Coordinated energy management for EH with responsive demands considering hydrogen storage and PEV preheating in cold climates

• The energy hub optimizes energy flow for electrical, thermal, and NG demands. • Smart energy hubs integrate RESs, ESSs, PEVs, HSSs, and multi-carrier systems. • Two preheating technologies, for indoor and outdoor use, enhance PEV performance. • The model cuts operational costs by 2.034% and emissions by 0.928%, ensuring reliability. • Optimization framework improves energy efficiency, cost savings, and emissions. The energy hub (EH) is designed to optimize the management of diverse energy demands, such as electrical, thermal, and natural gas (NG) requirements. To achieve this target, modern EHs integrate a variety of assets such as renewable energy sources (RESs), energy storage systems (ESSs), plug-in electric vehicles (PEVs), hydrogen systems, and a combination of other multi-carrier energy systems (MESs). In recent years, the adoption of PEVs has grown significantly as part of sustainability efforts. However, their charging and discharging efficiency is highly sensitive to ambient temperature. Therefore, in cold climates like Finland, incorporating advanced preheating technologies for PEVs within smart EHs is essential for maintaining battery efficiency and ensuring optimal vehicle performance. In this regard, this paper proposes coordinated optimal operation strategies for smart EHs by integrating hydrogen storage systems (HSSs) and responsive demands. The proposed approach employs an optimization framework to efficiently manage energy flows and enhance the coordination of MESs. Additionally, the study introduces two preheating technologies, addressing both indoor and outdoor scenarios, to further improve PEV performance. By leveraging coordinated HSSs and advanced preheating solutions, the proposed model, as demonstrated by the results, achieves reductions in operational costs and emissions by 2.034% and 0.928%, respectively, while maintaining good battery efficiency and reliable vehicle performance during charging in low-temperature conditions.

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Publication Details

Journal
Energy Conversion and Management
Published
2025-06-13
DOI
https://doi.org/10.1016/j.enconman.2025.120046
Citations
3
Primary Topic
Hybrid Renewable Energy Systems
Type
article
Field-Weighted Citation Impact
1.60
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article

Coordinated energy management for EH with responsive demands considering hydrogen storage and PEV preheating in cold climates

Matti Lehtonen, Karar Mahmoud, Hossam H. H. Mousa
3 citations
Energy Conversion and Management
Hybrid Renewable Energy Systems
1.60
article

Coordinated energy management for EH with responsive demands considering hydrogen storage and PEV preheating in cold climates

Matti Lehtonen, Karar Mahmoud, Hossam H. H. Mousa
article en
3 citations

Abstract

• The energy hub optimizes energy flow for electrical, thermal, and NG demands. • Smart energy hubs integrate RESs, ESSs, PEVs, HSSs, and multi-carrier systems. • Two preheating technologies, for indoor and outdoor use, enhance PEV performance. • The model cuts operational costs by 2.034% and emissions by 0.928%, ensuring reliability. • Optimization framework improves energy efficiency, cost savings, and emissions. The energy hub (EH) is designed to optimize the management of diverse energy demands, such as electrical, thermal, and natural gas (NG) requirements. To achieve this target, modern EHs integrate a variety of assets such as renewable energy sources (RESs), energy storage systems (ESSs), plug-in electric vehicles (PEVs), hydrogen systems, and a combination of other multi-carrier energy systems (MESs). In recent years, the adoption of PEVs has grown significantly as part of sustainability efforts. However, their charging and discharging efficiency is highly sensitive to ambient temperature. Therefore, in cold climates like Finland, incorporating advanced preheating technologies for PEVs within smart EHs is essential for maintaining battery efficiency and ensuring optimal vehicle performance. In this regard, this paper proposes coordinated optimal operation strategies for smart EHs by integrating hydrogen storage systems (HSSs) and responsive demands. The proposed approach employs an optimization framework to efficiently manage energy flows and enhance the coordination of MESs. Additionally, the study introduces two preheating technologies, addressing both indoor and outdoor scenarios, to further improve PEV performance. By leveraging coordinated HSSs and advanced preheating solutions, the proposed model, as demonstrated by the results, achieves reductions in operational costs and emissions by 2.034% and 0.928%, respectively, while maintaining good battery efficiency and reliable vehicle performance during charging in low-temperature conditions.

Energy Conversion and ManagementVol. 341
South Valley University (EG), Constanta Maritime University (RO), Aswan University (EG), Aalto University (FI)
Climate action
Openalex Percentile: Top 15%
Hybrid Renewable Energy Systems
1.60
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