Bioinspired Multilayered Knitted Fabric with Directional Water Transport and Collection for Personal Sweat Management

润湿 材料科学 表面张力 复合材料 饱和(图论) 织物结构 水运 出汗 涂层 汗水 水分 纳米技术 水流 环境科学 环境工程 海洋学 组合数学 物理 地质学 量子力学 数学
作者
Lu Wang,Dahua Shou,Tarig T. A. Owad,Jing Zhang,Rong Zheng,Qing Chen,Jintu Fan
出处
期刊:ACS Applied Materials & Interfaces [American Chemical Society]
卷期号:16 (31): 41504-41517 被引量:6
标识
DOI:10.1021/acsami.4c07080
摘要

Effective sweat management fabric for sportswear facilitates sweat removal from the skin and elevates the comfort for human. However, when the body is in a strong hot and humid environment or after strenuous exercise, the sweat management fabric will be totally wetted and saturated quickly. As a result, excess sweat cannot be absorbed effectively by the garment, which creates obvious stickiness and heaviness. In this paper, a directional water transport and collection multilayered knitted fabric (DWTCF) is prepared by plasma pretreatment technology and screen coating. The treelike water transport network inspired from nature is designed in order to drive the liquid flow along the channels. By surface modification, branched hydrophilic flow paths are fabricated, and other regions are hydrophobic. As a demonstration, DWTCF has been injected with water to observe the liquid transport behavior. During the experiment, 76.7% liquid is collected by DWTCF, but there is just 0.06% collected by an ordinary knitted fabric. The weight increase of the ordinary fabric is 555.4% larger than that of DWTCF. Specifically, DWTCF utilizes the wetting and pressure-gradient-induced interfacial tension as well as the gravitational effect to facilitate the fluid motion along the hydrophilic channel, in addition to the capillarity present in the fabric structure. This study provides a new idea to develop directional water transport and collection fabric to solve the moisture absorption saturation problem of the fabric, especially for conditions requiring intense sweating.
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