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Femtosecond laser patterning with in situ sintering of porous transport layers simultaneously enhance both electron and gas-liquid transport in proton exchange membrane water electrolysis

Jian Huang, Zhen Shen, Jun Li, Fang Chen, Barbara Mecheri, Alessandra D' Epifanio, Enrico Traversa, Liang Zhang, Qian Fu, Dingding Ye, Xun Zhu, Qiang Liao

2025Chemical Engineering Journal7 citationsDOI

Topics & Concepts

ElectrolysisMaterials scienceElectron transport chainFemtosecondElectrolysis of waterPorosityLaserIn situMembraneWater transportProtonChemical engineeringElectrodeSinteringLiquid waterChemistryOpticsComposite materialElectrolyteEnvironmental scienceEnvironmental engineeringWater flowOrganic chemistryThermodynamicsQuantum mechanicsEngineeringPhysicsPhysical chemistryBiochemistryHybrid Renewable Energy SystemsHydrogen Storage and MaterialsSpacecraft and Cryogenic Technologies
Femtosecond laser patterning with in situ sintering of porous transport layers simultaneously enhance both electron and gas-liquid transport in proton exchange membrane water electrolysis | Litcius