Use Case: Green Hydrogen Production with Solar and Wind Energy
Hydrogen, produced using renewable energy sources, is a crucial component in the transition to clean energy infrastructure and a sustainable reality.
Project Details
This project explores the implementation of the Scalable Hydrogen Energy Platform (SHEP) and the Compact Hydrogen Refueling Station (CHRS) powered by solar and/or wind energy. The developer aims to take advantage of renewable energy generated at low costs to produce, store, and dispense fuel cell grade green hydrogen.
Production
Refueling
Electricity
Storage
The proposed facility is located in a region with abundant sun and/or wind, ensuring high renewable energy generation.
Please note the solar and wind energy generated through solar panels or wind turbines will require additional acreage.
While our scalable hydrogen production platform is a fraction of the size of traditional hydrogen facilities, additional acreage is needed to support 1.5MW of solar and wind energy.
Key Benefits
Optimal Use of Excess Energy
Convert excess solar and wind power to hydrogen energy, reducing waste and enhancing profitability.
Diverse Revenue Streams
Generate additional revenue through the sale of hydrogen for transportation, commercial offtake, industrial processes, and more.
Energy Resilience
Store hydrogen and pair with fuel cells to provide power during low production periods, increasing energy independence.
Incentives and Subsidies
Increase profitability with hydrogen-focused government incentives such as the Clean Hydrogen Production Tax Credit 45V in the United States.
Market Opportunities
At 500 kg of hydrogen per day, SHEP can refuel:
The market opportunities for green hydrogen are diverse and quickly expanding in many segments including:
Fact: the green hydrogen market is expected to grow by 53% CARG from 2023-2029.
SHEP can produce 500kg per day, 3,500kg per week
Technology and Features
Electricity Source
Utilizes 1.5 MW of renewable energy such as solar and/or wind to power the facility.
Electrolyzer Technology
Employs state-of-the-art alkaline electrolyzers to efficiently convert water into hydrogen energy.
Storage and Refueling
Implements high-capacity storage tanks and refueling stations to supply hydrogen to various applications and industries.
Battery Systems
Integrates battery storage systems to store excess solar energy for use during non-sunny periods.
Key Milestones
The planning and design phase involves outlining the facility's layout, including electrolyzers, storage units, and refueling stations.
Results and Impact
This project offers significant environmental benefits by reducing carbon emissions through the replacement of fossil fuels with green hydrogen. Economically, it ensures cost savings by producing hydrogen with low-cost solar energy at the site of consumption, significantly lowering operational and transportations costs for hydrogen. Additionally, it enhances energy efficiency through improved utilization and storage of renewable energy.
Considerations
Maintenance and Operation
Maintain the efficiency and operation of system components including the electrolyzer, compression, and storage systems.
Project Financing
Evaluate the economic feasibility and funding for the project.
Regulations and Certifications
Navigate regulations and obtain necessary approvals for hydrogen production and distribution.
Future Outlook
SHEPTM has the ability to scale up and integrate additional technologies that increase hydrogen production capacity to meet rising demand. The growing market demand for hydrogen in many sectors will drive further development and investment in the project.
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Technology and Features
Technology and Innovation
Solar Energy Capture
Utilizes 1.5 MW of photovoltaic panels to capture solar energy, generating electricity during daylight hours.
Battery Systems
Integrates battery storage systems to store excess solar energy for use during non-sunny periods.
Electrolyzer Technology
Employs state-of-the-art alkaline electrolyzers to efficiently convert solar energy into hydrogen.
Storage and Refueling
Implements high-capacity storage tanks and refueling stations to supply hydrogen to various industries and vehicles.
Technology and Features
Solar Energy Capture
Utilizes 1.5 MW of photovoltaic panels to capture solar energy, generating electricity during daylight hours.
Battery Systems
Integrates battery storage systems to store excess solar energy for use during non-sunny periods.
Electrolyzer Technology
Employs state-of-the-art alkaline electrolyzers to efficiently convert solar energy into hydrogen.
Storage and Refueling
Implements high-capacity storage tanks and refueling stations to supply hydrogen to various industries and vehicles.
Future Outlook
SHEPTM has the ability to scale up and integrate additional technologies that increase hydrogen production capacity to meet rising demand. The growing market demand for hydrogen in many sectors will drive further development and investment in the project.
Note: The global green hydrogen market is expected to grow by CAGR 53.5% by 2029
Conclusion
Green hydrogen production and refueling through SHEPTM demonstrates the potential of utilizing solar energy to produce sustainable energy. By addressing current challenges and leveraging innovative technologies, such a project could significantly contribute to a greener and more sustainable energy landscape.
Technical Challenges
Addressing the efficiency and capacity of electrolyzers, compression, and storage systems.
Financial Considerations
Evaluating the economic feasibility and securing funding for the project.
Regulations and Certifications
Navigating regulations and obtaining necessary approvals for hydrogen production and distribution.
Key Milestones
The planning and design phase involves outlining the facility's layout, including electrolyzers, storage units, and refueling stations. Key milestones include a projected timeline for site selection, construction, and commissioning. Collaboration with solar developers, technology providers, and potential end users is essential for successful implementation. Electrolyzers operate using electricity from the grid or renewable sources to produce hydrogen 24 hours a day.
Project Details
The proposed facility is located in a region with abundant sunlight, ensuring high solar energy generation. The facility includes a large-scale solar farm, an advanced alkaline electrolyzer system, and hydrogen compression, storage, and refueling infrastructure. The electrolyzer operates using solar energy, converting water into hydrogen and oxygen through electrolysis.
This case study explores the implementation of the Scalable Hydrogen Energy Platform (SHEPTM) powered by solar energy. The project aims to utilize excess solar energy on and off peak hours to produce and store hydrogen via electrolysis, significantly reducing costs and carbon emissions. It examines potential benefits, implementation strategies, and future outlooks for such a facility.
Location
Katy, Texas, USA
Production
Refueling
Strategically located in Katy’s Energy Corridor, near the I-10 interstate highway and commercial/industrial zones. This will provide convenient access for both commercial and consumer hydrogen users.
Use Case Study: Green Hydrogen Production for Solar and Wind Farms
Hydrogen, produced using renewable energy sources, is a crucial component in the transition to clean energy infrastructure and a sustainable reality.