Joint modeling of degradation signals and time‐to‐event data for the prediction of remaining useful life

Abstract Accurate prediction of remaining useful life (RUL) for in‐service systems plays an important role in ensuring efficient operation of industrial equipment and in preventing unexpected equipment failures. In this paper, we present a prognostic framework for real‐time RUL prediction based on joint modeling of both degradation signals and time‐to‐event data. The proposed model employs a change point‐based general path model to capture signal non‐linearity and Neural network (NN) based Cox model to link the time‐to‐event data with the estimated degradation trend. An empirical two‐step scheme for hyperparameter estimation is proposed to enhance prognostic accuracy. Furthermore, an efficient Bayesian model updating procedure, integrated with recursive particle filtering, is used to facilitate online prediction, achieving accurate RUL prediction in real‐time and accounting for uncertainties in RUL prediction. Simulation and real‐life case studies demonstrate the advantages of the proposed method over existing approaches.

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Publication Details

Journal
Quality and Reliability Engineering International
Published
2024-10-28
DOI
https://doi.org/10.1002/qre.3673
Citations
3
Primary Topic
Reliability and Maintenance Optimization
Type
article
Field-Weighted Citation Impact
1.09
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article

Joint modeling of degradation signals and time‐to‐event data for the prediction of remaining useful life

Junde Chen, Erik Linstead, S. Brumm, Yuxin Wen et al.
3 citations
Quality and Reliability Engineering International
Reliability and Maintenance Optimization
1.09
article

Joint modeling of degradation signals and time‐to‐event data for the prediction of remaining useful life

Junde Chen, Erik Linstead, S. Brumm, Yuxin Wen, Narayanaswamy Balakrishnan
article en
3 citations

Abstract

Abstract Accurate prediction of remaining useful life (RUL) for in‐service systems plays an important role in ensuring efficient operation of industrial equipment and in preventing unexpected equipment failures. In this paper, we present a prognostic framework for real‐time RUL prediction based on joint modeling of both degradation signals and time‐to‐event data. The proposed model employs a change point‐based general path model to capture signal non‐linearity and Neural network (NN) based Cox model to link the time‐to‐event data with the estimated degradation trend. An empirical two‐step scheme for hyperparameter estimation is proposed to enhance prognostic accuracy. Furthermore, an efficient Bayesian model updating procedure, integrated with recursive particle filtering, is used to facilitate online prediction, achieving accurate RUL prediction in real‐time and accounting for uncertainties in RUL prediction. Simulation and real‐life case studies demonstrate the advantages of the proposed method over existing approaches.

Quality and Reliability Engineering InternationalVol. 41(2)
Georgia Institute of Technology (US), Chapman University (US), McMaster University (CA)
Openalex Percentile: Top 23%
Reliability and Maintenance Optimization
1.09
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