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温度响应型智能热湿管理纺织品的制备及研究进展

苏娟 杨群 张宁 崔进 李睿淼 周思羽 王际平

丝绸2026,Vol.63Issue(6):83-91,9.
丝绸2026,Vol.63Issue(6):83-91,9.DOI:10.3969/j.issn.1001-7003.2026.06.008

温度响应型智能热湿管理纺织品的制备及研究进展

Fabrication and research progress of temperature-responsive smart textiles for thermo-moisture management

苏娟 1杨群 2张宁 1崔进 3李睿淼 1周思羽 1王际平1

作者信息

  • 1. 上海工程技术大学 纺织服装学院,上海 201620
  • 2. 上海工程技术大学 纺织服装学院,上海 201620||上海工程技术大学 上海市纺织化学清洁生产工程技术研究中心,上海 201620||绍兴文理学院 浙江省清洁染整技术研究重点实验室,浙江 绍兴 312000
  • 3. 上海伊纯实业有限公司,上海 201600
  • 折叠

摘要

Abstract

As a direct and easily controllable stimulus,temperature can induce reversible phase transitions in thermos-responsive polymers,and further drive dynamic responses of textiles at multiple levels,including interfacial wettability,pore structure and heat and moisture transport behavior.This mechanism forms the core of intelligent thermal-moisture regulation materials.The temperature-responsive mechanisms of thermos-responsive polymers mainly include two types.One is the phase transition mechanism based on the critical solution temperature(CST),represented by poly(N-isopropylacrylamide)(PNIPAM),which undergoes a reversible hydrophilic-hydrophobic transition near its lower critical solution temperature(LCST,28℃),leading to changes in the surface wettability of textiles.The other is based on the crystallization/melting temperature or glass transition temperature,such as thermos-responsive polyurethane.In this system,the microphase-separated soft and hard segments undergo chain freezing or motion with temperature variation,thereby regulating the thermal insulation and breathability of fabrics.These mechanisms constitute an intelligent feedback loop of"temperature signal-polymer phase transition-textile structural/property response-thermal and moisture transport regulation." Regarding the mechanism of heat and moisture transfer,maintaining the dynamic balance of the human-textile-environment microclimate is the key to achieving thermal comfort.Heat transfer in textiles mainly occurs through conduction,convection,radiation and latent heat exchange during evaporation,whereas moisture transport relies on mechanisms such as differential capillary effects,wettability gradients and biomimetic transpiration to drive the migration of liquid sweat and water vapor.The transport behavior of sweat through inter-fiber pores,yarn interstices and internal fiber channels provides the theoretical basis for designing high-efficiency thermal and moisture management textiles. Current research on temperature-responsive smart thermal and moisture management textiles mainly focuses on two fabrication strategies.The first is textile structural design,in which fiber types,linear density and fabric structures are engineered to construct gradients in wettability and pore size along the fabric thickness direction,enabling directional sweat transport through capillary pressure differences.The second is surface functionalization,in which thermos-responsive polymers are introduced onto textile surfaces through coating,grafting,printing or electrospinning techniques to impart reversible wettability transitions. Smart textiles fabricated through these strategies have demonstrated diverse functions and application potential.Single-function textiles mainly aim to improve thermal-moisture comfort by optimizing moisture absorption,sweat transport and unidirectional wicking,thereby maintaining a stable human microclimate during sports and daily wear.Multifunctional integrated textiles represent a more advanced development direction.In addition,biomimetic structural designs,such as snake-skin-inspired scale structures or thermally driven composite materials,can be used to develop adaptive thermal protective materials that achieve a balance between protection,flexibility and comfort in extreme environments such as firefighting protective clothing. Despite their promising prospects,temperature-responsive smart thermal and moisture management textiles still face several key challenges.These include the limited transition temperature range(LCST/UCST)of thermos-responsive polymers,which restricts their applicability across wide temperature ranges;insufficient interfacial bonding between polymers and textile substrates,which leads to limited washing and abrasion durability;and challenges in achieving uniformity,large-scale production and retention of the inherent textile properties such as softness in current fabrication processes.To address these issues,future research may focus on combining molecular design with structural engineering to further optimize performance.Overall,with continuous advances in material design,interfacial engineering,and textile fabrication technologies,temperature-responsive smart thermal and moisture management textiles are expected to find broader applications in personalized thermal comfort regulation,environment-adaptive protection,and intelligent health monitoring.

关键词

温敏聚合物/智能热湿管理/响应性纺织品/热湿舒适性/环境适应性

Key words

thermo-responsive polymers/smart thermo-moisture management/responsive textiles/thermo-moisture comfort/environmental adaptability

分类

轻工纺织

引用本文复制引用

苏娟,杨群,张宁,崔进,李睿淼,周思羽,王际平..温度响应型智能热湿管理纺织品的制备及研究进展[J].丝绸,2026,63(6):83-91,9.

基金项目

上海市松江区科技攻关产学研一体化项目(24SJJBGS2) (24SJJBGS2)

浙江省清洁染整技术研究重点实验室基金项目(QJRZ2307) (QJRZ2307)

纺织纤维及制品教育部重点实验室项目(Fzxw2023003) (Fzxw2023003)

丝绸

1001-7003

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