Woodbridge Energy Development of Hydrogen based fuels is key to decarbonization around the world. The cost of Hydrogen is another critical component to successfully decarbonizing and Woodbridge is the leader in providing that H2 at a competitive price against all hydrocarbons on the market, that includes oil and natural gas. Another advancement that Woodbridge’s technology provides is storing the H2 in a state that is non-toxic and non explosive along with being 1/100 the cost to storage against our competitors. LNG and H2 have the general issues around storage being liquefied and costly. We provide a solution that eliminates that for Hydrogen transport and storage. We believe our LNG is a transitional fuel that has a 10-20 year main life before H2 becomes a world dominate fuel.

Green Hydrogen gas, a versatile and clean-burning fuel, can be produced through a process called electrolysis. Electrolysis is a chemical reaction that utilizes an electric current to split water (H2O) into its constituent elements: hydrogen (H2) and oxygen (O2). This environmentally friendly method is essential for various applications, including fuel cells, energy storage, and industrial processes.

The process of producing hydrogen gas through electrolysis can be broken down into several key steps:

1. Water Supply: Electrolysis begins with a source of water, which is typically distilled or deionized to minimize impurities. The water is loaded into a container, often referred to as an electrolysis cell.
2. Electrolysis Cell: The electrolysis cell consists of two electrodes – an anode and a cathode – immersed in the water. These electrodes are typically made of materials like platinum, graphite, or other conductive materials. They serve as the catalysts for the chemical reactions involved.
3. Electric Current: A direct current (DC) power source, such as a battery or an electrical generator, is connected to the anode and cathode. When the electric current flows through the water, it initiates the electrolysis process.
4. Hydrogen Production: At the cathode, which is connected to the negative terminal of the power source, water molecules (H2O) are reduced, and hydrogen ions (H+) gain electrons to form hydrogen gas (H2):2H₂O + 2e⁻ → 2H₂ + 2OH⁻
5. Oxygen Production: Simultaneously, at the anode connected to the positive terminal of the power source, water molecules lose electrons and are oxidized to produce oxygen gas (O2):2H₂O – 4e⁻ → O₂ + 4H⁺
6. Separation: The hydrogen and oxygen gases evolve at their respective electrodes and are typically collected separately. A separator, such as a membrane or a physical barrier, prevents the gases from mixing.
7. Purity and Storage: The produced hydrogen gas may require further purification to remove any remaining impurities. Once purified, it can be stored in tanks or used immediately as a fuel source.

Electrolysis is considered a sustainable method of hydrogen production, especially when the electricity used is generated from renewable sources like solar, wind, or hydropower. It offers the advantage of on-demand hydrogen production and can be adjusted to meet specific application requirements. Additionally, because the only byproduct of this process is oxygen, it is an environmentally friendly and carbon-neutral means of producing hydrogen gas, making it an integral part of the clean energy transition and the drive to reduce carbon emissions.

Woodbridge Energy Company “WEC” – California Hydrogen Production Facilities Report

Executive Summary:

WEC is set to establish four cutting-edge hydrogen production facilities in California, located strategically at Rancho Seco, Pittsburg, Tajon, and Lodi. Each facility, spanning 20 acres, will utilize green energy sources to produce 100,000,000 kg of green hydrogen annually. These projects aim to contribute significantly to global greenhouse gas reduction goals by providing a clean energy alternative for transportation and base load power for the electrical grid.

Project Overview:

Location:

• Our planned California Project include; Rancho Seco, Pittsburg, Tajon, and Lodi. – each adjacent to major base load power plants currently fueled by natural gas.
• Planned Projects in the Kingdom of Morocco, Africa include Green Ammonia, Green Methanol, SAF at various locations. millions of kilograms will be produced. Capturing GHG’s from coal fired power plants is one of the main focuses of WEC. Morocco produces 12GW’s of power from Coal and thus huge amounts of CO2 and CO are released through exhaust stacks.
• Planned site evaluations in Oklahoma and Texas are underway that will mitigate emissions from coal and other power generation facilities.

Facility Features:

1. Hydrogen Production:
   • Green hydrogen production using green energy sources for power.
   • Targeting 100,000,000 kg of hydrogen production annually at each site.
2. Power Plant Integration:
   • All sites strategically located next to natural gas power plants with turbines supporting up to 40% hydrogen.
3. Low Traffic Impact:
   • Minimal traffic impact with low-frequency truck movements for hydrogen transportation.
4. Hydrogen Storage:
   • Non-toxic hydrogen stored in standard water-type tanks without pressurization requirements.
5. Hydrogen Processing:
   • On-demand processing for power generation input to turbines.
6. Fuel Distribution:
   • Hydrogen shipped to fueling stations across California using standard tanker trucks.
7. Consumer Fueling:
   • Hydrogen provided as High Energy Fuel (HEZ) at vehicle fueling stations.
   • Gasification and loading into customer vehicles through standard H2 fueling pumps on demand.

Benefits of Hydrogen:

1. Greenhouse Gas Reduction:
   • Hydrogen as a key energy fuel aligns with global greenhouse gas reduction goals.
2. Clean Transportation:
   • Hydrogen used as HEZ provides a clean alternative for transportation, reducing carbon emissions.
3. Base Load Power:
   • Hydrogen utilized for base load power contributes to a cleaner electrical grid.
4. Scalability and Standardization:
   • Standard water-type tank storage and tanker truck transportation offer scalability and standardization.

Environmental Impact:

1. Low Emissions:
   • Green hydrogen production results in low to no emissions.
2. Clean Power Generation:
   • Hydrogen integration into turbines enhances power plant efficiency and reduces emissions.
3. Low Traffic Impact:
   • Minimal traffic impact due to low-frequency truck movements.

Conclusion:

Woodbridge Energy LLC’s California Hydrogen Production Facilities represent a groundbreaking initiative to harness green energy for the mass production of clean hydrogen. The integration of green hydrogen into transportation and power generation contributes significantly to environmental sustainability, positioning Woodbridge Energy LLC as a key player in the transition to cleaner energy alternatives.

For further inquiries and information, please contact:

Steve Rumbaugh
President
srr@woodbridge-energy.com

Woodbridge Energy LLC – Copyright 2023