ESLC-YOLOv8:通过轻量级深度学习推进菠萝实时识别

IF 5.7 Q1 AGRICULTURAL ENGINEERING
Weihua Shen , Mengyao Dong , Zhaoxin Zhang , Xiaying Hao , Yuzhen Su , Zhong Xue
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引用次数: 0

摘要

鉴于目前智能菠萝收获机械的局限性和田间环境的复杂性,出现了重大挑战,包括菠萝与背景之间的颜色相似性,以及植物和叶子之间的大量遮挡和重叠。本研究引入了一种增强的目标检测算法,EIEStem-v7DS的sample - lscd - ca - yolov8n (ESLC-YOLOv8),用于复杂农业环境下菠萝的实时检测。首先,我们提出EIEStem模块来增强骨干网的卷积层,显著改善边缘特征提取和空间信息保存。其次,我们引入了v7DS (YOLOv7 DownSample)模块来取代传统的下采样算子,有效地减少了分辨率降低过程中的特征信息损失。最后,我们设计了一个轻量级的共享卷积检测头(LSCD),它在保持检测精度的同时显著减少了模型参数,并结合了一个协调注意(CA)机制来加强关键特征的表示。大量的实验评估表明,该模型的召回率为0.904,平均精度为0.945,同时将模型大小减小到4.5 MB。与原始模型相比,参数个数和浮点运算次数分别减少8.87×105和1.6 G。结果表明,该模型对复杂环境下的菠萝具有较好的检测性能,在检测精度和实时性之间取得了有效的平衡。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
ESLC-YOLOv8: Advancing real-time pineapple recognition with lightweight deep learning
Given the current limitations of intelligent pineapple harvesting machinery and the complexity of field environments, significant challenges arise, including the color similarity between pineapples and the background, as well as substantial occlusion and overlap among plants and leaves. This study introduces an enhanced object detection algorithm, EIEStem-v7DS'Sample-LSCD-CA-YOLOv8n (ESLC-YOLOv8), designed for real-time pineapple detection in complex agricultural environments. First, we propose the EIEStem module to enhance the backbone network's convolutional layers, significantly improving edge feature extraction and spatial information preservation. Second, we introduce the v7DS (YOLOv7 DownSample) module to replace conventional downsampling operators, effectively minimizing feature information loss during resolution reduction. Finally, we design a Lightweight Shared Convolutional Detection Head (LSCD) that dramatically reduces model parameters while maintaining detection accuracy, coupled with a Coordinate Attention (CA) mechanism to reinforce critical feature representation. Extensive experimental evaluations indicate that the proposed model achieves the Recall of 0.904 and the mean average precision of 0.945, while reducing the model size to 4.5 MB. Moreover, the number of parameters and floating-point operations decrease by 8.87×105 and 1.6 G, respectively, compared to the original model. The results indicated that the proposed model exhibits superior detection performance for pineapples in complex environments, striking an effective balance between detection accuracy and real-time processing.
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CiteScore
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