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June 5, 2026Journal of Transportation Engineering Part A Systems0 citations

Investigating the Relationship between Bus Network Topology and Temporal Ridership Patterns: A Case Study in Singapore

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WZWei Zhou

Key Points

  • The aim is to understand how bus network characteristics relate to passenger ridership patterns over time.
  • Analyzed Singapore's bus network using stop-level hourly passenger data.
  • Employed clustering to identify five typical temporal ridership patterns.
  • Applied a multinomial logit model to link ridership clusters with network topology.
  • Identified significant associations between network topology and ridership patterns.
  • Residential areas showed stronger connectivity, while job and school zones had high local transitivity.
  • Incorporating network topology improved model performance, offering better insights into ridership dynamics.

Abstract

To advance the understanding of passenger temporal ridership profiles in urban bus systems, this study examined the relationship between network topological characteristics and temporal ridership patterns. Using Singapore’s bus system as a case study, stop-level hourly passenger profiles were constructed, and a clustering approach was applied to identify five typical temporal patterns: mixed-use central business district (CBD), western job hubs, peripheral residential regions, near-central residential regions, and school-oriented zones. Adopting the complex network theory, the bus network was represented in both L-space and P-space, allowing computation of key topological descriptors and examination of degree distributions and small-world features. A multinomial logit (MNL) model was employed to investigate the relationships between temporal ridership clusters and network topology. The results confirm significant associations and indicate that residential origins exhibit stronger outward connectivity and bridging roles, whereas job and school destinations demonstrate concentrated inflows and high local transitivity within dense route cliques. Additionally, incorporating network topology significantly improves model performance, highlighting that network context provides additional explanatory power for temporal ridership patterns beyond the urban environment alone. By linking network topology with temporal ridership dynamics, this study provides a network-based perspective that can inform more-efficient and -adaptive public bus network planning.

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Cite This Study

Wei Zhou (2026) studied this question.

synapsesocial.com/papers/6a22698b763171746d5482d3https://doi.org/10.1061/jtepbs.teeng-9665
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