Three-dimensional simulation of interfacial convection in CO2-ethanol system by hybrid lattice Boltzmann method with experimental validation

doi:10.1016/j.cjche.2014.11.026

摘要/Abstract

摘要： By using a hybrid lattice-Boltzmann-finite-difference method (hybrid LBM-FDM method), three-dimensional simulations of solutal interfacial convection were conducted for the process of CO₂ absorption into ethanol. A self-renewal interface model is adopted as an interfacial perturbation model. The simulation results revealed some three-dimensional features of the induced interfacial convection, such as the development of diverging cellular flowand Rayleigh plume-like convection in liquid phase. The concentration distribution of the simulation result is validated and found to be in well agreement with the Schlieren visualization results qualitatively. Additionally, the mass transfer enhancements by interfacial convection were investigated via both simulation and experiment for the absorption process, and the mass transfer is shown to be enhanced by the interfacial convection by about two-fold comparing with that by diffusion.

关键词: Hybrid, LBM-FDM, Solutal interfacial mass transfer, Interfacial convection, Mass transfer rate, Schlieren technique

Abstract: By using a hybrid lattice-Boltzmann-finite-difference method (hybrid LBM-FDM method), three-dimensional simulations of solutal interfacial convection were conducted for the process of CO₂ absorption into ethanol. A self-renewal interface model is adopted as an interfacial perturbation model. The simulation results revealed some three-dimensional features of the induced interfacial convection, such as the development of diverging cellular flowand Rayleigh plume-like convection in liquid phase. The concentration distribution of the simulation result is validated and found to be in well agreement with the Schlieren visualization results qualitatively. Additionally, the mass transfer enhancements by interfacial convection were investigated via both simulation and experiment for the absorption process, and the mass transfer is shown to be enhanced by the interfacial convection by about two-fold comparing with that by diffusion.

Key words: Hybrid, LBM-FDM, Solutal interfacial mass transfer, Interfacial convection, Mass transfer rate, Schlieren technique

Wei Chen, Shuyong Chen, Xigang Yuan, Huishu Zhang, Kuotsung Yu. Three-dimensional simulation of interfacial convection in CO₂-ethanol system by hybrid lattice Boltzmann method with experimental validation[J]. , 2015, 23(2): 356-365.

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Three-dimensional simulation of interfacial convection in CO₂-ethanol system by hybrid lattice Boltzmann method with experimental validation

Three-dimensional simulation of interfacial convection in CO₂-ethanol system by hybrid lattice Boltzmann method with experimental validation

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