Experimental Evaluation of Road-Crossing Decisions by Autonomous Wheelchairs against Environmental Factors
Franca Corradini, Carlo Grigioni, Alessandro Antonucci, J\'er\^ome, Guzzi, Francesco Flammini

TL;DR
This paper evaluates how environmental factors like fog, rain, and darkness impact the tracking accuracy of autonomous wheelchairs during road crossing, proposing a method to quantify and mitigate these effects for improved safety.
Contribution
It introduces a novel approach to quantify environmental effects on tracking performance in outdoor scenarios for autonomous wheelchairs, enabling better safety measures.
Findings
Environmental factors negatively affect tracking accuracy.
The proposed method quantifies the impact of weather conditions.
System warnings and reconfiguration can improve safety.
Abstract
Safe road crossing by autonomous wheelchairs can be affected by several environmental factors such as adverse weather conditions influencing the accuracy of artificial vision. Previous studies have addressed experimental evaluation of multi-sensor information fusion to support road-crossing decisions in autonomous wheelchairs. In this study, we focus on the fine-tuning of tracking performance and on its experimental evaluation against outdoor environmental factors such as fog, rain, darkness, etc. It is rather intuitive that those factors can negatively affect the tracking performance; therefore our aim is to provide an approach to quantify their effects in the reference scenario, in order to detect conditions of unacceptable accuracy. In those cases, warnings can be issued and system can be possibly reconfigured to reduce the reputation of less accurate sensors, and thus improve…
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Taxonomy
TopicsUrban Transport and Accessibility · Human-Automation Interaction and Safety
MethodsFocus
