Optimizing Hydrogen Energy Storage Systems for Microgrids: A Doctoral Dissertation Proposal Defense
Key Ideas
- Investigation of cost-effective hybrid wind-hydrogen microgrids (HWHM) for renewable integration through system-level optimization.
- Preliminary findings highlight the impact of wind speed fluctuations on the optimal sizing of the HWHM and system performance.
- Study aims to offer guidance for designing HWHMs tailored to specific geographical contexts, providing optimal system configurations.
The Francis College of Engineering at UMass Lowell is hosting a Doctoral Dissertation Proposal defense by Victor Eniola on the optimization of hydrogen energy storage systems for microgrids. The research aims to address the intermittency of renewable resources by focusing on hydrogen as a long-term energy storage medium. Hybrid hydrogen energy systems are seen as pivotal for the future of energy storage and utilization. The study will investigate cost-effective hybrid wind-hydrogen microgrids through system-level optimization, considering local renewable resource availability and load demands. Using low-order physics-based models, the research will analyze the performance of a HWHM comprising various components. The preliminary findings emphasize the importance of wind speed fluctuations on the optimal sizing of the HWHM. The study utilizes a rule-based optimization algorithm and simulations to model the operation of the system using real wind speed profiles and load demand data. The research also aims to provide guidance for designing HWHMs tailored to specific geographical contexts, offering optimal system configurations. The ultimate goal is to contribute to the effective integration of renewable energy sources into the grid and provide insights for Naval facilities worldwide to adopt efficient energy solutions.