Nowadays, vehicle tracking systems have become an important part of the transportation and logistics sectors. With the increasing use of fleet-based services, organizations need reliable methods to monitor vehicle speed and movement so that they can manage their operations effectively. However, many existing vehicle tracking systems depend on physical devices which increase costs and make development and testing difficult. Setting up and managing hardware devices during testing can also cause practical challenges. Therefore, in this paper, a web- based vehicle monitoring system is developed in which a GPS simulator is used instead of real GPS hardware. The system is built using Java technologies like JSP and servlets which helps in handling the backend process efficiently. The system generates location data in the form of latitude and longitude and sends it to the server for further processing. This data is stored in a database, and it is displayed on the web interface using a map. The system has been tested using simulated data and is working well by providing real-time location updates without any major delay. The main aim of this system is to track the real-time location of a vehicle without using physical GPS devices. It helps with reducing costs and makes the development and testing process easier. Overall, the system works effectively and can be useful for development and testing purposes.
Introduction
This text describes a web-based real-time vehicle tracking system designed to improve transportation efficiency, safety, and fleet management using GPS, IoT, and web technologies.
The main idea is that traditional tracking methods (like manual calls or records) are inefficient, while modern systems use GPS-based location tracking combined with web platforms to provide real-time vehicle monitoring. The system continuously collects latitude and longitude data and displays vehicle movement on a map through a browser interface. Increasing use of IoT and cloud technologies has further improved accuracy and real-time data processing.
A key feature of the proposed work is the use of a GPS simulator instead of physical GPS hardware, which makes the system easier to develop and test. The backend is implemented using Java (JSP and Servlets) and stores data in a database (e.g., MySQL), while the frontend visualizes vehicle movement on a map. This makes the system accessible, cost-effective, and suitable for academic and prototype use.
The literature review shows that existing systems already use GPS, IoT, cloud computing, and even AI for tracking and analytics, but they often suffer from issues like high cost, dependency on internet connectivity, scalability limitations, and lack of integrated features (such as behavior monitoring, alerts, or multi-parameter tracking). Many solutions also focus only on either hardware or software rather than a complete system.
Conclusion
Our research was mainly about building a web-based system that can track vehicles in real time. Instead of using GPS hardware, we use GPS simulators which generate location data and make development and testing easier. Our idea was to combine web technologies with location-based services so that vehicle tracking can be done in simple and practical way. For the technical part, we used Java technologies like JSP for front end and Servlets for handling the backend process. For the map, we use leaflet library which helps in displaying vehicle locations on map and makes the system more user-friendly. During testing, the system works as expected. It was able to receive the simulated GPS data, process it on the server, and then show the vehicle’s live position on the web interface. GPS simulator allows us to test everything without depending on physical devices, which saved both time and cost. We also added features to store past location data, which is useful for checking trip history and doing basic analysis. Overall, this project shows that real-time vehicle tracking can be implemented effectively using web technologies.
References
[1] Ganesh, C., & Suganthi, C. (2025). Smart vehicle tracking and location monitoring system using GPS and web dashboard. International Journal of Innovative Research in Science, Engineering and Technology, 14(5), 4210–4216.
[2] REAL-TIME VEHICLE TRACKING AND FLEET MONITORING. (2024). International Journal of
[3] Information Technology and Computer Engineering, 12(4), 94-101.
[4] Keerti, Para & Ruchitha, Kandela & Krishna, R & Tabassum, Nazreen & Faraz, Abdul & Mazhar, Md. (2025). IOT Based GPS Vehicle Tracking and Monitoring System. International Research Journal on Advanced Engineering and Management (IRJAEM). 3. 2164-2169. 10.47392/IRJAEM.2025.0342.
[5] Pushpa, Korada & Jyoshna, Seera & Rao, Kamserla & Rao, Ellapu. (2025). Design and Implementation of an IoT-Enabled Smart Vehicle Theft Detection and Tracking System. IJARCCE. 14. 10.17148/IJARCCE.2025.14944.
[6] Real-time GPS Tracking System for IoT-Enabled Connected Vehicles, Idriss Moumen, Najat Rafalia, Jaafar Abouchabaka, Marouane Aoufi, E3S Web Conf. 412 01095 (2023).
[7] Nayana, J., Chiranth, V. V., Hemanth, D. R., & Jayarani, A. E. (2024). Literature survey on integrated vehicle tracking with speed, tilt and geofencing. International Advanced Research Journal in Science, Engineering and Technology, 11(12), 250–256.
[8] Advancing Connected Vehicle Systems Through Real-Time Data Analytics: Emerging Innovations and Future Prospects. (2022). International Journal of Machine Learning Research in Cybersecurity and Artificial Intelligence, 13(1), 705-730.
[9] An Integrated Real-Time Vehicle Tracking And Alert System Using Gps, Gsm/Gprs Technologies With Smartphone Connectivity For Enhanced Transportation Management. (2025). International Journal of Engineering and Science Research, 15(3), 583-591.
[10] Khaled, Hassan & Tarek, Karim & Mohamed, Wafeek & Hussein, Mohamed. (2023). Intelligent Transportation System Real-Time Tracking. Qeios. 10.32388/2VSPI8.
[11] Khanpour, A., Wang, T., Vahidi-Shams, A., Ectors, W., Nakhaie, F., Taheri, A., & Claudel, C. (2025). UAV-Based Intelligent Traffic Surveillance System: Real-Time Vehicle Detection, Classification, Tracking, and Behavioral Analysis.
[12] Patil, A. K., Punugupati, B., Gupta, H., Mayur, N. S., Ramesh, S., & Honnavalli, P. B. (2025). Building the Future of Transportation: A Comprehensive Survey on AV Perception, Localization, and Mapping. Sensors, 25(7), 2004.
[13] HARDWARE DESIGN FOR IOT BASED VEHICLE TRACKING AND THEFT DETECTION SYSTEM
[14] THROUGH SMS ALERT. (2025). International Journal of Information Technology and Computer Engineering, 13(1), 145-156.
[15] Johnsan, A., Ganesh, G., Manjusri, S., Mahesh, P., & Karthik Reddy, C. (2024). Intelligent traffic system for urban conditions using real-time vehicle tracking. International Journal of Information Technology and Computer Engineering (IJITCE), 12(1), 45–53.
[16] Satheesh, N., Gopisankar, N., Kumarganesh, S. et al. Advanced AI-driven emergency response systems for enhanced vehicle and human safety. Iran J Comput Sci 8, 441–456 (2025).
[17] Prethi, K.N.A., Palanisamy, S., Nithya, S. et al. Edge Based Intelligent Secured Vehicle Filtering and Tracking System Using YOLO and EasyOCR. Int. J. ITS Res. 23, 330–353 (2025).
[18] Harish Nataraj, S., Balaji, K., & Hariram, V. (2025). Real-Time Vehicle Tracking using Computer Vision (YOLOv8) (EasyChair Preprint 15868).
[19] Gupta, A., & Ghosh, S. (2023). Implementation of a Smart Fleet Management System using IoT. Journal of Advanced Transportation, 2023, 1-15.
[20] Ahmed, M., & Khalid, S. (2022). Real-Time Vehicle Tracking System Using GPS and IoT. International Journal of Computer Applications, 975(2), 1-7.
[21] Thompson, G., & Carter, A. (2022). Improving Emergency Response Through Data Driven Traffic Management: A Case Study. Transportation Research Part A: Policy and Practice, 156, 254-265.