A numerical approach to understand the responses of passenger vehicles moving through floodwaters

Abstract Watercourses and roadways commonly intersect in their layout at many locations through bridges, drainages, and fords. During heavy rain events, watercourses may overflow causing serious disturbance toward traffic movement. Under such circumstances, attempting to drive through these intersec...

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Main Authors: Ebrahim Hamid Hussein Al‐Qadami, Zahiraniza Mustaffa, Mohamed Ezzat Al‐Atroush, Eduardo Martinez‐Gomariz, Fang Yenn Teo, Yasser El‐Husseini
Format: Article
Language:English
Published: Wiley 2022-12-01
Series:Journal of Flood Risk Management
Subjects:
Online Access:https://doi.org/10.1111/jfr3.12828
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author Ebrahim Hamid Hussein Al‐Qadami
Zahiraniza Mustaffa
Mohamed Ezzat Al‐Atroush
Eduardo Martinez‐Gomariz
Fang Yenn Teo
Yasser El‐Husseini
author_facet Ebrahim Hamid Hussein Al‐Qadami
Zahiraniza Mustaffa
Mohamed Ezzat Al‐Atroush
Eduardo Martinez‐Gomariz
Fang Yenn Teo
Yasser El‐Husseini
author_sort Ebrahim Hamid Hussein Al‐Qadami
collection DOAJ
description Abstract Watercourses and roadways commonly intersect in their layout at many locations through bridges, drainages, and fords. During heavy rain events, watercourses may overflow causing serious disturbance toward traffic movement. Under such circumstances, attempting to drive through these intersections can be extremely dangerous. Therefore, understanding the responses of the vehicles moving through floodwaters is of utmost importance. Between 1967 and 2021, several studies have been published investigating the stability of static flooded vehicles. However, studies on the stability of vehicles in the movement are not sufficient at which only few experimental studies were published. Herein, for the very first time numerical simulations were conducted to investigate the hydrodynamic forces on a full‐scale medium‐size passenger vehicle moving perpendicular to the incoming floodwaters. Sliding and floating instability modes were observed by detecting the position of the vehicle centre of mass at each time step. Further, horizontal (FH) and vertical (FV) forces were measured and plotted against the governing flow parameters. Finally, it was observed that the critical flow depth was 0.38 m, while the minimum depth×velocity threshold function was 0.39 m2/s, for the tested vehicle. Later, a comparison between simulation outcomes and previously published experimental work was performed and a good agreement was observed.
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spelling doaj.art-d36599ed2ff74ea2baa9dc9811140d1a2022-12-22T04:11:58ZengWileyJournal of Flood Risk Management1753-318X2022-12-01154n/an/a10.1111/jfr3.12828A numerical approach to understand the responses of passenger vehicles moving through floodwatersEbrahim Hamid Hussein Al‐Qadami0Zahiraniza Mustaffa1Mohamed Ezzat Al‐Atroush2Eduardo Martinez‐Gomariz3Fang Yenn Teo4Yasser El‐Husseini5Department of Civil and Environmental Engineering Universiti Teknologi PETRONAS Seri Iskandar MalaysiaDepartment of Civil and Environmental Engineering Universiti Teknologi PETRONAS Seri Iskandar MalaysiaDepartment of Engineering Management, College of Engineering Prince Sultan University Riyadh Saudi ArabiaDepartment of Civil and Environmental Engineering, FLUMEN Research Institute Universitat Politècnica de Catalunya·BarcelonaTech Barcelona SpainFaculty of Science and Engineering University of Nottingham Malaysia Semenyih Selangor MalaysiaDepartment of Engineering Management, College of Engineering Prince Sultan University Riyadh Saudi ArabiaAbstract Watercourses and roadways commonly intersect in their layout at many locations through bridges, drainages, and fords. During heavy rain events, watercourses may overflow causing serious disturbance toward traffic movement. Under such circumstances, attempting to drive through these intersections can be extremely dangerous. Therefore, understanding the responses of the vehicles moving through floodwaters is of utmost importance. Between 1967 and 2021, several studies have been published investigating the stability of static flooded vehicles. However, studies on the stability of vehicles in the movement are not sufficient at which only few experimental studies were published. Herein, for the very first time numerical simulations were conducted to investigate the hydrodynamic forces on a full‐scale medium‐size passenger vehicle moving perpendicular to the incoming floodwaters. Sliding and floating instability modes were observed by detecting the position of the vehicle centre of mass at each time step. Further, horizontal (FH) and vertical (FV) forces were measured and plotted against the governing flow parameters. Finally, it was observed that the critical flow depth was 0.38 m, while the minimum depth×velocity threshold function was 0.39 m2/s, for the tested vehicle. Later, a comparison between simulation outcomes and previously published experimental work was performed and a good agreement was observed.https://doi.org/10.1111/jfr3.12828floodsnumerical modellingstabilitythreshold functionvehicle in movement
spellingShingle Ebrahim Hamid Hussein Al‐Qadami
Zahiraniza Mustaffa
Mohamed Ezzat Al‐Atroush
Eduardo Martinez‐Gomariz
Fang Yenn Teo
Yasser El‐Husseini
A numerical approach to understand the responses of passenger vehicles moving through floodwaters
Journal of Flood Risk Management
floods
numerical modelling
stability
threshold function
vehicle in movement
title A numerical approach to understand the responses of passenger vehicles moving through floodwaters
title_full A numerical approach to understand the responses of passenger vehicles moving through floodwaters
title_fullStr A numerical approach to understand the responses of passenger vehicles moving through floodwaters
title_full_unstemmed A numerical approach to understand the responses of passenger vehicles moving through floodwaters
title_short A numerical approach to understand the responses of passenger vehicles moving through floodwaters
title_sort numerical approach to understand the responses of passenger vehicles moving through floodwaters
topic floods
numerical modelling
stability
threshold function
vehicle in movement
url https://doi.org/10.1111/jfr3.12828
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