Inherent magnetic sensor for estimation of fatigue damage in type 304 stainless steel

K. Kinoshita
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Abstract

In this study, the fatigue damage in type 304 stainless steel was estimated using an inherent magnetic sensor via plane bending fatigue tests and the electromagnetic impedance method. The sensor was a magnetic composite material incorporating a ferromagnetic martensite phase generated in type 304 stainless steel by a surface finish process during the production stage. The output properties of this sensor as a function of the number of cycles were evaluated under various conditions. It was demonstrated that this sensor could detect fatigue damage starting from the zeroth cycle. The sensor output repeatability was evaluated, and the variation in the output between the inherent magnetic sensors was approximately 10% regardless of the sensor type and total strain amplitude. By using the two proposed estimation methods, the specific fatigue level and number of cycles could be estimated with errors of 3%-27%. These results indicated that the inherent magnetic sensor was suitable for use for fatigue damage estimation.
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用于估计304型不锈钢疲劳损伤的固有磁传感器
通过平面弯曲疲劳试验和电磁阻抗法,利用固有磁传感器对304型不锈钢进行了疲劳损伤估计。该传感器是一种磁性复合材料,包含在304型不锈钢中通过表面处理过程产生的铁磁性马氏体相。在各种条件下,评估了该传感器的输出特性作为周期数的函数。结果表明,该传感器可以从第0个循环开始检测疲劳损伤。对传感器输出的重复性进行了评估,无论传感器类型和总应变幅值如何,固有磁传感器之间的输出变化约为10%。两种估算方法的疲劳强度和循环次数估算误差均在3% ~ 27%之间。结果表明,固有磁传感器适用于疲劳损伤估计。
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来源期刊
CiteScore
3.80
自引率
9.10%
发文量
25
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