利用深度学习架构增强无人机正射影像中橄榄树冠的多尺度检测

IF 5.7 Q1 AGRICULTURAL ENGINEERING
Youness Hnida , Mohamed Adnane Mahraz , Ali Yahyaouy , Ali Achebour , Jamal Riffi , Hamid Tairi
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引用次数: 0

摘要

农业中的目标检测对于识别和绘制农业区域至关重要,特别是随着精准农业技术的发展。传统的计数和产量估算方法耗时且需要大量的体力劳动,给农民带来了巨大的挑战。无人机和人工智能(尤其是深度学习)的使用改变了农业监测,实现了更准确、更快速的分析。在这项研究中,我们介绍了一种先进的树冠检测方法,主要针对农场环境中的橄榄树。我们的方法基于一种创新的架构,该架构将跨阶段部分网络(CSPNet)与特征金字塔网络(FPN)和路径聚合网络(PAN)相结合,并通过DropBlock正则化进行增强。我们的架构是针对无人机捕获图像的多尺度目标检测量身定制的,解决了简单图像和高分辨率正射像中的小目标检测、复杂背景、对象旋转、尺度变化和类别失衡等问题。这些正射影像是由我们从不同角度和高度拍摄的多幅高质量图像拼接而成,以创建果园的全面和详细视图。我们的方法包括将图像分割成不同的尺寸(1 × 1、3 × 3、6 × 6和9 × 9),以增强分析并提高不同尺度下的检测性能。这种全面的方法使我们能够对橄榄树进行深入的分析,将其分为小型,中型和大型。结果表明,我们的方法在解决农业背景下常见目标检测挑战方面具有鲁棒性,准确率为92.47%,召回率为91.40%,F1-score为91.93%,[email protected]为94.00%,mAP@[0.5:0.95]为87.00%。这些结果证实了其在优化精准农业实践中的可靠性,包括作物状况监测和资源管理。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Enhanced multi-scale detection of olive tree crowns in UAV orthophotos using a deep learning architecture
Object detection in agriculture is vital for identifying and mapping agricultural areas, especially with the growth of precision farming technologies. Traditional methods for counting and yield estimation are time-consuming and demand significant physical effort, presenting substantial challenges for farmers. The use of drones and artificial intelligence, particularly deep learning, has transformed agricultural monitoring, enabling more accurate and rapid analyses. In this study, we introduce an advanced method for detecting tree crowns, focusing on olive trees in farm environments. Our approach is based on an innovative architecture that incorporates a Cross Stage Partial Network (CSPNet) combined with a Feature Pyramid Network (FPN) and Path Aggregation Network (PAN), augmented by DropBlock regularization. Our architecture is tailored for multi-scale object detection from UAV-captured imagery, addressing issues such as small object detection, complex backgrounds, object rotation, scale variations, and category imbalances in both simple imagery and high-resolution orthophotos. These orthophotos are produced by stitching together multiple high-quality images we captured from various angles and altitudes to create a comprehensive and detailed view of the orchard. Our methodology includes splitting images into different sizes (1 × 1, 3 × 3, 6 × 6, and 9 × 9) to enhance analysis and improve detection performance at various scales. This comprehensive approach has enabled us to conduct an in-depth analysis of olive trees, classified into small, medium, and large sizes. The results demonstrate the robustness of our method in addressing common object detection challenges in agricultural contexts, achieving a precision of 92.47 %, recall of 91.40 %, F1-score of 91.93 %, [email protected] of 94.00 %, and mAP@[0.5:0.95] of 87.00 %. These results confirm its reliability for optimizing precision farming practices, including crop condition monitoring and resource management.
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4.20
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