A Reinforcement Learning Framework for Decentralized Decision-Making in Smart Energy Systems

Authors

  • Atef Gharbi, Mohamed Ayari, Akil Elkamel, Mahmoud Salaheldin Elsayed, Zeineb Klai, Nuha Khedhiri

Keywords:

Smart Grid, Reinforcement Learning, Decentralized Energy Management, Dynamic Pricing, Prosumers, External Production Operator (EPO).

Abstract

The complexity of modern smart grids decentralized energy systems and renewable energy sources has increased, requiring advanced energy management solutions. The paper presents a framework for reinforcement learning for decentralized energy management in smart grids. Based on production, consumption, and storage dynamics, the proposed model adapts unit costs to the individual prosumers’ energy strategies. Meanwhile, external production operators (EPOs) have dynamically adjusted pricing in response to energy shortages and surpluses throughout the system. Through simulation, the framework demonstrates that actors with different energy profiles can independently design an optimized strategy, reducing the need for external energy supplies and stabilizing costs throughout the system. The research demonstrated the scalability and robustness of decentralized learning in energy management efficiency and adaptation and contributed to the development of smart grids.

Published

2024-12-17

How to Cite

Atef Gharbi. (2024). A Reinforcement Learning Framework for Decentralized Decision-Making in Smart Energy Systems. The International Journal of Multiphysics, 18(4), 649 - 657. Retrieved from https://themultiphysicsjournal.com/index.php/ijm/article/view/1605

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