Modeling electric bike–car mixed flow via social force model

Because of the convenience and the quickness, electric bikes gradually become the main travel mode of urban resident in China, and electric bike–car mixed flow becomes the new characteristics of urban traffic flow. But their role in mixed traffic flow and their effects on cars have become important...

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Main Authors: Zhao-wei Qu, Ning-bo Cao, Yong-heng Chen, Li-ying Zhao, Qiao-wen Bai, Rui-qi Luo
Format: Article
Language:English
Published: SAGE Publishing 2017-09-01
Series:Advances in Mechanical Engineering
Online Access:https://doi.org/10.1177/1687814017719641
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spelling doaj-e1f12c28e8dc43b39fcee49af900a8782020-11-25T02:52:40ZengSAGE PublishingAdvances in Mechanical Engineering1687-81402017-09-01910.1177/1687814017719641Modeling electric bike–car mixed flow via social force modelZhao-wei QuNing-bo CaoYong-heng ChenLi-ying ZhaoQiao-wen BaiRui-qi LuoBecause of the convenience and the quickness, electric bikes gradually become the main travel mode of urban resident in China, and electric bike–car mixed flow becomes the new characteristics of urban traffic flow. But their role in mixed traffic flow and their effects on cars have become important problems for transportation designers. Mixed traffic flow simulation model provides the designers an effective tool to acquire the relation between flow and density in a new design scheme, achieve solutions for optimal design features before implementation, and help to make the design more rational. Based on the electric bike–car mixed flow characteristics and social force model, this article proposes a microscopic model which can represent the behavior of electric bike–car mixed flow in road segment. First, the inner and outer forces determining the movement mechanism of electric bikes and cars were analyzed, respectively; second, we developed a modified social force model to describe the electric bikes and cars behaviors; third, the social force model was modified and extended for mixed traffic flow by considering the interactions between electric bikes and cars, lane-changing behavior, and conflict avoidance behavior. The interaction parameters of the social force-based model for electric bike–car mixed flow are estimated using empirical data. The established microscopic model can be used to estimate critical flow of separating vehicle and electric bike and determine proper electric bike lane width according to different electric bike requirements by simulating.https://doi.org/10.1177/1687814017719641
collection DOAJ
language English
format Article
sources DOAJ
author Zhao-wei Qu
Ning-bo Cao
Yong-heng Chen
Li-ying Zhao
Qiao-wen Bai
Rui-qi Luo
spellingShingle Zhao-wei Qu
Ning-bo Cao
Yong-heng Chen
Li-ying Zhao
Qiao-wen Bai
Rui-qi Luo
Modeling electric bike–car mixed flow via social force model
Advances in Mechanical Engineering
author_facet Zhao-wei Qu
Ning-bo Cao
Yong-heng Chen
Li-ying Zhao
Qiao-wen Bai
Rui-qi Luo
author_sort Zhao-wei Qu
title Modeling electric bike–car mixed flow via social force model
title_short Modeling electric bike–car mixed flow via social force model
title_full Modeling electric bike–car mixed flow via social force model
title_fullStr Modeling electric bike–car mixed flow via social force model
title_full_unstemmed Modeling electric bike–car mixed flow via social force model
title_sort modeling electric bike–car mixed flow via social force model
publisher SAGE Publishing
series Advances in Mechanical Engineering
issn 1687-8140
publishDate 2017-09-01
description Because of the convenience and the quickness, electric bikes gradually become the main travel mode of urban resident in China, and electric bike–car mixed flow becomes the new characteristics of urban traffic flow. But their role in mixed traffic flow and their effects on cars have become important problems for transportation designers. Mixed traffic flow simulation model provides the designers an effective tool to acquire the relation between flow and density in a new design scheme, achieve solutions for optimal design features before implementation, and help to make the design more rational. Based on the electric bike–car mixed flow characteristics and social force model, this article proposes a microscopic model which can represent the behavior of electric bike–car mixed flow in road segment. First, the inner and outer forces determining the movement mechanism of electric bikes and cars were analyzed, respectively; second, we developed a modified social force model to describe the electric bikes and cars behaviors; third, the social force model was modified and extended for mixed traffic flow by considering the interactions between electric bikes and cars, lane-changing behavior, and conflict avoidance behavior. The interaction parameters of the social force-based model for electric bike–car mixed flow are estimated using empirical data. The established microscopic model can be used to estimate critical flow of separating vehicle and electric bike and determine proper electric bike lane width according to different electric bike requirements by simulating.
url https://doi.org/10.1177/1687814017719641
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