Reliability analysis of heterogeneous redundant systems with common cause failure using an enhanced goal-oriented methodology

This paper addresses the reliability analysis of multivariate heterogeneous redundant systems subject to common cause failure (CCF). Traditional CCF models typically rely on homogeneous assumptions and time-invariant failure mechanisms, which limit their applicability to complex software-intensive systems. To overcome these limitations, an enhanced goal-oriented (GO) methodology is developed by modelling CCF as the interaction between continuous performance degradation and random external shocks. The proposed framework integrates stochastic degradation processes and Poisson-driven shock models with predefined failure thresholds to quantify time-varying CCF probabilities in heterogeneous redundant structures. The method is applied to a radio heliograph system to demonstrate its effectiveness. Comparative results show that neglecting CCF leads to overestimation of system reliability, while the proposed approach provides a more realistic and accurate assessment. The framework extends the applicability of GO-based reliability analysis to complex systems with heterogeneous components and dynamic failure mechanisms.

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Publication Details

Journal
International Journal of Systems Science
Published
2026-06-27
DOI
https://doi.org/10.1080/00207721.2026.2691980
Primary Topic
Software Reliability and Analysis Research
Type
article
Field-Weighted Citation Impact
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article

Reliability analysis of heterogeneous redundant systems with common cause failure using an enhanced goal-oriented methodology

Xiaojian Yi, Lei Niu, Wenxiao Fan, Chenhao Xu et al.
International Journal of Systems Science
Software Reliability and Analysis Research
article

Reliability analysis of heterogeneous redundant systems with common cause failure using an enhanced goal-oriented methodology

Xiaojian Yi, Lei Niu, Wenxiao Fan, Chenhao Xu, Weijie Liang
article en

Abstract

This paper addresses the reliability analysis of multivariate heterogeneous redundant systems subject to common cause failure (CCF). Traditional CCF models typically rely on homogeneous assumptions and time-invariant failure mechanisms, which limit their applicability to complex software-intensive systems. To overcome these limitations, an enhanced goal-oriented (GO) methodology is developed by modelling CCF as the interaction between continuous performance degradation and random external shocks. The proposed framework integrates stochastic degradation processes and Poisson-driven shock models with predefined failure thresholds to quantify time-varying CCF probabilities in heterogeneous redundant structures. The method is applied to a radio heliograph system to demonstrate its effectiveness. Comparative results show that neglecting CCF leads to overestimation of system reliability, while the proposed approach provides a more realistic and accurate assessment. The framework extends the applicability of GO-based reliability analysis to complex systems with heterogeneous components and dynamic failure mechanisms.

International Journal of Systems Science
Beijing Institute of Technology (CN), PLA Army Engineering University (CN), Beihang University (CN)
Openalex Percentile: Top 3%
Software Reliability and Analysis Research
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