Surface defect detection of aero-engine blades based on improved Faster-RCNN

被引:0
作者
Xu, Kaiyu [1 ]
机构
[1] Shanghai Maritime Univ, Logist Engn Coll, Shanghai 200135, Peoples R China
来源
PROCEEDINGS OF INTERNATIONAL CONFERENCE ON ALGORITHMS, SOFTWARE ENGINEERING, AND NETWORK SECURITY, ASENS 2024 | 2024年
关键词
Aero-engine blade; Surface defect detection; Faster-RCNN; Attention mechanism; INSPECTION;
D O I
10.1145/3677182.3677305
中图分类号
TP18 [人工智能理论];
学科分类号
081104 ; 0812 ; 0835 ; 1405 ;
摘要
Aiming at the problems of large surface noise and low detection accuracy in the process of aero-engine blade defect detection, a blade surface defect detection method based on improved Faster-RCNN is proposed. The aero-engine blade surface defect dataset is constructed through blade surface defect image acquisition and typical defect labeling. Through experimental comparison, VGG16 is selected as the feature extraction network; the CBAM attention mechanism module is combined in the backbone network, and the cosine annealing learning strategy is used to replace the original step-down learning strategy, so as to improve the extraction ability of the blade surface defect features. Comparative experimental results show that the proposed method improves the average accuracy by 3.45% compared with the Faster-RCNN algorithm.
引用
收藏
页码:683 / 690
页数:8
相关论文
共 10 条
  • [1] Exemplification of Detecting Gas Turbine Blade Structure Defects Using the X-ray Computed Tomography Method
    Blachnio, Jozef
    Chalimoniuk, Marek
    Kulaszka, Artur
    Borowczyk, Henryk
    Zasada, Dariusz
    [J]. AEROSPACE, 2021, 8 (04)
  • [2] Prediction of reflection amplitudes for ultrasonic inspection of rough planar defects
    Haslinger, S. G.
    Lowe, M. J. S.
    Craster, R., V
    Huthwaite, P.
    Shi, F.
    [J]. INSIGHT, 2021, 63 (01) : 28 - 36
  • [3] Fluorescent penetrant testing by means of excilamps
    Kalinichenko A.
    Sosnin E.
    Avdeev S.
    Kalinichenko N.
    Lobanova I.
    [J]. Materials Science Forum, 2019, 942 : 131 - 140
  • [4] Fully noncontact inspection of closed surface crack with nonlinear laser ultrasonic testing method
    Kou, Xing
    Pei, Cuixiang
    Chen, Zhenmao
    [J]. ULTRASONICS, 2021, 114
  • [5] Demonstration of model-assisted probability of detection framework for ultrasonic inspection of cracks in compressor blades
    Lee, Dooyoul
    Yoon, Sunghee
    Park, Jongwoon
    Eum, Sungroung
    Cho, Hwanjeong
    [J]. NDT & E INTERNATIONAL, 2022, 128
  • [6] Using ResNets to perform automated defect detection for Fluorescent Penetrant Inspection
    Shipway, N. J.
    Huthwaite, P.
    Lowe, M. J. S.
    Barden, T. J.
    [J]. NDT & E INTERNATIONAL, 2021, 119
  • [7] Automated defect detection for Fluorescent Penetrant Inspection using Random Forest
    Shipway, N. J.
    Barden, T. J.
    Huthwaite, P.
    Lowe, M. J. S.
    [J]. NDT & E INTERNATIONAL, 2019, 101 : 113 - 123
  • [8] Suh D. M., 1995, Journal of Nondestructive Evaluation, V14, P201, DOI 10.1007/BF00730890
  • [9] Application of unsupervised adversarial learning in radiographic testing of aeroengine turbine blades
    Wang, Donghuan
    Xiao, Hong
    Wu, Dingyi
    [J]. NDT & E INTERNATIONAL, 2023, 134
  • [10] Detection of circumferential cracks in heat exchanger tubes using pulsed eddy current testing
    Yu, Zhaohu
    Fu, Yuewen
    Jiang, Lifan
    Yang, Fan
    [J]. NDT & E INTERNATIONAL, 2021, 121