Advanced Ionics, a developer of green hydrogen electrolyzers, has announced a partnership with Shell International Exploration and Production Inc. to conduct a pilot project testing Advanced Ionics' water-vapor electrolyzer technology. This collaboration aims to accelerate decarbonization by producing low-cost hydrogen and potentially ammonia. The project will focus on scaling Advanced Ionics' second-generation stack to meet the increasing global demand for green hydrogen. Advanced Ionics' Symbion™ Electrolyzer technology utilizes clean electricity and waste heat to produce green hydrogen for less than a dollar per kilogram, offering improved efficiency and sustainability in the petrochemical sector. The partnership with Shell GameChanger program highlights the importance of supporting innovative solutions in the energy industry. By testing Advanced Ionics' technology, Shell aims to validate its efficiency and sustainability benefits. The project aligns with the goal of the petrochemical industry to decarbonize and meet the rising demand for green hydrogen. Through the Early Access Program, Advanced Ionics allows potential customers to test the electrolyzer technology for specific use cases, enabling a faster scale-up when commercial units become available. Shell GameChanger program, founded in 1996, focuses on collaborating with businesses on early-stage ideas that can impact the future of energy. By supporting start-ups like Advanced Ionics, Shell provides resources and expertise to nurture groundbreaking solutions. The pilot project signifies a positive step towards sustainable hydrogen production by reducing electricity consumption and capital costs associated with current electrolyzer technologies. Overall, the collaboration between Advanced Ionics and Shell demonstrates a commitment to innovation, sustainability, and decarbonization in the energy industry. The pilot project showcases the potential of Advanced Ionics' technology to revolutionize the production of green hydrogen and contribute to a more sustainable future.