Design and Implementation of Visual Detection System for Driving Environment

Xuhao Wang
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Abstract

With the growth of car ownership, traffic safety problems become more and more serious. Traditional passive safety measures can only reduce losses, but fail to effectively avoid occurrence of traffic accidents in driving. Aiming at deficiencies in traditional target detection methods, this paper uses a deep learning based target detection method on an established driving environment dataset, so as to realize recognition and positioning of road moving targets under complicated road conditions. In addition, this paper analyzes and verifies the feasibility of the method for detection and classification of different targets in the driving environment, and compares the detection speed and accuracy of different target detection algorithms. Based on the analysis of experimental results, a detection method based on OHEM (Online Hard Example Mining) Algorithm and combined with Faster R-CNN is proposed. It has been verified in the experiment that, the improved algorithm of OHEM + Faster R-CNN proposed in this paper prevails over YOLOv3 in detection efficiency of small targets. Its recognition accuracy for larger targets remains over 90%, and mAP reaches up to 0.906.
驾驶环境视觉检测系统的设计与实现
随着汽车保有量的增长,交通安全问题变得越来越严重。传统的被动安全措施只能减少损失,而不能有效避免驾驶中交通事故的发生。针对传统目标检测方法的不足,本文在已建立的驾驶环境数据集上,采用基于深度学习的目标检测方法,实现复杂路况下道路运动目标的识别与定位。此外,本文分析并验证了该方法在驾驶环境中对不同目标进行检测和分类的可行性,并比较了不同目标检测算法的检测速度和精度。在对实验结果进行分析的基础上,提出了一种基于OHEM (Online Hard Example Mining)算法并结合Faster R-CNN的检测方法。实验验证了本文提出的改进算法OHEM + Faster R-CNN在小目标检测效率上优于YOLOv3。对较大目标的识别精度保持在90%以上,mAP达到0.906。
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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