Smart Fusion Re-Routing Algorithm: A Hybrid Approach to Congestion-Aware Urban Navigation by Enhancing the Edmonds-Karp Algorithm

Urban road systems often suffer from congestion, which reduces traffic efficiency and increases delays. Traditional flow-based algorithms, such as Edmonds-Karp, respect network capacity but ignore dynamic congestion, whereas shortest path heuristics optimise distance or time but overlook flow constraints. This study proposes a hybrid routing model that combines Edmonds-Karp maximum flow, dynamic congestion modelling, and congestion-aware shortest path heuristics. Edmonds-Karp ensures capacity limits are respected, while congestion updates and weighted path selection enable adaptive rerouting. Vehicle movement was simulated using linear interpolation (LERP) to visualise congestion and routing decisions. Simulations on a sample city network showed that the hybrid approach reduced congestion buildup and improved travel efficiency compared with conventional methods, making it well-suited for autonomous navigation, intelligent transportation, and smart city traffic management.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-01-29
DOI
https://doi.org/10.5281/zenodo.18415933
Primary Topic
Traffic control and management
Type
article
Field-Weighted Citation Impact
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article

Smart Fusion Re-Routing Algorithm: A Hybrid Approach to Congestion-Aware Urban Navigation by Enhancing the Edmonds-Karp Algorithm

Swavana Yaikhom, Laishram Trinity
Zenodo (CERN European Organization for Nuclear Research)
Traffic control and management
article

Smart Fusion Re-Routing Algorithm: A Hybrid Approach to Congestion-Aware Urban Navigation by Enhancing the Edmonds-Karp Algorithm

Swavana Yaikhom, Laishram Trinity
article en

Abstract

Urban road systems often suffer from congestion, which reduces traffic efficiency and increases delays. Traditional flow-based algorithms, such as Edmonds-Karp, respect network capacity but ignore dynamic congestion, whereas shortest path heuristics optimise distance or time but overlook flow constraints. This study proposes a hybrid routing model that combines Edmonds-Karp maximum flow, dynamic congestion modelling, and congestion-aware shortest path heuristics. Edmonds-Karp ensures capacity limits are respected, while congestion updates and weighted path selection enable adaptive rerouting. Vehicle movement was simulated using linear interpolation (LERP) to visualise congestion and routing decisions. Simulations on a sample city network showed that the hybrid approach reduced congestion buildup and improved travel efficiency compared with conventional methods, making it well-suited for autonomous navigation, intelligent transportation, and smart city traffic management.

Zenodo (CERN European Organization for Nuclear Research)
Sustainable cities and communities
Openalex Percentile: Top 74%
Traffic control and management
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