Risk Assessment of Grid-Integrated Energy Service Projects: A Hybrid Indicator-Based Fuzzy-Entropy-BP Evaluation Framework

Grid-integrated energy service (GIES) projects are characterized by strong cross-energy coupling and long investment horizons, resulting in multidimensional and nonlinear risk profiles. To address these challenges, this study develops an indicator-based risk evaluation framework by integrating an entropy–back-propagation (BP) combined weighting method with fuzzy matter-element theory. A 30-indicator system covering economic, environmental, and safety and reliability dimensions is constructed to support systematic risk assessment. The entropy–BP scheme combines data-driven objectivity with nonlinear correction, producing stable and interpretable indicator weights, as confirmed through robustness tests based on indicator removal and data perturbation. A real-world GIES project in East China is used as a case study. The results show clear risk grade differentiation among alternative scenarios and identify key risk drivers related to renewable energy integration, investment structure, and energy supply reliability. The proposed framework provides effective decision support for GIES project planning and risk management.

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Publication Details

Journal
Sustainability
Published
2026-01-19
DOI
https://doi.org/10.3390/su18021002
Primary Topic
Integrated Energy Systems Optimization
Type
article
Field-Weighted Citation Impact
0.00

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article

Risk Assessment of Grid-Integrated Energy Service Projects: A Hybrid Indicator-Based Fuzzy-Entropy-BP Evaluation Framework

Yu Sun, Haoran Du
Sustainability
Integrated Energy Systems Optimization
article

Risk Assessment of Grid-Integrated Energy Service Projects: A Hybrid Indicator-Based Fuzzy-Entropy-BP Evaluation Framework

Yu Sun, Haoran Du
article en

Abstract

Grid-integrated energy service (GIES) projects are characterized by strong cross-energy coupling and long investment horizons, resulting in multidimensional and nonlinear risk profiles. To address these challenges, this study develops an indicator-based risk evaluation framework by integrating an entropy–back-propagation (BP) combined weighting method with fuzzy matter-element theory. A 30-indicator system covering economic, environmental, and safety and reliability dimensions is constructed to support systematic risk assessment. The entropy–BP scheme combines data-driven objectivity with nonlinear correction, producing stable and interpretable indicator weights, as confirmed through robustness tests based on indicator removal and data perturbation. A real-world GIES project in East China is used as a case study. The results show clear risk grade differentiation among alternative scenarios and identify key risk drivers related to renewable energy integration, investment structure, and energy supply reliability. The proposed framework provides effective decision support for GIES project planning and risk management.

SustainabilityVol. 18(2)
Tianjin University (CN), North China University of Water Resources and Electric Power (CN)
North China University of Water Resources and Electric Power, Tianjin University
Affordable and clean energy
Openalex Percentile: Top 84%
Integrated Energy Systems Optimization
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