Tire/Road Rolling Resistance Modeling: Discussing the Surface Macrotexture Effect

This paper deals with the modeling of rolling resistance and the analysis of the effect of pavement texture. The Rolling Resistance Model (RRM) is a simplification of the no-slip rate of the Dynamic Friction Model (DFM) based on modeling tire/road contact and is intended to predict the tire/pavement...

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Main Authors: Malal Kane, Ebrahim Riahi, Minh-Tan Do
Format: Article
Language:English
Published: MDPI AG 2021-05-01
Series:Coatings
Subjects:
Online Access:https://www.mdpi.com/2079-6412/11/5/538
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spelling doaj-7c99740c20e846bc957c7e10c275e0732021-05-31T23:05:25ZengMDPI AGCoatings2079-64122021-05-011153853810.3390/coatings11050538Tire/Road Rolling Resistance Modeling: Discussing the Surface Macrotexture EffectMalal Kane0Ebrahim Riahi1Minh-Tan Do2AME-EASE, University Gustave Eiffel, IFSTTAR, F-44344 Bouguenais, FranceAME-EASE, University Gustave Eiffel, IFSTTAR, F-44344 Bouguenais, FranceAME-EASE, University Gustave Eiffel, IFSTTAR, F-44344 Bouguenais, FranceThis paper deals with the modeling of rolling resistance and the analysis of the effect of pavement texture. The Rolling Resistance Model (RRM) is a simplification of the no-slip rate of the Dynamic Friction Model (DFM) based on modeling tire/road contact and is intended to predict the tire/pavement friction at all slip rates. The experimental validation of this approach was performed using a machine simulating tires rolling on road surfaces. The tested pavement surfaces have a wide range of textures from smooth to macro-micro-rough, thus covering all the surfaces likely to be encountered on the roads. A comparison between the experimental rolling resistances and those predicted by the model shows a good correlation, with an R<sup>2</sup> exceeding 0.8. A good correlation between the MPD (mean profile depth) of the surfaces and the rolling resistance is also shown. It is also noticed that a random distribution and pointed shape of the summits may also be an inconvenience concerning rolling resistance, thus leading to the conclusion that beyond the macrotexture, the positivity of the texture should also be taken into account. A possible simplification of the model by neglecting the damping part in the constitutive model of the rubber is also noted.https://www.mdpi.com/2079-6412/11/5/538dynamic friction modelrolling resistance coefficientmacrotexture
collection DOAJ
language English
format Article
sources DOAJ
author Malal Kane
Ebrahim Riahi
Minh-Tan Do
spellingShingle Malal Kane
Ebrahim Riahi
Minh-Tan Do
Tire/Road Rolling Resistance Modeling: Discussing the Surface Macrotexture Effect
Coatings
dynamic friction model
rolling resistance coefficient
macrotexture
author_facet Malal Kane
Ebrahim Riahi
Minh-Tan Do
author_sort Malal Kane
title Tire/Road Rolling Resistance Modeling: Discussing the Surface Macrotexture Effect
title_short Tire/Road Rolling Resistance Modeling: Discussing the Surface Macrotexture Effect
title_full Tire/Road Rolling Resistance Modeling: Discussing the Surface Macrotexture Effect
title_fullStr Tire/Road Rolling Resistance Modeling: Discussing the Surface Macrotexture Effect
title_full_unstemmed Tire/Road Rolling Resistance Modeling: Discussing the Surface Macrotexture Effect
title_sort tire/road rolling resistance modeling: discussing the surface macrotexture effect
publisher MDPI AG
series Coatings
issn 2079-6412
publishDate 2021-05-01
description This paper deals with the modeling of rolling resistance and the analysis of the effect of pavement texture. The Rolling Resistance Model (RRM) is a simplification of the no-slip rate of the Dynamic Friction Model (DFM) based on modeling tire/road contact and is intended to predict the tire/pavement friction at all slip rates. The experimental validation of this approach was performed using a machine simulating tires rolling on road surfaces. The tested pavement surfaces have a wide range of textures from smooth to macro-micro-rough, thus covering all the surfaces likely to be encountered on the roads. A comparison between the experimental rolling resistances and those predicted by the model shows a good correlation, with an R<sup>2</sup> exceeding 0.8. A good correlation between the MPD (mean profile depth) of the surfaces and the rolling resistance is also shown. It is also noticed that a random distribution and pointed shape of the summits may also be an inconvenience concerning rolling resistance, thus leading to the conclusion that beyond the macrotexture, the positivity of the texture should also be taken into account. A possible simplification of the model by neglecting the damping part in the constitutive model of the rubber is also noted.
topic dynamic friction model
rolling resistance coefficient
macrotexture
url https://www.mdpi.com/2079-6412/11/5/538
work_keys_str_mv AT malalkane tireroadrollingresistancemodelingdiscussingthesurfacemacrotextureeffect
AT ebrahimriahi tireroadrollingresistancemodelingdiscussingthesurfacemacrotextureeffect
AT minhtando tireroadrollingresistancemodelingdiscussingthesurfacemacrotextureeffect
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