Modular Estimation Strategy of Vehicle Dynamic Parameters for Motion Control Applications

The presence of motion control or active safety systems in vehicles have become increasingly important for improving vehicle performance and handling and negotiating dangerous driving situations. The performance of such systems would be improved if combined with knowledge of vehicle dynamic paramete...

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Main Authors: Rawash Mustafa, Abdelaziz Mohamed, Ghoneima Maged, Tolbah Farid
Format: Article
Language:English
Published: EDP Sciences 2018-01-01
Series:MATEC Web of Conferences
Online Access:https://doi.org/10.1051/matecconf/201816602006
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spelling doaj-5ccd374ee84b46839539be1038e774422021-02-02T08:02:29ZengEDP SciencesMATEC Web of Conferences2261-236X2018-01-011660200610.1051/matecconf/201816602006matecconf_icmaa2018_02006Modular Estimation Strategy of Vehicle Dynamic Parameters for Motion Control ApplicationsRawash MustafaAbdelaziz MohamedGhoneima MagedTolbah FaridThe presence of motion control or active safety systems in vehicles have become increasingly important for improving vehicle performance and handling and negotiating dangerous driving situations. The performance of such systems would be improved if combined with knowledge of vehicle dynamic parameters. Since some of these parameters are difficult to measure, due to technical or economic reasons, estimation of those parameters might be the only practical alternative. In this paper, an estimation strategy of important vehicle dynamic parameters, pertaining to motion control applications, is presented. The estimation strategy is of a modular structure such that each module is concerned with estimating a single vehicle parameter. Parameters estimated include: longitudinal, lateral, and vertical tire forces – longitudinal velocity – vehicle mass. The advantage of this strategy is its independence of tire parameters or wear, road surface condition, and vehicle mass variation. Also, because of its modular structure, each module could be later updated or exchanged for a more effective one. Results from simulations on a 14-DOF vehicle model are provided here to validate the strategy and show its robustness and accuracy.https://doi.org/10.1051/matecconf/201816602006
collection DOAJ
language English
format Article
sources DOAJ
author Rawash Mustafa
Abdelaziz Mohamed
Ghoneima Maged
Tolbah Farid
spellingShingle Rawash Mustafa
Abdelaziz Mohamed
Ghoneima Maged
Tolbah Farid
Modular Estimation Strategy of Vehicle Dynamic Parameters for Motion Control Applications
MATEC Web of Conferences
author_facet Rawash Mustafa
Abdelaziz Mohamed
Ghoneima Maged
Tolbah Farid
author_sort Rawash Mustafa
title Modular Estimation Strategy of Vehicle Dynamic Parameters for Motion Control Applications
title_short Modular Estimation Strategy of Vehicle Dynamic Parameters for Motion Control Applications
title_full Modular Estimation Strategy of Vehicle Dynamic Parameters for Motion Control Applications
title_fullStr Modular Estimation Strategy of Vehicle Dynamic Parameters for Motion Control Applications
title_full_unstemmed Modular Estimation Strategy of Vehicle Dynamic Parameters for Motion Control Applications
title_sort modular estimation strategy of vehicle dynamic parameters for motion control applications
publisher EDP Sciences
series MATEC Web of Conferences
issn 2261-236X
publishDate 2018-01-01
description The presence of motion control or active safety systems in vehicles have become increasingly important for improving vehicle performance and handling and negotiating dangerous driving situations. The performance of such systems would be improved if combined with knowledge of vehicle dynamic parameters. Since some of these parameters are difficult to measure, due to technical or economic reasons, estimation of those parameters might be the only practical alternative. In this paper, an estimation strategy of important vehicle dynamic parameters, pertaining to motion control applications, is presented. The estimation strategy is of a modular structure such that each module is concerned with estimating a single vehicle parameter. Parameters estimated include: longitudinal, lateral, and vertical tire forces – longitudinal velocity – vehicle mass. The advantage of this strategy is its independence of tire parameters or wear, road surface condition, and vehicle mass variation. Also, because of its modular structure, each module could be later updated or exchanged for a more effective one. Results from simulations on a 14-DOF vehicle model are provided here to validate the strategy and show its robustness and accuracy.
url https://doi.org/10.1051/matecconf/201816602006
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AT abdelazizmohamed modularestimationstrategyofvehicledynamicparametersformotioncontrolapplications
AT ghoneimamaged modularestimationstrategyofvehicledynamicparametersformotioncontrolapplications
AT tolbahfarid modularestimationstrategyofvehicledynamicparametersformotioncontrolapplications
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