Multifaceted Effects of Oil Phase Hydrophilicity on Membrane Formation Dynamics during Interfacial Polymerization

ABSTRACT The insufficient understanding of the diffusion‐reaction‐polymerization coupling in membrane formation dynamics hinders the application of interfacial polymerization membranes in drug delivery and membrane separation. Here, the relationship between the hydrophilicity of the oil phase and water mass transfer behavior is taken as the breakthrough point. From the perspective of diffusion, the water mass transfer flux is positively correlated with the membrane thickness. From the perspective of polymerization, under the diffusion‐limited aggregation model, the polymerization of oligomers leads to uneven membrane thickening. This accounts for the paradoxical observation that thicker membranes exhibit lower encapsulation and rejection rates. Building on a comprehensive understanding of membrane formation dynamics, an AI model that can predict performance with high precision was developed. Furthermore, universal regulation strategies can increase the encapsulation efficiency and rejection rate by 32.3–54.8% and 6.8–23.9%, respectively. This study provides both theoretical basis and technical approaches for designing high‐performance microcapsule and separation membrane.

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Publication Details

Journal
Advanced Functional Materials
Published
2026-02-04
DOI
https://doi.org/10.1002/adfm.202530284
Primary Topic
Membrane Separation Technologies
Type
article
Field-Weighted Citation Impact
0.00
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article

Multifaceted Effects of Oil Phase Hydrophilicity on Membrane Formation Dynamics during Interfacial Polymerization

Feng Liu, Da‐xia Zhang, Xingcai Wu, Xuewen Hua et al.
Advanced Functional Materials
Membrane Separation Technologies
article

Multifaceted Effects of Oil Phase Hydrophilicity on Membrane Formation Dynamics during Interfacial Polymerization

Feng Liu, Da‐xia Zhang, Xingcai Wu, Xuewen Hua, Chunguang Chen, Jia Liu, Muyuan Liu, Tao Zhang
article en

Abstract

ABSTRACT The insufficient understanding of the diffusion‐reaction‐polymerization coupling in membrane formation dynamics hinders the application of interfacial polymerization membranes in drug delivery and membrane separation. Here, the relationship between the hydrophilicity of the oil phase and water mass transfer behavior is taken as the breakthrough point. From the perspective of diffusion, the water mass transfer flux is positively correlated with the membrane thickness. From the perspective of polymerization, under the diffusion‐limited aggregation model, the polymerization of oligomers leads to uneven membrane thickening. This accounts for the paradoxical observation that thicker membranes exhibit lower encapsulation and rejection rates. Building on a comprehensive understanding of membrane formation dynamics, an AI model that can predict performance with high precision was developed. Furthermore, universal regulation strategies can increase the encapsulation efficiency and rejection rate by 32.3–54.8% and 6.8–23.9%, respectively. This study provides both theoretical basis and technical approaches for designing high‐performance microcapsule and separation membrane.

Advanced Functional Materials
Guizhou University (CN), Liaocheng University (CN), Shandong Agricultural University (CN)
Clean water and sanitation
Openalex Percentile: Top 67%
Membrane Separation Technologies
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