Real-time unmet demand-driven relocation policy to improve service capacity of shared E-mopeds

The growing popularity of shared electric moped scooters (E-mopeds) as a sustainable and convenient transport option faces a fundamental challenge: demand often exceeds supply, necessitating efficient real-time relocation strategies. To address this, we propose an unmet demand-driven relocation policy to improve service efficiency and E-moped utilization. This policy leverages recurrent and diffusion convolutional graph neural networks alongside linear programming. Regional E-moped relocation is suggested to be triggered when its demand falls below a threshold parameter. We demonstrate that the unmet demand strategy consistently outperforms the traditional pick-up method. At a threshold of 3, the unmet demand approach results in 286 relocated E-mopeds compared to 100 using the pick-up strategy, emphasizing the importance of our study. These findings assist operators in implementing more efficient strategies and inform policymakers in refining the maximum fleet sizes and parking space allocation. • Unmet demand-driven relocation policy significantly outperforms pick-up. • Real-time unmet demand prediction assists in practical relocation policies. • Design strategy for inter-regional vehicle redistribution based on unmet demand gaps.

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Publication Details

Journal
Journal of Urban Management
Published
2025-04-25
DOI
https://doi.org/10.1016/j.jum.2025.04.001
Primary Topic
Caching and Content Delivery
Type
article
Field-Weighted Citation Impact
0.00
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article

Real-time unmet demand-driven relocation policy to improve service capacity of shared E-mopeds

Chuin‐Shan Chen, I-Yun Lisa Hsieh, Jia-Cherng Song
Journal of Urban Management
Caching and Content Delivery
article

Real-time unmet demand-driven relocation policy to improve service capacity of shared E-mopeds

Chuin‐Shan Chen, I-Yun Lisa Hsieh, Jia-Cherng Song
article en

Abstract

The growing popularity of shared electric moped scooters (E-mopeds) as a sustainable and convenient transport option faces a fundamental challenge: demand often exceeds supply, necessitating efficient real-time relocation strategies. To address this, we propose an unmet demand-driven relocation policy to improve service efficiency and E-moped utilization. This policy leverages recurrent and diffusion convolutional graph neural networks alongside linear programming. Regional E-moped relocation is suggested to be triggered when its demand falls below a threshold parameter. We demonstrate that the unmet demand strategy consistently outperforms the traditional pick-up method. At a threshold of 3, the unmet demand approach results in 286 relocated E-mopeds compared to 100 using the pick-up strategy, emphasizing the importance of our study. These findings assist operators in implementing more efficient strategies and inform policymakers in refining the maximum fleet sizes and parking space allocation. • Unmet demand-driven relocation policy significantly outperforms pick-up. • Real-time unmet demand prediction assists in practical relocation policies. • Design strategy for inter-regional vehicle redistribution based on unmet demand gaps.

Journal of Urban ManagementVol. 14(4)
National Taiwan University (TW)
Affordable and clean energy
Openalex Percentile: Top 92%
Caching and Content Delivery
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