Advanced 1D Temporal Deep Dilated Convolutional Embedded Perceptual System for Fast Car-Driver Drowsiness Monitoring

F. Rundo, C. Spampinato, S. Battiato, F. Trenta, S. Conoci
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引用次数: 7

Abstract

Recently, Advanced Driver Assistance System solutions (ADAS) are significantly contributing to the increase in driving safety levels. ADAS leverages the capability of taking active control of vehicle to prevent potentially dangerous situations. Specifically, researchers have investigated the analysis of the car driver attention level. Recent reports confirmed that there is an increasing incidence of driving crashes occurred for drowsiness or inattentiveness of the driver. In this regard, several authors suggested to monitor the car driver’s physiological status due to the well known complex correlation between the Autonomic Nervous System (ANS) and the corresponding level of attention. To carry out this study, we used an innovative bio-sensor consisting of a coupled device that includes near-infrared LED emitters and photo-detectors (Silicon PhotoMultiplier device) to assess the driver’s physiological status through the associated PhotoPlethysmGraphy (PPG) signal. We also designed an embedded time-domain hyper-filtering approach combined with a 1D Temporal Convolutional architecture with a progressive dilation setup. The proposed system performs a near real-time classification of the car driver drowsiness achieving impressive results in terms of accuracy (about 96%).
用于汽车驾驶员嗜睡快速监测的先进一维时间深度扩展卷积嵌入式感知系统
最近,先进驾驶辅助系统解决方案(ADAS)在提高驾驶安全水平方面发挥了重要作用。ADAS利用主动控制车辆的能力来预防潜在的危险情况。具体来说,研究人员对汽车司机的注意力水平进行了调查分析。最近的报告证实,由于驾驶员嗜睡或注意力不集中而发生的驾驶事故越来越多。在这方面,一些作者建议监测汽车驾驶员的生理状态,因为众所周知自主神经系统(ANS)与相应的注意水平之间存在复杂的相关性。为了开展这项研究,我们使用了一种创新的生物传感器,该传感器由一个耦合装置组成,包括近红外LED发射器和光电探测器(硅光电倍增管装置),通过相关的光电plethysmgraphy (PPG)信号来评估驾驶员的生理状态。我们还设计了一种嵌入式时域超滤波方法,结合了具有渐进式膨胀设置的一维时间卷积架构。所提出的系统对汽车驾驶员的困倦进行了近乎实时的分类,在准确率方面取得了令人印象深刻的结果(约96%)。
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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