Graph Theory for Metro Traffic Modelling
Bruno Scalzo Dees, Yao Lei Xu, Anthony G. Constantinides, Danilo P., Mandic

TL;DR
This paper introduces a comprehensive graph theoretic framework for modeling, analyzing, and forecasting metro traffic, including network robustness, passenger flow diffusion, and deep learning applications, demonstrated through London underground data.
Contribution
It presents a unified graph-based approach integrating diffusion laws, centrality, augmentation, and neural networks for metro traffic modeling and planning.
Findings
Graph Laplacian models commuter diffusion effectively.
k-edge augmentation improves network robustness.
Deep learning models enhance traffic forecasting accuracy.
Abstract
A unifying graph theoretic framework for the modelling of metro transportation networks is proposed. This is achieved by first introducing a basic graph framework for the modelling of the London underground system from a diffusion law point of view. This forms a basis for the analysis of both station importance and their vulnerability, whereby the concept of graph vertex centrality plays a key role. We next explore k-edge augmentation of a graph topology, and illustrate its usefulness both for improving the network robustness and as a planning tool. Upon establishing the graph theoretic attributes of the underlying graph topology, we proceed to introduce models for processing data on such a metro graph. Commuter movement is shown to obey the Fick's law of diffusion, where the graph Laplacian provides an analytical model for the diffusion process of commuter population dynamics. Finally,…
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Taxonomy
TopicsTraffic Prediction and Management Techniques · Transportation Planning and Optimization · Human Mobility and Location-Based Analysis
MethodsDiffusion
