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Lamb Wave Frequency Diverse Array

The imaging method based on the conventional phased array (PA) can only realize angle focusing. To break through the above limitations, frequency diverse array (FDA) is first introduced from radar to Lamb wave, which opens up a possibility to realize angle-range focusing in damage localization. The...

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Published in:IEEE transactions on ultrasonics, ferroelectrics, and frequency control ferroelectrics, and frequency control, 2022-08, Vol.69 (8), p.2526-2539
Main Authors: Lang, Yanfeng, Yang, Zhibo, Yang, Laihao, Chen, Xuefeng
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cited_by cdi_FETCH-LOGICAL-c351t-34d765912ca8221a9185fdce387c52c3ada339d8c1855473e47ac141691fcb1d3
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container_issue 8
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container_title IEEE transactions on ultrasonics, ferroelectrics, and frequency control
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creator Lang, Yanfeng
Yang, Zhibo
Yang, Laihao
Chen, Xuefeng
description The imaging method based on the conventional phased array (PA) can only realize angle focusing. To break through the above limitations, frequency diverse array (FDA) is first introduced from radar to Lamb wave, which opens up a possibility to realize angle-range focusing in damage localization. The energy pattern of FDA without considering the features of radar signals is re-derived, and a corresponding FDA focusing imaging method for Lamb wave is developed. In the presented method, by appending various frequency offsets to the redesigned anti-dispersive excitations, the desired FDA focusing and the dispersion elimination for Lamb wave are achieved simultaneously. Furthermore, based on full matrix capture being the data acquisition approach, a novel total focusing is realized with comprehensive consideration of positive and negative frequency offsets. Benefiting from FDA focusing, compared with the PA methods, the proposed method exhibits superior adjacent defects' identification ability and preferable interference suppression capability with excellent location accuracy and strong parameter robustness. Its superiority is validated by the experiment on aluminum plate with multiple adjoining surface and inner defects.
doi_str_mv 10.1109/TUFFC.2022.3182419
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To break through the above limitations, frequency diverse array (FDA) is first introduced from radar to Lamb wave, which opens up a possibility to realize angle-range focusing in damage localization. The energy pattern of FDA without considering the features of radar signals is re-derived, and a corresponding FDA focusing imaging method for Lamb wave is developed. In the presented method, by appending various frequency offsets to the redesigned anti-dispersive excitations, the desired FDA focusing and the dispersion elimination for Lamb wave are achieved simultaneously. Furthermore, based on full matrix capture being the data acquisition approach, a novel total focusing is realized with comprehensive consideration of positive and negative frequency offsets. 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source IEEE Xplore (Online service)
subjects Aluminum
Damage localization
Damage patterns
Data acquisition
Defects
Delay effects
Dispersion
energy focusing
Focusing
frequency diverse array (FDA)
Frequency diversity
lamb wave
Lamb waves
Metal plates
Offsets
Parameter robustness
Phased arrays
Radar antennas
Time-frequency analysis
title Lamb Wave Frequency Diverse Array
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