The current analysis of fabric weave diagrams requires using fabric analyzing glass to record the weave number manually. This method damages eyesight and is also very time consuming. In addition, the unweaving mode damages the weave structure of woven fabric. This study uses a computer vision system and digital image processing technology for direct non-destructive analysis of the commonly used 12 fabric textures of woven fabrics without unweaving. Moreover, it proposes an automated woven fabric weave recognition method to enhance the practicability and fault tolerance of the recognition system. Firstly, the woven fabric image was shot by using a front light source and back light source, the noise of the woven fabric image was reduced by using a median filter and the contrast was increased by using histogram equalization. The statistical threshold value was used to segment the warp yarn area and the opening operation of morphology was used to disconnect the connected blocks and erode small noise. Horizontal projection and vertical projection were used to segment the warp yarn and weft yarn. The weave diagram was drawn to improve the computing time of the gray-level co-occurrence matrix. The contrast in the gray-level co-occurrence matrix was selected as the eigenvalue. In terms of woven fabric samples, 12 target samples were obtained, the Euclidean distance classifier was used and the 12 test samples were used for the experiment. The result showed a recognition rate of 100%. The recognition system was adopted by this study to effectively recognize the woven fabric weave.
Keywords recognition of woven fabric weave, image processingAmong woven fabric analysis items, the qualitative analysis of fabric appearance structure depends considerably on eyesight, especially for woven fabric weave analysis. This process is time consuming, and analysis errors are likely to be caused by eyestrain and mismatching economic benefit. Based on this issue, a timesaving and correct analysis mode must be researched to solve the defects mentioned above. 1 In terms of analytic instruments, there were numerous sorts of fabrics, and the complexity led to difficulties in recognition. The users needed to memorize the analysis process, and the results of instrumental analysis were recorded in the fabric analysis sheet manually, which was time consuming. When establishing the fabric weave diagram, the warp yarn and weft yarn interlace of samples was observed by using counting glass. The weave number was marked on the graph paper until the weave number reoccurred. A minor mistake will restart this process, making it challenging for mass operation. If the data processing was transferred to computers, the analysis time could be shortened, and human resources could then be used more effectively. 2 Furthermore, if the yarn of fabric was very thin and there was no counting glass, then weave analysis would be destructive and result in unweaving. Because the