Review Article

Fabric Defect Detection in Textile Manufacturing: A Survey of the State of the Art

Table 6

Deep learning-based algorithms for fabric defect detection.

AuthorProposed or tested modelCategorizeDatasetEvaluation

Jing et al. [89]Mobile-UnetOne-stageBenchmark databases, the fabric images database (FID), and yarn dyed fabric images (YFI), in which all images are manually annotated segmentationPixel accuracy (PA) and IoU

Hong-wei hang [90]YOLOV2One-stageCollected dataset (276)IOU, recall, and precision

Young-Joo Han [91]Stacked convolutional autoencodersOne-stageSynthetic and collected datasetRecall, precision, and F-score

Xinying He [92]Adaptive method based on DenseNet-SSDOne-stageCollected dataset (2072)Calculate localization loss (loc) and confidence loss (conf)

Mohammed et al. [93]A multilayer perceptron with a Levenberg–Marquardt (LM) algorithmOne-stageCollected dataset (217)Specificity, accuracy, and sensitivity

Shuang mei [94]Multiscale convolutional denoising autoencoder network modelOne-stageFour datasets: fabrics, KTH-TIPS, Kylberg texture, and ms-textureRecall, precision, and F1-measure

Huosheng Xie [95]Improved RefineDetOne-stageTILDA dataset, Hong Kong patterned textures database, and DAGM2007 datasetPrecision (P), recall I, F1-score, mean average precision (mAP), model parameter (param.)

Yanqing Huang [96]Segmentation network and decision networkTwo-stageDark redfFabric (DRF), light blue fabric (LBF) and patterned texture fabric (PTF)Frames per second (FPS) Avg-IoU and Avg-P