全向磁致伸缩导波检测系统在储罐底部腐蚀检测中的应用

Xin Chen, A. Cobb, S. Vinogradov
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引用次数: 0

摘要

储罐在各行业中无处不在,储罐底部的腐蚀是其正常运行的主要威胁。人们提出了多种用于腐蚀检测的无损检测方法,其中超声导波(UGW)技术由于传播距离大、对缺陷的灵敏度高而被广泛认为是有效的。为了获得罐底缺陷的完整映射,通常首选UGW层析成像;然而,要求将换能器放置在微小的角度增量上可能会导致测量非常耗时。本文报道了一种新设计的全向磁致伸缩导波系统在罐底腐蚀检测中的应用。与现有的基于稀疏阵列元素的全向系统设计不同,本文提出的系统使用单个探针在单个主导方向上激发导波,该方向覆盖由其波束特性决定的区域。通过用伺服电机旋转探头并以预定的角度获取数据,实现了全方位覆盖。在这种方式下,由于换能器孔径比基于小元素稀疏阵列的换能器孔径更大,从而改善了光束的方向性,并且在每个角度下光束的方向性保持不变。通过在模型罐底部钻不同深度和位置的孔,对所提出的全方位腐蚀检测系统的性能进行了实验评价。该系统被放置在罐底报时板边缘(裙边)的几个位置,在这些位置,可以使用适当角度测量的三角测量来定位罐底的腐蚀。
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Corrosion Detection in Storage Tank Bottoms via Omni-Directional Magnetostrictive Guided Wave Inspection System
Storage tanks are ubiquitous in various industries, and corrosion in tank bottoms is a major threat to their normal operation. A variety of nondestructive testing (NDT) methods have been proposed for corrosion detection, of which the ultrasonic guided wave (UGW) technique is widely considered efficient due to the large propagation distance and high sensitivity to defects. To obtain complete mapping of tank bottom defects, UGW tomography is usually preferred; however, the requirement to place transducers at fine angular increments can cause the measurements to be time consuming. In this paper, we report the usage of a newly designed omni-directional magnetostrictive guided wave system for tank bottom corrosion detection. Different from existing omni-directional system designs, which are typically based on sparse array elements, the system proposed here excites guided waves using a single probe in a single predominant direction that covers the area determined by its beam characteristics. The omni-directional coverage is achieved by rotating the probe with a servo motor and acquiring data at predefined angles. In this fashion, the beam directionality is improved due to a larger transducer aperture compared with those based on a sparse array of small elements, and the beam directionality remains the same at every angle. The performance of the proposed omni-directional system for corrosion inspection is evaluated experimentally by introducing drilled holes of different depths and locations in the bottom of a mock-up tank. The system was placed at several locations along the tank bottom chime plate edge (skirt), where triangulation using appropriate angular measurements can be applied to locate corrosion in the tank bottom.
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