抗磁性材料在微纳米悬浮装置中的应用教学模型

C. Vinga, E. Cazacu, F. Frigura-Iliasa, D. Vatau
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引用次数: 0

摘要

反磁悬浮在当今材料工程中应用并不广泛,但它为微磁性和许多其他技术领域提供了一些独特的特点。它可以为微机械传感器提供无摩擦轴承,用于测量由各种物理效应引起的某些类型的弱力,特别是在纳米技术中。应用于这些微型机械的情况下,反磁悬浮可以自然地消除任何磨损和摩擦,这是影响微驱动器可靠性和控制的两个主要因素。反磁悬浮最重要的缺点是单位质量提供的力相当弱,这限制了它在具有相对较低有效加速度的系统中作为经典鞋底轴承支撑的使用。本文证明了静磁场源可以在自由悬浮状态下产生小的抗磁性体。本演示所涉及的理论方法,是用于与学生一起进行材料实验,以便更熟悉这一最新技术的应用。此外,当考虑磁性的尺度缩小时,当系统的尺寸减小时,抗磁性似乎更有效,换句话说,在宏观尺度上执行的困难和复杂的操作在微观尺度上可能变得毫不费力和简单。这是对未来材料专家(现在是学生)有用的另一个问题。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Educational model for diamagnetic material applications in micro and nano levitation devices
Not very applied in today materials engineering, diamagnetic levitation offers some distinct features for micromagnetics and many other technical domains. It can provide frictionless bearings for micromechanical sensors applied to measure some types of weak forces, resulting from various physical effects, especially in nanotechnologies. Applied in the situation of these micro machines, diamagnetic levitation can naturally eliminate any wear and friction, which are two main factors affecting reliability and control of micro drives. The most important drawback of diamagnetic levitation is a fairly weak force offered per unit mass, which limits its use as a classic sole bearing support in case of systems having relatively low effective accelerations. This paper proves that the static magnetic field sources can bring small diamagnetic bodies in a free levitation. This demonstration and theoretical method involved, is used for material laboratories with students, in order to be more familiarized with this state of the art applications. Furthermore, when considering scale reduction for magnetism, it appears that diamagnetism is more efficient when the dimensions of the system are decreasing, in other words, what is difficult and complex to perform at macroscopic scale may become effortless and simple in the micro-size world This is another issue useful for future material specialists (now students).
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