4.8 Article

Mussel-Inspired Design of a Self-Adhesive Agent for Durable Moisture Management and Bacterial Inhibition on PET Fabric

Journal

ADVANCED MATERIALS
Volume 33, Issue 35, Pages -

Publisher

WILEY-V C H VERLAG GMBH
DOI: 10.1002/adma.202100140

Keywords

bacterial inhibition; cation-pi interactions; moisture management; self-adhesives; textiles

Funding

  1. Hong Kong General Research Fund
  2. PolyU [152155/18E]
  3. National Natural Science Foundation of China [21776235, 52003159]
  4. Shenzhen Science and Technology Research Grant [JCYJ20190813172812907]

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A novel superhydrophilic polymeric molecule designed based on cation-pi interaction can efficiently transform hydrophobic PET fabric into a superhydrophilic one, enhancing human comfort and physiological health. The resulting Janus fabric with diode-like one-way sweat transportation capability inhibits bacterial growth and preserves the skin's microflora balance.
Functional textiles with advanced moisture management can enhance human comfort and physiological health. However, conventional wet finishing processes used for textiles are usually highly polluting and exhibit poor fastness. Inspired by the strong underwater adhesion properties of mussels based on cation-pi interaction, a novel superhydrophilic polymeric molecule with strong cohesion and adhesion property is designed on a poly(ethylene terephthalate ) (PET) fabric. The cation-pi- hydrophilic agent (CPHA) can efficiently transform the hydrophobic PET fabric to a superhydrophilic one, and its superhydrophilicity can withstand 150 home laundry cycles. In addition, the cationic moieties in the CPHA self-adhere to the PET fabric without any finishing auxiliary that would cause pollution. Due to its strong adhesion, CPHA can be applied to one side of the PET fabric via spray coating and curing to form a Janus hydrophobic/superhydrophilic fabric capable of diode-like one-way sweat transportation (with forward transportation capability of 1115% and backward transportation capability of -1509%). Moreover, the Janus fabric inhibits bacterial growth and invasion, while simultaneously preserving the inner ecological healthy balance of the skin's microflora. This work opens up a pathway to develop adhesives in textile wet processing for more diverse, smarter applications, e.g., quick-dry sportswear, protective suits, or air-conditioning fabrics.

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