Quantification and Pictorial Expression of Driving Status Domain Boundaries for Autonomous Vehicles in LTAP/OD Scenarios

Author:

Ren Xuan1,Zhang Huanhuan1,Wang Xiaolan1,Zhang Weiwei2,Yu Wangpengfei2

Affiliation:

1. School of Mechanical and Automotive Engineering, Shanghai University of Engineering Science, Shanghai 201620, China

2. Shanghai Smart Vehicle Cooperating Innovation Center Co., Ltd., Shanghai 201805, China

Abstract

The ability of advanced driver assistance systems (ADAS) and autonomous vehicles to make human-like decisions can be enhanced by providing more detailed information about vehicles and in-vehicle users’ states. In this paper, the driving status domains of vehicles in left turn across path/opposite direction (LTAP/OD) scenarios are subdivided into comfort, discomfort, extreme, and crash, and the boundaries of each status domain are quantified and visualized. First, real unprotected left turn road segments are chosen for the actual vehicle testing. Subjective passenger comfort evaluation results and objective motion state data of vehicles during the experiment are organized and analyzed by statistics. In addition, the pictorials are plotted to determine the comfort and extreme status domain boundaries based on motion state parameters. Second, based on the unprotected left turn kinematic analysis and modeling, as well as a skilled driver risk perception and operational model, the Safe Collision Plots (SCP) of conflicting vehicles in LTAP/OD scenarios are quantified and expressed as pictorial examples. By combining objective motion parameters and passenger experience, intuitively quantifying each driving status domain of vehicles can provide more fine-grained information for the design parameters of ADAS and autonomous vehicles and increase public trust and acceptance of them.

Publisher

MDPI AG

Subject

Automotive Engineering

Reference20 articles.

1. Campbell, J.L., Richard, C.M., Brown, J.L., and McCallum, M. (2007). Crash Warning System Interfaces: Human Factors Insights and Lessons Learned, NHTSA. Technical Report DOT HS 810 697.

2. Driver behavior and situation aware brake assistance for intelligent vehicles;McCall;Proc. IEEE,2007

3. Sullivan, J., Tsimhoni, O., and Bogard, S. (2007). Warning Reliability and Driving Performance in Naturalistic Driving, University of Michigan Transportation Research Institute.

4. A meta-analysis of factors affecting trust in human-robot interaction;Hancock;Hum. Factors,2011

5. Nodine, E., Lam, A., Stevens, S., Razo, M., and Najm, W. (2011). Integrated Vehicle-Based Safety Systems (IVBSS) Light Vehicle Field Operational Test Independent Evaluation, National Highway Traffic Safety Administration.

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