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Transmembrane Inspired Mechano-Responsive Elastomers with Synergized Traction-Assisted Healing and Dual-Channel Sensing

  • Chao Chen
  • , Zhe Yu*
  • , Ying Tian
  • , Fenglong Li
  • , Zhengyang Kong
  • , Xu Ran
  • , Xing Wu
  • , Kyung Jin Lee
  • , Do Hwan Kim
  • , Jung Yong Lee
  • , Jin Zhu*
  • , Wu Bin Ying*
  • *Corresponding author for this work

Research output: Contribution to journalArticlepeer-review

Abstract

In the burgeoning field of bioinspired materials, the principles governing biological perception and self-healing drive advancements in biomimetic mechano-responsive materials, seamlessly integrating ionic signal sensing with self-healing. While current research often emphasizes individual functionalities, the concurrent enhancement of both self-healing and sensitivity in iontronic skins is often overlooked. Drawing inspiration from transmembrane proteins like TSP-15, Piezo 1 and Piezo 2, renowned for recruiting repair factors, multifunctional molecular-ionic regulatory sites are constructed within a polyurethane/ionic liquid composite system, leading to the development of a mechano-responsive elastomer (i-DAPU) that exhibited both rapid self-healing (72 µm min−1) and impressive sensitivity (7012.05 kPa−1). Leveraging the dual functionalities of i-DAPU in tandem with deep learning algorithms, a sophisticated system is devised for intelligently analyzing neural conditions in comatose patients based on muscle strength, achieving a remarkable 99.2% accuracy rate, holding significant promise for healthcare applications.

Original languageEnglish
Article number2402380
JournalAdvanced Functional Materials
Volume34
Issue number37
DOIs
StatePublished - 11 Sep 2024

Keywords

  • dual-channel synchronous sensing
  • iontronic skin
  • molecular-ionic interactions networks
  • polyurethane
  • traction-assisted self-healing

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