一种磁弹性拉力传感器的设计与评价

Š. Gans, J. Molnár
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引用次数: 0

摘要

摘要本文介绍了基于机械应力(维拉里效应)引起的磁特性(磁导率)变化的磁弹性传感器背后的基本理论。介绍了一种众所周知的磁弹性传感器Pressductor。通过计算拉伸应力引起的RMS次级线圈电压变化的静态传递特性,建立、描述和评估了传感器的仿真模型。然后由多晶变压器片制造真实的传感器,并通过使用由水重量产生的拉伸载荷进行实验测试。模拟和实验显示出类似的行为,但并不完全相同,这很可能是因为一些材料特性来自文献,而不是实验测量,如磁致伸缩系数和初始磁化率。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Design and Evaluation of a Magnetoelastic Tensile Force Sensor
Abstract This paper introduces the basic theory behind magnetoelastic sensors which are based on the change of magnetic properties (permeability) due to mechanical stress (Villari effect). A well-known magnetoelastic sensor, the Pressductor, is described. A simulation model of a sensor is created, described, and evaluated by computing the static transfer characteristic of RMS secondary coil voltage change due to tensile stress. A real sensor is then manufactured from a polycrystalline transformer sheet and experimentally tested by using a tensile load created by water weight. The simulation and experiment show similar behavior but are not completely identical which is most likely since some material properties were taken from literature rather than from experimental measurements, like the magnetostriction coefficient and initial magnetic susceptibility.
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