Adaptive Time Budgets for Safe and Comfortable Vehicle Control Transition in Conditionally Automated Driving
Kexin Liang, Simeon C. Calvert, J.W.C. van Lint

TL;DR
This paper proposes an adaptive time budget framework for vehicle control transitions in automated driving, optimizing safety and comfort by dynamically adjusting transition times based on predicted takeover requirements.
Contribution
It introduces a novel adaptive time budget framework that personalizes transition times, enhancing safety and driver comfort during automated vehicle control handovers.
Findings
Optimal takeover buffer of 5-6 seconds for safety and comfort
Drivers prefer stable takeover buffers across scenarios
Adaptive framework improves transition reliability
Abstract
Conditionally automated driving requires drivers to resume vehicle control promptly when automation reaches its operational limits. Ensuring smooth vehicle control transitions is critical for the safety and efficiency of mixed-traffic transportation systems, where complex interactions and variable traffic behaviors pose additional challenges. This study addresses this challenge by introducing an adaptive time budget framework that provides drivers with sufficient time to complete takeovers both safely and comfortably across diverse scenarios. We focus in particular on the takeover buffer, that is, the extra time available after drivers consciously resume control to complete evasive maneuvers. A driving simulator experiment is conducted to evaluate the influence of different takeover buffer lengths on safety-related indicators (minimum time-to-collision, maximum deceleration, and…
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Taxonomy
TopicsTraffic control and management · Human-Automation Interaction and Safety · Autonomous Vehicle Technology and Safety
