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Mobile-Based Smart Transport Route Optimization and Hazard Reporting System for San Juan

Authors

Jester Mackenzie L. Guinto

College of Computing Studies, Universidad De Manila, Philippines (PH)

Kvan Jazer A. Escalona

College of Computing Studies, Universidad De Manila, Philippines (PH)

Cristian Jacob M. Eron

College of Computing Studies, Universidad De Manila, Philippines (PH)

Silas A. Flores

College of Computing Studies, Universidad De Manila, Philippines (PH)

Adrian Andrei S. Tan

College of Computing Studies, Universidad De Manila, Philippines (PH)

Ronald Fernandez

College of Computing Studies, Universidad De Manila, Philippines (PH)

Article Information

DOI: 10.51583/IJLTEMAS.2025.1409000084

Subject Category: ARTIFICIAL INTELLIGENCE AND MACHINE LEARNING

Volume/Issue: 14/9 | Page No: 709-722

Publication Timeline

Submitted: 2025-10-13

Published: 2025-10-14

Abstract

Abstract:  The aim of this study is to develop a Mobile-Based Smart Transport Route Optimization and Hazard Reporting System that could improve navigation, minimize travel time, and increase road safety in San Juan City. The complex road system of the city and the ever-changing traffic rules, such as one-way and two-way rules based on time, pose great challenges to drivers, which often result in congestion and unintended traffic violations. This study solves these problems by giving a localized and adaptive navigation solution. The proposed system uses a combination of Dijkstra's Algorithm, Google Maps Application Programming Interface and real-time traffic information to produce the most efficient and accurate routes. It also has a hazard reporting feature that allows users to share updates on accidents, road closures, police presence, and other disruptions. Other features include English and Tagalog voice navigation, a built-in speedometer with overspeed warnings, two-factor authentication for secure access, a favorites feature for easy recall of commonly traveled routes. The system was developed following an iterative prototyping approach with user feedback and validated and filtered with data collected from local drivers and the San Juan City Traffic and Parking Management Office to maintain accuracy and usability. Its area of focus is private vehicles, motorcycles, and taxis that are operating within San Juan City. Findings indicate that the system offers better route guidance, minimizes traveling time, and improves the safety of commuters by combining algorithmic route optimization and community-based hazard reporting. This study illustrates the role of localized systems in ensuring safer and efficient mobility in urban settings. This study shows the need to design navigation tools based on the actual community needs and conditions. Through the case of San Juan City, the system demonstrates how technology can directly address daily traffic issues, can offer a safer traveling experience, and can also serve as an example that can be copied in other cities with complicated traffic schemes.

Keywords

Smart Transport System, Route Optimization, Hazard Reporting, Dijkstra’s Algorithm, Mobile Application, Urban Mobility, San Juan City

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References

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