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Metalloporphyrin- and metallocorrole-based catalysts for the oxygen reduction reaction: from molecules to materials

Haitao Lei, Jinxiu Han, Qian Zhao, J. Ping Liu, Long Yan, Wei Zhang, Rui Cao

2025Chemical Society Reviews16 citationsDOI

Abstract

axial ligands, proton relay groups, electrostatic effects, and binuclear structures on the ORR mechanism and performance. Furthermore, the integration of these molecular catalysts into structured porous materials, including metal-organic frameworks (MOFs), covalent-organic frameworks (COFs), and porous organic polymers (POPs), is discussed, highlighting how material design enhances catalytic activity, stability, and electron/proton transport. Finally, this review summarizes key achievements, identifies current challenges, and offers perspectives on future research directions for developing next-generation, high-performance ORR catalysts based on metalloporphyrins and metallocorroles. This work aims to provide valuable insights for the rational design of efficient and durable metalloporphyrin- and metallocorrole-based ORR catalysts and for the development of molecule-based functional materials for the future application of molecular electrocatalysis.

Topics & Concepts

CatalysisRational designNanotechnologyCarbon fibersMaterials scienceCarbon nanotubePolymerChemistryHeterogeneous catalysisRedoxHomogeneousCovalent bondMoleculeMolecular oxygenWork (physics)PorosityMetal-organic frameworkOxygen reduction reactionMetalCombinatorial chemistryCatalyst supportElectrocatalystOrganic moleculesChemical engineeringElectrocatalysts for Energy ConversionCovalent Organic Framework ApplicationsMetal-Organic Frameworks: Synthesis and Applications
Metalloporphyrin- and metallocorrole-based catalysts for the oxygen reduction reaction: from molecules to materials | Litcius