Proton-conducting nanofiber hybrid membranes (PC-NFHMs) as promising candidates, are
widely used for proton exchange membrane fuel cells (PEMFCs), combining the properties …

Ionomeric binders in catalyst layers, abbreviated as ionomers, play an essential role in the
performance of polymer–electrolyte membrane fuel cells and electrolyzers. Due to …

Proton-selective membranes are prepared by electrochemical reduction of graphene oxide
films in aqueous electrolytes. Rapid kinetics of oxygenated groups reduction was revealed …

Ionic conduction in highly designable and porous metal–organic frameworks has been
explored through the introduction of various ionic species (H+, OH−, Li+, etc.) using post …

Proton conductors, particularly hydrated solid membranes, have various applications in
sensors, fuel cells, and cellular biological systems. Unraveling the intrinsic proton transfer …

Highly proton conductive polymers have long attracted the attention of researchers for use in
energy conversion, sensors, catalysts, and other applications. From the viewpoint of the …

Graphene oxide (GO) membrane, bearing well-aligned interlayer nanochannels and well-
defined physicochemical properties, promises fast proton transport. However, the deficiency …

Polymer electrolyte membranes (PEMs) play a crucial role for use in major polymer-based
fuel cell applications. Key PEM properties such as ion conductivity, reactant permeability …

Ion-exchange membranes are critical components of hydrogen fuel cells, where these
ionomers can be confined to nanoscale thicknesses, altering the physical properties of these …

Inspired by the structure of amino acid residues chain in transmembrane proteins, amino
acid molecules are immobilized onto cellulose nanofibers to form clusters as quasi-one …