Innovative Research on Hydrogen Integration in Renewable Energy Microgrid Systems
Key Ideas
- Hydrogen integration in microgrid systems is gaining interest as a zero-carbon energy storage option, enhancing resiliency and sustainability.
- The research focuses on developing a modeling tool with a hydrogen infrastructure library to optimize system performance and cost.
- Comparisons will be made between renewable-hydrogen systems and diesel counterparts to evaluate cost and carbon footprint benefits.
The Francis College of Engineering's Department of Mechanical Engineering is hosting a Doctoral Dissertation Proposal defense by Jack Cimorelli on the topic of 'Hydrogen Integration in Designing Resilient Renewable Energy Microgrid Systems.' The proposal aims to address the growing interest in using hydrogen produced by renewables as a zero-carbon energy storage solution in microgrid systems. The research emphasizes the need for continuous power in microgrids without access to a utility electrical grid, highlighting the limitations of diesel generators in terms of cost and carbon emissions. By exploring the integration of renewables with hydrogen storage, the study aims to enhance the resiliency and sustainability of microgrid systems. Key components of the proposed renewable-hydrogen hybrid system include the renewable energy source, electrolyzer, fuel cell, and hydrogen tanks, along with other necessary equipment for system optimization. The research objectives include developing a modeling tool with a comprehensive hydrogen infrastructure library, comparing different energy storage technologies, and benchmarking renewable-hydrogen systems against traditional diesel systems in terms of cost and environmental impact. Overall, the research by Jack Cimorelli seeks to advance the understanding and implementation of renewable energy microgrid systems with a focus on hydrogen integration.