Advancing rail safety: An onboard measurement system of rolling stock wheel flange wear based on dynamic machine learning algorithms
Celestin Nkundineza, James Ndodana Njaji, Samrawit Abubeker, Omar Gatera, Damien Hanyurwimfura

TL;DR
This paper presents an onboard railway wheel flange wear measurement system that combines dynamic machine learning algorithms and noise filtering to provide accurate, real-time safety monitoring of wheel and track conditions.
Contribution
It introduces a novel onboard measurement system utilizing machine learning and IIR filtering, validated through experiments, to improve accuracy in monitoring wheel flange wear.
Findings
Achieves 96.5% accuracy with machine learning algorithms.
Enhances accuracy to 98.2% with IIR noise filtering.
Provides real-time insights for railway safety and maintenance.
Abstract
Rail and wheel interaction functionality is pivotal to the railway system safety, requiring accurate measurement systems for optimal safety monitoring operation. This paper introduces an innovative onboard measurement system for monitoring wheel flange wear depth, utilizing displacement and temperature sensors. Laboratory experiments are conducted to emulate wheel flange wear depth and surrounding temperature fluctuations in different periods of time. Employing collected data, the training of machine learning algorithms that are based on regression models, is dynamically automated. Further experimentation results, using standards procedures, validate the system's efficacy. To enhance accuracy, an infinite impulse response filter (IIR) that mitigates vehicle dynamics and sensor noise is designed. Filter parameters were computed based on specifications derived from a Fast Fourier…
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