https://ejetms.com/index.php/ejetms <h1><strong style="font-size: 24px;">Our Vision</strong></h1> <p>Our vision encompasses publishing progressive peer-reviewed research articles par excellence using the open-access model of publication, without any constraint, financial, or other imposed on the readers. Our aim is to build mutually beneficial and long-lasting relationships with our authors and provide them full support throughout the publishing and the post-publishing processes. The Erudite Journal of Engineering Technology and Management Sciences (EJETMS) accepts submissions of a wide range of article types, including original research, reviews and feature articles. The author information section provides specific article requirements to help you turn your research into an article suitable for EJETMS.</p> <p><strong>Mode of Publication: </strong>Online (E-ISSN: 2583-2131)</p> <p><strong>Frequency of Publication: </strong>Quarterly</p> <p><strong>Language: </strong>English</p> <p><strong>Review Time (Duration in Days): </strong>10 working days</p> <p><strong>Articles can be submitted at: </strong> editorejetms@gmail.com, editor@ejetms.com</p> <p><strong>Contact us: </strong>editorejetms@gmail.com, editor@ejetms.com or +91-7382747210</p> Erudite Journal of Engineering Technology and Management Sciences (EJETMS) en-US Erudite Journal of Engineering, Technology and Management Sciences 2583-2131 https://ejetms.com/index.php/ejetms/article/view/70 <p>Battery Energy Storage Systems (BESS) play a critical role in stabilizing voltage and frequency fluctuations caused by renewable energy variability. A key application of BESS is enabling autonomous power system operation, independent of the main transmission network, while maintaining high-quality, reliable three-phase voltage to protect plant equipment. This study investigates various multilevel inverter topologies for BESS applications through simulation. It includes both quantitative analyses, evaluating output performance, and qualitative analysis, assessing reliability, modularity, and functionality. Multilevel converters are state-of-the-art for medium-voltage (MV) high-power systems, widely used in industries such as mining, marine, and oil and gas, and in integrating renewables into the grid. The focus is on three-level and five-level converter topologies with a common DC-link, supporting bidirectional energy flow. New hybrid topologies and modulation techniques are developed to optimize cost, reliability, and efficiency. All simulations are conducted under identical conditions using MATLAB/Simulink.&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;</p> Siripireddy Latha Dr. J. Gowri Shankar Copyright (c) 2025 Erudite Journal of Engineering, Technology and Management Sciences https://creativecommons.org/licenses/by-nc/4.0 2025-05-04 2025-05-04 5 2 04 09