Fangzhou Wanga,*
, Gennifer A. Rileyb, Munonyedi Egboc, Melanie M. Derbyb, Gisuk Hwangc, Xianglin Lia,†
Frontiers in Heat and Mass Transfer, Vol.15, pp. 1-8, 2020, DOI:10.5098/hmt.15.1
Abstract This study conducts pore-scale simulations and experiments to estimate the permeability of two different types of porous materials: metal foams
and sintered copper particles with porosities of approximately 0.9 and 0.4, respectively. The integration of micro X-ray computed tomography with
pore-scale computational fluid dynamics simulations develops a unique tool to capture the pore-scale geometry of porous media and accurately predict
non-isotropic permeability of porous media. The pore-scale simulation not only results in improved prediction accuracy but also has the capability to
capture non-isotropic properties of heterogeneous materials, which is a huge challenge for empirical correlations, volume averaged simulations, and
simulations… More >
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