A Novel Design of a Planar Bubbly Cyclone for Gas Liquid Mass Transfer

ABSTRACT Gas stripping is an effective means to remove dissolved gases from liquids. To address the drawbacks of previous technologies, a unique planar bubbly cyclone (PBC) for continuous gas–liquid mass transfer is designed. This PBC meets the requirements of gas stripping, including a lower gas‐to‐liquid volumetric flow rate. A swirling flow and liquid backflow are formed under the constraints of the guide vanes and the cylinder wall. The population balance model accurately predicts the bubble diameter (1 to 6 mm), while the Kawase correlation gives excellent results and is in good agreement with the experimental data (±0.001 m/s). The accurate estimation, based on the assumption of gas plug flow and a well‐mixed liquid flow, gives volumetric mass transfer coefficients of 0.15–0.95 s −1 when the gas–liquid ratio was 0.01–1. Overall, the PBC provides an alternative approach to gas stripping, exhibiting a low gas–liquid ratio, long‐term capabilities, and good reliability.

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Publication Details

Journal
Journal of Advanced Manufacturing and Processing
Published
2025-08-17
DOI
https://doi.org/10.1002/amp2.70040
Primary Topic
Cyclone Separators and Fluid Dynamics
Type
article
Field-Weighted Citation Impact
0.00

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article

A Novel Design of a Planar Bubbly Cyclone for Gas Liquid Mass Transfer

Jiajun Yang, Xiang Liu, Siyi Li, Xiao Xu et al.
Journal of Advanced Manufacturing and Processing
Cyclone Separators and Fluid Dynamics
article

A Novel Design of a Planar Bubbly Cyclone for Gas Liquid Mass Transfer

Jiajun Yang, Xiang Liu, Siyi Li, Xiao Xu, Shijie Zhang, Jinghao Bi
article en

Abstract

ABSTRACT Gas stripping is an effective means to remove dissolved gases from liquids. To address the drawbacks of previous technologies, a unique planar bubbly cyclone (PBC) for continuous gas–liquid mass transfer is designed. This PBC meets the requirements of gas stripping, including a lower gas‐to‐liquid volumetric flow rate. A swirling flow and liquid backflow are formed under the constraints of the guide vanes and the cylinder wall. The population balance model accurately predicts the bubble diameter (1 to 6 mm), while the Kawase correlation gives excellent results and is in good agreement with the experimental data (±0.001 m/s). The accurate estimation, based on the assumption of gas plug flow and a well‐mixed liquid flow, gives volumetric mass transfer coefficients of 0.15–0.95 s −1 when the gas–liquid ratio was 0.01–1. Overall, the PBC provides an alternative approach to gas stripping, exhibiting a low gas–liquid ratio, long‐term capabilities, and good reliability.

Journal of Advanced Manufacturing and ProcessingVol. 7(4)
East China University of Science and Technology (CN)
National Natural Science Foundation of China
Openalex Percentile: Top 78%
Cyclone Separators and Fluid Dynamics
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