INNOVATIVE TECHNOLOGIES FOR RAILWAY FLEET MONITORING: THE SIGNIFICANCE OF RFID IN ADDRESSING CONTEMPORARY ECONOMIC AND SECURITY CHALLENGES

Authors

  • Dariusz Weiland Katedra Logistyki, Wydział Ekonomiczny, Uniwersytet Gdański

DOI:

https://doi.org/10.26881/wg.2025.1/S.09

Keywords:

RFID, Digital Automatic Coupling (DAC), GPS, railway transport, fleet monitoring

Abstract

Purpuse – The article attempts to assess the significance of RFID technology in railway fleet monitoring in the context of contemporary economic and security challenges, with particular emphasis on the conditions specific to Poland. It also compares RFID technology with other fleet monitoring systems (DAC, GPS) to highlight their complementarity.

Methodology – The study employs a literature review, analysis of the author's practical experiences, and a comparative method.

Findings – The results demonstrate that RFID technology significantly enhances operational efficiency and safety by enabling faster and more reliable fleet identification. Additionally, it allows for system expansion to include fault detection and supports asset management processes. The main implementation barriers identified include high investment costs, particularly on the part of infrastructure managers, and the need for standardization. The article emphasizes the importance of RFID in railway transport and highlights the need for further research on interoperability, especially in the context of Poland.

Downloads

Download data is not yet available.

References

Asad, S. M., Ahmad, J., Hussain, S., Zoha, A., Abbasi, Q. H., Imran, M. A. (2020). Mobility prediction-based optimisation and encryption of passenger traffic-flows using machine learning. Sensors, 20(9), 2629.

Cai, H., Zhai, Y., Wang, Y. (2022). RFID technology for railway safety monitoring system. In 2022 International Conference on Intelligent Transportation and Internet of Things (IT-IOT) (94-99).

Chen, Y. H., Hung, R. Z., Chen, L. K., Jan, P. T., Su, Y. R. (2019). Channel-quality aware RFID tag identification algorithm to accommodate the varying channel quality of IoT environment. Applied Sciences, 9(2), 321.

Daniš, J., Zitrický, V., Stopka, O. (2022). Optimization of freight train dispatching using RFID-based tracking. Railway Logistics Journal, 18(3), 275–289.

Dębowski, L. (2006). Technika RFID i jej aplikacje. Zeszyty Naukowe Wydziału Elektrotech-niki i Automatyki Politechniki Gdańskiej, (22), 31-36.

Evsyukov, V., Popova, I., Danilov, I. (2022). Application of predictive maintenance in rail-way transport using RFID. Transportation Research Procedia, 59, 453–468.

Freimane, J., Mezitisa, M., Mihailovsa, F. (2017). Maneuver movements’ safety increase using maneuver locomotive identification and distance control. Procedia Computer Sci-ence, 104, 375-379.

Gulyi, V., Ilina, T., Kirina, E. (2019). Application of RFID in railway logistics. Transporta-tion Research Procedia, 57, 463–469.

GS1 (2023). RFID na kolei – Europejskie wytyczne identyfikacji taboru kolejowego z wyko-rzystaniem standardów GS1. Pozyskano z: https://gs1pl.org/app/uploads/2022/01/RFID_na_kolei_PL_19.10.pdf (21.02.2025).

Hell, P. M., Varga, P. J. (2018). Accurate radiofrequency identification tracking in smart city railways by using drones. Interdisciplinary Description of Complex Systems, 16, 333-341.

Hranický, M. P., Šperka, A., Čamaj, J. (2021). RFID technology and its effects on improving technological processes at the Čierna nad Tisou station. Transportation Research Pro-cedia, 55, 466–474.

Kamakshi, T., Pritika, K. (2023). Smart railway infrastructure: Fusion of IoT, RFID and VANET for enhanced safety and operational efficiency. IEEE International Conference on Advances in Computational Intelligence and Communication (ICACIC), 1-6.

Kamieński, Ł. (2014). Technologia RFID w amerykańskich siłach zbrojnych: od logistyki do zarządzania personelem.

Kapsalis, K., Belikaidis, I., Sørensen, O. (2021). RFID-based solutions for condition moni-toring of railway infrastructure. Transportation Research Procedia, 56, 27-34.

Kuan, W.-S., Pang, Z.-Y., Tam, K.-W., Chio, C.-H., Ting, S.-W., Leong, I.-P. (2023). Design of UHF RFID tag antenna applied in railway axle counting. IEEE 13th International Conference on RFID Technology and Applications (RFID-TA), 21-24.

Li, W., Xu, J., Niu, W. (2022). A railway warehouse information acquisition system based on passive RFID tag. International Journal of Simulation: Systems, Science & Technol-ogy, 17(28).

Marusin, A., Danilov, I., Popova, I. (2021). The impact of RFID technology on optimizing railway logistics. International Journal of Rail Transport Planning & Management, 19(2), 145–161.

Olaby, O., Hamadache, M., Soper, D., Winship, P., Dixon, R. (2022). Development of a novel railway positioning system using RFID technology. Sensors, 22(6), 2401.

Own, C. M., Lee, D. S., Wang, T. H., Wang, D. J., Ting, Y. L. (2013). Performance evalua-tion of UHF RFID technologies for real-time bus recognition in the Taipei bus station. Sensors, 13(6), 7797-7812.

Popova, I., Evsyukov, V., Danilov, I., Marusin, A. (2021). Application of digital technologies in railway transport. Transportation Research Procedia, 57, 463–469.

Railmarket (2022). La SNCF développe un système de détection intelligente des anomalies sur les trains Pozyskano z: https://fr.railmarket.com/news/technology-innovation/3930-sncf-is-developing-a-system-for-intelligent-detection-of-anomalies-on-trains (22.02.2025).

Railmarket (2023), Branża transportowa wyraża obawy dotyczące niedostatecznie przete-stowanej technologii DAC https://pl.railmarket.com/news/technology-innovation/4863-the-freight-industry-voices-concerns-over-under-tested-dac-technology (22.02.2025).

Railtech (2022), RFID is the answer to defective wheels on Britain’s railways Pozyskano z: https://www.railtech.com/rolling-stock/2022/05/18/rfid-is-the-answer-to-defective-wheels-on-britains-railways/?gdpr=accept (22.02.2025).

Ramesh, R., Divya, G., Thomas, N., Varghese, A., Mahendran, L. (2022). Real-time infor-mation display system for Indian railways using RFID. International Journal of Engi-neering and Technology, 8(3), 45-52.

Sarvade, S., Shirwala, V., Kugaonkar, P., Mudgonda, K. (2025). Optimizing Railway Signal-ing and Platform Management with LoRaWAN, RFID and Automation Technologies. Procedia Computer Science, 252, 557–566.

Scott, J. F. (2019). Ferroelectric Random Access Memories: Past, Present and Future. Inte-grated Ferroelectrics, 199(1), 1-17. Pozyskano z: https://www.tandfonline.com/doi/full/10.1080/10584587.2019.1614225 (21.02.2025).

Siemens (2017). Siemens networks locomotives of Deutsche Bahn Pozyskano z: https://press.siemens.com/global/en/pressrelease/siemens-networks-locomotives-deutsche-bahn (22.02.2025).

Skorobogatov, S. (2010). Reverse engineering Flash EEPROM memories using Scanning Electron Microscopy. University of Cambridge Repository. Pozyskano z: https://www.repository.cam.ac.uk/handle/1810/317394 (21.02.2025).

Soares, J., Luís, M., Sargento, S. (2023). Mobile LoRa gateway for communication and sens-ing on the railway. IEEE Symposium on Computers and Communications (ISCC), 499-502.

Stopka, O., Daniš, J.,Zitrický, V. (2021). Optimization of working procedures in railway transport using RFID. Journal of Rail Transport Planning & Management, 19(2), 245–261.

Sudhakaran, S., Maheswari, R., Devi, V. K. (2024). An improvised analysis of smart data for IoT-based railway system using RFID. Automatika, 65(1), 361-372.

Szilágyi, E., Dupláková, D. (2016). Application of RFID technology for increasing efficien-cy and safety in railway transport. Annals of Faculty Engineering Hunedoara – Interna-tional Journal of Engineering, XIV(3), 139-144.

Talib, N. H., Hasnan, K. B., Nawawi, A. B., Abdullah, H. B. (2020). Monitoring large-scale rail transit systems based on an analytic hierarchy process/gradient-based cuckoo search algorithm (GBCS) scheme. Urban Rail Transit, 6, 132-144.

Watanabe, Y., Haya, H., Shinoda, M., Oomura, H. (2009). Sensor data collection system for health monitoring of railway structures. QR of RTRI, 50(1), 14-25.

Weidong, L., Jinyu, X., Wa, N. (2021). A Railway Warehouse Information Acquisition Sys-tem Based on Passive RFID Tag. International Journal of Engineering Business Man-agement, 17(28), 25–31.

Weiland, D. (2019). Logistics of intangible resources in building a competitive advantage intheoretical terms. Transport Economics and Logistics, Article 82.

Weiland, D., Wierzbowski, P. (2020). Logistyka informacji w gospodarce 4.0. Wydawnictwo Uniwersytetu Gdańskiego.

Yang, Y., Xu, X., Liu, Z. Z., Tan, Y. H., Luo, Z. (2022). Automatic deceleration and braking research for driverless vehicles in rail transit based on internet of vehicles. Internation-al Journal of Vehicle Structures & Systems, 14(5), 640-644.

Zitrický, V., Daniš, J., Stopka, O. (2021). Smart railway operations: Implementation of RFID in European rail corridors. Journal of Transport and Supply Chain Innovation, 32(4), 345–368.

Zhang, X., & Tentzeris, M. (2011). Applications of fast-moving RFID tags in high-speed railway systems. International Journal of Engineering Business Management, 3(1), 27-31.

Published

2025-04-30

How to Cite

Weiland, D. (2025). INNOVATIVE TECHNOLOGIES FOR RAILWAY FLEET MONITORING: THE SIGNIFICANCE OF RFID IN ADDRESSING CONTEMPORARY ECONOMIC AND SECURITY CHALLENGES. Contemporary Economy, 19(1/S). https://doi.org/10.26881/wg.2025.1/S.09