Closed-Pore Engineering in Double-Layer Textiles for Adaptive Thermal and Moisture Management

  • 0State Key Laboratory of Advanced Fiber Materials, College of Materials Science and Engineering, Donghua University, Shanghai, 201620, P. R. China.

|

|

Summary

This summary is machine-generated.

Introducing Foam-TEX, a novel double-layer textile engineered for extreme cold. This innovative material offers superior thermal insulation and moisture management, ensuring comfort and protection in challenging environments.

Area Of Science

  • Materials Science
  • Textile Engineering
  • Thermal Management

Background

  • Conventional protective textiles struggle to balance insulation and breathability in cold, moist conditions.
  • Existing multi-layer systems often compromise comfort or heat retention due to moisture accumulation.

Purpose Of The Study

  • To develop an advanced textile addressing the limitations of current protective clothing in extreme cold and wet environments.
  • To engineer a material that provides thermal comfort while managing moisture effectively.

Main Methods

  • Utilized back-weft weaving technology combined with in situ foaming.
  • Created an interlocking double-layer textile (Foam-TEX) with closed-pore microspheres and gradient pores.
  • Investigated thermal conductivity, moisture transport, and material stability.

Main Results

  • Foam-TEX exhibits low thermal conductivity (0.039 W/(m·K)) due to its closed-pore microstructure.
  • Achieved excellent unidirectional moisture transport (one-way transport index 1082%) and high moisture permeability (>4000 g/(m²·24h)).
  • Demonstrated exceptional stability across extreme temperatures (-196 to 100 °C), washing, and wringing.

Conclusions

  • Foam-TEX offers a unique solution for thermal comfort and moisture management in cold, wet conditions.
  • The textile's structural design effectively prevents heat loss from sweat, enhancing performance in extreme scenarios.
  • This scalable platform enables further applications, such as Joule heating for diverse extreme wearing scenarios.