基于电磁声学传感器的非接触式机械 Q 因子测量系统

Masatoshi Tsuchida, Takeshi Morita
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引用次数: 0

摘要

机械品质因数(Q 系数)是振动损失常数的倒数,是振动工程中最重要的参数之一;然而,目前还没有精确测量的方法。因此,人们通常使用 Q 因子数据库。本研究提出了一种完全非接触式的 Q 值测量系统,该系统结合了非接触式激励(使用电磁声学传感器实现)和非接触式支撑(使用基于两个朗格文传感器的近场超声波悬浮实现)。所提出的方法用于测量不锈钢(SUS304)样品(直径为 1.5 毫米、长度为 80 毫米的圆柱形细棒)和硬铝(A2017)的 Q 值因子。不锈钢(SUS304)的 5 倍平均 Q 值为 2010,标准偏差为 50;硬铝(A2017)的 5 倍平均 Q 值为 49 000,标准偏差为 3900。拟议方法还可测量杨氏模量,结果显示不锈钢(SUS304)的杨氏模量为 217.17 ± 0.34 GPa,硬铝(A2017)的杨氏模量为 71.39 ± 0.20 GPa。
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Non-contact mechanical Q-factor measurement system based on electromagnetic acoustic transducer
The mechanical quality factor (Q-factor), which is the reciprocal of the vibration loss constant, is one of the most important parameters in vibration engineering; however, there are no methods for its precise measurement. Q-factor databases are thus commonly used. This study proposes a completely non-contact measurement system for the Q-factor that combines non-contact excitation (achieved using an electromagnetic acoustic transducer) with non-contact support (achieved using near-field ultrasonic levitation based on two Langevin transducers). The proposed method was used to measure the Q-factor for a stainless steel (SUS304) sample (thin cylindrical rod with a diameter of 1.5 mm and a length of 80 mm)and a duralumin (A2017). The 5 times average Q-factor was 2010 with standard deviation of 50 for stainless steel (SUS304), and 49,000 with standard deviation of 3900 for duralumin (A2017). The proposed method also allowed for the measurement of Young’s modulus, resulting in 217.17 ± 0.34 GPa for stainless steel (SUS304), and 71.39 ± 0.20 GPa for duralumin (A2017).
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来源期刊
CiteScore
7.40
自引率
5.60%
发文量
177
审稿时长
46 days
期刊介绍: Precision Engineering - Journal of the International Societies for Precision Engineering and Nanotechnology is devoted to the multidisciplinary study and practice of high accuracy engineering, metrology, and manufacturing. The journal takes an integrated approach to all subjects related to research, design, manufacture, performance validation, and application of high precision machines, instruments, and components, including fundamental and applied research and development in manufacturing processes, fabrication technology, and advanced measurement science. The scope includes precision-engineered systems and supporting metrology over the full range of length scales, from atom-based nanotechnology and advanced lithographic technology to large-scale systems, including optical and radio telescopes and macrometrology.
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