Fabric Defect Detection Algorithm Based on Convolution Neural Network and Low-Rank Representation

Zhoufeng Liu, Baorui Wang, Chunlei Li, Bicao Li, Xianghui Liu
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引用次数: 5

Abstract

To accurately detect the fabric defects in the textile quality control process, this paper proposed a novel detection method based on convolution neural network(CNN) and low-rank representation(LRR). First, the characteristics of multiple nonlinear transformations and multi-level abstraction ability of images in deep learning are used to characterize the multi-layer features of fabric images using CNN, and then the extracted features are concentrated into a feature matrix. Second, low-rank representation model is adopted to divide the feature matrix into low-rank and sparse matrices, which indicate the background and salient object defects, respectively. Finally, the iterative optimal threshold segmentation algorithm is used to segment the saliency maps generated by the sparse matrix to locate the fabric defect region. Experimental results show that the features extracted by CNN are more suitable for characterizing fabric texture than traditional methods, such as HOG, LBP, and other hand-crafted feature extraction method, and the detection results outperforms the state-of-the-art.
基于卷积神经网络和低秩表示的织物缺陷检测算法
为了准确检测纺织品质量控制过程中的织物缺陷,提出了一种基于卷积神经网络(CNN)和低秩表示(LRR)的织物缺陷检测方法。首先,利用深度学习中图像的多重非线性变换和多层次抽象能力的特点,利用CNN对织物图像的多层特征进行表征,然后将提取的特征集中到特征矩阵中。其次,采用低秩表示模型将特征矩阵划分为低秩矩阵和稀疏矩阵,分别表示背景和显著目标缺陷;最后,采用迭代最优阈值分割算法对稀疏矩阵生成的显著性映射进行分割,定位织物缺陷区域。实验结果表明,与传统的HOG、LBP等手工特征提取方法相比,CNN提取的特征更适合于织物纹理特征的表征,检测结果优于目前的水平。
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