Acoustic sources localization for composite pate using arrival time and BP neural network

被引:19
作者
Hao, Wenfeng [1 ]
Huang, Yingqi [2 ]
Zhao, Guoqi [2 ]
机构
[1] Yangzhou Univ, Coll Mech Engn, Yangzhou 225127, Jiangsu, Peoples R China
[2] Jiangsu Univ, Fac Civil Engn & Mech, Zhenjiang 212013, Jiangsu, Peoples R China
基金
中国国家自然科学基金;
关键词
Composite pate; Acoustic sources localization; BP neural Network; Wave field; Scanning laser Doppler vibrometer; EMISSION SOURCES; IMPACT; DAMAGE; STRENGTH; POINT;
D O I
10.1016/j.polymertesting.2022.107754
中图分类号
TB3 [工程材料学];
学科分类号
0805 ; 080502 ;
摘要
This paper presents a machine learning approach to localizing a five-peak narrow-band modulated sinusoidal signal excitation source within a composite panel. In particular, the Back Propagation (BP) neural network is used. The idea is to use the arrival time of the first wave packet in a five-peak wave signal to locate their source. Specifically, this paper divides the composite material board into multiple regions, designs 8 receiving points to receive the signal from the excitation source, and finds the region where each source is located. The COMSOL numerical simulation platform is used to build a composite plate model and simulate the propagation of fivepeak waves to train and test the machine learning network. Correspondingly, carry out experimental verification and use a scanning laser Doppler vibrometer (SLDV) to build a non-contact experimental platform to obtain the wave field information in the composite material plate. The results show that BP neural networks can learn to map signal features to their sources in both contexts.
引用
收藏
页数:21
相关论文
共 27 条
[1]   1-D CNNs for structural damage detection: Verification on a structural health monitoring benchmark data [J].
Abdeljaber, Osama ;
Avci, Onur ;
Kiranyaz, Mustafa Serkan ;
Boashash, Boualem ;
Sodano, Henry ;
Inman, Daniel J. .
NEUROCOMPUTING, 2018, 275 :1308-1317
[2]   Evaluation of deep learning approaches based on convolutional neural networks for corrosion detection [J].
Atha, Deegan J. ;
Jahanshahi, Mohammad R. .
STRUCTURAL HEALTH MONITORING-AN INTERNATIONAL JOURNAL, 2018, 17 (05) :1110-1128
[3]   Predicting residual strength of pre-fatigued glass fibre-reinforced plastic laminates through acoustic emission monitoring [J].
Caprino, G ;
Teti, R ;
de Iorio, I .
COMPOSITES PART B-ENGINEERING, 2005, 36 (05) :365-371
[4]   A new algorithm for acoustic emission localization and flexural group velocity determination in anisotropic structures [J].
Ciampa, F. ;
Meo, M. .
COMPOSITES PART A-APPLIED SCIENCE AND MANUFACTURING, 2010, 41 (12) :1777-1786
[5]  
Cybenko G., 1989, Mathematics of Control, Signals, and Systems, V2, P303, DOI 10.1007/BF02551274
[6]   A generalizable deep learning framework for localizing and characterizing acoustic emission sources in riveted metallic panels [J].
Ebrahimkhanlou, Arvin ;
Dubuc, Brennan ;
Salamone, Salvatore .
MECHANICAL SYSTEMS AND SIGNAL PROCESSING, 2019, 130 :248-272
[7]   Single-Sensor Acoustic Emission Source Localization in Plate-Like Structures Using Deep Learning [J].
Ebrahimkhanlou, Arvin ;
Salamone, Salvatore .
AEROSPACE, 2018, 5 (02)
[8]   Identification of acoustic emission sources for structural health monitoring applications based on convolutional neural networks and deep transfer learning [J].
Hesser, Daniel Frank ;
Mostafavi, Shimaalsadat ;
Kocur, Georg Karl ;
Markert, Bernd .
NEUROCOMPUTING, 2021, 453 :1-12
[9]   MULTILAYER FEEDFORWARD NETWORKS ARE UNIVERSAL APPROXIMATORS [J].
HORNIK, K ;
STINCHCOMBE, M ;
WHITE, H .
NEURAL NETWORKS, 1989, 2 (05) :359-366
[10]   Measurement of fracture parameters based upon digital image correlation and virtual crack closure techniques [J].
Huo, Xintao ;
Luo, Quantian ;
Li, Qing ;
Sun, Guangyong .
COMPOSITES PART B-ENGINEERING, 2021, 224