Hydrogen valleys to foster local decarbonisation targets: a multiobjective optimisation approach for energy planning

Hydrogen Valley represents localised ecosystems that enable the integrated production, storage, distribution, and utilisation of hydrogen to support the decarbonisation of the energy system. However, planning such integrated systems necessitates a detailed evaluation of their interconnections with variable renewable generation, sector coupling, and system flexibility. The novelty of this work lies in addressing a critical gap in system-level modelling for Hydrogen Valleys by introducing an optimization-based framework to determine their optimal configuration. This study focuses on the scenario-based, multiobjective design of local hydrogen energy systems, considering renewable integration, infrastructure deployment, and sector coupling. We developed and simulated three scenarios based on varying hydrogen pathways and penetration levels using the EnergyPLAN model, implemented through a custom MATLAB Toolbox. Several decision variables, such as renewable energy capacity, electrolyser size, and hydrogen storage, were optimised to minimise CO₂ emissions, total annual system cost, and critical excess electricity production simultaneously. The findings show that Hydrogen Valley deployment can reduce CO₂ emissions by up to 30 %, triple renewable penetration in the primary energy supply, and lower the levelized cost of hydrogen from 7.6 €/kg to 5.6 €/kg, despite a moderate increase in the total cost of the system. The approach highlights the potential of sector coupling and Power-to-X technologies in enhancing system flexibility and supporting green hydrogen integration. The outcome of our research offers valuable insights for policymakers and planners seeking to align local hydrogen strategies with broader decarbonisation targets and regulatory frameworks. • A holistic approach for integrating renewable energy and hydrogen planning. • Three scenarios with various capacities of renewable energy and hydrogen generation. • Multiobjective optimisation has been used in combination with the EnergyPLAN software. • Decentralised Hydrogen Valley provides substantial emissions reduction.

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Publication Details

Journal
Applied Energy
Published
2025-10-13
DOI
https://doi.org/10.1016/j.apenergy.2025.126851
Citations
2
Primary Topic
Integrated Energy Systems Optimization
Type
article
Field-Weighted Citation Impact
1.46
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article

Hydrogen valleys to foster local decarbonisation targets: a multiobjective optimisation approach for energy planning

Gianluigi Lo Basso, Livio de Santoli, Alessandro Ciancio, Endeshaw Alemu Bekele et al.
2 citations
Applied Energy
Integrated Energy Systems Optimization
1.46
article

Hydrogen valleys to foster local decarbonisation targets: a multiobjective optimisation approach for energy planning

Gianluigi Lo Basso, Livio de Santoli, Alessandro Ciancio, Endeshaw Alemu Bekele, Lorenzo Mario Pastore, Antonio Sgaramella
article en
2 citations

Abstract

Hydrogen Valley represents localised ecosystems that enable the integrated production, storage, distribution, and utilisation of hydrogen to support the decarbonisation of the energy system. However, planning such integrated systems necessitates a detailed evaluation of their interconnections with variable renewable generation, sector coupling, and system flexibility. The novelty of this work lies in addressing a critical gap in system-level modelling for Hydrogen Valleys by introducing an optimization-based framework to determine their optimal configuration. This study focuses on the scenario-based, multiobjective design of local hydrogen energy systems, considering renewable integration, infrastructure deployment, and sector coupling. We developed and simulated three scenarios based on varying hydrogen pathways and penetration levels using the EnergyPLAN model, implemented through a custom MATLAB Toolbox. Several decision variables, such as renewable energy capacity, electrolyser size, and hydrogen storage, were optimised to minimise CO₂ emissions, total annual system cost, and critical excess electricity production simultaneously. The findings show that Hydrogen Valley deployment can reduce CO₂ emissions by up to 30 %, triple renewable penetration in the primary energy supply, and lower the levelized cost of hydrogen from 7.6 €/kg to 5.6 €/kg, despite a moderate increase in the total cost of the system. The approach highlights the potential of sector coupling and Power-to-X technologies in enhancing system flexibility and supporting green hydrogen integration. The outcome of our research offers valuable insights for policymakers and planners seeking to align local hydrogen strategies with broader decarbonisation targets and regulatory frameworks. • A holistic approach for integrating renewable energy and hydrogen planning. • Three scenarios with various capacities of renewable energy and hydrogen generation. • Multiobjective optimisation has been used in combination with the EnergyPLAN software. • Decentralised Hydrogen Valley provides substantial emissions reduction.

Applied EnergyVol. 402
Istituto Universitario di Studi Superiori di Pavia (IT), Sapienza University of Rome (IT)
Openalex Percentile: Top 15%
Integrated Energy Systems Optimization
1.46
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