Rolling Resistance Evaluation of Pavements Using Embedded Transducers on a Semi-Trailer Suspension

Road agency initiatives to reduce traffic-related greenhouse gas emissions are limited by the inability of current experimental methods to assess pavement impacts on vehicle energy consumption. This study addresses this by examining the rolling resistance of a semi-trailer suspension under highway c...

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Main Authors: William Levesque, André Bégin-Drolet, Julien Lépine
Format: Article
Language:English
Published: MDPI AG 2024-11-01
Series:Sensors
Subjects:
Online Access:https://www.mdpi.com/1424-8220/24/23/7556
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author William Levesque
André Bégin-Drolet
Julien Lépine
author_facet William Levesque
André Bégin-Drolet
Julien Lépine
author_sort William Levesque
collection DOAJ
description Road agency initiatives to reduce traffic-related greenhouse gas emissions are limited by the inability of current experimental methods to assess pavement impacts on vehicle energy consumption. This study addresses this by examining the rolling resistance of a semi-trailer suspension under highway conditions using a precise measurement system with embedded transducers. Data were collected over 174 km of highway, covering various pavement types under mild summer conditions. The analysis revealed notable differences in rolling resistance due to pavement characteristics, with more pronounced variations observed within pavement types than between them. For instance, geographically consecutive jointed rigid pavements showed a 34% variation in rolling resistance, likely correlated with harmonic excitations generated by slab presence, while flexible pavements exhibited up to a 21% variation under similar tire operating conditions. Composite pavements generally performed the worst, possibly due to interactions between bituminous materials and older cement-based foundations. The study also highlighted the critical role of tire operating conditions, showing a decrease of 0.09 kg/tonne in rolling resistance for every 1 °C increase in temperature. This research shows that precisely measuring the rolling resistance (±0.1 kg/tonne) in situ for heavy vehicles is feasible and underscores the need for additional data in diverse weather scenarios to better align laboratory results with on-road realities.
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spelling doaj-art-b17d034982d040a4ae3b88f9b3c856d02025-08-20T01:55:27ZengMDPI AGSensors1424-82202024-11-012423755610.3390/s24237556Rolling Resistance Evaluation of Pavements Using Embedded Transducers on a Semi-Trailer SuspensionWilliam Levesque0André Bégin-Drolet1Julien Lépine2Department of Mechanical Engineering, Laval University, Québec, QC G1V 0A6, CanadaDepartment of Mechanical Engineering, Laval University, Québec, QC G1V 0A6, CanadaDepartment of Operations and Decision Systems, Laval University, Québec, QC G1V 0A6, CanadaRoad agency initiatives to reduce traffic-related greenhouse gas emissions are limited by the inability of current experimental methods to assess pavement impacts on vehicle energy consumption. This study addresses this by examining the rolling resistance of a semi-trailer suspension under highway conditions using a precise measurement system with embedded transducers. Data were collected over 174 km of highway, covering various pavement types under mild summer conditions. The analysis revealed notable differences in rolling resistance due to pavement characteristics, with more pronounced variations observed within pavement types than between them. For instance, geographically consecutive jointed rigid pavements showed a 34% variation in rolling resistance, likely correlated with harmonic excitations generated by slab presence, while flexible pavements exhibited up to a 21% variation under similar tire operating conditions. Composite pavements generally performed the worst, possibly due to interactions between bituminous materials and older cement-based foundations. The study also highlighted the critical role of tire operating conditions, showing a decrease of 0.09 kg/tonne in rolling resistance for every 1 °C increase in temperature. This research shows that precisely measuring the rolling resistance (±0.1 kg/tonne) in situ for heavy vehicles is feasible and underscores the need for additional data in diverse weather scenarios to better align laboratory results with on-road realities.https://www.mdpi.com/1424-8220/24/23/7556energy consumptionheavy vehiclesrolling resistancepavement typeroad roughnessroad management
spellingShingle William Levesque
André Bégin-Drolet
Julien Lépine
Rolling Resistance Evaluation of Pavements Using Embedded Transducers on a Semi-Trailer Suspension
Sensors
energy consumption
heavy vehicles
rolling resistance
pavement type
road roughness
road management
title Rolling Resistance Evaluation of Pavements Using Embedded Transducers on a Semi-Trailer Suspension
title_full Rolling Resistance Evaluation of Pavements Using Embedded Transducers on a Semi-Trailer Suspension
title_fullStr Rolling Resistance Evaluation of Pavements Using Embedded Transducers on a Semi-Trailer Suspension
title_full_unstemmed Rolling Resistance Evaluation of Pavements Using Embedded Transducers on a Semi-Trailer Suspension
title_short Rolling Resistance Evaluation of Pavements Using Embedded Transducers on a Semi-Trailer Suspension
title_sort rolling resistance evaluation of pavements using embedded transducers on a semi trailer suspension
topic energy consumption
heavy vehicles
rolling resistance
pavement type
road roughness
road management
url https://www.mdpi.com/1424-8220/24/23/7556
work_keys_str_mv AT williamlevesque rollingresistanceevaluationofpavementsusingembeddedtransducersonasemitrailersuspension
AT andrebegindrolet rollingresistanceevaluationofpavementsusingembeddedtransducersonasemitrailersuspension
AT julienlepine rollingresistanceevaluationofpavementsusingembeddedtransducersonasemitrailersuspension