A Comprehensive Machine Learning Framework for Micromobility Demand Prediction

TL;DR

This paper presents an integrated machine learning framework that combines spatial, temporal, and network data to significantly improve demand prediction accuracy for dockless e-scooter services, aiding urban mobility management.

Contribution

It introduces a novel framework that effectively combines multiple data dependencies for enhanced micromobility demand forecasting, surpassing previous models.

Findings

Demand prediction accuracy improved by 27-49%

Framework captures complex urban mobility patterns

Supports optimized fleet and infrastructure planning

Abstract

Dockless e-scooters, a key micromobility service, have emerged as eco-friendly and flexible urban transport alternatives. These services improve first and last-mile connectivity, reduce congestion and emissions, and complement public transport for short-distance travel. However, effective management of these services depends on accurate demand prediction, which is crucial for optimal fleet distribution and infrastructure planning. While previous studies have focused on analyzing spatial or temporal factors in isolation, this study introduces a framework that integrates spatial, temporal, and network dependencies for improved micromobility demand forecasting. This integration enhances accuracy while providing deeper insights into urban micromobility usage patterns. Our framework improves demand prediction accuracy by 27 to 49% over baseline models, demonstrating its effectiveness in capturing micromobility demand patterns. These findings support data-driven micromobility management, enabling optimized fleet distribution, cost reduction, and sustainable urban planning.