共面电容感测作为一种新型电磁无损检测技术

farima abdollahi-mamoudan, S. Savard, C. Ibarra-Castanedo, T. Filleter, X. Maldague
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引用次数: 1

摘要

共面电容技术是一种相对较新的电磁无损检测方法,它可以通过在试样表面移动一组电极来评价材料。除了与设计相关的参数,如电极形状、尺寸、主电极之间的分离距离等,试样的材料也会影响共面电容探头的性能。在本文中,采用三维有限元模型(FEM)来评估和识别电场行为作为被测材料的函数对非导电和导电试样有/无缺陷。在表面缺陷覆盖5 mm厚有机玻璃绝缘层的铝试样上,采用一对矩形共面电极进行物理实验,验证了模拟结果并评估了探针的性能。数值模拟结果与实验结果具有较好的定性一致性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Coplanar Capacitive Sensing as a New Electromagnetic Technique for Non-Destructive Evaluation
Coplanar capacitive technique is a relatively novel electro-magnetic Non-Destructive Testing (NDT) method that could be applied to the evaluation of materials by moving a set of electrodes on the surface of the specimen. In addition to the design-related parameters such as electrode shape, size, and the separation distance between the main electrodes, the material of the specimen affects the coplanar capacitive probe performance. In this paper, a 3D Finite Element Modeling (FEM) was employed to assess and identify the electric field behaviour as a function of material under test for non-conducting and conducting specimens with/without defect. Physical experiments were carried out by a pair of rectangular coplanar electrodes on an aluminium specimen with surface defects covered by a 5 mm thick plexiglass insulation layer to verify the simulation results and evaluate the performance of the probe. A good qualitative agreement was observed between the numerical simulations and experimental results.
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