high operating frequency permits the mass and volume reducing which is a major demand nowadays in aerospace and automobile applications. Specially, in the context of aerospace applications, a magnetic material that can maintain a lower core loss over the applicable temperature range can provide a basis for nosing out the competition with ferrites (limited temperature range) and with crystalline permalloy of 17 μm thick (limited plastic yields strength). It has been recognized that for low loss and wide applicable temperature demand magnetic field and stress annealed Finemet represent an advanced material permitting new solutions for high frequency magnetics. Compact toroids without gap can be prepared with high quality factor and high current inductors. This work presents some new results concerning the magnetic field and stress annealing.
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