Proton exchange membrane water electrolysis (PEMWE), as a promising technology for
hydrogen production from renewable energy sources, has great potential for industrial …

Proton exchange membrane water electrolyzer (PEMWE) technology is of interest in the
context of electrocatalytic hydrogen generation from renewable energies. It has the benefits …

As the most attractive energy carrier, hydrogen production through electrochemical water
splitting (EWS) is promising for resolving the serious environmental problems derived from …

Decarbonized hydrogen production using renewable energy sources and water electrolysis
is perceived as a promising solution for a sustainable future. The efficiency of PEMWEs …

The demand for cost reduction in proton exchange membrane water electrolyzer (PEMWE)
is driving it to increase the operating current density and higher current densities require …

Cost reduction and fast scale-up of electrolyzer technologies are essential for decarbonizing
several crucial branches of industry. For polymer electrolyte water electrolysis, this requires …

A rationalized interfacial design strategy was applied to tailor the porous transport layer
(PTL)-catalyst layer (CL) contact and the PTL bulk-phase architecture. Particularly, at the …

While the porous-transport layer (PTL) is a key component in PEM electrolyzers, it is one of
the most underexplored due to limited available structures. In this work, we present a novel …

Sustainable hydrogen (H2) production via water electrolysis is one of the most critical
pathways to decarbonize the chemical industry. Among various electrolyzer technologies …

The performance of a proton exchange membrane electrolyzer is greatly affected by the
interfacial contact between the porous transport layer and the catalyst layer. Microporous …