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February 28, 2026Coatings1 citationsOpen Access

Electrospun Janus Fibrous Membranes: Property and Potential Biomedical Applications

YJYue JiaDMDuo MaoXLXinyu Li

Key Points

  • To explore the properties and biomedical applications of electrospun Janus fibrous membranes with asymmetric wettability.
  • Utilized electrospinning to produce Janus membranes with hydrophilic and hydrophobic sides.
  • Analyzed the unidirectional fluid transport capabilities of the membranes.
  • Investigated the antibacterial and anti-inflammatory properties for wound dressing applications.
  • Janus membranes demonstrated effective removal of wound exudate due to their unidirectional drainage property.
  • Functional modifications enabled antibacterial and sustained drug release capabilities.
  • Common challenges include poor long-term stability and contamination during production.

Abstract

The Janus membrane, as a kind of functional material with asymmetric wettability, is endowed with a unique “liquid diode” effect by its hydrophilic/hydrophobic properties on both sides, which can realize unidirectional fluid transport that shows an important value for biomedical and other applications. Electrospinning technology, with the advantages of flexible processing and controllable fiber structure, has become a mainstream method for preparing Janus membranes with customizable structure and function. Electrospun Janus membranes are widely used in biomedical fields, especially in wound dressings. Their unidirectional drainage property can effectively remove wound exudate, and combined with functional components, they can simultaneously achieve antibacterial, anti-inflammatory, sustained drug release, and rapid hemostasis, and can even realize wound condition monitoring through functional modification, showing great potential in smart medical dressings. While Janus membrane studies have achieved notable breakthroughs, they still face challenges such as poor asymmetric interlayer bonding, lack of long-term stability, organic solvent contamination from electrostatic spinning, and large-scale production. In the future, we need to focus on material interface modification, green preparation process development, and theoretical model improvement to advance the real-world utilization of Janus membranes across diverse applications.

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Cite This Study

Jia et al. (2026) studied this question.

synapsesocial.com/papers/69a286b80a974eb0d3c01d92https://doi.org/10.3390/coatings16030281
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Also Consider

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  4. 4Janus Hydrogels: Design, Properties, and Applications2025 · 10 citations
  5. 5Trilayer Janus Membranes With Spatially Programmed Wettability for Postoperative Anti‐Adhesion2026