Deep Learning Automatic Inspections of Mushroom Substrate Packaging for PP-Bag Cultivations

R. Jou, Tseng-Wei Li
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引用次数: 1

Abstract

The mushroom cultivation is an important smart agriculture in Taiwan. This study uses the deep learning object detection method to inspect the cap flaws or positional imperfection in the automatic production of the mushroom PP-bag packaging. This study uses the UR robotic arm and integrated 3D vision module, and uses the extra positioning axis to achieve the purpose of multi-positioning inspections by robot arm. Projecting the structured LED light sources to the object to be inspected has the advantages of a larger identification ranges and complex objects detection. A duallens CMOS industrial camera is used to capture images, and a 3D point cloud image of a basket of PP-bag packages is created by software calculation, which can obtain detailed information on the appearance of the whole basket of PP-bag packages. Deep learning is performed by the training set with labelling, and the image recognition such as the cap flaws in the PP-bag package or positional shift is performed after the training is completed. In this paper, the image data is divided into four sets of datasets, and the same training parameters are used for individual training. With images of dataset1 and the ambient illumination level of 200 lm to 800 lm, the matching score is up to 0.989. The clamping force and the opening degree are adjusted by the variable jaws. The clamping force of the jaws is maintained at 20 N to prevent the clamping force from damaging the dimensions of the PP-bag package and existing holes inside it, making the product unusable. Using the variable jaws and repeating 30 times of clamping experiments, the hole diameter inside the PP-bag package can still be maintained within around 25 mm, which can meet the needs of the mushroom PP-bag packaging.
pp袋培养蘑菇基质包装的深度学习自动检测
蘑菇栽培是台湾重要的智慧农业。本研究采用深度学习对象检测方法对香菇pp袋包装自动化生产中的瓶盖缺陷或位置缺陷进行检测。本研究使用UR机械臂和集成的3D视觉模块,并使用额外的定位轴来实现机械臂多定位检测的目的。将结构LED光源投射到被检测物体上,具有识别范围大、物体检测复杂等优点。采用双透镜CMOS工业相机进行图像采集,通过软件计算生成一篮pp袋包装的三维点云图像,可以获得整篮pp袋包装的详细外观信息。通过带标签的训练集进行深度学习,训练完成后进行PP-bag包装的瓶盖缺陷或位置移位等图像识别。本文将图像数据分成四组数据集,使用相同的训练参数进行单独训练。使用dataset1的图像,环境照度为200 ~ 800 lm,匹配分数达到0.989。夹紧力和开度由可变钳口调节。钳口的夹紧力保持在20牛,防止夹紧力损坏PP-bag包装的尺寸和内部已有的孔,使产品无法使用。采用可变钳口,重复装夹实验30次,包装袋内孔径仍可保持在25mm左右,可满足香菇包装袋包装的需要。
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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