The effort to produce 80 tons per day of green hydrogen in Morocco presents a range of complex challenges. Key aspects include the scale of renewable energy deployment, the choice of electrolyzers, and their performance each requiring cutting-edge technology and robust infrastructure. The conception of the assets, encompassing installed capacity, electrolyzer type, and performance, is crucial to achieving the project’s goals. A thorough analysis of system sizing is necessary to evaluate different scenarios and address constraints throughout the value chain, including cost-effectiveness, storage, load balancing, and resource allocation, all essential for meeting the 80 tons per day production target. The study indicates that an optimal configuration-closely aligned with a setup of PV: 562 MWp, Wind: 456 MW, EZ: 273 MWe, and hydrogen storage of 7.4 tons-provides the most balanced and efficient energy production. This configuration ensures sTable 2.energy supply and efficient electrolyzer performance, while the minimal storage requirement highlights the project’s economic feasibility. The final results of this analysis will define the optimized configuration for the entire project, ensuring reliable and efficient green hydrogen production from energy generation to resource utilization.

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Optimization of Green Hydrogen Production Powered by Diverse Renewable Energy Assets

  • Rachid Mkhaitari,
  • Fatiha Elrhezouani,
  • Yamina Mir,
  • Mimoun Zazoui

摘要

The effort to produce 80 tons per day of green hydrogen in Morocco presents a range of complex challenges. Key aspects include the scale of renewable energy deployment, the choice of electrolyzers, and their performance each requiring cutting-edge technology and robust infrastructure. The conception of the assets, encompassing installed capacity, electrolyzer type, and performance, is crucial to achieving the project’s goals. A thorough analysis of system sizing is necessary to evaluate different scenarios and address constraints throughout the value chain, including cost-effectiveness, storage, load balancing, and resource allocation, all essential for meeting the 80 tons per day production target. The study indicates that an optimal configuration-closely aligned with a setup of PV: 562 MWp, Wind: 456 MW, EZ: 273 MWe, and hydrogen storage of 7.4 tons-provides the most balanced and efficient energy production. This configuration ensures sTable 2.energy supply and efficient electrolyzer performance, while the minimal storage requirement highlights the project’s economic feasibility. The final results of this analysis will define the optimized configuration for the entire project, ensuring reliable and efficient green hydrogen production from energy generation to resource utilization.