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Journal of Advanced Multidisciplinary Research

The Journal of Advanced Multidisciplinary Research (JAMR) is a peer-reviewed, international hybrid journal dedicated to advancing high-quality research across emerging technological, scientific, and societal disciplines. By bridging theory and practice, the journal offers a platform for global researchers, academics, and industry professionals to publish high-impact contributions.

3+ Articles
1 Volumes
1 Issues
Journal of Advanced Multidisciplinary Research Cover

Journal of Advanced Multidisciplinary Research

The Journal of Advanced Multidisciplinary Research (JAMR) is a peer-reviewed, international hybrid journal dedicated to advancing high-quality research across emerging technological, scientific, and societal disciplines. By bridging theory and practice, the journal offers a platform for global researchers, academics, and industry professionals to publish high-impact contributions.

Home › Articles › Volume 1, Issue 1 › AI-Driven Optimization Models for Hybrid Renewable E...

AI-Driven Optimization Models for Hybrid Renewable Energy Grid Management

A Comparative Analysis of Machine Learning Approaches in Microgrid Control

Authors

Dr. Eleanor Vance Ph.D.1, ✲
Volume 1 , Issue 1 , Apr 2026 , Pages 101-115
Corresponding author

Eleanor Vance

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Funding Information

This research was funded by the National Sustainable Science Foundation (Grant No. NSSF-2025-8842) and supported by the Center for Clean Energy Innovation at Tech Institute of Science.

Abstract

As power grids transition toward sustainable sources, integrating intermittent renewable energy systems poses significant stability and efficiency challenges. This paper presents an AI-driven framework designed to optimize energy distribution across hybrid renewable microgrids. Utilizing a combination of deep reinforcement learning and predictive forecasting models, our approach anticipates dynamic demand fluctuations while maintaining grid balance. Experimental results demonstrate a 14.2% reduction in overall transmission losses and a 22% improvement in peak-load response efficiency compared to traditional management strategies. These findings underscore the potential of scalable machine learning algorithms in modernizing clean energy infrastructure.

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Journal
Journal Journal of Advanced Multidisciplinary Research
Volume Volume 1
Issue Issue 1
Year 2026

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