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Deep Learning-based Object Detection for Crop Monitoring in Soybean Fields

机译:基于深度学习的目标检测在大豆田间作物监测中的应用

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In this paper, a soybean flower/seedpod detection system is built for collecting growing state information by introducing convolutional neural networks, aiming that observed plant states (e.g., #flowers and #seedpods) are used to predict the crop yields of soybeans by combining the environment information in future. To predict the crop yields (i.e., quantity of seedpods) precisely, it is considered important to know how the number of flowers are translated over time and how such flower transients can affect the final yields of soybeans. However, there has not existed a way to measure the number of flowers in real environments. For this purpose, We propose a deep learning approach to automatically detect flower and seedpod regions from images which are taken in real soybean fields without environmental control. Various object detection methods are compared, including RetinaNet, Faster R-CNN, and Cascade R-CNN. Ablation studies are provided to analyze how these methods perform on both flower and seedpod across different parameters. In our experimental results, Cascade R-CNN gives the best average precision (AP) of 89.6, while RetinaNet and Faster R-CNN give AP of 83.3 and 88.7, respectively. Cascade RCNN also attains the highest accuracy in detecting small objects, which are not easily detected by other models. With accurate detection, the system is expected to contribute to constructing high-performance measurement for soybean flowers and seedpods, which ultimately leads to better pipeline in evaluating plant status.
机译:本文通过建立卷积神经网络,构建了一个大豆花/种子荚检测系统,以收集生长状态信息,目的是将观察到的植物状态(例如,#flowers和#seedpods)通过结合使用来预测大豆的作物产量未来的环境信息。为了精确地预测农作物的产量(即种荚的数量),重要的是要知道花的数量如何随时间转换,以及这种花的短暂变化如何影响大豆的最终产量。但是,还没有一种方法可以测量实际环境中的花朵数量。为此,我们提出了一种深度学习方法,可以自动从真实的大豆田中拍摄的图像中自动检测花朵和种荚区域,而无需进行环境控制。比较了各种对象检测方法,包括RetinaNet,Faster R-CNN和Cascade R-CNN。提供了消融研究,以分析这些方法在不同参数下如何对花朵和种子荚执行操作。在我们的实验结果中,Cascade R-CNN的最佳平均精度(AP)为89.6,而RetinaNet和Faster R-CNN的AP分别为83.3和88.7。 Cascade RCNN在检测小的物体时也达到了最高的精度,而其他模型不容易检测到这些物体。通过精确的检测,该系统有望为构建大豆花和种荚的高性能测量做出贡献,最终将导致更好的评估植物状况的渠道。

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