Assessment of the Hydrodynamic Velocities for Liquid-Liquid Standard Systems in the New Agitated Extractor with Non-Structural Packing

To support the scale-up and design of industrial extraction columns, this research collected 112 experimental data points for hydrodynamic parameters, slip velocity (Vslip), and characteristic velocity (Vk), utilizing three standard liquid-liquid systems in a novel mechanically agitated column randomly packed with ceramic packing. The impacts of operational conditions, including the dispersed and continuous phase velocities (Vd and Vc) as well as the mixing rate (N), on Vslip were surveyed. Since no empirical correlations have been reported for the present extractor and prior models for rotary columns were neither reliable nor accurate, a new empirical correlation for Vslip was proposed, expressed in terms of dimensionless groups, that achieves high predictive accuracy (AARE = 7.64%, R2 = 0.8415). Likewise, analysis of the Vk data yielded a semi-empirical correlation with an AARE of 5.35% and R2 of 0.9505. Furthermore, Response Surface Methodology (RSM) was employed to develop a quadratic model for Vslip that incorporates the impacts of Vd, Vc, N, and interfacial tension (σ). The resulting model exhibited excellent predictive capability (AARE = 4.78%, R2 = 0.9689), supporting its use in the optimization and design of the current extractor.

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Publication Details

Journal
Journal of Nuclear Research and Applications
Published
2026-02-25
DOI
https://doi.org/10.24200/jonra.2026.1867.1194
Primary Topic
Industrial Engineering and Technologies
Type
article
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article

Assessment of the Hydrodynamic Velocities for Liquid-Liquid Standard Systems in the New Agitated Extractor with Non-Structural Packing

M. Torab-Mostaedi, H. Bahmanyar, Kh. Mehrabi, M. Asadollahzadeh et al.
Journal of Nuclear Research and Applications
Industrial Engineering and Technologies
article

Assessment of the Hydrodynamic Velocities for Liquid-Liquid Standard Systems in the New Agitated Extractor with Non-Structural Packing

M. Torab-Mostaedi, H. Bahmanyar, Kh. Mehrabi, M. Asadollahzadeh, R. Torkaman
article en

Abstract

To support the scale-up and design of industrial extraction columns, this research collected 112 experimental data points for hydrodynamic parameters, slip velocity (Vslip), and characteristic velocity (Vk), utilizing three standard liquid-liquid systems in a novel mechanically agitated column randomly packed with ceramic packing. The impacts of operational conditions, including the dispersed and continuous phase velocities (Vd and Vc) as well as the mixing rate (N), on Vslip were surveyed. Since no empirical correlations have been reported for the present extractor and prior models for rotary columns were neither reliable nor accurate, a new empirical correlation for Vslip was proposed, expressed in terms of dimensionless groups, that achieves high predictive accuracy (AARE = 7.64%, R2 = 0.8415). Likewise, analysis of the Vk data yielded a semi-empirical correlation with an AARE of 5.35% and R2 of 0.9505. Furthermore, Response Surface Methodology (RSM) was employed to develop a quadratic model for Vslip that incorporates the impacts of Vd, Vc, N, and interfacial tension (σ). The resulting model exhibited excellent predictive capability (AARE = 4.78%, R2 = 0.9689), supporting its use in the optimization and design of the current extractor.

Journal of Nuclear Research and ApplicationsVol. 6(2)
University of Tehran (IR)
Openalex Percentile: Top 45%
Industrial Engineering and Technologies
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