Modeling localized bearing faults using inverse Gaussian mixtures

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Pavle Boškoski Ðani Juričić

Abstract

Localized bearing faults exhibit specific repetitive vibrational patterns. Due to the constant angular distance between the roller elements, the vibrational patterns occur on regular angular intervals. Under constant operating conditions such patterns become easily detectable as “periodic” events. Slippage or small variation in rotational speed are commonly modeled by introducing normally distributed time variations, which al- lows for occurrence of “negative” time intervals. In this paper we present an approach which models the occurrences of localized bearing fault patterns as a realization of random point process whose inter-event time intervals are governed by inverse Gaussian mixture. Having support on (0, ∞), the random impact times can acquire strictly positive values. The applicability of the model was evaluated on vibrational signals generated by bearing models with localized surface fault.

How to Cite

Boškoski, P., & Juričić, Ðani . (2013). Modeling localized bearing faults using inverse Gaussian mixtures. Annual Conference of the PHM Society, 5(1). https://doi.org/10.36001/phmconf.2013.v5i1.2230
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Keywords

Bayes factor, Bearing Faults, inverse Gaussian mixture

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