Phantom braking in automated vehicles: A theoretical outline and cycling simulator demonstration
Abstract
The emerging use of automated driving systems introduces novel situations that may affect the safety of vulnerable road users such as cyclists. In this paper, we explain and conceptualise the phenomenon of phantom braking – sudden and unexpected deceleration – in automated vehicles. We apply signal detection theory to interpret phantom braking as a by-product of automated decision-making, with the vehicle favouring the avoidance of accidents at the cost of potentially causing rear-end accidents. To illustrate phantom braking and its effects on cyclists, we used a newly developed cycling simulator. An exploratory measurement conducted with a single cyclist participant revealed a possible complacency effect of the cyclist, with the cyclist’s decision-making mirroring the automated vehicle’s decision-making. The findings provide a testament to using cycling simulators for further exploration of the effects of phantom braking on cyclists.
Keywords: Cyclists, Automated Vehicles, Phantom Braking, Cycling Simulator, Implicit Communication
DOI: 10.54941/ahfe1005212
Cite this paper
More from this volume
- Scientific Evaluation of the Impact of an Increase in the Retirement Age on the Cognitive Functions and Well-Being of Air Traffic Controllers (ATCOs)
- Vigilant Air Traffic Control: Gaze-based Recognition of Detection Failures to Visual Warnings
- Hidden Dangers on the Flight Deck: A Stakeholder Analysis of the Issues Surrounding Commercial Pilot Mental Health
- Making Sense of Culture in the Cockpit: The Crash of Japan Airlines Flight 1045
- Remote Digital Tower to support Air Traffic Control Systems
- The Impact of Delayed Communication on NASA’s Human-Systems Operations: Preliminary Results of a Systematic Review
- The Challenges of the Implementation of Artificial Intelligence (AI) in Transportation.
- Should I board this Advanced Air Mobility vehicle? A systemic risk assessment of eVTOL in a vertiport
- Show the Way: Accelerating General Aviation Accident Investigations through LLMs and HFACS
- Patterning Risk: An Innovative Task Design Method for Simulating Incidents in Transportation Studies
- Reduction and Modification for Aero Engine Rotor Model Considering Contact Stiffness
- Improved One-Step Block Precise Integration Method For Rotor Nonlinear Response Calculation


AHFE Open Access