A Novel Computer Vision System for Efficient Flea Beetle Monitoring in Canola Crop

Muhib Ullah;Muhammad Shabbir Hasan;Abdul Bais;Tyler Wist;Shaun Sharpe
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Abstract

Effective crop health monitoring is essential for farmers to make informed decisions about managing their crops. In canola crop management, the rapid proliferation of flea beetle (FB) populations is a major concern, as these pests can cause significant crop damage. Traditional manual field monitoring for FBs is time consuming and error-prone due to its reliance on visual assessments of FB damage to small seedlings, making conducting frequent and accurate surveys difficult. One of the key pieces of information in assessing if control of FBs is required is the presence of live FBs in the canola crop. This article proposes a novel insect-monitoring framework that uses a solar-powered, intelligent trap called the smart insect trap (SIT), equipped with a high-resolution camera and a deep-learning-based object detection network. Using this SIT, coupled with a kairomonal lure, the FB population can be monitored hourly, and population increases can be identified quickly. The SIT processes images at the edge and sends results to the cloud every 40 min for FB monitoring and analysis. It uses a modified you look only once version 8 small (YOLOv8s) object detection network, FB-YOLO, to improve its ability to detect small FBs. The modification is implemented in the network's neck, which aggregates features from the deep and early pyramids of the backbone in the neck. Improved attention to small objects is achieved by incorporating spatially aware features from early pyramids. In addition, the network is integrated with an advanced box selection algorithm called confluence nonmax suppression (NMS-C) to prevent duplicate detections in highly overlapped clusters of FBs. The FB-YOLO achieved an average precision ( $\text{mAP}@0.5$ ) of 89.97%, a 1.215% improvement over the YOLOv8s network with only 0.324 million additional parameters. Integrating NMS-C further improved the $\text{mAP}@0.5$ by 0.19%, leading to an overall $\text{mAP}@0.5$ of 90.16%.
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用于高效监测油菜籽中跳甲的新型计算机视觉系统
有效的作物健康监测对于农民做出明智的作物管理决策至关重要。在油菜籽作物管理中,跳甲(FB)种群的快速繁殖是一个主要问题,因为这些害虫会对作物造成重大损害。传统的人工田间 FB 监测既费时又容易出错,因为它依赖于目测 FB 对小幼苗的危害程度,因此很难进行频繁而准确的调查。评估是否需要控制 FBs 的关键信息之一是油菜籽作物中是否存在活的 FBs。本文提出了一种新颖的昆虫监测框架,该框架使用一种名为智能昆虫诱捕器(SIT)的太阳能智能诱捕器,配有高分辨率摄像头和基于深度学习的目标检测网络。使用这种智能捕虫器,再配上气孔引诱剂,就能每小时监测一次 FB 的数量,并能快速识别数量的增加。SIT 在边缘处理图像,每 40 分钟将结果发送到云端,用于 FB 监测和分析。它使用经过修改的 "只看一次 "第 8 版小型(YOLOv8s)物体检测网络 FB-YOLO,以提高其检测小型 FB 的能力。这一修改是在网络的颈部实现的,它将骨干网的深层和早期金字塔的特征聚集在颈部。通过整合早期金字塔的空间感知特征,提高了对小型物体的关注度。此外,该网络还集成了一种名为 "汇合非最大抑制(NMS-C)"的高级选框算法,以防止在高度重叠的 FB 簇中出现重复检测。FB-YOLO的平均精确度($\text{mAP}@0.5$)达到了89.97%,比YOLOv8s网络提高了1.215%,但只增加了32.4万个参数。整合NMS-C后,$text{mAP}@0.5$进一步提高了0.19%,从而使总体$text{mAP}@0.5$达到了90.16%。
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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2024 Index IEEE Transactions on AgriFood Electronics Vol. 2 Table of Contents Front Cover IEEE Circuits and Systems Society Information IEEE Circuits and Systems Society Information
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