Designing a predictive framework on logistical failures for the global oil and gas supply chain

• DBN-GNN-FIS based hybrid framework predicts multimodal disruptions for the GSC. • Trained on 2013-2023 disruptions and validated using 2024 benchmarking data. • Delivers predictive precision at 95% CI, CV <3%, SD <0.45%, observed deviation <4%. • Strengthens predictive planning and aligns with SDG 7 (7.3, 7.a, 7.b) targets. The global oil and gas supply chain (GSC) is a complex, multimodal network that depends on seamless coordination across upstream extraction, midstream transport, and downstream distribution. However, existing models often treat these layers independently, overlooking the probabilistic interdependence and propagation of failures. Addressing this limitation, the present study develops a Diagnostic-Predictive-Adaptive learning-based hybrid framework that integrates Diagnostic Bayesian Network (DBN), Graph Neural Network (GNN), and Fuzzy Inference System (FIS) to predict and interpret logistical failures across the GSC. Historical disruption data from 2013-2023 are used to train the framework which combines probabilistic inference (through DBN), relational learning (through GNN), and adaptive weighting (through FIS) to map the interconnectedness among logistical modes (i.e., pipelines, rail-roadways and waterways) for the GSC network. Validation through sensitivity analysis, convergence stability, and benchmarking using 2024 disruption data within a 95% Confidence Interval (CI) demonstrates robust predictive performance, with Co-efficient of Variation (CV) below 3%, Standard Deviations (SD) under 0.45%, and a prediction deviation below 4% relative to observed disruption patterns. It also accurately captures the directional imbalance between inbound-outbound failures, strengthens early-warning systems for capacity and strategic logistical planning and further supports resilient supply chain operations aligned with the United Nations Sustainable Development Goal 7 (7.3, 7.a, and 7.b) targets on energy efficiency, innovation, and reliability.

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Publication Details

Journal
Results in Engineering
Published
2025-11-20
DOI
https://doi.org/10.1016/j.rineng.2025.108242
Citations
1
Primary Topic
Supply Chain Resilience and Risk Management
Type
article
Field-Weighted Citation Impact
2.23
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article

Designing a predictive framework on logistical failures for the global oil and gas supply chain

Sandeep Mondal, Sanchari Ghosh
1 citations
Results in Engineering
Supply Chain Resilience and Risk Management
2.23
article

Designing a predictive framework on logistical failures for the global oil and gas supply chain

Sandeep Mondal, Sanchari Ghosh
article en
1 citations

Abstract

• DBN-GNN-FIS based hybrid framework predicts multimodal disruptions for the GSC. • Trained on 2013-2023 disruptions and validated using 2024 benchmarking data. • Delivers predictive precision at 95% CI, CV <3%, SD <0.45%, observed deviation <4%. • Strengthens predictive planning and aligns with SDG 7 (7.3, 7.a, 7.b) targets. The global oil and gas supply chain (GSC) is a complex, multimodal network that depends on seamless coordination across upstream extraction, midstream transport, and downstream distribution. However, existing models often treat these layers independently, overlooking the probabilistic interdependence and propagation of failures. Addressing this limitation, the present study develops a Diagnostic-Predictive-Adaptive learning-based hybrid framework that integrates Diagnostic Bayesian Network (DBN), Graph Neural Network (GNN), and Fuzzy Inference System (FIS) to predict and interpret logistical failures across the GSC. Historical disruption data from 2013-2023 are used to train the framework which combines probabilistic inference (through DBN), relational learning (through GNN), and adaptive weighting (through FIS) to map the interconnectedness among logistical modes (i.e., pipelines, rail-roadways and waterways) for the GSC network. Validation through sensitivity analysis, convergence stability, and benchmarking using 2024 disruption data within a 95% Confidence Interval (CI) demonstrates robust predictive performance, with Co-efficient of Variation (CV) below 3%, Standard Deviations (SD) under 0.45%, and a prediction deviation below 4% relative to observed disruption patterns. It also accurately captures the directional imbalance between inbound-outbound failures, strengthens early-warning systems for capacity and strategic logistical planning and further supports resilient supply chain operations aligned with the United Nations Sustainable Development Goal 7 (7.3, 7.a, and 7.b) targets on energy efficiency, innovation, and reliability.

Results in EngineeringVol. 28
Indian Institute of Technology Dhanbad (IN)
Openalex Percentile: Top 8%
Supply Chain Resilience and Risk Management
2.23
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Designing a predictive framework on logistical failures for the global oil and gas supply chain — Sandeep Mondal, Sanchari Ghosh · Results in Engineering (2025) | TGRS Research Map | TGRS