Noise Removal in Traffic Sign Detection Systems

Mohan Kumar G, M. Shriram, Rajeswari Sridhar
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Abstract

The application of Traffic sign detection and recognition is growing in traffic assistant driving systems and automatic driving systems. It helps drivers and automatic driving systems to detect and recognize the traffic signs effectively. However, it is found that it may be difficult for these systems to work in challenging environments like rain, haze, hue, etc. To help the detection systems to have better performance in challenging conditions like rain and haze, we propose the use of a deep learning technique based on a Convolutional Neural Network to process visual data. The processed data could be used in the detection. We are using the NoiseNet model [11], a noise reduction network for our architecture. The model is trained to enhance images in patches instead of as a whole. The training is done using the Challenging Unreal and Real Environment - Traffic Sign Detection Dataset(CURE-TSD) which contains videos of different roads in various challenging situations. The enhanced images obtained are compared using the object detection algorithms YOLO and Faster RCNN. The Mean Absolute Error(MAE) of original and enhanced images are calculated and compared for two classes of images - rain and haze for both the algorithms. The proposed approach achieved an average Peak Signal to Noise Ration(PSNR) of 25.30 and an Structural Similarity(SSIM) of 0.88. The average MAE values of YOLO and Faster RCNN model reduced by 0.11 and 0.30 respectively on using enhanced images.
交通标志侦测系统的噪音去除
交通标志检测与识别在交通辅助驾驶系统和自动驾驶系统中的应用越来越广泛。它可以帮助驾驶员和自动驾驶系统有效地检测和识别交通标志。然而,人们发现,这些系统可能很难在下雨、雾霾、色相等具有挑战性的环境中工作。为了帮助检测系统在降雨和雾霾等具有挑战性的条件下具有更好的性能,我们建议使用基于卷积神经网络的深度学习技术来处理视觉数据。处理后的数据可用于检测。我们正在使用NoiseNet模型[11],这是我们架构的降噪网络。该模型被训练成对图像进行局部增强,而不是整体增强。训练是使用具有挑战性的虚幻和真实环境-交通标志检测数据集(CURE-TSD)完成的,其中包含各种具有挑战性情况下不同道路的视频。对比了YOLO和Faster RCNN两种目标检测算法得到的增强图像。计算并比较了两种算法在雨和雾两类图像下原始图像和增强图像的平均绝对误差。该方法的平均峰值信噪比(PSNR)为25.30,结构相似度(SSIM)为0.88。使用增强图像后,YOLO模型和Faster RCNN模型的平均MAE值分别降低0.11和0.30。
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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