Hydrogen is a crucial energy source in the transition towards carbon neutrality due to its high energy density and zero carbon emissions. Traditional hydrogen production methods often release CO2, undermining environmental goals. Electrochemical water splitting offers a cleaner alternative, but existing technologies like PEM and AWEs have limitations in cost or efficiency. Anion exchange membrane water electrolyzers (AEMWEs) combine the benefits of both PEM and AWEs, using non-PGM catalysts while supporting higher current densities. Professor Kenji Miyatake and researchers developed a new AEM with durable hydrophobic components to address degradation challenges under alkaline conditions. The membrane showed excellent performance in electrolysis, with high OH  ̅ conductivity and stability in industrial applications. The incorporation of TFP monomers enhanced stability, with the membrane demonstrating consistent performance and high conductivity. With a tensile strength of 27.4 MPa and elongation capacity of 125.6%, the AEMs offer durability and efficiency for sustainable hydrogen production. This research represents a significant step towards a future of efficient, cost-effective green hydrogen production.