A novel degradation-rate-volatility related effect Wiener process model with its extension to accelerated ageing data analysis

•We propose a novel degradation-rate-volatility related effect Wiener process model.•Model-RV has high accuracy in ageing process modeling and RUL prediction.•We extend Model-RV to AAT by incorporating stress-acceleration models.•A set of 3S-60 silicon rubber accelerated ageing data is used for illu...

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Published inReliability engineering & system safety Vol. 204; p. 107138
Main Authors Yan, Bingxin, Ma, Xiaobing, Yang, Li, Wang, Han, Wu, Tianyi
Format Journal Article
LanguageEnglish
Published Barking Elsevier Ltd 01.12.2020
Elsevier BV
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Abstract •We propose a novel degradation-rate-volatility related effect Wiener process model.•Model-RV has high accuracy in ageing process modeling and RUL prediction.•We extend Model-RV to AAT by incorporating stress-acceleration models.•A set of 3S-60 silicon rubber accelerated ageing data is used for illustration. For some materials, positive correlations between degradation rate and volatility are common observations affecting health evolution processes, referred as degradation-rate-volatility related effect. Ignoring such correlations may weaken the stability and precision of prognosis outcomes, ultimately misleading maintenance decision-makings. However, few attempts explore physical integrations of rate-volatility correlations, while quantify the correlation pattern polluted by random effect. Besides, achieving high accuracy of degradation modeling emphasizes the influence of systematic error. We address such technical challenges by constructing a Wiener-based degradation model integrating: (a) time-variant drift and diffusion coefficients linked by a linear function and (b) a systematic error term independent of process variances. Joint statistical inference employing expectation maximization (EM) is executed, based on which the analytical structure of RUL distribution is constructed. We further extend the prognosis approach to accelerated ageing test (AAT) by incorporating the stress-acceleration models. A case study on degradation data of 3S-60 silicon rubber states the superior performance of the proposed approach in reducing fitting error of degradation trajectory as well as improving the RUL prediction accuracy.
AbstractList For some materials, positive correlations between degradation rate and volatility are common observations affecting health evolution processes, referred as degradation-rate-volatility related effect. Ignoring such correlations may weaken the stability and precision of prognosis outcomes, ultimately misleading maintenance decision-makings. However, few attempts explore physical integrations of rate-volatility correlations, while quantify the correlation pattern polluted by random effect. Besides, achieving high accuracy of degradation modeling emphasizes the influence of systematic error. We address such technical challenges by constructing a Wiener-based degradation model integrating: (a) time-variant drift and diffusion coefficients linked by a linear function and (b) a systematic error term independent of process variances. Joint statistical inference employing expectation maximization (EM) is executed, based on which the analytical structure of RUL distribution is constructed. We further extend the prognosis approach to accelerated ageing test (AAT) by incorporating the stress-acceleration models. A case study on degradation data of 3S-60 silicon rubber states the superior performance of the proposed approach in reducing fitting error of degradation trajectory as well as improving the RUL prediction accuracy.
•We propose a novel degradation-rate-volatility related effect Wiener process model.•Model-RV has high accuracy in ageing process modeling and RUL prediction.•We extend Model-RV to AAT by incorporating stress-acceleration models.•A set of 3S-60 silicon rubber accelerated ageing data is used for illustration. For some materials, positive correlations between degradation rate and volatility are common observations affecting health evolution processes, referred as degradation-rate-volatility related effect. Ignoring such correlations may weaken the stability and precision of prognosis outcomes, ultimately misleading maintenance decision-makings. However, few attempts explore physical integrations of rate-volatility correlations, while quantify the correlation pattern polluted by random effect. Besides, achieving high accuracy of degradation modeling emphasizes the influence of systematic error. We address such technical challenges by constructing a Wiener-based degradation model integrating: (a) time-variant drift and diffusion coefficients linked by a linear function and (b) a systematic error term independent of process variances. Joint statistical inference employing expectation maximization (EM) is executed, based on which the analytical structure of RUL distribution is constructed. We further extend the prognosis approach to accelerated ageing test (AAT) by incorporating the stress-acceleration models. A case study on degradation data of 3S-60 silicon rubber states the superior performance of the proposed approach in reducing fitting error of degradation trajectory as well as improving the RUL prediction accuracy.
ArticleNumber 107138
Author Yang, Li
Yan, Bingxin
Ma, Xiaobing
Wang, Han
Wu, Tianyi
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Keywords Wiener process
Accelerated ageing test
Degradation-rate-volatility related effect
Systematic error
Silicon rubber
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Snippet •We propose a novel degradation-rate-volatility related effect Wiener process model.•Model-RV has high accuracy in ageing process modeling and RUL...
For some materials, positive correlations between degradation rate and volatility are common observations affecting health evolution processes, referred as...
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SubjectTerms Accelerated ageing test
Accelerated aging tests
Accelerated tests
Aging
Correlation analysis
Data analysis
Degradation
Degradation-rate-volatility related effect
Diffusion coefficient
Error reduction
Linear functions
Model accuracy
Prognosis
Reliability engineering
Silicon rubber
Statistical inference
Systematic error
Systematic errors
Volatility
Wiener process
Title A novel degradation-rate-volatility related effect Wiener process model with its extension to accelerated ageing data analysis
URI https://dx.doi.org/10.1016/j.ress.2020.107138
https://www.proquest.com/docview/2506645720
Volume 204
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