基于深度学习的实例分割,改进辣椒表型分析

IF 6.3 Q1 AGRICULTURAL ENGINEERING
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引用次数: 0

摘要

蔬菜育种公司在表型分析方面投入了大量资源。计算机视觉技术的发展使这些过程数字化成为可能,从而提高了效率和质量。然而,表型分析活动通常在室外田地或温室中进行,环境/光照条件不断变化。这种缺乏标准化的情况给自动分离图像中的相关元素带来了问题,而这是表型分析重要的第一步。传统的图像分析方法在这种不断变化的条件下显得不够稳健。然而,在过去几年中,深度学习模型已经证明能够识别和学习有意义的特征,这些特征更稳健,更能代表潜在的模式,使它们能够有效地处理各种多变的条件。在这项工作中,我们提出了一种基于深度学习的辣椒实例分割解决方案,在田间条件下收获后进行分割。我们实施了该方法,并对三个辣椒品种进行了验证:我们实现了该方法,并在三个辣椒品种上进行了验证:Blocky Bell、Jalapeño 和 Lamuyo。我们将这种新方法在每个品种上的性能与之前基于经典图像处理技术的解决方案进行了比较,目的是衡量和证明基于深度学习的实例分割作为表型分析的第一步优于传统方法。基于实例分割的深度学习模型优于经典图像处理算法在三个辣椒品种上获得的结果:Blocky Bell 的 mAP 从 0.63 提高到 0.97,Jalapeño 的 mAP 从 0.39 提高到 0.52,Lamuyo 的 mAP 从 0.67 提高到 0.97。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Deep learning-based instance segmentation for improved pepper phenotyping

Vegetable breeding companies invest a considerable amount of their resources in phenotyping. The advancement of computer vision technology has made it possible to digitalize these processes, leading to improved efficiency and quality. However, phenotyping activities often take place in outdoor fields or greenhouses, where the environmental/illumination conditions are constantly changing. This lack of standardization presents a problem for automatically isolating the relevant elements in the images, which is an important first step for phenotyping. Classical image analysis methods have shown not to be robust enough for that in these changing conditions. However, in the last years, deep learning models have demonstrated to be able to identify and learn meaningful features that are more robust and representative of the underlying patterns, enabling them to handle diverse and changeable conditions effectively.

In this work, we propose a pepper instance segmentation solution based on deep learning after harvest under field conditions. We implement the method and validate it for three pepper varieties: Blocky Bell, Jalapeño and Lamuyo. We compare the performance of this new method for each variety with a previous solution based on classical image processing techniques, with the objective of measuring and demonstrating the superiority of deep learning-based instance segmentation over traditional methods as a first step for phenotyping.

The instance segmentation deep learning based models outperform the results obtained by classical image processing algorithms for the three pepper varieties: in Blocky Bell mAP is increased from 0.63 to 0.97, in Jalapeño from 0.39 to 0.52 and in Lamuyo from 0.67 to 0.97.

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