基于车联网的深度学习路面结冰检测

Jiajie Hu, Ming-Chun Huang, Xiong Bill Yu
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引用次数: 3

摘要

湿滑的道路状况,如下雪、结冰或泥泞的路面,是冬季道路安全的主要威胁之一。在冬季,美国交通部(USDOT)将超过20%的维护预算用于路面维护。然而,尽管进行了广泛的研究,但实时监测路面状况和检测湿滑路面仍然是一项具有挑战性的任务。大多数现有的研究主要是基于路面图像和天气预报的间接估计。新兴的互联汽车(CV)技术提供了实时绘制湿滑路况地图的机会。本研究提出了一种基于cv的湿滑检测系统,该系统使用车辆获取数据并实施深度学习算法来预测路面的湿滑情况。该系统将路面状况分为三大类:干燥、下雪和结冰。不同的路面条件反映了不同的滑度:干燥的表面对应于最不滑的情况,而结冰的表面对应于最滑的情况。在实践中,在冬季行车或实施路面养护和道路作业时,应更加注意检测到的路面结冰和积雪情况。本研究采用的分类算法是长短期记忆(LSTM),它是一种人工递归神经网络(RNN)。在VISSIM中使用模拟CV数据对LSTM模型进行训练,并用贝叶斯算法对模型进行优化。该系统对干燥路面、积雪路面和结冰路面的预测准确率分别达到100%、99.06%和98.02%。此外,我们观察到,如果cv在收到警告信号后能够调整行驶速度并与前车保持较大距离,则潜在事故发生率可降低90%以上。仿真结果表明,所提出的湿滑检测系统以及基于CV技术和深度学习算法的信息共享功能(即本研究实现的LSTM网络)有望实现对路面湿滑状况的实时检测,从而显著消除事故的潜在风险。
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Deep learning based on connected vehicles for icing pavement detection

Slippery road conditions, such as snowy, icy or slushy pavements, are one of the major threats to road safety in winter. The U.S. Department of Transportation (USDOT) spends over 20% of its maintenance budget on pavement maintenance in winter. However, despite extensive research, it remains a challenging task to monitor pavement conditions and detect slippery roadways in real time. Most existing studies have mainly explored indirect estimates based on pavement images and weather forecasts. The emerging connected vehicle (CV) technology offers the opportunity to map slippery road conditions in real time. This study proposes a CV-based slippery detection system that uses vehicles to acquire data and implements deep learning algorithms to predict pavements' slippery conditions. The system classifies pavement conditions into three major categories: dry, snowy and icy. Different pavement conditions reflect different levels of slipperiness: dry surface corresponds to the least slippery condition, and icy surface to the most slippery condition. In practice, more attention should be paid to the detected icy and snowy pavements when driving or implementing pavement maintenance and road operation in winter. The classification algorithm adopted in this study is Long Short-Term Memory (LSTM), which is an artificial Recurrent Neural Network (RNN). The LSTM model is trained with simulated CV data in VISSIM and optimized with a Bayesian algorithm. The system can achieve 100%, 99.06% and 98.02% prediction accuracy for dry pavement, snowy pavement and icy pavement, respectively. In addition, it is observed that potential accidents can be reduced by more than 90% if CVs can adjust their driving speed and maintain a greater distance from the leading vehicle after receiving a warning signal. Simulation results indicate that the proposed slippery detection system and the information sharing function based on the CV technology and deep learning algorithm (i.e., the LSTM network implemented in this study) are expected to deliver real-time detection of slippery pavement conditions, thus significantly eliminating the potential risk of accidents.

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