自适应驾驶框架:使用眼动追踪和车辆动力学数据连接情境意识、驾驶目标和驾驶意图

IF 7.9 1区 工程技术 Q1 ENGINEERING, CIVIL
Hsueh-Yi Lai
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引用次数: 0

摘要

尽管目前的人工智能(AI)可以检测到驾驶意图,但它往往忽略了揭示驾驶员真正需求的潜在驾驶目标。为了利用人工智能检测实时驾驶目标,提供有效的决策辅助,本研究引入了自适应驾驶框架(FAD),该框架考虑了认知活动和行动策略。我们概述了五个驱动目标,以阐明态势感知(SA)和意图之间的联系。该研究涉及31名参与者和573个驾驶模拟事件,在此期间我们收集了眼球追踪和动力学数据。探索性因素分析(EFA)确定了8个因素,分为SA和机动相关因素。跟踪统计和定性分析,以确定所定义的驱动小马驹之间的不同需求。一般来说,“认知负荷”因子可以反映认知活动,而“眼跳对周围环境”和“眼跳运动”因子可以反映行动策略。对于不担心出现风险的目标,“主动加速”意味着驾驶员有意提高驾驶效率。然而,“扫视周围环境”的不同功能意味着不同的驾驶考虑。日常任务目标侧重于车辆内部运行,驾驶效益管理目标侧重于周边环境。相反,对于解决新出现的风险的目标,“减速”占上风。此外,“转向策略”意味着当SA足够时对转向的偏好。在这种情况下,与认知能力相关的因素,如“前方观察”、“扫视运动”和“认知负荷”,表明在时间限制下提高认知能力的努力。然而,对于极端紧急情况下的驾驶目标,“横向移动”因素取代了“转向策略”,这意味着在没有足够SA的情况下严重转向。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Framework of Adaptive Driving: Linking Situation Awareness, Driving Goals, and Driving Intentions Using Eye-Tracking and Vehicle Kinetic Data
Although current Artificial Intelligence (AI) can detect maneuvering intentions, it often overlooks the underlying driving goals that reveal drivers’ genuine requirements. To detect real-time driving goals using AI for providing effective decision aids, this research introduces the Framework of Adaptive Driving (FAD), which considers cognitive activities and action strategies. We have outlined five driving goals to elucidate the connections between Situation Awareness (SA), and intentions. The study involved 31 participants and 573 driving simulation events, during which we collected both eye-tracking and kinetic data. Exploratory Factor Analysis (EFA) identified 8 factors, categorized into SA and maneuver-related factors. Statistical and qualitative analysis follow up to specify the varying requirements among the driving foals defined. Generally, factor ‘Cognitive load’ can reflect cognitive activities, while ‘Saccade on the surroundings’ and ‘Saccade movement’ can indicate action strategies. For the goals where emerging risks are not a concern, ‘Active acceleration’ signifies drivers’ intention to enhance driving efficiency. However, the diverse features in ‘Saccade on the surroundings’ imply varying driving considerations. Goals for routine tasks focus on internal vehicle operations, while goals for driving benefits management highlight adjacent surroundings. Conversely, for goals addressing emerging risks, ‘Deceleration’ prevails. Furthermore, ‘Steering strategy’ implies a preference for steering when SA is adequate. In this context, SA-related factors like ‘Front observation,’ ‘Saccade movement,’ and ‘Cognitive load’ signify efforts to enhance SA under time constraints. However, for the driving goals under extreme urgency, the factor ‘Lateral movement’ replaces ‘Steering strategy’, implying severe steering without adequate SA.
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来源期刊
IEEE Transactions on Intelligent Transportation Systems
IEEE Transactions on Intelligent Transportation Systems 工程技术-工程:电子与电气
CiteScore
14.80
自引率
12.90%
发文量
1872
审稿时长
7.5 months
期刊介绍: The theoretical, experimental and operational aspects of electrical and electronics engineering and information technologies as applied to Intelligent Transportation Systems (ITS). Intelligent Transportation Systems are defined as those systems utilizing synergistic technologies and systems engineering concepts to develop and improve transportation systems of all kinds. The scope of this interdisciplinary activity includes the promotion, consolidation and coordination of ITS technical activities among IEEE entities, and providing a focus for cooperative activities, both internally and externally.
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