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Related Concept Videos

Elastin is Responsible for Tissue Elasticity01:12

Elastin is Responsible for Tissue Elasticity

Elastic fiber contains the protein elastin along with lesser amounts of other proteins and glycoproteins. The main property of elastin is that it will return to its original shape after being stretched or compressed. Elastic fibers are prominent in elastic tissues found in skin and the elastic ligaments of the vertebral column.
Ligaments and tendons are made of dense regular connective tissue, but in ligaments not all fibers are parallel. Dense regular elastic tissue contains elastin fibers and...

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Synthesis of Programmable Main-chain Liquid-crystalline Elastomers Using a Two-stage Thiol-acrylate Reaction
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Interface-Encoded Dynamic Covalent Crosslinking Enables Ultra-Stretchable, Signal-Stable Conductive Elastomers.

Qing Liu1, Jie Yu2, Meihong Peng3

  • 1Institute for Frontiers and Interdisciplinary Science, College of Materials Science and Engineering, Zhejiang University of Technology, Hangzhou, P. R. China.

Small (Weinheim an Der Bergstrasse, Germany)
|June 26, 2026
PubMed
Summary
This summary is machine-generated.

Researchers developed dynamic covalent interfaces for conductive elastomers, enhancing stretchability and conductivity. This strategy improves signal stability under strain for advanced soft electronics and self-healing materials.

Keywords:
biomass‐derived elastomersclosed‐loop recyclabilitydynamic covalent interfacesself‐healingsoft electronicsultra‐stretchable sensors

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Area of Science:

  • Materials Science
  • Polymer Chemistry
  • Nanotechnology

Background:

  • Soft electronics require conductive materials with high elasticity and stretchability.
  • Existing conductive elastomers face a trade-off between filler-matrix adhesion and mechanical properties.
  • Interfacial defects and stress concentration limit performance under dynamic strain.

Purpose of the Study:

  • To resolve the adhesion-elasticity trade-off in conductive elastomers.
  • To engineer dynamic covalent interfaces for enhanced electromechanical stability.
  • To develop ultra-stretchable, tough, and self-healing conductive materials.

Main Methods:

  • Functionalizing carbon nanofibers (CNFs) with lipoic acid.
  • Utilizing reversible disulfide exchange at the CNF-elastomer interface.
  • Employing density functional theory (DFT) for mechanism analysis.
  • Characterizing mechanical, electrical, and self-healing properties.

Main Results:

  • Achieved ultra-stretchability (∼4200%) and enhanced toughness.
  • Demonstrated 3-5x higher conductivity compared to controls.
  • Enabled wide-range strain sensing (0%-3000%) with high gauge factors.
  • Exhibited reproducible, low-hysteresis responses under large strains.
  • Showcased room-temperature self-healing and recyclability.

Conclusions:

  • Dynamic covalent interface engineering overcomes limitations in conductive elastomers.
  • The developed materials offer superior stretchability, conductivity, and stability.
  • This work presents a molecular design principle for advanced, sustainable soft electronic materials.