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May 14, 2026Journal of Quality in Maintenance Engineering1 citations

A hybrid machine learning framework for multidimensional risk analysis with integrated uncertainty quantification and explainability for optimized inspection planning

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MAMohamed AttiaSaudi Aramco Medical Services Organization

Key Points

  • This study aims to enhance risk-based inspection methods by integrating machine learning for better safety management.
  • Developed a hybrid intelligence system using a weighted, stacked ensemble classifier to predict probability of failure.
  • Employed bootstrap resampling for generating 95% confidence intervals for uncertainty quantification.
  • Integrated SHapley Additive exPlanations to ensure model interpretability and created actionable inspection plans.
  • The MDRA framework generated reliable and explainable inspection priorities by combining deterministic rules with probabilistic insights.
  • Successfully identified an equilibrium between safety, integrity, reliability, availability, environmental responsibility, and cost-effectiveness.
  • Improved transparency and robustness in risk assessments, leading to context-aware prioritization of maintenance activities.

Abstract

Purpose Balancing cost-effectiveness and availability against safety and environmental stewardship remains a persistent challenge in asset management. Conventional Risk-Based Inspection (RBI) often depends on imprecise qualitative assessments, while modern data-driven methods frequently lack transparency. This study addresses this gap by introducing the multidimensional risk analysis (MDRA) framework, which offers a comprehensive, transparent, and actionable risk profile for safety-critical assets. Design/methodology/approach A hybrid intelligence system utilizing a weighted, stacked ensemble classifier was developed to predict the probability of failure (PoF). Bootstrap resampling was employed to generate 95% confidence intervals for uncertainty quantification. To address the limitations of the “black box” nature of standard AI, SHapley Additive exPlanations (SHAP) were integrated to ensure full model interpretability. Finally, a hierarchical, rule-based engine translated these probabilistic outputs into actionable inspection plans for industrial assets. Findings The application of the MDRA framework successfully demonstrated the capacity to generate reliable and explainable inspection priorities. By integrating deterministic rules with probabilistic machine learning insights, the system produced robust, data-driven inspection plans that accounted for uncertainty. The framework proved capable of identifying the equilibrium between six critical operational values: safety, integrity, reliability, availability, environmental responsibility, and cost-effectiveness, translating complex risk data into clear, actionable maintenance decisions. Originality/value This paper presents a new framework that overcomes key limitations of traditional risk-based methods and opaque advanced analytics. Its main contribution is the integration of explainable AI (XAI) and uncertainty quantification into safety-critical asset management. By combining model interpretability with probabilistic risk estimates, the MDRA framework improves the transparency, robustness, and reliability of data-driven risk assessments. This dual focus on explanation and uncertainty allows for more confident and context-aware prioritization of inspection and maintenance activities, supporting operational efficiency while upholding safety and environmental standards.

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Cite This Study

Mohamed Attia (2026) studied this question.

synapsesocial.com/papers/6a0567bca550a87e60a1ff96https://doi.org/10.1108/jqme-12-2025-0151
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