Rethinking Advanced Driver Assistance System taxonomies: A framework and inventory of real-world safety performance

In this review, we assess the real-world effectiveness of ADAS! (ADAS!) in preventing vehicle crashes. We propose a new, data-driven framework of safety performance based on dimensions urgency and level of control as an alternative to existing taxonomies.We identified 28 ADAS! and collected data on...

Full description

Saved in:
Bibliographic Details
Main Authors: Ksander N de Winkel, Michiel Christoph
Format: Article
Language:English
Published: Elsevier 2025-01-01
Series:Transportation Research Interdisciplinary Perspectives
Subjects:
Online Access:http://www.sciencedirect.com/science/article/pii/S2590198225000156
Tags: Add Tag
No Tags, Be the first to tag this record!
_version_ 1823864220223012864
author Ksander N de Winkel
Michiel Christoph
author_facet Ksander N de Winkel
Michiel Christoph
author_sort Ksander N de Winkel
collection DOAJ
description In this review, we assess the real-world effectiveness of ADAS! (ADAS!) in preventing vehicle crashes. We propose a new, data-driven framework of safety performance based on dimensions urgency and level of control as an alternative to existing taxonomies.We identified 28 ADAS! and collected data on (real-world) safety performance of from grey (technical reports) and white (scientific) literature. ADAS! were categorized by functional class (longitudinal/lateral control, monitoring, information systems) and by interaction type (informing, warning, intervening, comfort-enhancing).The data analysis showed that LKA! (LKA!) (−19.1%) and DMS! (DMS!) (−14%) had the strongest crash rate reduction effects, followed by AEB! (AEB!) (−10.7%). However, systems like ACC! (ACC!) and CC! (CC!) were associated with increased crash rates (+8%, +12%). Categorizing systems by either functional class or interaction type revealed central tendencies favoring safety of longitudinal control and intervening systems, while comfort-enhancing systems showed detrimental effects.From the categorizations, we derived dimensions urgency and level of control, scoring individual ADAS! accordingly. A linear model based on these dimensions (pseudo-R2=0.103) explained a similar amount of variance as the categorizations (functional class: 0.140, interaction type: 0.087). The analysis indicated that low urgency and high level of control, typical of comfort-enhancing systems, did not improve safety.Our findings support the positive safety effects of ADAS!, but also point to risks, particularly for comfort-enhancing technologies. The proposed framework offers an explanation for the observations. It is simple and generalizable, and avoids disadvantages inherent to categorical classifications, making it a potentially valuable tool for designers and policymakers.
format Article
id doaj-art-20548a789e1c459eaecee4043a1fae8a
institution Kabale University
issn 2590-1982
language English
publishDate 2025-01-01
publisher Elsevier
record_format Article
series Transportation Research Interdisciplinary Perspectives
spelling doaj-art-20548a789e1c459eaecee4043a1fae8a2025-02-09T05:01:20ZengElsevierTransportation Research Interdisciplinary Perspectives2590-19822025-01-0129101336Rethinking Advanced Driver Assistance System taxonomies: A framework and inventory of real-world safety performanceKsander N de Winkel0Michiel Christoph1Corresponding author.; SWOV institute for road safety research, Henri Faasdreef 312, The Hague, 2492JP, The NetherlandsSWOV institute for road safety research, Henri Faasdreef 312, The Hague, 2492JP, The NetherlandsIn this review, we assess the real-world effectiveness of ADAS! (ADAS!) in preventing vehicle crashes. We propose a new, data-driven framework of safety performance based on dimensions urgency and level of control as an alternative to existing taxonomies.We identified 28 ADAS! and collected data on (real-world) safety performance of from grey (technical reports) and white (scientific) literature. ADAS! were categorized by functional class (longitudinal/lateral control, monitoring, information systems) and by interaction type (informing, warning, intervening, comfort-enhancing).The data analysis showed that LKA! (LKA!) (−19.1%) and DMS! (DMS!) (−14%) had the strongest crash rate reduction effects, followed by AEB! (AEB!) (−10.7%). However, systems like ACC! (ACC!) and CC! (CC!) were associated with increased crash rates (+8%, +12%). Categorizing systems by either functional class or interaction type revealed central tendencies favoring safety of longitudinal control and intervening systems, while comfort-enhancing systems showed detrimental effects.From the categorizations, we derived dimensions urgency and level of control, scoring individual ADAS! accordingly. A linear model based on these dimensions (pseudo-R2=0.103) explained a similar amount of variance as the categorizations (functional class: 0.140, interaction type: 0.087). The analysis indicated that low urgency and high level of control, typical of comfort-enhancing systems, did not improve safety.Our findings support the positive safety effects of ADAS!, but also point to risks, particularly for comfort-enhancing technologies. The proposed framework offers an explanation for the observations. It is simple and generalizable, and avoids disadvantages inherent to categorical classifications, making it a potentially valuable tool for designers and policymakers.http://www.sciencedirect.com/science/article/pii/S2590198225000156ADASAdvanced Driver Assistant SystemsSafetyRiskEffectivenessReal-world
spellingShingle Ksander N de Winkel
Michiel Christoph
Rethinking Advanced Driver Assistance System taxonomies: A framework and inventory of real-world safety performance
Transportation Research Interdisciplinary Perspectives
ADAS
Advanced Driver Assistant Systems
Safety
Risk
Effectiveness
Real-world
title Rethinking Advanced Driver Assistance System taxonomies: A framework and inventory of real-world safety performance
title_full Rethinking Advanced Driver Assistance System taxonomies: A framework and inventory of real-world safety performance
title_fullStr Rethinking Advanced Driver Assistance System taxonomies: A framework and inventory of real-world safety performance
title_full_unstemmed Rethinking Advanced Driver Assistance System taxonomies: A framework and inventory of real-world safety performance
title_short Rethinking Advanced Driver Assistance System taxonomies: A framework and inventory of real-world safety performance
title_sort rethinking advanced driver assistance system taxonomies a framework and inventory of real world safety performance
topic ADAS
Advanced Driver Assistant Systems
Safety
Risk
Effectiveness
Real-world
url http://www.sciencedirect.com/science/article/pii/S2590198225000156
work_keys_str_mv AT ksanderndewinkel rethinkingadvanceddriverassistancesystemtaxonomiesaframeworkandinventoryofrealworldsafetyperformance
AT michielchristoph rethinkingadvanceddriverassistancesystemtaxonomiesaframeworkandinventoryofrealworldsafetyperformance