• Infrared and Laser Engineering
  • Vol. 50, Issue S2, 20210304 (2021)
Zhengwei Yang1、2, Zhibin Zhao1, Jianguo Gao3, Guangjie Kou1, and Wei Zhang1、*
Author Affiliations
  • 1School of Missile Engineering, Rocket Force University of Engineering, Xi’an 710025, China
  • 2School of Mechanical Engineering, Xi’an Jiaotong University, Xi’an 710049, China
  • 3School of Science, Chang’an University, Xi’an 710054, China
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    DOI: 10.3788/IRLA20210304 Cite this Article
    Zhengwei Yang, Zhibin Zhao, Jianguo Gao, Guangjie Kou, Wei Zhang. Evaluation of infrared thermal wave detection capability for delamination damage of thermosetting/thermoplastic composites[J]. Infrared and Laser Engineering, 2021, 50(S2): 20210304 Copy Citation Text show less
    Test and thermal map processing flow chart
    Fig. 1. Test and thermal map processing flow chart
    Testing specimen
    Fig. 2. Testing specimen
    Dynamic curve of impact response parameters with time
    Fig. 3. Dynamic curve of impact response parameters with time
    Test results of 1#-4# specimen by ultrasonic C-scan
    Fig. 4. Test results of 1#-4# specimen by ultrasonic C-scan
    Infrared thermal wave detection schematic diagram
    Fig. 5. Infrared thermal wave detection schematic diagram
    Active infrared thermal wave detection system
    Fig. 6. Active infrared thermal wave detection system
    Test results of 1# specimen (TS-15J) by pulse thermography
    Fig. 7. Test results of 1# specimen (TS-15J) by pulse thermography
    Test results of 3# specimen (TP-15J) by pulse thermography
    Fig. 8. Test results of 3# specimen (TP-15J) by pulse thermography
    Test results of 2# specimen (TS-30J) by pulse thermography
    Fig. 9. Test results of 2# specimen (TS-30J) by pulse thermography
    Test results of 4# specimen (TP-30J) by pulse thermography
    Fig. 10. Test results of 4# specimen (TP-30J) by pulse thermography
    Temperature change of 1# specimen after pulse excitation
    Fig. 11. Temperature change of 1# specimen after pulse excitation
    Test results of 1# specimen (TS-15J) by ultrasonic thermalgraphy
    Fig. 12. Test results of 1# specimen (TS-15J) by ultrasonic thermalgraphy
    Test results of 3# specimen (TP-15J) by ultrasonic thermalgraphy
    Fig. 13. Test results of 3# specimen (TP-15J) by ultrasonic thermalgraphy
    Test results of 2# specimen (TS-30J) by ultrasonic thermalgraphy
    Fig. 14. Test results of 2# specimen (TS-30J) by ultrasonic thermalgraphy
    Test results of 4# specimen (TP-30J) by ultrasonic thermalgraphy
    Fig. 15. Test results of 4# specimen (TP-30J) by ultrasonic thermalgraphy
    Time sequence change characteristics of 1#-4# specimen
    Fig. 16. Time sequence change characteristics of 1#-4# specimen
    Schematic diagram of region growing algorithm
    Fig. 17. Schematic diagram of region growing algorithm
    Extraction and segmentation results of heat image damage by pulse infrared detection
    Fig. 18. Extraction and segmentation results of heat image damage by pulse infrared detection
    Extraction and segmentation results of heat image damage by pulse uitrasonic infrared detection
    Fig. 19. Extraction and segmentation results of heat image damage by pulse uitrasonic infrared detection
    Sample numberDamage area/mm2Relative error
    PulseUltrasonicC-scanningPulseUltrasonic
    1#875.291048.161077.7218.7%2.74%
    2#1068.701476.831523.9629.8%3.09%
    3#63.75791.69831.5692.3%4.79%
    4#209.651084.701281.7483.6%15.3%
    Table 1. The delamination damage area and its relative error of TP/TS specimens under pulse/ultrasonic detection method
    Zhengwei Yang, Zhibin Zhao, Jianguo Gao, Guangjie Kou, Wei Zhang. Evaluation of infrared thermal wave detection capability for delamination damage of thermosetting/thermoplastic composites[J]. Infrared and Laser Engineering, 2021, 50(S2): 20210304
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