
This study proposes an intelligent energy management framework for a campus-scale hybrid microgrid integrating photovoltaic systems, aggregated wind generation, proton exchange membrane fuel cells, and battery energy storage to support EV charging under dynamic operating conditions. Inspired by the Federation University Mt Helen Campus, the proposed architecture combines realistic renewable generation profiles, converter-level dynamics, and hierarchical control structures to achieve adaptive and coordinated multi-source operation. A Mamdani-type fuzzy logic controller is developed to manage power flow in real time based on environmental conditions, load demand, and battery state of charge. Comprehensive MATLAB/Simulink simulations demonstrate stable operation, uninterrupted load supply, reduced grid dependency, and efficient bidirectional power exchange. Comparative analysis against conventional PI-based dispatch highlights superior transient response, improved voltage regulation, smoother control action, and enhanced power balance stability, with a peak system efficiency of 97.83%. The results validate the proposed EMS as a robust and scalable solution for EV-integrated renewable microgrids and next-generation smart campus energy systems.
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