Triple-phase interfaces for electrochemical reduction of carbon dioxide
Yihan Xu, Tianxiang Yan, Xiangrui Zhang, Wei Liu, Yichen Meng, Jianlong Lin, Zhaoli Gao, Thomas J. Meyer, Sheng Zhang, Xinbin Ma
Abstract
, porous architectures, hydrophobic modifications, and heterostructure engineering) and analyze associated failure modes. Furthermore, we extend these concepts to other electrochemical reactions, including oxygen reduction and hydrogen evolution/oxidation, to extract universal principles that guide catalyst design. This review aims to provide a comprehensive framework for advancing the field of sustainable electrocatalysis and its future role in clean energy technologies.
Topics & Concepts
ElectrowettingElectrocatalystElectrochemistryNanotechnologyCatalysisMaterials scienceHeterojunctionMass transportRenewable energyComputer scienceHydrogenProcess (computing)Electrochemical reduction of carbon dioxideBridging (networking)Electrolysis of waterOxygen evolutionReduction (mathematics)Process engineeringPower to gasChemical energyMolecular dynamicsChemistryPorosityChemical engineeringEnergy storageChemical processCarbon fibersWater splittingHydrogen productionHydrogen fuelMultiscale modelingOxygen reduction reactionForce field (fiction)Field (mathematics)CO2 Reduction Techniques and CatalystsElectrocatalysts for Energy ConversionAdvancements in Solid Oxide Fuel Cells