4.7 Article

Multifunctional conductive cellulose fabric with flexibility, superamphiphobicity and flame-retardancy for all-weather wearable smart electronic textiles and high-temperature warning device

Journal

CHEMICAL ENGINEERING JOURNAL
Volume 390, Issue -, Pages -

Publisher

ELSEVIER SCIENCE SA
DOI: 10.1016/j.cej.2020.124508

Keywords

Wearable device; Superamphiphobicity; Flame resistance; Conductive fabric; Temperature-driven resistance change; Flame detecting/warning response

Funding

  1. National Natural Science Foundation of China [21473132]
  2. Youth Innovation Team of Shaanxi Universities
  3. Shaanxi Provincial Science and Technology Department [2019JM-371]
  4. Outstanding Youth Science Fund of Xi'an University of Science and Technology [2019YQ2-09]
  5. Huyang Scholar Program of Xi'an University of Science and Technology

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Flexible wearable electronic textiles are in great demand with the rapid development of intelligent electronic clothing systems. Nonetheless, developing the wearable textiles-based all-weather conductive fabrics with high conductivity and sensitive temperature response property remains a huge challenge. Herein, an all-weather high conductive fabric (ACF) and fire warning sensor (AFWS) have been successfully fabricated on the basis of the multifunctional superamphiphobic cellulose fabric with high conductivity and excellent flame-retardant property. It is worth noting that the as-prepared ACF and AFWS have different surface resistances, which are 1.1 Omega/sq and 1 k Omega/sq, respectively. In comparison with the previously reported conductive textiles, the resulted ACF shows superior electrical stability even under extreme conditions such as complex water phase, oil phase, flame and bending. Moreover, the LED array has been designed and exhibits good electrical properties by virtue of the high conductivity and favorable oil-water repellency of the ACF, demonstrating wide application prospects in large-scale preparation of wearable electronic textiles. In addition, the as-prepared AFWS exhibits sensible temperature-responsive electrical resistance change, which can quickly respond within 3 s. More importantly, the mechanism of rapid reconstruction of the conductive network on the functionalized fabric surface driven by phosphorus blowing agent at high temperature have been well proposed. The current work provides a new idea to develop advanced multifunctional all-weather wearable electronic device, which can effectively realize real-time monitoring of human health and early warning of abnormal high temperature in various harsh outdoor environments.

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