Cassie-Baxter and Wenzel States and the Effect of Interfaces on Transport Properties across Membranes.
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ABSTRACT: Mass transfer across a liquid-repelling gas permeable membrane is influenced by the state(s) of the liquid-vapor interface(s) on the surface of the membrane, the pore geometry, and the solid-fluid interactions inside the membrane. By tuning the different local contributions, it is possible to enhance the temperature difference-driven mass flux across the membrane for a constant driving force. Non-equilibrium molecular dynamics simulations were used to simulate a temperature difference-driven mass flux through a gas permeable membrane with the evaporating liquid on one side and the condensing liquid on the other. Both sides were simulated for Wenzel- and Cassie-Baxter-like states. The interaction between the fluid and the solid inside the gas permeable membrane varied between the wetting an
SUBMITTER: Rauter MT
PROVIDER: S-EPMC8630791 | biostudies-literature | 2021 Nov
REPOSITORIES: biostudies-literature
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