Internet of Energy based cellular structures for distributed Microgrids

In the face of evolving global energy challenges and the urgent need for resilient, decentralized, and digitized power systems, the concept of the Internet of Energy (IoE) emerges as a transformative framework for modern energy infrastructure. This paper explores the development and implementation of IoE-based cellular structures within distributed Microgrids, with a focus on Ukraine’s critical need for energy security and system restoration. Embracing the “3D” paradigm–Decarbonization, Decentralization, and Digitalization–the proposed architecture organizes energy systems into interconnected energy cells. These cells leverage distributed energy resources, demand-side management, and Energy Cloud 4.0 technologies to enable real-time energy balancing, market participation, and transactive energy operations. The paper presents a comprehensive structure for Microgrids based on IoE principles, detailing energy cell typologies, control algorithms for cost optimization, and strategies for grid flexibilityand reliability. It highlights how cellular architectures can ensure autonomous operation, enhance resilience to outages, andfoster integration with the European energy market. Through modeling and simulation, the paper validates the feasibility of this approach, demonstrating significant improvements in energy cost efficiency, stability, and sustainability. To organize the work andinteraction of cells, 5 types of energy cells (generators, prosumers, passive consumers, electric vehicles, utility) have been identifiedthat interact and have impacts on all participants of the Microgrid: economic impacts (changes in consumer electricity bills and revenues from energy sales), technical impacts (changes in the network scheme, approaches to network planning and operation) and social impacts (support, reliability of consumption, reduction of CO2emissions). The technical, economic, and social benefits of transitioning to IoE-based cellular Microgrids are a foundational element in rebuilding and future-proofing Ukraine’s energy sector.

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Publication Details

Journal
Herald of Advanced Information Technology
Published
2025-06-27
DOI
https://doi.org/10.15276/hait.08.2025.15
Primary Topic
Cellular Automata and Applications
Type
article
Field-Weighted Citation Impact
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article

Internet of Energy based cellular structures for distributed Microgrids

С. П. Денисюк, Halyna Bielokha, Denys Derevianko
Herald of Advanced Information Technology
Cellular Automata and Applications
article

Internet of Energy based cellular structures for distributed Microgrids

С. П. Денисюк, Halyna Bielokha, Denys Derevianko
article en

Abstract

In the face of evolving global energy challenges and the urgent need for resilient, decentralized, and digitized power systems, the concept of the Internet of Energy (IoE) emerges as a transformative framework for modern energy infrastructure. This paper explores the development and implementation of IoE-based cellular structures within distributed Microgrids, with a focus on Ukraine’s critical need for energy security and system restoration. Embracing the “3D” paradigm–Decarbonization, Decentralization, and Digitalization–the proposed architecture organizes energy systems into interconnected energy cells. These cells leverage distributed energy resources, demand-side management, and Energy Cloud 4.0 technologies to enable real-time energy balancing, market participation, and transactive energy operations. The paper presents a comprehensive structure for Microgrids based on IoE principles, detailing energy cell typologies, control algorithms for cost optimization, and strategies for grid flexibilityand reliability. It highlights how cellular architectures can ensure autonomous operation, enhance resilience to outages, andfoster integration with the European energy market. Through modeling and simulation, the paper validates the feasibility of this approach, demonstrating significant improvements in energy cost efficiency, stability, and sustainability. To organize the work andinteraction of cells, 5 types of energy cells (generators, prosumers, passive consumers, electric vehicles, utility) have been identifiedthat interact and have impacts on all participants of the Microgrid: economic impacts (changes in consumer electricity bills and revenues from energy sales), technical impacts (changes in the network scheme, approaches to network planning and operation) and social impacts (support, reliability of consumption, reduction of CO2emissions). The technical, economic, and social benefits of transitioning to IoE-based cellular Microgrids are a foundational element in rebuilding and future-proofing Ukraine’s energy sector.

Herald of Advanced Information TechnologyVol. 8(2)
Openalex Percentile: Top 82%
Cellular Automata and Applications
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