The rapid advancements in flexible electronic technology have led to the emergence of innovative devices such as foldable displays, wearables, e-skin, and medical devices. These breakthroughs have created a growing demand for flexible adhesives that can quickly recover their shape while effectively connecting various components in these devices.
) groups serving as soft segments. By incorporating these newly synthesized materials into pressure-sensitive adhesives, they achieved significantly improved recoverability compared to traditional methods.XDI-PEG diacrylate demonstrated exceptional recovery properties while maintaining high adhesion strength .
Furthermore, even after subjecting the adhesive to strains up to 20%, it displayed high optical transmittance , making it suitable for fields such as foldable displays that demand not only flexibility but also optical clarity.that require both high flexibility and rapid recovery characteristics," said Professor Lee."Our research addresses the long-standing challenge of balancing adhesion strength and resilience, opening up new avenues for the development of flexible electronic devices.
Hyunok Park, a researcher involved in the study, emphasized the significance of this research by stating,"The introduction of this new crosslinking structure has led to an adhesive with exceptional adhesion and recovery properties. We believe it will drive future advancements in adhesive research while contributing to further developments in flexible electronics.
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