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Inverse analysis-guided development of acid-tolerant nanoporous high-entropy alloy catalysts for enhanced water-splitting performance

Saikat Bolar, Chunyu Yuan, Samuel Jeong, Yoshikazu Ito, Takeshi Fujita

2024Journal of Materials Chemistry A9 citationsDOI

Abstract

Through material-driven inverse analysis, the acid-tolerant high-entropy catalyst, composed of Al, Au, Ir, Nb, Pt, Rh, Ru, and Ta, exhibited superior catalytic activity and stability in acidic environments, outperforming Pt and IrO 2 catalysts.

Topics & Concepts

NanoporousInverseAlloyCatalysisMaterials scienceEntropy (arrow of time)High entropy alloysChemical engineeringNanotechnologyChemistryThermodynamicsMathematicsMetallurgyPhysicsEngineeringBiochemistryGeometryElectrocatalysts for Energy ConversionCatalytic Processes in Materials ScienceNanomaterials for catalytic reactions
Inverse analysis-guided development of acid-tolerant nanoporous high-entropy alloy catalysts for enhanced water-splitting performance | Litcius