Lightweight Deep Learning Neural Networks for Analyzing Infrared Thermal Imaging Non-Destructive Inspection Results

被引:0
|
作者
Han, Nara [1 ]
Song, Jaewoong [1 ]
Jang, Jaewon [2 ]
Noh, Jackyou [3 ]
Han, Zhiqiang [4 ]
Oh, Daekyun [5 ]
机构
[1] Mokpo Natl Maritime Univ, Dept Ocean Syst Engn, Mokpo, South Korea
[2] Mokpo Natl Maritime Univ, Ind Acad Cooperat Fdn, Profess Human Resources Training Smart Yard Ctr, Mokpo, South Korea
[3] Kunsan Natl Univ, Dept Naval Architecture & Ocean Engn, Gunsan, South Korea
[4] Zhejiang Ocean Univ, Sch Naval Architecture & Maritime, Zhoushan, Peoples R China
[5] Mokpo Natl Maritime Univ, Dept Naval Architecture & Ocean Engn, Mokpo, South Korea
关键词
MobileNet; Lightweight Deep Learning; Convolutional Neural Network; Infrared Thermography Testing; Statistical Analysis;
D O I
10.3795/KSME-A.2024.48.10.671
中图分类号
TH [机械、仪表工业];
学科分类号
0802 ;
摘要
Non-destructive testing is commonly employed for inspecting vessel quality, in particular infrared thermography testing. However, owing to the lack of clear criteria for interpreting the resulting images, inspections have been conducted subjectively based on the inspector's experience. Small vessels such as fishing and leisure boats are typically constructed using fiber-reinforced plastics, which feature thick hull materials mixed with fabric. In this study, specimens using both combined-fabric and single-fabric methods were prepared to detect defects using infrared thermography. To inspect the results objectively, defects were detected via a statistical-analysis method using a temperature-change-rate equation and deep learning, which is an image-classification technology. Results of applying statistical analysis and deep learning reveal differences in the defect-detection temperatures between the mixed-fabric.
引用
收藏
页码:671 / 680
页数:10
相关论文
共 50 条
  • [31] Hyperspectral imaging and explainable deep-learning for non-destructive quality prediction of sweetpotato
    Ahmed, Md. Toukir
    Villordon, Arthur
    Kamruzzaman, Mohammed
    POSTHARVEST BIOLOGY AND TECHNOLOGY, 2025, 222
  • [32] Improvements in electromagnetic-thermal non-destructive inspection by data processing
    Tsopelas, N.
    Siakavellas, N. J.
    NDT & E INTERNATIONAL, 2009, 42 (05) : 477 - 486
  • [33] Non-destructive monitoring of forming quality of self-piercing riveting via a lightweight deep learning
    Sen Lin
    Lun Zhao
    Sen Wang
    Md Shafiqul Islam
    Wu Wei
    Xiaole Huo
    Zixin Guo
    Scientific Reports, 13
  • [34] Holographic metrology: some examples of imaging in medicine and non-destructive inspection
    Webster, J. M.
    IMAGING SCIENCE JOURNAL, 2006, 54 (02): : 80 - 85
  • [35] Non-destructive monitoring of forming quality of self-piercing riveting via a lightweight deep learning
    Lin, Sen
    Zhao, Lun
    Wang, Sen
    Islam, Md Shafiqul
    Wei, Wu
    Huo, Xiaole
    Guo, Zixin
    SCIENTIFIC REPORTS, 2023, 13 (01)
  • [36] Development of non-destructive inspection method for the performance of thermal barrier coating
    Morinaga, M
    Takahashi, T
    HEAT TRANSFER IN GAS TURBINE SYSTEMS, 2001, 934 : 489 - 496
  • [37] Emerging non-destructive thermal imaging technique coupled with chemometrics on quality and safety inspection in food and agriculture
    Ali, Maimunah Mohd
    Hashim, Norhashila
    Abd Aziz, Samsuzana
    Lasekan, Ola
    TRENDS IN FOOD SCIENCE & TECHNOLOGY, 2020, 105 : 176 - 185
  • [38] INFRARED IMAGING AS A NON-DESTRUCTIVE TESTING METHOD FOR GEOPOLYMER CONCRETE
    Kusbiantoro, A.
    Ismail, A. H.
    Jema'in, S. K.
    Muthusamy, K.
    Zainal, F. F.
    ARCHIVES OF METALLURGY AND MATERIALS, 2023, 68 (03) : 1047 - 1052
  • [39] Rapid and non-destructive seed viability prediction using near-infrared hyperspectral imaging coupled with a deep learning approach
    Ma, Te
    Tsuchikawa, Satoru
    Inagaki, Tetsuya
    COMPUTERS AND ELECTRONICS IN AGRICULTURE, 2020, 177
  • [40] NON-DESTRUCTIVE INFRARED INSPECTION OF HYBRID MICRO-CIRCUIT SUBSTRATE-TO-PACKAGE THERMAL ADHESIVE BONDS
    KALLIS, JM
    EGAN, GS
    WIRICK, MP
    IEEE TRANSACTIONS ON COMPONENTS HYBRIDS AND MANUFACTURING TECHNOLOGY, 1981, 4 (03): : 257 - 260