Journal of The Electrochemical Society · 2019 · 12 citations · 58 references
EngineeringProton-exchange Membranes Fuel-cellsComputational ChemistryChemistryTheoretical ElectrochemistryCatalytic MembraneChemical EngineeringPerspective—mesoscale PhysicsNumerical SimulationProton-exchange MembraneNanoscale ModelingTransport PhenomenaBiophysicsElectrochemical CellEnergyCathode Catalyst LayerElectrochemistryPore StructureCatalyst LayerNatural SciencesApplied PhysicsCcl Microstructure ConsiderationsMultiscale Modeling
Proton-exchange membranes fuel-cells (PEMFC) electrochemical performance insights are predicated on a detailed understanding of species transport in the cathode catalyst layer (CCL). Traditionally, CCL microstructure considerations were approached through approximations with unresolved pore-scale features. Such simplifications cause the loss of predictability for improving the economic feasibility via lower Pt-loading or non-noble metal catalysts. With advances in visualization, microstructure resolved mesoscale models become possible. A judicious combination of lattice Boltzmann (LBM) and finite volume (FVM) is an appropriate strategy for direct numerical simulation (DNS) of the physicochemical fields that remain unresolved due to spatiotemporal limitations.
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Xiaoyi He, Li‐Shi Luo · Physical review. E, Statistical physics, plasmas, fluids, and related interdisciplinary topics · 1997 · 1.7K citations