巨磁阻抗
无定形固体
材料科学
梅格拉斯
铁磁性
制作
平面的
生物传感器
测距
无线
光电子学
微波食品加热
磁场
核磁共振
纳米技术
非晶态金属
复合材料
巨磁阻
凝聚态物理
磁电阻
物理
计算机科学
结晶学
电信
化学
计算机图形学(图像)
病理
医学
替代医学
量子力学
合金
作者
B.T. Lejeune,Papa Gorgui Birame Gueye,Diego Archilla,E. Navarro,M. Vázquez,R. P. del Real,L. H. Lewis,Pilar Marín
出处
期刊:IEEE Sensors Journal
[Institute of Electrical and Electronics Engineers]
日期:2022-12-05
卷期号:23 (2): 1099-1104
被引量:2
标识
DOI:10.1109/jsen.2022.3225726
摘要
[EN] Glass-coated amorphous ferromagnetic microwires subjected to variations in mass loading and parallel wire arrays with 0.5-6-cm interwire spacing were found to deliver exceptional magnetomechanical and wireless giant magnetoimpedance (GMI) responses, in the kilohertz and microwave range, respectively. The microwires allow wireless quantification of microgram mass differences: the magnetomechanical resonance frequency measured in zero applied field demonstrates an approximately linear decrease of 3 Hz/ μ g, and a sensitivity response that is ten times greater than that reported for commercial METGLAS-type amorphous magnetic ribbons of comparable length. Microwave giant magnetoimpedance data collected from planar arrays of parallel microwires show either constructive or destructive interference when compared to data obtained from a single microwire. The exceptional responsiveness of the glass-coated amorphous ferromagnetic microwires to mass loading and to geometric arrangement, along with their small diameter and ease of fabrication, highlights their promise for a wide variety of sensor applications, including biosensing, civil infrastructure monitoring, and high-throughput remote detection schemes.
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