The AI-Driven Hydrogen Community: A Critical Review of Design Strategies for Decentralized Integrated Energy Systems

Hydrogen-integrated decentralized energy systems (DIESs) promise communities higher renewable penetration, greater resilience, and sector coupling across electricity, heat, and mobility. AI supports forecasting, dispatch optimization, multi-asset coordination, and planning, yet designing AI-driven hydrogen communities is challenging because it spans physical infrastructure, cyber-control, and governance. This review (2020–2025) synthesizes design strategies for AI-enabled hydrogen DIESs, distilling architectural patterns, electricity–hydrogen co-optimization, uncertainty-aware operation, and digital-twin planning. It summarizes AI benefits (flexibility, efficiency, reduced curtailment) and recurring risks (forecast-optimization cascades, objective mismatch, data drift, safety and constraint breaches, digital-twin credibility gaps, cybersecurity and privacy issues, and weak reproducibility) and proposes a pragmatic roadmap prioritizing safety-aware control, standardized metrics, transparent assumptions, and community-appropriate governance.

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Publication Details

Journal
Designs
Published
2026-01-29
DOI
https://doi.org/10.3390/designs10010012
Primary Topic
Integrated Energy Systems Optimization
Type
article
Field-Weighted Citation Impact
0.00

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article

The AI-Driven Hydrogen Community: A Critical Review of Design Strategies for Decentralized Integrated Energy Systems

Elena Simina Lakatos, Florina-Ambrozia Coteț, Sàra Ferenci, Loránd Szabó
Designs
Integrated Energy Systems Optimization
article

The AI-Driven Hydrogen Community: A Critical Review of Design Strategies for Decentralized Integrated Energy Systems

Elena Simina Lakatos, Florina-Ambrozia Coteț, Sàra Ferenci, Loránd Szabó
article en

Abstract

Hydrogen-integrated decentralized energy systems (DIESs) promise communities higher renewable penetration, greater resilience, and sector coupling across electricity, heat, and mobility. AI supports forecasting, dispatch optimization, multi-asset coordination, and planning, yet designing AI-driven hydrogen communities is challenging because it spans physical infrastructure, cyber-control, and governance. This review (2020–2025) synthesizes design strategies for AI-enabled hydrogen DIESs, distilling architectural patterns, electricity–hydrogen co-optimization, uncertainty-aware operation, and digital-twin planning. It summarizes AI benefits (flexibility, efficiency, reduced curtailment) and recurring risks (forecast-optimization cascades, objective mismatch, data drift, safety and constraint breaches, digital-twin credibility gaps, cybersecurity and privacy issues, and weak reproducibility) and proposes a pragmatic roadmap prioritizing safety-aware control, standardized metrics, transparent assumptions, and community-appropriate governance.

DesignsVol. 10(1)
Technical University of Cluj-Napoca (RO), Academia Oamenilor de Știință din România (RO), Institutul de Cercetari Biologice Cluj-Napoca (RO)
Interreg
Openalex Percentile: Top 73%
Integrated Energy Systems Optimization
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