Screw defect detection system based on AI image recognition technology

HangHong Kuo, JuinMing Xu, C. Yu, J. Yan
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引用次数: 4

Abstract

In the past ten years, smart manufacturing has been widely discussed and gradually introduced into various manufacturing fields. Since Germany proposed the concept of “Industry 4.0” in 2011, it has been spreading and feverish all over the world. For Industry 4.0, information digitization, intelligent defect detection and database platform management are their main core technologies. Aiming at a large screw industry manufacturing field in central and southern Taiwan, this paper proposes a screw defect detection system based on AI image recognition technology to detect damage to the nut during the “molding” process in the screw production process, and it is determined whether the inspected screw passes the inspection. The recognition result is given as shown in Figure 1. This paper uses 500 non-defective screw samples and 20 defective screw samples provided by the screw factory. The above samples collected real-time images through the sampling structure designed in this article, and we adopt Microsoft Corporation's ML.NET suite to model AI images, and uses the following four deep learning models: ResNetV2 50, ResNetV2 101, InceptionV3, MoblieNetV2 for learning; in the process of learning, this article divides the data set into three types of data sets (one is the unknown set that is not used for training but mixed with correct and defective samples, and the other is used for post-training verification of mixed samples with correct and defective samples. The third is a training set for training a mixture of correct and defective samples) This arrangement is used for subsequent verification models; after training, a PC-based screw defect detection system is implemented as shown in Figure 2; finally, with Detect screw defects in the form of instant photography. After the experiment, in 1,000 repeated tests, the success rate of defect detection reached 97%, while the false positive rate was only 2%.
基于AI图像识别技术的螺杆缺陷检测系统
近十年来,智能制造被广泛讨论并逐步引入到制造的各个领域。自2011年德国提出“工业4.0”概念以来,这一概念在全球范围内得到了传播和热捧。对于工业4.0,信息数字化、智能缺陷检测和数据库平台管理是其主要的核心技术。本文针对台湾中南部某大型螺杆工业制造领域,提出一种基于AI图像识别技术的螺杆缺陷检测系统,用于检测螺杆生产过程中“成型”过程中螺母的损伤,并判断被检螺杆是否通过检测。识别结果如图1所示。本文使用的是由螺杆厂提供的500个非次品螺杆样品和20个次品螺杆样品。上述样本通过本文设计的采样结构采集实时图像,并采用微软公司的ML.NET套件对AI图像进行建模,使用以下四种深度学习模型:ResNetV2 50、ResNetV2 101、InceptionV3、MoblieNetV2进行学习;在学习过程中,本文将数据集分为三种类型的数据集(一种是不用于训练但混合了正确和缺陷样本的未知数据集,另一种是用于混合了正确和缺陷样本的训练后验证数据集)。第三个是训练集,用于训练正确样本和缺陷样本的混合物),这种安排用于后续的验证模型;经过培训,实现了基于pc机的螺钉缺陷检测系统,如图2所示;最后以检测螺丝缺陷的形式进行瞬间摄影。实验后,在1000次重复测试中,缺陷检测成功率达到97%,而假阳性率仅为2%。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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