Data Fusion and Real-Time Analytics: Elevating Signal Integrity and Rail System Resilience

Authors

  • Sujith Kumar Kupunarapu

DOI:

https://doi.org/10.53555/ephijse.v9i1.280

Keywords:

Rail Safety, Sensor Fusion, Machine Learning in Rail, Railway Automation, , Track Monitoring, Remote Condition Monitoring

Abstract

Systems of rail signaling control both safety and effective train movement. Major obstacles do, however, including human mistake, signal failures, infrastructure limits, and interrupted connection. Handling these problems requires a change toward smart, data-driven solutions as rail systems get ever more complicated. By means of data integration and analysis across numerous sources in real time, data fusion and actual time analytics have become necessary technologies to strengthen the robustness of rail signaling systems.That makes sense—that enhances situational awareness and decision-making—using sensor networks, IoT devices, and machine learning algorithms depends primarily on multi-source data integration. Trackside sensors, onboard systems, and outside environmental data combined enables rail operators maximize traffic management, discover anomalies, and project problems. Real-time analytics helps to increase safety measures by allowing proactive reactions to likely interruptions, therefore lowering delays. By improving predictive maintenance procedures, machine learning models enable to reduce unplanned downtime and increase the lifetime of important equipment. Among the predicted advantages of these developments are major gains in operating efficiency, safety, and maintenance techniques as well as early diagnosis of signaling issues, improved train movement, and reduced hand involvement that let rail systems run with more regularity. While real-time monitoring reduces risk associated with signal failures and track obstacles, enhanced predictive maintenance saves maintenance costs and increases asset use. These advantages are shown by means of a case study on the application of data-driven signaling upgrades in a goods rail system. Results define less signal failures, more precise train scheduling, and faster reaction times to operational disturbances. Combining analytics with data fusion has shown updating rail signaling to be a transformative method guaranteeing strong and sustainable railway operations in face of increasing demand and technical developments.

Author Biography

Sujith Kumar Kupunarapu

Software Architect at CSX

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Published

2023-01-05