基于 YOLOv8 的改进型轻量级红外道路目标探测方法

IF 3.1 3区 物理与天体物理 Q2 INSTRUMENTS & INSTRUMENTATION
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引用次数: 0

摘要

基于红外的道路场景物体检测算法往往面临参数过多和计算需求过大的问题,使其无法与计算能力有限的边缘设备兼容。本文介绍了一种基于 YOLOv8n 的增强型轻量级红外道路物体检测算法。首先,通过将 YOLOv8n 的 C2f 模块与 PConv 合并,设计出一种精简的网络架构,创建了一个更轻的模块,并降低了神经网络对红外图像的下采样率。这一策略减少了冗余计算和内存访问,避免了深度卷积神经网络造成的红外图像细节丢失。此外,通过整合协调注意机制,该模型检测红外目标的准确性也得到了显著提高。最后,在 YOLOv8n 中用 Wise-IoU 代替 CIoU 进行边界框回归加速了模型的收敛。实证研究结果表明,与 YOLOv8n 算法相比,优化后的模型缩小了 34.17%,参数减少了 40.35%,平均检测准确率提高了 4.8%。这种增强型算法不仅实现了轻量级配置文件,而且还在嵌入式边缘设备上提供了卓越的性能。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Improved lightweight infrared road target detection method based on YOLOv8

Infrared-based road scene object detection algorithms often face issues with excessive parameters and computational demands, making them incompatible with edge devices having constrained computational capabilities. This paper introduces an enhanced lightweight infrared-based road object detection algorithm based on YOLOv8n. Firstly, a streamlined network architecture is devised by merging YOLOv8n’s C2f module with PConv, creating a lighter module and reducing the neural network’s downsampling rate of infrared images. This strategy reduces redundant computations and memory access, preventing the loss of fine details in infrared images caused by deep convolutional neural networks. Additionally, the model’s accuracy in detecting infrared targets is significantly enhanced through the integration of the coordinate attention mechanism. Finally, replacing CIoU with Wise-IoU for bounding box regression in YOLOv8n accelerates the model’s convergence. Empirical findings indicate that in contrast to the YOLOv8n algorithm, the optimized model showcases a 34.17 % reduction in model size, a 40.35 % decrease in parameters, and a 4.8 % increase in average detection accuracy. This enhanced algorithm not only achieves a lightweight profile but also delivers superior performance on embedded edge devices.

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来源期刊
CiteScore
5.70
自引率
12.10%
发文量
400
审稿时长
67 days
期刊介绍: The Journal covers the entire field of infrared physics and technology: theory, experiment, application, devices and instrumentation. Infrared'' is defined as covering the near, mid and far infrared (terahertz) regions from 0.75um (750nm) to 1mm (300GHz.) Submissions in the 300GHz to 100GHz region may be accepted at the editors discretion if their content is relevant to shorter wavelengths. Submissions must be primarily concerned with and directly relevant to this spectral region. Its core topics can be summarized as the generation, propagation and detection, of infrared radiation; the associated optics, materials and devices; and its use in all fields of science, industry, engineering and medicine. Infrared techniques occur in many different fields, notably spectroscopy and interferometry; material characterization and processing; atmospheric physics, astronomy and space research. Scientific aspects include lasers, quantum optics, quantum electronics, image processing and semiconductor physics. Some important applications are medical diagnostics and treatment, industrial inspection and environmental monitoring.
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