The study delves into the operational behavior of an alkaline water electrolysis cell utilizing an ion-solvating membrane with a diluted alkaline electrolyte, specifically 1-molar potassium hydroxide, in anode feed mode. Key findings include insights on charge transport mechanisms, current density dependency on electrolyte flow, membrane stability at high temperatures, and the effects of catalysts like Raney-Ni on performance. The research highlights the unique features of ion-solvating membranes in promoting efficient hydrogen production and electrolyte discharge. By utilizing high-surface-area catalysts, the current density can be significantly enhanced, albeit with considerations for transport limitations. Overall, the study sheds light on the potential advancements in alkaline water electrolysis through innovative membrane technologies and catalyst utilization.