基于卷积滤波的纱筒定位检测算法
Yarn Bobbin Positioning Detection Algorithm Based on Convolution Filtering
摘要: 纱筒定位检测是自动换筒算法中的首要任务,针对纱筒图像背景复杂、分割困难的问题,本文提出一种基于卷积滤波的纱筒定位算法。首先对图像进行直方图均衡化,增强区域特征,再对传统扩散滤波模型进行优化,抑制纹理等高频信息,接着设计圆形卷积核对图像进行卷积滤波,抑制图像背景,最后对卷积图像进行Blob分析,通过区域特征筛选得到内筒轮廓。在自主搭建的检测平台上使用本文方法进行实验,实验结果证明纱线余量的检测精度在1.5%以内,满足实际生产要求,为纺织产业自动化生产提供一定的依据。
Abstract: Yarn bobbin positioning detection is the primary task in the automatic replacement algorithm. Aiming at the problem of complex background and difficult segmentation of yarn bobbin image, this paper proposes a yarn bobbin positioning algorithm based on convolution filtering. Firstly, histo-gram equalization is performed on the image to enhance regional features. Then the traditional diffusion filtering model is optimized to suppress high-frequency information such as texture. Then a circular convolution kernel is designed to filter the image and suppress the image background. Finally, Blob analysis is performed on the convolution image, and the inner bobbin contour is ob-tained by regional feature screening. Experiments are carried out using this method on the self-built detection platform. The experimental results show that the detection accuracy of yarn margin is within 1.5%, which meets the actual production requirements. It provides a certain basis for the automated production of the textile industry.
文章引用:王宏鹏, 王俊茹, 汝欣, 史伟民. 基于卷积滤波的纱筒定位检测算法[J]. 建模与仿真, 2023, 12(3): 2486-2497. https://doi.org/10.12677/MOS.2023.123228

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