The article discusses the challenges and recent advancements in hydrogen evolution reactions (HERs) at neutral pH. While catalysts have been successful in accelerating HERs in acidic or basic conditions, neutral pH poses kinetic limitations. The study delves into the impact of catalyst interfaces on mass transport and the potential for improving fuel cell designs through electrocatalytic water splitting. It highlights the significance of the hydrogen bonded network of water at interfaces and how it affects HER kinetics, with a focus on the role of interfacial water in slowing down H2O dissociation and hindering ion transport to catalyst surfaces. The article also introduces the concept of 'ice-like' and 'liquid-like' water formation at interfaces. Interestingly, the research points out that free water interfaces can actually boost HER activity, providing a novel direction for enhancing hydrogen production. The study mentions specific research works that have contributed to unraveling the complexities of interfacial water in the hydrogen evolution reaction. Overall, the article underscores the importance of innovative catalyst designs and understanding water-electrode interactions for advancing hydrogen production technologies.