Artificial Intelligence-Driven All-Terrain Vehicle Crash Prediction and Prevention System.

IF 0.9 Q4 PUBLIC, ENVIRONMENTAL & OCCUPATIONAL HEALTH
Farzaneh Khorsandi, Guilherme De Moura Araujo, Fernando Ferrei
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引用次数: 0

Abstract

Highlights: An AI-driven system for predicting and preventing ATV crashes was developed. Machine learning model achieved rollover prediction accuracy of over 99%. The system has the potential to significantly reduce ATV-related injuries and fatalities by enabling preemptive actions.

Abstract: All-Terrain Vehicle (ATV) crashes have become a public health concern in the U.S. over the past decades, resulting in numerous fatalities and hospitalizations. Most of those incidents could have been prevented if riders could better assess their ability to handle risks. Currently, risk factors associated with ATV incidents have already been studied. However, little effort has been made toward developing practical applications that assist the rider in preventing crashes. Commercial ATV safety systems, such as Farm Angel, focus on post-crash detection and emergency medical services (EMS) alerting rather than preventive measures. Machine learning prediction models can be used to assist riders in taking preventive measures to avoid an imminent crash. In this study, we developed a system that leverages the predictive power of machine learning algorithms to assess the likelihood of a crash in real-time and alert the riders, thus allowing them to prevent the crash. To the best of our knowledge, this is the only system ever developed for ATVs specifically that can predict rollover incidents. The crash likelihood is estimated by a deep neural network that considers the ride parameters (e.g., ATV speed, turning radius, and roll and pitch angles), ATV characteristics (e.g., width, length, wheelbase), and human factors (i.e., presence of a rider). The ATV characteristics and the presence of a rider are retrieved from the rider's input through a smartphone application developed specifically for this study. The ride parameters are retrieved from an embedded system (attached to the ATV). Validation and performance tests indicated that: (1) the proposed device has a rollover prediction system with an accuracy superior to 99%; (2) the system can detect roll and pitch angles with average errors of 0.26 and 0.54 degrees, respectively; and (3) the system can detect the ATV's speed with an average error of 0.75 m s-1.

人工智能驱动的全地形车辆碰撞预测与预防系统。
重点:开发了人工智能驱动的ATV碰撞预测和预防系统。机器学习模型实现了99%以上的侧翻预测准确率。该系统通过采取先发制人的行动,有可能显著减少与atv相关的伤害和死亡。摘要:在过去的几十年里,全地形车(ATV)碰撞已经成为美国的一个公共卫生问题,导致了大量的死亡和住院治疗。如果乘客能够更好地评估自己处理风险的能力,大多数事故都是可以避免的。目前,与亚视事故相关的危险因素已经得到了研究。然而,在开发实际应用以帮助骑手防止碰撞方面,却很少做出努力。商用ATV安全系统,如Farm Angel,侧重于碰撞后检测和紧急医疗服务(EMS)警报,而不是预防措施。机器学习预测模型可以用来帮助乘客采取预防措施,避免即将发生的撞车事故。在这项研究中,我们开发了一个系统,利用机器学习算法的预测能力来实时评估撞车的可能性,并提醒乘客,从而使他们能够防止撞车。据我们所知,这是迄今为止唯一一个专门为全地形车开发的能够预测翻车事故的系统。碰撞可能性由深度神经网络估计,该网络考虑了乘坐参数(例如,ATV速度,转弯半径,滚转和俯仰角),ATV特性(例如,宽度,长度,轴距)和人为因素(例如,骑手的存在)。通过专门为本研究开发的智能手机应用程序,从骑手的输入中检索ATV特征和骑手的存在。骑行参数从嵌入式系统(附在ATV上)检索。验证和性能测试表明:(1)该装置具有精度优于99%的翻转预测系统;(2)系统能检测出平均误差为0.26度和0.54度的横摇角和俯仰角;(3)系统可以检测ATV的速度,平均误差为0.75 m s-1。
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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来源期刊
Journal of Agricultural Safety and Health
Journal of Agricultural Safety and Health PUBLIC, ENVIRONMENTAL & OCCUPATIONAL HEALTH-
CiteScore
1.50
自引率
20.00%
发文量
10
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