番茄叶片和果实的优势度分割

Juan Pablo Guerra Ibarra, Francisco Javier Cuevas de la Rosa, Oziel Arellano Arzola
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引用次数: 0

摘要

自古以来,农业生产的粮食对人类文明至关重要。在几个知识领域的巨大技术进步支持了农田耕作,这些技术进步以较低的成本增加了粮食产量。应用于现代农业的技术产生了一个被称为精确农业的研究领域,它以在精确的时刻为作物提供精确数量的资源作为其最相关的目标之一。精确农业系统中的数据分析过程始于对可用信息的过滤,这些信息可以来自图像、视频和电子表格等来源。当信息源是数字图像时,这个过程被称为分割,它包括为被分析图像的每个像素分配一个类别或标签。近年来,人们开发了不同的分割算法,利用不同的像素特征,如颜色、纹理、邻域和超像素。本文提出了一种番茄叶片和果实图像的分割方法,该方法分两个阶段进行。第一阶段是基于其中一个颜色通道对其他两个通道的支配地位,使用RGB颜色模型。在叶片分割的情况下,绿色通道的优势被使用,而红色通道的优势被用于果实。在第二阶段,通过对满足第一阶段条件的每个像素计算阈值来消除前一阶段产生的假阳性。结果是通过应用性能指标来衡量的:准确性、精度、召回率、F1-Score和交集大于联合。结果表明,番茄果实和叶片的分割准确率为98.34%,叶片的召回率为95.08%。
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Segmentation of Leaves and Fruits of Tomato Plants by Dominance
The production of food generated by agriculture has been essential for civilizations throughout time. Tillage of fields has been supported by great technological advances in several areas of knowledge, which have increased the amount of food produced at lower costs. The use of technology applied to modern agriculture has generated a research area called precision agriculture, which has providing crops with resources in an exact amount at a precise moment as one of its most relevant objectives The data analysis process in precision agriculture systems begins with the filtering of the information available, which can come from sources such as images, videos, and spreadsheets. When the information source is digital images, the process is known as segmentation, which consists of assigning a category or label to each pixel of the analyzed image. In recent years, different algorithms of segmentation have been developed that make use of different pixel characteristics, such as color, texture, neighborhood, and superpixels. In this paper, a method to segment images of leaves and fruits of tomato plants is presented, which is carried out in two stages. The first stage is based on the dominance of one of the color channels over the other two, using the RGB color model. In the case of the segmentation of the leaves, the green channel dominance is used, whereas the dominance of red channel is used for the fruits. In the second stage, the false positives generated during the previous stage are eliminated by using thresholds calculated for each pixel that meets the condition of the first stage. The results are measured by applying performance metrics: Accuracy, Precision, Recall, F1-Score, and Intersection over Union. The results for segmentation of the fruit and leaves of the tomato plants with the highest metrics is Accuracy with 98.34% for fruits and Recall with 95.08% for leaves.
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