MICROGRIDS INTEGRATED WITH DIVERSE ENERGY STORAGE TECHNOLOGIES, ITS CHALLENGES AND OPTIMIZED APPLICATIONS: A REVIEW
Diverse Storage Integration in Renewable-Powered Hybrid Microgrids
DOI:
https://doi.org/10.55766/sujst7894Keywords:
Energy from waste, Energy storage, Flexible generation, Microgrid cluster, Optimization, Renewable energyAbstract
Microgrid development is strongly influenced by improved energy storage system (ESS), which holds a vital key to stabilizing the grid. A hybrid energy storage system combines various storage technologies to further synchronize frequency, reducing fluctuations and intermittency problems created by renewable energy sources. The main focus of this research is the advantages and obstacles of incorporating next-generation long-duration energy storage in clustered microgrids with flexibly generated electricity from renewable energy sources like solar, wind, and energy-from-waste units. The key challenges of the research area in focus are the management and control of power, quality of power, economic viability, reliability, and environmental issues such as carbon traces. A thorough review of popular optimization methods and tools is performed, discussing ways to tackle these issues in accordance with industry standards and operational settings. This study offers important insights into enhancing the efficiency, scalability, and sustainability of microgrid-integrated storage systems, facilitating the worldwide shift towards decentralized energy systems.
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