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Integrating Machine Learning into Energy Systems: A Techno-economic Framework for Enhancing Grid Efficiency and Reliability

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Unified Vision for a Sustainable Future (CEGS 2024)

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Abstract

This study introduces a novel techno-economic framework integrating machine learning (ML) into energy systems to enhance their operational efficiency and reliability. With the increasing complexity and dynamic nature of modern energy grids, there is a pressing need for innovative solutions that ensure stability and adaptability. Our proposed framework leverages advanced ML algorithms to improve grid management, ranging from demand forecasting and renewable energy integration to real-time optimization and reliability assessment. Through a comprehensive analysis, we demonstrate the effectiveness of ML in accurately predicting energy patterns, optimizing resource allocation, and managing the grid in response to fluctuating demands. The results reveal that ML not only increases the precision of energy system models but also drives substantial improvements in both economic and environmental performance. The iterative development and validation process outlined confirms the potential of ML to transform energy systems into more responsive, efficient, and robust networks. As energy providers seek sustainable and cost-effective solutions, this framework marks a significant step toward a smarter energy future.

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    Mohammad Hamid Ahadi

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    Mir Sayed Shah Danish

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Ahadi, M.H. (2024). Integrating Machine Learning into Energy Systems: A Techno-economic Framework for Enhancing Grid Efficiency and Reliability. In: Danish, M.S.S. (eds) Unified Vision for a Sustainable Future. CEGS 2024. Springer, Cham. https://doi.org/10.1007/978-3-031-53574-1_4

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