一种新型的三维激光扫描缺陷检测与测量方法

IF 2.7 3区 工程技术 Q1 ENGINEERING, MULTIDISCIPLINARY Measurement Science and Technology Pub Date : 2021-01-11 DOI:10.1088/1361-6501/abda95
Yipeng Tang, Qing Wang, Han Wang, Jiangxiong Li, Y. Ke
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引用次数: 12

摘要

自动化纤维铺放机过程中铺层检测是提高复合材料结构制造效率和质量的关键。激光轮廓仪扫描技术是自动化过程检测技术之一。激光轮廓仪可以在铺层过程中捕获大量密集的高分辨率点云。到目前为止,关于高速处理点云用于层间缺陷检测和层间特征测量的研究还很少。本文提出了一种截面线处理算法,并搭建了实验平台对该算法进行了验证。该算法对激光轮廓仪捕获的每条激光线进行处理,并将处理结果聚类在一起。最后,从采集到的点云中对缺陷特征和层叠特征进行分割和识别。可以识别叠层缺陷类型,并且可以测量叠层特征的尺寸。实验结果表明,该方法每秒最多可处理200条激光线(约16万个点),整体缺陷类型识别准确率达到78%左右,满足AFP在工检测的基本要求。
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A novel 3D laser scanning defect detection and measurement approach for automated fibre placement
Automated fibre placement (AFP) machine in-process layup inspection is essential for composite structure fabrication efficiency and quantity improvement. The laser profilometer scanning technique is one of the automated in-process inspection techniques. Laser profilometers can capture a large number of intensive high-resolution point clouds during the layup. To date, few studies have been published about processing point clouds at high speed for in-process layup defect detection and layup feature measurement. In this study, an algorithm called the cross-sectional line-processing algorithm was proposed, and a testbed was constructed to validate the algorithm. The algorithm processes each laser line captured by the laser profilometer and clusters the processed results together. Finally, the defect features and layup features can be segmented and recognized from the collected point cloud. Layup defect types can be recognized, and the dimensions of the layup features can be measured. The experimental results show that this approach can process at most 200 laser lines (about 160 000 points) per second, and the overall defect type recognition accuracy rate reaches about 78%, which meets basic AFP in-process inspection requirements.
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来源期刊
Measurement Science and Technology
Measurement Science and Technology 工程技术-工程:综合
CiteScore
4.30
自引率
16.70%
发文量
656
审稿时长
4.9 months
期刊介绍: Measurement Science and Technology publishes articles on new measurement techniques and associated instrumentation. Papers that describe experiments must represent an advance in measurement science or measurement technique rather than the application of established experimental technique. Bearing in mind the multidisciplinary nature of the journal, authors must provide an introduction to their work that makes clear the novelty, significance, broader relevance of their work in a measurement context and relevance to the readership of Measurement Science and Technology. All submitted articles should contain consideration of the uncertainty, precision and/or accuracy of the measurements presented. Subject coverage includes the theory, practice and application of measurement in physics, chemistry, engineering and the environmental and life sciences from inception to commercial exploitation. Publications in the journal should emphasize the novelty of reported methods, characterize them and demonstrate their performance using examples or applications.
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